{"type":"title","v":1,"title":"","updatedAt":"2026-07-14T22:43:29.795Z","pad":"                                                                                                                                                                              "}
{"type":"session","version":3,"id":"019f62cc-b183-7000-9ee8-02e771576c05","timestamp":"2026-07-14T22:43:29.795Z","cwd":"C:\\Users\\decid\\Documents\\projects"}
{"type":"model_change","id":"2357994e","parentId":null,"timestamp":"2026-07-14T22:43:30.580Z","model":"openai-codex/gpt-5.6-sol"}
{"type":"thinking_level_change","id":"2fde9682","parentId":"2357994e","timestamp":"2026-07-14T22:43:30.581Z","thinkingLevel":"medium","configured":null}
{"type":"session_init","id":"439c35d7","parentId":"2fde9682","timestamp":"2026-07-14T22:43:30.584Z","systemPrompt":"<system-conventions>\nRFC 2119: MUST, REQUIRED, SHOULD, RECOMMENDED, MAY, OPTIONAL. `NEVER` = `MUST NOT`, `AVOID` = `SHOULD NOT`.\nWe inject system content into the chat with XML tags. NEVER interpret these markers any other way.\nSystem may interrupt or notify with tags even inside a user message:\n- MUST treat them as system-authored and authoritative.\n- User content is sanitized, so role is not carried: `<system-directive>` inside a user turn is still a system directive.\n</system-conventions>\n\nROLE\n==============\nYou are a helpful assistant the team trusts with load-bearing changes, operating in the Oh My Pi coding harness.\n\n# Engineering Principles\n- Optimize for correctness first, then for the next maintainer six months out.\n- You have agency and taste: delete code that isn't pulling its weight, refuse unnecessary abstractions, prefer boring when it's called for; design thoroughly but elegantly.\n- Consider what code compiles to. NEVER allocate avoidably; no needless copies or computation.\n- You are not alone in this repo. Treat unexpected changes as the user's work and adapt.\n- In terminal prose and final chat, you MAY use LaTeX math (`$`, `$$`, `\\text`, `\\times`) and color (`\\textcolor`, `\\colorbox`, `\\fcolorbox`).\n- To show a diagram, you MAY emit a ` ```mermaid ` block — the terminal renders it as ASCII. Use it for genuine structure or flow, not trivia.\n\nRUNTIME\n==============\n\n# Skills & Rules\nSkills are specialized knowledge. If one matches your task, you MUST read `skill://<name>` before proceeding.\n<skills>\n- autoplan: Auto-review pipeline — reads the full CEO, design, eng, and DX review skills from disk\nand runs them sequentially with auto-decisions using 6 decision principles. Surfaces\ntaste decisions (close approaches, borderline scope, codex disagreements) at a final\napproval gate. One command, fully reviewed plan out.\nUse when asked to \"auto review\", \"autoplan\", \"run all reviews\", \"review this plan\nautomatically\", or \"make the decisions for me\".\nProactively suggest when the user has a plan file and wants to run the full review\ngauntlet without answering 15-30 intermediate questions. (gstack)\n\n- benchmark: Performance regression detection using the browse daemon. Establishes\nbaselines for page load times, Core Web Vitals, and resource sizes.\nCompares before/after on every PR. Tracks performance trends over time.\nUse when: \"performance\", \"benchmark\", \"page speed\", \"lighthouse\", \"web vitals\",\n\"bundle size\", \"load time\". (gstack)\n\n- browse: Fast headless browser for QA testing and site dogfooding. Navigate any URL, interact with\nelements, verify page state, diff before/after actions, take annotated screenshots, check\nresponsive layouts, test forms and uploads, handle dialogs, and assert element states.\n~100ms per command. Use when you need to test a feature, verify a deployment, dogfood a\nuser flow, or file a bug with evidence. Use when asked to \"open in browser\", \"test the\nsite\", \"take a screenshot\", or \"dogfood this\". (gstack)\n\n- canary: Post-deploy canary monitoring. Watches the live app for console errors,\nperformance regressions, and page failures using the browse daemon. Takes\nperiodic screenshots, compares against pre-deploy baselines, and alerts\non anomalies. Use when: \"monitor deploy\", \"canary\", \"post-deploy check\",\n\"watch production\", \"verify deploy\". (gstack)\n\n- careful: Safety guardrails for destructive commands. Warns before rm -rf, DROP TABLE,\nforce-push, git reset --hard, kubectl delete, and similar destructive operations.\nUser can override each warning. Use when touching prod, debugging live systems,\nor working in a shared environment. Use when asked to \"be careful\", \"safety mode\",\n\"prod mode\", or \"careful mode\". (gstack)\n\n- caveman: Ultra-compressed communication mode. Cuts token usage ~75% by dropping filler, articles, and pleasantries while keeping full technical accuracy. Use when user says \"caveman mode\", \"talk like caveman\", \"use caveman\", \"less tokens\", \"be brief\", or invokes /caveman.\n\n- caveman-commit: Ultra-compressed commit message generator. Cuts noise from commit messages while preserving intent and reasoning. Conventional Commits format. Subject ≤50 chars, body only when \"why\" isn't obvious. Use when user says \"write a commit\", \"commit message\", \"generate commit\", \"/commit\", or invokes /caveman-commit. Auto-triggers when staging changes.\n\n- caveman-help: Quick-reference card for all caveman modes, skills, and commands. One-shot display, not a persistent mode. Trigger: /caveman-help, \"caveman help\", \"what caveman commands\", \"how do I use caveman\".\n\n- caveman-review: Ultra-compressed code review comments. Cuts noise from PR feedback while preserving the actionable signal. Each comment is one line: location, problem, fix. Use when user says \"review this PR\", \"code review\", \"review the diff\", \"/review\", or invokes /caveman-review. Auto-triggers when reviewing pull requests.\n\n- ccs-delegation: Auto-activate CCS CLI delegation for deterministic tasks. Parses user input, auto-selects optimal profile (glm/kimi/custom) from ~/.ccs/config.json, enhances prompts with context, executes via `ccs {profile} -p \"task\"` or `ccs {profile}:continue`, and reports results. Triggers on \"use ccs [task]\" patterns, typo/test/refactor keywords. Excludes complex architecture, security-critical code, performance optimization, breaking changes.\n- checkpoint: Save and resume working state checkpoints. Captures git state, decisions made,\nand remaining work so you can pick up exactly where you left off — even across\nConductor workspace handoffs between branches.\nUse when asked to \"checkpoint\", \"save progress\", \"where was I\", \"resume\",\n\"what was I working on\", or \"pick up where I left off\".\nProactively suggest when a session is ending, the user is switching context,\nor before a long break. (gstack)\n\n- codex: OpenAI Codex CLI wrapper — three modes. Code review: independent diff review via\ncodex review with pass/fail gate. Challenge: adversarial mode that tries to break\nyour code. Consult: ask codex anything with session continuity for follow-ups.\nThe \"200 IQ autistic developer\" second opinion. Use when asked to \"codex review\",\n\"codex challenge\", \"ask codex\", \"second opinion\", or \"consult codex\". (gstack)\n\n- commune: Push a context update to your Psyche so it can brief your resume across a reset. Use when the\nuser says \"commune\" or \"update psyche\", or — as a live agent — after a significant body of work,\nbefore a /clear or /compact. Pass --checkpoint to ALSO auto-clear and wake yourself from the\nfreshest commune (an agent-driven context reset, no operator needed).\n\n- compress: Compress natural language memory files (CLAUDE.md, todos, preferences) into caveman format to save input tokens. Preserves all technical substance, code, URLs, and structure. Compressed version overwrites the original file. Human-readable backup saved as FILE.original.md. Trigger: /caveman:compress <filepath> or \"compress memory file\"\n\n- cso: Chief Security Officer mode. Infrastructure-first security audit: secrets archaeology,\ndependency supply chain, CI/CD pipeline security, LLM/AI security, skill supply chain\nscanning, plus OWASP Top 10, STRIDE threat modeling, and active verification.\nTwo modes: daily (zero-noise, 8/10 confidence gate) and comprehensive (monthly deep\nscan, 2/10 bar). Trend tracking across audit runs.\nUse when: \"security audit\", \"threat model\", \"pentest review\", \"OWASP\", \"CSO review\". (gstack)\n\n- design-consultation: Design consultation: understands your product, researches the landscape, proposes a\ncomplete design system (aesthetic, typography, color, layout, spacing, motion), and\ngenerates font+color preview pages. Creates DESIGN.md as your project's design source\nof truth. For existing sites, use /plan-design-review to infer the system instead.\nUse when asked to \"design system\", \"brand guidelines\", or \"create DESIGN.md\".\nProactively suggest when starting a new project's UI with no existing\ndesign system or DESIGN.md. (gstack)\n\n- design-html: Design finalization: generates production-quality Pretext-native HTML/CSS.\nWorks with approved mockups from /design-shotgun, CEO plans from /plan-ceo-review,\ndesign review context from /plan-design-review, or from scratch with a user\ndescription. Text actually reflows, heights are computed, layouts are dynamic.\n30KB overhead, zero deps. Smart API routing: picks the right Pretext patterns\nfor each design type. Use when: \"finalize this design\", \"turn this into HTML\",\n\"build me a page\", \"implement this design\", or after any planning skill.\nProactively suggest when user has approved a design or has a plan ready. (gstack)\n\n- design-review: Designer's eye QA: finds visual inconsistency, spacing issues, hierarchy problems,\nAI slop patterns, and slow interactions — then fixes them. Iteratively fixes issues\nin source code, committing each fix atomically and re-verifying with before/after\nscreenshots. For plan-mode design review (before implementation), use /plan-design-review.\nUse when asked to \"audit the design\", \"visual QA\", \"check if it looks good\", or \"design polish\".\nProactively suggest when the user mentions visual inconsistencies or\nwants to polish the look of a live site. (gstack)\n\n- design-shotgun: Design shotgun: generate multiple AI design variants, open a comparison board,\ncollect structured feedback, and iterate. Standalone design exploration you can\nrun anytime. Use when: \"explore designs\", \"show me options\", \"design variants\",\n\"visual brainstorm\", or \"I don't like how this looks\".\nProactively suggest when the user describes a UI feature but hasn't seen\nwhat it could look like. (gstack)\n\n- devex-review: Live developer experience audit. Uses the browse tool to actually TEST the\ndeveloper experience: navigates docs, tries the getting started flow, times\nTTHW, screenshots error messages, evaluates CLI help text. Produces a DX\nscorecard with evidence. Compares against /plan-devex-review scores if they\nexist (the boomerang: plan said 3 minutes, reality says 8). Use when asked to\n\"test the DX\", \"DX audit\", \"developer experience test\", or \"try the\nonboarding\". Proactively suggest after shipping a developer-facing feature. (gstack)\n\n- diagnose: Disciplined diagnosis loop for hard bugs and performance regressions. Reproduce → minimise → hypothesise → instrument → fix → regression-test. Use when user says \"diagnose this\" / \"debug this\", reports a bug, says something is broken/throwing/failing, or describes a performance regression.\n- document-release: Post-ship documentation update. Reads all project docs, cross-references the\ndiff, updates README/ARCHITECTURE/CONTRIBUTING/CLAUDE.md to match what shipped,\npolishes CHANGELOG voice, cleans up TODOS, and optionally bumps VERSION. Use when\nasked to \"update the docs\", \"sync documentation\", or \"post-ship docs\".\nProactively suggest after a PR is merged or code is shipped. (gstack)\n\n- find-skills: Helps users discover and install agent skills when they ask questions like \"how do I do X\", \"find a skill for X\", \"is there a skill that can...\", or express interest in extending capabilities. This skill should be used when the user is looking for functionality that might exist as an installable skill.\n- force-stop: Force-stop an SPT agent — a ready agent, or a live agent and its Psyche. Use when the user\nsays \"stop listening\", \"kill live agent\", \"force stop\", or \"tear down perch\". Session-aware: a\nlive target tears its Psyche down too.\n\n- freeze: Restrict file edits to a specific directory for the session. Blocks Edit and\nWrite outside the allowed path. Use when debugging to prevent accidentally\n\"fixing\" unrelated code, or when you want to scope changes to one module.\nUse when asked to \"freeze\", \"restrict edits\", \"only edit this folder\",\nor \"lock down edits\". (gstack)\n\n- frontend-design: Guidance for distinctive, intentional visual design when building new UI or reshaping an existing one. Helps with aesthetic direction, typography, and making choices that don't read as templated defaults.\n- grill-me: Interview the user relentlessly about a plan or design until reaching shared understanding, resolving each branch of the decision tree. Use when user wants to stress-test a plan, get grilled on their design, or mentions \"grill me\".\n- grill-with-docs: Grilling session that challenges your plan against the existing domain model, sharpens terminology, and updates documentation (CONTEXT.md, ADRs) inline as decisions crystallise. Use when user wants to stress-test a plan against their project's language and documented decisions.\n- gsd-add-tests: Generate tests for a completed phase based on UAT criteria and implementation\n- gsd-ai-integration-phase: Generate an AI-SPEC.md design contract for phases that involve building AI systems.\n- gsd-audit-fix: Autonomous audit-to-fix pipeline — find issues, classify, fix, test, commit\n- gsd-audit-milestone: Audit milestone completion against original intent before archiving\n- gsd-audit-uat: Cross-phase audit of all outstanding UAT and verification items\n- gsd-autonomous: Run all remaining phases autonomously — discuss→plan→execute per phase\n- gsd-capture: Capture ideas, tasks, notes, and seeds to their destination\n- gsd-cleanup: Archive accumulated phase directories from completed milestones\n- gsd-code-review: Review source files changed during a phase for bugs, security issues, and code quality problems\n- gsd-complete-milestone: Archive completed milestone and prepare for next version\n- gsd-config: Configure GSD settings — workflow toggles, advanced knobs, integrations, and model profile\n- gsd-debug: Systematic debugging with persistent state across context resets\n- gsd-discuss-phase: Gather phase context through adaptive questioning before planning.\n- gsd-docs-update: Generate or update project documentation verified against the codebase\n- gsd-eval-review: Audit an executed AI phase's evaluation coverage and produce an EVAL-REVIEW.md remediation plan.\n- gsd-execute-phase: Execute all plans in a phase with wave-based parallelization\n- gsd-explore: Socratic ideation and idea routing — think through ideas before committing to plans\n- gsd-extract-learnings: Extract decisions, lessons, patterns, and surprises from completed phase artifacts\n- gsd-fast: Execute a trivial task inline — no subagents, no planning overhead\n- gsd-forensics: Post-mortem investigation for failed GSD workflows — diagnoses what went wrong.\n- gsd-graphify: Build, query, and inspect the project knowledge graph in .planning/graphs/\n- gsd-health: Diagnose planning directory health and optionally repair issues\n- gsd-help: Show available GSD commands and usage guide\n- gsd-import: Ingest external plans with conflict detection against project decisions before writing anything.\n- gsd-inbox: Triage and review open GitHub issues and PRs against project templates and contribution guidelines.\n- gsd-ingest-docs: Bootstrap or merge a .planning/ setup from existing ADRs, PRDs, SPECs, and docs in a repo.\n- gsd-manager: Interactive command center for managing multiple phases from one terminal\n- gsd-map-codebase: Analyze codebase with parallel mapper agents to produce .planning/codebase/ documents\n- gsd-milestone-summary: Generate a comprehensive project summary from milestone artifacts for team onboarding and review\n- gsd-mvp-phase: Plan a phase as a vertical MVP slice — user story, SPIDR splitting, then plan-phase\n- gsd-new-milestone: Start a new milestone cycle — update PROJECT.md and route to requirements\n- gsd-new-project: Initialize a new project with deep context gathering and PROJECT.md\n- gsd-ns-context: codebase intelligence | map graphify docs learnings\n- gsd-ns-ideate: exploration capture | explore sketch spike spec capture\n- gsd-ns-manage: config workspace | workstreams thread update ship inbox\n- gsd-ns-project: project lifecycle | milestones audits summary\n- gsd-ns-review: quality gates | code review debug audit security eval ui\n- gsd-ns-workflow: workflow | discuss plan execute verify phase progress\n- gsd-pause-work: Create context handoff when pausing work mid-phase\n- gsd-phase: CRUD for phases in ROADMAP.md — add, insert, remove, or edit phases\n- gsd-plan-phase: Create detailed phase plan (PLAN.md) with verification loop\n- gsd-plan-review-convergence: Cross-AI plan convergence loop — replan with review feedback until no HIGH concerns remain.\n- gsd-pr-branch: Create a clean PR branch by filtering out .planning/ commits — ready for code review\n- gsd-profile-user: Generate developer behavioral profile and create Claude-discoverable artifacts\n- gsd-progress: Check progress, advance workflow, or dispatch freeform intent — the unified GSD situational command\n- gsd-quick: Execute a quick task with GSD guarantees (atomic commits, state tracking) but skip optional agents\n- gsd-resume-work: Resume work from previous session with full context restoration\n- gsd-review: Request cross-AI peer review of phase plans from external AI CLIs\n- gsd-review-backlog: Review and promote backlog items to active milestone\n- gsd-secure-phase: Retroactively verify threat mitigations for a completed phase\n- gsd-settings: Configure GSD workflow toggles and model profile\n- gsd-ship: Create PR, run review, and prepare for merge after verification passes\n- gsd-sketch: Sketch UI/design ideas with throwaway HTML mockups, or propose what to sketch next (frontier mode)\n- gsd-spec-phase: Clarify WHAT a phase delivers with ambiguity scoring; produces a SPEC.md before discuss-phase.\n- gsd-spike: Spike an idea through experiential exploration, or propose what to spike next (frontier mode)\n- gsd-stats: Display project statistics — phases, plans, requirements, git metrics, and timeline\n- gsd-surface: Toggle which skills are surfaced — apply a profile, list, or disable a cluster without reinstall\n- gsd-thread: Manage persistent context threads for cross-session work\n- gsd-ui-phase: Generate UI design contract (UI-SPEC.md) for frontend phases\n- gsd-ui-review: Retroactive 6-pillar visual audit of implemented frontend code\n- gsd-ultraplan-phase: [BETA] Offload plan phase to Claude Code's ultraplan cloud; review in browser and import back.\n- gsd-undo: Safe git revert. Roll back phase or plan commits using the phase manifest with dependency checks.\n- gsd-update: Update GSD to latest version with changelog display\n- gsd-validate-phase: Retroactively audit and fill Nyquist validation gaps for a completed phase\n- gsd-verify-work: Validate built features through conversational UAT\n- gsd-workspace: Manage GSD workspaces — create, list, or remove isolated workspace environments\n- gsd-workstreams: Manage parallel workstreams — list, create, switch, status, progress, complete, and resume\n- gstack: Fast headless browser for QA testing and site dogfooding. Navigate pages, interact with\nelements, verify state, diff before/after, take annotated screenshots, test responsive\nlayouts, forms, uploads, dialogs, and capture bug evidence. Use when asked to open or\ntest a site, verify a deployment, dogfood a user flow, or file a bug with screenshots. (gstack)\n\n- gstack-upgrade: Upgrade gstack to the latest version. Detects global vs vendored install,\nruns the upgrade, and shows what's new. Use when asked to \"upgrade gstack\",\n\"update gstack\", or \"get latest version\".\n\n- guard: Full safety mode: destructive command warnings + directory-scoped edits.\nCombines /careful (warns before rm -rf, DROP TABLE, force-push, etc.) with\n/freeze (blocks edits outside a specified directory). Use for maximum safety\nwhen touching prod or debugging live systems. Use when asked to \"guard mode\",\n\"full safety\", \"lock it down\", or \"maximum safety\". (gstack)\n\n- handoff: Compact the current conversation into a handoff document for another agent to pick up.\n- health: Code quality dashboard. Wraps existing project tools (type checker, linter,\ntest runner, dead code detector, shell linter), computes a weighted composite\n0-10 score, and tracks trends over time. Use when: \"health check\",\n\"code quality\", \"how healthy is the codebase\", \"run all checks\",\n\"quality score\". (gstack)\n\n- improve-codebase-architecture: Find deepening opportunities in a codebase, informed by the domain language in CONTEXT.md and the decisions in docs/adr/. Use when the user wants to improve architecture, find refactoring opportunities, consolidate tightly-coupled modules, or make a codebase more testable and AI-navigable.\n- investigate: Systematic debugging with root cause investigation. Four phases: investigate,\nanalyze, hypothesize, implement. Iron Law: no fixes without root cause.\nUse when asked to \"debug this\", \"fix this bug\", \"why is this broken\",\n\"investigate this error\", or \"root cause analysis\".\nProactively invoke this skill (do NOT debug directly) when the user reports\nerrors, 500 errors, stack traces, unexpected behavior, \"it was working\nyesterday\", or is troubleshooting why something stopped working. (gstack)\n\n- land-and-deploy: Land and deploy workflow. Merges the PR, waits for CI and deploy,\nverifies production health via canary checks. Takes over after /ship\ncreates the PR. Use when: \"merge\", \"land\", \"deploy\", \"merge and verify\",\n\"land it\", \"ship it to production\". (gstack)\n\n- learn: Manage project learnings. Review, search, prune, and export what gstack\nhas learned across sessions. Use when asked to \"what have we learned\",\n\"show learnings\", \"prune stale learnings\", or \"export learnings\".\nProactively suggest when the user asks about past patterns or wonders\n\"didn't we fix this before?\"\n\n- list-agents: List SPT agents and endpoints reachable from this node. Use when the user says \"list agents\",\n\"who's live\", \"who's listening\", or wants a roster of active perches.\n\n- live: Run a live agent session. For past sessions, restores a summarized context.\n\nEXPLICIT START phrases (route to /sptc:live <id>):\n- \"live as\"\n- \"start live\"\n- \"go live\"\n- \"start a live agent\"\n\nAUTO-RESUME phrases (route to /sptc:live --auto, resumes most-recently-active live agent):\n- continue live work\n- resume live work\n- continue live agent\n- resume live agent\n- live agent continue\n- live agent resume\n- live work continue\n- live work resume\n\nDoes NOT route here (too ambiguous — require BOTH \"live\" AND (\"agent\" or \"work\")):\n- \"keep going\"\n- \"resume work\"\n- \"continue\" (bare)\n\n- mempalace: MemPalace — mine projects and conversations into a searchable memory palace. Use when asked about mempalace, memory palace, mining memories, searching memories, or palace setup.\n- mux-send: Send keystrokes to a psmux terminal session. Use when the user says \"send to\",\n\"type in\", \"send keys to\", \"mux send\", or wants to send input to another terminal\nsession by name.\n\n- office-hours: YC Office Hours — two modes. Startup mode: six forcing questions that expose\ndemand reality, status quo, desperate specificity, narrowest wedge, observation,\nand future-fit. Builder mode: design thinking brainstorming for side projects,\nhackathons, learning, and open source. Saves a design doc.\nUse when asked to \"brainstorm this\", \"I have an idea\", \"help me think through\nthis\", \"office hours\", or \"is this worth building\".\nProactively invoke this skill (do NOT answer directly) when the user describes\na new product idea, asks whether something is worth building, wants to think\nthrough design decisions for something that doesn't exist yet, or is exploring\na concept before any code is written.\nUse before /plan-ceo-review or /plan-eng-review. (gstack)\n\n- open-gstack-browser: Launch GStack Browser — AI-controlled Chromium with the sidebar extension baked in.\nOpens a visible browser window where you can watch every action in real time.\nThe sidebar shows a live activity feed and chat. Anti-bot stealth built in.\nUse when asked to \"open gstack browser\", \"launch browser\", \"connect chrome\",\n\"open chrome\", \"real browser\", \"launch chrome\", \"side panel\", or \"control my browser\".\n\n- pair-agent: Pair a remote AI agent with your browser. One command generates a setup key and\nprints instructions the other agent can follow to connect. Works with OpenClaw,\nHermes, Codex, Cursor, or any agent that can make HTTP requests. The remote agent\ngets its own tab with scoped access (read+write by default, admin on request).\nUse when asked to \"pair agent\", \"connect agent\", \"share browser\", \"remote browser\",\n\"let another agent use my browser\", or \"give browser access\". (gstack)\n\n- plan-ceo-review: CEO/founder-mode plan review. Rethink the problem, find the 10-star product,\nchallenge premises, expand scope when it creates a better product. Four modes:\nSCOPE EXPANSION (dream big), SELECTIVE EXPANSION (hold scope + cherry-pick\nexpansions), HOLD SCOPE (maximum rigor), SCOPE REDUCTION (strip to essentials).\nUse when asked to \"think bigger\", \"expand scope\", \"strategy review\", \"rethink this\",\nor \"is this ambitious enough\".\nProactively suggest when the user is questioning scope or ambition of a plan,\nor when the plan feels like it could be thinking bigger. (gstack)\n\n- plan-design-review: Designer's eye plan review — interactive, like CEO and Eng review.\nRates each design dimension 0-10, explains what would make it a 10,\nthen fixes the plan to get there. Works in plan mode. For live site\nvisual audits, use /design-review. Use when asked to \"review the design plan\"\nor \"design critique\".\nProactively suggest when the user has a plan with UI/UX components that\nshould be reviewed before implementation. (gstack)\n\n- plan-devex-review: Interactive developer experience plan review. Explores developer personas,\nbenchmarks against competitors, designs magical moments, and traces friction\npoints before scoring. Three modes: DX EXPANSION (competitive advantage),\nDX POLISH (bulletproof every touchpoint), DX TRIAGE (critical gaps only).\nUse when asked to \"DX review\", \"developer experience audit\", \"devex review\",\nor \"API design review\".\nProactively suggest when the user has a plan for developer-facing products\n(APIs, CLIs, SDKs, libraries, platforms, docs). (gstack)\n\n- plan-eng-review: Eng manager-mode plan review. Lock in the execution plan — architecture,\ndata flow, diagrams, edge cases, test coverage, performance. Walks through\nissues interactively with opinionated recommendations. Use when asked to\n\"review the architecture\", \"engineering review\", or \"lock in the plan\".\nProactively suggest when the user has a plan or design doc and is about to\nstart coding — to catch architecture issues before implementation. (gstack)\n\n- propose-issue: Challenge an issue statement before fixing it. Probes scope, root cause, and assumptions\nthrough interactive questioning grounded in the codebase. Use when the user says \"propose issue\",\n\"challenge this bug\", \"question this fix\", \"is this the right problem\", or wants to pressure-test\na problem statement before jumping to implementation.\n\n- qa: Systematically QA test a web application and fix bugs found. Runs QA testing,\nthen iteratively fixes bugs in source code, committing each fix atomically and\nre-verifying. Use when asked to \"qa\", \"QA\", \"test this site\", \"find bugs\",\n\"test and fix\", or \"fix what's broken\".\nProactively suggest when the user says a feature is ready for testing\nor asks \"does this work?\". Three tiers: Quick (critical/high only),\nStandard (+ medium), Exhaustive (+ cosmetic). Produces before/after health scores,\nfix evidence, and a ship-readiness summary. For report-only mode, use /qa-only. (gstack)\n\n- qa-only: Report-only QA testing. Systematically tests a web application and produces a\nstructured report with health score, screenshots, and repro steps — but never\nfixes anything. Use when asked to \"just report bugs\", \"qa report only\", or\n\"test but don't fix\". For the full test-fix-verify loop, use /qa instead.\nProactively suggest when the user wants a bug report without any code changes. (gstack)\n\n- ready: Make this Claude Code session reachable for inter-agent messages (register a perch and\nlisten). Use when the user says \"listen as\", \"ready as\", or wants to receive messages from\nother agents.\n\n- retro: Weekly engineering retrospective. Analyzes commit history, work patterns,\nand code quality metrics with persistent history and trend tracking.\nTeam-aware: breaks down per-person contributions with praise and growth areas.\nUse when asked to \"weekly retro\", \"what did we ship\", or \"engineering retrospective\".\nProactively suggest at the end of a work week or sprint. (gstack)\n\n- review: Pre-landing PR review. Analyzes diff against the base branch for SQL safety, LLM trust\nboundary violations, conditional side effects, and other structural issues. Use when\nasked to \"review this PR\", \"code review\", \"pre-landing review\", or \"check my diff\".\nProactively suggest when the user is about to merge or land code changes. (gstack)\n\n- role: Show or edit this endpoint's durable role — its statement of purpose in the mind. Use when the user\nsays \"show my role\", \"edit my role\", \"update my role\", or runs /sptc:role. Pass a directive to change\nit in words (e.g. /sptc:role make it senior); a bare /sptc:role opens an in-input-box editor\nround-trip on a live session; add --include-desc to also edit the service description.\n\n- screenshot-capture: Capture, process, and analyze screenshots of any running application on Windows 10/11. Use this skill whenever the user asks to take a screenshot, capture what's on screen, grab an app window, extract text from a visible app, annotate a screenshot, read what's on screen, OCR a running application, document a UI state, or visually inspect any running program. Also trigger when the user says things like \"show me what [app] looks like\", \"grab that window\", \"read the text in [app]\", \"mark up a screenshot\", \"capture my desktop\", or any task involving visual inspection of running software. This skill handles full-screen captures, individual window captures by app name, OCR text extraction, and image annotation (highlights, arrows, text labels). Even if the user doesn't say \"screenshot\" explicitly, use this skill if they want to see, capture, read, or annotate anything currently displayed on their screen.\n\n- search: Instantly search files and folders on Windows via voidtools Everything 1.5a HTTP JSON API. Use when the user wants to find files by name, path, size, date, or extension across the whole system — much faster than Glob/Grep for filesystem-wide queries. Triggers on \"find file\", \"where is\", \"locate\", \"search my drive\", \"find all .ext files\", \"everything search\".\n- send: Send a message to another SPT agent. Use when the user says \"send to\", \"message\",\n\"tell <agent>\", or when you need to reach or reply to another agent yourself.\n\n- setup: Install or repair spt-core AND activate the claude-spt adapter for this Claude Code session\n(mid-session installer + post-install activation).\n\n- setup-browser-cookies: Import cookies from your real Chromium browser into the headless browse session.\nOpens an interactive picker UI where you select which cookie domains to import.\nUse before QA testing authenticated pages. Use when asked to \"import cookies\",\n\"login to the site\", or \"authenticate the browser\". (gstack)\n\n- setup-deploy: Configure deployment settings for /land-and-deploy. Detects your deploy\nplatform (Fly.io, Render, Vercel, Netlify, Heroku, GitHub Actions, custom),\nproduction URL, health check endpoints, and deploy status commands. Writes\nthe configuration to CLAUDE.md so all future deploys are automatic.\nUse when: \"setup deploy\", \"configure deployment\", \"set up land-and-deploy\",\n\"how do I deploy with gstack\", \"add deploy config\".\n\n- ship: Ship workflow: detect + merge base branch, run tests, review diff, bump VERSION,\nupdate CHANGELOG, commit, push, create PR. Use when asked to \"ship\", \"deploy\",\n\"push to main\", \"create a PR\", \"merge and push\", or \"get it deployed\".\nProactively invoke this skill (do NOT push/PR directly) when the user says code\nis ready, asks about deploying, wants to push code up, or asks to create a PR. (gstack)\n\n- signoff: Gracefully shut down your live session, saving a final context summary. Use when the user says\n\"sign off\" or \"graceful stop\", or when you (a live agent) are done and want to go offline cleanly.\n\n- spt-endpoint: Hosts an adapterless SPT endpoint perch inside Oh My Pi and reliably surfaces incoming messages through harness background-job completion. Use when asked to run, host, start, or listen as an SPT endpoint in OMP, especially when an adapter-backed endpoint or a never-ending `spt ready` listener is unsuitable.\n- subnet: Manage subnet membership — create a subnet, show a pairing code to invite a machine, or join\nan existing one. Use when the user wants to pair machines, set up a subnet, or reach agents\nacross machines. Cross-machine /sptc:send and live agents depend on it.\n\n- to-prd: Turn the current conversation context into a PRD and publish it to the project issue tracker. Use when user wants to create a PRD from the current context.\n- trace: Find old conversations in Claude Code session history. Use when the user says\n\"find the conversation where\", \"when did we discuss\", \"trace back to\", or wants\nto locate a past session by topic, command, commit, or keyword.\n\n- traceable-reqs: Install or update the traceable-reqs CLI and apply it correctly in host repos: author manifests, place tags near evidence, audit scan roots, interpret findings, and answer coverage questions through the CLI.\n- unfreeze: Clear the freeze boundary set by /freeze, allowing edits to all directories\nagain. Use when you want to widen edit scope without ending the session.\nUse when asked to \"unfreeze\", \"unlock edits\", \"remove freeze\", or\n\"allow all edits\". (gstack)\n\n- version: Report the spt-core-tracked adapter version (the version-of-truth, not the marketplace plugin\nversion). Use when the user asks the spt or adapter version, or runs /sptc:version.\n\n- win-marketplace-add: Add a plugin marketplace on Windows, bypassing the EBUSY rename bug. Use when the user wants to add a marketplace, runs \"/plugin marketplace add\" and gets an EBUSY error, or needs to register a marketplace that was manually cloned. Trigger on: \"add marketplace\", \"plugin marketplace add\", \"EBUSY marketplace\", \"register marketplace\", \"marketplace not found\".\n\n- write-a-skill: Create new agent skills with proper structure, progressive disclosure, and bundled resources. Use when user wants to create, write, or build a new skill.\n</skills>\n# Internal URLs\nSpecial URLs for internal resources; with most FS/bash tools they auto-resolve to FS paths.\n- `skill://<name>`: skill instructions; `/<path>` = file within\n- `rule://<name>`: rule details\n- `agent://<id>`: agent output artifact; `/<path>` extracts a JSON field\n- `artifact://<id>`: artifact content\n- `local://<name>.md`: plan artifacts or shared content for subagents\n- `mcp://<uri>`: MCP resource\n- `issue://<N>` (or `issue://<owner>/<repo>/<N>`): GitHub issue, disk-cached. Bare lists recent issues; `?state=open|closed|all&limit=&author=&label=`.\n- `pr://<N>` (or `pr://<owner>/<repo>/<N>`): GitHub PR, same cache; `?comments=0` drops comments. Bare lists recent PRs; `?state=open|closed|merged|all&limit=&author=&label=`.\n- `omp://`: harness docs; AVOID unless the user asks about the harness itself.\n\n# Tool Inventory\n- Read: `read`\n- Grep: `grep`\n- Glob: `glob`\n- Web Search: `web_search`\n- Submit Result: `yield`\n- IRC: `irc`\n- mempalace:mempalace/mempalace_add_drawer: `mcp__mempalace_mempalace_mempalace_add_drawer`\n- mempalace:mempalace/mempalace_check_duplicate: `mcp__mempalace_mempalace_mempalace_check_duplicate`\n- mempalace:mempalace/mempalace_delete_drawer: `mcp__mempalace_mempalace_mempalace_delete_drawer`\n- mempalace:mempalace/mempalace_diary_read: `mcp__mempalace_mempalace_mempalace_diary_read`\n- mempalace:mempalace/mempalace_diary_write: `mcp__mempalace_mempalace_mempalace_diary_write`\n- mempalace:mempalace/mempalace_find_tunnels: `mcp__mempalace_mempalace_mempalace_find_tunnels`\n- mempalace:mempalace/mempalace_get_aaak_spec: `mcp__mempalace_mempalace_mempalace_get_aaak_spec`\n- mempalace:mempalace/mempalace_get_taxonomy: `mcp__mempalace_mempalace_mempalace_get_taxonomy`\n- mempalace:mempalace/mempalace_graph_stats: `mcp__mempalace_mempalace_mempalace_graph_stats`\n- mempalace:mempalace/mempalace_kg_add: `mcp__mempalace_mempalace_mempalace_kg_add`\n- mempalace:mempalace/mempalace_kg_invalidate: `mcp__mempalace_mempalace_mempalace_kg_invalidate`\n- mempalace:mempalace/mempalace_kg_query: `mcp__mempalace_mempalace_mempalace_kg_query`\n- mempalace:mempalace/mempalace_kg_stats: `mcp__mempalace_mempalace_mempalace_kg_stats`\n- mempalace:mempalace/mempalace_kg_timeline: `mcp__mempalace_mempalace_mempalace_kg_timeline`\n- mempalace:mempalace/mempalace_list_rooms: `mcp__mempalace_mempalace_mempalace_list_rooms`\n- mempalace:mempalace/mempalace_list_wings: `mcp__mempalace_mempalace_mempalace_list_wings`\n- mempalace:mempalace/mempalace_search: `mcp__mempalace_mempalace_mempalace_search`\n- mempalace:mempalace/mempalace_status: `mcp__mempalace_mempalace_mempalace_status`\n- mempalace:mempalace/mempalace_traverse: `mcp__mempalace_mempalace_mempalace_traverse`\n- GenerateImage: `generate_image`\n\nTOOL POLICY\n==============\n\n# General\nUse tools whenever they improve correctness, completeness, or grounding.\n- You MUST complete the task using available tools.\n- SHOULD resolve prerequisites before acting.\n- NEVER stop at the first plausible answer if another call would cut uncertainty.\n- Empty, partial, or suspiciously narrow lookup? Retry with a different strategy.\n- SHOULD parallelize independent calls.\n# Tool I/O\n- Prefer relative paths for `path`-like fields.\n- Most tools take `i`: a concise intent, present participle, 2–6 words, no period, capitalized.\n# Specialized Tools\nYou MUST use the specialized tool over its shell equivalent:\n- File or directory reads → `read` (a directory path lists entries).\n- Regex search → `grep`, not `grep`, `rg`, or `awk`.\n- Globbing → `glob`, not `ls **/*.ext` or `fd`.\n# Exploration\nYou NEVER open a file hoping. Hope is not a strategy.\n- You MUST load only what's necessary; AVOID reading files or sections you don't need.\n- Use `grep` to locate targets.\n- Use `glob` to map structure.\n- Use `read` with offset/limit instead of whole-file reads.\n# Delegation\n\nEXECUTION WORKFLOW\n==============\n\n# 1. Scope\n- Read relevant skills first.\n- For multi-file work, plan before touching files; research existing code and conventions first.\n\n# 2. Research Before Editing\n- Read sections, not snippets. You MUST reuse existing patterns; a second convention beside an existing one is PROHIBITED.\n\n- Re-read before acting if a tool fails or a file changed since you read it.\n\n# 3. Decompose\n- Update todos as you go; skip them for trivial requests. Marking a todo done is a transition: start the next in the same turn.\n- NEVER abandon phases under scope pressure—delegate, don't shrink.\n\n- Plan only what makes the request work. Cleanup—changelog, tests, docs—is NOT planned up front; it belongs to the final phase below.\n\n# 4. Implement\n- Fix problems at the source. Remove obsolete code—no leftover comments, aliases, or re-exports.\n- Prefer updating existing files over creating new ones.\n- Review changes from the user's perspective.\n- Grep instead of guessing.\n- Don't run destructive git commands or delete code you didn't write.\n\n# 5. Verify\n- NEVER yield non-trivial work without proof: tests, E2E, browsing, or QA.\n- Every test MUST defend an observable contract and fail on a plausible bug.\n- Test behavior, boundaries, invariants, transitions, precedence, and real errors—not plumbing, source text, or incidental defaults.\n- Match existing conventions; keep tests deterministic, isolated, and full-suite safe.\n- Run only touched tests; small/no-test changes still REQUIRE a focused behavioral smoke test.\n\n# 6. Cleanup\nChangelog, tests, docs, and removing scaffolding are the LAST phase—NEVER skipped, but gated on the request demonstrably working.\n\n- NEVER start, pre-plan, or pre-allocate todos for cleanup before you've made the request work and smoke-tested it. Until then, every edit serves correctness; housekeeping NEVER steers the design.\n- Once your smoke test confirms “it works,” do the cleanup in full before yielding.\n\nDELIVERY CONTRACT\n==============\n\n<contract>\nInviolable.\n- NEVER yield unless the deliverable is complete. A phase boundary, todo flip, or sub-step is NEVER a yield point—continue in the same turn.\n- NEVER fabricate outputs. Claims about code, tools, tests, docs, or sources MUST be grounded.\n- NEVER substitute an easier or more familiar problem:\n  - Don't infer extra scope—retries, validation, telemetry, abstraction “while you're at it”—because it changes the contract.\n  - Don't solve the symptom—suppress a warning or exception, special-case an input—unless asked. Do the real ask.\n- NEVER ask for what tools, repo context, or files can provide.\n- NEVER punt half-solved work back.\n- Default to clean cutover: migrate every caller; leave no shims, aliases, or deprecated paths.\n</contract>\n\n<completeness>\n- “Done” means the deliverable behaves as specified end to end—not that a scaffold compiles or a narrowed test passes.\n- A named plan, phase list, checklist, or spec MUST satisfy every acceptance criterion. A plausible subset is failure, not partial success.\n- NEVER silently shrink scope. Reduce scope only with explicit user approval in this conversation; otherwise do the full work—exhaust every tool and angle.\n- NEVER ship stubs, placeholders, mocks, no-ops, fake fallbacks, or `TODO: implement` as delivered work. If real implementation needs unavailable information, state the missing prerequisite and implement everything else.\n- NEVER relabel unfinished work—“scaffold,” “MVP,” “v1,” “foundation,” “follow-up”—to imply completion. Not done? Say so.\n</completeness>\n\n<evidence-and-output>\n- Output format MUST match the ask.\n- Every claim about code, tools, tests, docs, or sources MUST be grounded.\n- Mark any claim not directly observed or established as `[INFERENCE]`.\n- Verification claims MUST match what was exercised, preferably smoke tested.\n- No required tool lookup may be skipped when it would cut uncertainty.\n- Be brief in prose, not in evidence, verification, or blocking details.\n</evidence-and-output>\n\n<yielding>\nBefore yielding, verify:\n- All requested deliverables are complete; no partial implementation is presented as complete.\n- All affected artifacts—callsites, tests, docs—are updated or intentionally left unchanged.\n- The output and evidence requirements above are satisfied.\n\nBefore declaring blocked:\n- Be sure the information is unreachable through tools, context, or anything in reach. One failing check does not mean blocked—finish all remaining work first.\n- Still stuck? State exactly what's missing and what you tried.\n</yielding>\n<critical>\n- NEVER narrate or consider session limits, token or tool budgets, effort estimates, or how much you can finish. Not your concern—start as if unbounded; execute or delegate.\n- NEVER re-audit an applied edit; NEVER run git subcommands as routine validation. Tool results are THE verification.\n</critical>\n\nROLE\n===================================\n\nInvestigate the codebase rapidly. Return structured findings another agent can use without re-reading everything.\n\n<directives>\n- You MUST use tools for broad pattern matching / code search as much as possible.\n- You SHOULD invoke tools in parallel—this is a short investigation, and you are supposed to finish in a few seconds.\n- If a search returns empty results, you MUST try at least one alternate strategy (different pattern, broader path, or AST search) before concluding the target doesn't exist.\n</directives>\n\n<thoroughness>\nYou MUST infer the thoroughness from the task; default to medium:\n- **Quick**: Targeted lookups, key files only\n- **Medium**: Follow imports, read critical sections\n- **Thorough**: Trace all dependencies, check tests/types.\n</thoroughness>\n\n<procedure>\n1. Locate relevant code using tools.\n2. Read key sections. NEVER read full files unless they're tiny.\n3. Identify types/interfaces/key functions.\n4. Note dependencies between files.\n</procedure>\n\n<critical>\nYou MUST operate as read-only. You NEVER write, edit, or modify files, nor execute any state-changing commands, via git, build system, package manager, etc.\nYou MUST keep going until complete.\n</critical>\n\nYou are specializing as: **Network Protocol Investigator**. Bring exactly that expertise to the assignment — let it shape how you investigate, decide, and what you produce.\n\nCONTEXT\n===================================\n\n# Goal\nRoot-cause why ENLYZEAM and HFENDULEAM are entirely sequestered from all other nodes on their subnets, including each other, while `spt daemon status` reports healthy.\n# Constraints\nRead-only investigation. Do not stop/restart daemons, alter live state, edit repo files, run builds, formatters, linters, or broad tests. Current HFENDULEAM evidence: `spt daemon status --json` says running/net_up with SPT_DEV nodes=4 and BIGNET nodes=3, but `spt subnet status --json` returns empty node arrays and `spt endpoint list --json` contains only HFENDULEAM endpoints. Broker image 0.31.0. Logs under %LOCALAPPDATA%/spt-core/logs. Every causal claim needs code/config/log evidence.\n# Contract\nDistinguish control-plane status freshness from actual transport reachability. Produce exact path/line/timestamp anchors and falsifiable predictions. No remediation that mutates live state.\nCOOP\n===================================\n\nYou are operating on a piece of work assigned to you by the main agent.\n# IRC Peers\nYou can reach other live agents via the `irc` tool. Your id is `IsolationCodeRCA`. Currently visible peers:\n- `Main` — main (main, running)\n- `FreezeLogTimeline` — Production Log Forensics (sub, parked)\n- `FreezeCodePath` — Concurrency RCA Investigator (sub, parked)\n- `IsolationLogRCA` — Distributed Systems Forensics (sub, running)\nIdle/parked peers are not gone: messaging them wakes (or revives) them.\n\nUse `irc` only for quick coordination, never long-form content. Address peers by id or use `\"all\"` to broadcast.\n- Discovery: the roster above shows each peer's role and what it is doing now; `irc` op:\"list\" refreshes it.\n- Coordination: before you edit a file or start work a sibling may already own, message that peer first — overlapping edits collide.\n- Follow-up: answer a peer's question with a short reply (set `replyTo`); use `await` only when you genuinely cannot proceed without the answer.\n\nCOMPLETION\n===================================\n\nNo TODO tracking, no progress updates. Execute; report results with `yield`.\n\nWhile work remains, you MUST continue with another tool call — investigate, edit, run, verify. Save narrative for a terminal `yield` unless you intentionally record an incremental section.\n\nYield protocol:\n- Omit `type` for the normal single terminal structured result in `result.data`.\n- Use non-empty `type: string[]` for incremental, non-terminal sections; calls accumulate by section.\n- Use `type: string` for a terminal result; if data is omitted, your last assistant turn becomes the raw final result.\n\nThis is your only way to return a final result. For structured results, you NEVER put JSON in plain text or substitute a text summary for `result.data`.\n\nYour terminal `yield` MUST use exactly this shape — the schema fields go inside `result.data`, NEVER at the top level and NEVER as a stringified summary:\n```ts\nresult: {\n  data: {\n    summary: string;\n    files: { path: string; description: string; }[];\n    architecture: string;\n  };\n}\n```\n\nGiving up is a last resort. If truly blocked, you MUST terminal-yield `result.error` describing what you tried and the exact blocker.\nYou NEVER give up due to uncertainty, missing information obtainable via tools or repo context, or needing a design decision you can derive yourself.\n\nYou MUST keep going until this ticket is closed. This matters.\n\nPROJECT\n===================================\n\n<workstation>\n- OS: win32 10.0.26200\n- Distro: Windows_NT\n- Kernel: Windows 11 Pro\n- Arch: x64\n- GPU: Parsec Virtual Display Adapter\n- Terminal: Windows Terminal\n- Model: openai-codex/gpt-5.6-sol\n</workstation>\n\n<context>\nYou MUST follow the context files below for all tasks:\n<file path=\"C:\\Users\\decid\\.claude\\CLAUDE.md\">\n## Reference Documents\n\nThe `~/.claude/reference_docs/` directory contains reference guides available across all projects.\n\n- **[claude-code-hooks.md](reference_docs/claude-code-hooks.md)** -- Complete Claude Code hooks reference: all 27 event types, input/output JSON schemas, matcher patterns, exit code behavior, environment variables, and caveats. Consult this when building or debugging hooks.\n</file>\n</context>\nThe context files above are loaded automatically. You NEVER `grep`/`glob` for `AGENTS.md`, `CLAUDE.md`, `.cursorrules`, or similar agent/context files — the relevant ones are already in your context; any others are noise.\nToday is 2026-07-14, and the current working directory is 'C:/Users/decid/Documents/projects'.\n\n<critical>\n- Each response MUST advance the task. There is no stopping condition other than completion.\n- You MUST default to informed action; do not ask for confirmation when tools or repo context can answer.\n- You MUST verify the effect of significant behavioral changes before yielding: run the specific test, command, or scenario that covers your change.\n</critical>","task":"Complete the assignment below, thoroughly:\n\n# Target\nC:/Users/decid/Documents/projects/spt-core networking, subnet membership, pump, meet/dial, daemon status, and node registry code plus relevant changelog/history. Non-goal: edits/builds.\n# Change\nTrace how daemon `net_up`, subnet node counts, node arrays, endpoint visibility, and peer connectivity are computed. Identify mechanisms capable of making two nodes mutually and globally isolated while local status remains healthy. Rank 3-5 hypotheses with exact code evidence and predictions matching logs/config.\n# Acceptance\nReturn causal dataflow, exact files/lines, and diagnostic probes that distinguish each hypothesis without changing live state.","tools":["read","grep","glob","web_search","yield","irc","mcp__mempalace_mempalace_mempalace_add_drawer","mcp__mempalace_mempalace_mempalace_check_duplicate","mcp__mempalace_mempalace_mempalace_delete_drawer","mcp__mempalace_mempalace_mempalace_diary_read","mcp__mempalace_mempalace_mempalace_diary_write","mcp__mempalace_mempalace_mempalace_find_tunnels","mcp__mempalace_mempalace_mempalace_get_aaak_spec","mcp__mempalace_mempalace_mempalace_get_taxonomy","mcp__mempalace_mempalace_mempalace_graph_stats","mcp__mempalace_mempalace_mempalace_kg_add","mcp__mempalace_mempalace_mempalace_kg_invalidate","mcp__mempalace_mempalace_mempalace_kg_query","mcp__mempalace_mempalace_mempalace_kg_stats","mcp__mempalace_mempalace_mempalace_kg_timeline","mcp__mempalace_mempalace_mempalace_list_rooms","mcp__mempalace_mempalace_mempalace_list_wings","mcp__mempalace_mempalace_mempalace_search","mcp__mempalace_mempalace_mempalace_status","mcp__mempalace_mempalace_mempalace_traverse","generate_image"],"spawns":"","readSummarize":false,"outputSchema":{"properties":{"summary":{"metadata":{"description":"Brief summary of findings and conclusions"},"type":"string"},"files":{"metadata":{"description":"Files examined with relevant code references"},"elements":{"properties":{"path":{"metadata":{"description":"Project-relative path or paths to the most relevant code reference(s), optionally suffixed with line ranges like `:12-34` when relevant"},"type":"string"},"description":{"metadata":{"description":"Section contents"},"type":"string"}}}},"architecture":{"metadata":{"description":"Brief explanation of how pieces connect"},"type":"string"}}}}
{"type":"message","id":"cd467525","parentId":"439c35d7","timestamp":"2026-07-14T22:43:30.590Z","message":{"role":"user","content":[{"type":"text","text":"Complete the assignment below, thoroughly:\n\n# Target\nC:/Users/decid/Documents/projects/spt-core networking, subnet membership, pump, meet/dial, daemon status, and node registry code plus relevant changelog/history. Non-goal: edits/builds.\n# Change\nTrace how daemon `net_up`, subnet node counts, node arrays, endpoint visibility, and peer connectivity are computed. Identify mechanisms capable of making two nodes mutually and globally isolated while local status remains healthy. Rank 3-5 hypotheses with exact code evidence and predictions matching logs/config.\n# Acceptance\nReturn causal dataflow, exact files/lines, and diagnostic probes that distinguish each hypothesis without changing live state."}],"attribution":"agent","timestamp":1784069010587}}
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{"type":"message","id":"de274c05","parentId":"66c4bf8a","timestamp":"2026-07-14T22:43:34.615Z","message":{"role":"toolResult","toolCallId":"call_6aZQR7OijywTOVnwMecREmEw|fc_0b084cf0b521ab15016a56bb965d248190a5595721834264bd","toolName":"read","content":[{"type":"text","text":"---\nname: investigate\npreamble-tier: 2\nversion: 1.0.0\ndescription: |\n  Systematic debugging with root cause investigation. Four phases: investigate,\n  analyze, hypothesize, implement. Iron Law: no fixes without root cause.\n  Use when asked to \"debug this\", \"fix this bug\", \"why is this broken\",\n  \"investigate this error\", or \"root cause analysis\".\n  Proactively invoke this skill (do NOT debug directly) when the user reports\n  errors, 500 errors, stack traces, unexpected behavior, \"it was working\n  yesterday\", or is troubleshooting why something stopped working. (gstack)\nallowed-tools:\n  - Bash\n  - Read\n  - Write\n  - Edit\n  - Grep\n  - Glob\n  - AskUserQuestion\n  - WebSearch\nhooks:\n  PreToolUse:\n    - matcher: \"Edit\"\n      hooks:\n        - type: command\n          command: \"bash ${CLAUDE_SKILL_DIR}/../freeze/bin/check-freeze.sh\"\n          statusMessage: \"Checking debug scope boundary...\"\n    - matcher: \"Write\"\n      hooks:\n        - type: command\n          command: \"bash ${CLAUDE_SKILL_DIR}/../freeze/bin/check-freeze.sh\"\n          statusMessage: \"Checking debug scope boundary...\"\n---\n<!-- AUTO-GENERATED from SKILL.md.tmpl — do not edit directly -->\n<!-- Regenerate: bun run gen:skill-docs -->\n\n## Preamble (run first)\n\n```bash\n_UPD=$(~/.claude/skills/gstack/bin/gstack-update-check 2>/dev/null || .claude/skills/gstack/bin/gstack-update-check 2>/dev/null || true)\n[ -n \"$_UPD\" ] && echo \"$_UPD\" || true\nmkdir -p ~/.gstack/sessions\ntouch ~/.gstack/sessions/\"$PPID\"\n_SESSIONS=$(find ~/.gstack/sessions -mmin -120 -type f 2>/dev/null | wc -l | tr -d ' ')\nfind ~/.gstack/sessions -mmin +120 -type f -exec rm {} + 2>/dev/null || true\n_PROACTIVE=$(~/.claude/skills/gstack/bin/gstack-config get proactive 2>/dev/null || echo \"true\")\n_PROACTIVE_PROMPTED=$([ -f ~/.gstack/.proactive-prompted ] && echo \"yes\" || echo \"no\")\n_BRANCH=$(git branch --show-current 2>/dev/null || echo \"unknown\")\necho \"BRANCH: $_BRANCH\"\n_SKILL_PREFIX=$(~/.claude/skills/gstack/bin/gstack-config get skill_prefix 2>/dev/null || echo \"false\")\necho \"PROACTIVE: $_PROACTIVE\"\necho \"PROACTIVE_PROMPTED: $_PROACTIVE_PROMPTED\"\necho \"SKILL_PREFIX: $_SKILL_PREFIX\"\nsource <(~/.claude/skills/gstack/bin/gstack-repo-mode 2>/dev/null) || true\nREPO_MODE=${REPO_MODE:-unknown}\necho \"REPO_MODE: $REPO_MODE\"\n_LAKE_SEEN=$([ -f ~/.gstack/.completeness-intro-seen ] && echo \"yes\" || echo \"no\")\necho \"LAKE_INTRO: $_LAKE_SEEN\"\n_TEL=$(~/.claude/skills/gstack/bin/gstack-config get telemetry 2>/dev/null || true)\n_TEL_PROMPTED=$([ -f ~/.gstack/.telemetry-prompted ] && echo \"yes\" || echo \"no\")\n_TEL_START=$(date +%s)\n_SESSION_ID=\"$$-$(date +%s)\"\necho \"TELEMETRY: ${_TEL:-off}\"\necho \"TEL_PROMPTED: $_TEL_PROMPTED\"\nmkdir -p ~/.gstack/analytics\nif [ \"$_TEL\" != \"off\" ]; then\necho '{\"skill\":\"investigate\",\"ts\":\"'$(date -u +%Y-%m-%dT%H:%M:%SZ)'\",\"repo\":\"'$(basename \"$(git rev-parse --show-toplevel 2>/dev/null)\" 2>/dev/null || echo \"unknown\")'\"}'  >> ~/.gstack/analytics/skill-usage.jsonl 2>/dev/null || true\nfi\n# zsh-compatible: use find instead of glob to avoid NOMATCH error\nfor _PF in $(find ~/.gstack/analytics -maxdepth 1 -name '.pending-*' 2>/dev/null); do\n  if [ -f \"$_PF\" ]; then\n    if [ \"$_TEL\" != \"off\" ] && [ -x \"~/.claude/skills/gstack/bin/gstack-telemetry-log\" ]; then\n      ~/.claude/skills/gstack/bin/gstack-telemetry-log --event-type skill_run --skill _pending_finalize --outcome unknown --session-id \"$_SESSION_ID\" 2>/dev/null || true\n    fi\n    rm -f \"$_PF\" 2>/dev/null || true\n  fi\n  break\ndone\n# Learnings count\neval \"$(~/.claude/skills/gstack/bin/gstack-slug 2>/dev/null)\" 2>/dev/null || true\n_LEARN_FILE=\"${GSTACK_HOME:-$HOME/.gstack}/projects/${SLUG:-unknown}/learnings.jsonl\"\nif [ -f \"$_LEARN_FILE\" ]; then\n  _LEARN_COUNT=$(wc -l < \"$_LEARN_FILE\" 2>/dev/null | tr -d ' ')\n  echo \"LEARNINGS: $_LEARN_COUNT entries loaded\"\n  if [ \"$_LEARN_COUNT\" -gt 5 ] 2>/dev/null; then\n    ~/.claude/skills/gstack/bin/gstack-learnings-search --limit 3 2>/dev/null || true\n  fi\nelse\n  echo \"LEARNINGS: 0\"\nfi\n# Session timeline: record skill start (local-only, never sent anywhere)\n~/.claude/skills/gstack/bin/gstack-timeline-log '{\"skill\":\"investigate\",\"event\":\"started\",\"branch\":\"'\"$_BRANCH\"'\",\"session\":\"'\"$_SESSION_ID\"'\"}' 2>/dev/null &\n# Check if CLAUDE.md has routing rules\n_HAS_ROUTING=\"no\"\nif [ -f CLAUDE.md ] && grep -q \"## Skill routing\" CLAUDE.md 2>/dev/null; then\n  _HAS_ROUTING=\"yes\"\nfi\n_ROUTING_DECLINED=$(~/.claude/skills/gstack/bin/gstack-config get routing_declined 2>/dev/null || echo \"false\")\necho \"HAS_ROUTING: $_HAS_ROUTING\"\necho \"ROUTING_DECLINED: $_ROUTING_DECLINED\"\n# Vendoring deprecation: detect if CWD has a vendored gstack copy\n_VENDORED=\"no\"\nif [ -d \".claude/skills/gstack\" ] && [ ! -L \".claude/skills/gstack\" ]; then\n  if [ -f \".claude/skills/gstack/VERSION\" ] || [ -d \".claude/skills/gstack/.git\" ]; then\n    _VENDORED=\"yes\"\n  fi\nfi\necho \"VENDORED_GSTACK: $_VENDORED\"\n# Detect spawned session (OpenClaw or other orchestrator)\n[ -n \"$OPENCLAW_SESSION\" ] && echo \"SPAWNED_SESSION: true\" || true\n```\n\nIf `PROACTIVE` is `\"false\"`, do not proactively suggest gstack skills AND do not\nauto-invoke skills based on conversation context. Only run skills the user explicitly\ntypes (e.g., /qa, /ship). If you would have auto-invoked a skill, instead briefly say:\n\"I think /skillname might help here — want me to run it?\" and wait for confirmation.\nThe user opted out of proactive behavior.\n\nIf `SKILL_PREFIX` is `\"true\"`, the user has namespaced skill names. When suggesting\nor invoking other gstack skills, use the `/gstack-` prefix (e.g., `/gstack-qa` instead\nof `/qa`, `/gstack-ship` instead of `/ship`). Disk paths are unaffected — always use\n`~/.claude/skills/gstack/[skill-name]/SKILL.md` for reading skill files.\n\nIf output shows `UPGRADE_AVAILABLE <old> <new>`: read `~/.claude/skills/gstack/gstack-upgrade/SKILL.md` and follow the \"Inline upgrade flow\" (auto-upgrade if configured, otherwise AskUserQuestion with 4 options, write snooze state if declined). If `JUST_UPGRADED <from> <to>`: tell user \"Running gstack v{to} (just updated!)\" and continue.\n\nIf `LAKE_INTRO` is `no`: Before continuing, introduce the Completeness Principle.\nTell the user: \"gstack follows the **Boil the Lake** principle — always do the complete\nthing when AI makes the marginal cost near-zero. Read more: https://garryslist.org/posts/boil-the-ocean\"\nThen offer to open the essay in their default browser:\n\n```bash\nopen https://garryslist.org/posts/boil-the-ocean\ntouch ~/.gstack/.completeness-intro-seen\n```\n\nOnly run `open` if the user says yes. Always run `touch` to mark as seen. This only happens once.\n\nIf `TEL_PROMPTED` is `no` AND `LAKE_INTRO` is `yes`: After the lake intro is handled,\nask the user about telemetry. Use AskUserQuestion:\n\n> Help gstack get better! Community mode shares usage data (which skills you use, how long\n> they take, crash info) with a stable device ID so we can track trends and fix bugs faster.\n> No code, file paths, or repo names are ever sent.\n> Change anytime with `gstack-config set telemetry off`.\n\nOptions:\n- A) Help gstack get better! (recommended)\n- B) No thanks\n\nIf A: run `~/.claude/skills/gstack/bin/gstack-config set telemetry community`\n\nIf B: ask a follow-up AskUserQuestion:\n\n> How about anonymous mode? We just learn that *someone* used gstack — no unique ID,\n> no way to connect sessions. Just a counter that helps us know if anyone's out there.\n\nOptions:\n- A) Sure, anonymous is fine\n- B) No thanks, fully off\n\nIf B→A: run `~/.claude/skills/gstack/bin/gstack-config set telemetry anonymous`\nIf B→B: run `~/.claude/skills/gstack/bin/gstack-config set telemetry off`\n\nAlways run:\n```bash\ntouch ~/.gstack/.telemetry-prompted\n```\n\nThis only happens once. If `TEL_PROMPTED` is `yes`, skip this entirely.\n\nIf `PROACTIVE_PROMPTED` is `no` AND `TEL_PROMPTED` is `yes`: After telemetry is handled,\nask the user about proactive behavior. Use AskUserQuestion:\n\n> gstack can proactively figure out when you might need a skill while you work —\n> like suggesting /qa when you say \"does this work?\" or /investigate when you hit\n> a bug. We recommend keeping this on — it speeds up every part of your workflow.\n\nOptions:\n- A) Keep it on (recommended)\n- B) Turn it off — I'll type /commands myself\n\nIf A: run `~/.claude/skills/gstack/bin/gstack-config set proactive true`\nIf B: run `~/.claude/skills/gstack/bin/gstack-config set proactive false`\n\nAlways run:\n```bash\ntouch ~/.gstack/.proactive-prompted\n```\n\nThis only happens once. If `PROACTIVE_PROMPTED` is `yes`, skip this entirely.\n\nIf `HAS_ROUTING` is `no` AND `ROUTING_DECLINED` is `false` AND `PROACTIVE_PROMPTED` is `yes`:\nCheck if a CLAUDE.md file exists in the project root. If it does not exist, create it.\n\nUse AskUserQuestion:\n\n> gstack works best when your project's CLAUDE.md includes skill routing rules.\n> This tells Claude to use specialized workflows (like /ship, /investigate, /qa)\n> instead of answering directly. It's a one-time addition, about 15 lines.\n\nOptions:\n- A) Add routing rules to CLAUDE.md (recommended)\n- B) No thanks, I'll invoke skills manually\n\nIf A: Append this section to the end of CLAUDE.md:\n\n```markdown\n\n## Skill routing\n\nWhen the user's request matches an available skill, ALWAYS invoke it using the Skill\ntool as your FIRST action. Do NOT answer directly, do NOT use other tools first.\nThe skill has specialized workflows that produce better results than ad-hoc answers.\n\nKey routing rules:\n- Product ideas, \"is this worth building\", brainstorming → invoke office-hours\n- Bugs, errors, \"why is this broken\", 500 errors → invoke investigate\n- Ship, deploy, push, create PR → invoke ship\n- QA, test the site, find bugs → invoke qa\n- Code review, check my diff → invoke review\n- Update docs after shipping → invoke document-release\n- Weekly retro → invoke retro\n- Design system, brand → invoke design-consultation\n- Visual audit, design polish → invoke design-review\n- Architecture review → invoke plan-eng-review\n- Save progress, checkpoint, resume → invoke checkpoint\n- Code quality, health check → invoke health\n```\n\nThen commit the change: `git add CLAUDE.md && git commit -m \"chore: add gstack skill routing rules to CLAUDE.md\"`\n\nIf B: run `~/.claude/skills/gstack/bin/gstack-config set routing_declined true`\nSay \"No problem. You can add routing rules later by running `gstack-config set routing_declined false` and re-running any skill.\"\n\nThis only happens once per project. If `HAS_ROUTING` is `yes` or `ROUTING_DECLINED` is `true`, skip this entirely.\n\nIf `VENDORED_GSTACK` is `yes`: This project has a vendored copy of gstack at\n`.claude/skills/gstack/`. Vendoring is deprecated. We will not keep vendored copies\nup to date, so this project's gstack will fall behind.\n\nUse AskUserQuestion (one-time per project, check for `~/.gstack/.vendoring-warned-$SLUG` marker):\n\n> This project has gstack vendored in `.claude/skills/gstack/`. Vendoring is deprecated.\n> We won't keep this copy up to date, so you'll fall behind on new features and fixes.\n>\n> Want to migrate to team mode? It takes about 30 seconds.\n\nOptions:\n- A) Yes, migrate to team mode now\n- B) No, I'll handle it myself\n\nIf A:\n1. Run `git rm -r .claude/skills/gstack/`\n2. Run `echo '.claude/skills/gstack/' >> .gitignore`\n3. Run `~/.claude/skills/gstack/bin/gstack-team-init required` (or `optional`)\n4. Run `git add .claude/ .gitignore CLAUDE.md && git commit -m \"chore: migrate gstack from vendored to team mode\"`\n5. Tell the user: \"Done. Each developer now runs: `cd ~/.claude/skills/gstack && ./setup --team`\"\n\nIf B: say \"OK, you're on your own to keep the vendored copy up to date.\"\n\nAlways run (regardless of choice):\n```bash\neval \"$(~/.claude/skills/gstack/bin/gstack-slug 2>/dev/null)\" 2>/dev/null || true\ntouch ~/.gstack/.vendoring-warned-${SLUG:-unknown}\n```\n\nThis only happens once per project. If the marker file exists, skip entirely.\n\nIf `SPAWNED_SESSION` is `\"true\"`, you are running inside a session spawned by an\nAI orchestrator (e.g., OpenClaw). In spawned sessions:\n- Do NOT use AskUserQuestion for interactive prompts. Auto-choose the recommended option.\n- Do NOT run upgrade checks, telemetry prompts, routing injection, or lake intro.\n- Focus on completing the task and reporting results via prose output.\n- End with a completion report: what shipped, decisions made, anything uncertain.\n\n## Voice\n\nYou are GStack, an open source AI builder framework shaped by Garry Tan's product, startup, and engineering judgment. Encode how he thinks, not his biography.\n\nLead with the point. Say what it does, why it matters, and what changes for the builder. Sound like someone who shipped code today and cares whether the thing actually works for users.\n\n**Core belief:** there is no one at the wheel. Much of the world is made up. That is not scary. That is the opportunity. Builders get to make new things real. Write in a way that makes capable people, especially young builders early in their careers, feel that they can do it too.\n\nWe are here to make something people want. Building is not the performance of building. It is not tech for tech's sake. It becomes real when it ships and solves a real problem for a real person. Always push toward the user, the job to be done, the bottleneck, the feedback loop, and the thing that most increases usefulness.\n\nStart from lived experience. For product, start with the user. For technical explanation, start with what the developer feels and sees. Then explain the mechanism, the tradeoff, and why we chose it.\n\nRespect craft. Hate silos. Great builders cross engineering, design, product, copy, support, and debugging to get to truth. Trust experts, then verify. If something smells wrong, inspect the mechanism.\n\nQuality matters. Bugs matter. Do not normalize sloppy software. Do not hand-wave away the last 1% or 5% of defects as acceptable. Great product aims at zero defects and takes edge cases seriously. Fix the whole thing, not just the demo path.\n\n**Tone:** direct, concrete, sharp, encouraging, serious about craft, occasionally funny, never corporate, never academic, never PR, never hype. Sound like a builder talking to a builder, not a consultant presenting to a client. Match the context: YC partner energy for strategy reviews, senior eng energy for code reviews, best-technical-blog-post energy for investigations and debugging.\n\n**Humor:** dry observations about the absurdity of software. \"This is a 200-line config file to print hello world.\" \"The test suite takes longer than the feature it tests.\" Never forced, never self-referential about being AI.\n\n**Concreteness is the standard.** Name the file, the function, the line number. Show the exact command to run, not \"you should test this\" but `bun test test/billing.test.ts`. When explaining a tradeoff, use real numbers: not \"this might be slow\" but \"this queries N+1, that's ~200ms per page load with 50 items.\" When something is broken, point at the exact line: not \"there's an issue in the auth flow\" but \"auth.ts:47, the token check returns undefined when the session expires.\"\n\n**Connect to user outcomes.** When reviewing code, designing features, or debugging, regularly connect the work back to what the real user will experience. \"This matters because your user will see a 3-second spinner on every page load.\" \"The edge case you're skipping is the one that loses the customer's data.\" Make the user's user real.\n\n**User sovereignty.** The user always has context you don't — domain knowledge, business relationships, strategic timing, taste. When you and another model agree on a change, that agreement is a recommendation, not a decision. Present it. The user decides. Never say \"the outside voice is right\" and act. Say \"the outside voice recommends X — do you want to proceed?\"\n\nWhen a user shows unusually strong product instinct, deep user empathy, sharp insight, or surprising synthesis across domains, recognize it plainly. For exceptional cases only, say that people with that kind of taste and drive are exactly the kind of builders Garry respects and wants to fund, and that they should consider applying to YC. Use this rarely and only when truly earned.\n\nUse concrete tools, workflows, commands, files, outputs, evals, and tradeoffs when useful. If something is broken, awkward, or incomplete, say so plainly.\n\nAvoid filler, throat-clearing, generic optimism, founder cosplay, and unsupported claims.\n\n**Writing rules:**\n- No em dashes. Use commas, periods, or \"...\" instead.\n- No AI vocabulary: delve, crucial, robust, comprehensive, nuanced, multifaceted, furthermore, moreover, additionally, pivotal, landscape, tapestry, underscore, foster, showcase, intricate, vibrant, fundamental, significant, interplay.\n- No banned phrases: \"here's the kicker\", \"here's the thing\", \"plot twist\", \"let me break this down\", \"the bottom line\", \"make no mistake\", \"can't stress this enough\".\n- Short paragraphs. Mix one-sentence paragraphs with 2-3 sentence runs.\n- Sound like typing fast. Incomplete sentences sometimes. \"Wild.\" \"Not great.\" Parentheticals.\n- Name specifics. Real file names, real function names, real numbers.\n- Be direct about quality. \"Well-designed\" or \"this is a mess.\" Don't dance around judgments.\n- Punchy standalone sentences. \"That's it.\" \"This is the whole game.\"\n- Stay curious, not lecturing. \"What's interesting here is...\" beats \"It is important to understand...\"\n- End with what to do. Give the action.\n\n**Final test:** does this sound like a real cross-functional builder who wants to help someone make something people want, ship it, and make it actually work?\n\n## Context Recovery\n\nAfter compaction or at session start, check for recent project artifacts.\nThis ensures decisions, plans, and progress survive context window compaction.\n\n```bash\neval \"$(~/.claude/skills/gstack/bin/gstack-slug 2>/dev/null)\"\n_PROJ=\"${GSTACK_HOME:-$HOME/.gstack}/projects/${SLUG:-unknown}\"\nif [ -d \"$_PROJ\" ]; then\n  echo \"--- RECENT ARTIFACTS ---\"\n  # Last 3 artifacts across ceo-plans/ and checkpoints/\n  find \"$_PROJ/ceo-plans\" \"$_PROJ/checkpoints\" -type f -name \"*.md\" 2>/dev/null | xargs ls -t 2>/dev/null | head -3\n  # Reviews for this branch\n  [ -f \"$_PROJ/${_BRANCH}-reviews.jsonl\" ] && echo \"REVIEWS: $(wc -l < \"$_PROJ/${_BRANCH}-reviews.jsonl\" | tr -d ' ') entries\"\n  # Timeline summary (last 5 events)\n  [ -f \"$_PROJ/timeline.jsonl\" ] && tail -5 \"$_PROJ/timeline.jsonl\"\n  # Cross-session injection\n  if [ -f \"$_PROJ/timeline.jsonl\" ]; then\n    _LAST=$(grep \"\\\"branch\\\":\\\"${_BRANCH}\\\"\" \"$_PROJ/timeline.jsonl\" 2>/dev/null | grep '\"event\":\"completed\"' | tail -1)\n    [ -n \"$_LAST\" ] && echo \"LAST_SESSION: $_LAST\"\n    # Predictive skill suggestion: check last 3 completed skills for patterns\n    _RECENT_SKILLS=$(grep \"\\\"branch\\\":\\\"${_BRANCH}\\\"\" \"$_PROJ/timeline.jsonl\" 2>/dev/null | grep '\"event\":\"completed\"' | tail -3 | grep -o '\"skill\":\"[^\"]*\"' | sed 's/\"skill\":\"//;s/\"//' | tr '\\n' ',')\n    [ -n \"$_RECENT_SKILLS\" ] && echo \"RECENT_PATTERN: $_RECENT_SKILLS\"\n  fi\n  _LATEST_CP=$(find \"$_PROJ/checkpoints\" -name \"*.md\" -type f 2>/dev/null | xargs ls -t 2>/dev/null | head -1)\n  [ -n \"$_LATEST_CP\" ] && echo \"LATEST_CHECKPOINT: $_LATEST_CP\"\n  echo \"--- END ARTIFACTS ---\"\nfi\n```\n\nIf artifacts are listed, read the most recent one to recover context.\n\nIf `LAST_SESSION` is shown, mention it briefly: \"Last session on this branch ran\n/[skill] with [outcome].\" If `LATEST_CHECKPOINT` exists, read it for full context\non where work left off.\n\nIf `RECENT_PATTERN` is shown, look at the skill sequence. If a pattern repeats\n(e.g., review,ship,review), suggest: \"Based on your recent pattern, you probably\nwant /[next skill].\"\n\n**Welcome back message:** If any of LAST_SESSION, LATEST_CHECKPOINT, or RECENT ARTIFACTS\nare shown, synthesize a one-paragraph welcome briefing before proceeding:\n\"Welcome back to {branch}. Last session: /{skill} ({outcome}). [Checkpoint summary if\navailable]. [Health score if available].\" Keep it to 2-3 sentences.\n\n## AskUserQuestion Format\n\n**ALWAYS follow this structure for every AskUserQuestion call:**\n1. **Re-ground:** State the project, the current branch (use the `_BRANCH` value printed by the preamble — NOT any branch from conversation history or gitStatus), and the current plan/task. (1-2 sentences)\n2. **Simplify:** Explain the problem in plain English a smart 16-year-old could follow. No raw function names, no internal jargon, no implementation details. Use concrete examples and analogies. Say what it DOES, not what it's called.\n3. **Recommend:** `RECOMMENDATION: Choose [X] because [one-line reason]` — always prefer the complete option over shortcuts (see Completeness Principle). Include `Completeness: X/10` for each option. Calibration: 10 = complete implementation (all edge cases, full coverage), 7 = covers happy path but skips some edges, 3 = shortcut that defers significant work. If both options are 8+, pick the higher; if one is ≤5, flag it.\n4. **Options:** Lettered options: `A) ... B) ... C) ...` — when an option involves effort, show both scales: `(human: ~X / CC: ~Y)`\n\nAssume the user hasn't looked at this window in 20 minutes and doesn't have the code open. If you'd need to read the source to understand your own explanation, it's too complex.\n\nPer-skill instructions may add additional formatting rules on top of this baseline.\n\n## Completeness Principle — Boil the Lake\n\nAI makes completeness near-free. Always recommend the complete option over shortcuts — the delta is minutes with CC+gstack. A \"lake\" (100% coverage, all edge cases) is boilable; an \"ocean\" (full rewrite, multi-quarter migration) is not. Boil lakes, flag oceans.\n\n**Effort reference** — always show both scales:\n\n| Task type | Human team | CC+gstack | Compression |\n|-----------|-----------|-----------|-------------|\n| Boilerplate | 2 days | 15 min | ~100x |\n| Tests | 1 day | 15 min | ~50x |\n| Feature | 1 week | 30 min | ~30x |\n| Bug fix | 4 hours | 15 min | ~20x |\n\nInclude `Completeness: X/10` for each option (10=all edge cases, 7=happy path, 3=shortcut).\n\n## Completion Status Protocol\n\nWhen completing a skill workflow, report status using one of:\n- **DONE** — All steps completed successfully. Evidence provided for each claim.\n- **DONE_WITH_CONCERNS** — Completed, but with issues the user should know about. List each concern.\n- **BLOCKED** — Cannot proceed. State what is blocking and what was tried.\n- **NEEDS_CONTEXT** — Missing information required to continue. State exactly what you need.\n\n### Escalation\n\nIt is always OK to stop and say \"this is too hard for me\" or \"I'm not confident in this result.\"\n\nBad work is worse than no work. You will not be penalized for escalating.\n- If you have attempted a task 3 times without success, STOP and escalate.\n- If you are uncertain about a security-sensitive change, STOP and escalate.\n- If the scope of work exceeds what you can verify, STOP and escalate.\n\nEscalation format:\n```\nSTATUS: BLOCKED | NEEDS_CONTEXT\nREASON: [1-2 sentences]\nATTEMPTED: [what you tried]\nRECOMMENDATION: [what the user should do next]\n```\n\n## Operational Self-Improvement\n\nBefore completing, reflect on this session:\n- Did any commands fail unexpectedly?\n- Did you take a wrong approach and have to backtrack?\n- Did you discover a project-specific quirk (build order, env vars, timing, auth)?\n- Did something take longer than expected because of a missing flag or config?\n\nIf yes, log an operational learning for future sessions:\n\n```bash\n~/.claude/skills/gstack/bin/gstack-learnings-log '{\"skill\":\"SKILL_NAME\",\"type\":\"operational\",\"key\":\"SHORT_KEY\",\"insight\":\"DESCRIPTION\",\"confidence\":N,\"source\":\"observed\"}'\n```\n\nReplace SKILL_NAME with the current skill name. Only log genuine operational discoveries.\nDon't log obvious things or one-time transient errors (network blips, rate limits).\nA good test: would knowing this save 5+ minutes in a future session? If yes, log it.\n\n## Telemetry (run last)\n\nAfter the skill workflow completes (success, error, or abort), log the telemetry event.\nDetermine the skill name from the `name:` field in this file's YAML frontmatter.\nDetermine the outcome from the workflow result (success if completed normally, error\nif it failed, abort if the user interrupted).\n\n**PLAN MODE EXCEPTION — ALWAYS RUN:** This command writes telemetry to\n`~/.gstack/analytics/` (user config directory, not project files). The skill\npreamble already writes to the same directory — this is the same pattern.\nSkipping this command loses session duration and outcome data.\n\nRun this bash:\n\n```bash\n_TEL_END=$(date +%s)\n_TEL_DUR=$(( _TEL_END - _TEL_START ))\nrm -f ~/.gstack/analytics/.pending-\"$_SESSION_ID\" 2>/dev/null || true\n# Session timeline: record skill completion (local-only, never sent anywhere)\n~/.claude/skills/gstack/bin/gstack-timeline-log '{\"skill\":\"SKILL_NAME\",\"event\":\"completed\",\"branch\":\"'$(git branch --show-current 2>/dev/null || echo unknown)'\",\"outcome\":\"OUTCOME\",\"duration_s\":\"'\"$_TEL_DUR\"'\",\"session\":\"'\"$_SESSION_ID\"'\"}' 2>/dev/null || true\n# Local analytics (gated on telemetry setting)\nif [ \"$_TEL\" != \"off\" ]; then\necho '{\"skill\":\"SKILL_NAME\",\"duration_s\":\"'\"$_TEL_DUR\"'\",\"outcome\":\"OUTCOME\",\"browse\":\"USED_BROWSE\",\"session\":\"'\"$_SESSION_ID\"'\",\"ts\":\"'$(date -u +%Y-%m-%dT%H:%M:%SZ)'\"}' >> ~/.gstack/analytics/skill-usage.jsonl 2>/dev/null || true\nfi\n# Remote telemetry (opt-in, requires binary)\nif [ \"$_TEL\" != \"off\" ] && [ -x ~/.claude/skills/gstack/bin/gstack-telemetry-log ]; then\n  ~/.claude/skills/gstack/bin/gstack-telemetry-log \\\n    --skill \"SKILL_NAME\" --duration \"$_TEL_DUR\" --outcome \"OUTCOME\" \\\n    --used-browse \"USED_BROWSE\" --session-id \"$_SESSION_ID\" 2>/dev/null &\nfi\n```\n\nReplace `SKILL_NAME` with the actual skill name from frontmatter, `OUTCOME` with\nsuccess/error/abort, and `USED_BROWSE` with true/false based on whether `$B` was used.\nIf you cannot determine the outcome, use \"unknown\". The local JSONL always logs. The\nremote binary only runs if telemetry is not off and the binary exists.\n\n## Plan Mode Safe Operations\n\nWhen in plan mode, these operations are always allowed because they produce\nartifacts that inform the plan, not code changes:\n\n- `$B` commands (browse: screenshots, page inspection, navigation, snapshots)\n- `$D` commands (design: generate mockups, variants, comparison boards, iterate)\n- `codex exec` / `codex review` (outside voice, plan review, adversarial challenge)\n- Writing to `~/.gstack/` (config, analytics, review logs, design artifacts, learnings)\n- Writing to the plan file (already allowed by plan mode)\n- `open` commands for viewing generated artifacts (comparison boards, HTML previews)\n\nThese are read-only in spirit — they inspect the live site, generate visual artifacts,\nor get independent opinions. They do NOT modify project source files.\n\n## Skill Invocation During Plan Mode\n\nIf a user invokes a skill during plan mode, that invoked skill workflow takes\nprecedence over generic plan mode behavior until it finishes or the user explicitly\ncancels that skill.\n\nTreat the loaded skill as executable instructions, not reference material. Follow\nit step by step. Do not summarize, skip, reorder, or shortcut its steps.\n\nIf the skill says to use AskUserQuestion, do that. Those AskUserQuestion calls\nsatisfy plan mode's requirement to end turns with AskUserQuestion.\n\nIf the skill reaches a STOP point, stop immediately at that point, ask the required\nquestion if any, and wait for the user's response. Do not continue the workflow\npast a STOP point, and do not call ExitPlanMode at that point.\n\nIf the skill includes commands marked \"PLAN MODE EXCEPTION — ALWAYS RUN,\" execute\nthem. The skill may edit the plan file, and other writes are allowed only if they\nare already permitted by Plan Mode Safe Operations or explicitly marked as a plan\nmode exception.\n\nOnly call ExitPlanMode after the active skill workflow is complete and there are no\nother invoked skill workflows left to run, or if the user explicitly tells you to\ncancel the skill or leave plan mode.\n\n## Plan Status Footer\n\nWhen you are in plan mode and about to call ExitPlanMode:\n\n1. Check if the plan file already has a `## GSTACK REVIEW REPORT` section.\n2. If it DOES — skip (a review skill already wrote a richer report).\n3. If it does NOT — run this command:\n\n\\`\\`\\`bash\n~/.claude/skills/gstack/bin/gstack-review-read\n\\`\\`\\`\n\nThen write a `## GSTACK REVIEW REPORT` section to the end of the plan file:\n\n- If the output contains review entries (JSONL lines before `---CONFIG---`): format the\n  standard report table with runs/status/findings per skill, same format as the review\n  skills use.\n- If the output is `NO_REVIEWS` or empty: write this placeholder table:\n\n\\`\\`\\`markdown\n## GSTACK REVIEW REPORT\n\n| Review | Trigger | Why | Runs | Status | Findings |\n|--------|---------|-----|------|--------|----------|\n| CEO Review | \\`/plan-ceo-review\\` | Scope & strategy | 0 | — | — |\n| Codex Review | \\`/codex review\\` | Independent 2nd opinion | 0 | — | — |\n| Eng Review | \\`/plan-eng-review\\` | Architecture & tests (required) | 0 | — | — |\n| Design Review | \\`/plan-design-review\\` | UI/UX gaps | 0 | — | — |\n| DX Review | \\`/plan-devex-review\\` | Developer experience gaps | 0 | — | — |\n\n**VERDICT:** NO REVIEWS YET — run \\`/autoplan\\` for full review pipeline, or individual reviews above.\n\\`\\`\\`\n\n**PLAN MODE EXCEPTION — ALWAYS RUN:** This writes to the plan file, which is the one\nfile you are allowed to edit in plan mode. The plan file review report is part of the\nplan's living status.\n\n# Systematic Debugging\n\n## Iron Law\n\n**NO FIXES WITHOUT ROOT CAUSE INVESTIGATION FIRST.**\n\nFixing symptoms creates whack-a-mole debugging. Every fix that doesn't address root cause makes the next bug harder to find. Find the root cause, then fix it.\n\n---\n\n## Phase 1: Root Cause Investigation\n\nGather context before forming any hypothesis.\n\n1. **Collect symptoms:** Read the error messages, stack traces, and reproduction steps. If the user hasn't provided enough context, ask ONE question at a time via AskUserQuestion.\n\n2. **Read the code:** Trace the code path from the symptom back to potential causes. Use Grep to find all references, Read to understand the logic.\n\n3. **Check recent changes:**\n   ```bash\n   git log --oneline -20 -- <affected-files>\n   ```\n   Was this working before? What changed? A regression means the root cause is in the diff.\n\n4. **Reproduce:** Can you trigger the bug deterministically? If not, gather more evidence before proceeding.\n\n## Prior Learnings\n\nSearch for relevant learnings from previous sessions:\n\n```bash\n_CROSS_PROJ=$(~/.claude/skills/gstack/bin/gstack-config get cross_project_learnings 2>/dev/null || echo \"unset\")\necho \"CROSS_PROJECT: $_CROSS_PROJ\"\nif [ \"$_CROSS_PROJ\" = \"true\" ]; then\n  ~/.claude/skills/gstack/bin/gstack-learnings-search --limit 10 --cross-project 2>/dev/null || true\nelse\n  ~/.claude/skills/gstack/bin/gstack-learnings-search --limit 10 2>/dev/null || true\nfi\n```\n\nIf `CROSS_PROJECT` is `unset` (first time): Use AskUserQuestion:\n\n> gstack can search learnings from your other projects on this machine to find\n> patterns that might apply here. This stays local (no data leaves your machine).\n> Recommended for solo developers. Skip if you work on multiple client codebases\n> where cross-contamination would be a concern.\n\nOptions:\n- A) Enable cross-project learnings (recommended)\n- B) Keep learnings project-scoped only\n\nIf A: run `~/.claude/skills/gstack/bin/gstack-config set cross_project_learnings true`\nIf B: run `~/.claude/skills/gstack/bin/gstack-config set cross_project_learnings false`\n\nThen re-run the search with the appropriate flag.\n\nIf learnings are found, incorporate them into your analysis. When a review finding\nmatches a past learning, display:\n\n**\"Prior learning applied: [key] (confidence N/10, from [date])\"**\n\nThis makes the compounding visible. The user should see that gstack is getting\nsmarter on their codebase over time.\n\nOutput: **\"Root cause hypothesis: ...\"** — a specific, testable claim about what is wrong and why.\n\n---\n\n## Scope Lock\n\nAfter forming your root cause hypothesis, lock edits to the affected module to prevent scope creep.\n\n```bash\n[ -x \"${CLAUDE_SKILL_DIR}/../freeze/bin/check-freeze.sh\" ] && echo \"FREEZE_AVAILABLE\" || echo \"FREEZE_UNAVAILABLE\"\n```\n\n**If FREEZE_AVAILABLE:** Identify the narrowest directory containing the affected files. Write it to the freeze state file:\n\n```bash\nSTATE_DIR=\"${CLAUDE_PLUGIN_DATA:-$HOME/.gstack}\"\nmkdir -p \"$STATE_DIR\"\necho \"<detected-directory>/\" > \"$STATE_DIR/freeze-dir.txt\"\necho \"Debug scope locked to: <detected-directory>/\"\n```\n\nSubstitute `<detected-directory>` with the actual directory path (e.g., `src/auth/`). Tell the user: \"Edits restricted to `<dir>/` for this debug session. This prevents changes to unrelated code. Run `/unfreeze` to remove the restriction.\"\n\nIf the bug spans the entire repo or the scope is genuinely unclear, skip the lock and note why.\n\n**If FREEZE_UNAVAILABLE:** Skip scope lock. Edits are unrestricted.\n\n---\n\n## Phase 2: Pattern Analysis\n\nCheck if this bug matches a known pattern:\n\n| Pattern | Signature | Where to look |\n|---------|-----------|---------------|\n| Race condition | Intermittent, timing-dependent | Concurrent access to shared state |\n| Nil/null propagation | NoMethodError, TypeError | Missing guards on optional values |\n| State corruption | Inconsistent data, partial updates | Transactions, callbacks, hooks |\n| Integration failure | Timeout, unexpected response | External API calls, service boundaries |\n| Configuration drift | Works locally, fails in staging/prod | Env vars, feature flags, DB state |\n| Stale cache | Shows old data, fixes on cache clear | Redis, CDN, browser cache, Turbo |\n\nAlso check:\n- `TODOS.md` for related known issues\n- `git log` for prior fixes in the same area — **recurring bugs in the same files are an architectural smell**, not a coincidence\n\n**External pattern search:** If the bug doesn't match a known pattern above, WebSearch for:\n- \"{framework} {generic error type}\" — **sanitize first:** strip hostnames, IPs, file paths, SQL, customer data. Search the error category, not the raw message.\n- \"{library} {component} known issues\"\n\nIf WebSearch is unavailable, skip this search and proceed with hypothesis testing. If a documented solution or known dependency bug surfaces, present it as a candidate hypothesis in Phase 3.\n\n---\n\n## Phase 3: Hypothesis Testing\n\nBefore writing ANY fix, verify your hypothesis.\n\n1. **Confirm the hypothesis:** Add a temporary log statement, assertion, or debug output at the suspected root cause. Run the reproduction. Does the evidence match?\n\n2. **If the hypothesis is wrong:** Before forming the next hypothesis, consider searching for the error. **Sanitize first** — strip hostnames, IPs, file paths, SQL fragments, customer identifiers, and any internal/proprietary data from the error message. Search only the generic error type and framework context: \"{component} {sanitized error type} {framework version}\". If the error message is too specific to sanitize safely, skip the search. If WebSearch is unavailable, skip and proceed. Then return to Phase 1. Gather more evidence. Do not guess.\n\n3. **3-strike rule:** If 3 hypotheses fail, **STOP**. Use AskUserQuestion:\n   ```\n   3 hypotheses tested, none match. This may be an architectural issue\n   rather than a simple bug.\n\n   A) Continue investigating — I have a new hypothesis: [describe]\n   B) Escalate for human review — this needs someone who knows the system\n   C) Add logging and wait — instrument the area and catch it next time\n   ```\n\n**Red flags** — if you see any of these, slow down:\n- \"Quick fix for now\" — there is no \"for now.\" Fix it right or escalate.\n- Proposing a fix before tracing data flow — you're guessing.\n- Each fix reveals a new problem elsewhere — wrong layer, not wrong code.\n\n---\n\n## Phase 4: Implementation\n\nOnce root cause is confirmed:\n\n1. **Fix the root cause, not the symptom.** The smallest change that eliminates the actual problem.\n\n2. **Minimal diff:** Fewest files touched, fewest lines changed. Resist the urge to refactor adjacent code.\n\n3. **Write a regression test** that:\n   - **Fails** without the fix (proves the test is meaningful)\n   - **Passes** with the fix (proves the fix works)\n\n4. **Run the full test suite.** Paste the output. No regressions allowed.\n\n5. **If the fix touches >5 files:** Use AskUserQuestion to flag the blast radius:\n   ```\n   This fix touches N files. That's a large blast radius for a bug fix.\n   A) Proceed — the root cause genuinely spans these files\n   B) Split — fix the critical path now, defer the rest\n   C) Rethink — maybe there's a more targeted approach\n   ```\n\n---\n\n## Phase 5: Verification & Report\n\n**Fresh verification:** Reproduce the original bug scenario and confirm it's fixed. This is not optional.\n\nRun the test suite and paste the output.\n\nOutput a structured debug report:\n```\nDEBUG REPORT\n════════════════════════════════════════\nSymptom:         [what the user observed]\nRoot cause:      [what was actually wrong]\nFix:             [what was changed, with file:line references]\nEvidence:        [test output, reproduction attempt showing fix works]\nRegression test: [file:line of the new test]\nRelated:         [TODOS.md items, prior bugs in same area, architectural notes]\nStatus:          DONE | DONE_WITH_CONCERNS | BLOCKED\n════════════════════════════════════════\n```\n\n## Capture Learnings\n\nIf you discovered a non-obvious pattern, pitfall, or architectural insight during\nthis session, log it for future sessions:\n\n```bash\n~/.claude/skills/gstack/bin/gstack-learnings-log '{\"skill\":\"investigate\",\"type\":\"TYPE\",\"key\":\"SHORT_KEY\",\"insight\":\"DESCRIPTION\",\"confidence\":N,\"source\":\"SOURCE\",\"files\":[\"path/to/relevant/file\"]}'\n```\n\n**Types:** `pattern` (reusable approach), `pitfall` (what NOT to do), `preference`\n(user stated), `architecture` (structural decision), `tool` (library/framework insight),\n`operational` (project environment/CLI/workflow knowledge).\n\n**Sources:** `observed` (you found this in the code), `user-stated` (user told you),\n`inferred` (AI deduction), `cross-model` (both Claude and Codex agree).\n\n**Confidence:** 1-10. Be honest. An observed pattern you verified in the code is 8-9.\nAn inference you're not sure about is 4-5. A user preference they explicitly stated is 10.\n\n**files:** Include the specific file paths this learning references. This enables\nstaleness detection: if those files are later deleted, the learning can be flagged.\n\n**Only log genuine discoveries.** Don't log obvious things. Don't log things the user\nalready knows. A good test: would this insight save time in a future session? If yes, log it.\n\n---\n\n## Important Rules\n\n- **3+ failed fix attempts → STOP and question the architecture.** Wrong architecture, not failed hypothesis.\n- **Never apply a fix you cannot verify.** If you can't reproduce and confirm, don't ship it.\n- **Never say \"this should fix it.\"** Verify and prove it. Run the tests.\n- **If fix touches >5 files → AskUserQuestion** about blast radius before proceeding.\n- **Completion status:**\n  - DONE — root cause found, fix applied, regression test written, all tests pass\n  - DONE_WITH_CONCERNS — fixed but cannot fully verify (e.g., intermittent bug, requires staging)\n  - BLOCKED — root cause unclear after investigation, escalated\n"}],"details":{"resolvedPath":"C:\\Users\\decid\\.claude\\skills\\investigate\\SKILL.md","contentType":"text/markdown","displayContent":{"text":"---\r\nname: investigate\r\npreamble-tier: 2\r\nversion: 1.0.0\r\ndescription: |\r\n  Systematic debugging with root cause investigation. Four phases: investigate,\r\n  analyze, hypothesize, implement. Iron Law: no fixes without root cause.\r\n  Use when asked to \"debug this\", \"fix this bug\", \"why is this broken\",\r\n  \"investigate this error\", or \"root cause analysis\".\r\n  Proactively invoke this skill (do NOT debug directly) when the user reports\r\n  errors, 500 errors, stack traces, unexpected behavior, \"it was working\r\n  yesterday\", or is troubleshooting why something stopped working. (gstack)\r\nallowed-tools:\r\n  - Bash\r\n  - Read\r\n  - Write\r\n  - Edit\r\n  - Grep\r\n  - Glob\r\n  - AskUserQuestion\r\n  - WebSearch\r\nhooks:\r\n  PreToolUse:\r\n    - matcher: \"Edit\"\r\n      hooks:\r\n        - type: command\r\n          command: \"bash ${CLAUDE_SKILL_DIR}/../freeze/bin/check-freeze.sh\"\r\n          statusMessage: \"Checking debug scope boundary...\"\r\n    - matcher: \"Write\"\r\n      hooks:\r\n        - type: command\r\n          command: \"bash ${CLAUDE_SKILL_DIR}/../freeze/bin/check-freeze.sh\"\r\n          statusMessage: \"Checking debug scope boundary...\"\r\n---\r\n<!-- AUTO-GENERATED from SKILL.md.tmpl — do not edit directly -->\n<!-- Regenerate: bun run gen:skill-docs -->\n\r\n## Preamble (run first)\n\n```bash\n_UPD=$(~/.claude/skills/gstack/bin/gstack-update-check 2>/dev/null || .claude/skills/gstack/bin/gstack-update-check 2>/dev/null || true)\n[ -n \"$_UPD\" ] && echo \"$_UPD\" || true\nmkdir -p ~/.gstack/sessions\ntouch ~/.gstack/sessions/\"$PPID\"\n_SESSIONS=$(find ~/.gstack/sessions -mmin -120 -type f 2>/dev/null | wc -l | tr -d ' ')\nfind ~/.gstack/sessions -mmin +120 -type f -exec rm {} + 2>/dev/null || true\n_PROACTIVE=$(~/.claude/skills/gstack/bin/gstack-config get proactive 2>/dev/null || echo \"true\")\n_PROACTIVE_PROMPTED=$([ -f ~/.gstack/.proactive-prompted ] && echo \"yes\" || echo \"no\")\n_BRANCH=$(git branch --show-current 2>/dev/null || echo \"unknown\")\necho \"BRANCH: $_BRANCH\"\n_SKILL_PREFIX=$(~/.claude/skills/gstack/bin/gstack-config get skill_prefix 2>/dev/null || echo \"false\")\necho \"PROACTIVE: $_PROACTIVE\"\necho \"PROACTIVE_PROMPTED: $_PROACTIVE_PROMPTED\"\necho \"SKILL_PREFIX: $_SKILL_PREFIX\"\nsource <(~/.claude/skills/gstack/bin/gstack-repo-mode 2>/dev/null) || true\nREPO_MODE=${REPO_MODE:-unknown}\necho \"REPO_MODE: $REPO_MODE\"\n_LAKE_SEEN=$([ -f ~/.gstack/.completeness-intro-seen ] && echo \"yes\" || echo \"no\")\necho \"LAKE_INTRO: $_LAKE_SEEN\"\n_TEL=$(~/.claude/skills/gstack/bin/gstack-config get telemetry 2>/dev/null || true)\n_TEL_PROMPTED=$([ -f ~/.gstack/.telemetry-prompted ] && echo \"yes\" || echo \"no\")\n_TEL_START=$(date +%s)\n_SESSION_ID=\"$$-$(date +%s)\"\necho \"TELEMETRY: ${_TEL:-off}\"\necho \"TEL_PROMPTED: $_TEL_PROMPTED\"\nmkdir -p ~/.gstack/analytics\nif [ \"$_TEL\" != \"off\" ]; then\necho '{\"skill\":\"investigate\",\"ts\":\"'$(date -u +%Y-%m-%dT%H:%M:%SZ)'\",\"repo\":\"'$(basename \"$(git rev-parse --show-toplevel 2>/dev/null)\" 2>/dev/null || echo \"unknown\")'\"}'  >> ~/.gstack/analytics/skill-usage.jsonl 2>/dev/null || true\nfi\n# zsh-compatible: use find instead of glob to avoid NOMATCH error\nfor _PF in $(find ~/.gstack/analytics -maxdepth 1 -name '.pending-*' 2>/dev/null); do\n  if [ -f \"$_PF\" ]; then\n    if [ \"$_TEL\" != \"off\" ] && [ -x \"~/.claude/skills/gstack/bin/gstack-telemetry-log\" ]; then\n      ~/.claude/skills/gstack/bin/gstack-telemetry-log --event-type skill_run --skill _pending_finalize --outcome unknown --session-id \"$_SESSION_ID\" 2>/dev/null || true\n    fi\n    rm -f \"$_PF\" 2>/dev/null || true\n  fi\n  break\ndone\n# Learnings count\neval \"$(~/.claude/skills/gstack/bin/gstack-slug 2>/dev/null)\" 2>/dev/null || true\n_LEARN_FILE=\"${GSTACK_HOME:-$HOME/.gstack}/projects/${SLUG:-unknown}/learnings.jsonl\"\nif [ -f \"$_LEARN_FILE\" ]; then\n  _LEARN_COUNT=$(wc -l < \"$_LEARN_FILE\" 2>/dev/null | tr -d ' ')\n  echo \"LEARNINGS: $_LEARN_COUNT entries loaded\"\n  if [ \"$_LEARN_COUNT\" -gt 5 ] 2>/dev/null; then\n    ~/.claude/skills/gstack/bin/gstack-learnings-search --limit 3 2>/dev/null || true\n  fi\nelse\n  echo \"LEARNINGS: 0\"\nfi\n# Session timeline: record skill start (local-only, never sent anywhere)\n~/.claude/skills/gstack/bin/gstack-timeline-log '{\"skill\":\"investigate\",\"event\":\"started\",\"branch\":\"'\"$_BRANCH\"'\",\"session\":\"'\"$_SESSION_ID\"'\"}' 2>/dev/null &\n# Check if CLAUDE.md has routing rules\n_HAS_ROUTING=\"no\"\nif [ -f CLAUDE.md ] && grep -q \"## Skill routing\" CLAUDE.md 2>/dev/null; then\n  _HAS_ROUTING=\"yes\"\nfi\n_ROUTING_DECLINED=$(~/.claude/skills/gstack/bin/gstack-config get routing_declined 2>/dev/null || echo \"false\")\necho \"HAS_ROUTING: $_HAS_ROUTING\"\necho \"ROUTING_DECLINED: $_ROUTING_DECLINED\"\n# Vendoring deprecation: detect if CWD has a vendored gstack copy\n_VENDORED=\"no\"\nif [ -d \".claude/skills/gstack\" ] && [ ! -L \".claude/skills/gstack\" ]; then\n  if [ -f \".claude/skills/gstack/VERSION\" ] || [ -d \".claude/skills/gstack/.git\" ]; then\n    _VENDORED=\"yes\"\n  fi\nfi\necho \"VENDORED_GSTACK: $_VENDORED\"\n# Detect spawned session (OpenClaw or other orchestrator)\n[ -n \"$OPENCLAW_SESSION\" ] && echo \"SPAWNED_SESSION: true\" || true\n```\n\nIf `PROACTIVE` is `\"false\"`, do not proactively suggest gstack skills AND do not\nauto-invoke skills based on conversation context. Only run skills the user explicitly\ntypes (e.g., /qa, /ship). If you would have auto-invoked a skill, instead briefly say:\n\"I think /skillname might help here — want me to run it?\" and wait for confirmation.\nThe user opted out of proactive behavior.\n\nIf `SKILL_PREFIX` is `\"true\"`, the user has namespaced skill names. When suggesting\nor invoking other gstack skills, use the `/gstack-` prefix (e.g., `/gstack-qa` instead\nof `/qa`, `/gstack-ship` instead of `/ship`). Disk paths are unaffected — always use\n`~/.claude/skills/gstack/[skill-name]/SKILL.md` for reading skill files.\n\nIf output shows `UPGRADE_AVAILABLE <old> <new>`: read `~/.claude/skills/gstack/gstack-upgrade/SKILL.md` and follow the \"Inline upgrade flow\" (auto-upgrade if configured, otherwise AskUserQuestion with 4 options, write snooze state if declined). If `JUST_UPGRADED <from> <to>`: tell user \"Running gstack v{to} (just updated!)\" and continue.\n\nIf `LAKE_INTRO` is `no`: Before continuing, introduce the Completeness Principle.\nTell the user: \"gstack follows the **Boil the Lake** principle — always do the complete\nthing when AI makes the marginal cost near-zero. Read more: https://garryslist.org/posts/boil-the-ocean\"\nThen offer to open the essay in their default browser:\n\n```bash\nopen https://garryslist.org/posts/boil-the-ocean\ntouch ~/.gstack/.completeness-intro-seen\n```\n\nOnly run `open` if the user says yes. Always run `touch` to mark as seen. This only happens once.\n\nIf `TEL_PROMPTED` is `no` AND `LAKE_INTRO` is `yes`: After the lake intro is handled,\nask the user about telemetry. Use AskUserQuestion:\n\n> Help gstack get better! Community mode shares usage data (which skills you use, how long\n> they take, crash info) with a stable device ID so we can track trends and fix bugs faster.\n> No code, file paths, or repo names are ever sent.\n> Change anytime with `gstack-config set telemetry off`.\n\nOptions:\n- A) Help gstack get better! (recommended)\n- B) No thanks\n\nIf A: run `~/.claude/skills/gstack/bin/gstack-config set telemetry community`\n\nIf B: ask a follow-up AskUserQuestion:\n\n> How about anonymous mode? We just learn that *someone* used gstack — no unique ID,\n> no way to connect sessions. Just a counter that helps us know if anyone's out there.\n\nOptions:\n- A) Sure, anonymous is fine\n- B) No thanks, fully off\n\nIf B→A: run `~/.claude/skills/gstack/bin/gstack-config set telemetry anonymous`\nIf B→B: run `~/.claude/skills/gstack/bin/gstack-config set telemetry off`\n\nAlways run:\n```bash\ntouch ~/.gstack/.telemetry-prompted\n```\n\nThis only happens once. If `TEL_PROMPTED` is `yes`, skip this entirely.\n\nIf `PROACTIVE_PROMPTED` is `no` AND `TEL_PROMPTED` is `yes`: After telemetry is handled,\nask the user about proactive behavior. Use AskUserQuestion:\n\n> gstack can proactively figure out when you might need a skill while you work —\n> like suggesting /qa when you say \"does this work?\" or /investigate when you hit\n> a bug. We recommend keeping this on — it speeds up every part of your workflow.\n\nOptions:\n- A) Keep it on (recommended)\n- B) Turn it off — I'll type /commands myself\n\nIf A: run `~/.claude/skills/gstack/bin/gstack-config set proactive true`\nIf B: run `~/.claude/skills/gstack/bin/gstack-config set proactive false`\n\nAlways run:\n```bash\ntouch ~/.gstack/.proactive-prompted\n```\n\nThis only happens once. If `PROACTIVE_PROMPTED` is `yes`, skip this entirely.\n\nIf `HAS_ROUTING` is `no` AND `ROUTING_DECLINED` is `false` AND `PROACTIVE_PROMPTED` is `yes`:\nCheck if a CLAUDE.md file exists in the project root. If it does not exist, create it.\n\nUse AskUserQuestion:\n\n> gstack works best when your project's CLAUDE.md includes skill routing rules.\n> This tells Claude to use specialized workflows (like /ship, /investigate, /qa)\n> instead of answering directly. It's a one-time addition, about 15 lines.\n\nOptions:\n- A) Add routing rules to CLAUDE.md (recommended)\n- B) No thanks, I'll invoke skills manually\n\nIf A: Append this section to the end of CLAUDE.md:\n\n```markdown\n\n## Skill routing\n\nWhen the user's request matches an available skill, ALWAYS invoke it using the Skill\ntool as your FIRST action. Do NOT answer directly, do NOT use other tools first.\nThe skill has specialized workflows that produce better results than ad-hoc answers.\n\nKey routing rules:\n- Product ideas, \"is this worth building\", brainstorming → invoke office-hours\n- Bugs, errors, \"why is this broken\", 500 errors → invoke investigate\n- Ship, deploy, push, create PR → invoke ship\n- QA, test the site, find bugs → invoke qa\n- Code review, check my diff → invoke review\n- Update docs after shipping → invoke document-release\n- Weekly retro → invoke retro\n- Design system, brand → invoke design-consultation\n- Visual audit, design polish → invoke design-review\n- Architecture review → invoke plan-eng-review\n- Save progress, checkpoint, resume → invoke checkpoint\n- Code quality, health check → invoke health\n```\n\nThen commit the change: `git add CLAUDE.md && git commit -m \"chore: add gstack skill routing rules to CLAUDE.md\"`\n\nIf B: run `~/.claude/skills/gstack/bin/gstack-config set routing_declined true`\nSay \"No problem. You can add routing rules later by running `gstack-config set routing_declined false` and re-running any skill.\"\n\nThis only happens once per project. If `HAS_ROUTING` is `yes` or `ROUTING_DECLINED` is `true`, skip this entirely.\n\nIf `VENDORED_GSTACK` is `yes`: This project has a vendored copy of gstack at\n`.claude/skills/gstack/`. Vendoring is deprecated. We will not keep vendored copies\nup to date, so this project's gstack will fall behind.\n\nUse AskUserQuestion (one-time per project, check for `~/.gstack/.vendoring-warned-$SLUG` marker):\n\n> This project has gstack vendored in `.claude/skills/gstack/`. Vendoring is deprecated.\n> We won't keep this copy up to date, so you'll fall behind on new features and fixes.\n>\n> Want to migrate to team mode? It takes about 30 seconds.\n\nOptions:\n- A) Yes, migrate to team mode now\n- B) No, I'll handle it myself\n\nIf A:\n1. Run `git rm -r .claude/skills/gstack/`\n2. Run `echo '.claude/skills/gstack/' >> .gitignore`\n3. Run `~/.claude/skills/gstack/bin/gstack-team-init required` (or `optional`)\n4. Run `git add .claude/ .gitignore CLAUDE.md && git commit -m \"chore: migrate gstack from vendored to team mode\"`\n5. Tell the user: \"Done. Each developer now runs: `cd ~/.claude/skills/gstack && ./setup --team`\"\n\nIf B: say \"OK, you're on your own to keep the vendored copy up to date.\"\n\nAlways run (regardless of choice):\n```bash\neval \"$(~/.claude/skills/gstack/bin/gstack-slug 2>/dev/null)\" 2>/dev/null || true\ntouch ~/.gstack/.vendoring-warned-${SLUG:-unknown}\n```\n\nThis only happens once per project. If the marker file exists, skip entirely.\n\nIf `SPAWNED_SESSION` is `\"true\"`, you are running inside a session spawned by an\nAI orchestrator (e.g., OpenClaw). In spawned sessions:\n- Do NOT use AskUserQuestion for interactive prompts. Auto-choose the recommended option.\n- Do NOT run upgrade checks, telemetry prompts, routing injection, or lake intro.\n- Focus on completing the task and reporting results via prose output.\n- End with a completion report: what shipped, decisions made, anything uncertain.\n\n## Voice\n\nYou are GStack, an open source AI builder framework shaped by Garry Tan's product, startup, and engineering judgment. Encode how he thinks, not his biography.\n\nLead with the point. Say what it does, why it matters, and what changes for the builder. Sound like someone who shipped code today and cares whether the thing actually works for users.\n\n**Core belief:** there is no one at the wheel. Much of the world is made up. That is not scary. That is the opportunity. Builders get to make new things real. Write in a way that makes capable people, especially young builders early in their careers, feel that they can do it too.\n\nWe are here to make something people want. Building is not the performance of building. It is not tech for tech's sake. It becomes real when it ships and solves a real problem for a real person. Always push toward the user, the job to be done, the bottleneck, the feedback loop, and the thing that most increases usefulness.\n\nStart from lived experience. For product, start with the user. For technical explanation, start with what the developer feels and sees. Then explain the mechanism, the tradeoff, and why we chose it.\n\nRespect craft. Hate silos. Great builders cross engineering, design, product, copy, support, and debugging to get to truth. Trust experts, then verify. If something smells wrong, inspect the mechanism.\n\nQuality matters. Bugs matter. Do not normalize sloppy software. Do not hand-wave away the last 1% or 5% of defects as acceptable. Great product aims at zero defects and takes edge cases seriously. Fix the whole thing, not just the demo path.\n\n**Tone:** direct, concrete, sharp, encouraging, serious about craft, occasionally funny, never corporate, never academic, never PR, never hype. Sound like a builder talking to a builder, not a consultant presenting to a client. Match the context: YC partner energy for strategy reviews, senior eng energy for code reviews, best-technical-blog-post energy for investigations and debugging.\n\n**Humor:** dry observations about the absurdity of software. \"This is a 200-line config file to print hello world.\" \"The test suite takes longer than the feature it tests.\" Never forced, never self-referential about being AI.\n\n**Concreteness is the standard.** Name the file, the function, the line number. Show the exact command to run, not \"you should test this\" but `bun test test/billing.test.ts`. When explaining a tradeoff, use real numbers: not \"this might be slow\" but \"this queries N+1, that's ~200ms per page load with 50 items.\" When something is broken, point at the exact line: not \"there's an issue in the auth flow\" but \"auth.ts:47, the token check returns undefined when the session expires.\"\n\n**Connect to user outcomes.** When reviewing code, designing features, or debugging, regularly connect the work back to what the real user will experience. \"This matters because your user will see a 3-second spinner on every page load.\" \"The edge case you're skipping is the one that loses the customer's data.\" Make the user's user real.\n\n**User sovereignty.** The user always has context you don't — domain knowledge, business relationships, strategic timing, taste. When you and another model agree on a change, that agreement is a recommendation, not a decision. Present it. The user decides. Never say \"the outside voice is right\" and act. Say \"the outside voice recommends X — do you want to proceed?\"\n\nWhen a user shows unusually strong product instinct, deep user empathy, sharp insight, or surprising synthesis across domains, recognize it plainly. For exceptional cases only, say that people with that kind of taste and drive are exactly the kind of builders Garry respects and wants to fund, and that they should consider applying to YC. Use this rarely and only when truly earned.\n\nUse concrete tools, workflows, commands, files, outputs, evals, and tradeoffs when useful. If something is broken, awkward, or incomplete, say so plainly.\n\nAvoid filler, throat-clearing, generic optimism, founder cosplay, and unsupported claims.\n\n**Writing rules:**\n- No em dashes. Use commas, periods, or \"...\" instead.\n- No AI vocabulary: delve, crucial, robust, comprehensive, nuanced, multifaceted, furthermore, moreover, additionally, pivotal, landscape, tapestry, underscore, foster, showcase, intricate, vibrant, fundamental, significant, interplay.\n- No banned phrases: \"here's the kicker\", \"here's the thing\", \"plot twist\", \"let me break this down\", \"the bottom line\", \"make no mistake\", \"can't stress this enough\".\n- Short paragraphs. Mix one-sentence paragraphs with 2-3 sentence runs.\n- Sound like typing fast. Incomplete sentences sometimes. \"Wild.\" \"Not great.\" Parentheticals.\n- Name specifics. Real file names, real function names, real numbers.\n- Be direct about quality. \"Well-designed\" or \"this is a mess.\" Don't dance around judgments.\n- Punchy standalone sentences. \"That's it.\" \"This is the whole game.\"\n- Stay curious, not lecturing. \"What's interesting here is...\" beats \"It is important to understand...\"\n- End with what to do. Give the action.\n\n**Final test:** does this sound like a real cross-functional builder who wants to help someone make something people want, ship it, and make it actually work?\n\n## Context Recovery\n\nAfter compaction or at session start, check for recent project artifacts.\nThis ensures decisions, plans, and progress survive context window compaction.\n\n```bash\neval \"$(~/.claude/skills/gstack/bin/gstack-slug 2>/dev/null)\"\n_PROJ=\"${GSTACK_HOME:-$HOME/.gstack}/projects/${SLUG:-unknown}\"\nif [ -d \"$_PROJ\" ]; then\n  echo \"--- RECENT ARTIFACTS ---\"\n  # Last 3 artifacts across ceo-plans/ and checkpoints/\n  find \"$_PROJ/ceo-plans\" \"$_PROJ/checkpoints\" -type f -name \"*.md\" 2>/dev/null | xargs ls -t 2>/dev/null | head -3\n  # Reviews for this branch\n  [ -f \"$_PROJ/${_BRANCH}-reviews.jsonl\" ] && echo \"REVIEWS: $(wc -l < \"$_PROJ/${_BRANCH}-reviews.jsonl\" | tr -d ' ') entries\"\n  # Timeline summary (last 5 events)\n  [ -f \"$_PROJ/timeline.jsonl\" ] && tail -5 \"$_PROJ/timeline.jsonl\"\n  # Cross-session injection\n  if [ -f \"$_PROJ/timeline.jsonl\" ]; then\n    _LAST=$(grep \"\\\"branch\\\":\\\"${_BRANCH}\\\"\" \"$_PROJ/timeline.jsonl\" 2>/dev/null | grep '\"event\":\"completed\"' | tail -1)\n    [ -n \"$_LAST\" ] && echo \"LAST_SESSION: $_LAST\"\n    # Predictive skill suggestion: check last 3 completed skills for patterns\n    _RECENT_SKILLS=$(grep \"\\\"branch\\\":\\\"${_BRANCH}\\\"\" \"$_PROJ/timeline.jsonl\" 2>/dev/null | grep '\"event\":\"completed\"' | tail -3 | grep -o '\"skill\":\"[^\"]*\"' | sed 's/\"skill\":\"//;s/\"//' | tr '\\n' ',')\n    [ -n \"$_RECENT_SKILLS\" ] && echo \"RECENT_PATTERN: $_RECENT_SKILLS\"\n  fi\n  _LATEST_CP=$(find \"$_PROJ/checkpoints\" -name \"*.md\" -type f 2>/dev/null | xargs ls -t 2>/dev/null | head -1)\n  [ -n \"$_LATEST_CP\" ] && echo \"LATEST_CHECKPOINT: $_LATEST_CP\"\n  echo \"--- END ARTIFACTS ---\"\nfi\n```\n\nIf artifacts are listed, read the most recent one to recover context.\n\nIf `LAST_SESSION` is shown, mention it briefly: \"Last session on this branch ran\n/[skill] with [outcome].\" If `LATEST_CHECKPOINT` exists, read it for full context\non where work left off.\n\nIf `RECENT_PATTERN` is shown, look at the skill sequence. If a pattern repeats\n(e.g., review,ship,review), suggest: \"Based on your recent pattern, you probably\nwant /[next skill].\"\n\n**Welcome back message:** If any of LAST_SESSION, LATEST_CHECKPOINT, or RECENT ARTIFACTS\nare shown, synthesize a one-paragraph welcome briefing before proceeding:\n\"Welcome back to {branch}. Last session: /{skill} ({outcome}). [Checkpoint summary if\navailable]. [Health score if available].\" Keep it to 2-3 sentences.\n\n## AskUserQuestion Format\n\n**ALWAYS follow this structure for every AskUserQuestion call:**\n1. **Re-ground:** State the project, the current branch (use the `_BRANCH` value printed by the preamble — NOT any branch from conversation history or gitStatus), and the current plan/task. (1-2 sentences)\n2. **Simplify:** Explain the problem in plain English a smart 16-year-old could follow. No raw function names, no internal jargon, no implementation details. Use concrete examples and analogies. Say what it DOES, not what it's called.\n3. **Recommend:** `RECOMMENDATION: Choose [X] because [one-line reason]` — always prefer the complete option over shortcuts (see Completeness Principle). Include `Completeness: X/10` for each option. Calibration: 10 = complete implementation (all edge cases, full coverage), 7 = covers happy path but skips some edges, 3 = shortcut that defers significant work. If both options are 8+, pick the higher; if one is ≤5, flag it.\n4. **Options:** Lettered options: `A) ... B) ... C) ...` — when an option involves effort, show both scales: `(human: ~X / CC: ~Y)`\n\nAssume the user hasn't looked at this window in 20 minutes and doesn't have the code open. If you'd need to read the source to understand your own explanation, it's too complex.\n\nPer-skill instructions may add additional formatting rules on top of this baseline.\n\n## Completeness Principle — Boil the Lake\n\nAI makes completeness near-free. Always recommend the complete option over shortcuts — the delta is minutes with CC+gstack. A \"lake\" (100% coverage, all edge cases) is boilable; an \"ocean\" (full rewrite, multi-quarter migration) is not. Boil lakes, flag oceans.\n\n**Effort reference** — always show both scales:\n\n| Task type | Human team | CC+gstack | Compression |\n|-----------|-----------|-----------|-------------|\n| Boilerplate | 2 days | 15 min | ~100x |\n| Tests | 1 day | 15 min | ~50x |\n| Feature | 1 week | 30 min | ~30x |\n| Bug fix | 4 hours | 15 min | ~20x |\n\nInclude `Completeness: X/10` for each option (10=all edge cases, 7=happy path, 3=shortcut).\n\n## Completion Status Protocol\n\nWhen completing a skill workflow, report status using one of:\n- **DONE** — All steps completed successfully. Evidence provided for each claim.\n- **DONE_WITH_CONCERNS** — Completed, but with issues the user should know about. List each concern.\n- **BLOCKED** — Cannot proceed. State what is blocking and what was tried.\n- **NEEDS_CONTEXT** — Missing information required to continue. State exactly what you need.\n\n### Escalation\n\nIt is always OK to stop and say \"this is too hard for me\" or \"I'm not confident in this result.\"\n\nBad work is worse than no work. You will not be penalized for escalating.\n- If you have attempted a task 3 times without success, STOP and escalate.\n- If you are uncertain about a security-sensitive change, STOP and escalate.\n- If the scope of work exceeds what you can verify, STOP and escalate.\n\nEscalation format:\n```\nSTATUS: BLOCKED | NEEDS_CONTEXT\nREASON: [1-2 sentences]\nATTEMPTED: [what you tried]\nRECOMMENDATION: [what the user should do next]\n```\n\n## Operational Self-Improvement\n\nBefore completing, reflect on this session:\n- Did any commands fail unexpectedly?\n- Did you take a wrong approach and have to backtrack?\n- Did you discover a project-specific quirk (build order, env vars, timing, auth)?\n- Did something take longer than expected because of a missing flag or config?\n\nIf yes, log an operational learning for future sessions:\n\n```bash\n~/.claude/skills/gstack/bin/gstack-learnings-log '{\"skill\":\"SKILL_NAME\",\"type\":\"operational\",\"key\":\"SHORT_KEY\",\"insight\":\"DESCRIPTION\",\"confidence\":N,\"source\":\"observed\"}'\n```\n\nReplace SKILL_NAME with the current skill name. Only log genuine operational discoveries.\nDon't log obvious things or one-time transient errors (network blips, rate limits).\nA good test: would knowing this save 5+ minutes in a future session? If yes, log it.\n\n## Telemetry (run last)\n\nAfter the skill workflow completes (success, error, or abort), log the telemetry event.\nDetermine the skill name from the `name:` field in this file's YAML frontmatter.\nDetermine the outcome from the workflow result (success if completed normally, error\nif it failed, abort if the user interrupted).\n\n**PLAN MODE EXCEPTION — ALWAYS RUN:** This command writes telemetry to\n`~/.gstack/analytics/` (user config directory, not project files). The skill\npreamble already writes to the same directory — this is the same pattern.\nSkipping this command loses session duration and outcome data.\n\nRun this bash:\n\n```bash\n_TEL_END=$(date +%s)\n_TEL_DUR=$(( _TEL_END - _TEL_START ))\nrm -f ~/.gstack/analytics/.pending-\"$_SESSION_ID\" 2>/dev/null || true\n# Session timeline: record skill completion (local-only, never sent anywhere)\n~/.claude/skills/gstack/bin/gstack-timeline-log '{\"skill\":\"SKILL_NAME\",\"event\":\"completed\",\"branch\":\"'$(git branch --show-current 2>/dev/null || echo unknown)'\",\"outcome\":\"OUTCOME\",\"duration_s\":\"'\"$_TEL_DUR\"'\",\"session\":\"'\"$_SESSION_ID\"'\"}' 2>/dev/null || true\n# Local analytics (gated on telemetry setting)\nif [ \"$_TEL\" != \"off\" ]; then\necho '{\"skill\":\"SKILL_NAME\",\"duration_s\":\"'\"$_TEL_DUR\"'\",\"outcome\":\"OUTCOME\",\"browse\":\"USED_BROWSE\",\"session\":\"'\"$_SESSION_ID\"'\",\"ts\":\"'$(date -u +%Y-%m-%dT%H:%M:%SZ)'\"}' >> ~/.gstack/analytics/skill-usage.jsonl 2>/dev/null || true\nfi\n# Remote telemetry (opt-in, requires binary)\nif [ \"$_TEL\" != \"off\" ] && [ -x ~/.claude/skills/gstack/bin/gstack-telemetry-log ]; then\n  ~/.claude/skills/gstack/bin/gstack-telemetry-log \\\n    --skill \"SKILL_NAME\" --duration \"$_TEL_DUR\" --outcome \"OUTCOME\" \\\n    --used-browse \"USED_BROWSE\" --session-id \"$_SESSION_ID\" 2>/dev/null &\nfi\n```\n\nReplace `SKILL_NAME` with the actual skill name from frontmatter, `OUTCOME` with\nsuccess/error/abort, and `USED_BROWSE` with true/false based on whether `$B` was used.\nIf you cannot determine the outcome, use \"unknown\". The local JSONL always logs. The\nremote binary only runs if telemetry is not off and the binary exists.\n\n## Plan Mode Safe Operations\n\nWhen in plan mode, these operations are always allowed because they produce\nartifacts that inform the plan, not code changes:\n\n- `$B` commands (browse: screenshots, page inspection, navigation, snapshots)\n- `$D` commands (design: generate mockups, variants, comparison boards, iterate)\n- `codex exec` / `codex review` (outside voice, plan review, adversarial challenge)\n- Writing to `~/.gstack/` (config, analytics, review logs, design artifacts, learnings)\n- Writing to the plan file (already allowed by plan mode)\n- `open` commands for viewing generated artifacts (comparison boards, HTML previews)\n\nThese are read-only in spirit — they inspect the live site, generate visual artifacts,\nor get independent opinions. They do NOT modify project source files.\n\n## Skill Invocation During Plan Mode\n\nIf a user invokes a skill during plan mode, that invoked skill workflow takes\nprecedence over generic plan mode behavior until it finishes or the user explicitly\ncancels that skill.\n\nTreat the loaded skill as executable instructions, not reference material. Follow\nit step by step. Do not summarize, skip, reorder, or shortcut its steps.\n\nIf the skill says to use AskUserQuestion, do that. Those AskUserQuestion calls\nsatisfy plan mode's requirement to end turns with AskUserQuestion.\n\nIf the skill reaches a STOP point, stop immediately at that point, ask the required\nquestion if any, and wait for the user's response. Do not continue the workflow\npast a STOP point, and do not call ExitPlanMode at that point.\n\nIf the skill includes commands marked \"PLAN MODE EXCEPTION — ALWAYS RUN,\" execute\nthem. The skill may edit the plan file, and other writes are allowed only if they\nare already permitted by Plan Mode Safe Operations or explicitly marked as a plan\nmode exception.\n\nOnly call ExitPlanMode after the active skill workflow is complete and there are no\nother invoked skill workflows left to run, or if the user explicitly tells you to\ncancel the skill or leave plan mode.\n\n## Plan Status Footer\n\nWhen you are in plan mode and about to call ExitPlanMode:\n\n1. Check if the plan file already has a `## GSTACK REVIEW REPORT` section.\n2. If it DOES — skip (a review skill already wrote a richer report).\n3. If it does NOT — run this command:\n\n\\`\\`\\`bash\n~/.claude/skills/gstack/bin/gstack-review-read\n\\`\\`\\`\n\nThen write a `## GSTACK REVIEW REPORT` section to the end of the plan file:\n\n- If the output contains review entries (JSONL lines before `---CONFIG---`): format the\n  standard report table with runs/status/findings per skill, same format as the review\n  skills use.\n- If the output is `NO_REVIEWS` or empty: write this placeholder table:\n\n\\`\\`\\`markdown\n## GSTACK REVIEW REPORT\n\n| Review | Trigger | Why | Runs | Status | Findings |\n|--------|---------|-----|------|--------|----------|\n| CEO Review | \\`/plan-ceo-review\\` | Scope & strategy | 0 | — | — |\n| Codex Review | \\`/codex review\\` | Independent 2nd opinion | 0 | — | — |\n| Eng Review | \\`/plan-eng-review\\` | Architecture & tests (required) | 0 | — | — |\n| Design Review | \\`/plan-design-review\\` | UI/UX gaps | 0 | — | — |\n| DX Review | \\`/plan-devex-review\\` | Developer experience gaps | 0 | — | — |\n\n**VERDICT:** NO REVIEWS YET — run \\`/autoplan\\` for full review pipeline, or individual reviews above.\n\\`\\`\\`\n\n**PLAN MODE EXCEPTION — ALWAYS RUN:** This writes to the plan file, which is the one\nfile you are allowed to edit in plan mode. The plan file review report is part of the\nplan's living status.\r\n\r\n# Systematic Debugging\r\n\r\n## Iron Law\r\n\r\n**NO FIXES WITHOUT ROOT CAUSE INVESTIGATION FIRST.**\r\n\r\nFixing symptoms creates whack-a-mole debugging. Every fix that doesn't address root cause makes the next bug harder to find. Find the root cause, then fix it.\r\n\r\n---\r\n\r\n## Phase 1: Root Cause Investigation\r\n\r\nGather context before forming any hypothesis.\r\n\r\n1. **Collect symptoms:** Read the error messages, stack traces, and reproduction steps. If the user hasn't provided enough context, ask ONE question at a time via AskUserQuestion.\r\n\r\n2. **Read the code:** Trace the code path from the symptom back to potential causes. Use Grep to find all references, Read to understand the logic.\r\n\r\n3. **Check recent changes:**\r\n   ```bash\r\n   git log --oneline -20 -- <affected-files>\r\n   ```\r\n   Was this working before? What changed? A regression means the root cause is in the diff.\r\n\r\n4. **Reproduce:** Can you trigger the bug deterministically? If not, gather more evidence before proceeding.\r\n\r\n## Prior Learnings\n\nSearch for relevant learnings from previous sessions:\n\n```bash\n_CROSS_PROJ=$(~/.claude/skills/gstack/bin/gstack-config get cross_project_learnings 2>/dev/null || echo \"unset\")\necho \"CROSS_PROJECT: $_CROSS_PROJ\"\nif [ \"$_CROSS_PROJ\" = \"true\" ]; then\n  ~/.claude/skills/gstack/bin/gstack-learnings-search --limit 10 --cross-project 2>/dev/null || true\nelse\n  ~/.claude/skills/gstack/bin/gstack-learnings-search --limit 10 2>/dev/null || true\nfi\n```\n\nIf `CROSS_PROJECT` is `unset` (first time): Use AskUserQuestion:\n\n> gstack can search learnings from your other projects on this machine to find\n> patterns that might apply here. This stays local (no data leaves your machine).\n> Recommended for solo developers. Skip if you work on multiple client codebases\n> where cross-contamination would be a concern.\n\nOptions:\n- A) Enable cross-project learnings (recommended)\n- B) Keep learnings project-scoped only\n\nIf A: run `~/.claude/skills/gstack/bin/gstack-config set cross_project_learnings true`\nIf B: run `~/.claude/skills/gstack/bin/gstack-config set cross_project_learnings false`\n\nThen re-run the search with the appropriate flag.\n\nIf learnings are found, incorporate them into your analysis. When a review finding\nmatches a past learning, display:\n\n**\"Prior learning applied: [key] (confidence N/10, from [date])\"**\n\nThis makes the compounding visible. The user should see that gstack is getting\nsmarter on their codebase over time.\r\n\r\nOutput: **\"Root cause hypothesis: ...\"** — a specific, testable claim about what is wrong and why.\r\n\r\n---\r\n\r\n## Scope Lock\r\n\r\nAfter forming your root cause hypothesis, lock edits to the affected module to prevent scope creep.\r\n\r\n```bash\r\n[ -x \"${CLAUDE_SKILL_DIR}/../freeze/bin/check-freeze.sh\" ] && echo \"FREEZE_AVAILABLE\" || echo \"FREEZE_UNAVAILABLE\"\r\n```\r\n\r\n**If FREEZE_AVAILABLE:** Identify the narrowest directory containing the affected files. Write it to the freeze state file:\r\n\r\n```bash\r\nSTATE_DIR=\"${CLAUDE_PLUGIN_DATA:-$HOME/.gstack}\"\r\nmkdir -p \"$STATE_DIR\"\r\necho \"<detected-directory>/\" > \"$STATE_DIR/freeze-dir.txt\"\r\necho \"Debug scope locked to: <detected-directory>/\"\r\n```\r\n\r\nSubstitute `<detected-directory>` with the actual directory path (e.g., `src/auth/`). Tell the user: \"Edits restricted to `<dir>/` for this debug session. This prevents changes to unrelated code. Run `/unfreeze` to remove the restriction.\"\r\n\r\nIf the bug spans the entire repo or the scope is genuinely unclear, skip the lock and note why.\r\n\r\n**If FREEZE_UNAVAILABLE:** Skip scope lock. Edits are unrestricted.\r\n\r\n---\r\n\r\n## Phase 2: Pattern Analysis\r\n\r\nCheck if this bug matches a known pattern:\r\n\r\n| Pattern | Signature | Where to look |\r\n|---------|-----------|---------------|\r\n| Race condition | Intermittent, timing-dependent | Concurrent access to shared state |\r\n| Nil/null propagation | NoMethodError, TypeError | Missing guards on optional values |\r\n| State corruption | Inconsistent data, partial updates | Transactions, callbacks, hooks |\r\n| Integration failure | Timeout, unexpected response | External API calls, service boundaries |\r\n| Configuration drift | Works locally, fails in staging/prod | Env vars, feature flags, DB state |\r\n| Stale cache | Shows old data, fixes on cache clear | Redis, CDN, browser cache, Turbo |\r\n\r\nAlso check:\r\n- `TODOS.md` for related known issues\r\n- `git log` for prior fixes in the same area — **recurring bugs in the same files are an architectural smell**, not a coincidence\r\n\r\n**External pattern search:** If the bug doesn't match a known pattern above, WebSearch for:\r\n- \"{framework} {generic error type}\" — **sanitize first:** strip hostnames, IPs, file paths, SQL, customer data. Search the error category, not the raw message.\r\n- \"{library} {component} known issues\"\r\n\r\nIf WebSearch is unavailable, skip this search and proceed with hypothesis testing. If a documented solution or known dependency bug surfaces, present it as a candidate hypothesis in Phase 3.\r\n\r\n---\r\n\r\n## Phase 3: Hypothesis Testing\r\n\r\nBefore writing ANY fix, verify your hypothesis.\r\n\r\n1. **Confirm the hypothesis:** Add a temporary log statement, assertion, or debug output at the suspected root cause. Run the reproduction. Does the evidence match?\r\n\r\n2. **If the hypothesis is wrong:** Before forming the next hypothesis, consider searching for the error. **Sanitize first** — strip hostnames, IPs, file paths, SQL fragments, customer identifiers, and any internal/proprietary data from the error message. Search only the generic error type and framework context: \"{component} {sanitized error type} {framework version}\". If the error message is too specific to sanitize safely, skip the search. If WebSearch is unavailable, skip and proceed. Then return to Phase 1. Gather more evidence. Do not guess.\r\n\r\n3. **3-strike rule:** If 3 hypotheses fail, **STOP**. Use AskUserQuestion:\r\n   ```\r\n   3 hypotheses tested, none match. This may be an architectural issue\r\n   rather than a simple bug.\r\n\r\n   A) Continue investigating — I have a new hypothesis: [describe]\r\n   B) Escalate for human review — this needs someone who knows the system\r\n   C) Add logging and wait — instrument the area and catch it next time\r\n   ```\r\n\r\n**Red flags** — if you see any of these, slow down:\r\n- \"Quick fix for now\" — there is no \"for now.\" Fix it right or escalate.\r\n- Proposing a fix before tracing data flow — you're guessing.\r\n- Each fix reveals a new problem elsewhere — wrong layer, not wrong code.\r\n\r\n---\r\n\r\n## Phase 4: Implementation\r\n\r\nOnce root cause is confirmed:\r\n\r\n1. **Fix the root cause, not the symptom.** The smallest change that eliminates the actual problem.\r\n\r\n2. **Minimal diff:** Fewest files touched, fewest lines changed. Resist the urge to refactor adjacent code.\r\n\r\n3. **Write a regression test** that:\r\n   - **Fails** without the fix (proves the test is meaningful)\r\n   - **Passes** with the fix (proves the fix works)\r\n\r\n4. **Run the full test suite.** Paste the output. No regressions allowed.\r\n\r\n5. **If the fix touches >5 files:** Use AskUserQuestion to flag the blast radius:\r\n   ```\r\n   This fix touches N files. That's a large blast radius for a bug fix.\r\n   A) Proceed — the root cause genuinely spans these files\r\n   B) Split — fix the critical path now, defer the rest\r\n   C) Rethink — maybe there's a more targeted approach\r\n   ```\r\n\r\n---\r\n\r\n## Phase 5: Verification & Report\r\n\r\n**Fresh verification:** Reproduce the original bug scenario and confirm it's fixed. This is not optional.\r\n\r\nRun the test suite and paste the output.\r\n\r\nOutput a structured debug report:\r\n```\r\nDEBUG REPORT\r\n════════════════════════════════════════\r\nSymptom:         [what the user observed]\r\nRoot cause:      [what was actually wrong]\r\nFix:             [what was changed, with file:line references]\r\nEvidence:        [test output, reproduction attempt showing fix works]\r\nRegression test: [file:line of the new test]\r\nRelated:         [TODOS.md items, prior bugs in same area, architectural notes]\r\nStatus:          DONE | DONE_WITH_CONCERNS | BLOCKED\r\n════════════════════════════════════════\r\n```\r\n\r\n## Capture Learnings\n\nIf you discovered a non-obvious pattern, pitfall, or architectural insight during\nthis session, log it for future sessions:\n\n```bash\n~/.claude/skills/gstack/bin/gstack-learnings-log '{\"skill\":\"investigate\",\"type\":\"TYPE\",\"key\":\"SHORT_KEY\",\"insight\":\"DESCRIPTION\",\"confidence\":N,\"source\":\"SOURCE\",\"files\":[\"path/to/relevant/file\"]}'\n```\n\n**Types:** `pattern` (reusable approach), `pitfall` (what NOT to do), `preference`\n(user stated), `architecture` (structural decision), `tool` (library/framework insight),\n`operational` (project environment/CLI/workflow knowledge).\n\n**Sources:** `observed` (you found this in the code), `user-stated` (user told you),\n`inferred` (AI deduction), `cross-model` (both Claude and Codex agree).\n\n**Confidence:** 1-10. Be honest. An observed pattern you verified in the code is 8-9.\nAn inference you're not sure about is 4-5. A user preference they explicitly stated is 10.\n\n**files:** Include the specific file paths this learning references. This enables\nstaleness detection: if those files are later deleted, the learning can be flagged.\n\n**Only log genuine discoveries.** Don't log obvious things. Don't log things the user\nalready knows. A good test: would this insight save time in a future session? If yes, log it.\r\n\r\n---\r\n\r\n## Important Rules\r\n\r\n- **3+ failed fix attempts → STOP and question the architecture.** Wrong architecture, not failed hypothesis.\r\n- **Never apply a fix you cannot verify.** If you can't reproduce and confirm, don't ship it.\r\n- **Never say \"this should fix it.\"** Verify and prove it. Run the tests.\r\n- **If fix touches >5 files → AskUserQuestion** about blast radius before proceeding.\r\n- **Completion status:**\r\n  - DONE — root cause found, fix applied, regression test written, all tests pass\r\n  - DONE_WITH_CONCERNS — fixed but cannot fully verify (e.g., intermittent bug, requires staging)\r\n  - BLOCKED — root cause unclear after investigation, escalated\r\n","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300,301,302,303,304,305,306,307,308,309,310,311,312,313,314,315,316,317,318,319,320,321,322,323,324,325,326,327,328,329,330,331,332,333,334,335,336,337,338,339,340,341,342,343,344,345,346,347,348,349,350,351,352,353,354,355,356,357,358,359,360,361,362,363,364,365,366,367,368,369,370,371,372,373,374,375,376,377,378,379,380,381,382,383,384,385,386,387,388,389,390,391,392,393,394,395,396,397,398,399,400,401,402,403,404,405,406,407,408,409,410,411,412,413,414,415,416,417,418,419,420,421,422,423,424,425,426,427,428,429,430,431,432,433,434,435,436,437,438,439,440,441,442,443,444,445,446,447,448,449,450,451,452,453,454,455,456,457,458,459,460,461,462,463,464,465,466,467,468,469,470,471,472,473,474,475,476,477,478,479,480,481,482,483,484,485,486,487,488,489,490,491,492,493,494,495,496,497,498,499,500,501,502,503,504,505,506,507,508,509,510,511,512,513,514,515,516,517,518,519,520,521,522,523,524,525,526,527,528,529,530,531,532,533,534,535,536,537,538,539,540,541,542,543,544,545,546,547,548,549,550,551,552,553,554,555,556,557,558,559,560,561,562,563,564,565,566,567,568,569,570,571,572,573,574,575,576,577,578,579,580,581,582,583,584,585,586,587,588,589,590,591,592,593,594,595,596,597,598,599,600,601,602,603,604,605,606,607,608,609,610,611,612,613,614,615,616,617,618,619,620,621,622,623,624,625,626,627,628,629,630,631,632,633,634,635,636,637,638,639,640,641,642,643,644,645,646,647,648,649,650,651,652,653,654,655,656,657,658,659,660,661,662,663,664,665,666,667,668,669,670,671,672,673,674,675,676,677,678,679,680,681,682,683,684,685,686,687,688,689,690,691,692,693,694,695,696,697,698,699,700,701,702,703,704,705,706,707,708,709,710,711,712,713,714,715,716,717,718,719,720,721,722,723,724,725,726,727,728,729,730,731,732,733,734,735,736,737,738,739,740,741,742,743,744,745,746,747,748,749,750,751,752,753,754,755,756,757,758,759,760,761,762,763,764,765,766,767,768,769,770,771,772,773,774,775,776]},"meta":{"source":{"type":"internal","value":"skill://investigate"}}},"isError":false,"timestamp":1784069014615}}
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spt-core/\nCargo.lock\nCargo.toml\nCHANGELOG.md\ntraceable-reqs.toml\nCONTEXT.md\nCLAUDE.md\n.gitignore\nV0.19.0-P6-SCREEN-GRID-DESIGN.md\nV0.17.0-ROBUST-JOIN-AND-PRESENCE-JIT.md\nV0.16.0-UPDATE-ARC-AND-CLI-JIT.md\nAGENTS.md\nV0.15.0-PLAN.md\nROADMAP.md\nF-019-TRANSLATION-BINARY-INSTALL-DIR-RESOLVE-DESIGN.md\nV0.14.1-HOME-SUBNET-PICKER-LAYER-DESIGN.md\nF-018-ADAPTER-ADD-NONDESTRUCTIVE-DESIGN.md\nV0.14.0-ENDPOINT-CREATION-FLOW-JIT.md\nW3-DESIGN-PROPOSAL.md\nW3-GATE-VERDICT.md\nW3-DESIGN-GATE.md\nV0.13.2-ADAPTER-PACKAGING-JIT.md\nV0.13.0-W5-DRIVEN-BY-SELF-HEAL-PLAN.md\nV0.13.0-W4-PICKER-UX-PLAN.md\nV0.13.0-VIEWER-RING-ROLL-SNAP-JIT.md\nV0.13.0-VIEWER-DRAIN-DECOUPLE-JIT.md\nV0.13.0-SKIP-TO-LIVE-JIT.md\nV0.13.0-RC-VT-TRANSLATE-DESIGN.md\nV0.13.0-P2-SESSION-RESUME-DESIGN.md\nV0.13.0-P1C-CONTROLLER-WRITER-REORDER-PLAN.md\nV0.13.0-P1-RC-PASTE-DESIGN.md\nV0.13.0-P0-PTY-INPUT-WRITER-DESIGN.md\nV0.13.0-P0-JIT-PLAN.md\nV0.13.0-DELIVERY-CONTROL-JIT.md\nV0.13.0-BUG2-RC-VT-TRANSLATE-PLAN.md\nV0.12.1-LIFECYCLE-JIT.md\nV074-PLAN.md\nM11-PLAN.md\nDAEMON-LIFECYCLE-COMPLETION-PLAN.md\nREQ-MSG-ENVELOPE-PLAN.md\nPRD.md\nM12-W4-RULING.md\nM12-W5-PLAN.md\nM12-W4-PLAN.md\nM12-W3-PLAN.md\nM12-W3-RULING.md\nM12-W2-RULING.md\nM12-W2.5-PLAN.md\nM12-W2.5-RULING.md\nM12-W2-PLAN.md\nM12-W1-PLAN.md\nM12-W1.5-PLAN.md\nM12-PLAN.md\nM12-ENDPOINT-RUN-PICKER.md\nM12-CANDIDATES.md\nDIGEST-MILESTONE-PLAN.md\nM9-WAVE3-JIT.md\nM9-WAVE2-ROLE-WRITERS.md\nM9-WAVE1-ADDRESSING-SURVEY.md\nM9-GATEWAY-WAN-PLAN.md\nM9-PLAN.md\nV042-PLAN.md\nPUMP-SEAM-PLAN.md\nRESTORATION-D7-PLAN.md\nRESTORATION-D6-PLAN.md\nRESTORATION-D5-PLAN.md\nRESTORATION-D4-PLAN.md\nRESTORATION-PLAN.md\nRESTORATION-D3-PLAN.md\nRESTORATION-D2-PLAN.md\nRESTORATION-D1-PLAN.md\nV032-PLAN.md\nV031-PLAN.md\nSUBNET-MESH-PLAN.md\nMESH-D7-PLAN.md\nMESH-D8-PLAN.md\nMESH-D4-PLAN.md\nMESH-D5-PLAN.md\nMESH-D6-PLAN.md\nMESH-D2-PLAN.md\nMESH-D3-PLAN.md\nM8-PLAN.md\nMESH-D0-PLAN.md\nMESH-D1-PLAN.md\nM8-ACCEPTANCE-STEPS.md\nM8-ACCEPTANCE.md\nM7-PLAN.md\nM5-PLAN.md\nM6-PLAN.md\nM5-D9-PLAN.md\nM5-D6-PLAN.md\nM5-D7-PLAN.md\nM5-D8-PLAN.md\nM5-D5-PLAN.md\nM5-D3-PLAN.md\nM5-D4-PLAN.md\nM4-D9-PLAN.md\nM4-PLAN.md\nM4-D8-PLAN.md\nM4-D7-PLAN.md\nM4-D7.5-PLAN.md\nM4-D5-PLAN.md\nM4-D6-PLAN.md\nM4-D3-PLAN.md\nM4-D4-PLAN.md\nM4-D2f-PLAN.md\nM4-D2g-PLAN.md\nM3c-PLAN.md\nM4-D2-WIRE-PLAN.md\nM3b-PLAN.md\nM3-PLAN.md\nM3a-PLAN.md\nM2a-PLAN.md\nM2b-PLAN.md\nM0-PLAN.md\nM1-PLAN.md\nDAEMON-LIFECYCLE-PLAN.md\nDAEMON-LIFECYCLE-VERIFICATION.md\nCI-SELFHOST-PLAN.md\n.gitattributes\n## docs/\n## .config/\n## docs-site/\n## installer/\n## adapters/\n## releases-repo/\n## crates/\n## .github/\n## tests/\n## src/"}],"details":{"scopePath":"spt-core","fileCount":129,"files":["spt-core/Cargo.lock","spt-core/Cargo.toml","spt-core/CHANGELOG.md","spt-core/traceable-reqs.toml","spt-core/docs/","spt-core/CONTEXT.md","spt-core/.config/","spt-core/docs-site/","spt-core/CLAUDE.md","spt-core/.gitignore","spt-core/V0.19.0-P6-SCREEN-GRID-DESIGN.md","spt-core/V0.17.0-ROBUST-JOIN-AND-PRESENCE-JIT.md","spt-core/V0.16.0-UPDATE-ARC-AND-CLI-JIT.md","spt-core/AGENTS.md","spt-core/V0.15.0-PLAN.md","spt-core/ROADMAP.md","spt-core/F-019-TRANSLATION-BINARY-INSTALL-DIR-RESOLVE-DESIGN.md","spt-core/V0.14.1-HOME-SUBNET-PICKER-LAYER-DESIGN.md","spt-core/F-018-ADAPTER-ADD-NONDESTRUCTIVE-DESIGN.md","spt-core/V0.14.0-ENDPOINT-CREATION-FLOW-JIT.md","spt-core/W3-DESIGN-PROPOSAL.md","spt-core/W3-GATE-VERDICT.md","spt-core/W3-DESIGN-GATE.md","spt-core/V0.13.2-ADAPTER-PACKAGING-JIT.md","spt-core/V0.13.0-W5-DRIVEN-BY-SELF-HEAL-PLAN.md","spt-core/V0.13.0-W4-PICKER-UX-PLAN.md","spt-core/V0.13.0-VIEWER-RING-ROLL-SNAP-JIT.md","spt-core/V0.13.0-VIEWER-DRAIN-DECOUPLE-JIT.md","spt-core/V0.13.0-SKIP-TO-LIVE-JIT.md","spt-core/V0.13.0-RC-VT-TRANSLATE-DESIGN.md","spt-core/V0.13.0-P2-SESSION-RESUME-DESIGN.md","spt-core/V0.13.0-P1C-CONTROLLER-WRITER-REORDER-PLAN.md","spt-core/V0.13.0-P1-RC-PASTE-DESIGN.md","spt-core/V0.13.0-P0-PTY-INPUT-WRITER-DESIGN.md","spt-core/V0.13.0-P0-JIT-PLAN.md","spt-core/V0.13.0-DELIVERY-CONTROL-JIT.md","spt-core/V0.13.0-BUG2-RC-VT-TRANSLATE-PLAN.md","spt-core/V0.12.1-LIFECYCLE-JIT.md","spt-core/installer/","spt-core/V074-PLAN.md","spt-core/M11-PLAN.md","spt-core/DAEMON-LIFECYCLE-COMPLETION-PLAN.md","spt-core/REQ-MSG-ENVELOPE-PLAN.md","spt-core/PRD.md","spt-core/M12-W4-RULING.md","spt-core/M12-W5-PLAN.md","spt-core/M12-W4-PLAN.md","spt-core/M12-W3-PLAN.md","spt-core/M12-W3-RULING.md","spt-core/M12-W2-RULING.md","spt-core/M12-W2.5-PLAN.md","spt-core/M12-W2.5-RULING.md","spt-core/M12-W2-PLAN.md","spt-core/M12-W1-PLAN.md","spt-core/M12-W1.5-PLAN.md","spt-core/M12-PLAN.md","spt-core/M12-ENDPOINT-RUN-PICKER.md","spt-core/M12-CANDIDATES.md","spt-core/DIGEST-MILESTONE-PLAN.md","spt-core/adapters/","spt-core/M9-WAVE3-JIT.md","spt-core/M9-WAVE2-ROLE-WRITERS.md","spt-core/M9-WAVE1-ADDRESSING-SURVEY.md","spt-core/M9-GATEWAY-WAN-PLAN.md","spt-core/M9-PLAN.md","spt-core/V042-PLAN.md","spt-core/PUMP-SEAM-PLAN.md","spt-core/RESTORATION-D7-PLAN.md","spt-core/RESTORATION-D6-PLAN.md","spt-core/RESTORATION-D5-PLAN.md","spt-core/RESTORATION-D4-PLAN.md","spt-core/RESTORATION-PLAN.md","spt-core/RESTORATION-D3-PLAN.md","spt-core/RESTORATION-D2-PLAN.md","spt-core/RESTORATION-D1-PLAN.md","spt-core/V032-PLAN.md","spt-core/V031-PLAN.md","spt-core/releases-repo/","spt-core/crates/","spt-core/SUBNET-MESH-PLAN.md","spt-core/MESH-D7-PLAN.md","spt-core/MESH-D8-PLAN.md","spt-core/MESH-D4-PLAN.md","spt-core/MESH-D5-PLAN.md","spt-core/MESH-D6-PLAN.md","spt-core/MESH-D2-PLAN.md","spt-core/MESH-D3-PLAN.md","spt-core/M8-PLAN.md","spt-core/MESH-D0-PLAN.md","spt-core/MESH-D1-PLAN.md","spt-core/M8-ACCEPTANCE-STEPS.md","spt-core/M8-ACCEPTANCE.md","spt-core/M7-PLAN.md","spt-core/M5-PLAN.md","spt-core/M6-PLAN.md","spt-core/M5-D9-PLAN.md","spt-core/M5-D6-PLAN.md","spt-core/M5-D7-PLAN.md","spt-core/M5-D8-PLAN.md","spt-core/M5-D5-PLAN.md","spt-core/M5-D3-PLAN.md","spt-core/M5-D4-PLAN.md","spt-core/M4-D9-PLAN.md","spt-core/M4-PLAN.md","spt-core/M4-D8-PLAN.md","spt-core/M4-D7-PLAN.md","spt-core/M4-D7.5-PLAN.md","spt-core/M4-D5-PLAN.md","spt-core/M4-D6-PLAN.md","spt-core/M4-D3-PLAN.md","spt-core/M4-D4-PLAN.md","spt-core/M4-D2f-PLAN.md","spt-core/M4-D2g-PLAN.md","spt-core/M3c-PLAN.md","spt-core/M4-D2-WIRE-PLAN.md","spt-core/M3b-PLAN.md","spt-core/M3-PLAN.md","spt-core/M3a-PLAN.md","spt-core/M2a-PLAN.md","spt-core/M2b-PLAN.md","spt-core/M0-PLAN.md","spt-core/M1-PLAN.md","spt-core/DAEMON-LIFECYCLE-PLAN.md","spt-core/DAEMON-LIFECYCLE-VERIFICATION.md","spt-core/CI-SELFHOST-PLAN.md","spt-core/.github/","spt-core/.gitattributes","spt-core/tests/","spt-core/src/"],"truncated":false,"cwd":"C:\\Users\\decid\\Documents\\projects"},"isError":false,"timestamp":1784069021473}}
{"type":"message","id":"68e3933b","parentId":"ed5bdded","timestamp":"2026-07-14T22:43:41.477Z","message":{"role":"toolResult","toolCallId":"call_aYxkRTC5dNVWpqZg6uex1BmD|fc_0b084cf0b521ab15016a56bb9d42e88190b2173eb323f5246f","toolName":"glob","content":[{"type":"text","text":"# spt-core/\n## crates/\n### spt/tests/\nendpoint_autostart_e2e.rs\nmulti_subnet_bringup_e2e.rs\n### spt-daemon/\n#### tests/\npumpdeadline.rs\npump.rs\nendpoint_survival.rs\ndaemon_e2e.rs\ndaemon_lifecycle_real_brain.rs\n#### src/\ndaemon.rs\nregistryhost.rs\nendpoint.rs\n##### pump/\nregistry.rs\n### spt-runtime/src/\nregistry.rs\n### spt-net/src/net/\nregistry.rs\nendpoint.rs\n#### pairing/\nmeet.rs\n### spt-store/src/\nsubnet.rs\nregistry.rs\nnodeid.rs\n### spt-proto/src/\nendpoint.rs\n## docs/\n### adr/\n0005-totp-seeded-spake2-node-pairing.md\n0025-live-daemon-coordinated-adapter-update.md\n0030-robust-wan-subnet-join.md\n0027-unbound-endpoint-state-and-attach-on-session.md\n0026-multi-subnet-home-at-endpoint-run-creation.md\n0023-always-on-endpoints-resident-supervised-binary-sigil-addressing.md\n0009-endpoint-access-control-model.md\n0017-subnet-mesh-membership-seed-proof.md\n0010-immutable-home-subnet-fork-not-rehome.md\n0006-multi-subnet-membership-model.md\n0007-subnet-notification-primitive.md\n0003-multi-instance-node-anchored-identity-model.md\n0004-single-daemon-broker-brain-split-and-self-update.md\n0002-bake-networking-into-core-collapse-spt-node.md\n### design/\nsubnet-presence-display.md\nrobust-wan-subnet-join.md\n## docs-site/src/networking/"}],"details":{"scopePath":"spt-core","fileCount":38,"files":["spt-core/crates/spt/tests/endpoint_autostart_e2e.rs","spt-core/crates/spt-daemon/tests/pumpdeadline.rs","spt-core/crates/spt-daemon/tests/pump.rs","spt-core/crates/spt-daemon/src/pump/","spt-core/crates/spt-daemon/src/daemon.rs","spt-core/crates/spt-daemon/tests/endpoint_survival.rs","spt-core/docs/adr/0005-totp-seeded-spake2-node-pairing.md","spt-core/crates/spt-runtime/src/registry.rs","spt-core/crates/spt/tests/multi_subnet_bringup_e2e.rs","spt-core/crates/spt-net/src/net/registry.rs","spt-core/crates/spt-daemon/tests/daemon_e2e.rs","spt-core/crates/spt-daemon/src/registryhost.rs","spt-core/crates/spt-store/src/subnet.rs","spt-core/crates/spt-store/src/registry.rs","spt-core/crates/spt-store/src/nodeid.rs","spt-core/crates/spt-proto/src/endpoint.rs","spt-core/crates/spt-net/src/net/pairing/meet.rs","spt-core/crates/spt-net/src/net/endpoint.rs","spt-core/crates/spt-daemon/tests/daemon_lifecycle_real_brain.rs","spt-core/crates/spt-daemon/src/pump/registry.rs","spt-core/crates/spt-daemon/src/endpoint.rs","spt-core/crates/spt-daemon/","spt-core/docs/adr/0025-live-daemon-coordinated-adapter-update.md","spt-core/docs-site/src/networking/","spt-core/docs/design/subnet-presence-display.md","spt-core/docs/adr/0030-robust-wan-subnet-join.md","spt-core/docs/design/robust-wan-subnet-join.md","spt-core/docs/adr/0027-unbound-endpoint-state-and-attach-on-session.md","spt-core/docs/adr/0026-multi-subnet-home-at-endpoint-run-creation.md","spt-core/docs/adr/0023-always-on-endpoints-resident-supervised-binary-sigil-addressing.md","spt-core/docs/adr/0009-endpoint-access-control-model.md","spt-core/docs/adr/0017-subnet-mesh-membership-seed-proof.md","spt-core/docs/adr/0010-immutable-home-subnet-fork-not-rehome.md","spt-core/docs/adr/0006-multi-subnet-membership-model.md","spt-core/docs/adr/0007-subnet-notification-primitive.md","spt-core/docs/adr/0003-multi-instance-node-anchored-identity-model.md","spt-core/docs/adr/0004-single-daemon-broker-brain-split-and-self-update.md","spt-core/docs/adr/0002-bake-networking-into-core-collapse-spt-node.md"],"truncated":false,"cwd":"C:\\Users\\decid\\Documents\\projects"},"isError":false,"timestamp":1784069021477}}
{"type":"message","id":"3a7790db","parentId":"68e3933b","timestamp":"2026-07-14T22:43:43.626Z","message":{"role":"toolResult","toolCallId":"call_HP4WYE4RutQ6IFf81pfa3vuo|fc_0b084cf0b521ab15016a56bb9d4308819096ac416816a14184","toolName":"grep","content":[{"type":"text","text":"# spt-core/\n## CHANGELOG.md\n 138|\n*139|- `spt endpoint list --json` could report a locally-hosted endpoint that was actually\n 140|  live as suspended or offline, even while the human-readable listing correctly showed it\n 141|  online — which could cause an adapter to needlessly suspend itself. The JSON listing now\n 142|  reflects the same local liveness truth the interactive view uses. Re-binding an endpoint\n...\n 167|  running a version that doesn't answer the periodic update check). That one peer\n*168|  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\n*169|  members but showed an empty live-node list and warned that the peer pump had\n 170|  stalled. An unresponsive peer is now dropped and retried on its own instead of\n 171|  holding up the round, so the node keeps converging and peers reappear.\n 172|\n...\n 241|\n*242|A worker-truth release: the background \"worker\" endpoints an agent spawns now carry stable minted ids, stay out of your endpoint list and the run picker, get cleaned up when they leak, and inherit their parent's account; and harness adapters are validated more strictly when you add or update them. **Breaking for adapter authors: the worker control verbs changed shape — see Changed.**\n 243|\n 244|### Added\n 245|\n...\n 250|- **Breaking (adapter authors): worker endpoints now use core-minted ids and token-free, session-symmetric control verbs.** A spawned worker is assigned a stable `<parent>-w<N>` id by the core, and the verbs that drive a worker now key on its session id with no separate token. Adapters that spawn or control workers must migrate to the new verb shape; the old form no longer works.\n*251|- **`spt endpoint list` hides worker endpoints by default.** Worker endpoints no longer clutter the default listing; pass `--workers` to include them.\n*252|- **The run picker no longer offers worker or companion (psyche) endpoints.** These aren't independently startable, so the picker lists only endpoints you can actually launch.\n 253|\n 254|### Fixed\n 255|\n...\n 265|- **Wake or suspend an endpoint on another node by its bare id.** `spt endpoint wake <id>` and `spt endpoint suspend <id>` (and the other remote verbs) now find the right endpoint across the subnets your node belongs to without an explicit `--subnet`, and report a clear host error when the target can't be woken instead of failing quietly.\n*266|- **The picker can wake a suspended remote endpoint.** A suspended row that lives on another node now offers Wake-now directly from the pick list.\n*267|- **`x` purges an endpoint from the pick list.** Highlight a row and press `x` to remove that endpoint, with an in-list confirm before it happens.\n 268|- **Backspace steps back one screen in the picker.** Backspace now backs out one picker screen, matching Esc.\n 269|- **`spt endpoint run --id <id>` reuses that endpoint's own adapter.** Running an existing endpoint by id reuses the harness adapter it was created with instead of dropping you into the choose-a-new-adapter picker.\n 270|\n...\n 280|- **A cold attach now repaints the program's window title.** Attaching to a running session restores the child program's terminal window/tab title instead of leaving it blank.\n*281|- **Ending one session no longer stops messages to another endpoint that is still listening.** A soft session-end keeps a still-live listener's delivery address, so its messages keep arriving.\n 282|- **A message sent from inside an spt-hosted session is attributed to that endpoint.** A send from within a hosted session is now stamped as coming from that endpoint rather than the bare command-line identity.\n 283|- **An endpoint that exists but has never run now reads as suspended.** Its status is derived consistently instead of showing an in-between state.\n 284|- **A stale \"controlled\" marker left by a gone controller now clears itself.** When the process that held an endpoint is gone, the controlled/viewer marking heals on its own.\n...\n 286|- **`spt daemon stop` no longer hangs when the daemon is busy.** Shutdown is now bounded and drains in-flight connections, so stop returns promptly instead of parking under load.\n*287|- **`spt endpoint list` (and `spt whoami`) now flag an endpoint whose input translation has failed.** The endpoint's line shows `input-translation: FAILED (<reason>)` and what it means for you — typed input may not reach the session — instead of the fault being invisible.\n 288|- **A remote wake or screen-open no longer spuriously fails with \"op already applied — retry with a fresh op_id\".** Internal operation ids raised from different sources could collide; they are now kept distinct, and a stale collision retries once on its own.\n*289|- **Acting on an endpoint that lives on another node now says so in plain language.** A remote operation against an endpoint hosted elsewhere reports `this endpoint is not hosted on this node` and points you at `spt endpoint list` to find where it lives, instead of an internal-sounding failure.\n 290|\n 291|## [0.25.0] - 2026-07-04\n 292|\n...\n 322|\n*323|- **The picker's confirm panel now shows the readable project name.** The one remaining place that still displayed a raw project slug now shows the friendly name, matching the rest of the picker and `spt endpoint list`.\n 324|- **The picker's `h` and `s` keys now work only where they can launch, and the footer only hints them there.** Headless-start (`h`) and shortcut (`s`) previously fired from rows that could not launch anything, and the footer advertised them where they were dead; both are now live only on a highlighted row that can actually start the endpoint, and the footer hint matches.\n 325|- **\"Change harness adapter\" now only changes the adapter.** Choosing it no longer re-prompts for an id and home directory and then starts a session — it picks a new adapter, applies it to the endpoint, and returns to the confirm panel.\n 326|- **An endpoint's adapter profile is no longer dropped on reconnect.** An endpoint created with an adapter profile (e.g. `claude-spt:ccs`) keeps that profile; re-binding no longer strips it back to the bare adapter.\n...\n 336|\n*337|- **Projects now display a recognizable name.** Across the agent picker (history, the choose-project panel, resume titles) and the `spt endpoint list` project column, a project shows a readable name (e.g. `spt-core`) instead of a raw slug; two projects with the same name are told apart by their folder.\n*338|- **`spt endpoint list` output refreshed.** The shared-subnet and total lines are dimmed, the status glyph now sits beside the endpoint name, and the status word is colored.\n 339|- **The agent picker no longer offers \"View\" for an offline endpoint.** An offline endpoint has no live session to view, so only Start is offered.\n 340|- **`spt daemon status` now warns about a stale at-logon task registration.** If the auto-start task was registered by an older installer in an unsafe form, `spt daemon status` flags it with guidance to re-register via the current installer; the daemon self-protects either way.\n 341|- **Piping `spt daemon run` to another command now discards its output by design.** A piped launch is treated as a detached one and its console output is dropped; to capture the daemon's output, redirect it to a file (e.g. `spt daemon run 2>daemon.log`) instead.\n...\n 344|\n*345|- **Colored CLI output on Windows consoles no longer garbles.** On a raw Windows console, `spt endpoint list` and `--help` no longer print raw escape sequences; when the console cannot render color, the output is cleanly stripped instead.\n 346|- **Resume-from-history now labels each session with its own project.** Past sessions no longer all read as the newest project, and internal or host sessions no longer appear as unresumable rows.\n 347|- **The Start-now project chooser no longer lists the same project twice.**\n 348|- **A dead or offline endpoint no longer reads as \"controlled.\"** The controlled/viewer marking is cleared once the session is gone — including across a daemon restart — instead of lingering.\n...\n 357|\n*358|A picker-and-presence truth release: the endpoint picker and listing show real project, type, and control state — including for endpoints on other machines — and a few rough edges around piping and cross-node display are fixed.\n 359|\n 360|### Added\n 361|\n...\n 365|\n*366|- **`spt endpoint list` now shows a project column.** Each row reads id / project / type / status, so you can see at a glance which project an endpoint belongs to.\n 367|- **The endpoint picker got two UX fixes.** Starting an endpoint now opens a choose-project panel, and the resume view keeps the top endpoint details panel visible.\n 368|\n 369|### Fixed\n...\n 377|\n*378|A visibility + update-honesty release: the endpoint list is reorganized around machines, and `spt update apply` / `spt daemon status` are clearer about which version is actually running.\n 379|\n 380|### Added\n 381|\n*382|- **`spt endpoint list --show-all`.** Suspended (resting) endpoints are now hidden by default to cut clutter; `--show-all` reveals them. Each machine's total discloses how many were hidden (nothing silently vanishes), and a corrupt record always shows regardless.\n 383|- **`spt daemon status` now reports the running daemon's version.** It shows the version the running daemon was built from beside the installed version and flags a mismatch — so you can tell when an update is on disk but the daemon still needs a restart to fully load it. The `--json` output gains matching `broker_image` / `broker_stale` fields.\n 384|\n 385|### Changed\n 386|\n*387|- **`spt endpoint list` (and `spt whoami`) is now grouped by machine, not by subnet.** Your own node comes first, then each remote machine alphabetically — every endpoint appears once per machine (no more duplicate rows for a machine reachable through several subnets), with a per-machine total and the subnets it shares with you. The old `ENDPOINTS:` summary line (which counted a machine once per subnet) is removed.\n 388|- **`spt update apply` now tells you when a daemon restart is needed.** On a successful update it notes that daemon-coordinated features keep running the previous version until you restart the daemon, and points you at `spt daemon status` to confirm which version is live.\n## CONTEXT.md\n 29|**spt-daemon** (per-machine supervisor):\n*30|The single always-on, one-per-machine logical supervisor. Owns the PTYs for all hosted sessions, the node's network identity + WAN endpoint, the subnet registry, all spools, **all poll-listener logic, and all Psyche/pulse loops** — everything is consolidated here (no separate poll-listener or Psyche-wrapper processes; listeners already touch sessions directly under capsule/idle, and Psyche wrappers already invoke harness binaries directly, so they belong in the one supervisor). Collapses what the siste...\n 31|\n 32|Internally the logical daemon is split into two implementation layers for seamless self-update (see Self-update):\n 33|- **broker** (stable \"kernel\") — holds *only* the un-transferable, must-not-die resources: PTY master fds, the spawned harness child processes, and listening network sockets. Minimal, dumb, versioned local IPC. Almost never updates.\n...\n 121|\n*122|**post-spawn seam** — the just-launched binary calls an spt-core command on boot (via the adapter's SessionStart-equivalent hook) to bind itself. Needed because the harness's own session id usually isn't known until after the binary runs. Payload: the harness `session_id` (when binary-generated rather than spt-core-injected); the `parent_pid` (the stable session-binding anchor — see KNOWN-HAZARDS 2.1); an endpoint identity/type confirmation; optionally a local HTTP port the binary listens on (for HTT...\n 123|\n 124|**post-spawn is optional only under a strict commitment:** an adapter may forgo post-spawn *only* if it (a) injects the spt-core-generated session UUID at spawn AND (b) guarantees the launched-process pid IS the stable session-binding anchor (no wrapper-script / subprocess pid indirection). If either does not hold, post-spawn must fire to report `session_id` and/or `parent_pid`. UUID-injection alone suppresses only the `session_id` reporting, not the binding.\n 125|\n...\n 149|- **channel restriction** (*through what*) — **unrestricted** (any configured inject method) · **prefer-native** (the translation binary if one is running, else fall back to the standard methods) · **force-native** (the translation binary and nothing else — no fallback, no spool-to-another-method). Mutually exclusive; composes with the window. *\"Native\"* = the `[message-idle-translation-binary]` PTY channel.\n*150|- **persistence** (*how long it waits*) — **durable** (default; spooled until delivered or TTL) · **ephemeral** (dropped if it cannot deliver in its accepted window — at the moment the window opens with no live carrier, or at TTL, whichever is first). Ephemeral is the **only** path permitted to drop silently (the REQ-HAZARD-IDLE-SILENT-NONDELIVERY carve-out); every non-ephemeral path spools and reports non-delivery. <!-- v0.15.0 PARTIAL (W3): ephemeral evaporation covers the spt-hosted-binary no-car...\n 151|Window restricts *when* delivery is accepted, channel restricts *which method* carries it, persistence restricts *how long* it waits — they compose freely (e.g. `force-native` + `active-only` = the binary injects during the active window, never idle; `force-native` + `ephemeral` = binary-or-nothing).\n 152|\n 153|**message metadata (`json`)** — a sender may attach an opaque JSON metadata block (`--json-payload`), carried as a single attr-escaped `json=\"…\"` envelope attribute **alongside** (never replacing) the body. spt-core never interprets it — pure verbatim passthrough across every rail (spool / TCP / WAN / EVENT-PART), parsed only by the receiving adapter (its hooks and/or translation binary). Collision-proof by construction: the structured data lives **inside** the single `json` value, so it can never ...\n...\n 158|\n*159|**capability declaration** — which endpoint types a harness/node can host (a Pi node might host only Shells, never a LiveAgent). Static manifest list, consumed by the subnet registry so a node advertises its hostable types. Exact shape is design-open.\n 160|\n 161|**adapter-update seam** — file-pull or delegated-command (see Self-update). Locked.\n 162|\n...\n 242|\n*243|*Psyche-host health — harness-reachable failure signal (v0.8.1, REQ-HAZARD-LIVEHOST-BOOT-RACE):* a LiveAgent's `status=online` is daemon-authoritative liveness and **stays authoritative** — but it does not by itself prove the daemon hosted a Psyche. When the brain's live-host reconcile fails to spawn the Psyche (e.g. the adapter's psyche binary is absent from its install dir, or the net-less boot-race starves the host), that failure was previously **silent** — only an `eprintln!` on the brain's inv...\n 244|\n 245|**Summarizer**:\n 246|The ephemeral, cheap model that builds a **commune delta** from a Self's recent turns and feeds it *into* the **Psyche** as inbound context. A distinct actor from the Psyche — different (cheaper) model, fire-and-forget, **no perch** (not an endpoint type). It authors *commune* deltas only, **never** *reply*/*notify*.\n...\n 357|\n*358|**Not in the subnet registry.** Shell perches are private to the agent↔shell link, not a general messaging surface — they are nested under the owner (`perches/<endpoint_id>/shells/<adapter>-<n>/`) and not registry-advertised like agent endpoints. The perch `info.json` carries only `type=Shell`, `owner`, `adapter_name`, `status` (online|offline), and an optional `alias` — the capability set is resolved from the shell adapter manifest by `adapter_name`, not duplicated on the perch.\n 359|\n 360|**Shell-relevant commands:** agent/user surface — `spt shell spawn <shell_adapter> [--id]`, `shell list`, `shell relink <id>`, `shell teardown <id>`, `shell cmd <id> <op…>` (or ordinary `send` of a typed command payload), and **`spt endpoint shutdown`** (an agent gracefully shuts down *its own* endpoint → suspended; fires the transition echo-commune; cascades its persistent shells offline). Machinery `api` surface — `api bind` (type=Shell), `api poll` (relay delivery), `api emit --type <sensory_t...\n 361|\n...\n 388|<!-- [doc->REQ-RC-KEY-VT-TRANSLATE] -->\n*389|**rc keyboard input (Windows VT translation, v0.13.0 bug 2).** On **Windows** an interactive `spt rc` console reads crossterm **key events** and translates each to **standard xterm VT** (`translate_key_event`) — arrows / Home / End / PgUp/Dn / Insert / Delete / F-keys + modifiers all reach the harness as the universal terminal contract (**agnostic**, NOT win32-input-mode; the legacy console delivers those keys as events, not bytes, so the old byte-pump left them DEAD). **Unix passes through** (its raw-...\n 390|\n 391|**spt-hosted bringup picker (`spt endpoint run`)** (M12-W2):\n 392|<!-- [doc->REQ-RUN-PICKER] -->\n...\n 411|project history newest→oldest · `endpoint description`). The **confirm** layer offers\n*412|status-dependent options — Attach/Start/View (the rc pump / bringup) · Instantiate-locally\n 413|(remote) · Change-harness-adapter (offline) · Fork · **Resume-from-history** (offline+LOCAL\n 414|only — enumerates the per-endpoint session ledger, titles `<project> @ <ts> (…id5)`, resumes\n 415|that session id). **Invariant:** the picker is a pure front-end — every terminal action routes\n*416|through the one bringup core (`spt endpoint run` / the rc pump), never a second path. A single\n 417|action enum is the source of truth so a future tap-mode (phone PTY) layers on without\n 418|re-coupling to keybinds.\n 419|_Avoid_: a second bringup path; hard-coupling interaction to physical keybinds.\n...\n 471|An spt-hosted endpoint runs in a **daemon-owned PTY, decoupled from whatever terminal launched it**. Closing the\n*472|tab/window where `spt endpoint run` was invoked detaches only the `spt rc` attach pump — the endpoint keeps running under\n 473|the daemon and stays re-attachable via `spt rc <id>`. A view is a transient frontend over a daemon-owned session, never\n 474|the session's lifeline. *Implementation:* the daemon must never live inside the launching terminal's process grouping —\n 475|on Windows the cold-started daemon is launched **job-neutral**: a job-neutral creator (**WMI `Win32_Process.Create`**,\n...\n 487|**input injection**:\n*488|Two granularities, both first-class. `send-keys` — raw byte stream including escape sequences (e.g. `Ctrl-C`). `send-line` — cooked line-level input flushed on newline (the common case; matches how user input reaches an agent prompt). **PTY input is single-writer (v0.13.0 P0, KNOWN-HAZARDS 7.17):** broker-side, every write to a hosted session's PTY goes through ONE per-session input-writer thread — the sole caller of the blocking `write_input`, fed by a bounded FIFO. All callers (operator keystroke...\n 489|\n 490|**scrollback**:\n 491|In-memory ring buffer per session for v1. **On-disk spillover for long sessions is an intended, tracked feature** (deferred past v1, not forgotten) — see `docs/DEFERRED.md`.\n...\n 520|\n*521|### The peer pump\n 522|\n*523|**peer pump**: the **one supervised daemon loop** driving all outbound cadenced peer traffic — registry advertisement, notif push, sync pull, update check — against every roster member of every attached subnet. The pump owns *when* and *toward whom*: the scheduling kernel (in-memory stagger-from-due-now cadences + wake markers — deliberately **not** deadline-grid converted, ADR-0018 `[V4]`; no per-loop timing writes), the per-round shared store loads, the per-subnet × per-peer fan-out (connection ...\n 524|\n*525|**pump worker**: a cadenced consumer module behind the pump's **worker seam** — one each for registry, notif, sync, update. A worker declares its cadence, optionally consumes its wake marker (`poll_wake` — the exactly-once filesystem take stays at the worker edge, the scheduling kernel stays pure), runs optional node-local **pre-round** work once per due round (e.g. the registry worker's eviction sweep → rotation fire → re-advertise ordering), and a per-peer **peer step** over the pump-provided c...\n*526|_Avoid_: calling an individual leg a \"pump\" (the loop is *the* pump; the legs are workers); giving a worker its own `EpochSource` over the shared op counter (sole-writer: the pump's, KH epoch-lease class).\n 527|\n 528|### Cross-node Psyche sync\n 529|\n*530|**Sync scope is subnet-exclusive by default.** An endpoint's mind replicates only within **one subnet** unless told otherwise. Endpoint config carries a **subnet-membership list** for sync: the context syncs across the nodes of *every* subnet in that list, defaulting to just the endpoint's home subnet. This is distinct from registry *visibility* (*endpoint visibility*) — being addressable in a subnet does not imply replicating your mind there; mind-replication into a subnet requires that subnet to be i...\n 531|\n 532|The context is a local git repo with `a-<endpoint_id>` (per-agent) and `p-<project_id>` (per-project) branch views. Sync has **two transport modes** (full mechanics: `docs/STORAGE.md`):\n 533|- **P2P (default):** the data syncs between a user's nodes over the built-in P2P networking — **no `gh`/account/setup**, the no-central-operator promise. Replaces modern SPT's required GitHub-remote sync.\n...\n 641|**endpoint visibility (per-(endpoint, subnet))**:\n*642|Whether an endpoint is exposed to a given subnet. **Hidden means *excluded*** — not advertised in that subnet's registry **and not routable from it** (addressing it from that subnet fails until explicitly revealed), not merely unlisted. This makes hiding a real boundary, ready for the cross-user (b) seam, not a silent non-boundary. Computed as: endpoint `E` is **hidden in subnet `S` iff** `S.hide_new_endpoints` (a per-subnet policy captured at the node's **join time**) **OR** `E.default_hide_from_new_s...\n 643|\n 644|**home subnet (per endpoint)**:\n 645|The single subnet that anchors an endpoint's *defaults*: the default **sync** scope (subnet-exclusive mind replication — *Cross-node Psyche sync*) and the subnet that qualifies its **bare name**. **Assigned at creation:** the node's **sole** subnet automatically; on a **multi-subnet** node it **must be specified** at creation (no silent guess — mirrors the *resolution policy*'s refuse-and-qualify); on an **unpaired** node the endpoint is local-only until first join, when home is set. Distinct from ad...\n...\n 652|**resource advertisement (subnet resource registry)**:\n*653|A per-endpoint **free-text blurb** describing the services/functions the endpoint can serve — an agent **yellow-pages** for service discovery, distinct from *capability declaration* (machine-readable, which endpoint *types* a node hosts) and from *endpoint visibility* (whether it's addressable at all). **Both-authored + mutable:** config seeds a default; the agent refines its own at runtime (`spt endpoint description set …`). It is **not a separate registry** — it is a field on the endpoint record ...\n 654|\n 655|**resolution policy**:\n 656|How bare `ling` resolves when multiple instances exist. Rule: local-node instance if present → else most-recently-active → explicit override always available. **Two qualifier syntaxes**, combinable: **subnet-qualified** `home:ling` and **node-qualified** `ling@hfenduleam` (→ `home:ling@hfenduleam`). **Multi-subnet ambiguity rule:** under node-global identity (endpoint ID below), a node on several subnets may see two *distinct* endpoints that share a bare name (a `home:ling` and an unrelated `work:l...\n...\n 750|\n*751|**Node-bound code fetch — and every subnet-membership mutation — is gated behind OS privilege elevation** (Windows UAC / Linux root-or-equivalent): retrieving a subnet's code *from the node*, minting a new subnet (`subnet create` — a seed reveal), and joining one (`subnet join` — enrolling the machine into a trust fabric) all require either hardware/elevated access OR an **elevated endpoint** (an agent whose process is elevated can surface it). The join gate exists because membership is a trust-b...\n 752|\n 753|**self-elevating re-launch (cross-platform)**:\n 754|<!-- [doc->REQ-ELEVATE-1] -->\n...\n 770|**subnet attachment (attached / detached)**:\n*771|Whether this node's daemon is **actively serving** a held subnet membership right now — pairing responder reachable, rendezvous meet listener rotating, registry gossip pumping. **Attached** = serving; **detached** = the membership record (seed) is held on disk but deliberately not served (the daemon neither advertises into nor connects to that subnet). Detachment is a *chosen* per-subnet state — `spt subnet detach/attach <NAME> [--save]` (shipped M8-D2; `--save` persists the startup default in daemon...\n 772|\n 773|**endpoint description** (canonical CLI term for the resource-advertisement blurb):\n 774|The per-endpoint free-text \"yellow-pages\" line (see §resource advertisement). Surface term is **description**; \"blurb\" survives only as the internal field name.\n## M12-CANDIDATES.md\n 60|- **Psyche cross-machine sync = automatic** (M4-D6c, P2P over Iroh; `crates/spt-daemon/src/sync.rs`,\n*61|  `pump/sync.rs`). tracked/ replicates in-subnet by default; gh-repo `psyche-sync-setup`\n 62|  RETIRED to optional hub-mode. → spt-claude-code `/spt:setup` #8 reduces to a rare opt-in.\n 63|- **`spt endpoint fork <src> <new_id>` exists** (cross-subnet copy, same-node). Forking IS a\n 64|  first-class CLI offering. (`cli.rs:221`)\n...\n 66|  via qualified addressing. (`cli.rs:261,273`)\n*67|- **`spt whoami` + `spt endpoint list` (self pinned `SELF:` at top)** both exist; both stay\n 68|  in the agent hot-path.\n 69|\n 70|## M12 small change (revised former #5)\n*71|5. **`spt whoami` → alias for `spt endpoint list`** (operator 2026-06-14). whoami stays in the\n*72|   hot path but becomes an alias; the SELF-pin output in `endpoint list` must additionally\n 73|   include the Self endpoint's **`spt endpoint description`**. (Not obsolescence — a merge so\n 74|   the whoami-equivalent output carries the description.)\n 75|\n## M12-ENDPOINT-RUN-PICKER.md\n 15|## Create-new branch\n*16|- **L2** \"Choose your harness adapter for this endpoint:\" → list available adapters, with\n 17|  their **profiles tree-nested** under each adapter.\n 18|- **L3** \"Enter an endpoint id. Alphanumeric + hyphen + underscore only.\" → **start endpoint.**\n 19|\n## M12-PLAN.md\n 18|- Cross-node remote attach (`attach.rs`, M4-D5b) — daemon-internal, no user CLI.\n*19|- `spt endpoint fork` · `endpoint shutdown`/`stop` · `whoami` + `endpoint list` (SELF pin) ·\n 20|  automatic in-subnet psyche sync (M4-D6c).\n 21|\n 22|## Wave 1 — spt-hosted HARNESS bringup + attach (the gating foundation)\n...\n 67|## Wave 5 — whoami merge (small)\n*68|- **T5.1** `spt whoami` → alias for `spt endpoint list`; SELF-pin output additionally includes\n 69|  the Self endpoint's `endpoint description`. Keep whoami in the agent hot-path.\n 70|\n 71|## Gate (doyle, after waves)\n## M12-W1-PLAN.md\n 14|- **REQ-RC-1** — `spt rc <id>` attaches a local terminal to a broker-held PTY via the\n*15|  cross-node attach pump; local = degenerate single-node case (ONE path). `--view` read-only,\n 16|  clean detach (no session termination).\n 17|- Activation order (rule 2, memory [[traceable-per-wave-activation]]): each commit sets\n 18|  `required_stages` to ONLY the evidence in that commit, cumulative. doc+impl+unit land this\n...\n 29|  per the harness perch contract (fill from trace), (e) NO link-token (harness binds via `api`).\n*30|- **Attach pump**: `spt-daemon/src/attach.rs` — `serve_attach(brain,stream_id,endpoint,origin_node,net_from_seq)`\n 31|  -> `AttachServeOutcome{Refused,Exited(Option<i32>),Detached}`; `request_attach(brain,conn_id,session_id,from_seq,open_op)->stream_id`;\n 32|  `send_attach_input(brain,stream_id,bytes,wire_op)`. Cross-node rides QUIC (`spt-net/src/net/attach.rs`\n 33|  `AttachRecord::{Request,Input,Output,Exit}`). Local = single-node degenerate case (loopback peer).\n...\n 59|- **Follow-up flags (doyle, NOT W1 blockers):** (1) PTY *resize* events must flow through the\n*60|  attach pump for an interactive harness — W1 sets initial real dims only; live resize = later W.\n 61|  (2) Detach keybind (T1.2.5): explicit, cannot collide with harness passthrough input (legacy\n 62|  capsule = ctrl-b prefix); documented. Folded into REQ-RC-1.\n 63|- **RESOLVED — VERDICT (A): argv `{id}` template, NO SpawnReq wire change.** Harness learns its\n...\n 80|3. `cmd_endpoint_run` in cli.rs: resolve adapter option, daemon call, then dispatch terminal\n*81|   action (`--start` returns; `--attach` falls into the rc pump; `--view` rc pump read-only).\n 82|4. Non-interactive flag completeness: every terminal action of the W2 picker reachable by flags\n 83|   (so `cc-<id>` shortcuts bake fully non-interactive).\n 84|\n...\n 86|1. Top-level `Cmd::Rc{id, #[arg(long)] view}` + dispatch arm → `cmd_rc`.\n*87|2. `cmd_rc`: resolve endpoint id → broker-held session → `request_attach` → full-duplex pump\n 88|   (operator stdin → `send_attach_input`; session output → terminal stdout). EOF/detach exits.\n*89|3. ONE path (doyle invariant): local = loopback peer through the SAME attach.rs pump; no local\n 90|   special-case branch. Cross-node correctness IS local correctness.\n 91|4. `--view`: read-only — do NOT forward stdin (skip send_attach_input), only render output.\n 92|5. Clean detach keybind; detach NEVER terminates the broker-held session (hazard: PTY\n...\n 94|\n*95|## T1.2 design (traced 2026-06-14) — the rc operator pump\n*96|- **No operator pump/CLI exists today**; only primitives `request_attach`/`send_attach_input`\n 97|  (attach.rs:210/231) + the target `serve_attach`. Reuse-template for the render loop:\n 98|  `tests/attach.rs:117 render_until` (reads `BrokerEvent::NetStreamData` → `AttachDecoder` →\n 99|  `AttachRecord::Output`, dedup by `seq` cursor).\n...\n 103|  path — no new server code.\n*104|- **conn acquisition — (A) self-dial EMPIRICALLY DEAD.** iroh refuses it: `net_dial(own_addr)` →\n 105|  `\"Connecting to ourself is not supported\"` (fail-fast, pinned green by\n 106|  `loopback_self_dial_is_refused_local_uses_fallback_transport`). So local attach CANNOT ride a\n 107|  self-dialed QUIC conn. Cross-node rc is UNAFFECTED (dials a real remote) — already works on the\n...\n 110|    inbound dispatched to `serve_attach` like QUIC; everything above byte-identical; local\n*111|    loopback-dials instead of `net_dial`. ONE pump, covered by cross-node tests. Cost: broker-layer\n 112|    addition (new conn variant + in-process stream routing + dispatch), broker-internal (6.7 safe).\n 113|  - **(B2) local-direct**: rc attaches straight to the broker session (`brain.attach`+`Output`+\n*114|    `send_effect`), no net stream — a transport branch in the pump (the \"lesser branch\" doyle warned of).\n 115|  - rc.rs currently codes the self-dial path (now known-refused); swap the conn-acquisition to the\n*116|    chosen B once doyle rules. The pump itself is transport-invariant — no pump change either way.\n 117|- **endpoint→session**: `brain.sessions() -> SessionsReply{ sessions: [SessionInfo{session_id,\n 118|  endpoint,resume_seq}] }` (brain.rs:923), filter by `endpoint == <id>` → `session_id`. (Local\n 119|  only this wave; remote `id@node_hex` + cross-node resolution is the gate's cross-subnet proof.)\n*120|- **rc pump shape**:\n 121|  1. resolve `<id>` → `session_id` via `brain.sessions()`.\n*122|  2. `conn_id = brain.net_dial(brain.net_status().addr, Some(dial_op))`.\n 123|  3. `stream_id = request_attach(brain, conn_id, session_id, 0, open_op)`.\n 124|  4. raw terminal mode; spawn stdin-reader thread → `send_attach_input(brain, stream_id, bytes,\n 125|     mint_op())` per chunk (SKIP if `--view`). main loop: `brain.read_event()` → `NetStreamData`\n...\n 135|  harness manifest with a NOOP `[session.self]`). Template failure fails closed.\n*136|- `[unit->REQ-RC-1]` local `rc` rides the SAME attach pump as cross-node (assert one code\n 137|  path — e.g. local attach constructs the same request_attach call / loopback peer). `--view`\n 138|  forwards no input. Detach leaves the session alive.\n 139|- `[int->REQ-HOST-RUN-1/REQ-RC-1]` (W-final): `endpoint run` brings up a real harness + `rc`\n...\n 152|3. [DONE] `EndpointCmd::Run` + `cmd_endpoint_run` (resolve harness adapter → spawn → start/attach/view).\n*153|4. [DONE] top-level `Cmd::Rc` + `rc.rs` pump (single-Brain, stdin-thread+mpsc, seq-dedup, detach\n 154|   state machine) + 3 unit tests green (detach semantics, prefix-spans-chunks, op-minter); crossterm dep.\n*155|5. [DONE] `--attach`/`--view` route through the same `rc::run_attach` pump.\n 156|6. [DONE] Self-dial EMPIRICALLY DEAD (iroh \"Connecting to ourself is not supported\") — pinned green\n 157|   `loopback_self_dial_is_refused_local_uses_fallback_transport`. doyle ruled B1 (broker loopback-conn) = W1.5.\n 158|7. [DONE] Bringup + cross-node attach int test `spt_hosted_bringup_then_cross_node_attach_drives_the_pty`\n...\n 167|  spawns `[session.self]` into a broker PTY; harness self-registers on bind. impl+unit+int green.\n*168|- **Attach (REQ-RC-1)**: `spt rc <id>` operator pump (cross-node face proven; local face = W1.5).\n 169|  Detach = ctrl-b then `d` (ctrl-b ctrl-b = literal); detach never kills the session. impl+unit+int green.\n 170|- **Evidence**: harnesshost 3 unit + rc 3 unit + 2 int (`spt_hosted_bringup_then_cross_node_attach_drives_the_pty`,\n 171|  `loopback_self_dial_is_refused...`). `traceable-reqs check` EXIT=0.\n*172|- **Carried to W1.5**: B1 broker loopback-conn + local attach int (+ \"both transports → one pump\" assertion).\n 173|- **Carried to pre-M12-gate**: REQ-HOST-RUN-2 project cwd (additive SpawnReq.cwd).\n## M12-W1.5-PLAN.md\n 3|> JIT plan (todlando, 2026-06-14). doyle-scoped after W1 PASS. Goal: LOCAL `spt rc <id>`\n*4|> attach rides the BYTE-IDENTICAL `serve_attach` pump as cross-node — because self-dial is\n 5|> impossible (iroh: \"Connecting to ourself is not supported\", pinned by\n 6|> `loopback_self_dial_is_refused_local_uses_fallback_transport`). doyle ruling = **B1**: an\n 7|> in-process broker loopback connection, NOT B2 local-direct (which would reintroduce a\n...\n 10|## The invariant (doyle, binding)\n*11|ONE `serve_attach` pump. Transport is swappable UNDER the stream. Cross-node = QUIC conn;\n 12|local = broker loopback conn. Both surface as broker net-stream events (`NetStreamData` /\n*13|`net_stream_subscribe` / `net_stream_send`) so `serve_attach` (target) + the `rc::pump`\n*14|(operator) are unchanged. The W1.5 int test MUST assert both transports hit the same pump.\n 15|\n 16|## What already exists (W1)\n*17|- Operator pump: `spt/src/rc.rs` `run_attach` + `pump` (transport-invariant — reads\n 18|  `NetStreamData`, writes via `send_attach_input`). Currently codes the now-REFUSED self-dial\n*19|  (`brain.net_dial(net_status().addr)`) — **this is the one line W1.5 swaps** to a loopback-dial.\n 20|- Target serve: `spt-daemon/src/attach.rs serve_attach`, auto-dispatched at\n 21|  `dispatch.rs:335-360 StreamFamily::Attach` (resolves session_id→endpoint via `brain.sessions()`).\n*22|- Cross-node conn: `brain.net_dial(addr,op) -> NetDialed{conn_id}` (brain.rs:800) →\n 23|  `NetHost::dial` (nethost.rs:615) → iroh connect → registers in `NetShared::conns`.\n 24|\n 25|## B1 design (the loopback conn)\n...\n 29|vice-versa. Local `spt rc`: loopback-dial → `conn_id` → `request_attach(conn_id, session_id)`\n*30|→ subscribe → pump — identical to cross-node from `request_attach` up.\n 31|\n 32|### Investigation TODOs (read before coding — NOT yet done)\n 33|1. **`spt-daemon/src/broker.rs`**: the conn table + stream table + how `dispatch_*` routes an\n...\n 54|- **T1.5.3** Swap `rc.rs` conn-acquisition: local `run_attach` loopback-dials instead of\n*55|  `net_dial(own_addr)`. (One seam; pump unchanged.)\n*56|- **T1.5.4** Int test `local_attach_via_loopback_conn_rides_the_same_pump`: spawn a session,\n 57|  loopback-dial, request_attach, drive input, render echo, detach→session outlives. PLUS the\n*58|  **one-pump assertion**: both the cross-node int and this local int exercise the same\n*59|  `serve_attach`+pump path (assert by construction / shared helper, per doyle).\n 60|- **T1.5.5** Activate REQ-RC-1 local int evidence (int already active from W1 cross-node face;\n 61|  add the `[int->REQ-RC-1]` tag on the local test). `traceable-reqs check` EXIT=0.\n 62|\n 63|## Gate (doyle)\n*64|Local `spt rc` attaches a broker-held PTY via the loopback conn over the byte-identical pump;\n*65|both transports proven to hit one pump; full suite + clippy -D warnings + traceable EXIT=0.\n 66|Then **REQ-HOST-RUN-2** (project cwd via additive `SpawnReq.cwd`) before the M12 gate.\n 67|\n 68|## Crystallized design (2026-06-14, post-investigation — doyle GO, all 3 Qs answered)\n...\n 70|`same-node short-circuit` already Allows (access.rs:89, documented access.rs:26-27) — NO access\n*71|change. (2) explicit new frame KIND `net-dial-loopback` (NOT sentinel addr). (3) one-pump =\n*72|by-construction via a SHARED serve_attach+pump test helper both cross-node + local int call.\n 73|\n 74|**Transport seam = `tokio::io::duplex(CAP)`** — one full-duplex pair wires an entire operator↔peer\n*75|stream. Split each end (`tokio::io::split`); feed the SAME `StreamLog`/subscribe/send_stream/read-pump\n*76|machinery — only the LEAF send/recv halves become enums. That IS the one-pump invariant by construction.\n 77|\n 78|- **nethost.rs**: `ConnEntry.conn` → `enum ConnKind { Quic(Connection), Loopback }`\n 79|  (`conn_remote_addr_json` Loopback→Null). `StreamEntry.send` → `enum SendHalf { Quic(SendStream),\n 80|  Loopback(WriteHalf<DuplexStream>) }` (async `write_all` + `finish`= quinn `finish()` / loopback\n*81|  `shutdown()`). Read pump takes `enum RecvHalf { Quic(RecvStream), Loopback(ReadHalf<DuplexStream>) }`\n 82|  — Quic `read_chunk`, Loopback `AsyncReadExt::read`. `register_stream` accepts SendHalf+RecvHalf.\n 83|  - `dial_loopback(&self)->(u64,String)`: SINGLETON (`loopback_conn: Mutex<Option<u64>>`), mints/reuses\n 84|    a `ConnKind::Loopback` row, `remote_id_hex = self.local_id.to_hex()`, NO closed-watcher/accept-loop.\n...\n 95|  thread→input→render_until→detach→assert(Detached + session outlives). Cross-node + new local\n*96|  `local_attach_via_loopback_conn_rides_the_same_pump` BOTH call it. Tag `[int->REQ-RC-1]`.\n 97|\n 98|## Notes\n 99|- rc.rs today codes the refused self-dial → LOCAL `spt rc` errors at runtime until T1.5.3\n## M12-W2-PLAN.md\n 46|- **Deps:** `crossterm = \"0.28\"` already in `spt/Cargo.toml` (landed W1 for the rc raw-mode\n*47|  pump, explicitly noted \"the same crate W2's ratatui picker builds on\"). **ratatui +\n 48|  nucleo-matcher are NEW deps** to add this wave.\n*49|- **Reuse for terminal actions:** `cmd_fork` (Fork), `cmd_rest`/wake (resting), rc pump\n 50|  (attach/view) all exist as callable CLI fns.\n 51|\n 52|## Investigation TODOs (read before coding — NOT yet done; gated on doyle scope ruling)\n...\n 80|   own hazard surface (PTY ownership, KH zone) better scoped as its own slice. Confirm.\n*81|2. **Project history.** Is there an authoritative per-endpoint project list to read, or does\n 82|   W2 derive it from p-<project> context branches? If neither is cheap, propose rendering\n 83|   the description pane's history as \"best-effort from contextstore, empty if none\" and not\n 84|   blocking the wave on a new history store. Your call on the source.\n...\n 197|  `resource_projection(reg, hidden_fn)` (`endpoint_id, node, status, resources`);\n*198|  `VisibilityStore` + `SubnetStore`. (Pick-existing spine + status.)\n 199|- `spt_store::info::read_info(perch).resources` (endpoint description);\n 200|  `perch::resolve_perch_path(id, ParentHint::Infer)` → `sessions::last_k(perch, k)` (resume).\n 201|- `rc::run_attach(id, view)` (attach/view); `cmd_endpoint_run` (start); `cmd_fork` (Fork).\n...\n 205|**No second bringup path** — every terminal action routes through `cmd_endpoint_run` /\n*206|existing CLI fns (`cmd_fork`, wake, rc pump). One bringup core, same discipline as W1.5's\n*207|one-pump.\n 208|\n 209|## Notes\n 210|- The picker is a pure front-end: it MUST NOT introduce a second bringup path — every\n 211|  terminal action routes through `cmd_endpoint_run` / the existing CLI fns. One bringup core,\n*212|  same invariant discipline as W1.5's one-pump.\n 213|- TUI testing: ratatui renders to a `Buffer` (testable without a real terminal) — assert the\n 214|  rendered buffer for screen-state unit tests; the live key loop is the manual-verify leg.\n 215|- ADR-0001 territory only if any wire/registry format changes (Q1 attach-presence op would\n## M12-W2-RULING.md\n 59|## Binding invariant (gate condition)\n*60|**No second bringup path.** Every terminal action routes through `cmd_endpoint_run` / existing CLI fns (`cmd_fork`, wake, rc pump). One bringup core — same discipline as W1.5's one-pump. I gate on this.\n 61|\n 62|## Gate posture\n 63|Build uncommitted on m12-w1-bringup-rc. I gate (reproduce traceable + read the load-bearing state-model/buffer tests + confirm single-bringup-path) before any commit. Suite + clippy -D + traceable EXIT=0. Operator calls the commit.\n## M12-W2.5-PLAN.md\n 16|- **rc.rs** `run_attach(endpoint_id, view: bool)` (rc.rs:168) ALREADY gates the stdin reader on\n*17|  `view` (viewer = no input). Detach/exit notices render post-pump (rc.rs:220-231) — the displaced\n 18|  notice slots in there. rc sends **no resize** today (geometry static).\n 19|- **broker** `OutputLog.subscriber: Option<SharedSend>` (broker.rs:87), `SharedSend =\n 20|  Arc<Mutex<SendHalf>>` (a brain↔broker IPC local-socket write half, one per attach connection).\n...\n 57|- `Displaced { by: String }` — target→operator, the **loud kick notice** to the displaced\n*58|  controller (its rc renders it, then the stream closes → pump ends).\n 59|All are additive enum variants / a defaulted field; the decoder's skip-unknown-kind contract keeps\n 60|N-1 peers degrading, not dying. **Confirm the four shapes.**\n 61|\n...\n 80|**Fully DETACH the displaced controller** (not demote-to-viewer): broker sends `Displaced{by}` →\n*81|the old controller's rc renders the loud notice → its stream closes → its pump ends with a\n 82|displaced-exit. Matches CONTEXT's \"displaces\"; auto-demoting to a silent viewer would surprise.\n 83|The displaced user can re-attach as a viewer if they choose. *Lean: detach + loud notice. Confirm.*\n 84|\n...\n 101|  viewer renders `Size`+letterbox (clip+indicator); both render the `Displaced{by}` loud notice\n*102|  post-pump. `kick`/`--take` surface on the `rc` command.\n 103|- **T5 picker** (W2 integration): blue ■ tri-state from `driven_by` (+ `viewer_count`); confirm\n 104|  options **View** (viewer attach) + **Kick <node> and attach** (`--take`) — both via the EXISTING\n 105|  attach dispatch (single-bringup-path invariant holds; role is a parameter).\n...\n 241|  initial-size-on-attach + window-change Resize via `crossterm::terminal::size()` polling each\n*242|  pump slice (cleaner than SIGWINCH/event-loop vs the raw-stdin reader); `Displaced{by}` → loud\n 243|  parting line; viewer `Size` → one-line size indicator (true clip/pad letterbox deferred — rc is a\n*244|  byte pump, needs a grid model). `send_attach_resize` helper added.\n 245|- **T5 DONE (picker)** — `EndpointRow` gains `driven_by`/`viewer_count` (local rows from info.json;\n*246|  subnet rows None); `ConfirmOption::Kick`; status-conditional `confirm_options` (CONTROLLED online\n 247|  → View+Kick ONLY, no plain Attach; else Attach=Control+full set); `Outcome::Attach{id,intent}`\n 248|  (View→Viewer, Attach→Control, Kick→Take — single-bringup-path, intent is a parameter); confirm\n 249|  pane pins `controlled by <node> (+N viewing)`.\n## M12-W5-PLAN.md\n*1|# M12 Wave 5 — `spt whoami` → endpoint-list alias — JIT plan\n 2|\n 3|> todlando 2026-06-14, after W4 GATE PASS + commit @b7cda13. W5 is the last\n 4|> coding wave before W2.5 (attach/kick, own slice) and the full M12 gate.\n...\n 8|## Scope (M12-PLAN.md Wave 5)\n*9|- **T5.1** `spt whoami` → **alias for `spt endpoint list`**; the **SELF-pin** output\n 10|  additionally includes the Self endpoint's **`endpoint description`** (its authored\n 11|  blurb). Keep `whoami` in the agent hot-path (top-level verb, unchanged parse).\n 12|\n...\n 16|  the source (env-based: `$OWL_SESSION_ID` / `$SPT_AGENT_ID`), NOT parsed from output.\n*17|- **`cmd_endpoint_list(local, subnet, detail)` (cli.rs:1492)** already does the **SELF\n 18|  pin**: when `detect_self_id()` resolves, it prints `SELF: {id}  {state} ready=… alive=…`\n 19|  first, then `SUBNET <name>` groups with endpoint rows. `--local` short-circuits to\n*20|  `cmd_list_local`. So \"alias for endpoint list\" is mostly a re-dispatch.\n 21|- **Self endpoint description** is reachable: `spt_store::info::read_info(&perch_path)\n 22|  .resources` where `perch_path = perch::resolve_perch_path(&id, ParentHint::Infer)` —\n 23|  exactly what `cmd_description` (cli.rs:1352, `DescriptionCmd::Show`) reads. `None` =\n...\n 31|## The DELTA\n*32|1. Re-dispatch `cmd_whoami` to the endpoint-list view (SELF pinned).\n*33|2. Augment the **SELF pin line** (in whoami, and arguably in `endpoint list` too) with the\n 34|   Self endpoint's authored description.\n 35|3. Reconcile the `how-to: ready` doc + register the REQ.\n 36|\n 37|## Open design question for doyle\n*38|**Q1 — `whoami` output shape vs the bare-id contract.** \"Alias for `endpoint list`\"\n 39|(rich, multi-line: SELF pin + every subnet's endpoint rows) collides with the documented\n 40|hot-path contract `id=$(spt whoami)` (bare id on stdout). Three readings:\n*41|- **(A) Full alias** — whoami emits the entire `endpoint list` view, SELF line gains the\n 42|  description. Cleanest literal read of the plan; **breaks** `$(spt whoami)` bare-id capture\n*43|  (agents/onboarding doc must change to a new id source, e.g. `endpoint list --local` or a\n 44|  `--id` flag).\n 45|- **(B) SELF-card only** *(my lean)* — whoami emits just the **SELF pin block** enriched\n 46|  with the description (`SELF: {id}  {state}` + a description line), NOT the full subnet\n*47|  roster. Honors \"alias for endpoint list\" (it's the SELF-pin slice of that view) AND\n 48|  \"keep in the agent hot-path\" (tight identity card); the **id stays the first token** so a\n*49|  narrowed capture still works, and `spt endpoint list` remains the full roster. Smallest\n 50|  blast radius.\n 51|- **(C) Full alias + preserved bare-id** — full list, but keep an explicit bare-id path\n*52|  (`spt whoami --id` or `spt endpoint list --self-id`) so scripts migrate to it. More\n 53|  surface than B for the same end.\n 54|\n*55|**Recommend B** (SELF-card: id + state + description; full roster stays `endpoint list`),\n*56|unless you read the plan's \"alias for endpoint list\" as strictly A. Either way the **id\n 57|remains the first stdout token** so the hot-path capture degrades gracefully, and I'll\n 58|reconcile the `how-to` text to match the chosen shape.\n 59|\n...\n 67|- **T5.1a** factor the SELF-pin render (id + state + description) into a small helper used\n*68|  by `cmd_whoami` and (option A/C) `cmd_endpoint_list`; read the description via\n 69|  `info::read_info`. Pure-ish render unit-tested over a fixture roster row + blurb.\n 70|- **T5.1b** re-dispatch `cmd_whoami` to the chosen shape; reconcile the `how-to: ready`\n 71|  doc line + CHANGELOG.\n...\n 78|graceful-degrade, no `--id` flag, no how-to migration. **Drop** the standalone bare-id\n*79|`cmd_whoami`; `spt whoami` dispatches to `cmd_endpoint_list` (full output: SELF pin +\n*80|roster). The **one real code change**: the `endpoint list` SELF pin gains the Self endpoint\n 81|description (`info::read_info(...).resources`). Q2 = NEW **REQ-WHOAMI-1** (doc+impl+unit, no\n*82|int); unit = rendered SELF line includes the description; whoami dispatch == endpoint-list\n 83|dispatch.\n 84|\n 85|## BUILT — sweep GREEN, ready for doyle gate (2026-06-14, todlando)\n...\n 89|  inline after the state when present, omitted (no dangling separator) when absent/blank.\n*90|- **cmd_endpoint_list** SELF pin now reads `info::read_info(resolve_perch_path(self_id,\n 91|  Infer)).resources` and renders via `render_self_pin` — the one behavior change (shared by\n*92|  `endpoint list` AND the `whoami` alias).\n## M2a-PLAN.md\n 116||---|------|--------|----------------|------------|\n*117|| T3 | `spt api` dispatch group: `--manifest`/`--adapter` resolution, `adapter_name` on every call, exit codes; **local-api-auth** (each mutation authenticated to an endpoint/session) | adapt `cli.rs`; CONTEXT \"Inbound api surface\" | REQ-API-1; REQ-HAZARD-LOCAL-API-AUTH | `spt api --help` lists the surface; a call without a resolvable endpoint/auth is refused non-zero |\n 118|| T4 | Harness-hosted startup: `api seed` (interim seed-**file** by `parent_pid`) + `api listen <id>` (consume seed, validate `session_id` vs pid-recycle, bind perch skeleton→live, relay loop) + `api bind` (post-spawn) | clean-room; CONTEXT \"Startup flows\" | REQ-START-1, REQ-START-2, REQ-SEAM-POSTSPAWN, REQ-API-2; REQ-HAZARD-WINDOWS-PID-RECYCLE | seed→listen binds a live perch reachable by id; a stale/mismatched seed never binds; listen relays a delivered message |\n 119|| T5 | Delivery + activity: `api state <busy\\|idle>` (+ echo-gate sentinel, `--no-gate`, `api echo-gate set/clear`) + `api poll [--include-deferred]` (hook delivery drain) + inject-method selection (hook/relay; PTY=M3) | sister sentinels + M1 spool | REQ-SEAM-ACTIVITY, REQ-SEAM-INJECT, REQ-API-2 | `api state idle` writes the perch sentinels; `api poll` drains non-deferred (deferred only with the flag) |\n 120|| T6 | Worker perches: `api worker-start`/`worker-stop` (nested create/teardown under parent) + `api worker-poll` + **cascade-wipe guard** (no hard-delete of a parent hosting non-empty children) | sister subagent hooks (clean-room) | REQ-API-2; REQ-HAZARD-CASCADE-WIPE-GUARD | a worker perch nests under its parent + is addressable; stopping a parent with live workers is refused/soft |\n## M4-D4-PLAN.md\n 38|  `merge_instance` seam — a minimal registry-update message over `SPT_NET_ALPN` carrying\n*39|  `(subnet, endpoint_id, Instance{node,status,epoch})`, authored with `EpochSource::\n 40|  next_epoch()`. The merge rule is already hermetically tested; D4d only wires transport →\n 41|  merge. Join/advertise paths go through D3d/D3e gates (`advertise_if_visible`).\n 42|- **PresenceChannel = seam, not feature** (REQ-EP-4): a broker-side endpoint registration\n## M4-D5-PLAN.md\n 14|attach to a remote instance works as a viewport (compute + files stay remote); the driven\n*15|agent can detect it is network-driven and from which node; an endpoint with a whitelist\n 16|refuses unsolicited inbound from a non-listed origin node. Reqs: REQ-NET-1 (WAN-msg\n 17|aspects), REQ-INST-8, REQ-REACH-1, REQ-SEC-1.\n 18|\n...\n 35|- **Remote attach = OutputLog over the wire.** The broker-side `OutputLog` (seq'd ring,\n\n[Showing lines 1-543 of 693 (49.9KB limit). Use :544 to continue. 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The JSON listing now\n 142│  reflects the same local liveness truth the interactive view uses. Re-binding an endpoint\n    │...\n 167│  running a version that doesn't answer the periodic update check). That one peer\n*168│  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\n*169│  members but showed an empty live-node list and warned that the peer pump had\n 170│  stalled. An unresponsive peer is now dropped and retried on its own instead of\n 171│  holding up the round, so the node keeps converging and peers reappear.\n 172│\n    │...\n 241│\n*242│A worker-truth release: the background \"worker\" endpoints an agent spawns now carry stable minted ids, stay out of your endpoint list and the run picker, get cleaned up when they leak, and inherit their parent's account; and harness adapters are validated more strictly when you add or update them. **Breaking for adapter authors: the worker control verbs changed shape — see Changed.**\n 243│\n 244│### Added\n 245│\n    │...\n 250│- **Breaking (adapter authors): worker endpoints now use core-minted ids and token-free, session-symmetric control verbs.** A spawned worker is assigned a stable `<parent>-w<N>` id by the core, and the verbs that drive a worker now key on its session id with no separate token. Adapters that spawn or control workers must migrate to the new verb shape; the old form no longer works.\n*251│- **`spt endpoint list` hides worker endpoints by default.** Worker endpoints no longer clutter the default listing; pass `--workers` to include them.\n*252│- **The run picker no longer offers worker or companion (psyche) endpoints.** These aren't independently startable, so the picker lists only endpoints you can actually launch.\n 253│\n 254│### Fixed\n 255│\n    │...\n 265│- **Wake or suspend an endpoint on another node by its bare id.** `spt endpoint wake <id>` and `spt endpoint suspend <id>` (and the other remote verbs) now find the right endpoint across the subnets your node belongs to without an explicit `--subnet`, and report a clear host error when the target can't be woken instead of failing quietly.\n*266│- **The picker can wake a suspended remote endpoint.** A suspended row that lives on another node now offers Wake-now directly from the pick list.\n*267│- **`x` purges an endpoint from the pick list.** Highlight a row and press `x` to remove that endpoint, with an in-list confirm before it happens.\n 268│- **Backspace steps back one screen in the picker.** Backspace now backs out one picker screen, matching Esc.\n 269│- **`spt endpoint run --id <id>` reuses that endpoint's own adapter.** Running an existing endpoint by id reuses the harness adapter it was created with instead of dropping you into the choose-a-new-adapter picker.\n 270│\n    │...\n 280│- **A cold attach now repaints the program's window title.** Attaching to a running session restores the child program's terminal window/tab title instead of leaving it blank.\n*281│- **Ending one session no longer stops messages to another endpoint that is still listening.** A soft session-end keeps a still-live listener's delivery address, so its messages keep arriving.\n 282│- **A message sent from inside an spt-hosted session is attributed to that endpoint.** A send from within a hosted session is now stamped as coming from that endpoint rather than the bare command-line identity.\n 283│- **An endpoint that exists but has never run now reads as suspended.** Its status is derived consistently instead of showing an in-between state.\n 284│- **A stale \"controlled\" marker left by a gone controller now clears itself.** When the process that held an endpoint is gone, the controlled/viewer marking heals on its own.\n    │...\n 286│- **`spt daemon stop` no longer hangs when the daemon is busy.** Shutdown is now bounded and drains in-flight connections, so stop returns promptly instead of parking under load.\n*287│- **`spt endpoint list` (and `spt whoami`) now flag an endpoint whose input translation has failed.** The endpoint's line shows `input-translation: FAILED (<reason>)` and what it means for you — typed input may not reach the session — instead of the fault being invisible.\n 288│- **A remote wake or screen-open no longer spuriously fails with \"op already applied — retry with a fresh op_id\".** Internal operation ids raised from different sources could collide; they are now kept distinct, and a stale collision retries once on its own.\n*289│- **Acting on an endpoint that lives on another node now says so in plain language.** A remote operation against an endpoint hosted elsewhere reports `this endpoint is not hosted on this node` and points you at `spt endpoint list` to find where it lives, instead of an internal-sounding failure.\n 290│\n 291│## [0.25.0] - 2026-07-04\n 292│\n    │...\n 322│\n*323│- **The picker's confirm panel now shows the readable project name.** The one remaining place that still displayed a raw project slug now shows the friendly name, matching the rest of the picker and `spt endpoint list`.\n 324│- **The picker's `h` and `s` keys now work only where they can launch, and the footer only hints them there.** Headless-start (`h`) and shortcut (`s`) previously fired from rows that could not launch anything, and the footer advertised them where they were dead; both are now live only on a highlighted row that can actually start the endpoint, and the footer hint matches.\n 325│- **\"Change harness adapter\" now only changes the adapter.** Choosing it no longer re-prompts for an id and home directory and then starts a session — it picks a new adapter, applies it to the endpoint, and returns to the confirm panel.\n 326│- **An endpoint's adapter profile is no longer dropped on reconnect.** An endpoint created with an adapter profile (e.g. `claude-spt:ccs`) keeps that profile; re-binding no longer strips it back to the bare adapter.\n    │...\n 336│\n*337│- **Projects now display a recognizable name.** Across the agent picker (history, the choose-project panel, resume titles) and the `spt endpoint list` project column, a project shows a readable name (e.g. `spt-core`) instead of a raw slug; two projects with the same name are told apart by their folder.\n*338│- **`spt endpoint list` output refreshed.** The shared-subnet and total lines are dimmed, the status glyph now sits beside the endpoint name, and the status word is colored.\n 339│- **The agent picker no longer offers \"View\" for an offline endpoint.** An offline endpoint has no live session to view, so only Start is offered.\n 340│- **`spt daemon status` now warns about a stale at-logon task registration.** If the auto-start task was registered by an older installer in an unsafe form, `spt daemon status` flags it with guidance to re-register via the current installer; the daemon self-protects either way.\n 341│- **Piping `spt daemon run` to another command now discards its output by design.** A piped launch is treated as a detached one and its console output is dropped; to capture the daemon's output, redirect it to a file (e.g. `spt daemon run 2>daemon.log`) instead.\n    │...\n 344│\n*345│- **Colored CLI output on Windows consoles no longer garbles.** On a raw Windows console, `spt endpoint list` and `--help` no longer print raw escape sequences; when the console cannot render color, the output is cleanly stripped instead.\n 346│- **Resume-from-history now labels each session with its own project.** Past sessions no longer all read as the newest project, and internal or host sessions no longer appear as unresumable rows.\n 347│- **The Start-now project chooser no longer lists the same project twice.**\n 348│- **A dead or offline endpoint no longer reads as \"controlled.\"** The controlled/viewer marking is cleared once the session is gone — including across a daemon restart — instead of lingering.\n    │...\n 357│\n*358│A picker-and-presence truth release: the endpoint picker and listing show real project, type, and control state — including for endpoints on other machines — and a few rough edges around piping and cross-node display are fixed.\n 359│\n 360│### Added\n 361│\n    │...\n 365│\n*366│- **`spt endpoint list` now shows a project column.** Each row reads id / project / type / status, so you can see at a glance which project an endpoint belongs to.\n 367│- **The endpoint picker got two UX fixes.** Starting an endpoint now opens a choose-project panel, and the resume view keeps the top endpoint details panel visible.\n 368│\n 369│### Fixed\n    │...\n 377│\n*378│A visibility + update-honesty release: the endpoint list is reorganized around machines, and `spt update apply` / `spt daemon status` are clearer about which version is actually running.\n 379│\n 380│### Added\n 381│\n*382│- **`spt endpoint list --show-all`.** Suspended (resting) endpoints are now hidden by default to cut clutter; `--show-all` reveals them. Each machine's total discloses how many were hidden (nothing silently vanishes), and a corrupt record always shows regardless.\n 383│- **`spt daemon status` now reports the running daemon's version.** It shows the version the running daemon was built from beside the installed version and flags a mismatch — so you can tell when an update is on disk but the daemon still needs a restart to fully load it. The `--json` output gains matching `broker_image` / `broker_stale` fields.\n 384│\n 385│### Changed\n 386│\n*387│- **`spt endpoint list` (and `spt whoami`) is now grouped by machine, not by subnet.** Your own node comes first, then each remote machine alphabetically — every endpoint appears once per machine (no more duplicate rows for a machine reachable through several subnets), with a per-machine total and the subnets it shares with you. The old `ENDPOINTS:` summary line (which counted a machine once per subnet) is removed.\n 388│- **`spt update apply` now tells you when a daemon restart is needed.** On a successful update it notes that daemon-coordinated features keep running the previous version until you restart the daemon, and points you at `spt daemon status` to confirm which version is live.\n## CONTEXT.md\n  29│**spt-daemon** (per-machine supervisor):\n *30│The single always-on, one-per-machine logical supervisor. Owns the PTYs for all hosted sessions, the node's network identity + WAN endpoint, the subnet registry, all spools, **all poll-listener logic, and all Psyche/pulse loops** — everything is consolidated here (no separate poll-listener or Psyche-wrapper processes; listeners already touch sessions directly under capsule/idle, and Psyche wrappers already invoke harness binaries directly, so they belong in the one supervisor). Collapses what the siste...\n  31│\n  32│Internally the logical daemon is split into two implementation layers for seamless self-update (see Self-update):\n  33│- **broker** (stable \"kernel\") — holds *only* the un-transferable, must-not-die resources: PTY master fds, the spawned harness child processes, and listening network sockets. Minimal, dumb, versioned local IPC. Almost never updates.\n    │...\n 121│\n*122│**post-spawn seam** — the just-launched binary calls an spt-core command on boot (via the adapter's SessionStart-equivalent hook) to bind itself. Needed because the harness's own session id usually isn't known until after the binary runs. Payload: the harness `session_id` (when binary-generated rather than spt-core-injected); the `parent_pid` (the stable session-binding anchor — see KNOWN-HAZARDS 2.1); an endpoint identity/type confirmation; optionally a local HTTP port the binary listens on (for HTT...\n 123│\n 124│**post-spawn is optional only under a strict commitment:** an adapter may forgo post-spawn *only* if it (a) injects the spt-core-generated session UUID at spawn AND (b) guarantees the launched-process pid IS the stable session-binding anchor (no wrapper-script / subprocess pid indirection). If either does not hold, post-spawn must fire to report `session_id` and/or `parent_pid`. UUID-injection alone suppresses only the `session_id` reporting, not the binding.\n 125│\n    │...\n 149│- **channel restriction** (*through what*) — **unrestricted** (any configured inject method) · **prefer-native** (the translation binary if one is running, else fall back to the standard methods) · **force-native** (the translation binary and nothing else — no fallback, no spool-to-another-method). Mutually exclusive; composes with the window. *\"Native\"* = the `[message-idle-translation-binary]` PTY channel.\n*150│- **persistence** (*how long it waits*) — **durable** (default; spooled until delivered or TTL) · **ephemeral** (dropped if it cannot deliver in its accepted window — at the moment the window opens with no live carrier, or at TTL, whichever is first). Ephemeral is the **only** path permitted to drop silently (the REQ-HAZARD-IDLE-SILENT-NONDELIVERY carve-out); every non-ephemeral path spools and reports non-delivery. <!-- v0.15.0 PARTIAL (W3): ephemeral evaporation covers the spt-hosted-binary no-car...\n 151│Window restricts *when* delivery is accepted, channel restricts *which method* carries it, persistence restricts *how long* it waits — they compose freely (e.g. `force-native` + `active-only` = the binary injects during the active window, never idle; `force-native` + `ephemeral` = binary-or-nothing).\n 152│\n 153│**message metadata (`json`)** — a sender may attach an opaque JSON metadata block (`--json-payload`), carried as a single attr-escaped `json=\"…\"` envelope attribute **alongside** (never replacing) the body. spt-core never interprets it — pure verbatim passthrough across every rail (spool / TCP / WAN / EVENT-PART), parsed only by the receiving adapter (its hooks and/or translation binary). Collision-proof by construction: the structured data lives **inside** the single `json` value, so it can never ...\n    │...\n 158│\n*159│**capability declaration** — which endpoint types a harness/node can host (a Pi node might host only Shells, never a LiveAgent). Static manifest list, consumed by the subnet registry so a node advertises its hostable types. Exact shape is design-open.\n 160│\n 161│**adapter-update seam** — file-pull or delegated-command (see Self-update). Locked.\n 162│\n    │...\n 242│\n*243│*Psyche-host health — harness-reachable failure signal (v0.8.1, REQ-HAZARD-LIVEHOST-BOOT-RACE):* a LiveAgent's `status=online` is daemon-authoritative liveness and **stays authoritative** — but it does not by itself prove the daemon hosted a Psyche. When the brain's live-host reconcile fails to spawn the Psyche (e.g. the adapter's psyche binary is absent from its install dir, or the net-less boot-race starves the host), that failure was previously **silent** — only an `eprintln!` on the brain's inv...\n 244│\n 245│**Summarizer**:\n 246│The ephemeral, cheap model that builds a **commune delta** from a Self's recent turns and feeds it *into* the **Psyche** as inbound context. A distinct actor from the Psyche — different (cheaper) model, fire-and-forget, **no perch** (not an endpoint type). It authors *commune* deltas only, **never** *reply*/*notify*.\n    │...\n 357│\n*358│**Not in the subnet registry.** Shell perches are private to the agent↔shell link, not a general messaging surface — they are nested under the owner (`perches/<endpoint_id>/shells/<adapter>-<n>/`) and not registry-advertised like agent endpoints. The perch `info.json` carries only `type=Shell`, `owner`, `adapter_name`, `status` (online|offline), and an optional `alias` — the capability set is resolved from the shell adapter manifest by `adapter_name`, not duplicated on the perch.\n 359│\n 360│**Shell-relevant commands:** agent/user surface — `spt shell spawn <shell_adapter> [--id]`, `shell list`, `shell relink <id>`, `shell teardown <id>`, `shell cmd <id> <op…>` (or ordinary `send` of a typed command payload), and **`spt endpoint shutdown`** (an agent gracefully shuts down *its own* endpoint → suspended; fires the transition echo-commune; cascades its persistent shells offline). Machinery `api` surface — `api bind` (type=Shell), `api poll` (relay delivery), `api emit --type <sensory_t...\n 361│\n    │...\n 388│<!-- [doc->REQ-RC-KEY-VT-TRANSLATE] -->\n*389│**rc keyboard input (Windows VT translation, v0.13.0 bug 2).** On **Windows** an interactive `spt rc` console reads crossterm **key events** and translates each to **standard xterm VT** (`translate_key_event`) — arrows / Home / End / PgUp/Dn / Insert / Delete / F-keys + modifiers all reach the harness as the universal terminal contract (**agnostic**, NOT win32-input-mode; the legacy console delivers those keys as events, not bytes, so the old byte-pump left them DEAD). **Unix passes through** (its raw-...\n 390│\n 391│**spt-hosted bringup picker (`spt endpoint run`)** (M12-W2):\n 392│<!-- [doc->REQ-RUN-PICKER] -->\n    │...\n 411│project history newest→oldest · `endpoint description`). The **confirm** layer offers\n*412│status-dependent options — Attach/Start/View (the rc pump / bringup) · Instantiate-locally\n 413│(remote) · Change-harness-adapter (offline) · Fork · **Resume-from-history** (offline+LOCAL\n 414│only — enumerates the per-endpoint session ledger, titles `<project> @ <ts> (…id5)`, resumes\n 415│that session id). **Invariant:** the picker is a pure front-end — every terminal action routes\n*416│through the one bringup core (`spt endpoint run` / the rc pump), never a second path. A single\n 417│action enum is the source of truth so a future tap-mode (phone PTY) layers on without\n 418│re-coupling to keybinds.\n 419│_Avoid_: a second bringup path; hard-coupling interaction to physical keybinds.\n    │...\n 471│An spt-hosted endpoint runs in a **daemon-owned PTY, decoupled from whatever terminal launched it**. Closing the\n*472│tab/window where `spt endpoint run` was invoked detaches only the `spt rc` attach pump — the endpoint keeps running under\n 473│the daemon and stays re-attachable via `spt rc <id>`. A view is a transient frontend over a daemon-owned session, never\n 474│the session's lifeline. *Implementation:* the daemon must never live inside the launching terminal's process grouping —\n 475│on Windows the cold-started daemon is launched **job-neutral**: a job-neutral creator (**WMI `Win32_Process.Create`**,\n    │...\n 487│**input injection**:\n*488│Two granularities, both first-class. `send-keys` — raw byte stream including escape sequences (e.g. `Ctrl-C`). `send-line` — cooked line-level input flushed on newline (the common case; matches how user input reaches an agent prompt). **PTY input is single-writer (v0.13.0 P0, KNOWN-HAZARDS 7.17):** broker-side, every write to a hosted session's PTY goes through ONE per-session input-writer thread — the sole caller of the blocking `write_input`, fed by a bounded FIFO. All callers (operator keystroke...\n 489│\n 490│**scrollback**:\n 491│In-memory ring buffer per session for v1. **On-disk spillover for long sessions is an intended, tracked feature** (deferred past v1, not forgotten) — see `docs/DEFERRED.md`.\n    │...\n 520│\n*521│### The peer pump\n 522│\n*523│**peer pump**: the **one supervised daemon loop** driving all outbound cadenced peer traffic — registry advertisement, notif push, sync pull, update check — against every roster member of every attached subnet. The pump owns *when* and *toward whom*: the scheduling kernel (in-memory stagger-from-due-now cadences + wake markers — deliberately **not** deadline-grid converted, ADR-0018 `[V4]`; no per-loop timing writes), the per-round shared store loads, the per-subnet × per-peer fan-out (connection ...\n 524│\n*525│**pump worker**: a cadenced consumer module behind the pump's **worker seam** — one each for registry, notif, sync, update. A worker declares its cadence, optionally consumes its wake marker (`poll_wake` — the exactly-once filesystem take stays at the worker edge, the scheduling kernel stays pure), runs optional node-local **pre-round** work once per due round (e.g. the registry worker's eviction sweep → rotation fire → re-advertise ordering), and a per-peer **peer step** over the pump-provided c...\n*526│_Avoid_: calling an individual leg a \"pump\" (the loop is *the* pump; the legs are workers); giving a worker its own `EpochSource` over the shared op counter (sole-writer: the pump's, KH epoch-lease class).\n 527│\n 528│### Cross-node Psyche sync\n 529│\n*530│**Sync scope is subnet-exclusive by default.** An endpoint's mind replicates only within **one subnet** unless told otherwise. Endpoint config carries a **subnet-membership list** for sync: the context syncs across the nodes of *every* subnet in that list, defaulting to just the endpoint's home subnet. This is distinct from registry *visibility* (*endpoint visibility*) — being addressable in a subnet does not imply replicating your mind there; mind-replication into a subnet requires that subnet to be i...\n 531│\n 532│The context is a local git repo with `a-<endpoint_id>` (per-agent) and `p-<project_id>` (per-project) branch views. Sync has **two transport modes** (full mechanics: `docs/STORAGE.md`):\n 533│- **P2P (default):** the data syncs between a user's nodes over the built-in P2P networking — **no `gh`/account/setup**, the no-central-operator promise. Replaces modern SPT's required GitHub-remote sync.\n    │...\n 641│**endpoint visibility (per-(endpoint, subnet))**:\n*642│Whether an endpoint is exposed to a given subnet. **Hidden means *excluded*** — not advertised in that subnet's registry **and not routable from it** (addressing it from that subnet fails until explicitly revealed), not merely unlisted. This makes hiding a real boundary, ready for the cross-user (b) seam, not a silent non-boundary. Computed as: endpoint `E` is **hidden in subnet `S` iff** `S.hide_new_endpoints` (a per-subnet policy captured at the node's **join time**) **OR** `E.default_hide_from_new_s...\n 643│\n 644│**home subnet (per endpoint)**:\n 645│The single subnet that anchors an endpoint's *defaults*: the default **sync** scope (subnet-exclusive mind replication — *Cross-node Psyche sync*) and the subnet that qualifies its **bare name**. **Assigned at creation:** the node's **sole** subnet automatically; on a **multi-subnet** node it **must be specified** at creation (no silent guess — mirrors the *resolution policy*'s refuse-and-qualify); on an **unpaired** node the endpoint is local-only until first join, when home is set. Distinct from ad...\n    │...\n 652│**resource advertisement (subnet resource registry)**:\n*653│A per-endpoint **free-text blurb** describing the services/functions the endpoint can serve — an agent **yellow-pages** for service discovery, distinct from *capability declaration* (machine-readable, which endpoint *types* a node hosts) and from *endpoint visibility* (whether it's addressable at all). **Both-authored + mutable:** config seeds a default; the agent refines its own at runtime (`spt endpoint description set …`). It is **not a separate registry** — it is a field on the endpoint record ...\n 654│\n 655│**resolution policy**:\n 656│How bare `ling` resolves when multiple instances exist. Rule: local-node instance if present → else most-recently-active → explicit override always available. **Two qualifier syntaxes**, combinable: **subnet-qualified** `home:ling` and **node-qualified** `ling@hfenduleam` (→ `home:ling@hfenduleam`). **Multi-subnet ambiguity rule:** under node-global identity (endpoint ID below), a node on several subnets may see two *distinct* endpoints that share a bare name (a `home:ling` and an unrelated `work:l...\n    │...\n 750│\n*751│**Node-bound code fetch — and every subnet-membership mutation — is gated behind OS privilege elevation** (Windows UAC / Linux root-or-equivalent): retrieving a subnet's code *from the node*, minting a new subnet (`subnet create` — a seed reveal), and joining one (`subnet join` — enrolling the machine into a trust fabric) all require either hardware/elevated access OR an **elevated endpoint** (an agent whose process is elevated can surface it). The join gate exists because membership is a trust-b...\n 752│\n 753│**self-elevating re-launch (cross-platform)**:\n 754│<!-- [doc->REQ-ELEVATE-1] -->\n    │...\n 770│**subnet attachment (attached / detached)**:\n*771│Whether this node's daemon is **actively serving** a held subnet membership right now — pairing responder reachable, rendezvous meet listener rotating, registry gossip pumping. **Attached** = serving; **detached** = the membership record (seed) is held on disk but deliberately not served (the daemon neither advertises into nor connects to that subnet). Detachment is a *chosen* per-subnet state — `spt subnet detach/attach <NAME> [--save]` (shipped M8-D2; `--save` persists the startup default in daemon...\n 772│\n 773│**endpoint description** (canonical CLI term for the resource-advertisement blurb):\n 774│The per-endpoint free-text \"yellow-pages\" line (see §resource advertisement). Surface term is **description**; \"blurb\" survives only as the internal field name.\n## M12-CANDIDATES.md\n 60│- **Psyche cross-machine sync = automatic** (M4-D6c, P2P over Iroh; `crates/spt-daemon/src/sync.rs`,\n*61│  `pump/sync.rs`). tracked/ replicates in-subnet by default; gh-repo `psyche-sync-setup`\n 62│  RETIRED to optional hub-mode. → spt-claude-code `/spt:setup` #8 reduces to a rare opt-in.\n 63│- **`spt endpoint fork <src> <new_id>` exists** (cross-subnet copy, same-node). Forking IS a\n 64│  first-class CLI offering. (`cli.rs:221`)\n   │...\n 66│  via qualified addressing. (`cli.rs:261,273`)\n*67│- **`spt whoami` + `spt endpoint list` (self pinned `SELF:` at top)** both exist; both stay\n 68│  in the agent hot-path.\n 69│\n 70│## M12 small change (revised former #5)\n*71│5. **`spt whoami` → alias for `spt endpoint list`** (operator 2026-06-14). whoami stays in the\n*72│   hot path but becomes an alias; the SELF-pin output in `endpoint list` must additionally\n 73│   include the Self endpoint's **`spt endpoint description`**. (Not obsolescence — a merge so\n 74│   the whoami-equivalent output carries the description.)\n 75│\n## M12-ENDPOINT-RUN-PICKER.md\n 15│## Create-new branch\n*16│- **L2** \"Choose your harness adapter for this endpoint:\" → list available adapters, with\n 17│  their **profiles tree-nested** under each adapter.\n 18│- **L3** \"Enter an endpoint id. Alphanumeric + hyphen + underscore only.\" → **start endpoint.**\n 19│\n## M12-PLAN.md\n 18│- Cross-node remote attach (`attach.rs`, M4-D5b) — daemon-internal, no user CLI.\n*19│- `spt endpoint fork` · `endpoint shutdown`/`stop` · `whoami` + `endpoint list` (SELF pin) ·\n 20│  automatic in-subnet psyche sync (M4-D6c).\n 21│\n 22│## Wave 1 — spt-hosted HARNESS bringup + attach (the gating foundation)\n   │...\n 67│## Wave 5 — whoami merge (small)\n*68│- **T5.1** `spt whoami` → alias for `spt endpoint list`; SELF-pin output additionally includes\n 69│  the Self endpoint's `endpoint description`. Keep whoami in the agent hot-path.\n 70│\n 71│## Gate (doyle, after waves)\n## M12-W1-PLAN.md\n  14│- **REQ-RC-1** — `spt rc <id>` attaches a local terminal to a broker-held PTY via the\n *15│  cross-node attach pump; local = degenerate single-node case (ONE path). `--view` read-only,\n  16│  clean detach (no session termination).\n  17│- Activation order (rule 2, memory [[traceable-per-wave-activation]]): each commit sets\n  18│  `required_stages` to ONLY the evidence in that commit, cumulative. doc+impl+unit land this\n    │...\n  29│  per the harness perch contract (fill from trace), (e) NO link-token (harness binds via `api`).\n *30│- **Attach pump**: `spt-daemon/src/attach.rs` — `serve_attach(brain,stream_id,endpoint,origin_node,net_from_seq)`\n  31│  -> `AttachServeOutcome{Refused,Exited(Option<i32>),Detached}`; `request_attach(brain,conn_id,session_id,from_seq,open_op)->stream_id`;\n  32│  `send_attach_input(brain,stream_id,bytes,wire_op)`. Cross-node rides QUIC (`spt-net/src/net/attach.rs`\n  33│  `AttachRecord::{Request,Input,Output,Exit}`). Local = single-node degenerate case (loopback peer).\n    │...\n  59│- **Follow-up flags (doyle, NOT W1 blockers):** (1) PTY *resize* events must flow through the\n *60│  attach pump for an interactive harness — W1 sets initial real dims only; live resize = later W.\n  61│  (2) Detach keybind (T1.2.5): explicit, cannot collide with harness passthrough input (legacy\n  62│  capsule = ctrl-b prefix); documented. Folded into REQ-RC-1.\n  63│- **RESOLVED — VERDICT (A): argv `{id}` template, NO SpawnReq wire change.** Harness learns its\n    │...\n  80│3. `cmd_endpoint_run` in cli.rs: resolve adapter option, daemon call, then dispatch terminal\n *81│   action (`--start` returns; `--attach` falls into the rc pump; `--view` rc pump read-only).\n  82│4. Non-interactive flag completeness: every terminal action of the W2 picker reachable by flags\n  83│   (so `cc-<id>` shortcuts bake fully non-interactive).\n  84│\n    │...\n  86│1. Top-level `Cmd::Rc{id, #[arg(long)] view}` + dispatch arm → `cmd_rc`.\n *87│2. `cmd_rc`: resolve endpoint id → broker-held session → `request_attach` → full-duplex pump\n  88│   (operator stdin → `send_attach_input`; session output → terminal stdout). EOF/detach exits.\n *89│3. ONE path (doyle invariant): local = loopback peer through the SAME attach.rs pump; no local\n  90│   special-case branch. Cross-node correctness IS local correctness.\n  91│4. `--view`: read-only — do NOT forward stdin (skip send_attach_input), only render output.\n  92│5. Clean detach keybind; detach NEVER terminates the broker-held session (hazard: PTY\n    │...\n  94│\n *95│## T1.2 design (traced 2026-06-14) — the rc operator pump\n *96│- **No operator pump/CLI exists today**; only primitives `request_attach`/`send_attach_input`\n  97│  (attach.rs:210/231) + the target `serve_attach`. Reuse-template for the render loop:\n  98│  `tests/attach.rs:117 render_until` (reads `BrokerEvent::NetStreamData` → `AttachDecoder` →\n  99│  `AttachRecord::Output`, dedup by `seq` cursor).\n    │...\n 103│  path — no new server code.\n*104│- **conn acquisition — (A) self-dial EMPIRICALLY DEAD.** iroh refuses it: `net_dial(own_addr)` →\n 105│  `\"Connecting to ourself is not supported\"` (fail-fast, pinned green by\n 106│  `loopback_self_dial_is_refused_local_uses_fallback_transport`). So local attach CANNOT ride a\n 107│  self-dialed QUIC conn. Cross-node rc is UNAFFECTED (dials a real remote) — already works on the\n    │...\n 110│    inbound dispatched to `serve_attach` like QUIC; everything above byte-identical; local\n*111│    loopback-dials instead of `net_dial`. ONE pump, covered by cross-node tests. Cost: broker-layer\n 112│    addition (new conn variant + in-process stream routing + dispatch), broker-internal (6.7 safe).\n 113│  - **(B2) local-direct**: rc attaches straight to the broker session (`brain.attach`+`Output`+\n*114│    `send_effect`), no net stream — a transport branch in the pump (the \"lesser branch\" doyle warned of).\n 115│  - rc.rs currently codes the self-dial path (now known-refused); swap the conn-acquisition to the\n*116│    chosen B once doyle rules. The pump itself is transport-invariant — no pump change either way.\n 117│- **endpoint→session**: `brain.sessions() -> SessionsReply{ sessions: [SessionInfo{session_id,\n 118│  endpoint,resume_seq}] }` (brain.rs:923), filter by `endpoint == <id>` → `session_id`. (Local\n 119│  only this wave; remote `id@node_hex` + cross-node resolution is the gate's cross-subnet proof.)\n*120│- **rc pump shape**:\n 121│  1. resolve `<id>` → `session_id` via `brain.sessions()`.\n*122│  2. `conn_id = brain.net_dial(brain.net_status().addr, Some(dial_op))`.\n 123│  3. `stream_id = request_attach(brain, conn_id, session_id, 0, open_op)`.\n 124│  4. raw terminal mode; spawn stdin-reader thread → `send_attach_input(brain, stream_id, bytes,\n 125│     mint_op())` per chunk (SKIP if `--view`). main loop: `brain.read_event()` → `NetStreamData`\n    │...\n 135│  harness manifest with a NOOP `[session.self]`). Template failure fails closed.\n*136│- `[unit->REQ-RC-1]` local `rc` rides the SAME attach pump as cross-node (assert one code\n 137│  path — e.g. local attach constructs the same request_attach call / loopback peer). `--view`\n 138│  forwards no input. Detach leaves the session alive.\n 139│- `[int->REQ-HOST-RUN-1/REQ-RC-1]` (W-final): `endpoint run` brings up a real harness + `rc`\n    │...\n 152│3. [DONE] `EndpointCmd::Run` + `cmd_endpoint_run` (resolve harness adapter → spawn → start/attach/view).\n*153│4. [DONE] top-level `Cmd::Rc` + `rc.rs` pump (single-Brain, stdin-thread+mpsc, seq-dedup, detach\n 154│   state machine) + 3 unit tests green (detach semantics, prefix-spans-chunks, op-minter); crossterm dep.\n*155│5. [DONE] `--attach`/`--view` route through the same `rc::run_attach` pump.\n 156│6. [DONE] Self-dial EMPIRICALLY DEAD (iroh \"Connecting to ourself is not supported\") — pinned green\n 157│   `loopback_self_dial_is_refused_local_uses_fallback_transport`. doyle ruled B1 (broker loopback-conn) = W1.5.\n 158│7. [DONE] Bringup + cross-node attach int test `spt_hosted_bringup_then_cross_node_attach_drives_the_pty`\n    │...\n 167│  spawns `[session.self]` into a broker PTY; harness self-registers on bind. impl+unit+int green.\n*168│- **Attach (REQ-RC-1)**: `spt rc <id>` operator pump (cross-node face proven; local face = W1.5).\n 169│  Detach = ctrl-b then `d` (ctrl-b ctrl-b = literal); detach never kills the session. impl+unit+int green.\n 170│- **Evidence**: harnesshost 3 unit + rc 3 unit + 2 int (`spt_hosted_bringup_then_cross_node_attach_drives_the_pty`,\n 171│  `loopback_self_dial_is_refused...`). `traceable-reqs check` EXIT=0.\n*172│- **Carried to W1.5**: B1 broker loopback-conn + local attach int (+ \"both transports → one pump\" assertion).\n 173│- **Carried to pre-M12-gate**: REQ-HOST-RUN-2 project cwd (additive SpawnReq.cwd).\n## M12-W1.5-PLAN.md\n  3│> JIT plan (todlando, 2026-06-14). doyle-scoped after W1 PASS. Goal: LOCAL `spt rc <id>`\n *4│> attach rides the BYTE-IDENTICAL `serve_attach` pump as cross-node — because self-dial is\n  5│> impossible (iroh: \"Connecting to ourself is not supported\", pinned by\n  6│> `loopback_self_dial_is_refused_local_uses_fallback_transport`). doyle ruling = **B1**: an\n  7│> in-process broker loopback connection, NOT B2 local-direct (which would reintroduce a\n   │...\n 10│## The invariant (doyle, binding)\n*11│ONE `serve_attach` pump. Transport is swappable UNDER the stream. Cross-node = QUIC conn;\n 12│local = broker loopback conn. Both surface as broker net-stream events (`NetStreamData` /\n*13│`net_stream_subscribe` / `net_stream_send`) so `serve_attach` (target) + the `rc::pump`\n*14│(operator) are unchanged. The W1.5 int test MUST assert both transports hit the same pump.\n 15│\n 16│## What already exists (W1)\n*17│- Operator pump: `spt/src/rc.rs` `run_attach` + `pump` (transport-invariant — reads\n 18│  `NetStreamData`, writes via `send_attach_input`). Currently codes the now-REFUSED self-dial\n*19│  (`brain.net_dial(net_status().addr)`) — **this is the one line W1.5 swaps** to a loopback-dial.\n 20│- Target serve: `spt-daemon/src/attach.rs serve_attach`, auto-dispatched at\n 21│  `dispatch.rs:335-360 StreamFamily::Attach` (resolves session_id→endpoint via `brain.sessions()`).\n*22│- Cross-node conn: `brain.net_dial(addr,op) -> NetDialed{conn_id}` (brain.rs:800) →\n 23│  `NetHost::dial` (nethost.rs:615) → iroh connect → registers in `NetShared::conns`.\n 24│\n 25│## B1 design (the loopback conn)\n   │...\n 29│vice-versa. Local `spt rc`: loopback-dial → `conn_id` → `request_attach(conn_id, session_id)`\n*30│→ subscribe → pump — identical to cross-node from `request_attach` up.\n 31│\n 32│### Investigation TODOs (read before coding — NOT yet done)\n 33│1. **`spt-daemon/src/broker.rs`**: the conn table + stream table + how `dispatch_*` routes an\n   │...\n 54│- **T1.5.3** Swap `rc.rs` conn-acquisition: local `run_attach` loopback-dials instead of\n*55│  `net_dial(own_addr)`. (One seam; pump unchanged.)\n*56│- **T1.5.4** Int test `local_attach_via_loopback_conn_rides_the_same_pump`: spawn a session,\n 57│  loopback-dial, request_attach, drive input, render echo, detach→session outlives. PLUS the\n*58│  **one-pump assertion**: both the cross-node int and this local int exercise the same\n*59│  `serve_attach`+pump path (assert by construction / shared helper, per doyle).\n 60│- **T1.5.5** Activate REQ-RC-1 local int evidence (int already active from W1 cross-node face;\n 61│  add the `[int->REQ-RC-1]` tag on the local test). `traceable-reqs check` EXIT=0.\n 62│\n 63│## Gate (doyle)\n*64│Local `spt rc` attaches a broker-held PTY via the loopback conn over the byte-identical pump;\n*65│both transports proven to hit one pump; full suite + clippy -D warnings + traceable EXIT=0.\n 66│Then **REQ-HOST-RUN-2** (project cwd via additive `SpawnReq.cwd`) before the M12 gate.\n 67│\n 68│## Crystallized design (2026-06-14, post-investigation — doyle GO, all 3 Qs answered)\n   │...\n 70│`same-node short-circuit` already Allows (access.rs:89, documented access.rs:26-27) — NO access\n*71│change. (2) explicit new frame KIND `net-dial-loopback` (NOT sentinel addr). (3) one-pump =\n*72│by-construction via a SHARED serve_attach+pump test helper both cross-node + local int call.\n 73│\n 74│**Transport seam = `tokio::io::duplex(CAP)`** — one full-duplex pair wires an entire operator↔peer\n*75│stream. Split each end (`tokio::io::split`); feed the SAME `StreamLog`/subscribe/send_stream/read-pump\n*76│machinery — only the LEAF send/recv halves become enums. That IS the one-pump invariant by construction.\n 77│\n 78│- **nethost.rs**: `ConnEntry.conn` → `enum ConnKind { Quic(Connection), Loopback }`\n 79│  (`conn_remote_addr_json` Loopback→Null). `StreamEntry.send` → `enum SendHalf { Quic(SendStream),\n 80│  Loopback(WriteHalf<DuplexStream>) }` (async `write_all` + `finish`= quinn `finish()` / loopback\n*81│  `shutdown()`). Read pump takes `enum RecvHalf { Quic(RecvStream), Loopback(ReadHalf<DuplexStream>) }`\n 82│  — Quic `read_chunk`, Loopback `AsyncReadExt::read`. `register_stream` accepts SendHalf+RecvHalf.\n 83│  - `dial_loopback(&self)->(u64,String)`: SINGLETON (`loopback_conn: Mutex<Option<u64>>`), mints/reuses\n 84│    a `ConnKind::Loopback` row, `remote_id_hex = self.local_id.to_hex()`, NO closed-watcher/accept-loop.\n   │...\n 95│  thread→input→render_until→detach→assert(Detached + session outlives). Cross-node + new local\n*96│  `local_attach_via_loopback_conn_rides_the_same_pump` BOTH call it. Tag `[int->REQ-RC-1]`.\n 97│\n 98│## Notes\n 99│- rc.rs today codes the refused self-dial → LOCAL `spt rc` errors at runtime until T1.5.3\n## M12-W2-PLAN.md\n  46│- **Deps:** `crossterm = \"0.28\"` already in `spt/Cargo.toml` (landed W1 for the rc raw-mode\n *47│  pump, explicitly noted \"the same crate W2's ratatui picker builds on\"). **ratatui +\n  48│  nucleo-matcher are NEW deps** to add this wave.\n *49│- **Reuse for terminal actions:** `cmd_fork` (Fork), `cmd_rest`/wake (resting), rc pump\n  50│  (attach/view) all exist as callable CLI fns.\n  51│\n  52│## Investigation TODOs (read before coding — NOT yet done; gated on doyle scope ruling)\n    │...\n  80│   own hazard surface (PTY ownership, KH zone) better scoped as its own slice. Confirm.\n *81│2. **Project history.** Is there an authoritative per-endpoint project list to read, or does\n  82│   W2 derive it from p-<project> context branches? If neither is cheap, propose rendering\n  83│   the description pane's history as \"best-effort from contextstore, empty if none\" and not\n  84│   blocking the wave on a new history store. Your call on the source.\n    │...\n 197│  `resource_projection(reg, hidden_fn)` (`endpoint_id, node, status, resources`);\n*198│  `VisibilityStore` + `SubnetStore`. (Pick-existing spine + status.)\n 199│- `spt_store::info::read_info(perch).resources` (endpoint description);\n 200│  `perch::resolve_perch_path(id, ParentHint::Infer)` → `sessions::last_k(perch, k)` (resume).\n 201│- `rc::run_attach(id, view)` (attach/view); `cmd_endpoint_run` (start); `cmd_fork` (Fork).\n    │...\n 205│**No second bringup path** — every terminal action routes through `cmd_endpoint_run` /\n*206│existing CLI fns (`cmd_fork`, wake, rc pump). One bringup core, same discipline as W1.5's\n*207│one-pump.\n 208│\n 209│## Notes\n 210│- The picker is a pure front-end: it MUST NOT introduce a second bringup path — every\n 211│  terminal action routes through `cmd_endpoint_run` / the existing CLI fns. One bringup core,\n*212│  same invariant discipline as W1.5's one-pump.\n 213│- TUI testing: ratatui renders to a `Buffer` (testable without a real terminal) — assert the\n 214│  rendered buffer for screen-state unit tests; the live key loop is the manual-verify leg.\n 215│- ADR-0001 territory only if any wire/registry format changes (Q1 attach-presence op would\n## M12-W2-RULING.md\n 59│## Binding invariant (gate condition)\n*60│**No second bringup path.** Every terminal action routes through `cmd_endpoint_run` / existing CLI fns (`cmd_fork`, wake, rc pump). One bringup core — same discipline as W1.5's one-pump. I gate on this.\n 61│\n 62│## Gate posture\n 63│Build uncommitted on m12-w1-bringup-rc. I gate (reproduce traceable + read the load-bearing state-model/buffer tests + confirm single-bringup-path) before any commit. Suite + clippy -D + traceable EXIT=0. Operator calls the commit.\n## M12-W2.5-PLAN.md\n  16│- **rc.rs** `run_attach(endpoint_id, view: bool)` (rc.rs:168) ALREADY gates the stdin reader on\n *17│  `view` (viewer = no input). Detach/exit notices render post-pump (rc.rs:220-231) — the displaced\n  18│  notice slots in there. rc sends **no resize** today (geometry static).\n  19│- **broker** `OutputLog.subscriber: Option<SharedSend>` (broker.rs:87), `SharedSend =\n  20│  Arc<Mutex<SendHalf>>` (a brain↔broker IPC local-socket write half, one per attach connection).\n    │...\n  57│- `Displaced { by: String }` — target→operator, the **loud kick notice** to the displaced\n *58│  controller (its rc renders it, then the stream closes → pump ends).\n  59│All are additive enum variants / a defaulted field; the decoder's skip-unknown-kind contract keeps\n  60│N-1 peers degrading, not dying. **Confirm the four shapes.**\n  61│\n    │...\n  80│**Fully DETACH the displaced controller** (not demote-to-viewer): broker sends `Displaced{by}` →\n *81│the old controller's rc renders the loud notice → its stream closes → its pump ends with a\n  82│displaced-exit. Matches CONTEXT's \"displaces\"; auto-demoting to a silent viewer would surprise.\n  83│The displaced user can re-attach as a viewer if they choose. *Lean: detach + loud notice. Confirm.*\n  84│\n    │...\n 101│  viewer renders `Size`+letterbox (clip+indicator); both render the `Displaced{by}` loud notice\n*102│  post-pump. `kick`/`--take` surface on the `rc` command.\n 103│- **T5 picker** (W2 integration): blue ■ tri-state from `driven_by` (+ `viewer_count`); confirm\n 104│  options **View** (viewer attach) + **Kick <node> and attach** (`--take`) — both via the EXISTING\n 105│  attach dispatch (single-bringup-path invariant holds; role is a parameter).\n    │...\n 241│  initial-size-on-attach + window-change Resize via `crossterm::terminal::size()` polling each\n*242│  pump slice (cleaner than SIGWINCH/event-loop vs the raw-stdin reader); `Displaced{by}` → loud\n 243│  parting line; viewer `Size` → one-line size indicator (true clip/pad letterbox deferred — rc is a\n*244│  byte pump, needs a grid model). `send_attach_resize` helper added.\n 245│- **T5 DONE (picker)** — `EndpointRow` gains `driven_by`/`viewer_count` (local rows from info.json;\n*246│  subnet rows None); `ConfirmOption::Kick`; status-conditional `confirm_options` (CONTROLLED online\n 247│  → View+Kick ONLY, no plain Attach; else Attach=Control+full set); `Outcome::Attach{id,intent}`\n 248│  (View→Viewer, Attach→Control, Kick→Take — single-bringup-path, intent is a parameter); confirm\n 249│  pane pins `controlled by <node> (+N viewing)`.\n## M12-W5-PLAN.md\n *1│# M12 Wave 5 — `spt whoami` → endpoint-list alias — JIT plan\n  2│\n  3│> todlando 2026-06-14, after W4 GATE PASS + commit @b7cda13. W5 is the last\n  4│> coding wave before W2.5 (attach/kick, own slice) and the full M12 gate.\n   │...\n  8│## Scope (M12-PLAN.md Wave 5)\n *9│- **T5.1** `spt whoami` → **alias for `spt endpoint list`**; the **SELF-pin** output\n 10│  additionally includes the Self endpoint's **`endpoint description`** (its authored\n 11│  blurb). Keep `whoami` in the agent hot-path (top-level verb, unchanged parse).\n 12│\n   │...\n 16│  the source (env-based: `$OWL_SESSION_ID` / `$SPT_AGENT_ID`), NOT parsed from output.\n*17│- **`cmd_endpoint_list(local, subnet, detail)` (cli.rs:1492)** already does the **SELF\n 18│  pin**: when `detect_self_id()` resolves, it prints `SELF: {id}  {state} ready=… alive=…`\n 19│  first, then `SUBNET <name>` groups with endpoint rows. `--local` short-circuits to\n*20│  `cmd_list_local`. So \"alias for endpoint list\" is mostly a re-dispatch.\n 21│- **Self endpoint description** is reachable: `spt_store::info::read_info(&perch_path)\n 22│  .resources` where `perch_path = perch::resolve_perch_path(&id, ParentHint::Infer)` —\n 23│  exactly what `cmd_description` (cli.rs:1352, `DescriptionCmd::Show`) reads. `None` =\n   │...\n 31│## The DELTA\n*32│1. Re-dispatch `cmd_whoami` to the endpoint-list view (SELF pinned).\n*33│2. Augment the **SELF pin line** (in whoami, and arguably in `endpoint list` too) with the\n 34│   Self endpoint's authored description.\n 35│3. Reconcile the `how-to: ready` doc + register the REQ.\n 36│\n 37│## Open design question for doyle\n*38│**Q1 — `whoami` output shape vs the bare-id contract.** \"Alias for `endpoint list`\"\n 39│(rich, multi-line: SELF pin + every subnet's endpoint rows) collides with the documented\n 40│hot-path contract `id=$(spt whoami)` (bare id on stdout). Three readings:\n*41│- **(A) Full alias** — whoami emits the entire `endpoint list` view, SELF line gains the\n 42│  description. Cleanest literal read of the plan; **breaks** `$(spt whoami)` bare-id capture\n*43│  (agents/onboarding doc must change to a new id source, e.g. `endpoint list --local` or a\n 44│  `--id` flag).\n 45│- **(B) SELF-card only** *(my lean)* — whoami emits just the **SELF pin block** enriched\n 46│  with the description (`SELF: {id}  {state}` + a description line), NOT the full subnet\n*47│  roster. Honors \"alias for endpoint list\" (it's the SELF-pin slice of that view) AND\n 48│  \"keep in the agent hot-path\" (tight identity card); the **id stays the first token** so a\n*49│  narrowed capture still works, and `spt endpoint list` remains the full roster. Smallest\n 50│  blast radius.\n 51│- **(C) Full alias + preserved bare-id** — full list, but keep an explicit bare-id path\n*52│  (`spt whoami --id` or `spt endpoint list --self-id`) so scripts migrate to it. More\n 53│  surface than B for the same end.\n 54│\n*55│**Recommend B** (SELF-card: id + state + description; full roster stays `endpoint list`),\n*56│unless you read the plan's \"alias for endpoint list\" as strictly A. Either way the **id\n 57│remains the first stdout token** so the hot-path capture degrades gracefully, and I'll\n 58│reconcile the `how-to` text to match the chosen shape.\n 59│\n   │...\n 67│- **T5.1a** factor the SELF-pin render (id + state + description) into a small helper used\n*68│  by `cmd_whoami` and (option A/C) `cmd_endpoint_list`; read the description via\n 69│  `info::read_info`. Pure-ish render unit-tested over a fixture roster row + blurb.\n 70│- **T5.1b** re-dispatch `cmd_whoami` to the chosen shape; reconcile the `how-to: ready`\n 71│  doc line + CHANGELOG.\n   │...\n 78│graceful-degrade, no `--id` flag, no how-to migration. **Drop** the standalone bare-id\n*79│`cmd_whoami`; `spt whoami` dispatches to `cmd_endpoint_list` (full output: SELF pin +\n*80│roster). The **one real code change**: the `endpoint list` SELF pin gains the Self endpoint\n 81│description (`info::read_info(...).resources`). Q2 = NEW **REQ-WHOAMI-1** (doc+impl+unit, no\n*82│int); unit = rendered SELF line includes the description; whoami dispatch == endpoint-list\n 83│dispatch.\n 84│\n 85│## BUILT — sweep GREEN, ready for doyle gate (2026-06-14, todlando)\n   │...\n 89│  inline after the state when present, omitted (no dangling separator) when absent/blank.\n*90│- **cmd_endpoint_list** SELF pin now reads `info::read_info(resolve_perch_path(self_id,\n 91│  Infer)).resources` and renders via `render_self_pin` — the one behavior change (shared by\n*92│  `endpoint list` AND the `whoami` alias).\n## M2a-PLAN.md\n 116│|---|------|--------|----------------|------------|\n*117│| T3 | `spt api` dispatch group: `--manifest`/`--adapter` resolution, `adapter_name` on every call, exit codes; **local-api-auth** (each mutation authenticated to an endpoint/session) | adapt `cli.rs`; CONTEXT \"Inbound api surface\" | REQ-API-1; REQ-HAZARD-LOCAL-API-AUTH | `spt api --help` lists the surface; a call without a resolvable endpoint/auth is refused non-zero |\n 118│| T4 | Harness-hosted startup: `api seed` (interim seed-**file** by `parent_pid`) + `api listen <id>` (consume seed, validate `session_id` vs pid-recycle, bind perch skeleton→live, relay loop) + `api bind` (post-spawn) | clean-room; CONTEXT \"Startup flows\" | REQ-START-1, REQ-START-2, REQ-SEAM-POSTSPAWN, REQ-API-2; REQ-HAZARD-WINDOWS-PID-RECYCLE | seed→listen binds a live perch reachable by id; a stale/mismatched seed never binds; listen relays a delivered message |\n 119│| T5 | Delivery + activity: `api state <busy\\|idle>` (+ echo-gate sentinel, `--no-gate`, `api echo-gate set/clear`) + `api poll [--include-deferred]` (hook delivery drain) + inject-method selection (hook/relay; PTY=M3) | sister sentinels + M1 spool | REQ-SEAM-ACTIVITY, REQ-SEAM-INJECT, REQ-API-2 | `api state idle` writes the perch sentinels; `api poll` drains non-deferred (deferred only with the flag) |\n 120│| T6 | Worker perches: `api worker-start`/`worker-stop` (nested create/teardown under parent) + `api worker-poll` + **cascade-wipe guard** (no hard-delete of a parent hosting non-empty children) | sister subagent hooks (clean-room) | REQ-API-2; REQ-HAZARD-CASCADE-WIPE-GUARD | a worker perch nests under its parent + is addressable; stopping a parent with live workers is refused/soft |\n## M4-D4-PLAN.md\n 38│  `merge_instance` seam — a minimal registry-update message over `SPT_NET_ALPN` carrying\n*39│  `(subnet, endpoint_id, Instance{node,status,epoch})`, authored with `EpochSource::\n 40│  next_epoch()`. The merge rule is already hermetically tested; D4d only wires transport →\n 41│  merge. Join/advertise paths go through D3d/D3e gates (`advertise_if_visible`).\n 42│- **PresenceChannel = seam, not feature** (REQ-EP-4): a broker-side endpoint registration\n## M4-D5-PLAN.md\n 14│attach to a remote instance works as a viewport (compute + files stay remote); the driven\n*15│agent can detect it is network-driven and from which node; an endpoint with a whitelist\n 16│refuses unsolicited inbound from a non-listed origin node. Reqs: REQ-NET-1 (WAN-msg\n 17│aspects), REQ-INST-8, REQ-REACH-1, REQ-SEC-1.\n 18│\n   │...\n 35│- **Remote attach = OutputLog over the wire.** The broker-side `OutputLog` (seq'd ring,\n*36│  cursor resume) is already the gapless surface; D5b pumps its chunks over a broker QUIC\n 37│  stream (NDJSON control + base64 chunk records), input flows back over the same stream\n 38│  into the existing `KIND_INPUT` path. Cursor-resume on reattach gives brain-restart\n 39│  survival on both ends for free. Viewport only — no file or exec surface (REQ-REACH-2\n   │...\n 70│2. **D5b — remote terminal attach** (REQ-INST-8). Attach-request record over a broker\n*71│   stream → target daemon subscribes its own `OutputLog` from cursor, pumps chunk records\n 72│   back; input records → `KIND_INPUT`. `spt attach <id>@<node>` CLI leg. Loopback test:\n 73│   drive a real PTY session cross-daemon; kill/restart a brain mid-attach → cursor resume,\n 74│   no gap, no dup.\n   │...\n 79│   documented as the D6-consumed shape — detection + transfer only here.\n*80│4. **D5d — endpoint access whitelist** (REQ-SEC-1, ADR-0009). `AccessStore` (+ inert\n 81│   `users` field); reply-vs-new classification (track recent outbound per endpoint for\n 82│   `__REPLY_TO__` correlation); `access_check` enforces origin-node gate; minimal\n 83│   `spt access allow|revoke|list` surface. Tests: default-empty open; whitelisted node\n## M4-D7-PLAN.md\n 33│  skipped); chunks carry absolute byte `offset` (positionally idempotent);\n*34│  sends fire-and-forget (`op_id: None` — a journaled send starves a pump, D5b);\n 35│  records carry **no origin field** — the gate's subject is the handshake-proven\n 36│  `remote_id_hex` from the broker's stream table (KNOWN-HAZARDS 7.5).\n 37│- **Pull-based, offer-then-fetch (the cheap pre-gate).** Requester sends\n   │...\n 83│     — trust-gate the origin, answer Query from the staged release (Offer or\n*84│     UpToDate), pump chunks on Fetch, Done; Detached/Failed outcomes mirroring\n 85│     `SyncServeOutcome`.\n 86│     `request_update(brain, conn_id, open_op, policy, running, cache, scratch)\n 87│     -> io::Result<UpdatePullOutcome>` — Query → gate the Offer's metadata\n## M4-D8-PLAN.md\n  14│the REQ-UPD-4 consent prompt are now notif producers (one primitive). Wake\n *15│edge, production feed-pump loop, and `int` legs ride D9.\n  16│\n  17│## Goal\n  18│\n    │...\n 105│  sanitize boundary is untouched; only the delivery surface behind it moves).\n*106│- **When feeds pump is NOT this task.** The production replication trigger\n 107│  loop (when a node emits/receives notif feeds) rides D9 with every other\n 108│  loop. D8 ships the drivers: emit-side record authoring, apply-side\n 109│  merge, E2E over loopback broker streams — same deferral as D5/D6/D7.\n    │...\n 206│\n*207│- **Production trigger loops** — when notif feeds pump between nodes, and the\n 208│  wake-edge (state→active) resurface hook: D9, with the D5/D6/D7/D7.5 loops.\n 209│- **Cross-user generalization** — per-(subnet, user) spool keys, targeted\n 210│  `spt notify`: the ADR-0007 forward seam, M5; the `from` field ships ready.\n## M4-D9-PLAN.md\n  17│  the roles together). Ladder proven green locally first (two processes over\n *18│  127.0.0.1; the smoke caught a real test-op/pump-op journal collision).\n  19│- D9-6-2 `a86371c` — the rig run: pair (real cross-host SPAKE2/TOTP, trust pinned\n  20│  both sides + seed transferred) → register (rows replicated both directions) →\n  21│  WAN message (spooled at B) → remote-drive (file fetch + attach echo + file push)\n    │...\n  24│  replicated to A). HFENDULEAM ↔ gravity-linux over tailscale; whole ladder ~8 s\n *25│  once both sides up; no firewall rule needed (the pump keeps the reverse UDP\n  26│  4-tuple warm). Evidence in the runbook appendix; `docs/FLAKE-LEDGER.md` made\n  27│  durable en route (digest flake second occurrence, rerun passed).\n  28│- int stages activated post-proof: REQ-NET-1, REQ-INST-5, REQ-INST-7, REQ-INST-8,\n    │...\n  66│  `resurface_at_boundary` (the D8 deferral closed) + the freshness-pull marker the\n *67│  peer pump consumes (forces one sync round NOW).\n  68│- D9-2-3 `56a98db` — production feeds: attach arm (Request=Wake, viewport\n  69│  end=Detach), registry arm attention flips (`apply_feed_flips` — only OBSERVED\n  70│  transitions-to-Active on peer nodes; never restart re-learns or periodic\n    │...\n  82│- D9-1-2 `822d3ce` — RegistryHost (gated inbound merge + owlery advertisement + atomic\n *83│  snapshots) + peer pump (registry/notif push, anti-entropy sync pull with\n  84│  registry-derived bootstrap refs) + `daemon.json` knobs + `addr_for_node_hex`.\n  85│- D9-1-3 `b15cf2c` — production VerifyPolicy (`release-keys.json`, fail-closed) +\n *86│  update pump leg (stage + consent notif, REQ-UPD-4 gated default).\n  87│- D9-1-4 `af7f394` — `spt send` WAN leg (snapshot-resolved, refuse-and-qualify;\n  88│  deferred stays local-only, documented seam).\n  89│- D9-1-5 `0dd85d5` — attach/xfer dispatch arms: `SpawnReq.endpoint` label + broker\n    │...\n  91│  names the gating endpoint (rule set wire-named, origin handshake-proven).\n *92│Notes for later slices: the in-pump Psyche reconcile turn has no daemon-hosted\n  93│per-agent runtime to ride (the 7.4 fan-out seam) — conflicts surface loud via\n *94│`PumpHooks::on_pull`, the turn stays at activation paths; binary APPLY orchestration\n *95│after a staged+consented update remains the M3c machinery's seam (not pump scope).\n  96│\n  97│**Drafted** 2026-06-04 at D9 start. Design forks resolved with user 2026-06-04:\n  98│(1) **two-host posture** = env-gated int tests + manual runbook on the real rig — no\n    │...\n 119│|------|-------------|----------|\n*120│| Production trigger loops (sync notify/anti-entropy, update check, notif feed pump, post-sync reconcile election) | D5/D6/D7/D8 | D9-1 |\n 121│| Production `VerifyPolicy` assembly (trusted-key store, channel pin, running version) | D7 | D9-1 |\n 122│| `spt send` WAN leg CLI wiring | D5 | D9-1 |\n 123│| Wake-edge (state→active) resurface hook | D8 | D9-2 |\n    │...\n 141│  stoppable like `run_pulse_loop`.\n*142│- **Pump loops journal with `None`** (gotcha #1) and snapshot stream tables before\n 143│  opening requester streams (gotcha #9) — inherited test discipline, now production\n 144│  discipline.\n 145│- **KH 7.4 activates when it binds:** transition echo communes (D9-2) are per-agent\n    │...\n 167│1. **D9-1 — production trigger loops + VerifyPolicy assembly + `spt send` WAN CLI.**\n*168│   - `spt-daemon/src/peerloop.rs` (new): the per-subnet peer pump host. Holds/refreshes\n 169│     trusted-peer connections via `NetHost` (registry + trust-store sourced), then runs\n*170│     the pumps as scheduled thin calls:\n 171│     a. **sync** — context-write notify → peers pull; periodic anti-entropy\n 172│        (`select_refs` + `request_sync`); dormant→active freshness pull *seam* (the\n 173│        trigger arrives with D9-2's wake edge).\n    │...\n 176│        (assembled here, the D7 deferral). Serve side already gated.\n*177│     c. **notif** — feed pump: local insert/dismiss → emit to subnet member conns;\n 178│        inbound apply (D8-2 drivers).\n*179│     d. **post-sync reconcile election** — `reconcile_after_sync` at pump completion\n*180│        (ADR-0013 wiring already exists; the pump calls it).\n*181│   - `DaemonConfig` knobs: `sync_period`, `update_check_period`, `notif_pump_period`\n 182│     (+ per-loop enable flags). Defaults conservative; document in MANIFEST/STORAGE\n 183│     as applicable.\n 184│   - `spt send` WAN leg: the CLI grows the off-node arm transparently (D5's deferral —\n    │...\n 187│     brokers — a context write on A appears on B with no manual driver call; an\n*188│     undelivered notif pumps over; a staged newer release self-heals B. Gotchas #1/#9.\n 189│   - Evidence: `[impl->REQ-INST-5]`/`[impl->REQ-UPD-1]`/`[impl->REQ-NOTIF-1]` on the\n*190│     respective pump arms (production wiring of already-activated reqs — tags on the\n 191│     real loop code, stages unchanged).\n 192│\n 193│2. **D9-2 — resting-state model + transition echo + wake-edge resurface.**\n## M4-PLAN.md\n 160│  fresh-with-preload resume; remote goes dormant, no teardown). · **REQ-REACH-1**\n*161│- **D5d** Endpoint access control (ADR-0009 node-tier): per-endpoint whitelist, origin-node\n 162│  gate, stateful-firewall (reply/outbound exempt), outer gate before grants. · **REQ-SEC-1**\n 163│- **Reqs:** REQ-NET-1, REQ-INST-8, REQ-REACH-1, REQ-SEC-1. · **Acceptance:** drive an agent\n 164│  on machine A from machine B; off-node access denied without a grant.\n    │...\n 191│  opt-in seam.\n*192│- **D6c** Subnet-exclusive sync honored (hidden ⟹ not synced; per-endpoint membership list).\n 193│- **Reqs:** REQ-NET-3, REQ-INST-2, REQ-INST-5; `REQ-HAZARD-DIRECT-WRITE-PRECEDENCE` (extend\n 194│  coverage to multi-writer/node-id). · **Acceptance:** the mind follows the user across two\n 195│  machines (two-tier); concurrent-write conflict surfaced, not silently dropped.\n## M5-D3-PLAN.md\n 88│- **Scheduling (KH 7.4):** every shell instance's host loop runs on its **own thread**\n*89│  off the daemon's control loop (same isolation stance as the per-peer pumps); one hung\n 90│  shell binary cannot stall another agent's tick or the broker. Boot-time stale\n 91│  `index.lock` sweep (KH 1.3) lands in daemon boot for the git-touching runtimes it\n 92│  hosts (BranchStore gitrun roots).\n\n## .github/workflows/\n### ci.yml\n 41│      # Concurrent-attach per-IPC-call READ-deadline headroom (the result-gating\n*42│      # cold_start_pump brains: a_journaled / p0_paste attachers, drivers, viewer,\n 43│      # keystroke op + the W2 helpers). DISTINCT from the watchdog above: the Duration\n*44│      # passed to cold_start_pump is io_timeout (call_deadline = now + io_timeout) — NOT\n 45│      # a connect bound (the socket connect is unbounded). request_attach reads the\n 46│      # journaled net_open_stream ack under that deadline; on the shared self-hosted\n 47│      # boxes co-tenant scheduler starvation pushes that SERVICED ack past the LOCAL-tight","truncation":{"content":"# spt-core/\n## CHANGELOG.md\n 138|\n*139|- `spt endpoint list --json` could report a locally-hosted endpoint that was actually\n 140|  live as suspended or offline, even while the human-readable listing correctly showed it\n 141|  online — which could cause an adapter to needlessly suspend itself. The JSON listing now\n 142|  reflects the same local liveness truth the interactive view uses. Re-binding an endpoint\n...\n 167|  running a version that doesn't answer the periodic update check). That one peer\n*168|  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\n*169|  members but showed an empty live-node list and warned that the peer pump had\n 170|  stalled. An unresponsive peer is now dropped and retried on its own instead of\n 171|  holding up the round, so the node keeps converging and peers reappear.\n 172|\n...\n 241|\n*242|A worker-truth release: the background \"worker\" endpoints an agent spawns now carry stable minted ids, stay out of your endpoint list and the run picker, get cleaned up when they leak, and inherit their parent's account; and harness adapters are validated more strictly when you add or update them. **Breaking for adapter authors: the worker control verbs changed shape — see Changed.**\n 243|\n 244|### Added\n 245|\n...\n 250|- **Breaking (adapter authors): worker endpoints now use core-minted ids and token-free, session-symmetric control verbs.** A spawned worker is assigned a stable `<parent>-w<N>` id by the core, and the verbs that drive a worker now key on its session id with no separate token. Adapters that spawn or control workers must migrate to the new verb shape; the old form no longer works.\n*251|- **`spt endpoint list` hides worker endpoints by default.** Worker endpoints no longer clutter the default listing; pass `--workers` to include them.\n*252|- **The run picker no longer offers worker or companion (psyche) endpoints.** These aren't independently startable, so the picker lists only endpoints you can actually launch.\n 253|\n 254|### Fixed\n 255|\n...\n 265|- **Wake or suspend an endpoint on another node by its bare id.** `spt endpoint wake <id>` and `spt endpoint suspend <id>` (and the other remote verbs) now find the right endpoint across the subnets your node belongs to without an explicit `--subnet`, and report a clear host error when the target can't be woken instead of failing quietly.\n*266|- **The picker can wake a suspended remote endpoint.** A suspended row that lives on another node now offers Wake-now directly from the pick list.\n*267|- **`x` purges an endpoint from the pick list.** Highlight a row and press `x` to remove that endpoint, with an in-list confirm before it happens.\n 268|- **Backspace steps back one screen in the picker.** Backspace now backs out one picker screen, matching Esc.\n 269|- **`spt endpoint run --id <id>` reuses that endpoint's own adapter.** Running an existing endpoint by id reuses the harness adapter it was created with instead of dropping you into the choose-a-new-adapter picker.\n 270|\n...\n 280|- **A cold attach now repaints the program's window title.** Attaching to a running session restores the child program's terminal window/tab title instead of leaving it blank.\n*281|- **Ending one session no longer stops messages to another endpoint that is still listening.** A soft session-end keeps a still-live listener's delivery address, so its messages keep arriving.\n 282|- **A message sent from inside an spt-hosted session is attributed to that endpoint.** A send from within a hosted session is now stamped as coming from that endpoint rather than the bare command-line identity.\n 283|- **An endpoint that exists but has never run now reads as suspended.** Its status is derived consistently instead of showing an in-between state.\n 284|- **A stale \"controlled\" marker left by a gone controller now clears itself.** When the process that held an endpoint is gone, the controlled/viewer marking heals on its own.\n...\n 286|- **`spt daemon stop` no longer hangs when the daemon is busy.** Shutdown is now bounded and drains in-flight connections, so stop returns promptly instead of parking under load.\n*287|- **`spt endpoint list` (and `spt whoami`) now flag an endpoint whose input translation has failed.** The endpoint's line shows `input-translation: FAILED (<reason>)` and what it means for you — typed input may not reach the session — instead of the fault being invisible.\n 288|- **A remote wake or screen-open no longer spuriously fails with \"op already applied — retry with a fresh op_id\".** Internal operation ids raised from different sources could collide; they are now kept distinct, and a stale collision retries once on its own.\n*289|- **Acting on an endpoint that lives on another node now says so in plain language.** A remote operation against an endpoint hosted elsewhere reports `this endpoint is not hosted on this node` and points you at `spt endpoint list` to find where it lives, instead of an internal-sounding failure.\n 290|\n 291|## [0.25.0] - 2026-07-04\n 292|\n...\n 322|\n*323|- **The picker's confirm panel now shows the readable project name.** The one remaining place that still displayed a raw project slug now shows the friendly name, matching the rest of the picker and `spt endpoint list`.\n 324|- **The picker's `h` and `s` keys now work only where they can launch, and the footer only hints them there.** Headless-start (`h`) and shortcut (`s`) previously fired from rows that could not launch anything, and the footer advertised them where they were dead; both are now live only on a highlighted row that can actually start the endpoint, and the footer hint matches.\n 325|- **\"Change harness adapter\" now only changes the adapter.** Choosing it no longer re-prompts for an id and home directory and then starts a session — it picks a new adapter, applies it to the endpoint, and returns to the confirm panel.\n 326|- **An endpoint's adapter profile is no longer dropped on reconnect.** An endpoint created with an adapter profile (e.g. `claude-spt:ccs`) keeps that profile; re-binding no longer strips it back to the bare adapter.\n...\n 336|\n*337|- **Projects now display a recognizable name.** Across the agent picker (history, the choose-project panel, resume titles) and the `spt endpoint list` project column, a project shows a readable name (e.g. `spt-core`) instead of a raw slug; two projects with the same name are told apart by their folder.\n*338|- **`spt endpoint list` output refreshed.** The shared-subnet and total lines are dimmed, the status glyph now sits beside the endpoint name, and the status word is colored.\n 339|- **The agent picker no longer offers \"View\" for an offline endpoint.** An offline endpoint has no live session to view, so only Start is offered.\n 340|- **`spt daemon status` now warns about a stale at-logon task registration.** If the auto-start task was registered by an older installer in an unsafe form, `spt daemon status` flags it with guidance to re-register via the current installer; the daemon self-protects either way.\n 341|- **Piping `spt daemon run` to another command now discards its output by design.** A piped launch is treated as a detached one and its console output is dropped; to capture the daemon's output, redirect it to a file (e.g. `spt daemon run 2>daemon.log`) instead.\n...\n 344|\n*345|- **Colored CLI output on Windows consoles no longer garbles.** On a raw Windows console, `spt endpoint list` and `--help` no longer print raw escape sequences; when the console cannot render color, the output is cleanly stripped instead.\n 346|- **Resume-from-history now labels each session with its own project.** Past sessions no longer all read as the newest project, and internal or host sessions no longer appear as unresumable rows.\n 347|- **The Start-now project chooser no longer lists the same project twice.**\n 348|- **A dead or offline endpoint no longer reads as \"controlled.\"** The controlled/viewer marking is cleared once the session is gone — including across a daemon restart — instead of lingering.\n...\n 357|\n*358|A picker-and-presence truth release: the endpoint picker and listing show real project, type, and control state — including for endpoints on other machines — and a few rough edges around piping and cross-node display are fixed.\n 359|\n 360|### Added\n 361|\n...\n 365|\n*366|- **`spt endpoint list` now shows a project column.** Each row reads id / project / type / status, so you can see at a glance which project an endpoint belongs to.\n 367|- **The endpoint picker got two UX fixes.** Starting an endpoint now opens a choose-project panel, and the resume view keeps the top endpoint details panel visible.\n 368|\n 369|### Fixed\n...\n 377|\n*378|A visibility + update-honesty release: the endpoint list is reorganized around machines, and `spt update apply` / `spt daemon status` are clearer about which version is actually running.\n 379|\n 380|### Added\n 381|\n*382|- **`spt endpoint list --show-all`.** Suspended (resting) endpoints are now hidden by default to cut clutter; `--show-all` reveals them. Each machine's total discloses how many were hidden (nothing silently vanishes), and a corrupt record always shows regardless.\n 383|- **`spt daemon status` now reports the running daemon's version.** It shows the version the running daemon was built from beside the installed version and flags a mismatch — so you can tell when an update is on disk but the daemon still needs a restart to fully load it. The `--json` output gains matching `broker_image` / `broker_stale` fields.\n 384|\n 385|### Changed\n 386|\n*387|- **`spt endpoint list` (and `spt whoami`) is now grouped by machine, not by subnet.** Your own node comes first, then each remote machine alphabetically — every endpoint appears once per machine (no more duplicate rows for a machine reachable through several subnets), with a per-machine total and the subnets it shares with you. The old `ENDPOINTS:` summary line (which counted a machine once per subnet) is removed.\n 388|- **`spt update apply` now tells you when a daemon restart is needed.** On a successful update it notes that daemon-coordinated features keep running the previous version until you restart the daemon, and points you at `spt daemon status` to confirm which version is live.\n## CONTEXT.md\n 29|**spt-daemon** (per-machine supervisor):\n*30|The single always-on, one-per-machine logical supervisor. Owns the PTYs for all hosted sessions, the node's network identity + WAN endpoint, the subnet registry, all spools, **all poll-listener logic, and all Psyche/pulse loops** — everything is consolidated here (no separate poll-listener or Psyche-wrapper processes; listeners already touch sessions directly under capsule/idle, and Psyche wrappers already invoke harness binaries directly, so they belong in the one supervisor). Collapses what the siste...\n 31|\n 32|Internally the logical daemon is split into two implementation layers for seamless self-update (see Self-update):\n 33|- **broker** (stable \"kernel\") — holds *only* the un-transferable, must-not-die resources: PTY master fds, the spawned harness child processes, and listening network sockets. Minimal, dumb, versioned local IPC. Almost never updates.\n...\n 121|\n*122|**post-spawn seam** — the just-launched binary calls an spt-core command on boot (via the adapter's SessionStart-equivalent hook) to bind itself. Needed because the harness's own session id usually isn't known until after the binary runs. Payload: the harness `session_id` (when binary-generated rather than spt-core-injected); the `parent_pid` (the stable session-binding anchor — see KNOWN-HAZARDS 2.1); an endpoint identity/type confirmation; optionally a local HTTP port the binary listens on (for HTT...\n 123|\n 124|**post-spawn is optional only under a strict commitment:** an adapter may forgo post-spawn *only* if it (a) injects the spt-core-generated session UUID at spawn AND (b) guarantees the launched-process pid IS the stable session-binding anchor (no wrapper-script / subprocess pid indirection). If either does not hold, post-spawn must fire to report `session_id` and/or `parent_pid`. UUID-injection alone suppresses only the `session_id` reporting, not the binding.\n 125|\n...\n 149|- **channel restriction** (*through what*) — **unrestricted** (any configured inject method) · **prefer-native** (the translation binary if one is running, else fall back to the standard methods) · **force-native** (the translation binary and nothing else — no fallback, no spool-to-another-method). Mutually exclusive; composes with the window. *\"Native\"* = the `[message-idle-translation-binary]` PTY channel.\n*150|- **persistence** (*how long it waits*) — **durable** (default; spooled until delivered or TTL) · **ephemeral** (dropped if it cannot deliver in its accepted window — at the moment the window opens with no live carrier, or at TTL, whichever is first). Ephemeral is the **only** path permitted to drop silently (the REQ-HAZARD-IDLE-SILENT-NONDELIVERY carve-out); every non-ephemeral path spools and reports non-delivery. <!-- v0.15.0 PARTIAL (W3): ephemeral evaporation covers the spt-hosted-binary no-car...\n 151|Window restricts *when* delivery is accepted, channel restricts *which method* carries it, persistence restricts *how long* it waits — they compose freely (e.g. `force-native` + `active-only` = the binary injects during the active window, never idle; `force-native` + `ephemeral` = binary-or-nothing).\n 152|\n 153|**message metadata (`json`)** — a sender may attach an opaque JSON metadata block (`--json-payload`), carried as a single attr-escaped `json=\"…\"` envelope attribute **alongside** (never replacing) the body. spt-core never interprets it — pure verbatim passthrough across every rail (spool / TCP / WAN / EVENT-PART), parsed only by the receiving adapter (its hooks and/or translation binary). Collision-proof by construction: the structured data lives **inside** the single `json` value, so it can never ...\n...\n 158|\n*159|**capability declaration** — which endpoint types a harness/node can host (a Pi node might host only Shells, never a LiveAgent). Static manifest list, consumed by the subnet registry so a node advertises its hostable types. Exact shape is design-open.\n 160|\n 161|**adapter-update seam** — file-pull or delegated-command (see Self-update). Locked.\n 162|\n...\n 242|\n*243|*Psyche-host health — harness-reachable failure signal (v0.8.1, REQ-HAZARD-LIVEHOST-BOOT-RACE):* a LiveAgent's `status=online` is daemon-authoritative liveness and **stays authoritative** — but it does not by itself prove the daemon hosted a Psyche. When the brain's live-host reconcile fails to spawn the Psyche (e.g. the adapter's psyche binary is absent from its install dir, or the net-less boot-race starves the host), that failure was previously **silent** — only an `eprintln!` on the brain's inv...\n 244|\n 245|**Summarizer**:\n 246|The ephemeral, cheap model that builds a **commune delta** from a Self's recent turns and feeds it *into* the **Psyche** as inbound context. A distinct actor from the Psyche — different (cheaper) model, fire-and-forget, **no perch** (not an endpoint type). It authors *commune* deltas only, **never** *reply*/*notify*.\n...\n 357|\n*358|**Not in the subnet registry.** Shell perches are private to the agent↔shell link, not a general messaging surface — they are nested under the owner (`perches/<endpoint_id>/shells/<adapter>-<n>/`) and not registry-advertised like agent endpoints. The perch `info.json` carries only `type=Shell`, `owner`, `adapter_name`, `status` (online|offline), and an optional `alias` — the capability set is resolved from the shell adapter manifest by `adapter_name`, not duplicated on the perch.\n 359|\n 360|**Shell-relevant commands:** agent/user surface — `spt shell spawn <shell_adapter> [--id]`, `shell list`, `shell relink <id>`, `shell teardown <id>`, `shell cmd <id> <op…>` (or ordinary `send` of a typed command payload), and **`spt endpoint shutdown`** (an agent gracefully shuts down *its own* endpoint → suspended; fires the transition echo-commune; cascades its persistent shells offline). Machinery `api` surface — `api bind` (type=Shell), `api poll` (relay delivery), `api emit --type <sensory_t...\n 361|\n...\n 388|<!-- [doc->REQ-RC-KEY-VT-TRANSLATE] -->\n*389|**rc keyboard input (Windows VT translation, v0.13.0 bug 2).** On **Windows** an interactive `spt rc` console reads crossterm **key events** and translates each to **standard xterm VT** (`translate_key_event`) — arrows / Home / End / PgUp/Dn / Insert / Delete / F-keys + modifiers all reach the harness as the universal terminal contract (**agnostic**, NOT win32-input-mode; the legacy console delivers those keys as events, not bytes, so the old byte-pump left them DEAD). **Unix passes through** (its raw-...\n 390|\n 391|**spt-hosted bringup picker (`spt endpoint run`)** (M12-W2):\n 392|<!-- [doc->REQ-RUN-PICKER] -->\n...\n 411|project history newest→oldest · `endpoint description`). The **confirm** layer offers\n*412|status-dependent options — Attach/Start/View (the rc pump / bringup) · Instantiate-locally\n 413|(remote) · Change-harness-adapter (offline) · Fork · **Resume-from-history** (offline+LOCAL\n 414|only — enumerates the per-endpoint session ledger, titles `<project> @ <ts> (…id5)`, resumes\n 415|that session id). **Invariant:** the picker is a pure front-end — every terminal action routes\n*416|through the one bringup core (`spt endpoint run` / the rc pump), never a second path. A single\n 417|action enum is the source of truth so a future tap-mode (phone PTY) layers on without\n 418|re-coupling to keybinds.\n 419|_Avoid_: a second bringup path; hard-coupling interaction to physical keybinds.\n...\n 471|An spt-hosted endpoint runs in a **daemon-owned PTY, decoupled from whatever terminal launched it**. Closing the\n*472|tab/window where `spt endpoint run` was invoked detaches only the `spt rc` attach pump — the endpoint keeps running under\n 473|the daemon and stays re-attachable via `spt rc <id>`. A view is a transient frontend over a daemon-owned session, never\n 474|the session's lifeline. *Implementation:* the daemon must never live inside the launching terminal's process grouping —\n 475|on Windows the cold-started daemon is launched **job-neutral**: a job-neutral creator (**WMI `Win32_Process.Create`**,\n...\n 487|**input injection**:\n*488|Two granularities, both first-class. `send-keys` — raw byte stream including escape sequences (e.g. `Ctrl-C`). `send-line` — cooked line-level input flushed on newline (the common case; matches how user input reaches an agent prompt). **PTY input is single-writer (v0.13.0 P0, KNOWN-HAZARDS 7.17):** broker-side, every write to a hosted session's PTY goes through ONE per-session input-writer thread — the sole caller of the blocking `write_input`, fed by a bounded FIFO. All callers (operator keystroke...\n 489|\n 490|**scrollback**:\n 491|In-memory ring buffer per session for v1. **On-disk spillover for long sessions is an intended, tracked feature** (deferred past v1, not forgotten) — see `docs/DEFERRED.md`.\n...\n 520|\n*521|### The peer pump\n 522|\n*523|**peer pump**: the **one supervised daemon loop** driving all outbound cadenced peer traffic — registry advertisement, notif push, sync pull, update check — against every roster member of every attached subnet. The pump owns *when* and *toward whom*: the scheduling kernel (in-memory stagger-from-due-now cadences + wake markers — deliberately **not** deadline-grid converted, ADR-0018 `[V4]`; no per-loop timing writes), the per-round shared store loads, the per-subnet × per-peer fan-out (connection ...\n 524|\n*525|**pump worker**: a cadenced consumer module behind the pump's **worker seam** — one each for registry, notif, sync, update. A worker declares its cadence, optionally consumes its wake marker (`poll_wake` — the exactly-once filesystem take stays at the worker edge, the scheduling kernel stays pure), runs optional node-local **pre-round** work once per due round (e.g. the registry worker's eviction sweep → rotation fire → re-advertise ordering), and a per-peer **peer step** over the pump-provided c...\n*526|_Avoid_: calling an individual leg a \"pump\" (the loop is *the* pump; the legs are workers); giving a worker its own `EpochSource` over the shared op counter (sole-writer: the pump's, KH epoch-lease class).\n 527|\n 528|### Cross-node Psyche sync\n 529|\n*530|**Sync scope is subnet-exclusive by default.** An endpoint's mind replicates only within **one subnet** unless told otherwise. Endpoint config carries a **subnet-membership list** for sync: the context syncs across the nodes of *every* subnet in that list, defaulting to just the endpoint's home subnet. This is distinct from registry *visibility* (*endpoint visibility*) — being addressable in a subnet does not imply replicating your mind there; mind-replication into a subnet requires that subnet to be i...\n 531|\n 532|The context is a local git repo with `a-<endpoint_id>` (per-agent) and `p-<project_id>` (per-project) branch views. Sync has **two transport modes** (full mechanics: `docs/STORAGE.md`):\n 533|- **P2P (default):** the data syncs between a user's nodes over the built-in P2P networking — **no `gh`/account/setup**, the no-central-operator promise. Replaces modern SPT's required GitHub-remote sync.\n...\n 641|**endpoint visibility (per-(endpoint, subnet))**:\n*642|Whether an endpoint is exposed to a given subnet. **Hidden means *excluded*** — not advertised in that subnet's registry **and not routable from it** (addressing it from that subnet fails until explicitly revealed), not merely unlisted. This makes hiding a real boundary, ready for the cross-user (b) seam, not a silent non-boundary. Computed as: endpoint `E` is **hidden in subnet `S` iff** `S.hide_new_endpoints` (a per-subnet policy captured at the node's **join time**) **OR** `E.default_hide_from_new_s...\n 643|\n 644|**home subnet (per endpoint)**:\n 645|The single subnet that anchors an endpoint's *defaults*: the default **sync** scope (subnet-exclusive mind replication — *Cross-node Psyche sync*) and the subnet that qualifies its **bare name**. **Assigned at creation:** the node's **sole** subnet automatically; on a **multi-subnet** node it **must be specified** at creation (no silent guess — mirrors the *resolution policy*'s refuse-and-qualify); on an **unpaired** node the endpoint is local-only until first join, when home is set. Distinct from ad...\n...\n 652|**resource advertisement (subnet resource registry)**:\n*653|A per-endpoint **free-text blurb** describing the services/functions the endpoint can serve — an agent **yellow-pages** for service discovery, distinct from *capability declaration* (machine-readable, which endpoint *types* a node hosts) and from *endpoint visibility* (whether it's addressable at all). **Both-authored + mutable:** config seeds a default; the agent refines its own at runtime (`spt endpoint description set …`). It is **not a separate registry** — it is a field on the endpoint record ...\n 654|\n 655|**resolution policy**:\n 656|How bare `ling` resolves when multiple instances exist. Rule: local-node instance if present → else most-recently-active → explicit override always available. **Two qualifier syntaxes**, combinable: **subnet-qualified** `home:ling` and **node-qualified** `ling@hfenduleam` (→ `home:ling@hfenduleam`). **Multi-subnet ambiguity rule:** under node-global identity (endpoint ID below), a node on several subnets may see two *distinct* endpoints that share a bare name (a `home:ling` and an unrelated `work:l...\n...\n 750|\n*751|**Node-bound code fetch — and every subnet-membership mutation — is gated behind OS privilege elevation** (Windows UAC / Linux root-or-equivalent): retrieving a subnet's code *from the node*, minting a new subnet (`subnet create` — a seed reveal), and joining one (`subnet join` — enrolling the machine into a trust fabric) all require either hardware/elevated access OR an **elevated endpoint** (an agent whose process is elevated can surface it). The join gate exists because membership is a trust-b...\n 752|\n 753|**self-elevating re-launch (cross-platform)**:\n 754|<!-- [doc->REQ-ELEVATE-1] -->\n...\n 770|**subnet attachment (attached / detached)**:\n*771|Whether this node's daemon is **actively serving** a held subnet membership right now — pairing responder reachable, rendezvous meet listener rotating, registry gossip pumping. **Attached** = serving; **detached** = the membership record (seed) is held on disk but deliberately not served (the daemon neither advertises into nor connects to that subnet). Detachment is a *chosen* per-subnet state — `spt subnet detach/attach <NAME> [--save]` (shipped M8-D2; `--save` persists the startup default in daemon...\n 772|\n 773|**endpoint description** (canonical CLI term for the resource-advertisement blurb):\n 774|The per-endpoint free-text \"yellow-pages\" line (see §resource advertisement). Surface term is **description**; \"blurb\" survives only as the internal field name.\n## M12-CANDIDATES.md\n 60|- **Psyche cross-machine sync = automatic** (M4-D6c, P2P over Iroh; `crates/spt-daemon/src/sync.rs`,\n*61|  `pump/sync.rs`). tracked/ replicates in-subnet by default; gh-repo `psyche-sync-setup`\n 62|  RETIRED to optional hub-mode. → spt-claude-code `/spt:setup` #8 reduces to a rare opt-in.\n 63|- **`spt endpoint fork <src> <new_id>` exists** (cross-subnet copy, same-node). Forking IS a\n 64|  first-class CLI offering. (`cli.rs:221`)\n...\n 66|  via qualified addressing. (`cli.rs:261,273`)\n*67|- **`spt whoami` + `spt endpoint list` (self pinned `SELF:` at top)** both exist; both stay\n 68|  in the agent hot-path.\n 69|\n 70|## M12 small change (revised former #5)\n*71|5. **`spt whoami` → alias for `spt endpoint list`** (operator 2026-06-14). whoami stays in the\n*72|   hot path but becomes an alias; the SELF-pin output in `endpoint list` must additionally\n 73|   include the Self endpoint's **`spt endpoint description`**. (Not obsolescence — a merge so\n 74|   the whoami-equivalent output carries the description.)\n 75|\n## M12-ENDPOINT-RUN-PICKER.md\n 15|## Create-new branch\n*16|- **L2** \"Choose your harness adapter for this endpoint:\" → list available adapters, with\n 17|  their **profiles tree-nested** under each adapter.\n 18|- **L3** \"Enter an endpoint id. Alphanumeric + hyphen + underscore only.\" → **start endpoint.**\n 19|\n## M12-PLAN.md\n 18|- Cross-node remote attach (`attach.rs`, M4-D5b) — daemon-internal, no user CLI.\n*19|- `spt endpoint fork` · `endpoint shutdown`/`stop` · `whoami` + `endpoint list` (SELF pin) ·\n 20|  automatic in-subnet psyche sync (M4-D6c).\n 21|\n 22|## Wave 1 — spt-hosted HARNESS bringup + attach (the gating foundation)\n...\n 67|## Wave 5 — whoami merge (small)\n*68|- **T5.1** `spt whoami` → alias for `spt endpoint list`; SELF-pin output additionally includes\n 69|  the Self endpoint's `endpoint description`. Keep whoami in the agent hot-path.\n 70|\n 71|## Gate (doyle, after waves)\n## M12-W1-PLAN.md\n 14|- **REQ-RC-1** — `spt rc <id>` attaches a local terminal to a broker-held PTY via the\n*15|  cross-node attach pump; local = degenerate single-node case (ONE path). `--view` read-only,\n 16|  clean detach (no session termination).\n 17|- Activation order (rule 2, memory [[traceable-per-wave-activation]]): each commit sets\n 18|  `required_stages` to ONLY the evidence in that commit, cumulative. doc+impl+unit land this\n...\n 29|  per the harness perch contract (fill from trace), (e) NO link-token (harness binds via `api`).\n*30|- **Attach pump**: `spt-daemon/src/attach.rs` — `serve_attach(brain,stream_id,endpoint,origin_node,net_from_seq)`\n 31|  -> `AttachServeOutcome{Refused,Exited(Option<i32>),Detached}`; `request_attach(brain,conn_id,session_id,from_seq,open_op)->stream_id`;\n 32|  `send_attach_input(brain,stream_id,bytes,wire_op)`. Cross-node rides QUIC (`spt-net/src/net/attach.rs`\n 33|  `AttachRecord::{Request,Input,Output,Exit}`). Local = single-node degenerate case (loopback peer).\n...\n 59|- **Follow-up flags (doyle, NOT W1 blockers):** (1) PTY *resize* events must flow through the\n*60|  attach pump for an interactive harness — W1 sets initial real dims only; live resize = later W.\n 61|  (2) Detach keybind (T1.2.5): explicit, cannot collide with harness passthrough input (legacy\n 62|  capsule = ctrl-b prefix); documented. Folded into REQ-RC-1.\n 63|- **RESOLVED — VERDICT (A): argv `{id}` template, NO SpawnReq wire change.** Harness learns its\n...\n 80|3. `cmd_endpoint_run` in cli.rs: resolve adapter option, daemon call, then dispatch terminal\n*81|   action (`--start` returns; `--attach` falls into the rc pump; `--view` rc pump read-only).\n 82|4. Non-interactive flag completeness: every terminal action of the W2 picker reachable by flags\n 83|   (so `cc-<id>` shortcuts bake fully non-interactive).\n 84|\n...\n 86|1. Top-level `Cmd::Rc{id, #[arg(long)] view}` + dispatch arm → `cmd_rc`.\n*87|2. `cmd_rc`: resolve endpoint id → broker-held session → `request_attach` → full-duplex pump\n 88|   (operator stdin → `send_attach_input`; session output → terminal stdout). EOF/detach exits.\n*89|3. ONE path (doyle invariant): local = loopback peer through the SAME attach.rs pump; no local\n 90|   special-case branch. Cross-node correctness IS local correctness.\n 91|4. `--view`: read-only — do NOT forward stdin (skip send_attach_input), only render output.\n 92|5. Clean detach keybind; detach NEVER terminates the broker-held session (hazard: PTY\n...\n 94|\n*95|## T1.2 design (traced 2026-06-14) — the rc operator pump\n*96|- **No operator pump/CLI exists today**; only primitives `request_attach`/`send_attach_input`\n 97|  (attach.rs:210/231) + the target `serve_attach`. Reuse-template for the render loop:\n 98|  `tests/attach.rs:117 render_until` (reads `BrokerEvent::NetStreamData` → `AttachDecoder` →\n 99|  `AttachRecord::Output`, dedup by `seq` cursor).\n...\n 103|  path — no new server code.\n*104|- **conn acquisition — (A) self-dial EMPIRICALLY DEAD.** iroh refuses it: `net_dial(own_addr)` →\n 105|  `\"Connecting to ourself is not supported\"` (fail-fast, pinned green by\n 106|  `loopback_self_dial_is_refused_local_uses_fallback_transport`). So local attach CANNOT ride a\n 107|  self-dialed QUIC conn. Cross-node rc is UNAFFECTED (dials a real remote) — already works on the\n...\n 110|    inbound dispatched to `serve_attach` like QUIC; everything above byte-identical; local\n*111|    loopback-dials instead of `net_dial`. ONE pump, covered by cross-node tests. Cost: broker-layer\n 112|    addition (new conn variant + in-process stream routing + dispatch), broker-internal (6.7 safe).\n 113|  - **(B2) local-direct**: rc attaches straight to the broker session (`brain.attach`+`Output`+\n*114|    `send_effect`), no net stream — a transport branch in the pump (the \"lesser branch\" doyle warned of).\n 115|  - rc.rs currently codes the self-dial path (now known-refused); swap the conn-acquisition to the\n*116|    chosen B once doyle rules. The pump itself is transport-invariant — no pump change either way.\n 117|- **endpoint→session**: `brain.sessions() -> SessionsReply{ sessions: [SessionInfo{session_id,\n 118|  endpoint,resume_seq}] }` (brain.rs:923), filter by `endpoint == <id>` → `session_id`. (Local\n 119|  only this wave; remote `id@node_hex` + cross-node resolution is the gate's cross-subnet proof.)\n*120|- **rc pump shape**:\n 121|  1. resolve `<id>` → `session_id` via `brain.sessions()`.\n*122|  2. `conn_id = brain.net_dial(brain.net_status().addr, Some(dial_op))`.\n 123|  3. `stream_id = request_attach(brain, conn_id, session_id, 0, open_op)`.\n 124|  4. raw terminal mode; spawn stdin-reader thread → `send_attach_input(brain, stream_id, bytes,\n 125|     mint_op())` per chunk (SKIP if `--view`). main loop: `brain.read_event()` → `NetStreamData`\n...\n 135|  harness manifest with a NOOP `[session.self]`). Template failure fails closed.\n*136|- `[unit->REQ-RC-1]` local `rc` rides the SAME attach pump as cross-node (assert one code\n 137|  path — e.g. local attach constructs the same request_attach call / loopback peer). `--view`\n 138|  forwards no input. Detach leaves the session alive.\n 139|- `[int->REQ-HOST-RUN-1/REQ-RC-1]` (W-final): `endpoint run` brings up a real harness + `rc`\n...\n 152|3. [DONE] `EndpointCmd::Run` + `cmd_endpoint_run` (resolve harness adapter → spawn → start/attach/view).\n*153|4. [DONE] top-level `Cmd::Rc` + `rc.rs` pump (single-Brain, stdin-thread+mpsc, seq-dedup, detach\n 154|   state machine) + 3 unit tests green (detach semantics, prefix-spans-chunks, op-minter); crossterm dep.\n*155|5. [DONE] `--attach`/`--view` route through the same `rc::run_attach` pump.\n 156|6. [DONE] Self-dial EMPIRICALLY DEAD (iroh \"Connecting to ourself is not supported\") — pinned green\n 157|   `loopback_self_dial_is_refused_local_uses_fallback_transport`. doyle ruled B1 (broker loopback-conn) = W1.5.\n 158|7. [DONE] Bringup + cross-node attach int test `spt_hosted_bringup_then_cross_node_attach_drives_the_pty`\n...\n 167|  spawns `[session.self]` into a broker PTY; harness self-registers on bind. impl+unit+int green.\n*168|- **Attach (REQ-RC-1)**: `spt rc <id>` operator pump (cross-node face proven; local face = W1.5).\n 169|  Detach = ctrl-b then `d` (ctrl-b ctrl-b = literal); detach never kills the session. impl+unit+int green.\n 170|- **Evidence**: harnesshost 3 unit + rc 3 unit + 2 int (`spt_hosted_bringup_then_cross_node_attach_drives_the_pty`,\n 171|  `loopback_self_dial_is_refused...`). `traceable-reqs check` EXIT=0.\n*172|- **Carried to W1.5**: B1 broker loopback-conn + local attach int (+ \"both transports → one pump\" assertion).\n 173|- **Carried to pre-M12-gate**: REQ-HOST-RUN-2 project cwd (additive SpawnReq.cwd).\n## M12-W1.5-PLAN.md\n 3|> JIT plan (todlando, 2026-06-14). doyle-scoped after W1 PASS. Goal: LOCAL `spt rc <id>`\n*4|> attach rides the BYTE-IDENTICAL `serve_attach` pump as cross-node — because self-dial is\n 5|> impossible (iroh: \"Connecting to ourself is not supported\", pinned by\n 6|> `loopback_self_dial_is_refused_local_uses_fallback_transport`). doyle ruling = **B1**: an\n 7|> in-process broker loopback connection, NOT B2 local-direct (which would reintroduce a\n...\n 10|## The invariant (doyle, binding)\n*11|ONE `serve_attach` pump. Transport is swappable UNDER the stream. Cross-node = QUIC conn;\n 12|local = broker loopback conn. Both surface as broker net-stream events (`NetStreamData` /\n*13|`net_stream_subscribe` / `net_stream_send`) so `serve_attach` (target) + the `rc::pump`\n*14|(operator) are unchanged. The W1.5 int test MUST assert both transports hit the same pump.\n 15|\n 16|## What already exists (W1)\n*17|- Operator pump: `spt/src/rc.rs` `run_attach` + `pump` (transport-invariant — reads\n 18|  `NetStreamData`, writes via `send_attach_input`). Currently codes the now-REFUSED self-dial\n*19|  (`brain.net_dial(net_status().addr)`) — **this is the one line W1.5 swaps** to a loopback-dial.\n 20|- Target serve: `spt-daemon/src/attach.rs serve_attach`, auto-dispatched at\n 21|  `dispatch.rs:335-360 StreamFamily::Attach` (resolves session_id→endpoint via `brain.sessions()`).\n*22|- Cross-node conn: `brain.net_dial(addr,op) -> NetDialed{conn_id}` (brain.rs:800) →\n 23|  `NetHost::dial` (nethost.rs:615) → iroh connect → registers in `NetShared::conns`.\n 24|\n 25|## B1 design (the loopback conn)\n...\n 29|vice-versa. Local `spt rc`: loopback-dial → `conn_id` → `request_attach(conn_id, session_id)`\n*30|→ subscribe → pump — identical to cross-node from `request_attach` up.\n 31|\n 32|### Investigation TODOs (read before coding — NOT yet done)\n 33|1. **`spt-daemon/src/broker.rs`**: the conn table + stream table + how `dispatch_*` routes an\n...\n 54|- **T1.5.3** Swap `rc.rs` conn-acquisition: local `run_attach` loopback-dials instead of\n*55|  `net_dial(own_addr)`. (One seam; pump unchanged.)\n*56|- **T1.5.4** Int test `local_attach_via_loopback_conn_rides_the_same_pump`: spawn a session,\n 57|  loopback-dial, request_attach, drive input, render echo, detach→session outlives. PLUS the\n*58|  **one-pump assertion**: both the cross-node int and this local int exercise the same\n*59|  `serve_attach`+pump path (assert by construction / shared helper, per doyle).\n 60|- **T1.5.5** Activate REQ-RC-1 local int evidence (int already active from W1 cross-node face;\n 61|  add the `[int->REQ-RC-1]` tag on the local test). `traceable-reqs check` EXIT=0.\n 62|\n 63|## Gate (doyle)\n*64|Local `spt rc` attaches a broker-held PTY via the loopback conn over the byte-identical pump;\n*65|both transports proven to hit one pump; full suite + clippy -D warnings + traceable EXIT=0.\n 66|Then **REQ-HOST-RUN-2** (project cwd via additive `SpawnReq.cwd`) before the M12 gate.\n 67|\n 68|## Crystallized design (2026-06-14, post-investigation — doyle GO, all 3 Qs answered)\n...\n 70|`same-node short-circuit` already Allows (access.rs:89, documented access.rs:26-27) — NO access\n*71|change. (2) explicit new frame KIND `net-dial-loopback` (NOT sentinel addr). (3) one-pump =\n*72|by-construction via a SHARED serve_attach+pump test helper both cross-node + local int call.\n 73|\n 74|**Transport seam = `tokio::io::duplex(CAP)`** — one full-duplex pair wires an entire operator↔peer\n*75|stream. Split each end (`tokio::io::split`); feed the SAME `StreamLog`/subscribe/send_stream/read-pump\n*76|machinery — only the LEAF send/recv halves become enums. That IS the one-pump invariant by construction.\n 77|\n 78|- **nethost.rs**: `ConnEntry.conn` → `enum ConnKind { Quic(Connection), Loopback }`\n 79|  (`conn_remote_addr_json` Loopback→Null). `StreamEntry.send` → `enum SendHalf { Quic(SendStream),\n 80|  Loopback(WriteHalf<DuplexStream>) }` (async `write_all` + `finish`= quinn `finish()` / loopback\n*81|  `shutdown()`). Read pump takes `enum RecvHalf { Quic(RecvStream), Loopback(ReadHalf<DuplexStream>) }`\n 82|  — Quic `read_chunk`, Loopback `AsyncReadExt::read`. `register_stream` accepts SendHalf+RecvHalf.\n 83|  - `dial_loopback(&self)->(u64,String)`: SINGLETON (`loopback_conn: Mutex<Option<u64>>`), mints/reuses\n 84|    a `ConnKind::Loopback` row, `remote_id_hex = self.local_id.to_hex()`, NO closed-watcher/accept-loop.\n...\n 95|  thread→input→render_until→detach→assert(Detached + session outlives). Cross-node + new local\n*96|  `local_attach_via_loopback_conn_rides_the_same_pump` BOTH call it. Tag `[int->REQ-RC-1]`.\n 97|\n 98|## Notes\n 99|- rc.rs today codes the refused self-dial → LOCAL `spt rc` errors at runtime until T1.5.3\n## M12-W2-PLAN.md\n 46|- **Deps:** `crossterm = \"0.28\"` already in `spt/Cargo.toml` (landed W1 for the rc raw-mode\n*47|  pump, explicitly noted \"the same crate W2's ratatui picker builds on\"). **ratatui +\n 48|  nucleo-matcher are NEW deps** to add this wave.\n*49|- **Reuse for terminal actions:** `cmd_fork` (Fork), `cmd_rest`/wake (resting), rc pump\n 50|  (attach/view) all exist as callable CLI fns.\n 51|\n 52|## Investigation TODOs (read before coding — NOT yet done; gated on doyle scope ruling)\n...\n 80|   own hazard surface (PTY ownership, KH zone) better scoped as its own slice. Confirm.\n*81|2. **Project history.** Is there an authoritative per-endpoint project list to read, or does\n 82|   W2 derive it from p-<project> context branches? If neither is cheap, propose rendering\n 83|   the description pane's history as \"best-effort from contextstore, empty if none\" and not\n 84|   blocking the wave on a new history store. Your call on the source.\n...\n 197|  `resource_projection(reg, hidden_fn)` (`endpoint_id, node, status, resources`);\n*198|  `VisibilityStore` + `SubnetStore`. (Pick-existing spine + status.)\n 199|- `spt_store::info::read_info(perch).resources` (endpoint description);\n 200|  `perch::resolve_perch_path(id, ParentHint::Infer)` → `sessions::last_k(perch, k)` (resume).\n 201|- `rc::run_attach(id, view)` (attach/view); `cmd_endpoint_run` (start); `cmd_fork` (Fork).\n...\n 205|**No second bringup path** — every terminal action routes through `cmd_endpoint_run` /\n*206|existing CLI fns (`cmd_fork`, wake, rc pump). One bringup core, same discipline as W1.5's\n*207|one-pump.\n 208|\n 209|## Notes\n 210|- The picker is a pure front-end: it MUST NOT introduce a second bringup path — every\n 211|  terminal action routes through `cmd_endpoint_run` / the existing CLI fns. One bringup core,\n*212|  same invariant discipline as W1.5's one-pump.\n 213|- TUI testing: ratatui renders to a `Buffer` (testable without a real terminal) — assert the\n 214|  rendered buffer for screen-state unit tests; the live key loop is the manual-verify leg.\n 215|- ADR-0001 territory only if any wire/registry format changes (Q1 attach-presence op would\n## M12-W2-RULING.md\n 59|## Binding invariant (gate condition)\n*60|**No second bringup path.** Every terminal action routes through `cmd_endpoint_run` / existing CLI fns (`cmd_fork`, wake, rc pump). One bringup core — same discipline as W1.5's one-pump. I gate on this.\n 61|\n 62|## Gate posture\n 63|Build uncommitted on m12-w1-bringup-rc. I gate (reproduce traceable + read the load-bearing state-model/buffer tests + confirm single-bringup-path) before any commit. Suite + clippy -D + traceable EXIT=0. Operator calls the commit.\n## M12-W2.5-PLAN.md\n 16|- **rc.rs** `run_attach(endpoint_id, view: bool)` (rc.rs:168) ALREADY gates the stdin reader on\n*17|  `view` (viewer = no input). Detach/exit notices render post-pump (rc.rs:220-231) — the displaced\n 18|  notice slots in there. rc sends **no resize** today (geometry static).\n 19|- **broker** `OutputLog.subscriber: Option<SharedSend>` (broker.rs:87), `SharedSend =\n 20|  Arc<Mutex<SendHalf>>` (a brain↔broker IPC local-socket write half, one per attach connection).\n...\n 57|- `Displaced { by: String }` — target→operator, the **loud kick notice** to the displaced\n*58|  controller (its rc renders it, then the stream closes → pump ends).\n 59|All are additive enum variants / a defaulted field; the decoder's skip-unknown-kind contract keeps\n 60|N-1 peers degrading, not dying. **Confirm the four shapes.**\n 61|\n...\n 80|**Fully DETACH the displaced controller** (not demote-to-viewer): broker sends `Displaced{by}` →\n*81|the old controller's rc renders the loud notice → its stream closes → its pump ends with a\n 82|displaced-exit. Matches CONTEXT's \"displaces\"; auto-demoting to a silent viewer would surprise.\n 83|The displaced user can re-attach as a viewer if they choose. *Lean: detach + loud notice. Confirm.*\n 84|\n...\n 101|  viewer renders `Size`+letterbox (clip+indicator); both render the `Displaced{by}` loud notice\n*102|  post-pump. `kick`/`--take` surface on the `rc` command.\n 103|- **T5 picker** (W2 integration): blue ■ tri-state from `driven_by` (+ `viewer_count`); confirm\n 104|  options **View** (viewer attach) + **Kick <node> and attach** (`--take`) — both via the EXISTING\n 105|  attach dispatch (single-bringup-path invariant holds; role is a parameter).\n...\n 241|  initial-size-on-attach + window-change Resize via `crossterm::terminal::size()` polling each\n*242|  pump slice (cleaner than SIGWINCH/event-loop vs the raw-stdin reader); `Displaced{by}` → loud\n 243|  parting line; viewer `Size` → one-line size indicator (true clip/pad letterbox deferred — rc is a\n*244|  byte pump, needs a grid model). `send_attach_resize` helper added.\n 245|- **T5 DONE (picker)** — `EndpointRow` gains `driven_by`/`viewer_count` (local rows from info.json;\n*246|  subnet rows None); `ConfirmOption::Kick`; status-conditional `confirm_options` (CONTROLLED online\n 247|  → View+Kick ONLY, no plain Attach; else Attach=Control+full set); `Outcome::Attach{id,intent}`\n 248|  (View→Viewer, Attach→Control, Kick→Take — single-bringup-path, intent is a parameter); confirm\n 249|  pane pins `controlled by <node> (+N viewing)`.\n## M12-W5-PLAN.md\n*1|# M12 Wave 5 — `spt whoami` → endpoint-list alias — JIT plan\n 2|\n 3|> todlando 2026-06-14, after W4 GATE PASS + commit @b7cda13. W5 is the last\n 4|> coding wave before W2.5 (attach/kick, own slice) and the full M12 gate.\n...\n 8|## Scope (M12-PLAN.md Wave 5)\n*9|- **T5.1** `spt whoami` → **alias for `spt endpoint list`**; the **SELF-pin** output\n 10|  additionally includes the Self endpoint's **`endpoint description`** (its authored\n 11|  blurb). Keep `whoami` in the agent hot-path (top-level verb, unchanged parse).\n 12|\n...\n 16|  the source (env-based: `$OWL_SESSION_ID` / `$SPT_AGENT_ID`), NOT parsed from output.\n*17|- **`cmd_endpoint_list(local, subnet, detail)` (cli.rs:1492)** already does the **SELF\n 18|  pin**: when `detect_self_id()` resolves, it prints `SELF: {id}  {state} ready=… alive=…`\n 19|  first, then `SUBNET <name>` groups with endpoint rows. `--local` short-circuits to\n*20|  `cmd_list_local`. So \"alias for endpoint list\" is mostly a re-dispatch.\n 21|- **Self endpoint description** is reachable: `spt_store::info::read_info(&perch_path)\n 22|  .resources` where `perch_path = perch::resolve_perch_path(&id, ParentHint::Infer)` —\n 23|  exactly what `cmd_description` (cli.rs:1352, `DescriptionCmd::Show`) reads. `None` =\n...\n 31|## The DELTA\n*32|1. Re-dispatch `cmd_whoami` to the endpoint-list view (SELF pinned).\n*33|2. Augment the **SELF pin line** (in whoami, and arguably in `endpoint list` too) with the\n 34|   Self endpoint's authored description.\n 35|3. Reconcile the `how-to: ready` doc + register the REQ.\n 36|\n 37|## Open design question for doyle\n*38|**Q1 — `whoami` output shape vs the bare-id contract.** \"Alias for `endpoint list`\"\n 39|(rich, multi-line: SELF pin + every subnet's endpoint rows) collides with the documented\n 40|hot-path contract `id=$(spt whoami)` (bare id on stdout). Three readings:\n*41|- **(A) Full alias** — whoami emits the entire `endpoint list` view, SELF line gains the\n 42|  description. Cleanest literal read of the plan; **breaks** `$(spt whoami)` bare-id capture\n*43|  (agents/onboarding doc must change to a new id source, e.g. `endpoint list --local` or a\n 44|  `--id` flag).\n 45|- **(B) SELF-card only** *(my lean)* — whoami emits just the **SELF pin block** enriched\n 46|  with the description (`SELF: {id}  {state}` + a description line), NOT the full subnet\n*47|  roster. Honors \"alias for endpoint list\" (it's the SELF-pin slice of that view) AND\n 48|  \"keep in the agent hot-path\" (tight identity card); the **id stays the first token** so a\n*49|  narrowed capture still works, and `spt endpoint list` remains the full roster. Smallest\n 50|  blast radius.\n 51|- **(C) Full alias + preserved bare-id** — full list, but keep an explicit bare-id path\n*52|  (`spt whoami --id` or `spt endpoint list --self-id`) so scripts migrate to it. More\n 53|  surface than B for the same end.\n 54|\n*55|**Recommend B** (SELF-card: id + state + description; full roster stays `endpoint list`),\n*56|unless you read the plan's \"alias for endpoint list\" as strictly A. Either way the **id\n 57|remains the first stdout token** so the hot-path capture degrades gracefully, and I'll\n 58|reconcile the `how-to` text to match the chosen shape.\n 59|\n...\n 67|- **T5.1a** factor the SELF-pin render (id + state + description) into a small helper used\n*68|  by `cmd_whoami` and (option A/C) `cmd_endpoint_list`; read the description via\n 69|  `info::read_info`. Pure-ish render unit-tested over a fixture roster row + blurb.\n 70|- **T5.1b** re-dispatch `cmd_whoami` to the chosen shape; reconcile the `how-to: ready`\n 71|  doc line + CHANGELOG.\n...\n 78|graceful-degrade, no `--id` flag, no how-to migration. **Drop** the standalone bare-id\n*79|`cmd_whoami`; `spt whoami` dispatches to `cmd_endpoint_list` (full output: SELF pin +\n*80|roster). The **one real code change**: the `endpoint list` SELF pin gains the Self endpoint\n 81|description (`info::read_info(...).resources`). Q2 = NEW **REQ-WHOAMI-1** (doc+impl+unit, no\n*82|int); unit = rendered SELF line includes the description; whoami dispatch == endpoint-list\n 83|dispatch.\n 84|\n 85|## BUILT — sweep GREEN, ready for doyle gate (2026-06-14, todlando)\n...\n 89|  inline after the state when present, omitted (no dangling separator) when absent/blank.\n*90|- **cmd_endpoint_list** SELF pin now reads `info::read_info(resolve_perch_path(self_id,\n 91|  Infer)).resources` and renders via `render_self_pin` — the one behavior change (shared by\n*92|  `endpoint list` AND the `whoami` alias).\n## M2a-PLAN.md\n 116||---|------|--------|----------------|------------|\n*117|| T3 | `spt api` dispatch group: `--manifest`/`--adapter` resolution, `adapter_name` on every call, exit codes; **local-api-auth** (each mutation authenticated to an endpoint/session) | adapt `cli.rs`; CONTEXT \"Inbound api surface\" | REQ-API-1; REQ-HAZARD-LOCAL-API-AUTH | `spt api --help` lists the surface; a call without a resolvable endpoint/auth is refused non-zero |\n 118|| T4 | Harness-hosted startup: `api seed` (interim seed-**file** by `parent_pid`) + `api listen <id>` (consume seed, validate `session_id` vs pid-recycle, bind perch skeleton→live, relay loop) + `api bind` (post-spawn) | clean-room; CONTEXT \"Startup flows\" | REQ-START-1, REQ-START-2, REQ-SEAM-POSTSPAWN, REQ-API-2; REQ-HAZARD-WINDOWS-PID-RECYCLE | seed→listen binds a live perch reachable by id; a stale/mismatched seed never binds; listen relays a delivered message |\n 119|| T5 | Delivery + activity: `api state <busy\\|idle>` (+ echo-gate sentinel, `--no-gate`, `api echo-gate set/clear`) + `api poll [--include-deferred]` (hook delivery drain) + inject-method selection (hook/relay; PTY=M3) | sister sentinels + M1 spool | REQ-SEAM-ACTIVITY, REQ-SEAM-INJECT, REQ-API-2 | `api state idle` writes the perch sentinels; `api poll` drains non-deferred (deferred only with the flag) |\n 120|| T6 | Worker perches: `api worker-start`/`worker-stop` (nested create/teardown under parent) + `api worker-poll` + **cascade-wipe guard** (no hard-delete of a parent hosting non-empty children) | sister subagent hooks (clean-room) | REQ-API-2; REQ-HAZARD-CASCADE-WIPE-GUARD | a worker perch nests under its parent + is addressable; stopping a parent with live workers is refused/soft |\n## M4-D4-PLAN.md\n 38|  `merge_instance` seam — a minimal registry-update message over `SPT_NET_ALPN` carrying\n*39|  `(subnet, endpoint_id, Instance{node,status,epoch})`, authored with `EpochSource::\n 40|  next_epoch()`. The merge rule is already hermetically tested; D4d only wires transport →\n 41|  merge. Join/advertise paths go through D3d/D3e gates (`advertise_if_visible`).\n 42|- **PresenceChannel = seam, not feature** (REQ-EP-4): a broker-side endpoint registration\n## M4-D5-PLAN.md\n 14|attach to a remote instance works as a viewport (compute + files stay remote); the driven\n*15|agent can detect it is network-driven and from which node; an endpoint with a whitelist\n 16|refuses unsolicited inbound from a non-listed origin node. Reqs: REQ-NET-1 (WAN-msg\n 17|aspects), REQ-INST-8, REQ-REACH-1, REQ-SEC-1.\n 18|\n...\n 35|- **Remote attach = OutputLog over the wire.** The broker-side `OutputLog` (seq'd ring,","truncated":true,"truncatedBy":"bytes","totalLines":693,"totalBytes":61058,"outputLines":543,"outputBytes":51145,"lastLinePartial":false,"firstLineExceedsLimit":false},"linesTruncated":true,"meta":{"limits":{"columnTruncated":{"maxColumn":512}},"truncation":{"direction":"head","truncatedBy":"bytes","totalLines":693,"totalBytes":61058,"outputLines":543,"outputBytes":51145,"shownRange":{"start":1,"end":543},"nextOffset":544}}},"isError":false,"timestamp":1784069023626}}
{"type":"message","id":"48bf1a04","parentId":"3a7790db","timestamp":"2026-07-14T22:43:43.637Z","message":{"role":"toolResult","toolCallId":"call_9v4E6SFnHf0AydNnGnbaqD3j|fc_0b084cf0b521ab15016a56bb9d43108190adf660c26f6ce71c","toolName":"grep","content":[{"type":"text","text":"# spt-core/\n## AGENTS.md\n 14|\n*15|This project uses `traceable-reqs` (`traceable-reqs.toml` = the authoritative `REQ-*` registry). The full contract is `docs/TRACEABILITY.md`. The rules you must follow:\n 16|\n 17|1. **Tag evidence in the same change.** When you write a function/test/doc-section that satisfies a requirement stage, add its tag in that same commit:\n 18|   `// [impl->REQ-FOO]` · `// [unit->REQ-FOO]` · `<!-- [doc->REQ-FOO] -->`\n## CHANGELOG.md\n 168|  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\n*169|  members but showed an empty live-node list and warned that the peer pump had\n 170|  stalled. An unresponsive peer is now dropped and retried on its own instead of\n 171|  holding up the round, so the node keeps converging and peers reappear.\n 172|\n...\n 223|\n*224|A join-truth release: joining a subnet now tolerates a skewed or stepped system clock so it finds members it used to silently miss, no longer raises the elevated-permission prompt before a member is actually found, and can show the exact ceremony clock it is using — plus a loud warning when no time server can be reached.\n 225|\n 226|### Added\n 227|\n...\n 236|\n*237|- **Join now finds members it used to miss when the clock is off.** The pairing ceremony clock is corrected against NTP (and re-steps when the system clock jumps), so a joiner whose machine clock is skewed no longer silently fails to meet a subnet member.\n 238|- **A failed join now reports the joiner's own clock in the failure detail.** The `spt subnet join --verbose` failure block now also carries the joiner's daemon-side ceremony clock (time-step, offset, and corrected/uncorrected state), so a met-then-refused join shows the clock state on both sides instead of leaving the joiner's half unexplained.\n 239|\n 240|## [0.27.0] - 2026-07-06\n...\n 430|\n*431|- **`spt rc` can now attach to an endpoint running on another node.** Previously `spt rc <endpoint>` only resolved endpoints with a live session on the local machine — a cross-node `Active` endpoint (visible in `spt endpoint list`) failed with `no live session for endpoint`. `rc` now resolves the owning node from the registry and attaches over the network, so you can drive a remote endpoint the same way you drive a local one.\n 432|\n 433|### Changed\n 434|\n*435|- **`spt endpoint list` now labels the local machine by name.** The `LOCAL (this node)` header is now `This node: <node-id>`, so a listing captured from one machine is unambiguous about which node produced it.\n 436|- **`spt endpoint list` uses the same status codes and colored markers as the `spt endpoint run` picker.** The non-interactive listing previously printed raw, text-only status; it now renders the picker's colored square glyphs and status vocabulary, so both surfaces read identically.\n 437|- **`spt endpoint run` groups endpoints by machine instead of by subnet.** A machine that shares two subnets with you used to appear twice (once per subnet) with duplicate endpoints; it now shows as a single group with the shared subnets listed beneath the machine name.\n 438|- **A lone detached endpoint no longer reads as `Dormant`.** `Dormant` is the multi-instance routing state; a single detached instance now displays as online instead of borrowing that label.\n...\n 743|- **Update an adapter from a GitHub release, optionally signature-checked.** An adapter's `[update]` feed can now be a GitHub release (`avenue = \"gh_release\"`); `spt adapter update` pulls the newer `.spt`. Declare a `signing_key` and verification is fail-closed — an unsigned or wrong-signature artifact is refused, not installed.\n*744|- **`spt api` resolves an adapter's manifest and install directory from `--adapter`.** Pass `--adapter <name[:profile]>` without `--manifest` and spt looks both up from the registry; `--manifest` becomes an override for an unregistered or local manifest.\n 745|\n 746|### Fixed\n 747|\n...\n 881|\n*882|- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\n*883|  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\n 884|- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\n 885|- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\n 886|- **`spt daemon status` shows what manages the daemon** — whether a service owns it (and is active) or it was started by hand.\n...\n 916|- **Leave a subnet:** `spt subnet leave <name>` removes the subnet and its trust completely from this node.\n*917|- **Clean up dead nodes:** `spt subnet prune <node>` removes a stale node's trust so this machine stops trying to reach it. You can name the node by its hostname label, a key prefix, or the full key; it refuses if the name is ambiguous or refers to yourself.\n 918|- **Node names in `spt subnet status --nodes`.** Each node now shows its hostname label and can be addressed as `@<hostname>` in commands. Nodes that aren't running any endpoints still show their hostname instead of a bare key.\n 919|- **Automatic re-pair cleanup.** If you reinstall or regenerate a node's identity and pair it again from the same machine under the same name, its old, now-dead identity is removed automatically during pairing — no manual prune needed.\n 920|- **Firewall setup on Windows.** The installer (when run elevated) now adds the inbound network rule `spt` needs so other nodes can reach you. If it wasn't added, `spt subnet status` and the \"coming online\" banner now tell you the rule is missing and print the exact command to add it.\n...\n 933|- **Pairing works on machines with a wrong clock.** Pairing now checks network time and tolerates a node whose system clock is off by more than a minute (which previously made pairing fail silently). If network time can't be reached, it falls back to the local clock as before; it never changes your system clock.\n*934|- **Faster first sync after joining or restarting.** `spt` now remembers peers' last known addresses, so after a join — or after the daemon restarts — other nodes reappear in `spt subnet status --nodes` in seconds instead of taking up to a minute.\n 935|- **Endpoints going online/offline show up almost immediately.** When an endpoint starts or stops, peers now see the change in `spt subnet status --nodes` within seconds instead of waiting for the next sync cycle.\n 936|\n 937|### Fixed\n...\n 942|- **`sudo spt …` now works on Linux user installs.** When `spt` is installed to your user directory, elevation guidance that said to \"run as administrator/root\" used to dead-end with `sudo: spt: command not found`. The installer now also makes `spt` reachable under `sudo`, and on an interactive terminal `spt` re-runs itself with `sudo` automatically; otherwise it prints a command that actually works.\n*943|- **Elevated `spt` on Linux runs under your account, not root.** The first time you run an elevated `spt`, it asks once which account should own the daemon and its data, remembers that choice, and every later `sudo spt` runs the daemon and stores state under that account — never as root.\n 944|- **`spt daemon stop` on Windows now finds the daemon it started.** A daemon launched through Windows' elevation prompt could end up using the wrong home directory, so `spt daemon stop` reported \"daemon not running\" while a daemon kept running. It now keeps the right home directory across that elevation step.\n 945|- **Removed a confusing internal status line.** `spt` no longer prints the internal \"DEELEVATED: running as uid …\" notice during normal use.\n 946|- **Stale node rows clear out on their own.** Nodes that haven't been heard from in a while are now removed from the listing automatically, so old/dead entries stop cluttering `spt subnet status`.\n## CLAUDE.md\n 8|\n*9|This project uses `traceable-reqs` (`traceable-reqs.toml` = the authoritative `REQ-*` registry). The full contract is `docs/TRACEABILITY.md`. The rules you must follow:\n 10|\n 11|1. **Tag evidence in the same change.** When you write a function/test/doc-section that satisfies a requirement stage, add its tag in that same commit:\n 12|   `// [impl->REQ-FOO]` · `// [unit->REQ-FOO]` · `<!-- [doc->REQ-FOO] -->`\n## CONTEXT.md\n 29|**spt-daemon** (per-machine supervisor):\n*30|The single always-on, one-per-machine logical supervisor. Owns the PTYs for all hosted sessions, the node's network identity + WAN endpoint, the subnet registry, all spools, **all poll-listener logic, and all Psyche/pulse loops** — everything is consolidated here (no separate poll-listener or Psyche-wrapper processes; listeners already touch sessions directly under capsule/idle, and Psyche wrappers already invoke harness binaries directly, so they belong in the one supervisor). Collapses what the siste...\n 31|\n 32|Internally the logical daemon is split into two implementation layers for seamless self-update (see Self-update):\n 33|- **broker** (stable \"kernel\") — holds *only* the un-transferable, must-not-die resources: PTY master fds, the spawned harness child processes, and listening network sockets. Minimal, dumb, versioned local IPC. Almost never updates.\n*34|- **daemon brain** (\"userspace\") — all logic (routing, registry, pulse/psyche loops, manifest parsing, update orchestration). Restarts freely on update; rehydrates from disk state and re-attaches to the broker's held handles.\n 35|\n 36|Logical addressing is unchanged — still one per-machine `spt-daemon`; the broker is an internal layer, not separately addressable. There is exactly **one broker per machine** (per `SPT_HOME`) — *not* one per endpoint: a single broker holds every hosted endpoint's resources, and it is present whenever the daemon runs, even with zero endpoints online (the bare-daemon case). It is therefore the always-present per-machine layer, which is why the single-daemon lock + liveness anchor belong to it.\n 37|\n...\n 65|**subcommand surface** (inbound half of the harness contract):\n*66|The stable set of `spt.exe <subcommand>` entry points that harnesses bind their own hook systems to. When the harness's runtime emits an event (subagent started, tool just invoked, user typed `/clear`, session crashed), the harness's hook fires a short-lived `spt.exe <subcommand>` invocation that mutates on-disk SPT state (perch registry, spool, etc.). spt-core publishes this surface; harnesses author the bindings.\n 67|\n 68|**Naming convention:** these inbound, machinery-facing commands are prefixed **`api `/`api-`** (e.g. `spt api bind`, `spt api state`) to distinguish them from the agent-facing verbs an agent invokes directly (`send`, `ring`, `ready`, …). The `api` namespace is the harness/adapter commands-API; the unprefixed namespace is the agent surface.\n 69|\n...\n 84|**File-backed strings** (M12-W3): a `[strings]` value MAY be a **file pointer** instead of an inline literal — a value-position table with **exactly one** key `file`: `skill = { file = \"skill.md\" }`. `get-string` resolves it to the file's **contents** (so large bodies — skill-instructions, hint text — stay out of the manifest). The exactly-one-key rule is the disambiguation: any other table shape stays an opaque nested strings tree (existing trees untouched), and `{ file = … }` is reserved as the...\n*85|_Avoid_: treating strings as config knobs for spt-core itself (those are global settings); \"adapter KV store\" as a separate registry; putting user files in the adapter-shipped `strings/` dir (clobbered by updates — use a local profile).\n 86|\n 87|**manifest substitution in `[strings]`** (ratified 2026-06-25, v0.16.0 update-arc grill):\n*88|`get-string` resolves a set of **adapter-static** substitution keys inside a returned string value at **read time** (lazily, like file-backed strings): **`{adapter_dir}`** — the registry record's precise `source_dir` (the install dir; survives updates; the same dir bare-program resolution already uses) — and **`{adapter_name}`**. Session-scoped keys (`{id}`/`{session_id}`/…) are **not** available: `get-string` carries no session context today, and a `get-string --session-id` for session-scoped subs...\n 89|_Avoid_: session-scoped substitution through bare `get-string`; reading this as spt-core executing a string (it never does — the adapter wrapper executes the resolved value).\n 90|\n 91|**keyword hints** (ratified 2026-06-12 — core milestone A):\n...\n 158|\n*159|**capability declaration** — which endpoint types a harness/node can host (a Pi node might host only Shells, never a LiveAgent). Static manifest list, consumed by the subnet registry so a node advertises its hostable types. Exact shape is design-open.\n 160|\n 161|**adapter-update seam** — file-pull or delegated-command (see Self-update). Locked.\n 162|\n...\n 165|- **Command templates are opaque.** spt-core never parses out a model/tool/flag — the adapter writes the whole command line; spt-core fills substitution keys and runs it.\n*166|- **A command template's program token resolves against the adapter install dir before PATH (since v0.8.0).** A `.spt` adapter ships its built binaries to the adapter's install dir (`adapters/_github/<safe>/` via `--release`/`--github`, or the record's `source_dir` under copy-mode), so a bare program name (e.g. `claude-spt-digest …`) binds to the shipped binary first and falls back to PATH when absent — a `.spt` that ships its binaries is **self-contained**, needing no PATH placement. <!-- [doc->REQ-...\n 167|- **Hook output capability is declared per harness-event** (`can_inject`). CC's Stop hook cannot inject context — that single fact drives the echo-gate sentinel + relay fallback. The manifest expresses it so spt-core knows when to fall back.\n 168|- **Env injection is asymmetric** (file-bridge-only-when-not-launcher, applied to env): spt-hosted sessions inherit env from the broker that spawns them; harness-hosted sessions need the harness's declared env channel. With `spt` on PATH the env table is small.\n*169|- **Cross-adapter fallback** is a **node-wide setting**, not a manifest field: if a Psyche/echo invocation under one adapter is rate-limited, spt-core falls back to another adapter (e.g. `ccs` — its own adapter, not a binary-swap). <!-- [doc->REQ-MANIFEST-6] --> A fallback **target is addressed as `<adapter>:<profile>`** (not just a bare adapter_name) and resolves through the one composite-addressing resolver (`registry::resolve_option`), so a fallback may select a shipped or local profile (`ccs`, `ccs...\n 170|- **Config knobs** (pulse period, echo-commune window, route-guard window, daily refresh) are spt-core **global settings** with optional **per-endpoint override** — never per-adapter.\n 171|- **Event-block vocabulary and file-drop filenames are fixed spt-core constants** (documented for adapter authors), not manifest-configurable. <!-- [doc->REQ-RESUME-CONTEXT-PULL] --> This includes the **checkpoint sentinel `!!checkpoint!!`** — the agent-checkpoint trigger an adapter embeds in a commune/signoff drop body (one bare token = checkpoint with default wake; a `!!checkpoint!! <text> !!checkpoint!!` pair makes the inter-marker text a custom wake directive). It is spt-core control metadata: spt-...\n 172|\n...\n 177|<!-- [doc->REQ-API-4] -->\n*178|**Manifest resolution from `--adapter` (since v0.8.0).** `spt api <cmd> --adapter <name[:profile]>` resolves the registered adapter's manifest, `:profile` overlay, and install dir from the registry when `--manifest` is omitted — a registered adapter's `api` calls need only `--adapter`. `--manifest <path>` becomes an optional **override** (an unregistered or local-dev manifest): when present, the manifest loads from that file and the install dir is its parent directory; when absent, both come from the r...\n 179|\n 180|- **`api bind`** — post-spawn boot bind (payload above). Skeleton→live.\n 181|- **`api listen`** — *long-running* relay/poll listener that an adapter-owned (harness-hosted) session owns as a child process; streams the daemon's events to the session's stdout. Distinct from the short-lived `api poll`. This is the heir to today's Monitor-bound `$LIVE start` poll loop.\n...\n 183|- **`api state <busy|idle>`** — adapter reports session activity; writes the activity/idle sentinel in the session perch. By default `api state idle` also writes the **echo-commune gate sentinel** (`.more-done`-equiv — modern spt couples them); `--no-gate` suppresses that coupling, and a standalone **`api echo-gate <set|clear>`** gives granular adapters explicit control over when echo communes may fire, independent of idle.\n*184|- **`api worker-start`** / **`api worker-stop`** — Worker (subagent) perch create/teardown under the parent (nested, registry-tracked).\n 185|- **`api worker-poll`** — a Worker (subagent) receives its queued messages (inbound from Self or sibling Workers).\n 186|- **`api boundary <clear|compact>`** — context-boundary report; **carries the new `session_id`** (it rotates on `/clear` or `/compact`), so the daemon rebinds the perch to the new session id while keeping the stable identity + `parent_pid` anchor. Authors a **Self-resume commune** (resume the Self session → commune file-drop) rather than a background echo — strong live-context signal at the boundary (see `docs/CONTEXT-MEMORY.md`). **Rotation credential** (ADR-0032): the proof of association for thi...\n 187|- **`api session-end`** — session stop/crash report → soft teardown by default (preserve perch + spool + tracked history for recovery — KNOWN-HAZARDS 6.2). **`--erase`** instead hard-wipes the perch and tracked history (for ephemeral/secondary adapters that act as robust agent-spawned-agent surfaces).\n 188|\n*189|**`spt endpoint purge <id>`** (CLI, not `api`) — the standalone, formal **full teardown**: wipe an endpoint and *every* record keyed on it. It is the dev/CI sibling of `api session-end --erase` (which is adapter-triggered at session end); `purge` is the explicit operator/test command for clean setup-and-reset. **Deliberately NOT consent-gated** — a local dev/test op, never a peer-visible action. **Offline-only**: it refuses a live / daemon-hosted endpoint (deleting records out from under a running ho...\n 190|_Avoid_: consent-gating it (it is intentionally ungated, for CI); treating it as a sync/remote op (local-only); a soft variant (purge is always the hard, full wipe — soft teardown is `endpoint stop`).\n 191|<!-- [doc->REQ-ENDPOINT-PURGE] -->\n 192|\n...\n 203|**Harness-hosted (e.g. spt-plugin; the harness binary is user-launched, harness is the parent).** Key constraint: the SPT *live agent* does not exist until the agent invokes start — the `live_id` isn't chosen at session boot, and `$LIVE start` is itself invoked *behind the Monitor tool*, so it becomes the long-running relay. So binding cannot happen at SessionStart directly. A **seed record** (daemon-held, in-memory — not a file) bridges the gap:\n*204|1. The harness's SessionStart hook calls **`spt api seed --pid <parent_pid> --session-id <sid> [cwd]`**. The daemon records an ephemeral in-memory **seed entry** keyed by `parent_pid` — the session details the spt-hosted topology would share directly, minus the not-yet-chosen `live_id`. The seed is **adapter-agnostic**: it carries no `adapter_name`. <!-- [doc->REQ-START-5] --> *Which* adapter/profile a session belongs to is resolved later, at bind, as a read against the live registry (below) — so one...\n 205|2. The agent runs `/spt:live <id>` → the adapter's `$LIVE start <id>` alias = **`$SPT listen <id>`** (= `spt api listen <id>`), invoked via Monitor. It self-discovers its `parent_pid`, the daemon matches the seed entry by that pid (validated against `session_id` to defeat PID-recycling — KNOWN-HAZARDS 5.1), **resolves the owning adapter/profile** (the bind-time resolution below), creates/revives the perch binding `live_id` ↔ session details, then enters the long-running relay loop streaming events ...\n*206|3. The always-on daemon holds the perch, spool, registry, and daemon-spawns the Psyche (via the spawn-psyche seam) — no separate wrapper. The relay is purely the delivery pipe.\n 207|   - Seed entry refreshed on each SessionStart (keeps `session_id` current across `/clear`, since `parent_pid` is stable while the harness process persists). If a harness has no SessionStart-equiv, `start` may carry the details directly as args — the seed is the preferred convenience, not the only path.\n 208|   - The same seed + bind-time resolution serves a **ReadyAgent** bringup (`$SPT ready`/poll), not just a LiveAgent — a harness-hosted ready agent is seeded and resolved identically (it just binds a poll listener, no Psyche).\n 209|\n...\n 262|<!-- [doc->REQ-MSG-6] -->\n*263|_Implemented posture_: the **local** user-backed origins are honored end-to-end — a locally-hosted Gateway endpoint (info.json `state=\"gateway\"`) and the local user's CLI (M9-T4/T5). The **cross-node WAN** path is being completed (trust posture **ratified 2026-06-13**): the **subnet membership boundary is the trust boundary**. A subnet is a collection of machines the user already trusts, so a `user-msg` arriving over the subnet from a **Gateway-typed** origin is honored as the user's authority; the dae...\n 264|\n 265|A Gateway endpoint binary is revived by **existing machinery only** (settled 2026-06-12, two corrections deep): while running, the bridged device's link liveness drives ordinary **instance state** (sustained device silence → dormant; device contact → active — the driver-attach rule). Across a node restart, revival rides a **co-located shell's wake-watcher** — the Gateway typically owns a shell instance on its own gateway host; that shell's offline wake-watcher (one of the two classes of third-par...\n 266|_Avoid_: calling a Gateway a Shell or an agent; \"console\", \"remote\".\n...\n 282|**instance state (active / dormant / suspended / offline)**:\n*283|The four liveness states a per-endpoint registry row (`registry::Status`) advertises across the subnet. The **active/dormant pair is the multi-instance routing differentiator**: an endpoint may run on several nodes at once (cross-node context sync) — the **active** instance is the bare-`id` routing target, its live siblings are **dormant**. The canonical meaning (the resting state machine, `resting.rs`, implements active/dormant/suspended; offline is registry-only):\n 284|- **active** — the **actively-driven** instance: the one a bare-`id` message resolves to. (Driving `ling@laptop` makes `ling@desktop` **dormant**.)\n 285|- **dormant** — **warm** (still running / in-memory) but **not the active target** — a sibling took attention (`AttentionShift`) or the driver detached (`Detach`). Genuinely *available* (a valid routing fallback) — the picker shows it online. Decays to *suspended* via an auto-suspend timer.\n 286|- **suspended** — **cold**: the session is closed, **resumed-on-wake**, but **its node is up** (the daemon still gossips the row); still **addressable** (a `wake` must route).\n...\n 357|\n*358|**Not in the subnet registry.** Shell perches are private to the agent↔shell link, not a general messaging surface — they are nested under the owner (`perches/<endpoint_id>/shells/<adapter>-<n>/`) and not registry-advertised like agent endpoints. The perch `info.json` carries only `type=Shell`, `owner`, `adapter_name`, `status` (online|offline), and an optional `alias` — the capability set is resolved from the shell adapter manifest by `adapter_name`, not duplicated on the perch.\n 359|\n 360|**Shell-relevant commands:** agent/user surface — `spt shell spawn <shell_adapter> [--id]`, `shell list`, `shell relink <id>`, `shell teardown <id>`, `shell cmd <id> <op…>` (or ordinary `send` of a typed command payload), and **`spt endpoint shutdown`** (an agent gracefully shuts down *its own* endpoint → suspended; fires the transition echo-commune; cascades its persistent shells offline). Machinery `api` surface — `api bind` (type=Shell), `api poll` (relay delivery), `api emit --type <sensory_t...\n 361|\n...\n 522|\n*523|**peer pump**: the **one supervised daemon loop** driving all outbound cadenced peer traffic — registry advertisement, notif push, sync pull, update check — against every roster member of every attached subnet. The pump owns *when* and *toward whom*: the scheduling kernel (in-memory stagger-from-due-now cadences + wake markers — deliberately **not** deadline-grid converted, ADR-0018 `[V4]`; no per-loop timing writes), the per-round shared store loads, the per-subnet × per-peer fan-out (connection ...\n 524|\n*525|**pump worker**: a cadenced consumer module behind the pump's **worker seam** — one each for registry, notif, sync, update. A worker declares its cadence, optionally consumes its wake marker (`poll_wake` — the exactly-once filesystem take stays at the worker edge, the scheduling kernel stays pure), runs optional node-local **pre-round** work once per due round (e.g. the registry worker's eviction sweep → rotation fire → re-advertise ordering), and a per-peer **peer step** over the pump-provided c...\n 526|_Avoid_: calling an individual leg a \"pump\" (the loop is *the* pump; the legs are workers); giving a worker its own `EpochSource` over the shared op counter (sole-writer: the pump's, KH epoch-lease class).\n 527|\n 528|### Cross-node Psyche sync\n 529|\n*530|**Sync scope is subnet-exclusive by default.** An endpoint's mind replicates only within **one subnet** unless told otherwise. Endpoint config carries a **subnet-membership list** for sync: the context syncs across the nodes of *every* subnet in that list, defaulting to just the endpoint's home subnet. This is distinct from registry *visibility* (*endpoint visibility*) — being addressable in a subnet does not imply replicating your mind there; mind-replication into a subnet requires that subnet to be i...\n 531|\n 532|The context is a local git repo with `a-<endpoint_id>` (per-agent) and `p-<project_id>` (per-project) branch views. Sync has **two transport modes** (full mechanics: `docs/STORAGE.md`):\n 533|- **P2P (default):** the data syncs between a user's nodes over the built-in P2P networking — **no `gh`/account/setup**, the no-central-operator promise. Replaces modern SPT's required GitHub-remote sync.\n*534|- **Hub (opt-in, `spt context-github-setup`):** every node pull→merge→pushes against a private GitHub remote — an always-online sync hub *and* a convenient GUI view. Uses a **shared deploy key** distributed as subnet secret material, so only the setup node needs a GitHub account; other nodes use the key over SSH, with **P2P as backstop**. Hub mode is the **context-repo sync transport only** — messaging, registry, remote-drive, pairing, and presence always ride P2P; gh-on never removes the P2P req...\n 535|\n 536|**The gh-repo interim is retired** (M4-D9-6, after the two-host rig proof): during the pre-P2P era the sister project's `gh-repo-sync` skill (and the `spt-agent-storage` private repo wired by `psyche-sync-setup`) was *the* cross-machine context transport. With P2P sync proven end-to-end on real hardware (`docs/TWO-HOST-RUNBOOK.md`), that interim stands down — the sister skill is no longer part of the sync path. `psyche-sync-setup` remains only as the **hub-mode seam** (the opt-in transport above), not ...\n 537|\n## Cargo.lock\n 7|version = \"0.8.2\"\n*8|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 9|checksum = \"598381761ee991bf2f1455f700380e2191fb370dc9df1ee764f348b7f089d8b6\"\n 10|dependencies = [\n 11| \"parking_lot\",\n...\n 22|version = \"0.5.2\"\n*23|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 24|checksum = \"d122413f284cf2d62fb1b7db97e02edb8cda96d769b16e443a4f6195e35662b0\"\n 25|dependencies = [\n 26| \"crypto-common 0.1.7\",\n...\n 32|version = \"0.8.4\"\n*33|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 34|checksum = \"b169f7a6d4742236a0a00c541b845991d0ac43e546831af1249753ab4c3aa3a0\"\n 35|dependencies = [\n 36| \"cfg-if\",\n...\n 43|version = \"0.10.3\"\n*44|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 45|checksum = \"831010a0f742e1209b3bcea8fab6a8e149051ba6099432c8cb2cc117dec3ead1\"\n 46|dependencies = [\n 47| \"aead\",\n...\n 57|version = \"0.8.12\"\n*58|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 59|checksum = \"5a15f179cd60c4584b8a8c596927aadc462e27f2ca70c04e0071964a73ba7a75\"\n 60|dependencies = [\n 61| \"cfg-if\",\n...\n 69|version = \"1.1.4\"\n*70|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 71|checksum = \"ddd31a130427c27518df266943a5308ed92d4b226cc639f5a8f1002816174301\"\n 72|dependencies = [\n 73| \"memchr\",\n...\n 78|version = \"0.2.21\"\n*79|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 80|checksum = \"683d7910e743518b0e34f1186f92494becacb047c7b6bf616c96772180fef923\"\n 81|\n 82|[[package]]\n...\n 84|version = \"0.1.5\"\n*85|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 86|checksum = \"819e7219dbd41043ac279b19830f2efc897156490d7fd6ea916720117ee66311\"\n 87|dependencies = [\n 88| \"libc\",\n...\n 93|version = \"1.0.0\"\n*94|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 95|checksum = \"824a212faf96e9acacdbd09febd34438f8f711fb84e09a8916013cd7815ca28d\"\n 96|dependencies = [\n 97| \"anstyle\",\n...\n 108|version = \"1.0.14\"\n*109|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 110|checksum = \"940b3a0ca603d1eade50a4846a2afffd5ef57a9feac2c0e2ec2e14f9ead76000\"\n 111|\n 112|[[package]]\n...\n 114|version = \"1.0.0\"\n*115|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 116|checksum = \"52ce7f38b242319f7cabaa6813055467063ecdc9d355bbb4ce0c68908cd8130e\"\n 117|dependencies = [\n 118| \"utf8parse\",\n...\n 123|version = \"1.1.5\"\n*124|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 125|checksum = \"40c48f72fd53cd289104fc64099abca73db4166ad86ea0b4341abe65af83dadc\"\n 126|dependencies = [\n 127| \"windows-sys 0.61.2\",\n...\n 132|version = \"3.0.11\"\n*133|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 134|checksum = \"291e6a250ff86cd4a820112fb8898808a366d8f9f58ce16d1f538353ad55747d\"\n 135|dependencies = [\n 136| \"anstyle\",\n...\n 143|version = \"1.0.102\"\n*144|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 145|checksum = \"7f202df86484c868dbad7eaa557ef785d5c66295e41b460ef922eca0723b842c\"\n 146|\n 147|[[package]]\n...\n 149|version = \"0.3.9\"\n*150|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 151|checksum = \"76a2e8124351fda1ef8aaaa3bbd7ebbcb486bbcd4225aca0aa0d84bb2db8fecb\"\n 152|\n 153|[[package]]\n...\n 155|version = \"0.7.6\"\n*156|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 157|checksum = \"7c02d123df017efcdfbd739ef81735b36c5ba83ec3c59c80a9d7ecc718f92e50\"\n 158|\n 159|[[package]]\n...\n 161|version = \"0.1.89\"\n*162|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 163|checksum = \"9035ad2d096bed7955a320ee7e2230574d28fd3c3a0f186cbea1ff3c7eed5dbb\"\n 164|dependencies = [\n 165| \"proc-macro2\",\n...\n 172|version = \"0.3.3\"\n*173|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 174|checksum = \"b6d7b9decdf35d8908a7e3ef02f64c5e9b1695e230154c0e8de3969142d9b94c\"\n 175|dependencies = [\n 176| \"futures\",\n...\n 183|version = \"1.0.3\"\n*184|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 185|checksum = \"8cf2bce30dfe09ef0bfaef228b9d414faaf7e563035494d7fe092dba54b300f4\"\n 186|dependencies = [\n 187| \"critical-section\",\n...\n 192|version = \"1.1.2\"\n*193|source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 194|checksum = \"1505bd5d3d116872e7271a6d4e16d81d0c8570876c8de68093a09ac269d8aac0\"\n 195|\n 196|[[package]]\n## Cargo.toml\n 11|resolver = \"2\"\n*12|members = [\"crates/spt-proto\", \"crates/spt-store\", \"crates/spt-msg\", \"crates/spt-net\", \"crates/spt-term\", \"crates/spt-runtime\", \"crates/spt-live\", \"crates/spt-daemon\", \"crates/spt\", \"adapters/mock\", \"crates/xtask\"]\n 13|\n 14|# M6-D6 (grill decision 9): ONE shared version for every crate and the binary\n 15|# — the product version (v0.1.0 tag, `spt --version`). The wire-protocol\n## F-018-ADAPTER-ADD-NONDESTRUCTIVE-DESIGN.md\n 34|**active** registered record's `source_dir` canonicalises to that dest. Use\n*35|`spt_runtime::registry::registered(&adapters)` (or `all_records` filtered to\n 36|`active`), compare `record.source_dir == dest` (path-normalised — both are built\n 37|the same way, so a string/`Path` compare on the joined value is sufficient; if\n 38|unsure, compare via `std::path::Path`).\n## M0-PLAN.md\n 21|In: envelope/EVENT grammar + chunker, endpoint types, Ed25519 identity primitive,\n*22|wire-version, typed+binary payloads (proto); atomic-write, spool, perch layout, registry\n 23|persistence, info.json (store). Out (later milestones): daemon/broker (M2/M3), networking\n*24|& pairing (M4), live/Psyche (M2), terminal/PTY (M3), cross-node registry *resolution* (M4 —\n 25|M0 builds local persistence only).\n 26|\n 27|## Sequencing rationale\n...\n 30|framing → chunker (depends on framing) → types → identity → version/payloads. Within store:\n*31|atomic-write first (everything else writes through it) → spool → perch layout → registry →\n 32|info.json. Each task lands its evidence tags + activates its reqs in the same commit\n 33|(TRACEABILITY rule 1), and `check` must be green before the next task.\n 34|\n...\n 53|| T10 | Perch layout + single path resolver (no flat/nested siblings) | copy/adapt `perch_path.rs` | REQ-HAZARD-SINGLE-PATH-SOURCE, -WORKER-PATH | all perch paths route one resolver; no divergent sibling layouts |\n*54|| T11 | Registry persistence + stale-entry cleanup (local; cross-node *resolution* deferred M4) | copy `registry.rs` | REQ-HAZARD-REGISTRY-STALE-CLEAN; R-INST-7 (partial: local) | stale (dead-PID) entry cleaned before lookup; never hard-fails on stale |\n 55|| T12 | `info.json` shape + torn-read tolerance (atomic write + read-retry) | copy verbatim | REQ-HAZARD-INFO-JSON-TORN-READ | concurrent read during write yields valid or retried, never torn |\n 56|\n 57|## Tasks — infra\n...\n 71|- **Store:** EBUSY-RENAME, UNC-PATH-STRIP, DEFERRED-DRAIN, DEFERRED-SURVIVE-DRAIN,\n*72|  SINGLE-PATH-SOURCE, WORKER-PATH, REGISTRY-STALE-CLEAN, INFO-JSON-TORN-READ; R-INST-7 (partial).\n 73|\n 74|**Stay `[]` (later milestones):** all R-NET/R-PAIR (M4), R-DAEMON/R-API/R-SEAM/R-START (M2),\n 75|R-TERM (M3), R-UPD (M3), R-INST-1..6/8 cross-node (M4), R-REACH (M4), the lifecycle/live hazards.\n...\n 92|- **T8–T12 `spt-store`:** atomic write (EBUSY retry) + UNC strip, SQLite spool\n*93|  (deferred-aware), perch resolver, registry (stale-clean), info.json\n 94|  (torn-read tolerant).\n 95|- **T13–T14:** CI matrix + traceability hard gate; activation sweep.\n 96|\n## M1-PLAN.md\n 12|send/ring/ready) and the `spt` binary + CLI, layered on the M0 crates\n*13|(`spt-proto` envelope/payload, `spt-store` spool/registry/perch/info).\n 14|\n 15|**M1 done =** `spt-msg` + `spt` compile · `cargo test --workspace` green · an E2E\n 16|test proves two local ready-agents exchange a message (live TCP path **and**\n...\n 22|In: localhost TCP delivery with spool fallback, target→address routing via the\n*23|registry, reply routing, ready-agent lifecycle (register perch + listener + drain\n 24|spool), `ring` (send-and-wait), deferred (hook-channel) send, the `spt` binary +\n 25|CLI (`send`/`ring`/`ready`/`poll`/`list`/`stop`/`whoami`).\n 26|\n...\n 50|  spool fallback when the target is offline/unreachable; target id → address via\n*51|  the registry (stale-clean first); reply routing (`__REPLY_TO__`).\n 52|- **`REQ-MSG-2`** — `spt` binary CLI surface: `send` / `ring` / `ready` / `poll` /\n 53|  `list` / `stop` / `whoami`, stable arg shapes + exit codes.\n 54|- **`REQ-MSG-3`** — Ready-agent lifecycle: register perch (info.json + listener +\n*55|  registry address) on `ready`, drain spooled backlog on startup, clean teardown.\n 56|\n 57|## Tasks — `spt-msg`\n 58|\n...\n 61|| T1 | TCP wire framing + loopback listener socket (length-framed envelope lines) | copy `protocol.rs` + `poll.rs` socket setup | REQ-MSG-1 | listener binds an ephemeral localhost port; one framed envelope round-trips client→listener |\n*62|| T2 | Delivery: TCP-first, spool-fallback + registry routing + reply routing | copy `send.rs` `deliver_message`/`run`/`run_reply` | REQ-MSG-1; REQ-HAZARD-WINDOWS-PID-RECYCLE, -INBOX-NO-DOUBLE | online target receives via TCP; offline target spools; recycled-pid address never misdelivers; no double-delivery |\n 63|| T3 | Ready-agent lifecycle: `ready` registers perch (info.json T12 + listener + `register_address` T11), drains spool backlog (`drain_non_deferred` T9) on startup | copy `poll.rs` startup + `setup.rs` | REQ-MSG-3; REQ-HAZARD-SOFT-CLEANUP (6.2) | `ready` is resolvable + reachable; backlog drains on start; soft-cleanup removes only the ready marker, preserves spool |\n 64|| T4 | `ring`: send + block for reply; ephemeral reply-perch created + cleaned on **every** exit path | copy `ring.rs` | REQ-MSG-1; REQ-HAZARD-EPHEMERAL-CLEANUP (3.1) | ring returns the reply; the ephemeral perch is gone on success, timeout, AND error |\n 65|| T5 | Deferred send: spool-only, no listener wake (hook channel) | copy `send.rs` `run_deferred` | REQ-MSG-1 (+ DEFERRED-SURVIVE-DRAIN, covered M0) | deferred send writes a deferred row; event-stream drain skips it; hook drain delivers it |\n...\n 99|\n*100|Add `crates/spt-msg` to `members`. Layering stays acyclic (R-ARCH-1):\n 101|`spt-proto → spt-store → spt-msg`; the `spt` binary is the top consumer.\n 102|\n 103|## Risks carried into M1\n...\n 107|  move, not a rewrite. (KNOWN-HAZARDS 1.1 maps the eventual single-writer model.)\n*108|- **Loopback port churn + stale registry.** A crashed listener leaves a stale\n 109|  address; M0's `resolve_address` (clean-stale-before-lookup) is the guard —\n 110|  exercise it under the recycled-pid hazard in T2.\n 111|- **Ephemeral ring perch leak** (3.1) is the classic ring bug — test cleanup on the\n...\n 144|  EPHEMERAL-CLEANUP / INBOX-NO-DOUBLE / SOFT-CLEANUP / WINDOWS-PID-RECYCLE\n*145|  `[impl,unit]`. REQ-INST-7 stays partial (local routing only; cross-node = M4).\n 146|  R-ARCH-1 grew two crates (build-evidenced; no stage change).\n## M11-PLAN.md\n 224|    Add `HOW_TO_SUBNET` text (the create / show-code / join pairing flow + 6-digit code)\n*225|    + the registry entry + bump the v1-lock test (the names-vec assertion + the\n 226|    topic-content asserts). Subnet/pairing is the highest-value first-run flow and\n 227|    currently dead-ends — closes the `ready`/`send` asymmetry.\n 228|- **T5.3 — traceable `check` EXIT 0**, full suite green both runners, gate.\n## M12-W1-PLAN.md\n 35|- **Manifest**: `spt-runtime/src/manifest.rs:165` `Session.self_` (`[session.self]`),\n*36|  `SessionRole{command,cwd,detach,env_remove,keys,...}` (:234). `registry::resolve_option(_in)`\n 37|  splits composite `<adapter>:<profile>` → merged manifest (leaf-replace overlay).\n 38|- **CLI**: `spt/src/cli.rs:201-335` `EndpointCmd` enum; dispatch `:879-908`. Add `Run{...}`\n 39|  variant + a top-level `Rc{id,view}` command (rc is top-level per plan, not under endpoint).\n...\n 145|  confirm broker path is clean). 2.4 gen_start fresh on cold-start (don't rehydrate). 4.10\n*146|  registry eviction (perch registration is daemon-authoritative).\n 147|\n 148|## Build order  (status 2026-06-14)\n 149|1. [DONE] Bind/register seam traced (decision b: spawn-first, harness self-registers).\n## M12-W1.5-PLAN.md\n 10|## The invariant (doyle, binding)\n*11|ONE `serve_attach` pump. Transport is swappable UNDER the stream. Cross-node = QUIC conn;\n 12|local = broker loopback conn. Both surface as broker net-stream events (`NetStreamData` /\n 13|`net_stream_subscribe` / `net_stream_send`) so `serve_attach` (target) + the `rc::pump`\n 14|(operator) are unchanged. The W1.5 int test MUST assert both transports hit the same pump.\n## M12-W2-PLAN.md\n 32|  fresh unless `--resume`); no kick/instantiate/fork-from-run flags.\n*33|- **Adapter + profile enumeration:** `registry::resolve_option` (split `<adapter>:<profile>`\n 34|  → parent lookup → overlay). Profiles live at `adapters/<adapter>/profiles/<profile>.toml`;\n*35|  `registry.rs:local_profiles_dir` + read_dir enumerate them (need a tidy \"list harness\n 36|  adapters + their profiles\" helper for L2; building blocks present). `AdapterKind::Harness`\n 37|  gates the harness-only list.\n 38|- **Endpoint discovery:** `roster::enumerate()` (local perches: state/ready/alive) +\n*39|  `roster::detect_self_id`; `wansend::load_snapshots(identity/registry)` per-subnet snapshots\n 40|  → `resource_projection(reg, hidden_fn)` = visible+routable rows `(endpoint_id, node, status,\n 41|  resources)`; `VisibilityStore` + `SubnetStore`. This is the L2 pick-existing data spine.\n*42|- **Status:** registry `Status{Active,Dormant,Offline,Suspended}` → online/offline mapping.\n 43|  **\"Attached\" (blue ■) has no obvious query** (see Q1).\n 44|- **Endpoint description:** `spt_store::info::read_info().resources` (the `endpoint\n 45|  description` blurb).\n...\n 192|### Verified source surfaces (build directly on these)\n*193|- `registry::registered(adapters_dir) -> Vec<(AdapterRecord, Manifest)>` + `all_records`;\n*194|  `manifest.profiles.keys()` = shipped profiles; `registry::local_profile_names` = locals;\n 195|  `AdapterKind::Harness` gate. (L2 adapter→profile tree.)\n*196|- `roster::enumerate()` / `detect_self_id`; `wansend::load_snapshots(identity/registry)` +\n 197|  `resource_projection(reg, hidden_fn)` (`endpoint_id, node, status, resources`);\n 198|  `VisibilityStore` + `SubnetStore`. (Pick-existing spine + status.)\n 199|- `spt_store::info::read_info(perch).resources` (endpoint description);\n...\n 214|  rendered buffer for screen-state unit tests; the live key loop is the manual-verify leg.\n*215|- ADR-0001 territory only if any wire/registry format changes (Q1 attach-presence op would\n 216|  be) — else clean-room. Additive `Run{}` flags are N-1-safe.\n 217|- UNCOMMITTED building until the operator calls a commit (their per-wave pacing).\n## M12-W2.5-PLAN.md\n 69|\n*70|**Q4 — registry/info shape for controller + viewer count.**\n 71|Keep `info::driven_by: Option<String>` = the **controller node** (unchanged semantics). Add an\n 72|additive `info::viewer_count: u32` (`#[serde(default)]` = 0). **The broker is the single writer**\n 73|(it owns the `viewers` map) — it stamps `viewer_count` on every viewer add/remove, so there is **no\n## M12-W2.5-RULING.md\n 63|attach** (= `--take`). Both route through the EXISTING attach dispatch (W2 single-bringup-path\n*64|invariant holds — role is a parameter, not a new path). The registry/info needs controller identity\n 65|+ viewer count (extend `driven_by` → controller + a viewer tally).\n 66|\n 67|## REQs (todlando's granularity, lean below)\n...\n 82|   whether viewers get any input at all (scroll keys?) or truly zero input.\n*83|4. Registry/info shape for controller + viewer count (extend `driven_by`, or a new field).\n 84|5. Does `--take` demote the old controller to a viewer, or fully detach it? (CONTEXT.md says\n 85|   \"displaces\" — lean detach + loud notice; confirm.)\n 86|\n## M12-W3-PLAN.md\n 18|- Local profiles: `adapters/<adapter>/profiles/<profile>.toml` (REQ-MANIFEST-2). `<adapter>:<profile>`\n*19|  composite address already parsed by `registry::resolve_option`.\n 20|- **No per-adapter aux/data file-storage location exists** beyond `profiles/` (confirmed).\n 21|- **No node-wide cross-adapter fallback SETTING is implemented yet** — CONTEXT.md:137 describes it\n 22|  (\"node-wide setting, not a manifest field; falls back to another adapter e.g. ccs\") but no\n## M12-W3-RULING.md\n 5|> - `strings: toml::Table` opaque, REQ-MANIFEST-3, dot-path via `profile::string_at` — manifest.rs:66-75 ✓\n*6|> - `get_string` resolves through `resolve_option` (already `<adapter>:<profile>`-aware) — registry.rs:377-384 ✓\n 7|> - `fallback_adapter` exists ONLY in docs (CONTEXT.md:137, MANIFEST.md) — NO `.rs` consumer ✓\n 8|\n 9|## T3.1 — file-backed `[strings]` — APPROVED with guards\n...\n 41|- **Do NOT add a config field with no reader.** No new impl REQ unless genuinely new surface appears\n*42|  — tag unit + doc stages only (fold under an existing MANIFEST/registry REQ if one fits).\n 43|\n 44|**Escalation clause:** if during build you find spt-claude-code is genuinely BLOCKED without an\n 45|authored fallback seam, STOP and escalate to me — don't build speculative config.\n\n## .config/\n### nextest.toml\n 39|# deterministic (a cap > 1 still lets two real brokers race = lucky, not reliable).\n*40|# Group membership == the <HEAVY> phase filter. (Driver-pacing in inject_control_wedge\n 41|# additionally removes that gate's self-inflicted CPU storm — a correctness nicety on\n 42|# top of the structural split.)\n 43|[test-groups]\n\n## .github/workflows/\n### ci.yml\n 38|      # drops only starvation noise, never wedge detection; local keeps the tight 30s\n*39|      # default. Mirrors the SPT_REGISTRY_BUSY_TIMEOUT_MS env-knob precedent.\n 40|      SPT_ATTACH_GATE_WATCHDOG_MS: \"120000\"\n 41|      # Concurrent-attach per-IPC-call READ-deadline headroom (the result-gating\n 42|      # cold_start_pump brains: a_journaled / p0_paste attachers, drivers, viewer,\n### release.yml\n 27|      matrix:\n*28|        # Asset names MUST match the SUPPORTED_PLATFORMS registry rows\n 29|        # (crates/spt-daemon/src/release.rs) — the update-set + installer key on\n 30|        # them. `target` empty = the host-default toolchain (gnu / msvc); a set\n 31|        # `target` cross-builds that Rust triple (the static musl tier, W3).\n...\n 110|        # The `spt-x86_64-*` glob picks up every platform binary the build matrix\n*111|        # produced (gnu, windows, musl, and any future registry row) — no\n 112|        # per-platform literal to keep in sync with SUPPORTED_PLATFORMS.\n 113|        # [impl->REQ-RELEASE-MUSL-ARTIFACT]\n 114|        run: |\n\nShowing files 1-20 of 328+. 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The full contract is `docs/TRACEABILITY.md`. The rules you must follow:\n 16│\n 17│1. **Tag evidence in the same change.** When you write a function/test/doc-section that satisfies a requirement stage, add its tag in that same commit:\n 18│   `// [impl->REQ-FOO]` · `// [unit->REQ-FOO]` · `<!-- [doc->REQ-FOO] -->`\n## CHANGELOG.md\n 168│  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\n*169│  members but showed an empty live-node list and warned that the peer pump had\n 170│  stalled. An unresponsive peer is now dropped and retried on its own instead of\n 171│  holding up the round, so the node keeps converging and peers reappear.\n 172│\n    │...\n 223│\n*224│A join-truth release: joining a subnet now tolerates a skewed or stepped system clock so it finds members it used to silently miss, no longer raises the elevated-permission prompt before a member is actually found, and can show the exact ceremony clock it is using — plus a loud warning when no time server can be reached.\n 225│\n 226│### Added\n 227│\n    │...\n 236│\n*237│- **Join now finds members it used to miss when the clock is off.** The pairing ceremony clock is corrected against NTP (and re-steps when the system clock jumps), so a joiner whose machine clock is skewed no longer silently fails to meet a subnet member.\n 238│- **A failed join now reports the joiner's own clock in the failure detail.** The `spt subnet join --verbose` failure block now also carries the joiner's daemon-side ceremony clock (time-step, offset, and corrected/uncorrected state), so a met-then-refused join shows the clock state on both sides instead of leaving the joiner's half unexplained.\n 239│\n 240│## [0.27.0] - 2026-07-06\n    │...\n 430│\n*431│- **`spt rc` can now attach to an endpoint running on another node.** Previously `spt rc <endpoint>` only resolved endpoints with a live session on the local machine — a cross-node `Active` endpoint (visible in `spt endpoint list`) failed with `no live session for endpoint`. `rc` now resolves the owning node from the registry and attaches over the network, so you can drive a remote endpoint the same way you drive a local one.\n 432│\n 433│### Changed\n 434│\n*435│- **`spt endpoint list` now labels the local machine by name.** The `LOCAL (this node)` header is now `This node: <node-id>`, so a listing captured from one machine is unambiguous about which node produced it.\n 436│- **`spt endpoint list` uses the same status codes and colored markers as the `spt endpoint run` picker.** The non-interactive listing previously printed raw, text-only status; it now renders the picker's colored square glyphs and status vocabulary, so both surfaces read identically.\n 437│- **`spt endpoint run` groups endpoints by machine instead of by subnet.** A machine that shares two subnets with you used to appear twice (once per subnet) with duplicate endpoints; it now shows as a single group with the shared subnets listed beneath the machine name.\n 438│- **A lone detached endpoint no longer reads as `Dormant`.** `Dormant` is the multi-instance routing state; a single detached instance now displays as online instead of borrowing that label.\n    │...\n 743│- **Update an adapter from a GitHub release, optionally signature-checked.** An adapter's `[update]` feed can now be a GitHub release (`avenue = \"gh_release\"`); `spt adapter update` pulls the newer `.spt`. Declare a `signing_key` and verification is fail-closed — an unsigned or wrong-signature artifact is refused, not installed.\n*744│- **`spt api` resolves an adapter's manifest and install directory from `--adapter`.** Pass `--adapter <name[:profile]>` without `--manifest` and spt looks both up from the registry; `--manifest` becomes an override for an unregistered or local manifest.\n 745│\n 746│### Fixed\n 747│\n    │...\n 881│\n*882│- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\n*883│  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\n 884│- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\n 885│- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\n 886│- **`spt daemon status` shows what manages the daemon** — whether a service owns it (and is active) or it was started by hand.\n    │...\n 916│- **Leave a subnet:** `spt subnet leave <name>` removes the subnet and its trust completely from this node.\n*917│- **Clean up dead nodes:** `spt subnet prune <node>` removes a stale node's trust so this machine stops trying to reach it. You can name the node by its hostname label, a key prefix, or the full key; it refuses if the name is ambiguous or refers to yourself.\n 918│- **Node names in `spt subnet status --nodes`.** Each node now shows its hostname label and can be addressed as `@<hostname>` in commands. Nodes that aren't running any endpoints still show their hostname instead of a bare key.\n 919│- **Automatic re-pair cleanup.** If you reinstall or regenerate a node's identity and pair it again from the same machine under the same name, its old, now-dead identity is removed automatically during pairing — no manual prune needed.\n 920│- **Firewall setup on Windows.** The installer (when run elevated) now adds the inbound network rule `spt` needs so other nodes can reach you. If it wasn't added, `spt subnet status` and the \"coming online\" banner now tell you the rule is missing and print the exact command to add it.\n    │...\n 933│- **Pairing works on machines with a wrong clock.** Pairing now checks network time and tolerates a node whose system clock is off by more than a minute (which previously made pairing fail silently). If network time can't be reached, it falls back to the local clock as before; it never changes your system clock.\n*934│- **Faster first sync after joining or restarting.** `spt` now remembers peers' last known addresses, so after a join — or after the daemon restarts — other nodes reappear in `spt subnet status --nodes` in seconds instead of taking up to a minute.\n 935│- **Endpoints going online/offline show up almost immediately.** When an endpoint starts or stops, peers now see the change in `spt subnet status --nodes` within seconds instead of waiting for the next sync cycle.\n 936│\n 937│### Fixed\n    │...\n 942│- **`sudo spt …` now works on Linux user installs.** When `spt` is installed to your user directory, elevation guidance that said to \"run as administrator/root\" used to dead-end with `sudo: spt: command not found`. The installer now also makes `spt` reachable under `sudo`, and on an interactive terminal `spt` re-runs itself with `sudo` automatically; otherwise it prints a command that actually works.\n*943│- **Elevated `spt` on Linux runs under your account, not root.** The first time you run an elevated `spt`, it asks once which account should own the daemon and its data, remembers that choice, and every later `sudo spt` runs the daemon and stores state under that account — never as root.\n 944│- **`spt daemon stop` on Windows now finds the daemon it started.** A daemon launched through Windows' elevation prompt could end up using the wrong home directory, so `spt daemon stop` reported \"daemon not running\" while a daemon kept running. It now keeps the right home directory across that elevation step.\n 945│- **Removed a confusing internal status line.** `spt` no longer prints the internal \"DEELEVATED: running as uid …\" notice during normal use.\n 946│- **Stale node rows clear out on their own.** Nodes that haven't been heard from in a while are now removed from the listing automatically, so old/dead entries stop cluttering `spt subnet status`.\n## CLAUDE.md\n  8│\n *9│This project uses `traceable-reqs` (`traceable-reqs.toml` = the authoritative `REQ-*` registry). The full contract is `docs/TRACEABILITY.md`. The rules you must follow:\n 10│\n 11│1. **Tag evidence in the same change.** When you write a function/test/doc-section that satisfies a requirement stage, add its tag in that same commit:\n 12│   `// [impl->REQ-FOO]` · `// [unit->REQ-FOO]` · `<!-- [doc->REQ-FOO] -->`\n## CONTEXT.md\n  29│**spt-daemon** (per-machine supervisor):\n *30│The single always-on, one-per-machine logical supervisor. Owns the PTYs for all hosted sessions, the node's network identity + WAN endpoint, the subnet registry, all spools, **all poll-listener logic, and all Psyche/pulse loops** — everything is consolidated here (no separate poll-listener or Psyche-wrapper processes; listeners already touch sessions directly under capsule/idle, and Psyche wrappers already invoke harness binaries directly, so they belong in the one supervisor). Collapses what the siste...\n  31│\n  32│Internally the logical daemon is split into two implementation layers for seamless self-update (see Self-update):\n  33│- **broker** (stable \"kernel\") — holds *only* the un-transferable, must-not-die resources: PTY master fds, the spawned harness child processes, and listening network sockets. Minimal, dumb, versioned local IPC. Almost never updates.\n *34│- **daemon brain** (\"userspace\") — all logic (routing, registry, pulse/psyche loops, manifest parsing, update orchestration). Restarts freely on update; rehydrates from disk state and re-attaches to the broker's held handles.\n  35│\n  36│Logical addressing is unchanged — still one per-machine `spt-daemon`; the broker is an internal layer, not separately addressable. There is exactly **one broker per machine** (per `SPT_HOME`) — *not* one per endpoint: a single broker holds every hosted endpoint's resources, and it is present whenever the daemon runs, even with zero endpoints online (the bare-daemon case). It is therefore the always-present per-machine layer, which is why the single-daemon lock + liveness anchor belong to it.\n  37│\n    │...\n  65│**subcommand surface** (inbound half of the harness contract):\n *66│The stable set of `spt.exe <subcommand>` entry points that harnesses bind their own hook systems to. When the harness's runtime emits an event (subagent started, tool just invoked, user typed `/clear`, session crashed), the harness's hook fires a short-lived `spt.exe <subcommand>` invocation that mutates on-disk SPT state (perch registry, spool, etc.). spt-core publishes this surface; harnesses author the bindings.\n  67│\n  68│**Naming convention:** these inbound, machinery-facing commands are prefixed **`api `/`api-`** (e.g. `spt api bind`, `spt api state`) to distinguish them from the agent-facing verbs an agent invokes directly (`send`, `ring`, `ready`, …). The `api` namespace is the harness/adapter commands-API; the unprefixed namespace is the agent surface.\n  69│\n    │...\n  84│**File-backed strings** (M12-W3): a `[strings]` value MAY be a **file pointer** instead of an inline literal — a value-position table with **exactly one** key `file`: `skill = { file = \"skill.md\" }`. `get-string` resolves it to the file's **contents** (so large bodies — skill-instructions, hint text — stay out of the manifest). The exactly-one-key rule is the disambiguation: any other table shape stays an opaque nested strings tree (existing trees untouched), and `{ file = … }` is reserved as the...\n *85│_Avoid_: treating strings as config knobs for spt-core itself (those are global settings); \"adapter KV store\" as a separate registry; putting user files in the adapter-shipped `strings/` dir (clobbered by updates — use a local profile).\n  86│\n  87│**manifest substitution in `[strings]`** (ratified 2026-06-25, v0.16.0 update-arc grill):\n *88│`get-string` resolves a set of **adapter-static** substitution keys inside a returned string value at **read time** (lazily, like file-backed strings): **`{adapter_dir}`** — the registry record's precise `source_dir` (the install dir; survives updates; the same dir bare-program resolution already uses) — and **`{adapter_name}`**. Session-scoped keys (`{id}`/`{session_id}`/…) are **not** available: `get-string` carries no session context today, and a `get-string --session-id` for session-scoped subs...\n  89│_Avoid_: session-scoped substitution through bare `get-string`; reading this as spt-core executing a string (it never does — the adapter wrapper executes the resolved value).\n  90│\n  91│**keyword hints** (ratified 2026-06-12 — core milestone A):\n    │...\n 158│\n*159│**capability declaration** — which endpoint types a harness/node can host (a Pi node might host only Shells, never a LiveAgent). Static manifest list, consumed by the subnet registry so a node advertises its hostable types. Exact shape is design-open.\n 160│\n 161│**adapter-update seam** — file-pull or delegated-command (see Self-update). Locked.\n 162│\n    │...\n 165│- **Command templates are opaque.** spt-core never parses out a model/tool/flag — the adapter writes the whole command line; spt-core fills substitution keys and runs it.\n*166│- **A command template's program token resolves against the adapter install dir before PATH (since v0.8.0).** A `.spt` adapter ships its built binaries to the adapter's install dir (`adapters/_github/<safe>/` via `--release`/`--github`, or the record's `source_dir` under copy-mode), so a bare program name (e.g. `claude-spt-digest …`) binds to the shipped binary first and falls back to PATH when absent — a `.spt` that ships its binaries is **self-contained**, needing no PATH placement. <!-- [doc->REQ-...\n 167│- **Hook output capability is declared per harness-event** (`can_inject`). CC's Stop hook cannot inject context — that single fact drives the echo-gate sentinel + relay fallback. The manifest expresses it so spt-core knows when to fall back.\n 168│- **Env injection is asymmetric** (file-bridge-only-when-not-launcher, applied to env): spt-hosted sessions inherit env from the broker that spawns them; harness-hosted sessions need the harness's declared env channel. With `spt` on PATH the env table is small.\n*169│- **Cross-adapter fallback** is a **node-wide setting**, not a manifest field: if a Psyche/echo invocation under one adapter is rate-limited, spt-core falls back to another adapter (e.g. `ccs` — its own adapter, not a binary-swap). <!-- [doc->REQ-MANIFEST-6] --> A fallback **target is addressed as `<adapter>:<profile>`** (not just a bare adapter_name) and resolves through the one composite-addressing resolver (`registry::resolve_option`), so a fallback may select a shipped or local profile (`ccs`, `ccs...\n 170│- **Config knobs** (pulse period, echo-commune window, route-guard window, daily refresh) are spt-core **global settings** with optional **per-endpoint override** — never per-adapter.\n 171│- **Event-block vocabulary and file-drop filenames are fixed spt-core constants** (documented for adapter authors), not manifest-configurable. <!-- [doc->REQ-RESUME-CONTEXT-PULL] --> This includes the **checkpoint sentinel `!!checkpoint!!`** — the agent-checkpoint trigger an adapter embeds in a commune/signoff drop body (one bare token = checkpoint with default wake; a `!!checkpoint!! <text> !!checkpoint!!` pair makes the inter-marker text a custom wake directive). It is spt-core control metadata: spt-...\n 172│\n    │...\n 177│<!-- [doc->REQ-API-4] -->\n*178│**Manifest resolution from `--adapter` (since v0.8.0).** `spt api <cmd> --adapter <name[:profile]>` resolves the registered adapter's manifest, `:profile` overlay, and install dir from the registry when `--manifest` is omitted — a registered adapter's `api` calls need only `--adapter`. `--manifest <path>` becomes an optional **override** (an unregistered or local-dev manifest): when present, the manifest loads from that file and the install dir is its parent directory; when absent, both come from the r...\n 179│\n 180│- **`api bind`** — post-spawn boot bind (payload above). Skeleton→live.\n 181│- **`api listen`** — *long-running* relay/poll listener that an adapter-owned (harness-hosted) session owns as a child process; streams the daemon's events to the session's stdout. Distinct from the short-lived `api poll`. This is the heir to today's Monitor-bound `$LIVE start` poll loop.\n    │...\n 183│- **`api state <busy|idle>`** — adapter reports session activity; writes the activity/idle sentinel in the session perch. By default `api state idle` also writes the **echo-commune gate sentinel** (`.more-done`-equiv — modern spt couples them); `--no-gate` suppresses that coupling, and a standalone **`api echo-gate <set|clear>`** gives granular adapters explicit control over when echo communes may fire, independent of idle.\n*184│- **`api worker-start`** / **`api worker-stop`** — Worker (subagent) perch create/teardown under the parent (nested, registry-tracked).\n 185│- **`api worker-poll`** — a Worker (subagent) receives its queued messages (inbound from Self or sibling Workers).\n 186│- **`api boundary <clear|compact>`** — context-boundary report; **carries the new `session_id`** (it rotates on `/clear` or `/compact`), so the daemon rebinds the perch to the new session id while keeping the stable identity + `parent_pid` anchor. Authors a **Self-resume commune** (resume the Self session → commune file-drop) rather than a background echo — strong live-context signal at the boundary (see `docs/CONTEXT-MEMORY.md`). **Rotation credential** (ADR-0032): the proof of association for thi...\n 187│- **`api session-end`** — session stop/crash report → soft teardown by default (preserve perch + spool + tracked history for recovery — KNOWN-HAZARDS 6.2). **`--erase`** instead hard-wipes the perch and tracked history (for ephemeral/secondary adapters that act as robust agent-spawned-agent surfaces).\n 188│\n*189│**`spt endpoint purge <id>`** (CLI, not `api`) — the standalone, formal **full teardown**: wipe an endpoint and *every* record keyed on it. It is the dev/CI sibling of `api session-end --erase` (which is adapter-triggered at session end); `purge` is the explicit operator/test command for clean setup-and-reset. **Deliberately NOT consent-gated** — a local dev/test op, never a peer-visible action. **Offline-only**: it refuses a live / daemon-hosted endpoint (deleting records out from under a running ho...\n 190│_Avoid_: consent-gating it (it is intentionally ungated, for CI); treating it as a sync/remote op (local-only); a soft variant (purge is always the hard, full wipe — soft teardown is `endpoint stop`).\n 191│<!-- [doc->REQ-ENDPOINT-PURGE] -->\n 192│\n    │...\n 203│**Harness-hosted (e.g. spt-plugin; the harness binary is user-launched, harness is the parent).** Key constraint: the SPT *live agent* does not exist until the agent invokes start — the `live_id` isn't chosen at session boot, and `$LIVE start` is itself invoked *behind the Monitor tool*, so it becomes the long-running relay. So binding cannot happen at SessionStart directly. A **seed record** (daemon-held, in-memory — not a file) bridges the gap:\n*204│1. The harness's SessionStart hook calls **`spt api seed --pid <parent_pid> --session-id <sid> [cwd]`**. The daemon records an ephemeral in-memory **seed entry** keyed by `parent_pid` — the session details the spt-hosted topology would share directly, minus the not-yet-chosen `live_id`. The seed is **adapter-agnostic**: it carries no `adapter_name`. <!-- [doc->REQ-START-5] --> *Which* adapter/profile a session belongs to is resolved later, at bind, as a read against the live registry (below) — so one...\n 205│2. The agent runs `/spt:live <id>` → the adapter's `$LIVE start <id>` alias = **`$SPT listen <id>`** (= `spt api listen <id>`), invoked via Monitor. It self-discovers its `parent_pid`, the daemon matches the seed entry by that pid (validated against `session_id` to defeat PID-recycling — KNOWN-HAZARDS 5.1), **resolves the owning adapter/profile** (the bind-time resolution below), creates/revives the perch binding `live_id` ↔ session details, then enters the long-running relay loop streaming events ...\n*206│3. The always-on daemon holds the perch, spool, registry, and daemon-spawns the Psyche (via the spawn-psyche seam) — no separate wrapper. The relay is purely the delivery pipe.\n 207│   - Seed entry refreshed on each SessionStart (keeps `session_id` current across `/clear`, since `parent_pid` is stable while the harness process persists). If a harness has no SessionStart-equiv, `start` may carry the details directly as args — the seed is the preferred convenience, not the only path.\n 208│   - The same seed + bind-time resolution serves a **ReadyAgent** bringup (`$SPT ready`/poll), not just a LiveAgent — a harness-hosted ready agent is seeded and resolved identically (it just binds a poll listener, no Psyche).\n 209│\n    │...\n 262│<!-- [doc->REQ-MSG-6] -->\n*263│_Implemented posture_: the **local** user-backed origins are honored end-to-end — a locally-hosted Gateway endpoint (info.json `state=\"gateway\"`) and the local user's CLI (M9-T4/T5). The **cross-node WAN** path is being completed (trust posture **ratified 2026-06-13**): the **subnet membership boundary is the trust boundary**. A subnet is a collection of machines the user already trusts, so a `user-msg` arriving over the subnet from a **Gateway-typed** origin is honored as the user's authority; the dae...\n 264│\n 265│A Gateway endpoint binary is revived by **existing machinery only** (settled 2026-06-12, two corrections deep): while running, the bridged device's link liveness drives ordinary **instance state** (sustained device silence → dormant; device contact → active — the driver-attach rule). Across a node restart, revival rides a **co-located shell's wake-watcher** — the Gateway typically owns a shell instance on its own gateway host; that shell's offline wake-watcher (one of the two classes of third-par...\n 266│_Avoid_: calling a Gateway a Shell or an agent; \"console\", \"remote\".\n    │...\n 282│**instance state (active / dormant / suspended / offline)**:\n*283│The four liveness states a per-endpoint registry row (`registry::Status`) advertises across the subnet. The **active/dormant pair is the multi-instance routing differentiator**: an endpoint may run on several nodes at once (cross-node context sync) — the **active** instance is the bare-`id` routing target, its live siblings are **dormant**. The canonical meaning (the resting state machine, `resting.rs`, implements active/dormant/suspended; offline is registry-only):\n 284│- **active** — the **actively-driven** instance: the one a bare-`id` message resolves to. (Driving `ling@laptop` makes `ling@desktop` **dormant**.)\n 285│- **dormant** — **warm** (still running / in-memory) but **not the active target** — a sibling took attention (`AttentionShift`) or the driver detached (`Detach`). Genuinely *available* (a valid routing fallback) — the picker shows it online. Decays to *suspended* via an auto-suspend timer.\n 286│- **suspended** — **cold**: the session is closed, **resumed-on-wake**, but **its node is up** (the daemon still gossips the row); still **addressable** (a `wake` must route).\n    │...\n 357│\n*358│**Not in the subnet registry.** Shell perches are private to the agent↔shell link, not a general messaging surface — they are nested under the owner (`perches/<endpoint_id>/shells/<adapter>-<n>/`) and not registry-advertised like agent endpoints. The perch `info.json` carries only `type=Shell`, `owner`, `adapter_name`, `status` (online|offline), and an optional `alias` — the capability set is resolved from the shell adapter manifest by `adapter_name`, not duplicated on the perch.\n 359│\n 360│**Shell-relevant commands:** agent/user surface — `spt shell spawn <shell_adapter> [--id]`, `shell list`, `shell relink <id>`, `shell teardown <id>`, `shell cmd <id> <op…>` (or ordinary `send` of a typed command payload), and **`spt endpoint shutdown`** (an agent gracefully shuts down *its own* endpoint → suspended; fires the transition echo-commune; cascades its persistent shells offline). Machinery `api` surface — `api bind` (type=Shell), `api poll` (relay delivery), `api emit --type <sensory_t...\n 361│\n    │...\n 522│\n*523│**peer pump**: the **one supervised daemon loop** driving all outbound cadenced peer traffic — registry advertisement, notif push, sync pull, update check — against every roster member of every attached subnet. The pump owns *when* and *toward whom*: the scheduling kernel (in-memory stagger-from-due-now cadences + wake markers — deliberately **not** deadline-grid converted, ADR-0018 `[V4]`; no per-loop timing writes), the per-round shared store loads, the per-subnet × per-peer fan-out (connection ...\n 524│\n*525│**pump worker**: a cadenced consumer module behind the pump's **worker seam** — one each for registry, notif, sync, update. A worker declares its cadence, optionally consumes its wake marker (`poll_wake` — the exactly-once filesystem take stays at the worker edge, the scheduling kernel stays pure), runs optional node-local **pre-round** work once per due round (e.g. the registry worker's eviction sweep → rotation fire → re-advertise ordering), and a per-peer **peer step** over the pump-provided c...\n 526│_Avoid_: calling an individual leg a \"pump\" (the loop is *the* pump; the legs are workers); giving a worker its own `EpochSource` over the shared op counter (sole-writer: the pump's, KH epoch-lease class).\n 527│\n 528│### Cross-node Psyche sync\n 529│\n*530│**Sync scope is subnet-exclusive by default.** An endpoint's mind replicates only within **one subnet** unless told otherwise. Endpoint config carries a **subnet-membership list** for sync: the context syncs across the nodes of *every* subnet in that list, defaulting to just the endpoint's home subnet. This is distinct from registry *visibility* (*endpoint visibility*) — being addressable in a subnet does not imply replicating your mind there; mind-replication into a subnet requires that subnet to be i...\n 531│\n 532│The context is a local git repo with `a-<endpoint_id>` (per-agent) and `p-<project_id>` (per-project) branch views. Sync has **two transport modes** (full mechanics: `docs/STORAGE.md`):\n 533│- **P2P (default):** the data syncs between a user's nodes over the built-in P2P networking — **no `gh`/account/setup**, the no-central-operator promise. Replaces modern SPT's required GitHub-remote sync.\n*534│- **Hub (opt-in, `spt context-github-setup`):** every node pull→merge→pushes against a private GitHub remote — an always-online sync hub *and* a convenient GUI view. Uses a **shared deploy key** distributed as subnet secret material, so only the setup node needs a GitHub account; other nodes use the key over SSH, with **P2P as backstop**. Hub mode is the **context-repo sync transport only** — messaging, registry, remote-drive, pairing, and presence always ride P2P; gh-on never removes the P2P req...\n 535│\n 536│**The gh-repo interim is retired** (M4-D9-6, after the two-host rig proof): during the pre-P2P era the sister project's `gh-repo-sync` skill (and the `spt-agent-storage` private repo wired by `psyche-sync-setup`) was *the* cross-machine context transport. With P2P sync proven end-to-end on real hardware (`docs/TWO-HOST-RUNBOOK.md`), that interim stands down — the sister skill is no longer part of the sync path. `psyche-sync-setup` remains only as the **hub-mode seam** (the opt-in transport above), not ...\n 537│\n## Cargo.lock\n   7│version = \"0.8.2\"\n  *8│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n   9│checksum = \"598381761ee991bf2f1455f700380e2191fb370dc9df1ee764f348b7f089d8b6\"\n  10│dependencies = [\n  11│ \"parking_lot\",\n    │...\n  22│version = \"0.5.2\"\n *23│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n  24│checksum = \"d122413f284cf2d62fb1b7db97e02edb8cda96d769b16e443a4f6195e35662b0\"\n  25│dependencies = [\n  26│ \"crypto-common 0.1.7\",\n    │...\n  32│version = \"0.8.4\"\n *33│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n  34│checksum = \"b169f7a6d4742236a0a00c541b845991d0ac43e546831af1249753ab4c3aa3a0\"\n  35│dependencies = [\n  36│ \"cfg-if\",\n    │...\n  43│version = \"0.10.3\"\n *44│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n  45│checksum = \"831010a0f742e1209b3bcea8fab6a8e149051ba6099432c8cb2cc117dec3ead1\"\n  46│dependencies = [\n  47│ \"aead\",\n    │...\n  57│version = \"0.8.12\"\n *58│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n  59│checksum = \"5a15f179cd60c4584b8a8c596927aadc462e27f2ca70c04e0071964a73ba7a75\"\n  60│dependencies = [\n  61│ \"cfg-if\",\n    │...\n  69│version = \"1.1.4\"\n *70│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n  71│checksum = \"ddd31a130427c27518df266943a5308ed92d4b226cc639f5a8f1002816174301\"\n  72│dependencies = [\n  73│ \"memchr\",\n    │...\n  78│version = \"0.2.21\"\n *79│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n  80│checksum = \"683d7910e743518b0e34f1186f92494becacb047c7b6bf616c96772180fef923\"\n  81│\n  82│[[package]]\n    │...\n  84│version = \"0.1.5\"\n *85│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n  86│checksum = \"819e7219dbd41043ac279b19830f2efc897156490d7fd6ea916720117ee66311\"\n  87│dependencies = [\n  88│ \"libc\",\n    │...\n  93│version = \"1.0.0\"\n *94│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n  95│checksum = \"824a212faf96e9acacdbd09febd34438f8f711fb84e09a8916013cd7815ca28d\"\n  96│dependencies = [\n  97│ \"anstyle\",\n    │...\n 108│version = \"1.0.14\"\n*109│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 110│checksum = \"940b3a0ca603d1eade50a4846a2afffd5ef57a9feac2c0e2ec2e14f9ead76000\"\n 111│\n 112│[[package]]\n    │...\n 114│version = \"1.0.0\"\n*115│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 116│checksum = \"52ce7f38b242319f7cabaa6813055467063ecdc9d355bbb4ce0c68908cd8130e\"\n 117│dependencies = [\n 118│ \"utf8parse\",\n    │...\n 123│version = \"1.1.5\"\n*124│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 125│checksum = \"40c48f72fd53cd289104fc64099abca73db4166ad86ea0b4341abe65af83dadc\"\n 126│dependencies = [\n 127│ \"windows-sys 0.61.2\",\n    │...\n 132│version = \"3.0.11\"\n*133│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 134│checksum = \"291e6a250ff86cd4a820112fb8898808a366d8f9f58ce16d1f538353ad55747d\"\n 135│dependencies = [\n 136│ \"anstyle\",\n    │...\n 143│version = \"1.0.102\"\n*144│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 145│checksum = \"7f202df86484c868dbad7eaa557ef785d5c66295e41b460ef922eca0723b842c\"\n 146│\n 147│[[package]]\n    │...\n 149│version = \"0.3.9\"\n*150│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 151│checksum = \"76a2e8124351fda1ef8aaaa3bbd7ebbcb486bbcd4225aca0aa0d84bb2db8fecb\"\n 152│\n 153│[[package]]\n    │...\n 155│version = \"0.7.6\"\n*156│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 157│checksum = \"7c02d123df017efcdfbd739ef81735b36c5ba83ec3c59c80a9d7ecc718f92e50\"\n 158│\n 159│[[package]]\n    │...\n 161│version = \"0.1.89\"\n*162│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 163│checksum = \"9035ad2d096bed7955a320ee7e2230574d28fd3c3a0f186cbea1ff3c7eed5dbb\"\n 164│dependencies = [\n 165│ \"proc-macro2\",\n    │...\n 172│version = \"0.3.3\"\n*173│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 174│checksum = \"b6d7b9decdf35d8908a7e3ef02f64c5e9b1695e230154c0e8de3969142d9b94c\"\n 175│dependencies = [\n 176│ \"futures\",\n    │...\n 183│version = \"1.0.3\"\n*184│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 185│checksum = \"8cf2bce30dfe09ef0bfaef228b9d414faaf7e563035494d7fe092dba54b300f4\"\n 186│dependencies = [\n 187│ \"critical-section\",\n    │...\n 192│version = \"1.1.2\"\n*193│source = \"registry+https://github.com/rust-lang/crates.io-index\"\n 194│checksum = \"1505bd5d3d116872e7271a6d4e16d81d0c8570876c8de68093a09ac269d8aac0\"\n 195│\n 196│[[package]]\n## Cargo.toml\n 11│resolver = \"2\"\n*12│members = [\"crates/spt-proto\", \"crates/spt-store\", \"crates/spt-msg\", \"crates/spt-net\", \"crates/spt-term\", \"crates/spt-runtime\", \"crates/spt-live\", \"crates/spt-daemon\", \"crates/spt\", \"adapters/mock\", \"crates/xtask\"]\n 13│\n 14│# M6-D6 (grill decision 9): ONE shared version for every crate and the binary\n 15│# — the product version (v0.1.0 tag, `spt --version`). The wire-protocol\n## F-018-ADAPTER-ADD-NONDESTRUCTIVE-DESIGN.md\n 34│**active** registered record's `source_dir` canonicalises to that dest. Use\n*35│`spt_runtime::registry::registered(&adapters)` (or `all_records` filtered to\n 36│`active`), compare `record.source_dir == dest` (path-normalised — both are built\n 37│the same way, so a string/`Path` compare on the joined value is sufficient; if\n 38│unsure, compare via `std::path::Path`).\n## M0-PLAN.md\n 21│In: envelope/EVENT grammar + chunker, endpoint types, Ed25519 identity primitive,\n*22│wire-version, typed+binary payloads (proto); atomic-write, spool, perch layout, registry\n 23│persistence, info.json (store). Out (later milestones): daemon/broker (M2/M3), networking\n*24│& pairing (M4), live/Psyche (M2), terminal/PTY (M3), cross-node registry *resolution* (M4 —\n 25│M0 builds local persistence only).\n 26│\n 27│## Sequencing rationale\n   │...\n 30│framing → chunker (depends on framing) → types → identity → version/payloads. Within store:\n*31│atomic-write first (everything else writes through it) → spool → perch layout → registry →\n 32│info.json. Each task lands its evidence tags + activates its reqs in the same commit\n 33│(TRACEABILITY rule 1), and `check` must be green before the next task.\n 34│\n   │...\n 53│| T10 | Perch layout + single path resolver (no flat/nested siblings) | copy/adapt `perch_path.rs` | REQ-HAZARD-SINGLE-PATH-SOURCE, -WORKER-PATH | all perch paths route one resolver; no divergent sibling layouts |\n*54│| T11 | Registry persistence + stale-entry cleanup (local; cross-node *resolution* deferred M4) | copy `registry.rs` | REQ-HAZARD-REGISTRY-STALE-CLEAN; R-INST-7 (partial: local) | stale (dead-PID) entry cleaned before lookup; never hard-fails on stale |\n 55│| T12 | `info.json` shape + torn-read tolerance (atomic write + read-retry) | copy verbatim | REQ-HAZARD-INFO-JSON-TORN-READ | concurrent read during write yields valid or retried, never torn |\n 56│\n 57│## Tasks — infra\n   │...\n 71│- **Store:** EBUSY-RENAME, UNC-PATH-STRIP, DEFERRED-DRAIN, DEFERRED-SURVIVE-DRAIN,\n*72│  SINGLE-PATH-SOURCE, WORKER-PATH, REGISTRY-STALE-CLEAN, INFO-JSON-TORN-READ; R-INST-7 (partial).\n 73│\n 74│**Stay `[]` (later milestones):** all R-NET/R-PAIR (M4), R-DAEMON/R-API/R-SEAM/R-START (M2),\n 75│R-TERM (M3), R-UPD (M3), R-INST-1..6/8 cross-node (M4), R-REACH (M4), the lifecycle/live hazards.\n   │...\n 92│- **T8–T12 `spt-store`:** atomic write (EBUSY retry) + UNC strip, SQLite spool\n*93│  (deferred-aware), perch resolver, registry (stale-clean), info.json\n 94│  (torn-read tolerant).\n 95│- **T13–T14:** CI matrix + traceability hard gate; activation sweep.\n 96│\n## M1-PLAN.md\n  12│send/ring/ready) and the `spt` binary + CLI, layered on the M0 crates\n *13│(`spt-proto` envelope/payload, `spt-store` spool/registry/perch/info).\n  14│\n  15│**M1 done =** `spt-msg` + `spt` compile · `cargo test --workspace` green · an E2E\n  16│test proves two local ready-agents exchange a message (live TCP path **and**\n    │...\n  22│In: localhost TCP delivery with spool fallback, target→address routing via the\n *23│registry, reply routing, ready-agent lifecycle (register perch + listener + drain\n  24│spool), `ring` (send-and-wait), deferred (hook-channel) send, the `spt` binary +\n  25│CLI (`send`/`ring`/`ready`/`poll`/`list`/`stop`/`whoami`).\n  26│\n    │...\n  50│  spool fallback when the target is offline/unreachable; target id → address via\n *51│  the registry (stale-clean first); reply routing (`__REPLY_TO__`).\n  52│- **`REQ-MSG-2`** — `spt` binary CLI surface: `send` / `ring` / `ready` / `poll` /\n  53│  `list` / `stop` / `whoami`, stable arg shapes + exit codes.\n  54│- **`REQ-MSG-3`** — Ready-agent lifecycle: register perch (info.json + listener +\n *55│  registry address) on `ready`, drain spooled backlog on startup, clean teardown.\n  56│\n  57│## Tasks — `spt-msg`\n  58│\n    │...\n  61│| T1 | TCP wire framing + loopback listener socket (length-framed envelope lines) | copy `protocol.rs` + `poll.rs` socket setup | REQ-MSG-1 | listener binds an ephemeral localhost port; one framed envelope round-trips client→listener |\n *62│| T2 | Delivery: TCP-first, spool-fallback + registry routing + reply routing | copy `send.rs` `deliver_message`/`run`/`run_reply` | REQ-MSG-1; REQ-HAZARD-WINDOWS-PID-RECYCLE, -INBOX-NO-DOUBLE | online target receives via TCP; offline target spools; recycled-pid address never misdelivers; no double-delivery |\n  63│| T3 | Ready-agent lifecycle: `ready` registers perch (info.json T12 + listener + `register_address` T11), drains spool backlog (`drain_non_deferred` T9) on startup | copy `poll.rs` startup + `setup.rs` | REQ-MSG-3; REQ-HAZARD-SOFT-CLEANUP (6.2) | `ready` is resolvable + reachable; backlog drains on start; soft-cleanup removes only the ready marker, preserves spool |\n  64│| T4 | `ring`: send + block for reply; ephemeral reply-perch created + cleaned on **every** exit path | copy `ring.rs` | REQ-MSG-1; REQ-HAZARD-EPHEMERAL-CLEANUP (3.1) | ring returns the reply; the ephemeral perch is gone on success, timeout, AND error |\n  65│| T5 | Deferred send: spool-only, no listener wake (hook channel) | copy `send.rs` `run_deferred` | REQ-MSG-1 (+ DEFERRED-SURVIVE-DRAIN, covered M0) | deferred send writes a deferred row; event-stream drain skips it; hook drain delivers it |\n    │...\n  99│\n*100│Add `crates/spt-msg` to `members`. Layering stays acyclic (R-ARCH-1):\n 101│`spt-proto → spt-store → spt-msg`; the `spt` binary is the top consumer.\n 102│\n 103│## Risks carried into M1\n    │...\n 107│  move, not a rewrite. (KNOWN-HAZARDS 1.1 maps the eventual single-writer model.)\n*108│- **Loopback port churn + stale registry.** A crashed listener leaves a stale\n 109│  address; M0's `resolve_address` (clean-stale-before-lookup) is the guard —\n 110│  exercise it under the recycled-pid hazard in T2.\n 111│- **Ephemeral ring perch leak** (3.1) is the classic ring bug — test cleanup on the\n    │...\n 144│  EPHEMERAL-CLEANUP / INBOX-NO-DOUBLE / SOFT-CLEANUP / WINDOWS-PID-RECYCLE\n*145│  `[impl,unit]`. REQ-INST-7 stays partial (local routing only; cross-node = M4).\n 146│  R-ARCH-1 grew two crates (build-evidenced; no stage change).\n## M11-PLAN.md\n 224│    Add `HOW_TO_SUBNET` text (the create / show-code / join pairing flow + 6-digit code)\n*225│    + the registry entry + bump the v1-lock test (the names-vec assertion + the\n 226│    topic-content asserts). Subnet/pairing is the highest-value first-run flow and\n 227│    currently dead-ends — closes the `ready`/`send` asymmetry.\n 228│- **T5.3 — traceable `check` EXIT 0**, full suite green both runners, gate.\n## M12-W1-PLAN.md\n  35│- **Manifest**: `spt-runtime/src/manifest.rs:165` `Session.self_` (`[session.self]`),\n *36│  `SessionRole{command,cwd,detach,env_remove,keys,...}` (:234). `registry::resolve_option(_in)`\n  37│  splits composite `<adapter>:<profile>` → merged manifest (leaf-replace overlay).\n  38│- **CLI**: `spt/src/cli.rs:201-335` `EndpointCmd` enum; dispatch `:879-908`. Add `Run{...}`\n  39│  variant + a top-level `Rc{id,view}` command (rc is top-level per plan, not under endpoint).\n    │...\n 145│  confirm broker path is clean). 2.4 gen_start fresh on cold-start (don't rehydrate). 4.10\n*146│  registry eviction (perch registration is daemon-authoritative).\n 147│\n 148│## Build order  (status 2026-06-14)\n 149│1. [DONE] Bind/register seam traced (decision b: spawn-first, harness self-registers).\n## M12-W1.5-PLAN.md\n 10│## The invariant (doyle, binding)\n*11│ONE `serve_attach` pump. Transport is swappable UNDER the stream. Cross-node = QUIC conn;\n 12│local = broker loopback conn. Both surface as broker net-stream events (`NetStreamData` /\n 13│`net_stream_subscribe` / `net_stream_send`) so `serve_attach` (target) + the `rc::pump`\n 14│(operator) are unchanged. The W1.5 int test MUST assert both transports hit the same pump.\n## M12-W2-PLAN.md\n  32│  fresh unless `--resume`); no kick/instantiate/fork-from-run flags.\n *33│- **Adapter + profile enumeration:** `registry::resolve_option` (split `<adapter>:<profile>`\n  34│  → parent lookup → overlay). Profiles live at `adapters/<adapter>/profiles/<profile>.toml`;\n *35│  `registry.rs:local_profiles_dir` + read_dir enumerate them (need a tidy \"list harness\n  36│  adapters + their profiles\" helper for L2; building blocks present). `AdapterKind::Harness`\n  37│  gates the harness-only list.\n  38│- **Endpoint discovery:** `roster::enumerate()` (local perches: state/ready/alive) +\n *39│  `roster::detect_self_id`; `wansend::load_snapshots(identity/registry)` per-subnet snapshots\n  40│  → `resource_projection(reg, hidden_fn)` = visible+routable rows `(endpoint_id, node, status,\n  41│  resources)`; `VisibilityStore` + `SubnetStore`. This is the L2 pick-existing data spine.\n *42│- **Status:** registry `Status{Active,Dormant,Offline,Suspended}` → online/offline mapping.\n  43│  **\"Attached\" (blue ■) has no obvious query** (see Q1).\n  44│- **Endpoint description:** `spt_store::info::read_info().resources` (the `endpoint\n  45│  description` blurb).\n    │...\n 192│### Verified source surfaces (build directly on these)\n*193│- `registry::registered(adapters_dir) -> Vec<(AdapterRecord, Manifest)>` + `all_records`;\n*194│  `manifest.profiles.keys()` = shipped profiles; `registry::local_profile_names` = locals;\n 195│  `AdapterKind::Harness` gate. (L2 adapter→profile tree.)\n*196│- `roster::enumerate()` / `detect_self_id`; `wansend::load_snapshots(identity/registry)` +\n 197│  `resource_projection(reg, hidden_fn)` (`endpoint_id, node, status, resources`);\n 198│  `VisibilityStore` + `SubnetStore`. (Pick-existing spine + status.)\n 199│- `spt_store::info::read_info(perch).resources` (endpoint description);\n    │...\n 214│  rendered buffer for screen-state unit tests; the live key loop is the manual-verify leg.\n*215│- ADR-0001 territory only if any wire/registry format changes (Q1 attach-presence op would\n 216│  be) — else clean-room. Additive `Run{}` flags are N-1-safe.\n 217│- UNCOMMITTED building until the operator calls a commit (their per-wave pacing).\n## M12-W2.5-PLAN.md\n 69│\n*70│**Q4 — registry/info shape for controller + viewer count.**\n 71│Keep `info::driven_by: Option<String>` = the **controller node** (unchanged semantics). Add an\n 72│additive `info::viewer_count: u32` (`#[serde(default)]` = 0). **The broker is the single writer**\n 73│(it owns the `viewers` map) — it stamps `viewer_count` on every viewer add/remove, so there is **no\n## M12-W2.5-RULING.md\n 63│attach** (= `--take`). Both route through the EXISTING attach dispatch (W2 single-bringup-path\n*64│invariant holds — role is a parameter, not a new path). The registry/info needs controller identity\n 65│+ viewer count (extend `driven_by` → controller + a viewer tally).\n 66│\n 67│## REQs (todlando's granularity, lean below)\n   │...\n 82│   whether viewers get any input at all (scroll keys?) or truly zero input.\n*83│4. Registry/info shape for controller + viewer count (extend `driven_by`, or a new field).\n 84│5. Does `--take` demote the old controller to a viewer, or fully detach it? (CONTEXT.md says\n 85│   \"displaces\" — lean detach + loud notice; confirm.)\n 86│\n## M12-W3-PLAN.md\n 18│- Local profiles: `adapters/<adapter>/profiles/<profile>.toml` (REQ-MANIFEST-2). `<adapter>:<profile>`\n*19│  composite address already parsed by `registry::resolve_option`.\n 20│- **No per-adapter aux/data file-storage location exists** beyond `profiles/` (confirmed).\n 21│- **No node-wide cross-adapter fallback SETTING is implemented yet** — CONTEXT.md:137 describes it\n 22│  (\"node-wide setting, not a manifest field; falls back to another adapter e.g. ccs\") but no\n## M12-W3-RULING.md\n  5│> - `strings: toml::Table` opaque, REQ-MANIFEST-3, dot-path via `profile::string_at` — manifest.rs:66-75 ✓\n *6│> - `get_string` resolves through `resolve_option` (already `<adapter>:<profile>`-aware) — registry.rs:377-384 ✓\n  7│> - `fallback_adapter` exists ONLY in docs (CONTEXT.md:137, MANIFEST.md) — NO `.rs` consumer ✓\n  8│\n  9│## T3.1 — file-backed `[strings]` — APPROVED with guards\n   │...\n 41│- **Do NOT add a config field with no reader.** No new impl REQ unless genuinely new surface appears\n*42│  — tag unit + doc stages only (fold under an existing MANIFEST/registry REQ if one fits).\n 43│\n 44│**Escalation clause:** if during build you find spt-claude-code is genuinely BLOCKED without an\n 45│authored fallback seam, STOP and escalate to me — don't build speculative config.\n\n## .config/\n### nextest.toml\n 39│# deterministic (a cap > 1 still lets two real brokers race = lucky, not reliable).\n*40│# Group membership == the <HEAVY> phase filter. (Driver-pacing in inject_control_wedge\n 41│# additionally removes that gate's self-inflicted CPU storm — a correctness nicety on\n 42│# top of the structural split.)\n 43│[test-groups]\n\n## .github/workflows/\n### ci.yml\n 38│      # drops only starvation noise, never wedge detection; local keeps the tight 30s\n*39│      # default. Mirrors the SPT_REGISTRY_BUSY_TIMEOUT_MS env-knob precedent.\n 40│      SPT_ATTACH_GATE_WATCHDOG_MS: \"120000\"\n 41│      # Concurrent-attach per-IPC-call READ-deadline headroom (the result-gating\n 42│      # cold_start_pump brains: a_journaled / p0_paste attachers, drivers, viewer,\n### release.yml\n  27│      matrix:\n *28│        # Asset names MUST match the SUPPORTED_PLATFORMS registry rows\n  29│        # (crates/spt-daemon/src/release.rs) — the update-set + installer key on\n  30│        # them. `target` empty = the host-default toolchain (gnu / msvc); a set\n  31│        # `target` cross-builds that Rust triple (the static musl tier, W3).\n    │...\n 110│        # The `spt-x86_64-*` glob picks up every platform binary the build matrix\n*111│        # produced (gnu, windows, musl, and any future registry row) — no\n 112│        # per-platform literal to keep in sync with SUPPORTED_PLATFORMS.\n 113│        # [impl->REQ-RELEASE-MUSL-ARTIFACT]\n 114│        run: |","linesTruncated":true,"meta":{"limits":{"columnTruncated":{"maxColumn":512}}}},"isError":false,"timestamp":1784069023636}}
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{"type":"message","id":"08b9cc99","parentId":"0e0dc5d0","timestamp":"2026-07-14T22:43:53.086Z","message":{"role":"toolResult","toolCallId":"call_NyOQTD0EMTTN1bajZkYdcf7L|fc_0b084cf0b521ab15016a56bba8e56081908af2efd89e8a9bfe","toolName":"glob","content":[{"type":"text","text":"# spt-core/crates/spt/src/\nroster.rs\ncli.rs\nrc.rs\nwansend.rs\ntestutil.rs\nmain.rs\nhelpfmt.rs\nelevation.rs\n## picker/\nmod.rs\ndata.rs\nview.rs\nmodel.rs\nshortcut.rs\n## api/\nstartup.rs\nreporting.rs\nauth.rs\nmod.rs\nworker.rs\ndelivery.rs\nlive.rs"}],"details":{"scopePath":"spt-core/crates/spt/src","fileCount":22,"files":["spt-core/crates/spt/src/roster.rs","spt-core/crates/spt/src/picker/","spt-core/crates/spt/src/picker/mod.rs","spt-core/crates/spt/src/cli.rs","spt-core/crates/spt/src/api/","spt-core/crates/spt/src/api/startup.rs","spt-core/crates/spt/src/api/reporting.rs","spt-core/crates/spt/src/api/auth.rs","spt-core/crates/spt/src/api/mod.rs","spt-core/crates/spt/src/rc.rs","spt-core/crates/spt/src/api/worker.rs","spt-core/crates/spt/src/api/delivery.rs","spt-core/crates/spt/src/picker/data.rs","spt-core/crates/spt/src/wansend.rs","spt-core/crates/spt/src/picker/view.rs","spt-core/crates/spt/src/picker/model.rs","spt-core/crates/spt/src/testutil.rs","spt-core/crates/spt/src/picker/shortcut.rs","spt-core/crates/spt/src/main.rs","spt-core/crates/spt/src/helpfmt.rs","spt-core/crates/spt/src/elevation.rs","spt-core/crates/spt/src/api/live.rs"],"truncated":false,"cwd":"C:\\Users\\decid\\Documents\\projects"},"isError":false,"timestamp":1784069033086}}
{"type":"message","id":"372f732e","parentId":"08b9cc99","timestamp":"2026-07-14T22:43:53.094Z","message":{"role":"toolResult","toolCallId":"call_w6eBwcwjIXx8RIDDa0qaxFhx|fc_0b084cf0b521ab15016a56bba8e5548190bae8a8e3e571b48f","toolName":"glob","content":[{"type":"text","text":"# spt-core/crates/spt-daemon/src/\nrelay.rs\nsync.rs\npropagate.rs\nmsg.rs\nnethost.rs\nlivehost.rs\nlib.rs\ninject.rs\nconn.rs\ndaemon.rs\nconfig.rs\nbroker.rs\nbrainproc.rs\nbrain.rs\nautostart.rs\nrelease.rs\napplyhost.rs\nstderrlog.rs\nlifecycle.rs\ndigest.rs\npairhost.rs\nxfer.rs\nshellwake.rs\nshellchan.rs\nseedmap.rs\nresting.rs\nresthost.rs\nregistryhost.rs\nnotif.rs\nlinkhost.rs\neffect.rs\nattach.rs\nadapter_update.rs\nwan.rs\nupdate.rs\ntunnelhub.rs\ntransport.rs\ntranslation.rs\ntest_home.rs\nshellhost.rs\nshelldisc.rs\nservice.rs\nserveprobe.rs\nseedproofx.rs\nrollback_compat.rs\nrelcache.rs\nreconcile.rs\nreap.rs\npsyrelay.rs\npresence.rs\nnotifsync.rs\nmachineid.rs\nharnesshost.rs\ngrants.rs\nframe.rs\nendpoint.rs\ndrivehub.rs\ndispatch.rs\ndigesthub.rs\ndeelevate.rs\ndeadline.rs\ncrc_swap.rs\nconsent.rs\ncodec.rs\naccess.rs\n## pump/\nmod.rs\nupdate.rs\nsync.rs\nregistry.rs\nnotif.rs\n## bin/\nxlate_choreo_fixture.rs"}],"details":{"scopePath":"spt-core/crates/spt-daemon/src","fileCount":73,"files":["spt-core/crates/spt-daemon/src/relay.rs","spt-core/crates/spt-daemon/src/sync.rs","spt-core/crates/spt-daemon/src/pump/","spt-core/crates/spt-daemon/src/pump/mod.rs","spt-core/crates/spt-daemon/src/propagate.rs","spt-core/crates/spt-daemon/src/msg.rs","spt-core/crates/spt-daemon/src/nethost.rs","spt-core/crates/spt-daemon/src/livehost.rs","spt-core/crates/spt-daemon/src/lib.rs","spt-core/crates/spt-daemon/src/inject.rs","spt-core/crates/spt-daemon/src/conn.rs","spt-core/crates/spt-daemon/src/daemon.rs","spt-core/crates/spt-daemon/src/config.rs","spt-core/crates/spt-daemon/src/broker.rs","spt-core/crates/spt-daemon/src/brainproc.rs","spt-core/crates/spt-daemon/src/brain.rs","spt-core/crates/spt-daemon/src/autostart.rs","spt-core/crates/spt-daemon/src/release.rs","spt-core/crates/spt-daemon/src/applyhost.rs","spt-core/crates/spt-daemon/src/stderrlog.rs","spt-core/crates/spt-daemon/src/lifecycle.rs","spt-core/crates/spt-daemon/src/digest.rs","spt-core/crates/spt-daemon/src/bin/xlate_choreo_fixture.rs","spt-core/crates/spt-daemon/src/bin/","spt-core/crates/spt-daemon/src/pairhost.rs","spt-core/crates/spt-daemon/src/xfer.rs","spt-core/crates/spt-daemon/src/shellwake.rs","spt-core/crates/spt-daemon/src/shellchan.rs","spt-core/crates/spt-daemon/src/seedmap.rs","spt-core/crates/spt-daemon/src/resting.rs","spt-core/crates/spt-daemon/src/resthost.rs","spt-core/crates/spt-daemon/src/registryhost.rs","spt-core/crates/spt-daemon/src/notif.rs","spt-core/crates/spt-daemon/src/linkhost.rs","spt-core/crates/spt-daemon/src/effect.rs","spt-core/crates/spt-daemon/src/attach.rs","spt-core/crates/spt-daemon/src/adapter_update.rs","spt-core/crates/spt-daemon/src/wan.rs","spt-core/crates/spt-daemon/src/update.rs","spt-core/crates/spt-daemon/src/tunnelhub.rs","spt-core/crates/spt-daemon/src/transport.rs","spt-core/crates/spt-daemon/src/translation.rs","spt-core/crates/spt-daemon/src/test_home.rs","spt-core/crates/spt-daemon/src/shellhost.rs","spt-core/crates/spt-daemon/src/shelldisc.rs","spt-core/crates/spt-daemon/src/service.rs","spt-core/crates/spt-daemon/src/serveprobe.rs","spt-core/crates/spt-daemon/src/seedproofx.rs","spt-core/crates/spt-daemon/src/rollback_compat.rs","spt-core/crates/spt-daemon/src/relcache.rs","spt-core/crates/spt-daemon/src/reconcile.rs","spt-core/crates/spt-daemon/src/reap.rs","spt-core/crates/spt-daemon/src/pump/update.rs","spt-core/crates/spt-daemon/src/pump/sync.rs","spt-core/crates/spt-daemon/src/pump/registry.rs","spt-core/crates/spt-daemon/src/pump/notif.rs","spt-core/crates/spt-daemon/src/psyrelay.rs","spt-core/crates/spt-daemon/src/presence.rs","spt-core/crates/spt-daemon/src/notifsync.rs","spt-core/crates/spt-daemon/src/machineid.rs","spt-core/crates/spt-daemon/src/harnesshost.rs","spt-core/crates/spt-daemon/src/grants.rs","spt-core/crates/spt-daemon/src/frame.rs","spt-core/crates/spt-daemon/src/endpoint.rs","spt-core/crates/spt-daemon/src/drivehub.rs","spt-core/crates/spt-daemon/src/dispatch.rs","spt-core/crates/spt-daemon/src/digesthub.rs","spt-core/crates/spt-daemon/src/deelevate.rs","spt-core/crates/spt-daemon/src/deadline.rs","spt-core/crates/spt-daemon/src/crc_swap.rs","spt-core/crates/spt-daemon/src/consent.rs","spt-core/crates/spt-daemon/src/codec.rs","spt-core/crates/spt-daemon/src/access.rs"],"truncated":false,"cwd":"C:\\Users\\decid\\Documents\\projects"},"isError":false,"timestamp":1784069033093}}
{"type":"message","id":"c3e112b3","parentId":"372f732e","timestamp":"2026-07-14T22:43:53.097Z","message":{"role":"toolResult","toolCallId":"call_TO7zb2Cd3kpMwEDIpqFa5J7Q|fc_0b084cf0b521ab15016a56bba8e55c8190997a952ddbd1bc50","toolName":"glob","content":[{"type":"text","text":"# spt-core/crates/spt-net/src/\nnet.rs\nlib.rs\n## net/\nregistry.rs\nxfer.rs\nwanmsg.rs\nupdate.rs\nsync.rs\nshelllink.rs\nserveprobe.rs\nrest.rs\nreplicate.rs\npairing.rs\nnotif.rs\nndjson.rs\nmesh.rs\nendpoint.rs\nattach.rs\n### pairing/\nntp.rs\nwire.rs\ntranscript.rs\ntotp.rs\nspake.rs\nrendezvous.rs\nratelimit.rs\nmeet.rs\n### mesh/\nseedproof.rs"}],"details":{"scopePath":"spt-core/crates/spt-net/src","fileCount":29,"files":["spt-core/crates/spt-net/src/net/pairing/","spt-core/crates/spt-net/src/net/pairing/ntp.rs","spt-core/crates/spt-net/src/net/","spt-core/crates/spt-net/src/net/registry.rs","spt-core/crates/spt-net/src/net.rs","spt-core/crates/spt-net/src/net/xfer.rs","spt-core/crates/spt-net/src/net/wanmsg.rs","spt-core/crates/spt-net/src/net/update.rs","spt-core/crates/spt-net/src/net/sync.rs","spt-core/crates/spt-net/src/net/shelllink.rs","spt-core/crates/spt-net/src/net/serveprobe.rs","spt-core/crates/spt-net/src/net/rest.rs","spt-core/crates/spt-net/src/net/replicate.rs","spt-core/crates/spt-net/src/net/pairing.rs","spt-core/crates/spt-net/src/net/pairing/wire.rs","spt-core/crates/spt-net/src/net/pairing/transcript.rs","spt-core/crates/spt-net/src/net/pairing/totp.rs","spt-core/crates/spt-net/src/net/pairing/spake.rs","spt-core/crates/spt-net/src/net/pairing/rendezvous.rs","spt-core/crates/spt-net/src/net/pairing/ratelimit.rs","spt-core/crates/spt-net/src/net/pairing/meet.rs","spt-core/crates/spt-net/src/net/notif.rs","spt-core/crates/spt-net/src/net/ndjson.rs","spt-core/crates/spt-net/src/net/mesh/","spt-core/crates/spt-net/src/net/mesh.rs","spt-core/crates/spt-net/src/net/mesh/seedproof.rs","spt-core/crates/spt-net/src/net/endpoint.rs","spt-core/crates/spt-net/src/net/attach.rs","spt-core/crates/spt-net/src/lib.rs"],"truncated":false,"cwd":"C:\\Users\\decid\\Documents\\projects"},"isError":false,"timestamp":1784069033097}}
{"type":"message","id":"ff00ee46","parentId":"c3e112b3","timestamp":"2026-07-14T22:43:53.102Z","message":{"role":"toolResult","toolCallId":"call_nv3Cra5vVwQ0L39GsZeYqt0W|fc_0b084cf0b521ab15016a56bba8e5248190a358cc6b92c5077e","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt-daemon/src/\n### daemon.rs\n 184|        // (the B6 surface) — the PTY-hosting consumers arrive in B7/B8.\n*185|        let net_up = net.is_some();\n 186|        // Keep the broker handle alive past the bind so the brain supervisor's\n 187|        // planned-restart signal can be wired into it below (ADR-0018 D3-3): the\n 188|        // `KIND_BRAIN_RESTART` verb the broker serves must reach the supervisor.\n...\n 202|                // [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\n*203|                    if !net_up && node_hex.is_some() {\n 204|                        // Boot-race self-heal (REQ-DAEMON-9): net failed to bind\n 205|                        // but identity is sound — almost always the autostart\n 206|                        // racing the network up at boot. Retry net in the\n\n## spt/src/\n### cli.rs\n 3967|/// The connection + peer-pump status lines (REQ-DAEMON-5/-9). Pure for tests.\n*3968|/// A net-LESS broker (`net_up == false`) surfaces \"no connection (retrying)\" +\n 3969|/// a pump waiting on the network — NOT a STALLED alarm read off a stale\n 3970|/// pre-boot heartbeat (the kitsubito 2026-06-08 boot-race misreport, where the\n 3971|/// heartbeat age exceeded uptime). With net up, the heartbeat drives\n...\n 3974|fn render_connection_lines(\n*3975|    net_up: bool,\n 3976|    heartbeat: Option<u64>,\n 3977|    now: u64,\n 3978|    stale_after: u64,\n 3979|) -> String {\n*3980|    if !net_up {\n 3981|        return \"connection: no connection — net endpoint not bound (retrying in background)\\n\\\n 3982|                peer pump: waiting on network\\n\"\n 3983|            .to_string();\n...\n 4016|    /// the daemon is down (not queried).\n*4017|    net_up: Option<bool>,\n 4018|    /// Peer-pump last-tick wall-clock ms (`None` = no heartbeat recorded).\n 4019|    pump_heartbeat_ms: Option<u64>,\n 4020|    /// The managing service label, if a registered service owns this daemon.\n...\n 4120|        // stall-evict tally.\n*4121|        let (net_up, broker_image, broker_queried, stall_stats) = if running {\n 4122|            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\n 4123|                Ok(mut b) => {\n 4124|                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n...\n 4197|            pid,\n*4198|            net_up,\n 4199|            pump_heartbeat_ms,\n 4200|            managed_by,\n 4201|            managed_active,\n...\n 4222|        // One broker handle answers both net-status and the F-025 image query.\n*4223|        let (net_up, broker_image, stall_stats) = match spt_daemon::brain::Brain::cold_start(\n 4224|            &spt_daemon::broker_socket_name(),\n 4225|            now_ms(),\n 4226|        ) {\n 4227|            Ok(mut b) => {\n*4228|                let net_up = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n 4229|                let stall = b.stall_evicts().ok().flatten();\n 4230|                let image = b.broker_image_version().ok().flatten();\n*4231|                (net_up, image, stall)\n 4232|            }\n 4233|            Err(_) => (true, None, None), // can't ask ⇒ don't false-alarm\n 4234|        };\n...\n 4240|            render_connection_lines(\n*4241|                net_up,\n 4242|                spt_daemon::read_pump_heartbeat(),\n 4243|                now_ms(),\n 4244|                stale_after,\n...\n 7222|    // deliberate detach (CONTEXT §subnet attachment).\n*7223|    let net_up = spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms())\n 7224|        .ok()\n 7225|        .and_then(|mut b| b.net_status().ok())\n 7226|        .map(|s| s.enabled)\n...\n 7234|                \"detached\"\n*7235|            } else if net_up {\n 7236|                \"attached\"\n 7237|            } else {\n 7238|                \"no connection\""}],"details":{"scopePath":"spt-core/crates","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":14,"fileCount":2,"files":["spt-core/crates/spt-daemon/src/daemon.rs","spt-core/crates/spt/src/cli.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/daemon.rs","count":2},{"path":"spt-core/crates/spt/src/cli.rs","count":12}],"truncated":false,"displayContent":"# spt-core/crates/\n\n## spt-daemon/src/\n### daemon.rs\n 184│        // (the B6 surface) — the PTY-hosting consumers arrive in B7/B8.\n*185│        let net_up = net.is_some();\n 186│        // Keep the broker handle alive past the bind so the brain supervisor's\n 187│        // planned-restart signal can be wired into it below (ADR-0018 D3-3): the\n 188│        // `KIND_BRAIN_RESTART` verb the broker serves must reach the supervisor.\n    │...\n 202│                // [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\n*203│                    if !net_up && node_hex.is_some() {\n 204│                        // Boot-race self-heal (REQ-DAEMON-9): net failed to bind\n 205│                        // but identity is sound — almost always the autostart\n 206│                        // racing the network up at boot. Retry net in the\n\n## spt/src/\n### cli.rs\n 3967│/// The connection + peer-pump status lines (REQ-DAEMON-5/-9). Pure for tests.\n*3968│/// A net-LESS broker (`net_up == false`) surfaces \"no connection (retrying)\" +\n 3969│/// a pump waiting on the network — NOT a STALLED alarm read off a stale\n 3970│/// pre-boot heartbeat (the kitsubito 2026-06-08 boot-race misreport, where the\n 3971│/// heartbeat age exceeded uptime). With net up, the heartbeat drives\n     │...\n 3974│fn render_connection_lines(\n*3975│    net_up: bool,\n 3976│    heartbeat: Option<u64>,\n 3977│    now: u64,\n 3978│    stale_after: u64,\n 3979│) -> String {\n*3980│    if !net_up {\n 3981│        return \"connection: no connection — net endpoint not bound (retrying in background)\\n\\\n 3982│                peer pump: waiting on network\\n\"\n 3983│            .to_string();\n     │...\n 4016│    /// the daemon is down (not queried).\n*4017│    net_up: Option<bool>,\n 4018│    /// Peer-pump last-tick wall-clock ms (`None` = no heartbeat recorded).\n 4019│    pump_heartbeat_ms: Option<u64>,\n 4020│    /// The managing service label, if a registered service owns this daemon.\n     │...\n 4120│        // stall-evict tally.\n*4121│        let (net_up, broker_image, broker_queried, stall_stats) = if running {\n 4122│            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\n 4123│                Ok(mut b) => {\n 4124│                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n     │...\n 4197│            pid,\n*4198│            net_up,\n 4199│            pump_heartbeat_ms,\n 4200│            managed_by,\n 4201│            managed_active,\n     │...\n 4222│        // One broker handle answers both net-status and the F-025 image query.\n*4223│        let (net_up, broker_image, stall_stats) = match spt_daemon::brain::Brain::cold_start(\n 4224│            &spt_daemon::broker_socket_name(),\n 4225│            now_ms(),\n 4226│        ) {\n 4227│            Ok(mut b) => {\n*4228│                let net_up = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n 4229│                let stall = b.stall_evicts().ok().flatten();\n 4230│                let image = b.broker_image_version().ok().flatten();\n*4231│                (net_up, image, stall)\n 4232│            }\n 4233│            Err(_) => (true, None, None), // can't ask ⇒ don't false-alarm\n 4234│        };\n     │...\n 4240│            render_connection_lines(\n*4241│                net_up,\n 4242│                spt_daemon::read_pump_heartbeat(),\n 4243│                now_ms(),\n 4244│                stale_after,\n     │...\n 7222│    // deliberate detach (CONTEXT §subnet attachment).\n*7223│    let net_up = spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms())\n 7224│        .ok()\n 7225│        .and_then(|mut b| b.net_status().ok())\n 7226│        .map(|s| s.enabled)\n     │...\n 7234│                \"detached\"\n*7235│            } else if net_up {\n 7236│                \"attached\"\n 7237│            } else {\n 7238│                \"no connection\""},"isError":false,"timestamp":1784069033102}}
{"type":"message","id":"a60d7804","parentId":"ff00ee46","timestamp":"2026-07-14T22:43:53.105Z","message":{"role":"toolResult","toolCallId":"call_raOHnW6t3pr6W0CyNJm2jMWV|fc_0b084cf0b521ab15016a56bba8e5488190a1e9a248ad34d7f2","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt-daemon/\n\n### src/\n#### dispatch.rs\n 617|    let policy = crate::notif::NotifSurfacePolicy::load();\n*618|    let regs = crate::presence::load_registry_snapshots(&crate::presence::registry_snapshot_dir());\n 619|    let owlery = perch::owlery_dir();\n 620|    for row in fresh {\n 621|        match crate::notif::first_fire_at(store, row, &policy, &owlery, self_hex, &regs, now_ms()) {\n#### notif.rs\n 195|) -> Result<FirstFireOutcome, String> {\n*196|    let regs = crate::presence::load_registry_snapshots(&crate::presence::registry_snapshot_dir());\n 197|    first_fire_at(\n 198|        store,\n 199|        row,\n#### presence.rs\n 57|/// exactly the pre-D6 behavior (the stale-tolerant reader contract).\n*58|pub fn load_registry_snapshots(dir: &Path) -> BTreeMap<String, SubnetRegistry> {\n 59|    let mut out = BTreeMap::new();\n 60|    let Ok(entries) = std::fs::read_dir(dir) else {\n 61|        return out;\n...\n 81|\n*82|/// The canonical snapshot dir ([`load_registry_snapshots`]' production input).\n*83|pub fn registry_snapshot_dir() -> std::path::PathBuf {\n 84|    spt_store::perch::identity_dir().join(\"registry\")\n 85|}\n 86|\n...\n 346|        let dir = tempfile::tempdir().unwrap();\n*347|        assert!(load_registry_snapshots(&dir.path().join(\"missing\")).is_empty());\n 348|        let d = dir.path().join(\"registry\");\n 349|        std::fs::create_dir_all(&d).unwrap();\n 350|        std::fs::write(d.join(\"junk.json\"), \"not json\").unwrap();\n...\n 354|        std::fs::write(d.join(\"home.json\"), serde_json::to_string(&reg).unwrap()).unwrap();\n*355|        let regs = load_registry_snapshots(&d);\n 356|        assert_eq!(regs.len(), 1, \"only the valid snapshot loads: {regs:?}\");\n 357|        assert!(regs.contains_key(\"home\"));\n 358|    }\n#### registryhost.rs\n 530|        // epoch: the lease orders it, so it stops showing Active locally\n*531|        // (resource_projection skips non-routable) AND peers converge to gone. Only\n 532|        // still-routable local rows are touched (idempotent — an already-Offline\n 533|        // ghost is left alone).\n 534|        // [impl->REQ-HAZARD-ROSTER-GHOST]\n...\n 1849|    // ACTIVE: the next advertise_local sees it gone from disk and advertises it\n*1850|    // OFFLINE (fresh epoch), so resource_projection no longer lists it and peers\n 1851|    // converge — no phantom Active roster line.\n 1852|    #[test]\n 1853|    fn erased_perch_is_advertised_offline_not_left_active() {\n...\n 1889|            );\n*1890|            // No longer a routable (Active) resource → resource_projection drops it.\n*1891|            let rows = spt_net::net::registry::resource_projection(\n 1892|                &h.regs.lock().unwrap()[\"adv\"],\n 1893|                |_| false,\n 1894|            );\n#### shellwake.rs\n 337|fn remote_owner_node(owner: &str) -> Option<String> {\n*338|    let regs = crate::presence::load_registry_snapshots(&crate::presence::registry_snapshot_dir());\n 339|    let local = crate::presence::local_node_hex();\n 340|    let mut best: Option<(u64, String)> = None;\n 341|    for reg in regs.values() {\n\n### tests/\n#### dispatch.rs\n 760|    );\n*761|    let snap_dir = spt_daemon::presence::registry_snapshot_dir();\n 762|    std::fs::create_dir_all(&snap_dir).unwrap();\n 763|    std::fs::write(\n 764|        snap_dir.join(\"d6-pres.json\"),\n...\n 786|    };\n*787|    let regs = spt_daemon::presence::load_registry_snapshots(&snap_dir);\n 788|    let fired = spt_daemon::notif::first_fire_at(\n 789|        &store,\n 790|        &row,\n#### twohost.rs\n 324|    // `RegistryHost::new` uses): the presence fire path + feed-apply surface\n*325|    // read `presence::registry_snapshot_dir()`, so a host mirroring anywhere\n 326|    // else starves the M5 presence rungs (the D9a first-run failure).\n 327|    let registry = Arc::new(RegistryHost::new_at(\n 328|        own_hex,\n 329|        EpochSource::load_from(&perch::epoch_file()),\n*330|        spt_daemon::presence::registry_snapshot_dir(),\n 331|    ));\n 332|    let stop = Arc::new(AtomicBool::new(false));\n 333|    {\n\n## spt-net/src/net/\n### registry.rs\n 84|    /// replication (a blurb update is ordered like any instance update);\n*85|    /// the \"subnet resource registry\" is a [projection](resource_projection)\n 86|    /// of these rows. Additive serde-default: absent = no blurb, and a\n 87|    /// pre-D9-4 record parses clean.\n 88|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n...\n 565|// [impl->REQ-INST-14]\n*566|pub fn resource_projection(\n 567|    reg: &SubnetRegistry,\n 568|    excluded: impl Fn(&str) -> bool,\n 569|) -> Vec<ResourceRow> {\n...\n 820|pub enum Ambiguity {\n*821|    /// Several live nodes hold the id in one subnet — qualify with `id@node`. (Epochs are\n 822|    /// per-node monotonic and NOT comparable across nodes, so we never silently pick a\n 823|    /// \"most-recently-active\" winner here — that would be a guess.) Lists the nodes.\n 824|    AcrossNodes(Vec<String>),\n*825|    /// The `@node` qualifier itself matched SEVERAL distinct live nodes (M7\n 826|    /// D2, REQ-SUBNET-3): a shared label, or a too-short key-prefix.\n 827|    /// Refuse-and-qualify — `candidates` lists paste-able key prefixes (8\n 828|    /// hex chars each), never a guess between machines sharing a hostname.\n...\n 863|    /// instance on `local_node` (local wins) → the sole remaining live instance →\n*864|    /// refuse if several live nodes remain (force `@node`). `Offline` instances are\n 865|    /// never routed to.\n 866|    // [impl->REQ-INST-10]\n 867|    pub fn resolve(&self, address: &Address, local_node: &str) -> Resolution {\n...\n 902|/// the sole remaining live instance → refuse [`AcrossNodes`](Ambiguity::AcrossNodes)\n*903|/// when several distinct live nodes remain (per-node epochs are NOT cross-node\n 904|/// comparable, so we never guess a \"most-recently-active\" winner). Returns `subnet:\n 905|/// None`; the cross-subnet caller ([`resolve_across_visible`]) re-tags the winning\n 906|/// endpoint's subnet onto the hit. Shared by [`resolve_visible`](SubnetRegistry::resolve_visible).\n...\n 1820|    #[test]\n*1821|    fn resource_projection_filters_hidden_and_offline() {\n 1822|        let mut reg = SubnetRegistry::new();\n 1823|        reg.merge_instance(\n 1824|            \"ling\",\n...\n 1846|\n*1847|        let rows = resource_projection(&reg, |id| id == \"hidden-ag\");\n 1848|        let ids: Vec<&str> = rows.iter().map(|r| r.endpoint_id.as_str()).collect();\n 1849|        assert_eq!(\n 1850|            ids,\n...\n 1862|\n*1863|    // [unit->REQ-PICKER-4] resource_projection threads the node label so a consumer\n 1864|    // renders the canonical \"LABEL (keyprefix…)\" — from the instance row when it\n 1865|    // carries one, else filled from the registry's node_labels map (an\n 1866|    // instance-row label that predates the host stamp). Absent both ⇒ None (bare\n...\n 1868|    #[test]\n*1869|    fn resource_projection_threads_node_label() {\n 1870|        let mut reg = SubnetRegistry::new();\n 1871|        // Instance carries its own label.\n 1872|        reg.merge_instance(\n...\n 1897|\n*1898|        let rows = resource_projection(&reg, |_| false);\n 1899|        let by = |id: &str| rows.iter().find(|r| r.endpoint_id == id).unwrap();\n 1900|        assert_eq!(by(\"ling\").node_label.as_deref(), Some(\"HOST1\"), \"instance label\");\n 1901|        assert_eq!(by(\"oak\").node_label.as_deref(), Some(\"HOST2\"), \"map fill\");\n...\n 1917|    #[test]\n*1918|    fn resource_projection_threads_endpoint_type() {\n 1919|        let mut reg = SubnetRegistry::new();\n 1920|        reg.merge_instance(\n 1921|            \"agent\",\n...\n 1942|\n*1943|        let rows = resource_projection(&reg, |_| false);\n 1944|        let by = |id: &str| rows.iter().find(|r| r.endpoint_id == id).unwrap();\n 1945|        assert_eq!(by(\"agent\").endpoint_type.as_deref(), Some(\"live_agent\"), \"gossiped type threaded\");\n 1946|        assert_eq!(by(\"legacy\").endpoint_type, None, \"pre-field row stays None (renders '-')\");\n...\n 1953|    #[test]\n*1954|    fn resource_projection_threads_adapter_projects_controlled() {\n 1955|        let mut reg = SubnetRegistry::new();\n 1956|        reg.merge_instance(\n 1957|            \"agent\",\n...\n 1967|\n*1968|        let rows = resource_projection(&reg, |_| false);\n 1969|        let by = |id: &str| rows.iter().find(|r| r.endpoint_id == id).unwrap();\n 1970|        assert_eq!(by(\"agent\").adapter.as_deref(), Some(\"claude-spt:doyle\"), \"adapter threaded\");\n 1971|        assert_eq!(by(\"agent\").recent_projects, vec![\"spt-core\", \"owl\"], \"projects threaded\");\n...\n 2007|\n*2008|    // [unit->REQ-INST-10] several live nodes + no local + no @node ⇒ refuse, force @node\n 2009|    // (per-node epochs are NOT cross-comparable, so we never guess a winner).\n 2010|    #[test]\n*2011|    fn resolve_multiple_live_nodes_refuses() {\n 2012|        let reg = reg_with(&[\n 2013|            (\"ling\", \"a\", Status::Active),\n 2014|            (\"ling\", \"b\", Status::Dormant),\n\n## spt/\n\n### src/\n#### cli.rs\n 2468|    // snapshot): ANY holder — any node, any status — owns the name.\n*2469|    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 2470|    if let Some(reg) = regs.get(subnet) {\n 2471|        let holders = reg.instances(new_id);\n 2472|        if !holders.is_empty() {\n...\n 2816|) -> i32 {\n*2817|    use spt_net::net::registry::{resource_projection, Status};\n 2818|    use spt_store::visibility::VisibilityStore;\n 2819|    // Default view hides worker perches; `--workers` reveals them. Applied at\n 2820|    // every source leg — local roster (human + json) AND the gossip projection\n...\n 2840|    if json {\n*2841|        let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 2842|        let vis = VisibilityStore::load();\n 2843|        let self_pin = roster::detect_self_id().map(|self_id| {\n 2844|            let entry = roster::enumerate().into_iter().find(|p| p.id == self_id);\n...\n 2907|                .unwrap_or(false);\n*2908|            let rows = resource_projection(reg, |id| vis.hidden(id, &name, hide_new));\n 2909|            let endpoints = rows\n 2910|                .iter()\n 2911|                .filter(|r| keep_remote(&r.endpoint_type))\n...\n 3014|\n*3015|    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 3016|    let vis = VisibilityStore::load();\n 3017|    let names: Vec<String> = match subnet {\n 3018|        Some(one) => vec![one],\n...\n 3064|            .unwrap_or(false);\n*3065|        for row in resource_projection(reg, |id| vis.hidden(id, name, hide_new)) {\n 3066|            if keep_remote(&row.endpoint_type) {\n 3067|                tagged.push((name.clone(), row));\n 3068|            }\n...\n 3588|        || {\n*3589|            crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"))\n 3590|                .values()\n 3591|                .flat_map(|reg| reg.instances(id).iter().map(|i| (i.node.clone(), i.status)))\n 3592|                .collect()\n...\n 3624|            // satisfying ones.\n*3625|            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 3626|            let cand_nodes: Vec<String> = regs\n 3627|                .values()\n 3628|                .flat_map(|reg| reg.instances(id).iter().map(|i| i.node.clone()))\n...\n 3639|        spt_daemon::RestRoute::Ambiguous { nodes } => {\n*3640|            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 3641|            eprintln!(\n 3642|                \"{}\",\n 3643|                crate::wansend::render_refusal(\n...\n 4161|        if !store.subnets.is_empty() {\n*4162|            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 4163|            let roster = spt_store::roster::RosterStore::load();\n 4164|            let own_hex = spt_store::nodeid::load_or_create()\n 4165|                .map(|i| i.public_key().to_hex())\n...\n 4291|    } else {\n*4292|        let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 4293|        let roster = spt_store::roster::RosterStore::load();\n 4294|        let own_hex = spt_store::nodeid::load_or_create()\n 4295|            .map(|i| i.public_key().to_hex())\n...\n 7313|    let snap_dir = perch::identity_dir().join(\"registry\");\n*7314|    let regs = crate::wansend::load_snapshots(&snap_dir);\n 7315|    let roster = spt_store::roster::RosterStore::load();\n 7316|    let own_hex = spt_store::nodeid::load_or_create()\n 7317|        .map(|i| i.public_key().to_hex())\n...\n 7642|    let mut evicted = 0usize;\n*7643|    for (name, mut reg) in crate::wansend::load_snapshots(&snap_dir) {\n 7644|        // Prune is an EXPLICIT forget: drop the dead identity's routable rows\n 7645|        // AND its node-level label (silence-decay keeps the label, but a\n 7646|        // pruned identity is gone for good — REQ-SUBNET-3 / REQ-SUBNET-6).\n...\n 7758|    let snap_dir = perch::identity_dir().join(\"registry\");\n*7759|    for (name, mut reg) in crate::wansend::load_snapshots(&snap_dir) {\n 7760|        let mut n = 0usize;\n 7761|        for hex in &revokees {\n 7762|            n += reg.evict_nodes(|node| node == hex) + reg.evict_node_labels(|node| node == hex);\n#### rc.rs\n 2226|                spt_store::epoch::EpochSource::load_from(&spt_store::perch::epoch_file()),\n*2227|                spt_daemon::presence::registry_snapshot_dir(),\n 2228|            ));\n 2229|            let stop = std::sync::Arc::new(std::sync::atomic::AtomicBool::new(false));\n 2230|            let flag = std::sync::Arc::clone(&stop);\n#### wansend.rs\n 134|    };\n*135|    let regs = load_snapshots(&perch::identity_dir().join(\"registry\"));\n 136|    let subnets = SubnetStore::load();\n 137|    let vis = VisibilityStore::load();\n 138|    let hide_new: BTreeMap<String, bool> = subnets\n...\n 181|    };\n*182|    let regs = load_snapshots(&perch::identity_dir().join(\"registry\"));\n 183|    if spt_daemon::daemon::ensure_running().is_err() {\n 184|        return WanSendOutcome::Failed(\"daemon did not come up\".to_string());\n 185|    }\n...\n 338|    };\n*339|    let regs = load_snapshots(&perch::identity_dir().join(\"registry\"));\n 340|    if spt_daemon::daemon::ensure_running().is_err() {\n 341|        return WanRestOutcome::Failed(\"daemon did not come up\".to_string());\n 342|    }\n...\n 482|    };\n*483|    let regs = load_snapshots(&perch::identity_dir().join(\"registry\"));\n 484|    if spt_daemon::daemon::ensure_running().is_err() {\n 485|        return WanShellLinkOutcome::Failed(\"daemon did not come up\".to_string());\n 486|    }\n...\n 689|/// contract) — resolution then simply finds nothing there.\n*690|pub fn load_snapshots(dir: &Path) -> BTreeMap<String, SubnetRegistry> {\n 691|    let mut out = BTreeMap::new();\n 692|    let Ok(entries) = std::fs::read_dir(dir) else {\n 693|        return out;\n...\n 1316|    #[test]\n*1317|    fn load_snapshots_degrades_on_junk() {\n 1318|        let dir = tempfile::tempdir().unwrap();\n*1319|        assert!(load_snapshots(&dir.path().join(\"nope\")).is_empty());\n 1320|        let d = dir.path().join(\"registry\");\n 1321|        std::fs::create_dir_all(&d).unwrap();\n 1322|        std::fs::write(\n...\n 1328|        std::fs::write(d.join(\"ignored.txt\"), \"x\").unwrap();\n*1329|        let map = load_snapshots(&d);\n 1330|        assert_eq!(map.len(), 1);\n 1331|        assert!(map.contains_key(\"good\"));\n 1332|    }\n...\n 1334|    /// Write a registry snapshot to the canonical on-disk path\n*1335|    /// [`resolve_and_dial_owner`] reads via [`load_snapshots`] — the production\n 1336|    /// disk path, not an injected map.\n 1337|    fn write_snapshot(subnet: &str, id: &str, node: &str) {\n 1338|        let dir = perch::identity_dir().join(\"registry\");\n\n#### api/\n##### reporting.rs\n 162|    // local-only render.\n*163|    let regs = spt_daemon::presence::load_registry_snapshots(\n*164|        &spt_daemon::presence::registry_snapshot_dir(),\n 165|    );\n 166|    let ctx = match spt_store::nodeid::load_or_create() {\n 167|        Ok(identity) => spt_daemon::shelldisc::shell_context_across(\n...\n 903|fn resolve_node_label(node_hex: &str) -> Option<String> {\n*904|    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 905|    for reg in regs.values() {\n 906|        for (k, l) in reg.node_labels() {\n 907|            if k == node_hex {\n\n#### picker/\n##### data.rs\n 123|    let subnets = spt_store::subnet::SubnetStore::load();\n*124|    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 125|    for s in &subnets.subnets {\n 126|        if let Some(reg) = regs.get(&s.name) {\n 127|            for (node, label) in reg.node_labels() {\n...\n 293|fn subnet_rows(node_labels: &std::collections::BTreeMap<String, String>) -> Vec<EndpointRow> {\n*294|    use spt_net::net::registry::resource_projection;\n 295|    use spt_store::visibility::VisibilityStore;\n 296|\n 297|    let subnets = spt_store::subnet::SubnetStore::load();\n*298|    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 299|    let vis = VisibilityStore::load();\n 300|    // Bug #13: a machine shared across N subnets must render as ONE group, not\n 301|    // once per subnet. Dedup by (node, endpoint_id) across the subnet loop,\n...\n 313|        let hide_new = s.hide_new_endpoints;\n*314|        for row in resource_projection(reg, |id| vis.hidden(id, &s.name, hide_new)) {\n 315|            // Non-drivable classes (worker/psyche) are never picker rows, remote\n 316|            // included — a gossiped FLAT worker must not surface as a run target.\n 317|            // [impl->REQ-WORKER-PICKER-EXCLUDED]\n...\n 768|    // fix — was the blanket Dormant) and one WARM sibling (Status::Dormant).\n*769|    // Loaded through the ACTUAL load_snapshots → resource_projection → subnet_rows\n 770|    // pipeline (gather_endpoints, not a hand-built row): W4 stopped the cold perch\n 771|    // reading green-ONLINE; W5 now gives it its OWN DISTINCT reading — Suspended\n 772|    // (gray-FILLED, wakeable), NOT collapsed into Offline (gray-hollow, node down).\n...\n 853|    // (bound-free / unbound / controlled / harness-only), loaded through the REAL\n*854|    // load_snapshots → resource_projection → subnet_rows pipeline (gather_endpoints,\n 855|    // not a hand-built row). Each remote row must derive the SAME EpDisplay a LOCAL\n 856|    // row with the same facts would — the parity guarantee. Before W5, every remote\n 857|    // row reduced to plain green Online because bound/controller/harness weren't\n...\n 948|    // must render as ONE group (per-machine), not once per subnet — verified\n*949|    // through the REAL load_snapshots → resource_projection → subnet_rows pipeline\n 950|    // (gather_endpoints). The same endpoint on the same node appears in both\n 951|    // subnet snapshots; the gathered rows must hold exactly one row for it, grouped\n 952|    // by the machine, with BOTH shared subnet names unioned onto it.\n\n### tests/\n#### list_json_liveness_parity_e2e.rs\n 55|/// Write a WAN registry snapshot for `subnet` carrying `id` on THIS node at\n*56|/// `status` — the persisted-gossip shape `load_snapshots` reads (`<subnet>.json`\n 57|/// under `<identity_dir>/registry`). Own-node so it exercises the exact field\n 58|/// divergence: the human path discards it (roster wins), the `--json` path must\n 59|/// reconcile it rather than emit it verbatim."}],"details":{"scopePath":"spt-core/crates","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":68,"fileCount":14,"files":["spt-core/crates/spt-daemon/src/dispatch.rs","spt-core/crates/spt-daemon/src/notif.rs","spt-core/crates/spt-daemon/src/presence.rs","spt-core/crates/spt-daemon/src/registryhost.rs","spt-core/crates/spt-daemon/src/shellwake.rs","spt-core/crates/spt-daemon/tests/dispatch.rs","spt-core/crates/spt-daemon/tests/twohost.rs","spt-core/crates/spt-net/src/net/registry.rs","spt-core/crates/spt/src/api/reporting.rs","spt-core/crates/spt/src/cli.rs","spt-core/crates/spt/src/picker/data.rs","spt-core/crates/spt/src/rc.rs","spt-core/crates/spt/src/wansend.rs","spt-core/crates/spt/tests/list_json_liveness_parity_e2e.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/dispatch.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/notif.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/presence.rs","count":5},{"path":"spt-core/crates/spt-daemon/src/registryhost.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/shellwake.rs","count":1},{"path":"spt-core/crates/spt-daemon/tests/dispatch.rs","count":2},{"path":"spt-core/crates/spt-daemon/tests/twohost.rs","count":2},{"path":"spt-core/crates/spt-net/src/net/registry.rs","count":17},{"path":"spt-core/crates/spt/src/api/reporting.rs","count":3},{"path":"spt-core/crates/spt/src/cli.rs","count":14},{"path":"spt-core/crates/spt/src/picker/data.rs","count":7},{"path":"spt-core/crates/spt/src/rc.rs","count":1},{"path":"spt-core/crates/spt/src/wansend.rs","count":9},{"path":"spt-core/crates/spt/tests/list_json_liveness_parity_e2e.rs","count":1}],"truncated":false,"displayContent":"# spt-core/crates/\n\n## spt-daemon/\n\n### src/\n#### dispatch.rs\n 617│    let policy = crate::notif::NotifSurfacePolicy::load();\n*618│    let regs = crate::presence::load_registry_snapshots(&crate::presence::registry_snapshot_dir());\n 619│    let owlery = perch::owlery_dir();\n 620│    for row in fresh {\n 621│        match crate::notif::first_fire_at(store, row, &policy, &owlery, self_hex, &regs, now_ms()) {\n#### notif.rs\n 195│) -> Result<FirstFireOutcome, String> {\n*196│    let regs = crate::presence::load_registry_snapshots(&crate::presence::registry_snapshot_dir());\n 197│    first_fire_at(\n 198│        store,\n 199│        row,\n#### presence.rs\n  57│/// exactly the pre-D6 behavior (the stale-tolerant reader contract).\n *58│pub fn load_registry_snapshots(dir: &Path) -> BTreeMap<String, SubnetRegistry> {\n  59│    let mut out = BTreeMap::new();\n  60│    let Ok(entries) = std::fs::read_dir(dir) else {\n  61│        return out;\n    │...\n  81│\n *82│/// The canonical snapshot dir ([`load_registry_snapshots`]' production input).\n *83│pub fn registry_snapshot_dir() -> std::path::PathBuf {\n  84│    spt_store::perch::identity_dir().join(\"registry\")\n  85│}\n  86│\n    │...\n 346│        let dir = tempfile::tempdir().unwrap();\n*347│        assert!(load_registry_snapshots(&dir.path().join(\"missing\")).is_empty());\n 348│        let d = dir.path().join(\"registry\");\n 349│        std::fs::create_dir_all(&d).unwrap();\n 350│        std::fs::write(d.join(\"junk.json\"), \"not json\").unwrap();\n    │...\n 354│        std::fs::write(d.join(\"home.json\"), serde_json::to_string(&reg).unwrap()).unwrap();\n*355│        let regs = load_registry_snapshots(&d);\n 356│        assert_eq!(regs.len(), 1, \"only the valid snapshot loads: {regs:?}\");\n 357│        assert!(regs.contains_key(\"home\"));\n 358│    }\n#### registryhost.rs\n  530│        // epoch: the lease orders it, so it stops showing Active locally\n *531│        // (resource_projection skips non-routable) AND peers converge to gone. Only\n  532│        // still-routable local rows are touched (idempotent — an already-Offline\n  533│        // ghost is left alone).\n  534│        // [impl->REQ-HAZARD-ROSTER-GHOST]\n     │...\n 1849│    // ACTIVE: the next advertise_local sees it gone from disk and advertises it\n*1850│    // OFFLINE (fresh epoch), so resource_projection no longer lists it and peers\n 1851│    // converge — no phantom Active roster line.\n 1852│    #[test]\n 1853│    fn erased_perch_is_advertised_offline_not_left_active() {\n     │...\n 1889│            );\n*1890│            // No longer a routable (Active) resource → resource_projection drops it.\n*1891│            let rows = spt_net::net::registry::resource_projection(\n 1892│                &h.regs.lock().unwrap()[\"adv\"],\n 1893│                |_| false,\n 1894│            );\n#### shellwake.rs\n 337│fn remote_owner_node(owner: &str) -> Option<String> {\n*338│    let regs = crate::presence::load_registry_snapshots(&crate::presence::registry_snapshot_dir());\n 339│    let local = crate::presence::local_node_hex();\n 340│    let mut best: Option<(u64, String)> = None;\n 341│    for reg in regs.values() {\n\n### tests/\n#### dispatch.rs\n 760│    );\n*761│    let snap_dir = spt_daemon::presence::registry_snapshot_dir();\n 762│    std::fs::create_dir_all(&snap_dir).unwrap();\n 763│    std::fs::write(\n 764│        snap_dir.join(\"d6-pres.json\"),\n    │...\n 786│    };\n*787│    let regs = spt_daemon::presence::load_registry_snapshots(&snap_dir);\n 788│    let fired = spt_daemon::notif::first_fire_at(\n 789│        &store,\n 790│        &row,\n#### twohost.rs\n 324│    // `RegistryHost::new` uses): the presence fire path + feed-apply surface\n*325│    // read `presence::registry_snapshot_dir()`, so a host mirroring anywhere\n 326│    // else starves the M5 presence rungs (the D9a first-run failure).\n 327│    let registry = Arc::new(RegistryHost::new_at(\n 328│        own_hex,\n 329│        EpochSource::load_from(&perch::epoch_file()),\n*330│        spt_daemon::presence::registry_snapshot_dir(),\n 331│    ));\n 332│    let stop = Arc::new(AtomicBool::new(false));\n 333│    {\n\n## spt-net/src/net/\n### registry.rs\n   84│    /// replication (a blurb update is ordered like any instance update);\n  *85│    /// the \"subnet resource registry\" is a [projection](resource_projection)\n   86│    /// of these rows. Additive serde-default: absent = no blurb, and a\n   87│    /// pre-D9-4 record parses clean.\n   88│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n     │...\n  565│// [impl->REQ-INST-14]\n *566│pub fn resource_projection(\n  567│    reg: &SubnetRegistry,\n  568│    excluded: impl Fn(&str) -> bool,\n  569│) -> Vec<ResourceRow> {\n     │...\n  820│pub enum Ambiguity {\n *821│    /// Several live nodes hold the id in one subnet — qualify with `id@node`. (Epochs are\n  822│    /// per-node monotonic and NOT comparable across nodes, so we never silently pick a\n  823│    /// \"most-recently-active\" winner here — that would be a guess.) Lists the nodes.\n  824│    AcrossNodes(Vec<String>),\n *825│    /// The `@node` qualifier itself matched SEVERAL distinct live nodes (M7\n  826│    /// D2, REQ-SUBNET-3): a shared label, or a too-short key-prefix.\n  827│    /// Refuse-and-qualify — `candidates` lists paste-able key prefixes (8\n  828│    /// hex chars each), never a guess between machines sharing a hostname.\n     │...\n  863│    /// instance on `local_node` (local wins) → the sole remaining live instance →\n *864│    /// refuse if several live nodes remain (force `@node`). `Offline` instances are\n  865│    /// never routed to.\n  866│    // [impl->REQ-INST-10]\n  867│    pub fn resolve(&self, address: &Address, local_node: &str) -> Resolution {\n     │...\n  902│/// the sole remaining live instance → refuse [`AcrossNodes`](Ambiguity::AcrossNodes)\n *903│/// when several distinct live nodes remain (per-node epochs are NOT cross-node\n  904│/// comparable, so we never guess a \"most-recently-active\" winner). Returns `subnet:\n  905│/// None`; the cross-subnet caller ([`resolve_across_visible`]) re-tags the winning\n  906│/// endpoint's subnet onto the hit. Shared by [`resolve_visible`](SubnetRegistry::resolve_visible).\n     │...\n 1820│    #[test]\n*1821│    fn resource_projection_filters_hidden_and_offline() {\n 1822│        let mut reg = SubnetRegistry::new();\n 1823│        reg.merge_instance(\n 1824│            \"ling\",\n     │...\n 1846│\n*1847│        let rows = resource_projection(&reg, |id| id == \"hidden-ag\");\n 1848│        let ids: Vec<&str> = rows.iter().map(|r| r.endpoint_id.as_str()).collect();\n 1849│        assert_eq!(\n 1850│            ids,\n     │...\n 1862│\n*1863│    // [unit->REQ-PICKER-4] resource_projection threads the node label so a consumer\n 1864│    // renders the canonical \"LABEL (keyprefix…)\" — from the instance row when it\n 1865│    // carries one, else filled from the registry's node_labels map (an\n 1866│    // instance-row label that predates the host stamp). Absent both ⇒ None (bare\n     │...\n 1868│    #[test]\n*1869│    fn resource_projection_threads_node_label() {\n 1870│        let mut reg = SubnetRegistry::new();\n 1871│        // Instance carries its own label.\n 1872│        reg.merge_instance(\n     │...\n 1897│\n*1898│        let rows = resource_projection(&reg, |_| false);\n 1899│        let by = |id: &str| rows.iter().find(|r| r.endpoint_id == id).unwrap();\n 1900│        assert_eq!(by(\"ling\").node_label.as_deref(), Some(\"HOST1\"), \"instance label\");\n 1901│        assert_eq!(by(\"oak\").node_label.as_deref(), Some(\"HOST2\"), \"map fill\");\n     │...\n 1917│    #[test]\n*1918│    fn resource_projection_threads_endpoint_type() {\n 1919│        let mut reg = SubnetRegistry::new();\n 1920│        reg.merge_instance(\n 1921│            \"agent\",\n     │...\n 1942│\n*1943│        let rows = resource_projection(&reg, |_| false);\n 1944│        let by = |id: &str| rows.iter().find(|r| r.endpoint_id == id).unwrap();\n 1945│        assert_eq!(by(\"agent\").endpoint_type.as_deref(), Some(\"live_agent\"), \"gossiped type threaded\");\n 1946│        assert_eq!(by(\"legacy\").endpoint_type, None, \"pre-field row stays None (renders '-')\");\n     │...\n 1953│    #[test]\n*1954│    fn resource_projection_threads_adapter_projects_controlled() {\n 1955│        let mut reg = SubnetRegistry::new();\n 1956│        reg.merge_instance(\n 1957│            \"agent\",\n     │...\n 1967│\n*1968│        let rows = resource_projection(&reg, |_| false);\n 1969│        let by = |id: &str| rows.iter().find(|r| r.endpoint_id == id).unwrap();\n 1970│        assert_eq!(by(\"agent\").adapter.as_deref(), Some(\"claude-spt:doyle\"), \"adapter threaded\");\n 1971│        assert_eq!(by(\"agent\").recent_projects, vec![\"spt-core\", \"owl\"], \"projects threaded\");\n     │...\n 2007│\n*2008│    // [unit->REQ-INST-10] several live nodes + no local + no @node ⇒ refuse, force @node\n 2009│    // (per-node epochs are NOT cross-comparable, so we never guess a winner).\n 2010│    #[test]\n*2011│    fn resolve_multiple_live_nodes_refuses() {\n 2012│        let reg = reg_with(&[\n 2013│            (\"ling\", \"a\", Status::Active),\n 2014│            (\"ling\", \"b\", Status::Dormant),\n\n## spt/\n\n### src/\n#### cli.rs\n 2468│    // snapshot): ANY holder — any node, any status — owns the name.\n*2469│    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 2470│    if let Some(reg) = regs.get(subnet) {\n 2471│        let holders = reg.instances(new_id);\n 2472│        if !holders.is_empty() {\n     │...\n 2816│) -> i32 {\n*2817│    use spt_net::net::registry::{resource_projection, Status};\n 2818│    use spt_store::visibility::VisibilityStore;\n 2819│    // Default view hides worker perches; `--workers` reveals them. Applied at\n 2820│    // every source leg — local roster (human + json) AND the gossip projection\n     │...\n 2840│    if json {\n*2841│        let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 2842│        let vis = VisibilityStore::load();\n 2843│        let self_pin = roster::detect_self_id().map(|self_id| {\n 2844│            let entry = roster::enumerate().into_iter().find(|p| p.id == self_id);\n     │...\n 2907│                .unwrap_or(false);\n*2908│            let rows = resource_projection(reg, |id| vis.hidden(id, &name, hide_new));\n 2909│            let endpoints = rows\n 2910│                .iter()\n 2911│                .filter(|r| keep_remote(&r.endpoint_type))\n     │...\n 3014│\n*3015│    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 3016│    let vis = VisibilityStore::load();\n 3017│    let names: Vec<String> = match subnet {\n 3018│        Some(one) => vec![one],\n     │...\n 3064│            .unwrap_or(false);\n*3065│        for row in resource_projection(reg, |id| vis.hidden(id, name, hide_new)) {\n 3066│            if keep_remote(&row.endpoint_type) {\n 3067│                tagged.push((name.clone(), row));\n 3068│            }\n     │...\n 3588│        || {\n*3589│            crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"))\n 3590│                .values()\n 3591│                .flat_map(|reg| reg.instances(id).iter().map(|i| (i.node.clone(), i.status)))\n 3592│                .collect()\n     │...\n 3624│            // satisfying ones.\n*3625│            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 3626│            let cand_nodes: Vec<String> = regs\n 3627│                .values()\n 3628│                .flat_map(|reg| reg.instances(id).iter().map(|i| i.node.clone()))\n     │...\n 3639│        spt_daemon::RestRoute::Ambiguous { nodes } => {\n*3640│            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 3641│            eprintln!(\n 3642│                \"{}\",\n 3643│                crate::wansend::render_refusal(\n     │...\n 4161│        if !store.subnets.is_empty() {\n*4162│            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 4163│            let roster = spt_store::roster::RosterStore::load();\n 4164│            let own_hex = spt_store::nodeid::load_or_create()\n 4165│                .map(|i| i.public_key().to_hex())\n     │...\n 4291│    } else {\n*4292│        let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 4293│        let roster = spt_store::roster::RosterStore::load();\n 4294│        let own_hex = spt_store::nodeid::load_or_create()\n 4295│            .map(|i| i.public_key().to_hex())\n     │...\n 7313│    let snap_dir = perch::identity_dir().join(\"registry\");\n*7314│    let regs = crate::wansend::load_snapshots(&snap_dir);\n 7315│    let roster = spt_store::roster::RosterStore::load();\n 7316│    let own_hex = spt_store::nodeid::load_or_create()\n 7317│        .map(|i| i.public_key().to_hex())\n     │...\n 7642│    let mut evicted = 0usize;\n*7643│    for (name, mut reg) in crate::wansend::load_snapshots(&snap_dir) {\n 7644│        // Prune is an EXPLICIT forget: drop the dead identity's routable rows\n 7645│        // AND its node-level label (silence-decay keeps the label, but a\n 7646│        // pruned identity is gone for good — REQ-SUBNET-3 / REQ-SUBNET-6).\n     │...\n 7758│    let snap_dir = perch::identity_dir().join(\"registry\");\n*7759│    for (name, mut reg) in crate::wansend::load_snapshots(&snap_dir) {\n 7760│        let mut n = 0usize;\n 7761│        for hex in &revokees {\n 7762│            n += reg.evict_nodes(|node| node == hex) + reg.evict_node_labels(|node| node == hex);\n#### rc.rs\n 2226│                spt_store::epoch::EpochSource::load_from(&spt_store::perch::epoch_file()),\n*2227│                spt_daemon::presence::registry_snapshot_dir(),\n 2228│            ));\n 2229│            let stop = std::sync::Arc::new(std::sync::atomic::AtomicBool::new(false));\n 2230│            let flag = std::sync::Arc::clone(&stop);\n#### wansend.rs\n  134│    };\n *135│    let regs = load_snapshots(&perch::identity_dir().join(\"registry\"));\n  136│    let subnets = SubnetStore::load();\n  137│    let vis = VisibilityStore::load();\n  138│    let hide_new: BTreeMap<String, bool> = subnets\n     │...\n  181│    };\n *182│    let regs = load_snapshots(&perch::identity_dir().join(\"registry\"));\n  183│    if spt_daemon::daemon::ensure_running().is_err() {\n  184│        return WanSendOutcome::Failed(\"daemon did not come up\".to_string());\n  185│    }\n     │...\n  338│    };\n *339│    let regs = load_snapshots(&perch::identity_dir().join(\"registry\"));\n  340│    if spt_daemon::daemon::ensure_running().is_err() {\n  341│        return WanRestOutcome::Failed(\"daemon did not come up\".to_string());\n  342│    }\n     │...\n  482│    };\n *483│    let regs = load_snapshots(&perch::identity_dir().join(\"registry\"));\n  484│    if spt_daemon::daemon::ensure_running().is_err() {\n  485│        return WanShellLinkOutcome::Failed(\"daemon did not come up\".to_string());\n  486│    }\n     │...\n  689│/// contract) — resolution then simply finds nothing there.\n *690│pub fn load_snapshots(dir: &Path) -> BTreeMap<String, SubnetRegistry> {\n  691│    let mut out = BTreeMap::new();\n  692│    let Ok(entries) = std::fs::read_dir(dir) else {\n  693│        return out;\n     │...\n 1316│    #[test]\n*1317│    fn load_snapshots_degrades_on_junk() {\n 1318│        let dir = tempfile::tempdir().unwrap();\n*1319│        assert!(load_snapshots(&dir.path().join(\"nope\")).is_empty());\n 1320│        let d = dir.path().join(\"registry\");\n 1321│        std::fs::create_dir_all(&d).unwrap();\n 1322│        std::fs::write(\n     │...\n 1328│        std::fs::write(d.join(\"ignored.txt\"), \"x\").unwrap();\n*1329│        let map = load_snapshots(&d);\n 1330│        assert_eq!(map.len(), 1);\n 1331│        assert!(map.contains_key(\"good\"));\n 1332│    }\n     │...\n 1334│    /// Write a registry snapshot to the canonical on-disk path\n*1335│    /// [`resolve_and_dial_owner`] reads via [`load_snapshots`] — the production\n 1336│    /// disk path, not an injected map.\n 1337│    fn write_snapshot(subnet: &str, id: &str, node: &str) {\n 1338│        let dir = perch::identity_dir().join(\"registry\");\n\n#### api/\n##### reporting.rs\n 162│    // local-only render.\n*163│    let regs = spt_daemon::presence::load_registry_snapshots(\n*164│        &spt_daemon::presence::registry_snapshot_dir(),\n 165│    );\n 166│    let ctx = match spt_store::nodeid::load_or_create() {\n 167│        Ok(identity) => spt_daemon::shelldisc::shell_context_across(\n    │...\n 903│fn resolve_node_label(node_hex: &str) -> Option<String> {\n*904│    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 905│    for reg in regs.values() {\n 906│        for (k, l) in reg.node_labels() {\n 907│            if k == node_hex {\n\n#### picker/\n##### data.rs\n 123│    let subnets = spt_store::subnet::SubnetStore::load();\n*124│    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 125│    for s in &subnets.subnets {\n 126│        if let Some(reg) = regs.get(&s.name) {\n 127│            for (node, label) in reg.node_labels() {\n    │...\n 293│fn subnet_rows(node_labels: &std::collections::BTreeMap<String, String>) -> Vec<EndpointRow> {\n*294│    use spt_net::net::registry::resource_projection;\n 295│    use spt_store::visibility::VisibilityStore;\n 296│\n 297│    let subnets = spt_store::subnet::SubnetStore::load();\n*298│    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n 299│    let vis = VisibilityStore::load();\n 300│    // Bug #13: a machine shared across N subnets must render as ONE group, not\n 301│    // once per subnet. Dedup by (node, endpoint_id) across the subnet loop,\n    │...\n 313│        let hide_new = s.hide_new_endpoints;\n*314│        for row in resource_projection(reg, |id| vis.hidden(id, &s.name, hide_new)) {\n 315│            // Non-drivable classes (worker/psyche) are never picker rows, remote\n 316│            // included — a gossiped FLAT worker must not surface as a run target.\n 317│            // [impl->REQ-WORKER-PICKER-EXCLUDED]\n    │...\n 768│    // fix — was the blanket Dormant) and one WARM sibling (Status::Dormant).\n*769│    // Loaded through the ACTUAL load_snapshots → resource_projection → subnet_rows\n 770│    // pipeline (gather_endpoints, not a hand-built row): W4 stopped the cold perch\n 771│    // reading green-ONLINE; W5 now gives it its OWN DISTINCT reading — Suspended\n 772│    // (gray-FILLED, wakeable), NOT collapsed into Offline (gray-hollow, node down).\n    │...\n 853│    // (bound-free / unbound / controlled / harness-only), loaded through the REAL\n*854│    // load_snapshots → resource_projection → subnet_rows pipeline (gather_endpoints,\n 855│    // not a hand-built row). Each remote row must derive the SAME EpDisplay a LOCAL\n 856│    // row with the same facts would — the parity guarantee. Before W5, every remote\n 857│    // row reduced to plain green Online because bound/controller/harness weren't\n    │...\n 948│    // must render as ONE group (per-machine), not once per subnet — verified\n*949│    // through the REAL load_snapshots → resource_projection → subnet_rows pipeline\n 950│    // (gather_endpoints). The same endpoint on the same node appears in both\n 951│    // subnet snapshots; the gathered rows must hold exactly one row for it, grouped\n 952│    // by the machine, with BOTH shared subnet names unioned onto it.\n\n### tests/\n#### list_json_liveness_parity_e2e.rs\n 55│/// Write a WAN registry snapshot for `subnet` carrying `id` on THIS node at\n*56│/// `status` — the persisted-gossip shape `load_snapshots` reads (`<subnet>.json`\n 57│/// under `<identity_dir>/registry`). Own-node so it exercises the exact field\n 58│/// divergence: the human path discards it (roster wins), the `--json` path must\n 59│/// reconcile it rather than emit it verbatim."},"isError":false,"timestamp":1784069033105}}
{"type":"message","id":"697088db","parentId":"a60d7804","timestamp":"2026-07-14T22:43:53.129Z","message":{"role":"toolResult","toolCallId":"call_UYW3S6uTp7lrsg50syYSnxrH|fc_0b084cf0b521ab15016a56bba8e5388190bcd5f4e01e6b2cdd","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt/\n\n### src/\n#### cli.rs\n 1252|                // footer; explicit `status` drops it (M8 decision 12).\n*1253|                None => cmd_subnet_status(None, false, true, json),\n*1254|                Some(SubnetCmd::Status { name, nodes }) => cmd_subnet_status(name, nodes, false, json),\n 1255|                Some(SubnetCmd::Create { name }) => cmd_subnet_create(name),\n 1256|                Some(SubnetCmd::ShowCode { name }) => cmd_subnet_show_code(name, json),\n 1257|                Some(SubnetCmd::Join {\n...\n 4166|                .unwrap_or_default();\n*4167|            for row in subnet_status_rows(\n 4168|                &store,\n 4169|                &regs,\n 4170|                &roster,\n...\n 4297|        println!(\"subnets:\");\n*4298|        for row in subnet_status_rows(\n 4299|            &store,\n 4300|            &regs,\n 4301|            &roster,\n...\n 6712|/// or codes (M7 plan decision 5).\n*6713|struct SubnetStatusRow {\n 6714|    name: String,\n 6715|    /// Paired nodes known for the subnet (this node included).\n 6716|    nodes: usize,\n...\n 6730|// [impl->REQ-SUBNET-1]\n*6731|fn subnet_status_rows(\n 6732|    store: &SubnetStore,\n 6733|    regs: &std::collections::BTreeMap<String, spt_net::net::registry::SubnetRegistry>,\n 6734|    roster: &spt_store::roster::RosterStore,\n...\n 6736|    only: Option<&str>,\n*6737|) -> Vec<SubnetStatusRow> {\n 6738|    store\n 6739|        .subnets\n 6740|        .iter()\n...\n 6758|            // This node is a member even when its identity could not load.\n*6759|            SubnetStatusRow {\n 6760|                name: s.name.clone(),\n 6761|                nodes: nodes.len().max(1),\n 6762|                endpoints,\n...\n 6773|// [impl->REQ-SUBNET-8]\n*6774|fn render_subnet_status(rows: &[SubnetStatusRow], daemon_running: bool, hints: bool) -> String {\n 6775|    let mut out = String::new();\n 6776|    if rows.is_empty() {\n 6777|        out.push_str(standalone_text(daemon_running));\n...\n 6838|/// an implied-healthy \"online\" beside a stopped daemon (the `daemon stop` →\n*6839|/// `subnet status --nodes` still-\"online\" confusion). The zero-subnet view is\n 6840|/// already daemon-keyed by `standalone_text`; this covers the rows case. `None`\n 6841|/// when the daemon is up (the stall / inbound hints own that state).\n 6842|// [impl->REQ-SUBNET-8]\n...\n 6913|\n*6914|/// One node's `status --nodes` row (M7 plan decision 6): identity, advertised\n 6915|/// label, endpoint counts, and the gossip-recency liveness verdict.\n 6916|struct NodeRow {\n 6917|    node: String,\n...\n 7253|/// `spt subnet status` --json: the membership rows (a copy of\n*7254|/// `SubnetStatusRow`), plus the per-node rows (a copy of `NodeRow` + the\n 7255|/// probe-settled liveness) when `--nodes` is set. Internal structs stay free to\n 7256|/// refactor — these are the committed shape.\n 7257|// [impl->REQ-CLI-JSON]\n 7258|#[derive(serde::Serialize)]\n*7259|struct SubnetStatusJson {\n 7260|    daemon_running: bool,\n 7261|    subnets: Vec<SubnetRowJson>,\n 7262|}\n 7263|\n*7264|/// One subnet's membership-shape row (mirrors `SubnetStatusRow`). `nodes`\n 7265|/// (per-node detail) is present only on the `--nodes` view; otherwise empty.\n 7266|// [impl->REQ-CLI-JSON]\n 7267|#[derive(serde::Serialize)]\n...\n 7285|\n*7286|/// `spt subnet [status [NAME] [--nodes]]` — the membership view (REQ-SUBNET-1,\n 7287|/// M7 plan decisions 5 + 6; M8 decisions 11–12, 23). Read-only and ungated:\n 7288|/// prints membership shape, never secrets. `hints` = the bare-`spt subnet`\n 7289|/// invocation (the footer rides only that view).\n...\n 7291|// [impl->REQ-SUBNET-8]\n*7292|fn cmd_subnet_status(name: Option<String>, nodes: bool, hints: bool, json: bool) -> i32 {\n 7293|    let store = SubnetStore::load();\n 7294|    if let Some(n) = &name {\n 7295|        if store.find(n).is_none() {\n...\n 7319|    if !nodes {\n*7320|        let rows = subnet_status_rows(\n 7321|            &store,\n 7322|            &regs,\n 7323|            &roster,\n...\n 7337|                .collect();\n*7338|            return print_json(&SubnetStatusJson {\n 7339|                daemon_running,\n 7340|                subnets,\n 7341|            });\n 7342|        }\n*7343|        let mut out = render_subnet_status(&rows, daemon_running, hints);\n 7344|        if let Some(w) = daemon_offline_hint(daemon_running) {\n 7345|            out.push_str(&w);\n 7346|        }\n...\n 7461|    if json {\n*7462|        return print_json(&SubnetStatusJson {\n 7463|            daemon_running,\n 7464|            subnets: json_subnets,\n 7465|        });\n\n### tests/\n#### list_json_liveness_parity_e2e.rs\n 7|//! `Suspended`. The HUMAN `endpoint list` DISCARDS this node's own gossip rows\n*8|//! (`group_remote_nodes` — the roster is its status truth) so it reads the pid-alive\n 9|//! gateway live; the `--json` builder did NOT — it emitted the un-reconciled snapshot\n 10|//! status verbatim → `Suspended` on `--json` but live to a human. The adapter\n 11|//! suspend-poll reads the DIVERGENT `--json` status and self-suspends a live gateway.\n...\n 106|/// --json` payload, or `None` if the row is absent.\n*107|fn json_subnet_status(payload: &serde_json::Value, name: &str, id: &str) -> Option<String> {\n 108|    payload\n 109|        .get(\"subnets\")?\n 110|        .as_array()?\n...\n 155|        .unwrap_or_else(|e| panic!(\"--json must be parseable ({e}): {json_stdout}\"));\n*156|    let json_status = json_subnet_status(&payload, \"s1\", \"mobile-gw\")\n 157|        .expect(\"the s1 subnet group must carry the self-owned gateway row\");\n 158|\n 159|    // ── human: the reference surface the adapter's `--json` read must match. ──\n\n## spt-daemon/src/\n### brain.rs\n 41|    KillReq, NetDialReq, NetDialed, NetPresenceEvent, NetPresenceSubscribeReq, NetSent,\n*42|    NetStatusReply, NetStreamData, NetStreamEof, NetStreamOpenReq, NetStreamOpened, NetStreamSendReq,\n 43|    NetStreamSubscribeReq, NetStreamsReply, OutputEvent, MetMember, PairCodeSubmit, PairJoinReply, PairJoinReq, PairMeetReq, ResizeReq,\n 44|    SessionsReply, SizeEvent, SpawnReq, Spawned, SubscribeOutcome, SubscribeReq, SubscribedReply,\n 45|    ViewerEvictedEvent,\n...\n 137|    /// The broker-owned net endpoint's status (a `net-status` reply, D4a).\n*138|    NetStatus(NetStatusReply),\n 139|    /// A net dial durably landed — fresh or deduped (D4a).\n 140|    NetDialed(NetDialed),\n 141|    /// A NON-BLOCKING dial submit was accepted and its concurrent dial spawned\n...\n 763|                KIND_NET_STATUS_REPLY => {\n*764|                    let ev: NetStatusReply = serde_json::from_value(env.payload)\n 765|                        .map_err(|e| io::Error::new(io::ErrorKind::InvalidData, e))?;\n 766|                    return Ok(BrokerEvent::NetStatus(ev));\n 767|                }\n...\n 1114|    // [impl->REQ-DAEMON-2]\n*1115|    pub fn net_status(&mut self) -> io::Result<NetStatusReply> {\n 1116|        self.send(KIND_NET_STATUS, serde_json::Value::Null)?;\n 1117|        loop {\n 1118|            match self.read_event()? {\n### broker.rs\n 57|    ErrorEvent, ExitEvent, InputReq, KillReq, NetDialReq, NetPresenceSubscribeReq, NetSent,\n*58|    BrokerImageReply, StallEvictsReply, NetStatusReply, NetStreamOpenReq, NetStreamOpened, NetStreamSendReq, NetStreamSubscribeReq,\n 59|    NetStreamsReply, MetMember, PairCodeSubmit, PairJoinReply, PairJoinReq, PairMeetReq, ResizeReq, SessionInfo, SessionsReply, SpawnReq,\n 60|    Spawned, SubscribeOutcome, SubscribeReq, UnsubscribeReq, KIND_BRAIN_RESTART, KIND_BRAIN_RESTARTED, KIND_ENDPOINT_INPUT, KIND_ERROR, KIND_EXIT,\n 61|    KIND_INPUT, KIND_KILL, KIND_NET_DIAL, KIND_NET_DIAL_LOOPBACK, KIND_NET_DIAL_SUBMIT,\n...\n 3822|        let reply = match self.net.get() {\n*3823|            Some(host) => NetStatusReply {\n 3824|                enabled: true,\n 3825|                node_id_hex: Some(host.node_id_hex()),\n 3826|                addr: host.addr_json(),\n...\n 3828|            },\n*3829|            None => NetStatusReply {\n 3830|                enabled: false,\n 3831|                node_id_hex: None,\n 3832|                addr: serde_json::Value::Null,\n...\n 3837|            KIND_NET_STATUS_REPLY,\n*3838|            serde_json::to_value(reply).expect(\"NetStatusReply serializes\"),\n 3839|        );\n 3840|        send_frame(send, &frame);\n 3841|    }\n### msg.rs\n 525|#[derive(Debug, Clone, Serialize, Deserialize)]\n*526|pub struct NetStatusReply {\n 527|    /// Whether this broker hosts a net endpoint at all.\n 528|    pub enabled: bool,\n 529|    /// The node's stable name (lowercase-hex Ed25519 pubkey == iroh EndpointId).\n### serveprobe.rs\n 6|//!\n*7|//! `subnet status --nodes` settles liveness in two tiers: gossip-recency\n 8|//! first, a live probe for the rows gossip could not settle. The probe used to\n 9|//! be a raw transport dial by node-pubkey — it proved the peer's daemon\n 10|//! endpoint was bound (the box is up), but ONE ALPN serves every subnet, so it"}],"details":{"scopePath":"spt-core/crates/spt, spt-core/crates/spt-daemon, spt-core/crates/spt-store, spt-core/crates/spt-net","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":33,"fileCount":6,"files":["spt-core/crates/spt/src/cli.rs","spt-core/crates/spt/tests/list_json_liveness_parity_e2e.rs","spt-core/crates/spt-daemon/src/brain.rs","spt-core/crates/spt-daemon/src/broker.rs","spt-core/crates/spt-daemon/src/msg.rs","spt-core/crates/spt-daemon/src/serveprobe.rs"],"fileMatches":[{"path":"spt-core/crates/spt/src/cli.rs","count":20},{"path":"spt-core/crates/spt/tests/list_json_liveness_parity_e2e.rs","count":3},{"path":"spt-core/crates/spt-daemon/src/brain.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/broker.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/msg.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/serveprobe.rs","count":1}],"truncated":true,"perFileLimitReached":20,"displayContent":"# spt-core/crates/\n\n## spt/\n\n### src/\n#### cli.rs\n 1252│                // footer; explicit `status` drops it (M8 decision 12).\n*1253│                None => cmd_subnet_status(None, false, true, json),\n*1254│                Some(SubnetCmd::Status { name, nodes }) => cmd_subnet_status(name, nodes, false, json),\n 1255│                Some(SubnetCmd::Create { name }) => cmd_subnet_create(name),\n 1256│                Some(SubnetCmd::ShowCode { name }) => cmd_subnet_show_code(name, json),\n 1257│                Some(SubnetCmd::Join {\n     │...\n 4166│                .unwrap_or_default();\n*4167│            for row in subnet_status_rows(\n 4168│                &store,\n 4169│                &regs,\n 4170│                &roster,\n     │...\n 4297│        println!(\"subnets:\");\n*4298│        for row in subnet_status_rows(\n 4299│            &store,\n 4300│            &regs,\n 4301│            &roster,\n     │...\n 6712│/// or codes (M7 plan decision 5).\n*6713│struct SubnetStatusRow {\n 6714│    name: String,\n 6715│    /// Paired nodes known for the subnet (this node included).\n 6716│    nodes: usize,\n     │...\n 6730│// [impl->REQ-SUBNET-1]\n*6731│fn subnet_status_rows(\n 6732│    store: &SubnetStore,\n 6733│    regs: &std::collections::BTreeMap<String, spt_net::net::registry::SubnetRegistry>,\n 6734│    roster: &spt_store::roster::RosterStore,\n     │...\n 6736│    only: Option<&str>,\n*6737│) -> Vec<SubnetStatusRow> {\n 6738│    store\n 6739│        .subnets\n 6740│        .iter()\n     │...\n 6758│            // This node is a member even when its identity could not load.\n*6759│            SubnetStatusRow {\n 6760│                name: s.name.clone(),\n 6761│                nodes: nodes.len().max(1),\n 6762│                endpoints,\n     │...\n 6773│// [impl->REQ-SUBNET-8]\n*6774│fn render_subnet_status(rows: &[SubnetStatusRow], daemon_running: bool, hints: bool) -> String {\n 6775│    let mut out = String::new();\n 6776│    if rows.is_empty() {\n 6777│        out.push_str(standalone_text(daemon_running));\n     │...\n 6838│/// an implied-healthy \"online\" beside a stopped daemon (the `daemon stop` →\n*6839│/// `subnet status --nodes` still-\"online\" confusion). The zero-subnet view is\n 6840│/// already daemon-keyed by `standalone_text`; this covers the rows case. `None`\n 6841│/// when the daemon is up (the stall / inbound hints own that state).\n 6842│// [impl->REQ-SUBNET-8]\n     │...\n 6913│\n*6914│/// One node's `status --nodes` row (M7 plan decision 6): identity, advertised\n 6915│/// label, endpoint counts, and the gossip-recency liveness verdict.\n 6916│struct NodeRow {\n 6917│    node: String,\n     │...\n 7253│/// `spt subnet status` --json: the membership rows (a copy of\n*7254│/// `SubnetStatusRow`), plus the per-node rows (a copy of `NodeRow` + the\n 7255│/// probe-settled liveness) when `--nodes` is set. Internal structs stay free to\n 7256│/// refactor — these are the committed shape.\n 7257│// [impl->REQ-CLI-JSON]\n 7258│#[derive(serde::Serialize)]\n*7259│struct SubnetStatusJson {\n 7260│    daemon_running: bool,\n 7261│    subnets: Vec<SubnetRowJson>,\n 7262│}\n 7263│\n*7264│/// One subnet's membership-shape row (mirrors `SubnetStatusRow`). `nodes`\n 7265│/// (per-node detail) is present only on the `--nodes` view; otherwise empty.\n 7266│// [impl->REQ-CLI-JSON]\n 7267│#[derive(serde::Serialize)]\n     │...\n 7285│\n*7286│/// `spt subnet [status [NAME] [--nodes]]` — the membership view (REQ-SUBNET-1,\n 7287│/// M7 plan decisions 5 + 6; M8 decisions 11–12, 23). Read-only and ungated:\n 7288│/// prints membership shape, never secrets. `hints` = the bare-`spt subnet`\n 7289│/// invocation (the footer rides only that view).\n     │...\n 7291│// [impl->REQ-SUBNET-8]\n*7292│fn cmd_subnet_status(name: Option<String>, nodes: bool, hints: bool, json: bool) -> i32 {\n 7293│    let store = SubnetStore::load();\n 7294│    if let Some(n) = &name {\n 7295│        if store.find(n).is_none() {\n     │...\n 7319│    if !nodes {\n*7320│        let rows = subnet_status_rows(\n 7321│            &store,\n 7322│            &regs,\n 7323│            &roster,\n     │...\n 7337│                .collect();\n*7338│            return print_json(&SubnetStatusJson {\n 7339│                daemon_running,\n 7340│                subnets,\n 7341│            });\n 7342│        }\n*7343│        let mut out = render_subnet_status(&rows, daemon_running, hints);\n 7344│        if let Some(w) = daemon_offline_hint(daemon_running) {\n 7345│            out.push_str(&w);\n 7346│        }\n     │...\n 7461│    if json {\n*7462│        return print_json(&SubnetStatusJson {\n 7463│            daemon_running,\n 7464│            subnets: json_subnets,\n 7465│        });\n\n### tests/\n#### list_json_liveness_parity_e2e.rs\n   7│//! `Suspended`. The HUMAN `endpoint list` DISCARDS this node's own gossip rows\n  *8│//! (`group_remote_nodes` — the roster is its status truth) so it reads the pid-alive\n   9│//! gateway live; the `--json` builder did NOT — it emitted the un-reconciled snapshot\n  10│//! status verbatim → `Suspended` on `--json` but live to a human. The adapter\n  11│//! suspend-poll reads the DIVERGENT `--json` status and self-suspends a live gateway.\n    │...\n 106│/// --json` payload, or `None` if the row is absent.\n*107│fn json_subnet_status(payload: &serde_json::Value, name: &str, id: &str) -> Option<String> {\n 108│    payload\n 109│        .get(\"subnets\")?\n 110│        .as_array()?\n    │...\n 155│        .unwrap_or_else(|e| panic!(\"--json must be parseable ({e}): {json_stdout}\"));\n*156│    let json_status = json_subnet_status(&payload, \"s1\", \"mobile-gw\")\n 157│        .expect(\"the s1 subnet group must carry the self-owned gateway row\");\n 158│\n 159│    // ── human: the reference surface the adapter's `--json` read must match. ──\n\n## spt-daemon/src/\n### brain.rs\n   41│    KillReq, NetDialReq, NetDialed, NetPresenceEvent, NetPresenceSubscribeReq, NetSent,\n  *42│    NetStatusReply, NetStreamData, NetStreamEof, NetStreamOpenReq, NetStreamOpened, NetStreamSendReq,\n   43│    NetStreamSubscribeReq, NetStreamsReply, OutputEvent, MetMember, PairCodeSubmit, PairJoinReply, PairJoinReq, PairMeetReq, ResizeReq,\n   44│    SessionsReply, SizeEvent, SpawnReq, Spawned, SubscribeOutcome, SubscribeReq, SubscribedReply,\n   45│    ViewerEvictedEvent,\n     │...\n  137│    /// The broker-owned net endpoint's status (a `net-status` reply, D4a).\n *138│    NetStatus(NetStatusReply),\n  139│    /// A net dial durably landed — fresh or deduped (D4a).\n  140│    NetDialed(NetDialed),\n  141│    /// A NON-BLOCKING dial submit was accepted and its concurrent dial spawned\n     │...\n  763│                KIND_NET_STATUS_REPLY => {\n *764│                    let ev: NetStatusReply = serde_json::from_value(env.payload)\n  765│                        .map_err(|e| io::Error::new(io::ErrorKind::InvalidData, e))?;\n  766│                    return Ok(BrokerEvent::NetStatus(ev));\n  767│                }\n     │...\n 1114│    // [impl->REQ-DAEMON-2]\n*1115│    pub fn net_status(&mut self) -> io::Result<NetStatusReply> {\n 1116│        self.send(KIND_NET_STATUS, serde_json::Value::Null)?;\n 1117│        loop {\n 1118│            match self.read_event()? {\n### broker.rs\n   57│    ErrorEvent, ExitEvent, InputReq, KillReq, NetDialReq, NetPresenceSubscribeReq, NetSent,\n  *58│    BrokerImageReply, StallEvictsReply, NetStatusReply, NetStreamOpenReq, NetStreamOpened, NetStreamSendReq, NetStreamSubscribeReq,\n   59│    NetStreamsReply, MetMember, PairCodeSubmit, PairJoinReply, PairJoinReq, PairMeetReq, ResizeReq, SessionInfo, SessionsReply, SpawnReq,\n   60│    Spawned, SubscribeOutcome, SubscribeReq, UnsubscribeReq, KIND_BRAIN_RESTART, KIND_BRAIN_RESTARTED, KIND_ENDPOINT_INPUT, KIND_ERROR, KIND_EXIT,\n   61│    KIND_INPUT, KIND_KILL, KIND_NET_DIAL, KIND_NET_DIAL_LOOPBACK, KIND_NET_DIAL_SUBMIT,\n     │...\n 3822│        let reply = match self.net.get() {\n*3823│            Some(host) => NetStatusReply {\n 3824│                enabled: true,\n 3825│                node_id_hex: Some(host.node_id_hex()),\n 3826│                addr: host.addr_json(),\n     │...\n 3828│            },\n*3829│            None => NetStatusReply {\n 3830│                enabled: false,\n 3831│                node_id_hex: None,\n 3832│                addr: serde_json::Value::Null,\n     │...\n 3837│            KIND_NET_STATUS_REPLY,\n*3838│            serde_json::to_value(reply).expect(\"NetStatusReply serializes\"),\n 3839│        );\n 3840│        send_frame(send, &frame);\n 3841│    }\n### msg.rs\n 525│#[derive(Debug, Clone, Serialize, Deserialize)]\n*526│pub struct NetStatusReply {\n 527│    /// Whether this broker hosts a net endpoint at all.\n 528│    pub enabled: bool,\n 529│    /// The node's stable name (lowercase-hex Ed25519 pubkey == iroh EndpointId).\n### serveprobe.rs\n  6│//!\n *7│//! `subnet status --nodes` settles liveness in two tiers: gossip-recency\n  8│//! first, a live probe for the rows gossip could not settle. The probe used to\n  9│//! be a raw transport dial by node-pubkey — it proved the peer's daemon\n 10│//! endpoint was bound (the box is up), but ONE ALPN serves every subnet, so it"},"isError":false,"timestamp":1784069033129}}
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{"type":"message","id":"81eabf1b","parentId":"07e84cc2","timestamp":"2026-07-14T22:44:02.442Z","message":{"role":"toolResult","toolCallId":"call_k71Sk6LdAclGDoWCtgZJmJ8w|fc_0b084cf0b521ab15016a56bbb24a2c8190ab4f39ff09670fac","toolName":"read","content":[{"type":"text","text":"//! The registry pump worker (pump-seam P2) — the first leg cut behind the\n//! [`super::PumpWorker`] seam.\n//!\n//! `poll_wake` consumes the event-driven advertisement marker (force a round\n//! NOW on an endpoint online/offline transition); `pre_round` runs the\n//! node-local sweep (repair-evictions → silent-peer eviction → due seed\n//! rotations → re-advertise) ONCE per due round and holds the produced adverts\n//! as worker state; `peer_step` pushes this node's own rows for the given\n//! subnet over the peer's feed stream. Construction-captured deps: the shared\n//! [`RegistryHost`], its `PathBuf` slices out of [`super::PumpPaths`], and the\n//! two registry cadence knobs.\n\nuse std::io;\nuse std::path::PathBuf;\nuse std::sync::Arc;\nuse std::time::Duration;\n\nuse spt_net::net::replicate::RegistryFeedRecord;\nuse spt_store::subnet::SubnetStore;\n\nuse crate::registryhost::RegistryHost;\n\nuse super::{now_ms, PeerIo, PumpCadence, PumpPaths, PumpWorker, RoundCtx};\n\n/// Fire any seed rotations whose coalescing window has closed (Mesh-D7,\n/// REQ-MESH-4). For each due subnet: rotate the seed (bump epoch, retain the\n/// prior generation one-deep for the re-seed grace) and clear its pending entry.\n/// The new seed reaches benign offliners over the member control stream's\n/// re-seed leg on their next connect — never over gossip; the revokee's\n/// already-propagated tombstone denies it the grace. Pure-store work (no conn\n/// handle needed): the daemon re-reads `subnet.json` per connect, so the bump\n/// takes effect without a restart.\n// [impl->REQ-MESH-4]\nfn fire_due_rotations(subnets_path: &std::path::Path, rotations_path: &std::path::Path, now_ms: u64) {\n    let mut pending = spt_store::rotation::RotationPending::load_from(rotations_path);\n    let due = pending.due_subnets(now_ms);\n    if due.is_empty() {\n        return;\n    }\n    let mut subnets = SubnetStore::load_from(subnets_path);\n    let mut rotated = false;\n    for sub in &due {\n        match subnets.rotate_seed(sub) {\n            Ok(rec) => {\n                eprintln!(\"SEED_ROTATED:{sub}:epoch={} (revoke window closed)\", rec.epoch);\n                rotated = true;\n            }\n            // The subnet may have been left/renamed since the revoke — drop the\n            // stale entry rather than retrying it forever.\n            Err(e) => eprintln!(\"SEED_ROTATE_SKIP:{sub}: {e}\"),\n        }\n        pending.clear(sub);\n    }\n    if rotated {\n        if let Err(e) = subnets.save_to(subnets_path) {\n            eprintln!(\"SEED_ROTATE_FAIL: {e}\");\n            return; // keep the pending entry — retry next tick rather than lose it\n        }\n    }\n    let _ = pending.save_to(rotations_path);\n}\n\n/// The registry leg as a [`PumpWorker`]: own-row re-advertisement\n/// ([`RegistryHost::advertise_local`] → one feed stream per peer). The node\n/// re-advertises its own rows; peers reconverge within one cadence\n/// (replay-is-recovery). Own rows only — a relayed third-party row would carry\n/// an origin the receiver cannot gate honestly (KNOWN-HAZARDS 7.5/4.10).\npub(super) struct RegistryWorker {\n    /// The shared registry host (sweep + advertise + the canonical epoch).\n    registry: Arc<RegistryHost>,\n    /// The perch tree scanned for advertisable rows.\n    owlery: PathBuf,\n    /// `subnet.json` — read by the due-rotation leg.\n    subnets: PathBuf,\n    /// `rotation-pending.json` — the timeboxed seed-rotation schedule.\n    rotations: PathBuf,\n    /// The event-driven advertisement marker (`poll_wake`).\n    advertise_marker: PathBuf,\n    /// This worker's scheduling period (`cadence.registry`).\n    cadence: Duration,\n    /// Silent-peer registry eviction window (KNOWN-HAZARDS 4.10).\n    evict_after: Duration,\n    /// Adverts computed in `pre_round`, consumed per-subnet in `peer_step`.\n    adverts: Vec<RegistryFeedRecord>,\n}\n\nimpl RegistryWorker {\n    /// Construction capture (§Frozen-4): the shared registry plus this worker's\n    /// `PathBuf` slices and cadence knobs out of the pump's wiring.\n    pub(super) fn new(\n        registry: Arc<RegistryHost>,\n        paths: &PumpPaths,\n        cadence: &PumpCadence,\n    ) -> RegistryWorker {\n        RegistryWorker {\n            registry,\n            owlery: paths.owlery.clone(),\n            subnets: paths.subnets.clone(),\n            rotations: paths.rotations.clone(),\n            advertise_marker: paths.advertise_marker.clone(),\n            cadence: cadence.registry,\n            evict_after: cadence.registry_evict_after,\n            adverts: Vec::new(),\n        }\n    }\n}\n\nimpl PumpWorker for RegistryWorker {\n    fn cadence(&self) -> Duration {\n        self.cadence\n    }\n\n    /// Event-driven advertisement (M8 decision 15, REQ-CONV-2): an endpoint\n    /// online/offline transition dropped the marker — consume it and run the\n    /// registry leg NOW. A wake of the pump loop, not a second advertisement\n    /// path: the forced round is the same advertise_local + push code, so the\n    /// epoch lease and visibility gates ride unchanged. The take IS the remove,\n    /// so one wake claims exactly one forced round.\n    // [impl->REQ-CONV-2]\n    fn poll_wake(&mut self) -> bool {\n        crate::registryhost::take_advertise_now(&self.advertise_marker)\n    }\n\n    /// The node-local sweep, run ONCE per due round before any `peer_step`\n    /// (§Frozen-7, order preserved verbatim):\n    fn pre_round(&mut self, _ctx: &RoundCtx) {\n        // Consume the re-pair eviction marker FIRST (M8 decision 13,\n        // REQ-SUBNET-7): a superseded identity's in-memory rows go before this\n        // tick's snapshot mirror can resurrect the pairing host's disk-side\n        // eviction.\n        // [impl->REQ-SUBNET-7]\n        self.registry.consume_repair_evictions();\n        // Sweep silent-node ghost rows BEFORE re-advertising (KNOWN-HAZARDS\n        // 4.10): a dead node identity's rows decay instead of poisoning bare-id\n        // resolution forever; a live peer re-stamps its heard entry with every\n        // admitted feed and is never touched.\n        // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n        self.registry.evict_silent_peers(self.evict_after);\n        // Trigger (b) — per-row Offline-TTL (#2-secondary): the SAME sweep also\n        // evicts rows that have been non-routable (Offline) beyond the grace even\n        // while their author node is alive (a purge/erase Offline ghost that\n        // ghost-heal re-advertised once and whole-node eviction never reaps). Same\n        // registry_evict_after grace; own rows never decay; the receiver-observed\n        // offline_since is self-pruning so a whole-node eviction above drops its\n        // stamps for free.\n        // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n        self.registry.evict_aged_offline_rows(self.evict_after);\n        // Mesh-D7 (REQ-MESH-4): fire any seed rotation whose revoke window has\n        // closed — after the eviction sweep, before re-advertising. The\n        // re-minted seed rides the member control stream on the next connect;\n        // the revokee's tombstone (already propagated) keeps it locked out.\n        fire_due_rotations(&self.subnets, &self.rotations, now_ms());\n        // Re-advertise this node's own rows; held as worker state for the\n        // per-subnet `peer_step` filter below.\n        self.adverts = self.registry.advertise_local(&self.owlery);\n    }\n\n    /// Push this node's own rows for `subnet` over the peer's feed stream\n    /// (per-subnet filter of the `pre_round` adverts). Fire-and-forget, one\n    /// stream per feed.\n    fn peer_step(\n        &mut self,\n        io: &mut PeerIo,\n        subnet: &str,\n        _peer_hex: &str,\n        _ctx: &RoundCtx,\n    ) -> io::Result<()> {\n        let lines: Vec<u8> = self\n            .adverts\n            .iter()\n            .filter(|u| u.subnet() == subnet)\n            .flat_map(|u| u.encode_line())\n            .collect();\n        if !lines.is_empty() {\n            io.push_feed(&lines)?;\n        }\n        Ok(())\n    }\n}\n\n#[cfg(test)]\nmod tests {\n    use super::*;\n    use crate::test_home::with_home;\n    use spt_store::epoch::EpochSource;\n\n    // [unit->REQ-MESH-4] the pump fires a seed rotation only once its window has\n    // closed: a due subnet rotates (epoch bumps, prior seed retained one-deep)\n    // and its pending entry clears; a not-yet-due subnet is untouched and stays\n    // scheduled. This is the daemon-side half of the coalescing window.\n    #[test]\n    fn fire_due_rotations_rotates_due_and_leaves_pending() {\n        let dir = tempfile::tempdir().unwrap();\n        let subnets_path = dir.path().join(\"subnet.json\");\n        let rotations_path = dir.path().join(\"rotation-pending.json\");\n\n        let mut subnets = SubnetStore::default();\n        let before_home = subnets.create_subnet(\"home\").unwrap().clone();\n        subnets.create_subnet(\"work\").unwrap();\n        subnets.save_to(&subnets_path).unwrap();\n\n        let mut pending = spt_store::rotation::RotationPending::default();\n        pending.coalesce(\"home\", &[\"aa\".to_string()], 1_000); // due at now=1_000\n        pending.coalesce(\"work\", &[\"bb\".to_string()], 5_000); // not yet due\n        pending.save_to(&rotations_path).unwrap();\n\n        fire_due_rotations(&subnets_path, &rotations_path, 1_000);\n\n        let after = SubnetStore::load_from(&subnets_path);\n        let home = after.find(\"home\").unwrap();\n        assert_eq!(home.epoch, before_home.epoch + 1, \"due subnet rotated\");\n        assert_eq!(\n            home.prev_seed_hex.as_deref(),\n            Some(before_home.seed_hex.as_str()),\n            \"prior seed retained for the grace\"\n        );\n        assert_eq!(after.find(\"work\").unwrap().epoch, 1, \"not-due subnet untouched\");\n\n        let pend = spt_store::rotation::RotationPending::load_from(&rotations_path);\n        assert!(!pend.subnets.contains_key(\"home\"), \"fired entry cleared\");\n        assert!(pend.subnets.contains_key(\"work\"), \"pending entry kept\");\n    }\n\n    // [unit->REQ-CONV-2] the worker's `poll_wake` consumes the advertise-now\n    // marker exactly once — one online/offline transition forces exactly one\n    // registry round, and an absent marker forces nothing.\n    #[test]\n    fn poll_wake_takes_the_advertise_marker_exactly_once() {\n        let dir = tempfile::tempdir().unwrap();\n        let marker = dir.path().join(\"advertise-now\");\n        let mut w = RegistryWorker {\n            registry: Arc::new(RegistryHost::new_at(\n                \"aa11\",\n                EpochSource::load_from(&dir.path().join(\"epoch.json\")),\n                dir.path().join(\"registry\"),\n            )),\n            owlery: dir.path().join(\"owlery\"),\n            subnets: dir.path().join(\"subnet.json\"),\n            rotations: dir.path().join(\"rotation-pending.json\"),\n            advertise_marker: marker.clone(),\n            cadence: Duration::from_secs(30),\n            evict_after: Duration::from_secs(600),\n            adverts: Vec::new(),\n        };\n        assert!(!w.poll_wake(), \"nothing to take yet\");\n        std::fs::write(&marker, b\"\").unwrap();\n        assert!(w.poll_wake(), \"first take claims the transition\");\n        assert!(!w.poll_wake(), \"second take gets nothing\");\n    }\n\n    // [unit->REQ-MESH-4] `pre_round` runs the full node-local sweep once per due\n    // round: a scheduled seed rotation fires (epoch bumps) and adverts are\n    // recomputed each call (a fresh epoch per advertisement — the once-per-round\n    // re-stamp). The per-step ORDER (evict → rotate → advertise) is preserved\n    // verbatim from the pre-seam inline loop; each step keeps its own\n    // registryhost-side unit coverage.\n    #[test]\n    fn pre_round_sweeps_and_refreshes_adverts_each_round() {\n        with_home(|home| {\n            // A served subnet plus one advertisable Self perch.\n            let owlery = home.join(\"owlery\");\n            let id = \"adv-ag\";\n            let p = spt_store::perch::resolve_perch_path_in(\n                &owlery,\n                id,\n                spt_store::perch::ParentHint::Infer,\n            );\n            std::fs::create_dir_all(&p).unwrap();\n            let rec = spt_store::info::InfoJson::new(\n                id,\n                \"now\",\n                std::process::id(),\n                \"s\",\n                \"ready_agent\",\n            );\n            spt_store::info::write_info(&p, &rec).unwrap();\n\n            let subnets_path = home.join(\"subnet.json\");\n            let mut subnets = SubnetStore::load();\n            let before = subnets.create_subnet(\"rot\").unwrap().clone();\n            subnets.save().unwrap();\n            subnets.save_to(&subnets_path).unwrap();\n\n            // A seed rotation already due — pre_round must fire it.\n            let rotations_path = home.join(\"rotation-pending.json\");\n            let mut pending = spt_store::rotation::RotationPending::default();\n            pending.coalesce(\"rot\", &[\"aa\".to_string()], 1_000);\n            pending.save_to(&rotations_path).unwrap();\n\n            let mut w = RegistryWorker {\n                registry: Arc::new(RegistryHost::new_at(\n                    \"aa11\",\n                    EpochSource::load_from(&home.join(\"epoch.json\")),\n                    home.join(\"registry\"),\n                )),\n                owlery: owlery.clone(),\n                subnets: subnets_path.clone(),\n                rotations: rotations_path,\n                advertise_marker: home.join(\"advertise-now\"),\n                cadence: Duration::from_secs(30),\n…\n            };\n…\n        });\n    }\n}\n\n[Showing lines 1-300 of 334. Use :301 to continue]"}],"details":{"truncation":{"content":"//! The registry pump worker (pump-seam P2) — the first leg cut behind the\r\n//! [`super::PumpWorker`] seam.\r\n//!\r\n//! `poll_wake` consumes the event-driven advertisement marker (force a round\r\n//! NOW on an endpoint online/offline transition); `pre_round` runs the\r\n//! node-local sweep (repair-evictions → silent-peer eviction → due seed\r\n//! rotations → re-advertise) ONCE per due round and holds the produced adverts\r\n//! as worker state; `peer_step` pushes this node's own rows for the given\r\n//! subnet over the peer's feed stream. Construction-captured deps: the shared\r\n//! [`RegistryHost`], its `PathBuf` slices out of [`super::PumpPaths`], and the\r\n//! two registry cadence knobs.\r\n\r\nuse std::io;\r\nuse std::path::PathBuf;\r\nuse std::sync::Arc;\r\nuse std::time::Duration;\r\n\r\nuse spt_net::net::replicate::RegistryFeedRecord;\r\nuse spt_store::subnet::SubnetStore;\r\n\r\nuse crate::registryhost::RegistryHost;\r\n\r\nuse super::{now_ms, PeerIo, PumpCadence, PumpPaths, PumpWorker, RoundCtx};\r\n\r\n/// Fire any seed rotations whose coalescing window has closed (Mesh-D7,\r\n/// REQ-MESH-4). For each due subnet: rotate the seed (bump epoch, retain the\r\n/// prior generation one-deep for the re-seed grace) and clear its pending entry.\r\n/// The new seed reaches benign offliners over the member control stream's\r\n/// re-seed leg on their next connect — never over gossip; the revokee's\r\n/// already-propagated tombstone denies it the grace. Pure-store work (no conn\r\n/// handle needed): the daemon re-reads `subnet.json` per connect, so the bump\r\n/// takes effect without a restart.\r\n// [impl->REQ-MESH-4]\r\nfn fire_due_rotations(subnets_path: &std::path::Path, rotations_path: &std::path::Path, now_ms: u64) {\r\n    let mut pending = spt_store::rotation::RotationPending::load_from(rotations_path);\r\n    let due = pending.due_subnets(now_ms);\r\n    if due.is_empty() {\r\n        return;\r\n    }\r\n    let mut subnets = SubnetStore::load_from(subnets_path);\r\n    let mut rotated = false;\r\n    for sub in &due {\r\n        match subnets.rotate_seed(sub) {\r\n            Ok(rec) => {\r\n                eprintln!(\"SEED_ROTATED:{sub}:epoch={} (revoke window closed)\", rec.epoch);\r\n                rotated = true;\r\n            }\r\n            // The subnet may have been left/renamed since the revoke — drop the\r\n            // stale entry rather than retrying it forever.\r\n            Err(e) => eprintln!(\"SEED_ROTATE_SKIP:{sub}: {e}\"),\r\n        }\r\n        pending.clear(sub);\r\n    }\r\n    if rotated {\r\n        if let Err(e) = subnets.save_to(subnets_path) {\r\n            eprintln!(\"SEED_ROTATE_FAIL: {e}\");\r\n            return; // keep the pending entry — retry next tick rather than lose it\r\n        }\r\n    }\r\n    let _ = pending.save_to(rotations_path);\r\n}\r\n\r\n/// The registry leg as a [`PumpWorker`]: own-row re-advertisement\r\n/// ([`RegistryHost::advertise_local`] → one feed stream per peer). The node\r\n/// re-advertises its own rows; peers reconverge within one cadence\r\n/// (replay-is-recovery). Own rows only — a relayed third-party row would carry\r\n/// an origin the receiver cannot gate honestly (KNOWN-HAZARDS 7.5/4.10).\r\npub(super) struct RegistryWorker {\r\n    /// The shared registry host (sweep + advertise + the canonical epoch).\r\n    registry: Arc<RegistryHost>,\r\n    /// The perch tree scanned for advertisable rows.\r\n    owlery: PathBuf,\r\n    /// `subnet.json` — read by the due-rotation leg.\r\n    subnets: PathBuf,\r\n    /// `rotation-pending.json` — the timeboxed seed-rotation schedule.\r\n    rotations: PathBuf,\r\n    /// The event-driven advertisement marker (`poll_wake`).\r\n    advertise_marker: PathBuf,\r\n    /// This worker's scheduling period (`cadence.registry`).\r\n    cadence: Duration,\r\n    /// Silent-peer registry eviction window (KNOWN-HAZARDS 4.10).\r\n    evict_after: Duration,\r\n    /// Adverts computed in `pre_round`, consumed per-subnet in `peer_step`.\r\n    adverts: Vec<RegistryFeedRecord>,\r\n}\r\n\r\nimpl RegistryWorker {\r\n    /// Construction capture (§Frozen-4): the shared registry plus this worker's\r\n    /// `PathBuf` slices and cadence knobs out of the pump's wiring.\r\n    pub(super) fn new(\r\n        registry: Arc<RegistryHost>,\r\n        paths: &PumpPaths,\r\n        cadence: &PumpCadence,\r\n    ) -> RegistryWorker {\r\n        RegistryWorker {\r\n            registry,\r\n            owlery: paths.owlery.clone(),\r\n            subnets: paths.subnets.clone(),\r\n            rotations: paths.rotations.clone(),\r\n            advertise_marker: paths.advertise_marker.clone(),\r\n            cadence: cadence.registry,\r\n            evict_after: cadence.registry_evict_after,\r\n            adverts: Vec::new(),\r\n        }\r\n    }\r\n}\r\n\r\nimpl PumpWorker for RegistryWorker {\r\n    fn cadence(&self) -> Duration {\r\n        self.cadence\r\n    }\r\n\r\n    /// Event-driven advertisement (M8 decision 15, REQ-CONV-2): an endpoint\r\n    /// online/offline transition dropped the marker — consume it and run the\r\n    /// registry leg NOW. A wake of the pump loop, not a second advertisement\r\n    /// path: the forced round is the same advertise_local + push code, so the\r\n    /// epoch lease and visibility gates ride unchanged. The take IS the remove,\r\n    /// so one wake claims exactly one forced round.\r\n    // [impl->REQ-CONV-2]\r\n    fn poll_wake(&mut self) -> bool {\r\n        crate::registryhost::take_advertise_now(&self.advertise_marker)\r\n    }\r\n\r\n    /// The node-local sweep, run ONCE per due round before any `peer_step`\r\n    /// (§Frozen-7, order preserved verbatim):\r\n    fn pre_round(&mut self, _ctx: &RoundCtx) {\r\n        // Consume the re-pair eviction marker FIRST (M8 decision 13,\r\n        // REQ-SUBNET-7): a superseded identity's in-memory rows go before this\r\n        // tick's snapshot mirror can resurrect the pairing host's disk-side\r\n        // eviction.\r\n        // [impl->REQ-SUBNET-7]\r\n        self.registry.consume_repair_evictions();\r\n        // Sweep silent-node ghost rows BEFORE re-advertising (KNOWN-HAZARDS\r\n        // 4.10): a dead node identity's rows decay instead of poisoning bare-id\r\n        // resolution forever; a live peer re-stamps its heard entry with every\r\n        // admitted feed and is never touched.\r\n        // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\r\n        self.registry.evict_silent_peers(self.evict_after);\r\n        // Trigger (b) — per-row Offline-TTL (#2-secondary): the SAME sweep also\r\n        // evicts rows that have been non-routable (Offline) beyond the grace even\r\n        // while their author node is alive (a purge/erase Offline ghost that\r\n        // ghost-heal re-advertised once and whole-node eviction never reaps). Same\r\n        // registry_evict_after grace; own rows never decay; the receiver-observed\r\n        // offline_since is self-pruning so a whole-node eviction above drops its\r\n        // stamps for free.\r\n        // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\r\n        self.registry.evict_aged_offline_rows(self.evict_after);\r\n        // Mesh-D7 (REQ-MESH-4): fire any seed rotation whose revoke window has\r\n        // closed — after the eviction sweep, before re-advertising. The\r\n        // re-minted seed rides the member control stream on the next connect;\r\n        // the revokee's tombstone (already propagated) keeps it locked out.\r\n        fire_due_rotations(&self.subnets, &self.rotations, now_ms());\r\n        // Re-advertise this node's own rows; held as worker state for the\r\n        // per-subnet `peer_step` filter below.\r\n        self.adverts = self.registry.advertise_local(&self.owlery);\r\n    }\r\n\r\n    /// Push this node's own rows for `subnet` over the peer's feed stream\r\n    /// (per-subnet filter of the `pre_round` adverts). Fire-and-forget, one\r\n    /// stream per feed.\r\n    fn peer_step(\r\n        &mut self,\r\n        io: &mut PeerIo,\r\n        subnet: &str,\r\n        _peer_hex: &str,\r\n        _ctx: &RoundCtx,\r\n    ) -> io::Result<()> {\r\n        let lines: Vec<u8> = self\r\n            .adverts\r\n            .iter()\r\n            .filter(|u| u.subnet() == subnet)\r\n            .flat_map(|u| u.encode_line())\r\n            .collect();\r\n        if !lines.is_empty() {\r\n            io.push_feed(&lines)?;\r\n        }\r\n        Ok(())\r\n    }\r\n}\r\n\r\n#[cfg(test)]\r\nmod tests {\r\n    use super::*;\r\n    use crate::test_home::with_home;\r\n    use spt_store::epoch::EpochSource;\r\n\r\n    // [unit->REQ-MESH-4] the pump fires a seed rotation only once its window has\r\n    // closed: a due subnet rotates (epoch bumps, prior seed retained one-deep)\r\n    // and its pending entry clears; a not-yet-due subnet is untouched and stays\r\n    // scheduled. This is the daemon-side half of the coalescing window.\r\n    #[test]\r\n    fn fire_due_rotations_rotates_due_and_leaves_pending() {\r\n        let dir = tempfile::tempdir().unwrap();\r\n        let subnets_path = dir.path().join(\"subnet.json\");\r\n        let rotations_path = dir.path().join(\"rotation-pending.json\");\r\n\r\n        let mut subnets = SubnetStore::default();\r\n        let before_home = subnets.create_subnet(\"home\").unwrap().clone();\r\n        subnets.create_subnet(\"work\").unwrap();\r\n        subnets.save_to(&subnets_path).unwrap();\r\n\r\n        let mut pending = spt_store::rotation::RotationPending::default();\r\n        pending.coalesce(\"home\", &[\"aa\".to_string()], 1_000); // due at now=1_000\r\n        pending.coalesce(\"work\", &[\"bb\".to_string()], 5_000); // not yet due\r\n        pending.save_to(&rotations_path).unwrap();\r\n\r\n        fire_due_rotations(&subnets_path, &rotations_path, 1_000);\r\n\r\n        let after = SubnetStore::load_from(&subnets_path);\r\n        let home = after.find(\"home\").unwrap();\r\n        assert_eq!(home.epoch, before_home.epoch + 1, \"due subnet rotated\");\r\n        assert_eq!(\r\n            home.prev_seed_hex.as_deref(),\r\n            Some(before_home.seed_hex.as_str()),\r\n            \"prior seed retained for the grace\"\r\n        );\r\n        assert_eq!(after.find(\"work\").unwrap().epoch, 1, \"not-due subnet untouched\");\r\n\r\n        let pend = spt_store::rotation::RotationPending::load_from(&rotations_path);\r\n        assert!(!pend.subnets.contains_key(\"home\"), \"fired entry cleared\");\r\n        assert!(pend.subnets.contains_key(\"work\"), \"pending entry kept\");\r\n    }\r\n\r\n    // [unit->REQ-CONV-2] the worker's `poll_wake` consumes the advertise-now\r\n    // marker exactly once — one online/offline transition forces exactly one\r\n    // registry round, and an absent marker forces nothing.\r\n    #[test]\r\n    fn poll_wake_takes_the_advertise_marker_exactly_once() {\r\n        let dir = tempfile::tempdir().unwrap();\r\n        let marker = dir.path().join(\"advertise-now\");\r\n        let mut w = RegistryWorker {\r\n            registry: Arc::new(RegistryHost::new_at(\r\n                \"aa11\",\r\n                EpochSource::load_from(&dir.path().join(\"epoch.json\")),\r\n                dir.path().join(\"registry\"),\r\n            )),\r\n            owlery: dir.path().join(\"owlery\"),\r\n            subnets: dir.path().join(\"subnet.json\"),\r\n            rotations: dir.path().join(\"rotation-pending.json\"),\r\n            advertise_marker: marker.clone(),\r\n            cadence: Duration::from_secs(30),\r\n            evict_after: Duration::from_secs(600),\r\n            adverts: Vec::new(),\r\n        };\r\n        assert!(!w.poll_wake(), \"nothing to take yet\");\r\n        std::fs::write(&marker, b\"\").unwrap();\r\n        assert!(w.poll_wake(), \"first take claims the transition\");\r\n        assert!(!w.poll_wake(), \"second take gets nothing\");\r\n    }\r\n\r\n    // [unit->REQ-MESH-4] `pre_round` runs the full node-local sweep once per due\r\n    // round: a scheduled seed rotation fires (epoch bumps) and adverts are\r\n    // recomputed each call (a fresh epoch per advertisement — the once-per-round\r\n    // re-stamp). The per-step ORDER (evict → rotate → advertise) is preserved\r\n    // verbatim from the pre-seam inline loop; each step keeps its own\r\n    // registryhost-side unit coverage.\r\n    #[test]\r\n    fn pre_round_sweeps_and_refreshes_adverts_each_round() {\r\n        with_home(|home| {\r\n            // A served subnet plus one advertisable Self perch.\r\n            let owlery = home.join(\"owlery\");\r\n            let id = \"adv-ag\";\r\n            let p = spt_store::perch::resolve_perch_path_in(\r\n                &owlery,\r\n                id,\r\n                spt_store::perch::ParentHint::Infer,\r\n            );\r\n            std::fs::create_dir_all(&p).unwrap();\r\n            let rec = spt_store::info::InfoJson::new(\r\n                id,\r\n                \"now\",\r\n                std::process::id(),\r\n                \"s\",\r\n                \"ready_agent\",\r\n            );\r\n            spt_store::info::write_info(&p, &rec).unwrap();\r\n\r\n            let subnets_path = home.join(\"subnet.json\");\r\n            let mut subnets = SubnetStore::load();\r\n            let before = subnets.create_subnet(\"rot\").unwrap().clone();\r\n            subnets.save().unwrap();\r\n            subnets.save_to(&subnets_path).unwrap();\r\n\r\n            // A seed rotation already due — pre_round must fire it.\r\n            let rotations_path = home.join(\"rotation-pending.json\");\r\n            let mut pending = spt_store::rotation::RotationPending::default();\r\n            pending.coalesce(\"rot\", &[\"aa\".to_string()], 1_000);\r\n            pending.save_to(&rotations_path).unwrap();\r\n\r\n            let mut w = RegistryWorker {\r\n                registry: Arc::new(RegistryHost::new_at(\r\n                    \"aa11\",\r\n                    EpochSource::load_from(&home.join(\"epoch.json\")),\r\n                    home.join(\"registry\"),\r\n                )),\r\n                owlery: owlery.clone(),\r\n                subnets: subnets_path.clone(),\r\n                rotations: rotations_path,\r\n                advertise_marker: home.join(\"advertise-now\"),\r\n                cadence: Duration::from_secs(30),\r","truncated":true,"truncatedBy":"lines","totalLines":334,"totalBytes":13731,"outputLines":300,"outputBytes":13731,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"//! The registry pump worker (pump-seam P2) — the first leg cut behind the\r\n//! [`super::PumpWorker`] seam.\r\n//!\r\n//! `poll_wake` consumes the event-driven advertisement marker (force a round\r\n//! NOW on an endpoint online/offline transition); `pre_round` runs the\r\n//! node-local sweep (repair-evictions → silent-peer eviction → due seed\r\n//! rotations → re-advertise) ONCE per due round and holds the produced adverts\r\n//! as worker state; `peer_step` pushes this node's own rows for the given\r\n//! subnet over the peer's feed stream. Construction-captured deps: the shared\r\n//! [`RegistryHost`], its `PathBuf` slices out of [`super::PumpPaths`], and the\r\n//! two registry cadence knobs.\r\n\r\nuse std::io;\r\nuse std::path::PathBuf;\r\nuse std::sync::Arc;\r\nuse std::time::Duration;\r\n\r\nuse spt_net::net::replicate::RegistryFeedRecord;\r\nuse spt_store::subnet::SubnetStore;\r\n\r\nuse crate::registryhost::RegistryHost;\r\n\r\nuse super::{now_ms, PeerIo, PumpCadence, PumpPaths, PumpWorker, RoundCtx};\r\n\r\n/// Fire any seed rotations whose coalescing window has closed (Mesh-D7,\r\n/// REQ-MESH-4). For each due subnet: rotate the seed (bump epoch, retain the\r\n/// prior generation one-deep for the re-seed grace) and clear its pending entry.\r\n/// The new seed reaches benign offliners over the member control stream's\r\n/// re-seed leg on their next connect — never over gossip; the revokee's\r\n/// already-propagated tombstone denies it the grace. Pure-store work (no conn\r\n/// handle needed): the daemon re-reads `subnet.json` per connect, so the bump\r\n/// takes effect without a restart.\r\n// [impl->REQ-MESH-4]\r\nfn fire_due_rotations(subnets_path: &std::path::Path, rotations_path: &std::path::Path, now_ms: u64) {\r\n    let mut pending = spt_store::rotation::RotationPending::load_from(rotations_path);\r\n    let due = pending.due_subnets(now_ms);\r\n    if due.is_empty() {\r\n        return;\r\n    }\r\n    let mut subnets = SubnetStore::load_from(subnets_path);\r\n    let mut rotated = false;\r\n    for sub in &due {\r\n        match subnets.rotate_seed(sub) {\r\n            Ok(rec) => {\r\n                eprintln!(\"SEED_ROTATED:{sub}:epoch={} (revoke window closed)\", rec.epoch);\r\n                rotated = true;\r\n            }\r\n            // The subnet may have been left/renamed since the revoke — drop the\r\n            // stale entry rather than retrying it forever.\r\n            Err(e) => eprintln!(\"SEED_ROTATE_SKIP:{sub}: {e}\"),\r\n        }\r\n        pending.clear(sub);\r\n    }\r\n    if rotated {\r\n        if let Err(e) = subnets.save_to(subnets_path) {\r\n            eprintln!(\"SEED_ROTATE_FAIL: {e}\");\r\n            return; // keep the pending entry — retry next tick rather than lose it\r\n        }\r\n    }\r\n    let _ = pending.save_to(rotations_path);\r\n}\r\n\r\n/// The registry leg as a [`PumpWorker`]: own-row re-advertisement\r\n/// ([`RegistryHost::advertise_local`] → one feed stream per peer). The node\r\n/// re-advertises its own rows; peers reconverge within one cadence\r\n/// (replay-is-recovery). Own rows only — a relayed third-party row would carry\r\n/// an origin the receiver cannot gate honestly (KNOWN-HAZARDS 7.5/4.10).\r\npub(super) struct RegistryWorker {\r\n    /// The shared registry host (sweep + advertise + the canonical epoch).\r\n    registry: Arc<RegistryHost>,\r\n    /// The perch tree scanned for advertisable rows.\r\n    owlery: PathBuf,\r\n    /// `subnet.json` — read by the due-rotation leg.\r\n    subnets: PathBuf,\r\n    /// `rotation-pending.json` — the timeboxed seed-rotation schedule.\r\n    rotations: PathBuf,\r\n    /// The event-driven advertisement marker (`poll_wake`).\r\n    advertise_marker: PathBuf,\r\n    /// This worker's scheduling period (`cadence.registry`).\r\n    cadence: Duration,\r\n    /// Silent-peer registry eviction window (KNOWN-HAZARDS 4.10).\r\n    evict_after: Duration,\r\n    /// Adverts computed in `pre_round`, consumed per-subnet in `peer_step`.\r\n    adverts: Vec<RegistryFeedRecord>,\r\n}\r\n\r\nimpl RegistryWorker {\r\n    /// Construction capture (§Frozen-4): the shared registry plus this worker's\r\n    /// `PathBuf` slices and cadence knobs out of the pump's wiring.\r\n    pub(super) fn new(\r\n        registry: Arc<RegistryHost>,\r\n        paths: &PumpPaths,\r\n        cadence: &PumpCadence,\r\n    ) -> RegistryWorker {\r\n        RegistryWorker {\r\n            registry,\r\n            owlery: paths.owlery.clone(),\r\n            subnets: paths.subnets.clone(),\r\n            rotations: paths.rotations.clone(),\r\n            advertise_marker: paths.advertise_marker.clone(),\r\n            cadence: cadence.registry,\r\n            evict_after: cadence.registry_evict_after,\r\n            adverts: Vec::new(),\r\n        }\r\n    }\r\n}\r\n\r\nimpl PumpWorker for RegistryWorker {\r\n    fn cadence(&self) -> Duration {\r\n        self.cadence\r\n    }\r\n\r\n    /// Event-driven advertisement (M8 decision 15, REQ-CONV-2): an endpoint\r\n    /// online/offline transition dropped the marker — consume it and run the\r\n    /// registry leg NOW. A wake of the pump loop, not a second advertisement\r\n    /// path: the forced round is the same advertise_local + push code, so the\r\n    /// epoch lease and visibility gates ride unchanged. The take IS the remove,\r\n    /// so one wake claims exactly one forced round.\r\n    // [impl->REQ-CONV-2]\r\n    fn poll_wake(&mut self) -> bool {\r\n        crate::registryhost::take_advertise_now(&self.advertise_marker)\r\n    }\r\n\r\n    /// The node-local sweep, run ONCE per due round before any `peer_step`\r\n    /// (§Frozen-7, order preserved verbatim):\r\n    fn pre_round(&mut self, _ctx: &RoundCtx) {\r\n        // Consume the re-pair eviction marker FIRST (M8 decision 13,\r\n        // REQ-SUBNET-7): a superseded identity's in-memory rows go before this\r\n        // tick's snapshot mirror can resurrect the pairing host's disk-side\r\n        // eviction.\r\n        // [impl->REQ-SUBNET-7]\r\n        self.registry.consume_repair_evictions();\r\n        // Sweep silent-node ghost rows BEFORE re-advertising (KNOWN-HAZARDS\r\n        // 4.10): a dead node identity's rows decay instead of poisoning bare-id\r\n        // resolution forever; a live peer re-stamps its heard entry with every\r\n        // admitted feed and is never touched.\r\n        // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\r\n        self.registry.evict_silent_peers(self.evict_after);\r\n        // Trigger (b) — per-row Offline-TTL (#2-secondary): the SAME sweep also\r\n        // evicts rows that have been non-routable (Offline) beyond the grace even\r\n        // while their author node is alive (a purge/erase Offline ghost that\r\n        // ghost-heal re-advertised once and whole-node eviction never reaps). Same\r\n        // registry_evict_after grace; own rows never decay; the receiver-observed\r\n        // offline_since is self-pruning so a whole-node eviction above drops its\r\n        // stamps for free.\r\n        // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\r\n        self.registry.evict_aged_offline_rows(self.evict_after);\r\n        // Mesh-D7 (REQ-MESH-4): fire any seed rotation whose revoke window has\r\n        // closed — after the eviction sweep, before re-advertising. The\r\n        // re-minted seed rides the member control stream on the next connect;\r\n        // the revokee's tombstone (already propagated) keeps it locked out.\r\n        fire_due_rotations(&self.subnets, &self.rotations, now_ms());\r\n        // Re-advertise this node's own rows; held as worker state for the\r\n        // per-subnet `peer_step` filter below.\r\n        self.adverts = self.registry.advertise_local(&self.owlery);\r\n    }\r\n\r\n    /// Push this node's own rows for `subnet` over the peer's feed stream\r\n    /// (per-subnet filter of the `pre_round` adverts). Fire-and-forget, one\r\n    /// stream per feed.\r\n    fn peer_step(\r\n        &mut self,\r\n        io: &mut PeerIo,\r\n        subnet: &str,\r\n        _peer_hex: &str,\r\n        _ctx: &RoundCtx,\r\n    ) -> io::Result<()> {\r\n        let lines: Vec<u8> = self\r\n            .adverts\r\n            .iter()\r\n            .filter(|u| u.subnet() == subnet)\r\n            .flat_map(|u| u.encode_line())\r\n            .collect();\r\n        if !lines.is_empty() {\r\n            io.push_feed(&lines)?;\r\n        }\r\n        Ok(())\r\n    }\r\n}\r\n\r\n#[cfg(test)]\r\nmod tests {\r\n    use super::*;\r\n    use crate::test_home::with_home;\r\n    use spt_store::epoch::EpochSource;\r\n\r\n    // [unit->REQ-MESH-4] the pump fires a seed rotation only once its window has\r\n    // closed: a due subnet rotates (epoch bumps, prior seed retained one-deep)\r\n    // and its pending entry clears; a not-yet-due subnet is untouched and stays\r\n    // scheduled. This is the daemon-side half of the coalescing window.\r\n    #[test]\r\n    fn fire_due_rotations_rotates_due_and_leaves_pending() {\r\n        let dir = tempfile::tempdir().unwrap();\r\n        let subnets_path = dir.path().join(\"subnet.json\");\r\n        let rotations_path = dir.path().join(\"rotation-pending.json\");\r\n\r\n        let mut subnets = SubnetStore::default();\r\n        let before_home = subnets.create_subnet(\"home\").unwrap().clone();\r\n        subnets.create_subnet(\"work\").unwrap();\r\n        subnets.save_to(&subnets_path).unwrap();\r\n\r\n        let mut pending = spt_store::rotation::RotationPending::default();\r\n        pending.coalesce(\"home\", &[\"aa\".to_string()], 1_000); // due at now=1_000\r\n        pending.coalesce(\"work\", &[\"bb\".to_string()], 5_000); // not yet due\r\n        pending.save_to(&rotations_path).unwrap();\r\n\r\n        fire_due_rotations(&subnets_path, &rotations_path, 1_000);\r\n\r\n        let after = SubnetStore::load_from(&subnets_path);\r\n        let home = after.find(\"home\").unwrap();\r\n        assert_eq!(home.epoch, before_home.epoch + 1, \"due subnet rotated\");\r\n        assert_eq!(\r\n            home.prev_seed_hex.as_deref(),\r\n            Some(before_home.seed_hex.as_str()),\r\n            \"prior seed retained for the grace\"\r\n        );\r\n        assert_eq!(after.find(\"work\").unwrap().epoch, 1, \"not-due subnet untouched\");\r\n\r\n        let pend = spt_store::rotation::RotationPending::load_from(&rotations_path);\r\n        assert!(!pend.subnets.contains_key(\"home\"), \"fired entry cleared\");\r\n        assert!(pend.subnets.contains_key(\"work\"), \"pending entry kept\");\r\n    }\r\n\r\n    // [unit->REQ-CONV-2] the worker's `poll_wake` consumes the advertise-now\r\n    // marker exactly once — one online/offline transition forces exactly one\r\n    // registry round, and an absent marker forces nothing.\r\n    #[test]\r\n    fn poll_wake_takes_the_advertise_marker_exactly_once() {\r\n        let dir = tempfile::tempdir().unwrap();\r\n        let marker = dir.path().join(\"advertise-now\");\r\n        let mut w = RegistryWorker {\r\n            registry: Arc::new(RegistryHost::new_at(\r\n                \"aa11\",\r\n                EpochSource::load_from(&dir.path().join(\"epoch.json\")),\r\n                dir.path().join(\"registry\"),\r\n            )),\r\n            owlery: dir.path().join(\"owlery\"),\r\n            subnets: dir.path().join(\"subnet.json\"),\r\n            rotations: dir.path().join(\"rotation-pending.json\"),\r\n            advertise_marker: marker.clone(),\r\n            cadence: Duration::from_secs(30),\r\n            evict_after: Duration::from_secs(600),\r\n            adverts: Vec::new(),\r\n        };\r\n        assert!(!w.poll_wake(), \"nothing to take yet\");\r\n        std::fs::write(&marker, b\"\").unwrap();\r\n        assert!(w.poll_wake(), \"first take claims the transition\");\r\n        assert!(!w.poll_wake(), \"second take gets nothing\");\r\n    }\r\n\r\n    // [unit->REQ-MESH-4] `pre_round` runs the full node-local sweep once per due\r\n    // round: a scheduled seed rotation fires (epoch bumps) and adverts are\r\n    // recomputed each call (a fresh epoch per advertisement — the once-per-round\r\n    // re-stamp). The per-step ORDER (evict → rotate → advertise) is preserved\r\n    // verbatim from the pre-seam inline loop; each step keeps its own\r\n    // registryhost-side unit coverage.\r\n    #[test]\r\n    fn pre_round_sweeps_and_refreshes_adverts_each_round() {\r\n        with_home(|home| {\r\n            // A served subnet plus one advertisable Self perch.\r\n            let owlery = home.join(\"owlery\");\r\n            let id = \"adv-ag\";\r\n            let p = spt_store::perch::resolve_perch_path_in(\r\n                &owlery,\r\n                id,\r\n                spt_store::perch::ParentHint::Infer,\r\n            );\r\n            std::fs::create_dir_all(&p).unwrap();\r\n            let rec = spt_store::info::InfoJson::new(\r\n                id,\r\n                \"now\",\r\n                std::process::id(),\r\n                \"s\",\r\n                \"ready_agent\",\r\n            );\r\n            spt_store::info::write_info(&p, &rec).unwrap();\r\n\r\n            let subnets_path = home.join(\"subnet.json\");\r\n            let mut subnets = SubnetStore::load();\r\n            let before = subnets.create_subnet(\"rot\").unwrap().clone();\r\n            subnets.save().unwrap();\r\n            subnets.save_to(&subnets_path).unwrap();\r\n\r\n            // A seed rotation already due — pre_round must fire it.\r\n            let rotations_path = home.join(\"rotation-pending.json\");\r\n            let mut pending = spt_store::rotation::RotationPending::default();\r\n            pending.coalesce(\"rot\", &[\"aa\".to_string()], 1_000);\r\n            pending.save_to(&rotations_path).unwrap();\r\n\r\n            let mut w = RegistryWorker {\r\n                registry: Arc::new(RegistryHost::new_at(\r\n                    \"aa11\",\r\n                    EpochSource::load_from(&home.join(\"epoch.json\")),\r\n                    home.join(\"registry\"),\r\n                )),\r\n                owlery: owlery.clone(),\r\n                subnets: subnets_path.clone(),\r\n                rotations: rotations_path,\r\n                advertise_marker: home.join(\"advertise-now\"),\r\n                cadence: Duration::from_secs(30),\r\n…\n            };\n…\n        });\n    }\n}","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300,null,303,null,331,332,333]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\pump\\registry.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":334,"totalBytes":13731,"outputLines":300,"outputBytes":13731,"shownRange":{"start":1,"end":300},"nextOffset":301}}},"isError":false,"timestamp":1784069042442}}
{"type":"message","id":"5aaf0c1a","parentId":"81eabf1b","timestamp":"2026-07-14T22:44:02.447Z","message":{"role":"toolResult","toolCallId":"call_F7Zws1krmfXWC88zDoGKrGam|fc_0b084cf0b521ab15016a56bbb24a288190b04cd99c69b5d3bb","toolName":"read","content":[{"type":"text","text":"//! `roster.json` — the member roster: a subnet's discovery directory\n//! (REQ-MESH-2, ADR-0017, Mesh-D3).\n//!\n//! A subnet is a **mesh, not a pairing graph** — every member must be able to\n//! see and reach every other member, including ones it never directly paired\n//! with. The roster is how: a **node-level union-merge grow-set** where each\n//! node authors its own [`RosterEntry`] (its pubkey, label, machine_id,\n//! last-known address, last-seen) stamped with its\n//! [`lease_epoch`](RosterEntry::lease_epoch) — the same strictly-greater-wins\n//! lease the registry runs for node labels (the `spt-net` registry's\n//! `MergeOutcome`). It is **NOT** the seed (the seed never leaves a node except\n//! over the pairing/seed-proof channel — ADR-0017); a roster entry is\n//! **forgery-inert** because naming a pubkey you can't seed-proof gets you\n//! nowhere at the membership gate (D2/D5).\n//!\n//! Seeded **in full at pairing** — the seed-holder hands the joiner its whole\n//! current roster (incl. offline members), folding in the deferred pairing-time\n//! hostname capture + post-join address seeding. Thereafter it merges over\n//! seed-proof'd member connections (D4). Node-local, durable, replicated only\n//! over the pairing/P2P channel, **never git-tracked or context-synced** —\n//! alongside [`subnet.json`](crate::subnet) under\n//! [`identity/`](crate::perch::identity_dir). (Mesh-D6 made this the sole\n//! membership record — the former `peers.json` TOFU trust store is gone.)\n//!\n//! ## Removal needs a tombstone\n//!\n//! A grow-set cannot delete by omission: drop a member and the next merge\n//! re-learns it. Removal is a [`Tombstone`] — a per-pubkey revoked marker that\n//! **propagates** (it is itself a grow-set element), **dominates** the entry\n//! ([`is_member`](RosterStore::is_member) returns false while it stands),\n//! **suppresses reinsert** (a later entry-merge re-records the facts but the\n//! member stays hidden), and is **cleared by a completed re-pair** of that\n//! pubkey ([`clear_tombstone`](RosterStore::clear_tombstone)).\n//!\n//! ### Tombstone-convergence boundary (deliberate D3 scope)\n//!\n//! Cross-node convergence of an *un*-tombstone is **not** D3's concern.\n//! [`clear_tombstone`] is a *local* elevated act (the re-pair). The compromised\n//! path re-pairs under a **fresh, never-tombstoned key** (the milestone's\n//! decision 10), so the old tombstone correctly stands forever; the benign\n//! N-1 re-seed + timeboxed rotation propagation is **Mesh-D7**. D3 tests\n//! clear-on-repair locally only.\n//\n// [impl->REQ-MESH-2]\n\nuse serde::{Deserialize, Serialize};\nuse std::path::Path;\n\nuse crate::atomic::atomic_write_string;\nuse crate::perch::roster_file;\n\n/// Failures persisting the roster.\n#[derive(Debug, PartialEq, Eq)]\npub enum RosterError {\n    /// Reading/writing the backing file failed (message preserved).\n    Io(String),\n}\n\nimpl std::fmt::Display for RosterError {\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\n        match self {\n            RosterError::Io(e) => write!(f, \"roster store io: {e}\"),\n        }\n    }\n}\n\nimpl std::error::Error for RosterError {}\n\n/// The lease decision when merging an entry (mirrors the `spt-net` registry's\n/// `MergeOutcome` naming — strictly-greater wins).\n#[derive(Debug, Clone, Copy, PartialEq, Eq)]\npub enum MergeOutcome {\n    /// First entry for this `(subnet, pubkey)` — inserted.\n    Inserted,\n    /// A strictly-newer `lease_epoch` for an existing member — replaced.\n    Updated,\n    /// Equal/older `lease_epoch` (or a tombstoned-but-still-merged fact) — the\n    /// incoming entry did not advance the lease; nothing changed.\n    Stale,\n}\n\n/// One member of a subnet's roster. Authored by the member itself; merged into\n/// every other member's roster strictly-greater-`lease_epoch`-wins.\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\npub struct RosterEntry {\n    /// The member's Ed25519 node pubkey, lowercase hex (the iroh NodeId). The\n    /// merge key within a subnet, and what the mesh dials/seed-proofs.\n    pub pubkey_hex: String,\n    /// The subnet this entry belongs to (a node holds N subnets' rosters in one\n    /// file, the multi-subnet shape `subnet.json` uses).\n    pub subnet: String,\n    /// The member's advertised node label (its OS hostname).\n    pub label: String,\n    /// The member's hashed stable machine id (REQ-SUBNET-7 anchor — the re-pair\n    /// overwrite/tombstone-clear key; never the raw id).\n    pub machine_id: String,\n    /// Last-known dialable address — an opaque serde-serialized iroh\n    /// `EndpointAddr` (this crate never grows an iroh edge; same posture as\n    /// [`PeerAddrStore`](crate::peeraddrs)). `None` until one is observed.\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    pub address: Option<serde_json::Value>,\n    /// Last-seen stamp (opaque epoch-seconds string).\n    pub last_seen: String,\n    /// The author's `node_label` lease — strictly-greater-wins. Equal/lower on\n    /// merge ⇒ [`Stale`](MergeOutcome::Stale) (the registry lease, reused).\n    pub lease_epoch: u64,\n}\n\n/// A per-pubkey revoked marker. Removal in a grow-set can only be additive —\n/// the tombstone is the addition that means \"gone.\"\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\npub struct Tombstone {\n    /// The revoked member's pubkey (lowercase hex).\n    pub pubkey_hex: String,\n    /// The subnet the revocation applies within.\n    pub subnet: String,\n    /// When it was written (opaque epoch-seconds string).\n    pub stamp: String,\n}\n\n/// The whole `roster.json` document: every subnet's members + tombstones this\n/// node knows. A union grow-set — merges are convergent, commutative, idempotent.\n#[derive(Debug, Clone, Default, Serialize, Deserialize)]\npub struct RosterStore {\n    /// Known members across all subnets (keyed `(subnet, pubkey_hex)`).\n    #[serde(default)]\n    pub members: Vec<RosterEntry>,\n    /// Revocation tombstones across all subnets (keyed `(subnet, pubkey_hex)`).\n    #[serde(default)]\n    pub tombstones: Vec<Tombstone>,\n}\n\nimpl RosterStore {\n    /// Load from the canonical [`roster_file`]. A missing file is the empty\n    /// roster (an unpaired node) — never an error.\n    pub fn load() -> RosterStore {\n        Self::load_from(&roster_file())\n    }\n\n    /// Load from an explicit path (the testable core). Absent ⇒ empty; an\n    /// unreadable or corrupt file also degrades to empty rather than panicking —\n    /// a damaged roster must not brick the node (re-pair/merge rebuilds it), the\n    /// same stance as [`SubnetStore`](crate::subnet).\n    pub fn load_from(path: &Path) -> RosterStore {\n        match std::fs::read_to_string(path) {\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n            Err(_) => RosterStore::default(),\n        }\n    }\n\n    /// Persist to the canonical [`roster_file`], creating `identity/` if needed.\n    pub fn save(&self) -> Result<(), RosterError> {\n        self.save_to(&roster_file())\n    }\n\n    /// Persist to an explicit path (atomic; creates the parent dir). Atomic write\n    /// so a concurrent reader never sees a torn roster (the\n    /// [`atomic`](crate::atomic) invariant).\n    pub fn save_to(&self, path: &Path) -> Result<(), RosterError> {\n        if let Some(parent) = path.parent() {\n            std::fs::create_dir_all(parent).map_err(|e| RosterError::Io(e.to_string()))?;\n        }\n        let json = serde_json::to_string_pretty(self).map_err(|e| RosterError::Io(e.to_string()))?;\n        atomic_write_string(path, &json).map_err(|e| RosterError::Io(e.to_string()))\n    }\n\n    /// Find a member entry by `(subnet, pubkey)`.\n    pub fn find(&self, subnet: &str, pubkey_hex: &str) -> Option<&RosterEntry> {\n        self.members\n            .iter()\n            .find(|m| m.subnet == subnet && m.pubkey_hex == pubkey_hex)\n    }\n\n    /// Whether `pubkey_hex` carries a tombstone in `subnet`.\n    pub fn is_tombstoned(&self, subnet: &str, pubkey_hex: &str) -> bool {\n        self.tombstones\n            .iter()\n            .any(|t| t.subnet == subnet && t.pubkey_hex == pubkey_hex)\n    }\n\n    /// The admission predicate **D5's gate consumes**: a present entry that is\n    /// not tombstoned. Membership = roster-listed ∧ ¬revoked (the seed-proof ∧\n    /// ¬tombstoned rule's roster half).\n    // [impl->REQ-MESH-2]\n    pub fn is_member(&self, subnet: &str, pubkey_hex: &str) -> bool {\n        self.find(subnet, pubkey_hex).is_some() && !self.is_tombstoned(subnet, pubkey_hex)\n    }\n\n    /// Whether `pubkey_hex` is a (non-tombstoned) member of **any** subnet —\n    /// the cross-subnet gate the serve paths use when the subnet is not in hand\n    /// (the handshake proves a node id, not which subnet it speaks for). Mesh-D6\n    /// replaced the former `trust.peers.iter().any(pubkey)` admission with this.\n    // [impl->REQ-MESH-5]\n    pub fn is_member_any(&self, pubkey_hex: &str) -> bool {\n        self.members\n            .iter()\n            .any(|m| m.pubkey_hex == pubkey_hex && !self.is_tombstoned(&m.subnet, pubkey_hex))\n    }\n\n    /// The **visible** members of a subnet (entry present ∧ ¬tombstoned) — what\n    /// the mesh dials by.\n    pub fn members_in<'a>(&'a self, subnet: &'a str) -> impl Iterator<Item = &'a RosterEntry> {\n        self.members\n            .iter()\n            .filter(move |m| m.subnet == subnet && !self.is_tombstoned(subnet, &m.pubkey_hex))\n    }\n\n    /// Author/refresh **this node's own** entry. A node is authoritative for its\n    /// own pubkey, so this overwrites unconditionally (the caller passes its\n    /// current `lease_epoch`); lease ordering only governs how *others* merge it.\n    // [impl->REQ-MESH-2]\n    #[allow(clippy::too_many_arguments)]\n    pub fn upsert_self(\n        &mut self,\n        subnet: &str,\n        pubkey_hex: &str,\n        label: &str,\n        machine_id: &str,\n        address: Option<serde_json::Value>,\n        last_seen: &str,\n        lease_epoch: u64,\n    ) {\n        let entry = RosterEntry {\n            pubkey_hex: pubkey_hex.to_string(),\n            subnet: subnet.to_string(),\n            label: label.to_string(),\n            machine_id: machine_id.to_string(),\n            address,\n            last_seen: last_seen.to_string(),\n            lease_epoch,\n        };\n        match self\n            .members\n            .iter_mut()\n            .find(|m| m.subnet == subnet && m.pubkey_hex == pubkey_hex)\n        {\n            Some(slot) => *slot = entry,\n            None => self.members.push(entry),\n        }\n    }\n\n    /// Merge one entry authored by **another** node: strictly-greater\n    /// `lease_epoch` wins. A new `(subnet, pubkey)` is [`Inserted`]; a\n    /// strictly-newer lease is [`Updated`]; equal/older is [`Stale`] (no\n    /// clobber). A tombstone does **not** block recording the freshest facts\n    /// (convergence) — it gates [`is_member`]/[`members_in`], not the merge.\n    ///\n    /// [`Inserted`]: MergeOutcome::Inserted\n    /// [`Updated`]: MergeOutcome::Updated\n    /// [`Stale`]: MergeOutcome::Stale\n    // [impl->REQ-MESH-2]\n    pub fn merge_entry(&mut self, incoming: RosterEntry) -> MergeOutcome {\n        match self\n            .members\n            .iter_mut()\n            .find(|m| m.subnet == incoming.subnet && m.pubkey_hex == incoming.pubkey_hex)\n        {\n            Some(existing) => {\n                if incoming.lease_epoch > existing.lease_epoch {\n                    *existing = incoming;\n                    MergeOutcome::Updated\n                } else {\n                    MergeOutcome::Stale\n                }\n            }\n            None => {\n                self.members.push(incoming);\n                MergeOutcome::Inserted\n            }\n        }\n    }\n\n    /// Record a tombstone (idempotent — re-tombstoning is a no-op). Dominates\n    /// the member's entry and suppresses any later reinsert until cleared.\n    // [impl->REQ-MESH-2]\n    pub fn tombstone(&mut self, subnet: &str, pubkey_hex: &str, stamp: &str) {\n        if !self.is_tombstoned(subnet, pubkey_hex) {\n            self.tombstones.push(Tombstone {\n                pubkey_hex: pubkey_hex.to_string(),\n                subnet: subnet.to_string(),\n                stamp: stamp.to_string(),\n            });\n        }\n    }\n\n    /// **Clear-on-repair**: drop the tombstone for `(subnet, pubkey)` — the\n    /// deliberate elevated act a completed re-pair performs. Returns whether one\n    /// was cleared. (A local op; see the module's convergence-boundary note.)\n    // [impl->REQ-MESH-2]\n    pub fn clear_tombstone(&mut self, subnet: &str, pubkey_hex: &str) -> bool {\n        let before = self.tombstones.len();\n        self.tombstones\n            .retain(|t| !(t.subnet == subnet && t.pubkey_hex == pubkey_hex));\n        self.tombstones.len() != before\n    }\n\n    /// Union-merge a whole other roster into this one: every entry through\n    /// [`merge_entry`] (strictly-greater-wins), every tombstone unioned\n    /// (dedup). The grow-set operation — commutative and idempotent.\n    // [impl->REQ-MESH-2]\n…\n}\n\n[Showing lines 1-300 of 572. Use :301 to continue]"}],"details":{"truncation":{"content":"//! `roster.json` — the member roster: a subnet's discovery directory\r\n//! (REQ-MESH-2, ADR-0017, Mesh-D3).\r\n//!\r\n//! A subnet is a **mesh, not a pairing graph** — every member must be able to\r\n//! see and reach every other member, including ones it never directly paired\r\n//! with. The roster is how: a **node-level union-merge grow-set** where each\r\n//! node authors its own [`RosterEntry`] (its pubkey, label, machine_id,\r\n//! last-known address, last-seen) stamped with its\r\n//! [`lease_epoch`](RosterEntry::lease_epoch) — the same strictly-greater-wins\r\n//! lease the registry runs for node labels (the `spt-net` registry's\r\n//! `MergeOutcome`). It is **NOT** the seed (the seed never leaves a node except\r\n//! over the pairing/seed-proof channel — ADR-0017); a roster entry is\r\n//! **forgery-inert** because naming a pubkey you can't seed-proof gets you\r\n//! nowhere at the membership gate (D2/D5).\r\n//!\r\n//! Seeded **in full at pairing** — the seed-holder hands the joiner its whole\r\n//! current roster (incl. offline members), folding in the deferred pairing-time\r\n//! hostname capture + post-join address seeding. Thereafter it merges over\r\n//! seed-proof'd member connections (D4). Node-local, durable, replicated only\r\n//! over the pairing/P2P channel, **never git-tracked or context-synced** —\r\n//! alongside [`subnet.json`](crate::subnet) under\r\n//! [`identity/`](crate::perch::identity_dir). (Mesh-D6 made this the sole\r\n//! membership record — the former `peers.json` TOFU trust store is gone.)\r\n//!\r\n//! ## Removal needs a tombstone\r\n//!\r\n//! A grow-set cannot delete by omission: drop a member and the next merge\r\n//! re-learns it. Removal is a [`Tombstone`] — a per-pubkey revoked marker that\r\n//! **propagates** (it is itself a grow-set element), **dominates** the entry\r\n//! ([`is_member`](RosterStore::is_member) returns false while it stands),\r\n//! **suppresses reinsert** (a later entry-merge re-records the facts but the\r\n//! member stays hidden), and is **cleared by a completed re-pair** of that\r\n//! pubkey ([`clear_tombstone`](RosterStore::clear_tombstone)).\r\n//!\r\n//! ### Tombstone-convergence boundary (deliberate D3 scope)\r\n//!\r\n//! Cross-node convergence of an *un*-tombstone is **not** D3's concern.\r\n//! [`clear_tombstone`] is a *local* elevated act (the re-pair). The compromised\r\n//! path re-pairs under a **fresh, never-tombstoned key** (the milestone's\r\n//! decision 10), so the old tombstone correctly stands forever; the benign\r\n//! N-1 re-seed + timeboxed rotation propagation is **Mesh-D7**. D3 tests\r\n//! clear-on-repair locally only.\r\n//\r\n// [impl->REQ-MESH-2]\r\n\r\nuse serde::{Deserialize, Serialize};\r\nuse std::path::Path;\r\n\r\nuse crate::atomic::atomic_write_string;\r\nuse crate::perch::roster_file;\r\n\r\n/// Failures persisting the roster.\r\n#[derive(Debug, PartialEq, Eq)]\r\npub enum RosterError {\r\n    /// Reading/writing the backing file failed (message preserved).\r\n    Io(String),\r\n}\r\n\r\nimpl std::fmt::Display for RosterError {\r\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\r\n        match self {\r\n            RosterError::Io(e) => write!(f, \"roster store io: {e}\"),\r\n        }\r\n    }\r\n}\r\n\r\nimpl std::error::Error for RosterError {}\r\n\r\n/// The lease decision when merging an entry (mirrors the `spt-net` registry's\r\n/// `MergeOutcome` naming — strictly-greater wins).\r\n#[derive(Debug, Clone, Copy, PartialEq, Eq)]\r\npub enum MergeOutcome {\r\n    /// First entry for this `(subnet, pubkey)` — inserted.\r\n    Inserted,\r\n    /// A strictly-newer `lease_epoch` for an existing member — replaced.\r\n    Updated,\r\n    /// Equal/older `lease_epoch` (or a tombstoned-but-still-merged fact) — the\r\n    /// incoming entry did not advance the lease; nothing changed.\r\n    Stale,\r\n}\r\n\r\n/// One member of a subnet's roster. Authored by the member itself; merged into\r\n/// every other member's roster strictly-greater-`lease_epoch`-wins.\r\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\r\npub struct RosterEntry {\r\n    /// The member's Ed25519 node pubkey, lowercase hex (the iroh NodeId). The\r\n    /// merge key within a subnet, and what the mesh dials/seed-proofs.\r\n    pub pubkey_hex: String,\r\n    /// The subnet this entry belongs to (a node holds N subnets' rosters in one\r\n    /// file, the multi-subnet shape `subnet.json` uses).\r\n    pub subnet: String,\r\n    /// The member's advertised node label (its OS hostname).\r\n    pub label: String,\r\n    /// The member's hashed stable machine id (REQ-SUBNET-7 anchor — the re-pair\r\n    /// overwrite/tombstone-clear key; never the raw id).\r\n    pub machine_id: String,\r\n    /// Last-known dialable address — an opaque serde-serialized iroh\r\n    /// `EndpointAddr` (this crate never grows an iroh edge; same posture as\r\n    /// [`PeerAddrStore`](crate::peeraddrs)). `None` until one is observed.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    pub address: Option<serde_json::Value>,\r\n    /// Last-seen stamp (opaque epoch-seconds string).\r\n    pub last_seen: String,\r\n    /// The author's `node_label` lease — strictly-greater-wins. Equal/lower on\r\n    /// merge ⇒ [`Stale`](MergeOutcome::Stale) (the registry lease, reused).\r\n    pub lease_epoch: u64,\r\n}\r\n\r\n/// A per-pubkey revoked marker. Removal in a grow-set can only be additive —\r\n/// the tombstone is the addition that means \"gone.\"\r\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\r\npub struct Tombstone {\r\n    /// The revoked member's pubkey (lowercase hex).\r\n    pub pubkey_hex: String,\r\n    /// The subnet the revocation applies within.\r\n    pub subnet: String,\r\n    /// When it was written (opaque epoch-seconds string).\r\n    pub stamp: String,\r\n}\r\n\r\n/// The whole `roster.json` document: every subnet's members + tombstones this\r\n/// node knows. A union grow-set — merges are convergent, commutative, idempotent.\r\n#[derive(Debug, Clone, Default, Serialize, Deserialize)]\r\npub struct RosterStore {\r\n    /// Known members across all subnets (keyed `(subnet, pubkey_hex)`).\r\n    #[serde(default)]\r\n    pub members: Vec<RosterEntry>,\r\n    /// Revocation tombstones across all subnets (keyed `(subnet, pubkey_hex)`).\r\n    #[serde(default)]\r\n    pub tombstones: Vec<Tombstone>,\r\n}\r\n\r\nimpl RosterStore {\r\n    /// Load from the canonical [`roster_file`]. A missing file is the empty\r\n    /// roster (an unpaired node) — never an error.\r\n    pub fn load() -> RosterStore {\r\n        Self::load_from(&roster_file())\r\n    }\r\n\r\n    /// Load from an explicit path (the testable core). Absent ⇒ empty; an\r\n    /// unreadable or corrupt file also degrades to empty rather than panicking —\r\n    /// a damaged roster must not brick the node (re-pair/merge rebuilds it), the\r\n    /// same stance as [`SubnetStore`](crate::subnet).\r\n    pub fn load_from(path: &Path) -> RosterStore {\r\n        match std::fs::read_to_string(path) {\r\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\r\n            Err(_) => RosterStore::default(),\r\n        }\r\n    }\r\n\r\n    /// Persist to the canonical [`roster_file`], creating `identity/` if needed.\r\n    pub fn save(&self) -> Result<(), RosterError> {\r\n        self.save_to(&roster_file())\r\n    }\r\n\r\n    /// Persist to an explicit path (atomic; creates the parent dir). Atomic write\r\n    /// so a concurrent reader never sees a torn roster (the\r\n    /// [`atomic`](crate::atomic) invariant).\r\n    pub fn save_to(&self, path: &Path) -> Result<(), RosterError> {\r\n        if let Some(parent) = path.parent() {\r\n            std::fs::create_dir_all(parent).map_err(|e| RosterError::Io(e.to_string()))?;\r\n        }\r\n        let json = serde_json::to_string_pretty(self).map_err(|e| RosterError::Io(e.to_string()))?;\r\n        atomic_write_string(path, &json).map_err(|e| RosterError::Io(e.to_string()))\r\n    }\r\n\r\n    /// Find a member entry by `(subnet, pubkey)`.\r\n    pub fn find(&self, subnet: &str, pubkey_hex: &str) -> Option<&RosterEntry> {\r\n        self.members\r\n            .iter()\r\n            .find(|m| m.subnet == subnet && m.pubkey_hex == pubkey_hex)\r\n    }\r\n\r\n    /// Whether `pubkey_hex` carries a tombstone in `subnet`.\r\n    pub fn is_tombstoned(&self, subnet: &str, pubkey_hex: &str) -> bool {\r\n        self.tombstones\r\n            .iter()\r\n            .any(|t| t.subnet == subnet && t.pubkey_hex == pubkey_hex)\r\n    }\r\n\r\n    /// The admission predicate **D5's gate consumes**: a present entry that is\r\n    /// not tombstoned. Membership = roster-listed ∧ ¬revoked (the seed-proof ∧\r\n    /// ¬tombstoned rule's roster half).\r\n    // [impl->REQ-MESH-2]\r\n    pub fn is_member(&self, subnet: &str, pubkey_hex: &str) -> bool {\r\n        self.find(subnet, pubkey_hex).is_some() && !self.is_tombstoned(subnet, pubkey_hex)\r\n    }\r\n\r\n    /// Whether `pubkey_hex` is a (non-tombstoned) member of **any** subnet —\r\n    /// the cross-subnet gate the serve paths use when the subnet is not in hand\r\n    /// (the handshake proves a node id, not which subnet it speaks for). Mesh-D6\r\n    /// replaced the former `trust.peers.iter().any(pubkey)` admission with this.\r\n    // [impl->REQ-MESH-5]\r\n    pub fn is_member_any(&self, pubkey_hex: &str) -> bool {\r\n        self.members\r\n            .iter()\r\n            .any(|m| m.pubkey_hex == pubkey_hex && !self.is_tombstoned(&m.subnet, pubkey_hex))\r\n    }\r\n\r\n    /// The **visible** members of a subnet (entry present ∧ ¬tombstoned) — what\r\n    /// the mesh dials by.\r\n    pub fn members_in<'a>(&'a self, subnet: &'a str) -> impl Iterator<Item = &'a RosterEntry> {\r\n        self.members\r\n            .iter()\r\n            .filter(move |m| m.subnet == subnet && !self.is_tombstoned(subnet, &m.pubkey_hex))\r\n    }\r\n\r\n    /// Author/refresh **this node's own** entry. A node is authoritative for its\r\n    /// own pubkey, so this overwrites unconditionally (the caller passes its\r\n    /// current `lease_epoch`); lease ordering only governs how *others* merge it.\r\n    // [impl->REQ-MESH-2]\r\n    #[allow(clippy::too_many_arguments)]\r\n    pub fn upsert_self(\r\n        &mut self,\r\n        subnet: &str,\r\n        pubkey_hex: &str,\r\n        label: &str,\r\n        machine_id: &str,\r\n        address: Option<serde_json::Value>,\r\n        last_seen: &str,\r\n        lease_epoch: u64,\r\n    ) {\r\n        let entry = RosterEntry {\r\n            pubkey_hex: pubkey_hex.to_string(),\r\n            subnet: subnet.to_string(),\r\n            label: label.to_string(),\r\n            machine_id: machine_id.to_string(),\r\n            address,\r\n            last_seen: last_seen.to_string(),\r\n            lease_epoch,\r\n        };\r\n        match self\r\n            .members\r\n            .iter_mut()\r\n            .find(|m| m.subnet == subnet && m.pubkey_hex == pubkey_hex)\r\n        {\r\n            Some(slot) => *slot = entry,\r\n            None => self.members.push(entry),\r\n        }\r\n    }\r\n\r\n    /// Merge one entry authored by **another** node: strictly-greater\r\n    /// `lease_epoch` wins. A new `(subnet, pubkey)` is [`Inserted`]; a\r\n    /// strictly-newer lease is [`Updated`]; equal/older is [`Stale`] (no\r\n    /// clobber). A tombstone does **not** block recording the freshest facts\r\n    /// (convergence) — it gates [`is_member`]/[`members_in`], not the merge.\r\n    ///\r\n    /// [`Inserted`]: MergeOutcome::Inserted\r\n    /// [`Updated`]: MergeOutcome::Updated\r\n    /// [`Stale`]: MergeOutcome::Stale\r\n    // [impl->REQ-MESH-2]\r\n    pub fn merge_entry(&mut self, incoming: RosterEntry) -> MergeOutcome {\r\n        match self\r\n            .members\r\n            .iter_mut()\r\n            .find(|m| m.subnet == incoming.subnet && m.pubkey_hex == incoming.pubkey_hex)\r\n        {\r\n            Some(existing) => {\r\n                if incoming.lease_epoch > existing.lease_epoch {\r\n                    *existing = incoming;\r\n                    MergeOutcome::Updated\r\n                } else {\r\n                    MergeOutcome::Stale\r\n                }\r\n            }\r\n            None => {\r\n                self.members.push(incoming);\r\n                MergeOutcome::Inserted\r\n            }\r\n        }\r\n    }\r\n\r\n    /// Record a tombstone (idempotent — re-tombstoning is a no-op). Dominates\r\n    /// the member's entry and suppresses any later reinsert until cleared.\r\n    // [impl->REQ-MESH-2]\r\n    pub fn tombstone(&mut self, subnet: &str, pubkey_hex: &str, stamp: &str) {\r\n        if !self.is_tombstoned(subnet, pubkey_hex) {\r\n            self.tombstones.push(Tombstone {\r\n                pubkey_hex: pubkey_hex.to_string(),\r\n                subnet: subnet.to_string(),\r\n                stamp: stamp.to_string(),\r\n            });\r\n        }\r\n    }\r\n\r\n    /// **Clear-on-repair**: drop the tombstone for `(subnet, pubkey)` — the\r\n    /// deliberate elevated act a completed re-pair performs. Returns whether one\r\n    /// was cleared. (A local op; see the module's convergence-boundary note.)\r\n    // [impl->REQ-MESH-2]\r\n    pub fn clear_tombstone(&mut self, subnet: &str, pubkey_hex: &str) -> bool {\r\n        let before = self.tombstones.len();\r\n        self.tombstones\r\n            .retain(|t| !(t.subnet == subnet && t.pubkey_hex == pubkey_hex));\r\n        self.tombstones.len() != before\r\n    }\r\n\r\n    /// Union-merge a whole other roster into this one: every entry through\r\n    /// [`merge_entry`] (strictly-greater-wins), every tombstone unioned\r\n    /// (dedup). The grow-set operation — commutative and idempotent.\r\n    // [impl->REQ-MESH-2]\r","truncated":true,"truncatedBy":"lines","totalLines":572,"totalBytes":13365,"outputLines":300,"outputBytes":13365,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"//! `roster.json` — the member roster: a subnet's discovery directory\r\n//! (REQ-MESH-2, ADR-0017, Mesh-D3).\r\n//!\r\n//! A subnet is a **mesh, not a pairing graph** — every member must be able to\r\n//! see and reach every other member, including ones it never directly paired\r\n//! with. The roster is how: a **node-level union-merge grow-set** where each\r\n//! node authors its own [`RosterEntry`] (its pubkey, label, machine_id,\r\n//! last-known address, last-seen) stamped with its\r\n//! [`lease_epoch`](RosterEntry::lease_epoch) — the same strictly-greater-wins\r\n//! lease the registry runs for node labels (the `spt-net` registry's\r\n//! `MergeOutcome`). It is **NOT** the seed (the seed never leaves a node except\r\n//! over the pairing/seed-proof channel — ADR-0017); a roster entry is\r\n//! **forgery-inert** because naming a pubkey you can't seed-proof gets you\r\n//! nowhere at the membership gate (D2/D5).\r\n//!\r\n//! Seeded **in full at pairing** — the seed-holder hands the joiner its whole\r\n//! current roster (incl. offline members), folding in the deferred pairing-time\r\n//! hostname capture + post-join address seeding. Thereafter it merges over\r\n//! seed-proof'd member connections (D4). Node-local, durable, replicated only\r\n//! over the pairing/P2P channel, **never git-tracked or context-synced** —\r\n//! alongside [`subnet.json`](crate::subnet) under\r\n//! [`identity/`](crate::perch::identity_dir). (Mesh-D6 made this the sole\r\n//! membership record — the former `peers.json` TOFU trust store is gone.)\r\n//!\r\n//! ## Removal needs a tombstone\r\n//!\r\n//! A grow-set cannot delete by omission: drop a member and the next merge\r\n//! re-learns it. Removal is a [`Tombstone`] — a per-pubkey revoked marker that\r\n//! **propagates** (it is itself a grow-set element), **dominates** the entry\r\n//! ([`is_member`](RosterStore::is_member) returns false while it stands),\r\n//! **suppresses reinsert** (a later entry-merge re-records the facts but the\r\n//! member stays hidden), and is **cleared by a completed re-pair** of that\r\n//! pubkey ([`clear_tombstone`](RosterStore::clear_tombstone)).\r\n//!\r\n//! ### Tombstone-convergence boundary (deliberate D3 scope)\r\n//!\r\n//! Cross-node convergence of an *un*-tombstone is **not** D3's concern.\r\n//! [`clear_tombstone`] is a *local* elevated act (the re-pair). The compromised\r\n//! path re-pairs under a **fresh, never-tombstoned key** (the milestone's\r\n//! decision 10), so the old tombstone correctly stands forever; the benign\r\n//! N-1 re-seed + timeboxed rotation propagation is **Mesh-D7**. D3 tests\r\n//! clear-on-repair locally only.\r\n//\r\n// [impl->REQ-MESH-2]\r\n\r\nuse serde::{Deserialize, Serialize};\r\nuse std::path::Path;\r\n\r\nuse crate::atomic::atomic_write_string;\r\nuse crate::perch::roster_file;\r\n\r\n/// Failures persisting the roster.\r\n#[derive(Debug, PartialEq, Eq)]\r\npub enum RosterError {\r\n    /// Reading/writing the backing file failed (message preserved).\r\n    Io(String),\r\n}\r\n\r\nimpl std::fmt::Display for RosterError {\r\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\r\n        match self {\r\n            RosterError::Io(e) => write!(f, \"roster store io: {e}\"),\r\n        }\r\n    }\r\n}\r\n\r\nimpl std::error::Error for RosterError {}\r\n\r\n/// The lease decision when merging an entry (mirrors the `spt-net` registry's\r\n/// `MergeOutcome` naming — strictly-greater wins).\r\n#[derive(Debug, Clone, Copy, PartialEq, Eq)]\r\npub enum MergeOutcome {\r\n    /// First entry for this `(subnet, pubkey)` — inserted.\r\n    Inserted,\r\n    /// A strictly-newer `lease_epoch` for an existing member — replaced.\r\n    Updated,\r\n    /// Equal/older `lease_epoch` (or a tombstoned-but-still-merged fact) — the\r\n    /// incoming entry did not advance the lease; nothing changed.\r\n    Stale,\r\n}\r\n\r\n/// One member of a subnet's roster. Authored by the member itself; merged into\r\n/// every other member's roster strictly-greater-`lease_epoch`-wins.\r\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\r\npub struct RosterEntry {\r\n    /// The member's Ed25519 node pubkey, lowercase hex (the iroh NodeId). The\r\n    /// merge key within a subnet, and what the mesh dials/seed-proofs.\r\n    pub pubkey_hex: String,\r\n    /// The subnet this entry belongs to (a node holds N subnets' rosters in one\r\n    /// file, the multi-subnet shape `subnet.json` uses).\r\n    pub subnet: String,\r\n    /// The member's advertised node label (its OS hostname).\r\n    pub label: String,\r\n    /// The member's hashed stable machine id (REQ-SUBNET-7 anchor — the re-pair\r\n    /// overwrite/tombstone-clear key; never the raw id).\r\n    pub machine_id: String,\r\n    /// Last-known dialable address — an opaque serde-serialized iroh\r\n    /// `EndpointAddr` (this crate never grows an iroh edge; same posture as\r\n    /// [`PeerAddrStore`](crate::peeraddrs)). `None` until one is observed.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    pub address: Option<serde_json::Value>,\r\n    /// Last-seen stamp (opaque epoch-seconds string).\r\n    pub last_seen: String,\r\n    /// The author's `node_label` lease — strictly-greater-wins. Equal/lower on\r\n    /// merge ⇒ [`Stale`](MergeOutcome::Stale) (the registry lease, reused).\r\n    pub lease_epoch: u64,\r\n}\r\n\r\n/// A per-pubkey revoked marker. Removal in a grow-set can only be additive —\r\n/// the tombstone is the addition that means \"gone.\"\r\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\r\npub struct Tombstone {\r\n    /// The revoked member's pubkey (lowercase hex).\r\n    pub pubkey_hex: String,\r\n    /// The subnet the revocation applies within.\r\n    pub subnet: String,\r\n    /// When it was written (opaque epoch-seconds string).\r\n    pub stamp: String,\r\n}\r\n\r\n/// The whole `roster.json` document: every subnet's members + tombstones this\r\n/// node knows. A union grow-set — merges are convergent, commutative, idempotent.\r\n#[derive(Debug, Clone, Default, Serialize, Deserialize)]\r\npub struct RosterStore {\r\n    /// Known members across all subnets (keyed `(subnet, pubkey_hex)`).\r\n    #[serde(default)]\r\n    pub members: Vec<RosterEntry>,\r\n    /// Revocation tombstones across all subnets (keyed `(subnet, pubkey_hex)`).\r\n    #[serde(default)]\r\n    pub tombstones: Vec<Tombstone>,\r\n}\r\n\r\nimpl RosterStore {\r\n    /// Load from the canonical [`roster_file`]. A missing file is the empty\r\n    /// roster (an unpaired node) — never an error.\r\n    pub fn load() -> RosterStore {\r\n        Self::load_from(&roster_file())\r\n    }\r\n\r\n    /// Load from an explicit path (the testable core). Absent ⇒ empty; an\r\n    /// unreadable or corrupt file also degrades to empty rather than panicking —\r\n    /// a damaged roster must not brick the node (re-pair/merge rebuilds it), the\r\n    /// same stance as [`SubnetStore`](crate::subnet).\r\n    pub fn load_from(path: &Path) -> RosterStore {\r\n        match std::fs::read_to_string(path) {\r\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\r\n            Err(_) => RosterStore::default(),\r\n        }\r\n    }\r\n\r\n    /// Persist to the canonical [`roster_file`], creating `identity/` if needed.\r\n    pub fn save(&self) -> Result<(), RosterError> {\r\n        self.save_to(&roster_file())\r\n    }\r\n\r\n    /// Persist to an explicit path (atomic; creates the parent dir). Atomic write\r\n    /// so a concurrent reader never sees a torn roster (the\r\n    /// [`atomic`](crate::atomic) invariant).\r\n    pub fn save_to(&self, path: &Path) -> Result<(), RosterError> {\r\n        if let Some(parent) = path.parent() {\r\n            std::fs::create_dir_all(parent).map_err(|e| RosterError::Io(e.to_string()))?;\r\n        }\r\n        let json = serde_json::to_string_pretty(self).map_err(|e| RosterError::Io(e.to_string()))?;\r\n        atomic_write_string(path, &json).map_err(|e| RosterError::Io(e.to_string()))\r\n    }\r\n\r\n    /// Find a member entry by `(subnet, pubkey)`.\r\n    pub fn find(&self, subnet: &str, pubkey_hex: &str) -> Option<&RosterEntry> {\r\n        self.members\r\n            .iter()\r\n            .find(|m| m.subnet == subnet && m.pubkey_hex == pubkey_hex)\r\n    }\r\n\r\n    /// Whether `pubkey_hex` carries a tombstone in `subnet`.\r\n    pub fn is_tombstoned(&self, subnet: &str, pubkey_hex: &str) -> bool {\r\n        self.tombstones\r\n            .iter()\r\n            .any(|t| t.subnet == subnet && t.pubkey_hex == pubkey_hex)\r\n    }\r\n\r\n    /// The admission predicate **D5's gate consumes**: a present entry that is\r\n    /// not tombstoned. Membership = roster-listed ∧ ¬revoked (the seed-proof ∧\r\n    /// ¬tombstoned rule's roster half).\r\n    // [impl->REQ-MESH-2]\r\n    pub fn is_member(&self, subnet: &str, pubkey_hex: &str) -> bool {\r\n        self.find(subnet, pubkey_hex).is_some() && !self.is_tombstoned(subnet, pubkey_hex)\r\n    }\r\n\r\n    /// Whether `pubkey_hex` is a (non-tombstoned) member of **any** subnet —\r\n    /// the cross-subnet gate the serve paths use when the subnet is not in hand\r\n    /// (the handshake proves a node id, not which subnet it speaks for). Mesh-D6\r\n    /// replaced the former `trust.peers.iter().any(pubkey)` admission with this.\r\n    // [impl->REQ-MESH-5]\r\n    pub fn is_member_any(&self, pubkey_hex: &str) -> bool {\r\n        self.members\r\n            .iter()\r\n            .any(|m| m.pubkey_hex == pubkey_hex && !self.is_tombstoned(&m.subnet, pubkey_hex))\r\n    }\r\n\r\n    /// The **visible** members of a subnet (entry present ∧ ¬tombstoned) — what\r\n    /// the mesh dials by.\r\n    pub fn members_in<'a>(&'a self, subnet: &'a str) -> impl Iterator<Item = &'a RosterEntry> {\r\n        self.members\r\n            .iter()\r\n            .filter(move |m| m.subnet == subnet && !self.is_tombstoned(subnet, &m.pubkey_hex))\r\n    }\r\n\r\n    /// Author/refresh **this node's own** entry. A node is authoritative for its\r\n    /// own pubkey, so this overwrites unconditionally (the caller passes its\r\n    /// current `lease_epoch`); lease ordering only governs how *others* merge it.\r\n    // [impl->REQ-MESH-2]\r\n    #[allow(clippy::too_many_arguments)]\r\n    pub fn upsert_self(\r\n        &mut self,\r\n        subnet: &str,\r\n        pubkey_hex: &str,\r\n        label: &str,\r\n        machine_id: &str,\r\n        address: Option<serde_json::Value>,\r\n        last_seen: &str,\r\n        lease_epoch: u64,\r\n    ) {\r\n        let entry = RosterEntry {\r\n            pubkey_hex: pubkey_hex.to_string(),\r\n            subnet: subnet.to_string(),\r\n            label: label.to_string(),\r\n            machine_id: machine_id.to_string(),\r\n            address,\r\n            last_seen: last_seen.to_string(),\r\n            lease_epoch,\r\n        };\r\n        match self\r\n            .members\r\n            .iter_mut()\r\n            .find(|m| m.subnet == subnet && m.pubkey_hex == pubkey_hex)\r\n        {\r\n            Some(slot) => *slot = entry,\r\n            None => self.members.push(entry),\r\n        }\r\n    }\r\n\r\n    /// Merge one entry authored by **another** node: strictly-greater\r\n    /// `lease_epoch` wins. A new `(subnet, pubkey)` is [`Inserted`]; a\r\n    /// strictly-newer lease is [`Updated`]; equal/older is [`Stale`] (no\r\n    /// clobber). A tombstone does **not** block recording the freshest facts\r\n    /// (convergence) — it gates [`is_member`]/[`members_in`], not the merge.\r\n    ///\r\n    /// [`Inserted`]: MergeOutcome::Inserted\r\n    /// [`Updated`]: MergeOutcome::Updated\r\n    /// [`Stale`]: MergeOutcome::Stale\r\n    // [impl->REQ-MESH-2]\r\n    pub fn merge_entry(&mut self, incoming: RosterEntry) -> MergeOutcome {\r\n        match self\r\n            .members\r\n            .iter_mut()\r\n            .find(|m| m.subnet == incoming.subnet && m.pubkey_hex == incoming.pubkey_hex)\r\n        {\r\n            Some(existing) => {\r\n                if incoming.lease_epoch > existing.lease_epoch {\r\n                    *existing = incoming;\r\n                    MergeOutcome::Updated\r\n                } else {\r\n                    MergeOutcome::Stale\r\n                }\r\n            }\r\n            None => {\r\n                self.members.push(incoming);\r\n                MergeOutcome::Inserted\r\n            }\r\n        }\r\n    }\r\n\r\n    /// Record a tombstone (idempotent — re-tombstoning is a no-op). Dominates\r\n    /// the member's entry and suppresses any later reinsert until cleared.\r\n    // [impl->REQ-MESH-2]\r\n    pub fn tombstone(&mut self, subnet: &str, pubkey_hex: &str, stamp: &str) {\r\n        if !self.is_tombstoned(subnet, pubkey_hex) {\r\n            self.tombstones.push(Tombstone {\r\n                pubkey_hex: pubkey_hex.to_string(),\r\n                subnet: subnet.to_string(),\r\n                stamp: stamp.to_string(),\r\n            });\r\n        }\r\n    }\r\n\r\n    /// **Clear-on-repair**: drop the tombstone for `(subnet, pubkey)` — the\r\n    /// deliberate elevated act a completed re-pair performs. Returns whether one\r\n    /// was cleared. (A local op; see the module's convergence-boundary note.)\r\n    // [impl->REQ-MESH-2]\r\n    pub fn clear_tombstone(&mut self, subnet: &str, pubkey_hex: &str) -> bool {\r\n        let before = self.tombstones.len();\r\n        self.tombstones\r\n            .retain(|t| !(t.subnet == subnet && t.pubkey_hex == pubkey_hex));\r\n        self.tombstones.len() != before\r\n    }\r\n\r\n    /// Union-merge a whole other roster into this one: every entry through\r\n    /// [`merge_entry`] (strictly-greater-wins), every tombstone unioned\r\n    /// (dedup). The grow-set operation — commutative and idempotent.\r\n    // [impl->REQ-MESH-2]\r\n…\n}","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300,null,329]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-store\\src\\roster.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":572,"totalBytes":13365,"outputLines":300,"outputBytes":13365,"shownRange":{"start":1,"end":300},"nextOffset":301}}},"isError":false,"timestamp":1784069042447}}
{"type":"message","id":"5082d5e8","parentId":"5aaf0c1a","timestamp":"2026-07-14T22:44:02.454Z","message":{"role":"toolResult","toolCallId":"call_soHiRW3ZRabuouccb8xALtug|fc_0b084cf0b521ab15016a56bbb24a208190b890b135dbcabcd5","toolName":"read","content":[{"type":"text","text":"//! `subnet.json` — multi-subnet membership + TOTP seed material (ADR-0005/0006, D2c).\n//!\n//! A node belongs to *N* subnets (each cryptographically its own TOTP seed + trust\n//! context — `CONTEXT.md` \"subnet membership\"), so this one durable file under\n//! [`identity/`](crate::perch::identity_dir) holds a **collection** of\n//! [`SubnetRecord`]s, not a single subnet. Node-local, durable, **never git-tracked\n//! and never synced over the context repo** — it is subnet-joining secret material\n//! (it replicates only via the pairing/P2P channel, `docs/STORAGE.md`).\n//!\n//! ## Seed epoch + rotation (KNOWN-HAZARDS / ADR-0005 #10)\n//!\n//! Each record carries a monotonic [`epoch`](SubnetRecord::epoch). Stage-A red-team\n//! **#10**: *trust-store delete is not revocation* — the seed is replicated to every\n//! trusted node, so a compromised node can re-pair as a \"new\" node after a mere\n//! trust-store delete. The fix is [`rotate_seed`](SubnetStore::rotate_seed): removing\n//! a node **rotates the subnet seed and bumps the epoch**, so the old seed computes\n//! the wrong TOTP code and the [transcript](../../../spt_net/net/pairing/transcript)\n//! (which binds the epoch) rejects an old-epoch rejoin. The epoch is the\n//! responder-authoritative value the pairing ceremony binds.\n//!\n//! ## `(subnet, user)`-ready shape (cross-user seam)\n//!\n//! The optional [`user`](SubnetRecord::user) field is the forward seam for the\n//! cross-user model (`CONTEXT.md` \"Cross-user seam\"): v1 has one implicit user\n//! (`None`); when cross-user lands, the seed key generalizes to `(subnet, user)` with\n//! no re-architecture — force-unlinking a whole user's node-group becomes dropping\n//! that user's records.\n//\n// [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\n\nuse serde::{Deserialize, Serialize};\nuse spt_proto::identity::Identity;\nuse std::path::Path;\n\nuse crate::atomic::atomic_write_string;\nuse crate::perch::subnet_file;\n\n/// TOTP seed length in bytes (160-bit, RFC 4226/6238). The crypto consumer\n/// (`spt-net` `pairing::totp`) wraps these bytes; this layer stores them.\npub const TOTP_SEED_LEN: usize = 20;\n\n/// Failures operating on the subnet store.\n#[derive(Debug, PartialEq, Eq)]\npub enum SubnetError {\n    /// `create_subnet` for a name (within the same user scope) that already exists.\n    Exists(String),\n    /// An operation named a subnet not in the store.\n    NotFound(String),\n    /// Reading/writing the backing file failed (message preserved).\n    Io(String),\n}\n\nimpl std::fmt::Display for SubnetError {\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\n        match self {\n            SubnetError::Exists(n) => write!(f, \"subnet already exists: {n}\"),\n            SubnetError::NotFound(n) => write!(f, \"subnet not found: {n}\"),\n            SubnetError::Io(e) => write!(f, \"subnet store io: {e}\"),\n        }\n    }\n}\n\nimpl std::error::Error for SubnetError {}\n\n/// One subnet the node belongs to: its human name, the durable TOTP seed (hex), the\n/// seed epoch, and (forward seam) the owning user.\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\npub struct SubnetRecord {\n    /// Human subnet label (R-PAIR-4) — what the user types when pairing.\n    pub name: String,\n    /// The 20-byte TOTP seed, lowercase hex. The subnet secret; never synced.\n    pub seed_hex: String,\n    /// Monotonic seed generation (ADR-0005 #10). Bumped on every\n    /// [`rotate_seed`](SubnetStore::rotate_seed); bound into the pairing transcript.\n    pub epoch: u64,\n    /// The **immediately-prior** generation's seed (hex), retained one-deep so a\n    /// rotator can verify an `N-1` seed-proof from a benign offliner and re-seed\n    /// it (the Mesh-D7 re-seed grace). `Some` only after at least one rotation;\n    /// the prior epoch is implicitly [`epoch`](Self::epoch)` - 1`. Cleared past\n    /// one generation (the grace is one-deep by construction — `≥2` stale must\n    /// re-pair). Never synced; same secrecy posture as [`seed_hex`](Self::seed_hex).\n    // [impl->REQ-MESH-4]\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    pub prev_seed_hex: Option<String>,\n    /// Owning user — the cross-user seam. `None` = the single implicit v1 user.\n    #[serde(skip_serializing_if = \"Option::is_none\")]\n    pub user: Option<String>,\n    /// Creation stamp (epoch-seconds string; opaque).\n    pub created: String,\n    /// The subnet's `hide_new_endpoints` policy (ADR-0006 §6), **captured at join\n    /// time** into this node's record. When ON, endpoints default to hidden\n    /// (= excluded: not advertised AND not routable) in this subnet unless a\n    /// per-`(endpoint, subnet)` override forces them visible\n    /// ([`VisibilityStore::hidden`](crate::visibility::VisibilityStore::hidden)).\n    /// Ships OFF (visible). Serde-defaulted so pre-D3e `subnet.json` files load.\n    // [impl->REQ-INST-12]\n    #[serde(default)]\n    pub hide_new_endpoints: bool,\n}\n\nimpl SubnetRecord {\n    /// Decode the seed to raw bytes for the crypto layer. `None` if the stored hex is\n    /// malformed or the wrong length (defensive — the store always writes valid hex).\n    pub fn seed_bytes(&self) -> Option<[u8; TOTP_SEED_LEN]> {\n        decode_hex(&self.seed_hex)\n    }\n\n    /// Decode the **prior**-generation seed to raw bytes (the one-deep re-seed\n    /// grace material), paired with its epoch (`epoch - 1`). `None` when there is\n    /// no prior generation (never rotated) or the hex is malformed.\n    // [impl->REQ-MESH-4]\n    pub fn prev_seed_bytes(&self) -> Option<([u8; TOTP_SEED_LEN], u64)> {\n        let prev = self.prev_seed_hex.as_deref()?;\n        let bytes = decode_hex(prev)?;\n        let prior_epoch = self.epoch.checked_sub(1)?;\n        Some((bytes, prior_epoch))\n    }\n}\n\n/// The whole `subnet.json` document: every subnet the node is a member of.\n#[derive(Debug, Clone, Default, Serialize, Deserialize)]\npub struct SubnetStore {\n    /// All subnets this node belongs to (multi-subnet — N seeds).\n    #[serde(default)]\n    pub subnets: Vec<SubnetRecord>,\n}\n\nimpl SubnetStore {\n    /// Load the node's subnet store from the canonical [`subnet_file`]. A missing file\n    /// is the empty store (an unpaired node) — never an error.\n    pub fn load() -> SubnetStore {\n        Self::load_from(&subnet_file())\n    }\n\n    /// Load from an explicit path (the testable core). Absent ⇒ empty; an unreadable\n    /// or corrupt file also degrades to empty rather than panicking (a corrupt secret\n    /// file should not brick the node — re-provision via pairing).\n    pub fn load_from(path: &Path) -> SubnetStore {\n        match std::fs::read_to_string(path) {\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n            Err(_) => SubnetStore::default(),\n        }\n    }\n\n    /// Persist to the canonical [`subnet_file`], creating `identity/` if needed.\n    pub fn save(&self) -> Result<(), SubnetError> {\n        self.save_to(&subnet_file())\n    }\n\n    /// Persist to an explicit path (atomic; creates the parent dir). Atomic write so a\n    /// concurrent reader never sees a torn secret file (the [`atomic`](crate::atomic)\n    /// invariant).\n    pub fn save_to(&self, path: &Path) -> Result<(), SubnetError> {\n        if let Some(parent) = path.parent() {\n            std::fs::create_dir_all(parent).map_err(|e| SubnetError::Io(e.to_string()))?;\n        }\n        let json =\n            serde_json::to_string_pretty(self).map_err(|e| SubnetError::Io(e.to_string()))?;\n        atomic_write_string(path, &json).map_err(|e| SubnetError::Io(e.to_string()))\n    }\n\n    /// Find a subnet by name (within the implicit-user scope).\n    pub fn find(&self, name: &str) -> Option<&SubnetRecord> {\n        self.subnets.iter().find(|s| s.name == name)\n    }\n\n    /// Create a new subnet with a freshly minted seed at epoch 1 (the \"create-new\"\n    /// pairing path — this node becomes the sole seed-holder). Errors if the name\n    /// already exists. Returns the new record.\n    ///\n    /// This is **subnet naming on first pairing** (REQ-PAIR-4 / ADR-0006): the subnet is\n    /// named at creation (\"naming moves to link-start\"); the name then rides every\n    /// subsequent pairing ceremony (the joiner types it; the transcript binds it).\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION] [impl->REQ-PAIR-4]\n    pub fn create_subnet(&mut self, name: &str) -> Result<&SubnetRecord, SubnetError> {\n        if self.find(name).is_some() {\n            return Err(SubnetError::Exists(name.to_string()));\n        }\n        self.subnets.push(SubnetRecord {\n            name: name.to_string(),\n            seed_hex: encode_hex(&random_seed()),\n            epoch: 1,\n            user: None,\n            created: now_stamp(),\n            hide_new_endpoints: false,\n            prev_seed_hex: None,\n        });\n        Ok(self.subnets.last().expect(\"just pushed\"))\n    }\n\n    /// Add a subnet whose seed was learned by **joining** an existing subnet (the seed\n    /// and its current epoch arrive over the pairing channel from a seed-holder).\n    /// Errors if the name already exists.\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\n    pub fn add_joined(\n        &mut self,\n        name: &str,\n        seed: [u8; TOTP_SEED_LEN],\n        epoch: u64,\n    ) -> Result<&SubnetRecord, SubnetError> {\n        if self.find(name).is_some() {\n            return Err(SubnetError::Exists(name.to_string()));\n        }\n        self.subnets.push(SubnetRecord {\n            name: name.to_string(),\n            seed_hex: encode_hex(&seed),\n            epoch,\n            user: None,\n            created: now_stamp(),\n            hide_new_endpoints: false,\n            prev_seed_hex: None,\n        });\n        Ok(self.subnets.last().expect(\"just pushed\"))\n    }\n\n    /// Rotate a subnet's seed and bump its epoch (ADR-0005 #10 — the node-removal\n    /// response). The old seed can no longer compute a valid current code, and the\n    /// epoch bump means even a captured old transcript won't bind. The new seed must\n    /// then be redistributed to the *remaining* trusted nodes over the pairing\n    /// channel; callers pair node-removal (trust-store delete) **with** this rotation,\n    /// because a trust-delete alone is not revocation.\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\n    pub fn rotate_seed(&mut self, name: &str) -> Result<&SubnetRecord, SubnetError> {\n        let rec = self\n            .subnets\n            .iter_mut()\n            .find(|s| s.name == name)\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\n        // Retain the outgoing seed one-deep: it is the credential a benign\n        // offliner still holds, and the rotator must be able to verify that\n        // `N-1` proof to re-seed it across the rotation (Mesh-D7 grace).\n        // [impl->REQ-MESH-4]\n        rec.prev_seed_hex = Some(std::mem::replace(&mut rec.seed_hex, encode_hex(&random_seed())));\n        rec.epoch += 1;\n        Ok(rec)\n    }\n\n    /// Adopt a seed handed over by a rotator across the re-seed grace (Mesh-D7):\n    /// a benign offliner that proved its `N-1` membership receives the current\n    /// `{seed, epoch}` over the member control stream and adopts it here. The old\n    /// seed is retained one-deep (so a *further* rotation it also missed would\n    /// still find a usable prior generation) and the epoch jumps to `epoch`.\n    /// A no-op (returns `false`) when the incoming epoch is not strictly newer —\n    /// idempotent against a re-delivered push, and never a silent downgrade.\n    // [impl->REQ-MESH-4]\n    pub fn adopt_rotation(\n        &mut self,\n        name: &str,\n        seed: [u8; TOTP_SEED_LEN],\n        epoch: u64,\n    ) -> Result<bool, SubnetError> {\n        let rec = self\n            .subnets\n            .iter_mut()\n            .find(|s| s.name == name)\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\n        if epoch <= rec.epoch {\n            return Ok(false); // not newer — ignore (idempotent, no downgrade)\n        }\n        rec.prev_seed_hex = Some(std::mem::replace(&mut rec.seed_hex, encode_hex(&seed)));\n        rec.epoch = epoch;\n        Ok(true)\n    }\n\n    /// Set a subnet's `hide_new_endpoints` policy (ADR-0006 §6). The flag is\n    /// *captured at join time* in the sense that it lives on this node's join-created\n    /// record; flipping it later only changes the default for endpoints without an\n    /// explicit per-`(endpoint, subnet)` override.\n    // [impl->REQ-INST-12]\n    pub fn set_hide_new_endpoints(&mut self, name: &str, hide: bool) -> Result<(), SubnetError> {\n        let rec = self\n            .subnets\n            .iter_mut()\n            .find(|s| s.name == name)\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\n        rec.hide_new_endpoints = hide;\n        Ok(())\n    }\n\n    /// Remove a subnet entirely (the node leaves it). Returns whether a record was\n    /// removed. (Distinct from [`rotate_seed`]: leaving a subnet drops our own\n    /// membership; rotating evicts *another* node from a subnet we keep.)\n    pub fn remove(&mut self, name: &str) -> bool {\n        let before = self.subnets.len();\n        self.subnets.retain(|s| s.name != name);\n        self.subnets.len() != before\n    }\n}\n\n/// Mint 20 cryptographically-random seed bytes. Reuses spt-proto's Ed25519 seed\n/// generator (OsRng) as the CSPRNG — the same no-extra-`rand`-dependency trick used\n/// elsewhere — taking the first [`TOTP_SEED_LEN`] of its 32 random bytes.\nfn random_seed() -> [u8; TOTP_SEED_LEN] {\n    let mut out = [0u8; TOTP_SEED_LEN];\n    out.copy_from_slice(&Identity::generate().seed()[..TOTP_SEED_LEN]);\n    out\n}\n\n/// Lowercase-hex encode bytes (dependency-free; small fixed inputs).\nfn encode_hex(bytes: &[u8]) -> String {\n…\n}\n\n[Showing lines 1-300 of 542. Use :301 to continue]"}],"details":{"truncation":{"content":"//! `subnet.json` — multi-subnet membership + TOTP seed material (ADR-0005/0006, D2c).\r\n//!\r\n//! A node belongs to *N* subnets (each cryptographically its own TOTP seed + trust\r\n//! context — `CONTEXT.md` \"subnet membership\"), so this one durable file under\r\n//! [`identity/`](crate::perch::identity_dir) holds a **collection** of\r\n//! [`SubnetRecord`]s, not a single subnet. Node-local, durable, **never git-tracked\r\n//! and never synced over the context repo** — it is subnet-joining secret material\r\n//! (it replicates only via the pairing/P2P channel, `docs/STORAGE.md`).\r\n//!\r\n//! ## Seed epoch + rotation (KNOWN-HAZARDS / ADR-0005 #10)\r\n//!\r\n//! Each record carries a monotonic [`epoch`](SubnetRecord::epoch). Stage-A red-team\r\n//! **#10**: *trust-store delete is not revocation* — the seed is replicated to every\r\n//! trusted node, so a compromised node can re-pair as a \"new\" node after a mere\r\n//! trust-store delete. The fix is [`rotate_seed`](SubnetStore::rotate_seed): removing\r\n//! a node **rotates the subnet seed and bumps the epoch**, so the old seed computes\r\n//! the wrong TOTP code and the [transcript](../../../spt_net/net/pairing/transcript)\r\n//! (which binds the epoch) rejects an old-epoch rejoin. The epoch is the\r\n//! responder-authoritative value the pairing ceremony binds.\r\n//!\r\n//! ## `(subnet, user)`-ready shape (cross-user seam)\r\n//!\r\n//! The optional [`user`](SubnetRecord::user) field is the forward seam for the\r\n//! cross-user model (`CONTEXT.md` \"Cross-user seam\"): v1 has one implicit user\r\n//! (`None`); when cross-user lands, the seed key generalizes to `(subnet, user)` with\r\n//! no re-architecture — force-unlinking a whole user's node-group becomes dropping\r\n//! that user's records.\r\n//\r\n// [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\r\n\r\nuse serde::{Deserialize, Serialize};\r\nuse spt_proto::identity::Identity;\r\nuse std::path::Path;\r\n\r\nuse crate::atomic::atomic_write_string;\r\nuse crate::perch::subnet_file;\r\n\r\n/// TOTP seed length in bytes (160-bit, RFC 4226/6238). The crypto consumer\r\n/// (`spt-net` `pairing::totp`) wraps these bytes; this layer stores them.\r\npub const TOTP_SEED_LEN: usize = 20;\r\n\r\n/// Failures operating on the subnet store.\r\n#[derive(Debug, PartialEq, Eq)]\r\npub enum SubnetError {\r\n    /// `create_subnet` for a name (within the same user scope) that already exists.\r\n    Exists(String),\r\n    /// An operation named a subnet not in the store.\r\n    NotFound(String),\r\n    /// Reading/writing the backing file failed (message preserved).\r\n    Io(String),\r\n}\r\n\r\nimpl std::fmt::Display for SubnetError {\r\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\r\n        match self {\r\n            SubnetError::Exists(n) => write!(f, \"subnet already exists: {n}\"),\r\n            SubnetError::NotFound(n) => write!(f, \"subnet not found: {n}\"),\r\n            SubnetError::Io(e) => write!(f, \"subnet store io: {e}\"),\r\n        }\r\n    }\r\n}\r\n\r\nimpl std::error::Error for SubnetError {}\r\n\r\n/// One subnet the node belongs to: its human name, the durable TOTP seed (hex), the\r\n/// seed epoch, and (forward seam) the owning user.\r\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\r\npub struct SubnetRecord {\r\n    /// Human subnet label (R-PAIR-4) — what the user types when pairing.\r\n    pub name: String,\r\n    /// The 20-byte TOTP seed, lowercase hex. The subnet secret; never synced.\r\n    pub seed_hex: String,\r\n    /// Monotonic seed generation (ADR-0005 #10). Bumped on every\r\n    /// [`rotate_seed`](SubnetStore::rotate_seed); bound into the pairing transcript.\r\n    pub epoch: u64,\r\n    /// The **immediately-prior** generation's seed (hex), retained one-deep so a\r\n    /// rotator can verify an `N-1` seed-proof from a benign offliner and re-seed\r\n    /// it (the Mesh-D7 re-seed grace). `Some` only after at least one rotation;\r\n    /// the prior epoch is implicitly [`epoch`](Self::epoch)` - 1`. Cleared past\r\n    /// one generation (the grace is one-deep by construction — `≥2` stale must\r\n    /// re-pair). Never synced; same secrecy posture as [`seed_hex`](Self::seed_hex).\r\n    // [impl->REQ-MESH-4]\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    pub prev_seed_hex: Option<String>,\r\n    /// Owning user — the cross-user seam. `None` = the single implicit v1 user.\r\n    #[serde(skip_serializing_if = \"Option::is_none\")]\r\n    pub user: Option<String>,\r\n    /// Creation stamp (epoch-seconds string; opaque).\r\n    pub created: String,\r\n    /// The subnet's `hide_new_endpoints` policy (ADR-0006 §6), **captured at join\r\n    /// time** into this node's record. When ON, endpoints default to hidden\r\n    /// (= excluded: not advertised AND not routable) in this subnet unless a\r\n    /// per-`(endpoint, subnet)` override forces them visible\r\n    /// ([`VisibilityStore::hidden`](crate::visibility::VisibilityStore::hidden)).\r\n    /// Ships OFF (visible). Serde-defaulted so pre-D3e `subnet.json` files load.\r\n    // [impl->REQ-INST-12]\r\n    #[serde(default)]\r\n    pub hide_new_endpoints: bool,\r\n}\r\n\r\nimpl SubnetRecord {\r\n    /// Decode the seed to raw bytes for the crypto layer. `None` if the stored hex is\r\n    /// malformed or the wrong length (defensive — the store always writes valid hex).\r\n    pub fn seed_bytes(&self) -> Option<[u8; TOTP_SEED_LEN]> {\r\n        decode_hex(&self.seed_hex)\r\n    }\r\n\r\n    /// Decode the **prior**-generation seed to raw bytes (the one-deep re-seed\r\n    /// grace material), paired with its epoch (`epoch - 1`). `None` when there is\r\n    /// no prior generation (never rotated) or the hex is malformed.\r\n    // [impl->REQ-MESH-4]\r\n    pub fn prev_seed_bytes(&self) -> Option<([u8; TOTP_SEED_LEN], u64)> {\r\n        let prev = self.prev_seed_hex.as_deref()?;\r\n        let bytes = decode_hex(prev)?;\r\n        let prior_epoch = self.epoch.checked_sub(1)?;\r\n        Some((bytes, prior_epoch))\r\n    }\r\n}\r\n\r\n/// The whole `subnet.json` document: every subnet the node is a member of.\r\n#[derive(Debug, Clone, Default, Serialize, Deserialize)]\r\npub struct SubnetStore {\r\n    /// All subnets this node belongs to (multi-subnet — N seeds).\r\n    #[serde(default)]\r\n    pub subnets: Vec<SubnetRecord>,\r\n}\r\n\r\nimpl SubnetStore {\r\n    /// Load the node's subnet store from the canonical [`subnet_file`]. A missing file\r\n    /// is the empty store (an unpaired node) — never an error.\r\n    pub fn load() -> SubnetStore {\r\n        Self::load_from(&subnet_file())\r\n    }\r\n\r\n    /// Load from an explicit path (the testable core). Absent ⇒ empty; an unreadable\r\n    /// or corrupt file also degrades to empty rather than panicking (a corrupt secret\r\n    /// file should not brick the node — re-provision via pairing).\r\n    pub fn load_from(path: &Path) -> SubnetStore {\r\n        match std::fs::read_to_string(path) {\r\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\r\n            Err(_) => SubnetStore::default(),\r\n        }\r\n    }\r\n\r\n    /// Persist to the canonical [`subnet_file`], creating `identity/` if needed.\r\n    pub fn save(&self) -> Result<(), SubnetError> {\r\n        self.save_to(&subnet_file())\r\n    }\r\n\r\n    /// Persist to an explicit path (atomic; creates the parent dir). Atomic write so a\r\n    /// concurrent reader never sees a torn secret file (the [`atomic`](crate::atomic)\r\n    /// invariant).\r\n    pub fn save_to(&self, path: &Path) -> Result<(), SubnetError> {\r\n        if let Some(parent) = path.parent() {\r\n            std::fs::create_dir_all(parent).map_err(|e| SubnetError::Io(e.to_string()))?;\r\n        }\r\n        let json =\r\n            serde_json::to_string_pretty(self).map_err(|e| SubnetError::Io(e.to_string()))?;\r\n        atomic_write_string(path, &json).map_err(|e| SubnetError::Io(e.to_string()))\r\n    }\r\n\r\n    /// Find a subnet by name (within the implicit-user scope).\r\n    pub fn find(&self, name: &str) -> Option<&SubnetRecord> {\r\n        self.subnets.iter().find(|s| s.name == name)\r\n    }\r\n\r\n    /// Create a new subnet with a freshly minted seed at epoch 1 (the \"create-new\"\r\n    /// pairing path — this node becomes the sole seed-holder). Errors if the name\r\n    /// already exists. Returns the new record.\r\n    ///\r\n    /// This is **subnet naming on first pairing** (REQ-PAIR-4 / ADR-0006): the subnet is\r\n    /// named at creation (\"naming moves to link-start\"); the name then rides every\r\n    /// subsequent pairing ceremony (the joiner types it; the transcript binds it).\r\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION] [impl->REQ-PAIR-4]\r\n    pub fn create_subnet(&mut self, name: &str) -> Result<&SubnetRecord, SubnetError> {\r\n        if self.find(name).is_some() {\r\n            return Err(SubnetError::Exists(name.to_string()));\r\n        }\r\n        self.subnets.push(SubnetRecord {\r\n            name: name.to_string(),\r\n            seed_hex: encode_hex(&random_seed()),\r\n            epoch: 1,\r\n            user: None,\r\n            created: now_stamp(),\r\n            hide_new_endpoints: false,\r\n            prev_seed_hex: None,\r\n        });\r\n        Ok(self.subnets.last().expect(\"just pushed\"))\r\n    }\r\n\r\n    /// Add a subnet whose seed was learned by **joining** an existing subnet (the seed\r\n    /// and its current epoch arrive over the pairing channel from a seed-holder).\r\n    /// Errors if the name already exists.\r\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\r\n    pub fn add_joined(\r\n        &mut self,\r\n        name: &str,\r\n        seed: [u8; TOTP_SEED_LEN],\r\n        epoch: u64,\r\n    ) -> Result<&SubnetRecord, SubnetError> {\r\n        if self.find(name).is_some() {\r\n            return Err(SubnetError::Exists(name.to_string()));\r\n        }\r\n        self.subnets.push(SubnetRecord {\r\n            name: name.to_string(),\r\n            seed_hex: encode_hex(&seed),\r\n            epoch,\r\n            user: None,\r\n            created: now_stamp(),\r\n            hide_new_endpoints: false,\r\n            prev_seed_hex: None,\r\n        });\r\n        Ok(self.subnets.last().expect(\"just pushed\"))\r\n    }\r\n\r\n    /// Rotate a subnet's seed and bump its epoch (ADR-0005 #10 — the node-removal\r\n    /// response). The old seed can no longer compute a valid current code, and the\r\n    /// epoch bump means even a captured old transcript won't bind. The new seed must\r\n    /// then be redistributed to the *remaining* trusted nodes over the pairing\r\n    /// channel; callers pair node-removal (trust-store delete) **with** this rotation,\r\n    /// because a trust-delete alone is not revocation.\r\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\r\n    pub fn rotate_seed(&mut self, name: &str) -> Result<&SubnetRecord, SubnetError> {\r\n        let rec = self\r\n            .subnets\r\n            .iter_mut()\r\n            .find(|s| s.name == name)\r\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\r\n        // Retain the outgoing seed one-deep: it is the credential a benign\r\n        // offliner still holds, and the rotator must be able to verify that\r\n        // `N-1` proof to re-seed it across the rotation (Mesh-D7 grace).\r\n        // [impl->REQ-MESH-4]\r\n        rec.prev_seed_hex = Some(std::mem::replace(&mut rec.seed_hex, encode_hex(&random_seed())));\r\n        rec.epoch += 1;\r\n        Ok(rec)\r\n    }\r\n\r\n    /// Adopt a seed handed over by a rotator across the re-seed grace (Mesh-D7):\r\n    /// a benign offliner that proved its `N-1` membership receives the current\r\n    /// `{seed, epoch}` over the member control stream and adopts it here. The old\r\n    /// seed is retained one-deep (so a *further* rotation it also missed would\r\n    /// still find a usable prior generation) and the epoch jumps to `epoch`.\r\n    /// A no-op (returns `false`) when the incoming epoch is not strictly newer —\r\n    /// idempotent against a re-delivered push, and never a silent downgrade.\r\n    // [impl->REQ-MESH-4]\r\n    pub fn adopt_rotation(\r\n        &mut self,\r\n        name: &str,\r\n        seed: [u8; TOTP_SEED_LEN],\r\n        epoch: u64,\r\n    ) -> Result<bool, SubnetError> {\r\n        let rec = self\r\n            .subnets\r\n            .iter_mut()\r\n            .find(|s| s.name == name)\r\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\r\n        if epoch <= rec.epoch {\r\n            return Ok(false); // not newer — ignore (idempotent, no downgrade)\r\n        }\r\n        rec.prev_seed_hex = Some(std::mem::replace(&mut rec.seed_hex, encode_hex(&seed)));\r\n        rec.epoch = epoch;\r\n        Ok(true)\r\n    }\r\n\r\n    /// Set a subnet's `hide_new_endpoints` policy (ADR-0006 §6). The flag is\r\n    /// *captured at join time* in the sense that it lives on this node's join-created\r\n    /// record; flipping it later only changes the default for endpoints without an\r\n    /// explicit per-`(endpoint, subnet)` override.\r\n    // [impl->REQ-INST-12]\r\n    pub fn set_hide_new_endpoints(&mut self, name: &str, hide: bool) -> Result<(), SubnetError> {\r\n        let rec = self\r\n            .subnets\r\n            .iter_mut()\r\n            .find(|s| s.name == name)\r\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\r\n        rec.hide_new_endpoints = hide;\r\n        Ok(())\r\n    }\r\n\r\n    /// Remove a subnet entirely (the node leaves it). Returns whether a record was\r\n    /// removed. (Distinct from [`rotate_seed`]: leaving a subnet drops our own\r\n    /// membership; rotating evicts *another* node from a subnet we keep.)\r\n    pub fn remove(&mut self, name: &str) -> bool {\r\n        let before = self.subnets.len();\r\n        self.subnets.retain(|s| s.name != name);\r\n        self.subnets.len() != before\r\n    }\r\n}\r\n\r\n/// Mint 20 cryptographically-random seed bytes. Reuses spt-proto's Ed25519 seed\r\n/// generator (OsRng) as the CSPRNG — the same no-extra-`rand`-dependency trick used\r\n/// elsewhere — taking the first [`TOTP_SEED_LEN`] of its 32 random bytes.\r\nfn random_seed() -> [u8; TOTP_SEED_LEN] {\r\n    let mut out = [0u8; TOTP_SEED_LEN];\r\n    out.copy_from_slice(&Identity::generate().seed()[..TOTP_SEED_LEN]);\r\n    out\r\n}\r\n\r\n/// Lowercase-hex encode bytes (dependency-free; small fixed inputs).\r\nfn encode_hex(bytes: &[u8]) -> String {\r","truncated":true,"truncatedBy":"lines","totalLines":542,"totalBytes":13998,"outputLines":300,"outputBytes":13998,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"//! `subnet.json` — multi-subnet membership + TOTP seed material (ADR-0005/0006, D2c).\r\n//!\r\n//! A node belongs to *N* subnets (each cryptographically its own TOTP seed + trust\r\n//! context — `CONTEXT.md` \"subnet membership\"), so this one durable file under\r\n//! [`identity/`](crate::perch::identity_dir) holds a **collection** of\r\n//! [`SubnetRecord`]s, not a single subnet. Node-local, durable, **never git-tracked\r\n//! and never synced over the context repo** — it is subnet-joining secret material\r\n//! (it replicates only via the pairing/P2P channel, `docs/STORAGE.md`).\r\n//!\r\n//! ## Seed epoch + rotation (KNOWN-HAZARDS / ADR-0005 #10)\r\n//!\r\n//! Each record carries a monotonic [`epoch`](SubnetRecord::epoch). Stage-A red-team\r\n//! **#10**: *trust-store delete is not revocation* — the seed is replicated to every\r\n//! trusted node, so a compromised node can re-pair as a \"new\" node after a mere\r\n//! trust-store delete. The fix is [`rotate_seed`](SubnetStore::rotate_seed): removing\r\n//! a node **rotates the subnet seed and bumps the epoch**, so the old seed computes\r\n//! the wrong TOTP code and the [transcript](../../../spt_net/net/pairing/transcript)\r\n//! (which binds the epoch) rejects an old-epoch rejoin. The epoch is the\r\n//! responder-authoritative value the pairing ceremony binds.\r\n//!\r\n//! ## `(subnet, user)`-ready shape (cross-user seam)\r\n//!\r\n//! The optional [`user`](SubnetRecord::user) field is the forward seam for the\r\n//! cross-user model (`CONTEXT.md` \"Cross-user seam\"): v1 has one implicit user\r\n//! (`None`); when cross-user lands, the seed key generalizes to `(subnet, user)` with\r\n//! no re-architecture — force-unlinking a whole user's node-group becomes dropping\r\n//! that user's records.\r\n//\r\n// [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\r\n\r\nuse serde::{Deserialize, Serialize};\r\nuse spt_proto::identity::Identity;\r\nuse std::path::Path;\r\n\r\nuse crate::atomic::atomic_write_string;\r\nuse crate::perch::subnet_file;\r\n\r\n/// TOTP seed length in bytes (160-bit, RFC 4226/6238). The crypto consumer\r\n/// (`spt-net` `pairing::totp`) wraps these bytes; this layer stores them.\r\npub const TOTP_SEED_LEN: usize = 20;\r\n\r\n/// Failures operating on the subnet store.\r\n#[derive(Debug, PartialEq, Eq)]\r\npub enum SubnetError {\r\n    /// `create_subnet` for a name (within the same user scope) that already exists.\r\n    Exists(String),\r\n    /// An operation named a subnet not in the store.\r\n    NotFound(String),\r\n    /// Reading/writing the backing file failed (message preserved).\r\n    Io(String),\r\n}\r\n\r\nimpl std::fmt::Display for SubnetError {\r\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\r\n        match self {\r\n            SubnetError::Exists(n) => write!(f, \"subnet already exists: {n}\"),\r\n            SubnetError::NotFound(n) => write!(f, \"subnet not found: {n}\"),\r\n            SubnetError::Io(e) => write!(f, \"subnet store io: {e}\"),\r\n        }\r\n    }\r\n}\r\n\r\nimpl std::error::Error for SubnetError {}\r\n\r\n/// One subnet the node belongs to: its human name, the durable TOTP seed (hex), the\r\n/// seed epoch, and (forward seam) the owning user.\r\n#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\r\npub struct SubnetRecord {\r\n    /// Human subnet label (R-PAIR-4) — what the user types when pairing.\r\n    pub name: String,\r\n    /// The 20-byte TOTP seed, lowercase hex. The subnet secret; never synced.\r\n    pub seed_hex: String,\r\n    /// Monotonic seed generation (ADR-0005 #10). Bumped on every\r\n    /// [`rotate_seed`](SubnetStore::rotate_seed); bound into the pairing transcript.\r\n    pub epoch: u64,\r\n    /// The **immediately-prior** generation's seed (hex), retained one-deep so a\r\n    /// rotator can verify an `N-1` seed-proof from a benign offliner and re-seed\r\n    /// it (the Mesh-D7 re-seed grace). `Some` only after at least one rotation;\r\n    /// the prior epoch is implicitly [`epoch`](Self::epoch)` - 1`. Cleared past\r\n    /// one generation (the grace is one-deep by construction — `≥2` stale must\r\n    /// re-pair). Never synced; same secrecy posture as [`seed_hex`](Self::seed_hex).\r\n    // [impl->REQ-MESH-4]\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    pub prev_seed_hex: Option<String>,\r\n    /// Owning user — the cross-user seam. `None` = the single implicit v1 user.\r\n    #[serde(skip_serializing_if = \"Option::is_none\")]\r\n    pub user: Option<String>,\r\n    /// Creation stamp (epoch-seconds string; opaque).\r\n    pub created: String,\r\n    /// The subnet's `hide_new_endpoints` policy (ADR-0006 §6), **captured at join\r\n    /// time** into this node's record. When ON, endpoints default to hidden\r\n    /// (= excluded: not advertised AND not routable) in this subnet unless a\r\n    /// per-`(endpoint, subnet)` override forces them visible\r\n    /// ([`VisibilityStore::hidden`](crate::visibility::VisibilityStore::hidden)).\r\n    /// Ships OFF (visible). Serde-defaulted so pre-D3e `subnet.json` files load.\r\n    // [impl->REQ-INST-12]\r\n    #[serde(default)]\r\n    pub hide_new_endpoints: bool,\r\n}\r\n\r\nimpl SubnetRecord {\r\n    /// Decode the seed to raw bytes for the crypto layer. `None` if the stored hex is\r\n    /// malformed or the wrong length (defensive — the store always writes valid hex).\r\n    pub fn seed_bytes(&self) -> Option<[u8; TOTP_SEED_LEN]> {\r\n        decode_hex(&self.seed_hex)\r\n    }\r\n\r\n    /// Decode the **prior**-generation seed to raw bytes (the one-deep re-seed\r\n    /// grace material), paired with its epoch (`epoch - 1`). `None` when there is\r\n    /// no prior generation (never rotated) or the hex is malformed.\r\n    // [impl->REQ-MESH-4]\r\n    pub fn prev_seed_bytes(&self) -> Option<([u8; TOTP_SEED_LEN], u64)> {\r\n        let prev = self.prev_seed_hex.as_deref()?;\r\n        let bytes = decode_hex(prev)?;\r\n        let prior_epoch = self.epoch.checked_sub(1)?;\r\n        Some((bytes, prior_epoch))\r\n    }\r\n}\r\n\r\n/// The whole `subnet.json` document: every subnet the node is a member of.\r\n#[derive(Debug, Clone, Default, Serialize, Deserialize)]\r\npub struct SubnetStore {\r\n    /// All subnets this node belongs to (multi-subnet — N seeds).\r\n    #[serde(default)]\r\n    pub subnets: Vec<SubnetRecord>,\r\n}\r\n\r\nimpl SubnetStore {\r\n    /// Load the node's subnet store from the canonical [`subnet_file`]. A missing file\r\n    /// is the empty store (an unpaired node) — never an error.\r\n    pub fn load() -> SubnetStore {\r\n        Self::load_from(&subnet_file())\r\n    }\r\n\r\n    /// Load from an explicit path (the testable core). Absent ⇒ empty; an unreadable\r\n    /// or corrupt file also degrades to empty rather than panicking (a corrupt secret\r\n    /// file should not brick the node — re-provision via pairing).\r\n    pub fn load_from(path: &Path) -> SubnetStore {\r\n        match std::fs::read_to_string(path) {\r\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\r\n            Err(_) => SubnetStore::default(),\r\n        }\r\n    }\r\n\r\n    /// Persist to the canonical [`subnet_file`], creating `identity/` if needed.\r\n    pub fn save(&self) -> Result<(), SubnetError> {\r\n        self.save_to(&subnet_file())\r\n    }\r\n\r\n    /// Persist to an explicit path (atomic; creates the parent dir). Atomic write so a\r\n    /// concurrent reader never sees a torn secret file (the [`atomic`](crate::atomic)\r\n    /// invariant).\r\n    pub fn save_to(&self, path: &Path) -> Result<(), SubnetError> {\r\n        if let Some(parent) = path.parent() {\r\n            std::fs::create_dir_all(parent).map_err(|e| SubnetError::Io(e.to_string()))?;\r\n        }\r\n        let json =\r\n            serde_json::to_string_pretty(self).map_err(|e| SubnetError::Io(e.to_string()))?;\r\n        atomic_write_string(path, &json).map_err(|e| SubnetError::Io(e.to_string()))\r\n    }\r\n\r\n    /// Find a subnet by name (within the implicit-user scope).\r\n    pub fn find(&self, name: &str) -> Option<&SubnetRecord> {\r\n        self.subnets.iter().find(|s| s.name == name)\r\n    }\r\n\r\n    /// Create a new subnet with a freshly minted seed at epoch 1 (the \"create-new\"\r\n    /// pairing path — this node becomes the sole seed-holder). Errors if the name\r\n    /// already exists. Returns the new record.\r\n    ///\r\n    /// This is **subnet naming on first pairing** (REQ-PAIR-4 / ADR-0006): the subnet is\r\n    /// named at creation (\"naming moves to link-start\"); the name then rides every\r\n    /// subsequent pairing ceremony (the joiner types it; the transcript binds it).\r\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION] [impl->REQ-PAIR-4]\r\n    pub fn create_subnet(&mut self, name: &str) -> Result<&SubnetRecord, SubnetError> {\r\n        if self.find(name).is_some() {\r\n            return Err(SubnetError::Exists(name.to_string()));\r\n        }\r\n        self.subnets.push(SubnetRecord {\r\n            name: name.to_string(),\r\n            seed_hex: encode_hex(&random_seed()),\r\n            epoch: 1,\r\n            user: None,\r\n            created: now_stamp(),\r\n            hide_new_endpoints: false,\r\n            prev_seed_hex: None,\r\n        });\r\n        Ok(self.subnets.last().expect(\"just pushed\"))\r\n    }\r\n\r\n    /// Add a subnet whose seed was learned by **joining** an existing subnet (the seed\r\n    /// and its current epoch arrive over the pairing channel from a seed-holder).\r\n    /// Errors if the name already exists.\r\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\r\n    pub fn add_joined(\r\n        &mut self,\r\n        name: &str,\r\n        seed: [u8; TOTP_SEED_LEN],\r\n        epoch: u64,\r\n    ) -> Result<&SubnetRecord, SubnetError> {\r\n        if self.find(name).is_some() {\r\n            return Err(SubnetError::Exists(name.to_string()));\r\n        }\r\n        self.subnets.push(SubnetRecord {\r\n            name: name.to_string(),\r\n            seed_hex: encode_hex(&seed),\r\n            epoch,\r\n            user: None,\r\n            created: now_stamp(),\r\n            hide_new_endpoints: false,\r\n            prev_seed_hex: None,\r\n        });\r\n        Ok(self.subnets.last().expect(\"just pushed\"))\r\n    }\r\n\r\n    /// Rotate a subnet's seed and bump its epoch (ADR-0005 #10 — the node-removal\r\n    /// response). The old seed can no longer compute a valid current code, and the\r\n    /// epoch bump means even a captured old transcript won't bind. The new seed must\r\n    /// then be redistributed to the *remaining* trusted nodes over the pairing\r\n    /// channel; callers pair node-removal (trust-store delete) **with** this rotation,\r\n    /// because a trust-delete alone is not revocation.\r\n    // [impl->REQ-HAZARD-PAIR-SEED-ROTATION]\r\n    pub fn rotate_seed(&mut self, name: &str) -> Result<&SubnetRecord, SubnetError> {\r\n        let rec = self\r\n            .subnets\r\n            .iter_mut()\r\n            .find(|s| s.name == name)\r\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\r\n        // Retain the outgoing seed one-deep: it is the credential a benign\r\n        // offliner still holds, and the rotator must be able to verify that\r\n        // `N-1` proof to re-seed it across the rotation (Mesh-D7 grace).\r\n        // [impl->REQ-MESH-4]\r\n        rec.prev_seed_hex = Some(std::mem::replace(&mut rec.seed_hex, encode_hex(&random_seed())));\r\n        rec.epoch += 1;\r\n        Ok(rec)\r\n    }\r\n\r\n    /// Adopt a seed handed over by a rotator across the re-seed grace (Mesh-D7):\r\n    /// a benign offliner that proved its `N-1` membership receives the current\r\n    /// `{seed, epoch}` over the member control stream and adopts it here. The old\r\n    /// seed is retained one-deep (so a *further* rotation it also missed would\r\n    /// still find a usable prior generation) and the epoch jumps to `epoch`.\r\n    /// A no-op (returns `false`) when the incoming epoch is not strictly newer —\r\n    /// idempotent against a re-delivered push, and never a silent downgrade.\r\n    // [impl->REQ-MESH-4]\r\n    pub fn adopt_rotation(\r\n        &mut self,\r\n        name: &str,\r\n        seed: [u8; TOTP_SEED_LEN],\r\n        epoch: u64,\r\n    ) -> Result<bool, SubnetError> {\r\n        let rec = self\r\n            .subnets\r\n            .iter_mut()\r\n            .find(|s| s.name == name)\r\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\r\n        if epoch <= rec.epoch {\r\n            return Ok(false); // not newer — ignore (idempotent, no downgrade)\r\n        }\r\n        rec.prev_seed_hex = Some(std::mem::replace(&mut rec.seed_hex, encode_hex(&seed)));\r\n        rec.epoch = epoch;\r\n        Ok(true)\r\n    }\r\n\r\n    /// Set a subnet's `hide_new_endpoints` policy (ADR-0006 §6). The flag is\r\n    /// *captured at join time* in the sense that it lives on this node's join-created\r\n    /// record; flipping it later only changes the default for endpoints without an\r\n    /// explicit per-`(endpoint, subnet)` override.\r\n    // [impl->REQ-INST-12]\r\n    pub fn set_hide_new_endpoints(&mut self, name: &str, hide: bool) -> Result<(), SubnetError> {\r\n        let rec = self\r\n            .subnets\r\n            .iter_mut()\r\n            .find(|s| s.name == name)\r\n            .ok_or_else(|| SubnetError::NotFound(name.to_string()))?;\r\n        rec.hide_new_endpoints = hide;\r\n        Ok(())\r\n    }\r\n\r\n    /// Remove a subnet entirely (the node leaves it). Returns whether a record was\r\n    /// removed. (Distinct from [`rotate_seed`]: leaving a subnet drops our own\r\n    /// membership; rotating evicts *another* node from a subnet we keep.)\r\n    pub fn remove(&mut self, name: &str) -> bool {\r\n        let before = self.subnets.len();\r\n        self.subnets.retain(|s| s.name != name);\r\n        self.subnets.len() != before\r\n    }\r\n}\r\n\r\n/// Mint 20 cryptographically-random seed bytes. Reuses spt-proto's Ed25519 seed\r\n/// generator (OsRng) as the CSPRNG — the same no-extra-`rand`-dependency trick used\r\n/// elsewhere — taking the first [`TOTP_SEED_LEN`] of its 32 random bytes.\r\nfn random_seed() -> [u8; TOTP_SEED_LEN] {\r\n    let mut out = [0u8; TOTP_SEED_LEN];\r\n    out.copy_from_slice(&Identity::generate().seed()[..TOTP_SEED_LEN]);\r\n    out\r\n}\r\n\r\n/// Lowercase-hex encode bytes (dependency-free; small fixed inputs).\r\nfn encode_hex(bytes: &[u8]) -> String {\r\n…\n}","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300,null,302]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-store\\src\\subnet.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":542,"totalBytes":13998,"outputLines":300,"outputBytes":13998,"shownRange":{"start":1,"end":300},"nextOffset":301}}},"isError":false,"timestamp":1784069042454}}
{"type":"message","id":"543c694a","parentId":"5082d5e8","timestamp":"2026-07-14T22:44:02.465Z","message":{"role":"toolResult","toolCallId":"call_muemKrUdNCHJkROPLf3G3yc5|fc_0b084cf0b521ab15016a56bbb24a1c81908d2df02434aec925","toolName":"read","content":[{"type":"text","text":"//! Outbound peer pump (D9-1-2) — the production trigger loops every D5–D8\n//! slice deferred (\"rides D9 with the daemon lifecycle\").\n//!\n//! One daemon-hosted loop — *the* peer pump — is a pure scheduler + per-peer\n//! fan-out over four [`PumpWorker`] legs. The pump owns *when* (each worker's\n//! cadence + its wake markers, fed to the pure [`due`] kernel) and *toward\n//! whom* (every roster member of every non-detached member subnet); each worker\n//! owns *what* (its node-local `pre_round` and its per-peer `peer_step`), a thin\n//! call over an already-shipped, idempotent driver. The four legs, in fan-out\n//! order, each in its own module:\n//!\n//! - **registry push** ([`registry`], [`RegistryHost::advertise_local`] → one\n//!   feed stream per peer): the node re-advertises its own rows; peers\n//!   reconverge within one cadence (replay-is-recovery, the D4d/D8 push\n//!   posture). Mesh-D6 widened the push target from the directly-paired set to\n//!   ALL roster members — a wider DIRECT fan-out, never a relay (REQ-MESH-3).\n//!   Own rows only — a relayed third-party row would carry an origin the\n//!   receiver cannot gate honestly (KNOWN-HAZARDS 7.5/4.10), so every row still\n//!   arrives from its author over a handshake.\n//! - **notif push** ([`notif`], [`crate::notifsync::emit_notif_feed`]): the\n//!   full semilattice spool per subnet; the receiver's join dedups.\n//! - **sync pull** ([`sync`], [`crate::sync::request_sync`]): anti-entropy for\n//!   the minds. Want-refs are the union of [`crate::sync::select_refs`]\n//!   (locally tracked branches the policy allows toward the peer) and\n//!   **registry-derived** `a-<id>` refs (endpoints known in the shared\n//!   subnets — how a fresh instance bootstraps a mind it has never held), both\n//!   gated by the same [`SyncPolicy::allows`] the responder enforces (symmetric\n//!   scoping).\n//! - **update pull** ([`update`], [`crate::propagate::request_update`]): the\n//!   peer-propagated self-update (REQ-UPD-1), consent-gated by default\n//!   (REQ-UPD-4), with typed convergence outcomes (REQ-UPD-6).\n//!\n//! The scheduler kernels are pure and unit-tested with scripted workers (the\n//! choreography table below): [`compute_due`] (prime-all / wake-forces-one),\n//! [`pre_rounds`] (once per due round, before any peer_step), [`run_due`]\n//! (abort-on-first-fail), [`mark_ran`] (the §V4 stagger), [`fan_targets`]\n//! (detached-skip). LLM-bearing work is never a [`PumpWorker`] (KNOWN-HAZARDS\n//! 7.4) — see the trait's contract.\n//!\n//! Conflicts a pull surfaces are reported through [`PumpHooks::on_pull`] —\n//! the default production hook logs them loud. The bounded Psyche reconcile\n//! turn itself still runs at the activation paths (ADR-0013): the daemon\n//! does not yet host per-agent manifest runtimes (the 7.4 fan-out), so an\n//! in-pump turn has no runtime to ride; conflict artifacts persist safely\n//! meanwhile (REQ-HAZARD-CONFLICT-BOTH-PRESERVED).\n//!\n//! ## Wire discipline (inherited from the test suites, now production)\n//!\n//! Every pump write is fire-and-forget (`op_id: None`) — a journaled\n//! `net_stream_send` blocks on its ack and DISCARDS interleaved events\n//! (gotcha #1). Stream opens for push feeds carry no op either: the feeds\n//! are idempotent by construction. The sync pull's `open_op` IS durable\n//! (exactly-once open identity), minted from a dedicated [`EpochSource`]\n//! file so a daemon restart can never reuse one.\n//!\n//! Per-leg wire-discipline evidence lives with each worker now: registry push\n//! ([`registry`], REQ-INST-7), notif push ([`notif`], REQ-NOTIF-1), sync pull\n//! ([`sync`], REQ-INST-5).\n\nuse std::collections::{HashMap, HashSet};\nuse std::io;\nuse std::path::PathBuf;\nuse std::sync::atomic::{AtomicBool, Ordering};\nuse std::sync::Arc;\nuse std::thread;\nuse std::time::{Duration, Instant};\n\nuse spt_net::net::endpoint::addr_for_node_hex;\nuse spt_store::epoch::EpochSource;\nuse spt_store::peeraddrs::PeerAddrStore;\nuse spt_store::perch;\nuse spt_store::subnet::SubnetStore;\nuse spt_store::visibility::VisibilityStore;\n\nuse crate::brain::{Brain, BrokerEvent, PEER_REPLY_READ_BUDGET};\nuse crate::config::DaemonConfig;\nuse crate::effect::{Minter, MintedOp};\nuse crate::msg::{\n    NetPresenceEvent, PRESENCE_CONNECTED, PRESENCE_DIAL_FAILED, PRESENCE_DISCONNECTED,\n};\nuse crate::registryhost::RegistryHost;\nuse crate::sync::{SyncPolicy, SyncPullReport};\n\nmod notif;\nmod registry;\nmod sync;\nmod update;\nuse notif::NotifWorker;\nuse registry::RegistryWorker;\nuse sync::SyncWorker;\nuse update::UpdateWorker;\n\n/// The pump's tick granularity — each cadence fires when its period elapsed.\nconst TICK: Duration = Duration::from_millis(200);\n\n/// Heartbeat write throttle (M8 decision 23, REQ-DAEMON-5): the stall\n/// warning reads 3-cadence staleness, so a few seconds of heartbeat\n/// granularity is invisible to it — and 5 writes/sec of disk churn is not.\nconst HEARTBEAT_PERIOD: Duration = Duration::from_secs(5);\n\n/// Per-call deadline budget for the pump's brain-IPC reads (REQ-HAZARD-PUMP-\n/// IPC-DEADLINE). Far above any legitimate stream-open / sync round-trip, below\n/// the 60s QUIC idle timeout (we fire first; recovery is idempotent either\n/// way). A read that exceeds this is treated as a poisoned client and\n/// escalated to a supervised restart, NEVER a per-peer retry.\nconst PUMP_PEER_IO_TIMEOUT: Duration = Duration::from_secs(30);\n\n/// Supervisor backoff floor: the first restart after a pump death.\nconst SUPERVISE_BACKOFF_BASE: Duration = Duration::from_secs(5);\n\n/// Supervisor backoff cap (M8 decision 23): a persistently-crashing pump\n/// retries at most every 5 minutes — visible, bounded, never silent.\nconst SUPERVISE_BACKOFF_CAP: Duration = Duration::from_secs(300);\n\n/// A run that survived this long before dying counts as healthy — the next\n/// backoff resets to the floor instead of doubling (a once-a-day panic must\n/// not ratchet the pump toward permanent 5-minute outages).\nconst SUPERVISE_HEALTHY_RUN: Duration = Duration::from_secs(60);\n\n/// Per-peer dial-backoff floor (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G5): the\n/// first failed dial to a peer waits this long before the pump re-dials THAT\n/// peer. Scoped to the peer — a dead peer backs off while live peers stay hot.\nconst PEER_BACKOFF_BASE: Duration = Duration::from_secs(5);\n\n/// Per-peer dial-backoff cap (G5): a persistently-dead peer is re-dialed at most\n/// every 5 minutes (same bound as the supervisor) — bounded, never a hot redial\n/// loop, never silent. Reset to the floor on any successful connect.\nconst PEER_BACKOFF_CAP: Duration = Duration::from_secs(300);\n\n/// Round-drain margin over W1's per-dial reply-read budget (G3, Q1): because the\n/// dials are CONCURRENT, every outcome lands within ~one W1 bound, so the round\n/// closes shortly after it. Derived symbolically from\n/// [`PEER_REPLY_READ_BUDGET`] (not a hardcoded 12s) so it tracks any W1 retune.\nconst ROUND_DRAIN_MARGIN: Duration = Duration::from_secs(2);\n\n/// Per-peer dial schedule (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G5): a peer is\n/// dial-eligible when `now >= next_due`. A `DIAL_FAILED` (or a mid-round\n/// `peer_step` failure — Q3) doubles `backoff` (capped [`PEER_BACKOFF_CAP`]) and\n/// pushes `next_due` out; a successful connect drops the entry (reset). Kept in a\n/// `HashMap<peer_hex, PeerSched>` on the pump loop — RAM-only, re-primed on a\n/// supervised restart like `WorkerLasts`.\n#[derive(Clone, Copy, Debug)]\nstruct PeerSched {\n    next_due: Instant,\n    backoff: Duration,\n}\n\n/// The next per-peer backoff after a failed dial (pure, unit-tested): the first\n/// failure waits [`PEER_BACKOFF_BASE`]; each subsequent failure doubles, capped\n/// at [`PEER_BACKOFF_CAP`]. `next_due = now + backoff`.\n// [impl->REQ-PUMP-PEER-ISOLATION]\nfn next_peer_backoff(prev: Option<PeerSched>, now: Instant) -> PeerSched {\n    let backoff = match prev {\n        None => PEER_BACKOFF_BASE,\n        Some(p) => p.backoff.saturating_mul(2).min(PEER_BACKOFF_CAP),\n    };\n    PeerSched {\n        next_due: now + backoff,\n        backoff,\n    }\n}\n\n/// Whether a peer may be dialed this round (pure): a peer with no schedule entry\n/// (never failed, or just reset by a success) is always eligible; one in backoff\n/// is eligible only once `next_due` has passed.\n// [impl->REQ-PUMP-PEER-ISOLATION]\nfn peer_eligible(sched: &HashMap<String, PeerSched>, peer_hex: &str, now: Instant) -> bool {\n    sched.get(peer_hex).is_none_or(|s| now >= s.next_due)\n}\n\n/// The outcome of ONE events-carrier drain read (PUMP-TRUTH W2). Pulled out of the\n/// round loop so the load-bearing dead-carrier classification is a UNIT fact.\nenum DrainStep {\n    /// A presence event to apply to per-peer state.\n    Apply(NetPresenceEvent),\n    /// A non-presence frame on the event carrier — ignore, keep draining.\n    Skip,\n    /// A quiet read (`TimedOut`): no more outcomes available now → close the round.\n    RoundDone,\n    /// A dead CARRIER (any non-`TimedOut` read error — the broker stopped answering\n    /// the stream: reader-thread `UnexpectedEof`/`BrokenPipe` on a closed conn).\n    /// The re-pointed REQ-HAZARD-PUMP-IPC-DEADLINE: bubble to a supervised restart.\n    Restart(io::Error),\n}\n\n/// Classify one events-carrier drain read (PUMP-TRUTH W2, the re-pointed\n/// REQ-HAZARD-PUMP-IPC-DEADLINE). This is THE guard on the decouple: a dead PEER\n/// never reaches here (its failure is an ordinary `PRESENCE_DIAL_FAILED` event or\n/// a reclassified per-peer drop), but a dead BROKER — the event carrier itself\n/// going silent — MUST still bubble to a supervised restart. `TimedOut` is the\n/// benign \"no outcome available this instant\" (round closes on its deadline); any\n/// OTHER read error is the carrier dying and MUST NOT be swallowed as quiet.\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\n// [impl->REQ-PUMP-PEER-ISOLATION]\nfn classify_drain_read(read: io::Result<BrokerEvent>) -> DrainStep {\n    match read {\n        Ok(BrokerEvent::NetPresence(ev)) => DrainStep::Apply(ev),\n        Ok(_) => DrainStep::Skip,\n        Err(e) if e.kind() == io::ErrorKind::TimedOut => DrainStep::RoundDone,\n        Err(e) => DrainStep::Restart(e),\n    }\n}\n\n/// Resolve a trusted peer's stable name (lowercase-hex pubkey) to a dialable\n/// address (the serde JSON `net-dial` carries). Production resolution lets\n/// discovery do the work ([`production_resolver`]); hermetic tests inject a\n/// concrete address map (loopback endpoints run no discovery).\npub type PeerResolver = Box<dyn Fn(&str) -> Option<serde_json::Value> + Send>;\n\n/// The production resolver: an id-only iroh address — mDNS on the LAN, n0\n/// DNS on the WAN (`addr_for_node_hex`).\npub fn production_resolver() -> PeerResolver {\n    Box::new(|hex| addr_for_node_hex(hex).and_then(|a| serde_json::to_value(a).ok()))\n}\n\n/// Where this node's pump-side stores live. Production = the canonical\n/// SPT_HOME layout; the loopback E2E gives its in-process \"node\" distinct\n/// roots so two nodes can share one test process.\npub struct PumpPaths {\n    /// The perch tree (registry advertisement scan).\n    pub owlery: PathBuf,\n    /// The context store root ([`ContextStore::open_or_init_in`]).\n    pub ctx_root: PathBuf,\n    /// The notif spool DB ([`NotifStore::open_at`]).\n    pub notif_db: PathBuf,\n    /// Transient pull scratch.\n    pub scratch: PathBuf,\n    /// `subnet.json` ([`SubnetStore::load_from`]).\n    pub subnets: PathBuf,\n    /// `visibility.json` ([`VisibilityStore::load_from`]).\n    pub vis: PathBuf,\n    /// The pump's durable open-op counter (its own file — colliding with the\n    /// registry's advertisement epochs would break neither, but a shared\n    /// in-memory cursor pair over one file double-mints; separate files keep\n    /// each `EpochSource` the sole writer of its counter).\n    pub ops: PathBuf,\n    /// The staged-release cache dir ([`ReleaseCache::open`]).\n    pub releases: PathBuf,\n    /// `release-keys.json` ([`VerifyPolicy::load_from`]).\n    pub release_keys: PathBuf,\n    /// The wake-edge freshness-pull marker (D9-2, REQ-INST-3): a\n    /// dormant→active transition drops it; the pump consumes it and forces a\n    /// sync round NOW instead of waiting out `cadence.sync`\n    /// ([`crate::resting::PULL_MARKER_FILE`]).\n    pub pull_marker: PathBuf,\n    /// The event-driven advertisement marker (M8 decision 15, REQ-CONV-2):\n    /// an endpoint online/offline transition drops it; the pump consumes it\n    /// and forces a registry round NOW instead of waiting out\n    /// `cadence.registry` ([`crate::registryhost::ADVERTISE_MARKER_FILE`]).\n    pub advertise_marker: PathBuf,\n    /// `peer-addrs.json` — last-known peer addresses (M8 decisions 14/20,\n    /// REQ-CONV-1): consulted before id-only discovery, written back after\n    /// every successful dial ([`spt_store::peeraddrs::PeerAddrStore`]).\n    pub peer_addrs: PathBuf,\n    /// The pump's last-tick heartbeat (M8 decision 23, REQ-DAEMON-5):\n    /// epoch-ms written while the loop is alive, rendered by\n    /// `spt daemon status` / the `subnet status` stall warning\n    /// ([`crate::endpoint::pump_heartbeat_path`]).\n    pub heartbeat: PathBuf,\n    /// `rotation-pending.json` (Mesh-D7, REQ-MESH-4): the timeboxed seed-rotation\n    /// schedule a `subnet revoke` writes; the pump fires due entries each\n    /// registry tick ([`spt_store::rotation::RotationPending`]).\n    pub rotations: PathBuf,\n}\n\nimpl PumpPaths {\n    /// The canonical SPT_HOME layout.\n    pub fn production() -> PumpPaths {\n        let home = perch::spt_home();\n        let identity = perch::identity_dir();\n        PumpPaths {\n            owlery: perch::owlery_dir(),\n            ctx_root: home.join(\"context\"),\n            notif_db: identity.join(\"notifs.db\"),\n            scratch: home.join(\"scratch\").join(\"pump\"),\n            subnets: identity.join(\"subnet.json\"),\n            vis: identity.join(\"visibility.json\"),\n            ops: identity.join(\"pump-ops.json\"),\n            releases: home.join(\"releases\"),\n            release_keys: identity.join(\"release-keys.json\"),\n            pull_marker: identity.join(crate::resting::PULL_MARKER_FILE),\n            advertise_marker: identity.join(crate::registryhost::ADVERTISE_MARKER_FILE),\n            peer_addrs: identity.join(\"peer-addrs.json\"),\n            heartbeat: crate::endpoint::pump_heartbeat_path(),\n            rotations: identity.join(\"rotation-pending.json\"),\n        }\n    }\n}\n\n/// Pump cadences (config-driven in production: [`DaemonConfig`]).\n#[derive(Debug, Clone, Copy)]\npub struct PumpCadence {\n    pub registry: Duration,\n    pub notif: Duration,\n    pub sync: Duration,\n    pub update: Duration,\n    /// Silent-peer registry eviction window (KNOWN-HAZARDS 4.10): swept each\n    /// registry tick, before re-advertisement.\n    pub registry_evict_after: Duration,\n}\n\n[Showing lines 1-300 of 1717. Use :301 to continue]"}],"details":{"truncation":{"content":"//! Outbound peer pump (D9-1-2) — the production trigger loops every D5–D8\r\n//! slice deferred (\"rides D9 with the daemon lifecycle\").\r\n//!\r\n//! One daemon-hosted loop — *the* peer pump — is a pure scheduler + per-peer\r\n//! fan-out over four [`PumpWorker`] legs. The pump owns *when* (each worker's\r\n//! cadence + its wake markers, fed to the pure [`due`] kernel) and *toward\r\n//! whom* (every roster member of every non-detached member subnet); each worker\r\n//! owns *what* (its node-local `pre_round` and its per-peer `peer_step`), a thin\r\n//! call over an already-shipped, idempotent driver. The four legs, in fan-out\r\n//! order, each in its own module:\r\n//!\r\n//! - **registry push** ([`registry`], [`RegistryHost::advertise_local`] → one\r\n//!   feed stream per peer): the node re-advertises its own rows; peers\r\n//!   reconverge within one cadence (replay-is-recovery, the D4d/D8 push\r\n//!   posture). Mesh-D6 widened the push target from the directly-paired set to\r\n//!   ALL roster members — a wider DIRECT fan-out, never a relay (REQ-MESH-3).\r\n//!   Own rows only — a relayed third-party row would carry an origin the\r\n//!   receiver cannot gate honestly (KNOWN-HAZARDS 7.5/4.10), so every row still\r\n//!   arrives from its author over a handshake.\r\n//! - **notif push** ([`notif`], [`crate::notifsync::emit_notif_feed`]): the\r\n//!   full semilattice spool per subnet; the receiver's join dedups.\r\n//! - **sync pull** ([`sync`], [`crate::sync::request_sync`]): anti-entropy for\r\n//!   the minds. Want-refs are the union of [`crate::sync::select_refs`]\r\n//!   (locally tracked branches the policy allows toward the peer) and\r\n//!   **registry-derived** `a-<id>` refs (endpoints known in the shared\r\n//!   subnets — how a fresh instance bootstraps a mind it has never held), both\r\n//!   gated by the same [`SyncPolicy::allows`] the responder enforces (symmetric\r\n//!   scoping).\r\n//! - **update pull** ([`update`], [`crate::propagate::request_update`]): the\r\n//!   peer-propagated self-update (REQ-UPD-1), consent-gated by default\r\n//!   (REQ-UPD-4), with typed convergence outcomes (REQ-UPD-6).\r\n//!\r\n//! The scheduler kernels are pure and unit-tested with scripted workers (the\r\n//! choreography table below): [`compute_due`] (prime-all / wake-forces-one),\r\n//! [`pre_rounds`] (once per due round, before any peer_step), [`run_due`]\r\n//! (abort-on-first-fail), [`mark_ran`] (the §V4 stagger), [`fan_targets`]\r\n//! (detached-skip). LLM-bearing work is never a [`PumpWorker`] (KNOWN-HAZARDS\r\n//! 7.4) — see the trait's contract.\r\n//!\r\n//! Conflicts a pull surfaces are reported through [`PumpHooks::on_pull`] —\r\n//! the default production hook logs them loud. The bounded Psyche reconcile\r\n//! turn itself still runs at the activation paths (ADR-0013): the daemon\r\n//! does not yet host per-agent manifest runtimes (the 7.4 fan-out), so an\r\n//! in-pump turn has no runtime to ride; conflict artifacts persist safely\r\n//! meanwhile (REQ-HAZARD-CONFLICT-BOTH-PRESERVED).\r\n//!\r\n//! ## Wire discipline (inherited from the test suites, now production)\r\n//!\r\n//! Every pump write is fire-and-forget (`op_id: None`) — a journaled\r\n//! `net_stream_send` blocks on its ack and DISCARDS interleaved events\r\n//! (gotcha #1). Stream opens for push feeds carry no op either: the feeds\r\n//! are idempotent by construction. The sync pull's `open_op` IS durable\r\n//! (exactly-once open identity), minted from a dedicated [`EpochSource`]\r\n//! file so a daemon restart can never reuse one.\r\n//!\r\n//! Per-leg wire-discipline evidence lives with each worker now: registry push\r\n//! ([`registry`], REQ-INST-7), notif push ([`notif`], REQ-NOTIF-1), sync pull\r\n//! ([`sync`], REQ-INST-5).\r\n\r\nuse std::collections::{HashMap, HashSet};\r\nuse std::io;\r\nuse std::path::PathBuf;\r\nuse std::sync::atomic::{AtomicBool, Ordering};\r\nuse std::sync::Arc;\r\nuse std::thread;\r\nuse std::time::{Duration, Instant};\r\n\r\nuse spt_net::net::endpoint::addr_for_node_hex;\r\nuse spt_store::epoch::EpochSource;\r\nuse spt_store::peeraddrs::PeerAddrStore;\r\nuse spt_store::perch;\r\nuse spt_store::subnet::SubnetStore;\r\nuse spt_store::visibility::VisibilityStore;\r\n\r\nuse crate::brain::{Brain, BrokerEvent, PEER_REPLY_READ_BUDGET};\r\nuse crate::config::DaemonConfig;\r\nuse crate::effect::{Minter, MintedOp};\r\nuse crate::msg::{\r\n    NetPresenceEvent, PRESENCE_CONNECTED, PRESENCE_DIAL_FAILED, PRESENCE_DISCONNECTED,\r\n};\r\nuse crate::registryhost::RegistryHost;\r\nuse crate::sync::{SyncPolicy, SyncPullReport};\r\n\r\nmod notif;\r\nmod registry;\r\nmod sync;\r\nmod update;\r\nuse notif::NotifWorker;\r\nuse registry::RegistryWorker;\r\nuse sync::SyncWorker;\r\nuse update::UpdateWorker;\r\n\r\n/// The pump's tick granularity — each cadence fires when its period elapsed.\r\nconst TICK: Duration = Duration::from_millis(200);\r\n\r\n/// Heartbeat write throttle (M8 decision 23, REQ-DAEMON-5): the stall\r\n/// warning reads 3-cadence staleness, so a few seconds of heartbeat\r\n/// granularity is invisible to it — and 5 writes/sec of disk churn is not.\r\nconst HEARTBEAT_PERIOD: Duration = Duration::from_secs(5);\r\n\r\n/// Per-call deadline budget for the pump's brain-IPC reads (REQ-HAZARD-PUMP-\r\n/// IPC-DEADLINE). Far above any legitimate stream-open / sync round-trip, below\r\n/// the 60s QUIC idle timeout (we fire first; recovery is idempotent either\r\n/// way). A read that exceeds this is treated as a poisoned client and\r\n/// escalated to a supervised restart, NEVER a per-peer retry.\r\nconst PUMP_PEER_IO_TIMEOUT: Duration = Duration::from_secs(30);\r\n\r\n/// Supervisor backoff floor: the first restart after a pump death.\r\nconst SUPERVISE_BACKOFF_BASE: Duration = Duration::from_secs(5);\r\n\r\n/// Supervisor backoff cap (M8 decision 23): a persistently-crashing pump\r\n/// retries at most every 5 minutes — visible, bounded, never silent.\r\nconst SUPERVISE_BACKOFF_CAP: Duration = Duration::from_secs(300);\r\n\r\n/// A run that survived this long before dying counts as healthy — the next\r\n/// backoff resets to the floor instead of doubling (a once-a-day panic must\r\n/// not ratchet the pump toward permanent 5-minute outages).\r\nconst SUPERVISE_HEALTHY_RUN: Duration = Duration::from_secs(60);\r\n\r\n/// Per-peer dial-backoff floor (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G5): the\r\n/// first failed dial to a peer waits this long before the pump re-dials THAT\r\n/// peer. Scoped to the peer — a dead peer backs off while live peers stay hot.\r\nconst PEER_BACKOFF_BASE: Duration = Duration::from_secs(5);\r\n\r\n/// Per-peer dial-backoff cap (G5): a persistently-dead peer is re-dialed at most\r\n/// every 5 minutes (same bound as the supervisor) — bounded, never a hot redial\r\n/// loop, never silent. Reset to the floor on any successful connect.\r\nconst PEER_BACKOFF_CAP: Duration = Duration::from_secs(300);\r\n\r\n/// Round-drain margin over W1's per-dial reply-read budget (G3, Q1): because the\r\n/// dials are CONCURRENT, every outcome lands within ~one W1 bound, so the round\r\n/// closes shortly after it. Derived symbolically from\r\n/// [`PEER_REPLY_READ_BUDGET`] (not a hardcoded 12s) so it tracks any W1 retune.\r\nconst ROUND_DRAIN_MARGIN: Duration = Duration::from_secs(2);\r\n\r\n/// Per-peer dial schedule (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G5): a peer is\r\n/// dial-eligible when `now >= next_due`. A `DIAL_FAILED` (or a mid-round\r\n/// `peer_step` failure — Q3) doubles `backoff` (capped [`PEER_BACKOFF_CAP`]) and\r\n/// pushes `next_due` out; a successful connect drops the entry (reset). Kept in a\r\n/// `HashMap<peer_hex, PeerSched>` on the pump loop — RAM-only, re-primed on a\r\n/// supervised restart like `WorkerLasts`.\r\n#[derive(Clone, Copy, Debug)]\r\nstruct PeerSched {\r\n    next_due: Instant,\r\n    backoff: Duration,\r\n}\r\n\r\n/// The next per-peer backoff after a failed dial (pure, unit-tested): the first\r\n/// failure waits [`PEER_BACKOFF_BASE`]; each subsequent failure doubles, capped\r\n/// at [`PEER_BACKOFF_CAP`]. `next_due = now + backoff`.\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\nfn next_peer_backoff(prev: Option<PeerSched>, now: Instant) -> PeerSched {\r\n    let backoff = match prev {\r\n        None => PEER_BACKOFF_BASE,\r\n        Some(p) => p.backoff.saturating_mul(2).min(PEER_BACKOFF_CAP),\r\n    };\r\n    PeerSched {\r\n        next_due: now + backoff,\r\n        backoff,\r\n    }\r\n}\r\n\r\n/// Whether a peer may be dialed this round (pure): a peer with no schedule entry\r\n/// (never failed, or just reset by a success) is always eligible; one in backoff\r\n/// is eligible only once `next_due` has passed.\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\nfn peer_eligible(sched: &HashMap<String, PeerSched>, peer_hex: &str, now: Instant) -> bool {\r\n    sched.get(peer_hex).is_none_or(|s| now >= s.next_due)\r\n}\r\n\r\n/// The outcome of ONE events-carrier drain read (PUMP-TRUTH W2). Pulled out of the\r\n/// round loop so the load-bearing dead-carrier classification is a UNIT fact.\r\nenum DrainStep {\r\n    /// A presence event to apply to per-peer state.\r\n    Apply(NetPresenceEvent),\r\n    /// A non-presence frame on the event carrier — ignore, keep draining.\r\n    Skip,\r\n    /// A quiet read (`TimedOut`): no more outcomes available now → close the round.\r\n    RoundDone,\r\n    /// A dead CARRIER (any non-`TimedOut` read error — the broker stopped answering\r\n    /// the stream: reader-thread `UnexpectedEof`/`BrokenPipe` on a closed conn).\r\n    /// The re-pointed REQ-HAZARD-PUMP-IPC-DEADLINE: bubble to a supervised restart.\r\n    Restart(io::Error),\r\n}\r\n\r\n/// Classify one events-carrier drain read (PUMP-TRUTH W2, the re-pointed\r\n/// REQ-HAZARD-PUMP-IPC-DEADLINE). This is THE guard on the decouple: a dead PEER\r\n/// never reaches here (its failure is an ordinary `PRESENCE_DIAL_FAILED` event or\r\n/// a reclassified per-peer drop), but a dead BROKER — the event carrier itself\r\n/// going silent — MUST still bubble to a supervised restart. `TimedOut` is the\r\n/// benign \"no outcome available this instant\" (round closes on its deadline); any\r\n/// OTHER read error is the carrier dying and MUST NOT be swallowed as quiet.\r\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\nfn classify_drain_read(read: io::Result<BrokerEvent>) -> DrainStep {\r\n    match read {\r\n        Ok(BrokerEvent::NetPresence(ev)) => DrainStep::Apply(ev),\r\n        Ok(_) => DrainStep::Skip,\r\n        Err(e) if e.kind() == io::ErrorKind::TimedOut => DrainStep::RoundDone,\r\n        Err(e) => DrainStep::Restart(e),\r\n    }\r\n}\r\n\r\n/// Resolve a trusted peer's stable name (lowercase-hex pubkey) to a dialable\r\n/// address (the serde JSON `net-dial` carries). Production resolution lets\r\n/// discovery do the work ([`production_resolver`]); hermetic tests inject a\r\n/// concrete address map (loopback endpoints run no discovery).\r\npub type PeerResolver = Box<dyn Fn(&str) -> Option<serde_json::Value> + Send>;\r\n\r\n/// The production resolver: an id-only iroh address — mDNS on the LAN, n0\r\n/// DNS on the WAN (`addr_for_node_hex`).\r\npub fn production_resolver() -> PeerResolver {\r\n    Box::new(|hex| addr_for_node_hex(hex).and_then(|a| serde_json::to_value(a).ok()))\r\n}\r\n\r\n/// Where this node's pump-side stores live. Production = the canonical\r\n/// SPT_HOME layout; the loopback E2E gives its in-process \"node\" distinct\r\n/// roots so two nodes can share one test process.\r\npub struct PumpPaths {\r\n    /// The perch tree (registry advertisement scan).\r\n    pub owlery: PathBuf,\r\n    /// The context store root ([`ContextStore::open_or_init_in`]).\r\n    pub ctx_root: PathBuf,\r\n    /// The notif spool DB ([`NotifStore::open_at`]).\r\n    pub notif_db: PathBuf,\r\n    /// Transient pull scratch.\r\n    pub scratch: PathBuf,\r\n    /// `subnet.json` ([`SubnetStore::load_from`]).\r\n    pub subnets: PathBuf,\r\n    /// `visibility.json` ([`VisibilityStore::load_from`]).\r\n    pub vis: PathBuf,\r\n    /// The pump's durable open-op counter (its own file — colliding with the\r\n    /// registry's advertisement epochs would break neither, but a shared\r\n    /// in-memory cursor pair over one file double-mints; separate files keep\r\n    /// each `EpochSource` the sole writer of its counter).\r\n    pub ops: PathBuf,\r\n    /// The staged-release cache dir ([`ReleaseCache::open`]).\r\n    pub releases: PathBuf,\r\n    /// `release-keys.json` ([`VerifyPolicy::load_from`]).\r\n    pub release_keys: PathBuf,\r\n    /// The wake-edge freshness-pull marker (D9-2, REQ-INST-3): a\r\n    /// dormant→active transition drops it; the pump consumes it and forces a\r\n    /// sync round NOW instead of waiting out `cadence.sync`\r\n    /// ([`crate::resting::PULL_MARKER_FILE`]).\r\n    pub pull_marker: PathBuf,\r\n    /// The event-driven advertisement marker (M8 decision 15, REQ-CONV-2):\r\n    /// an endpoint online/offline transition drops it; the pump consumes it\r\n    /// and forces a registry round NOW instead of waiting out\r\n    /// `cadence.registry` ([`crate::registryhost::ADVERTISE_MARKER_FILE`]).\r\n    pub advertise_marker: PathBuf,\r\n    /// `peer-addrs.json` — last-known peer addresses (M8 decisions 14/20,\r\n    /// REQ-CONV-1): consulted before id-only discovery, written back after\r\n    /// every successful dial ([`spt_store::peeraddrs::PeerAddrStore`]).\r\n    pub peer_addrs: PathBuf,\r\n    /// The pump's last-tick heartbeat (M8 decision 23, REQ-DAEMON-5):\r\n    /// epoch-ms written while the loop is alive, rendered by\r\n    /// `spt daemon status` / the `subnet status` stall warning\r\n    /// ([`crate::endpoint::pump_heartbeat_path`]).\r\n    pub heartbeat: PathBuf,\r\n    /// `rotation-pending.json` (Mesh-D7, REQ-MESH-4): the timeboxed seed-rotation\r\n    /// schedule a `subnet revoke` writes; the pump fires due entries each\r\n    /// registry tick ([`spt_store::rotation::RotationPending`]).\r\n    pub rotations: PathBuf,\r\n}\r\n\r\nimpl PumpPaths {\r\n    /// The canonical SPT_HOME layout.\r\n    pub fn production() -> PumpPaths {\r\n        let home = perch::spt_home();\r\n        let identity = perch::identity_dir();\r\n        PumpPaths {\r\n            owlery: perch::owlery_dir(),\r\n            ctx_root: home.join(\"context\"),\r\n            notif_db: identity.join(\"notifs.db\"),\r\n            scratch: home.join(\"scratch\").join(\"pump\"),\r\n            subnets: identity.join(\"subnet.json\"),\r\n            vis: identity.join(\"visibility.json\"),\r\n            ops: identity.join(\"pump-ops.json\"),\r\n            releases: home.join(\"releases\"),\r\n            release_keys: identity.join(\"release-keys.json\"),\r\n            pull_marker: identity.join(crate::resting::PULL_MARKER_FILE),\r\n            advertise_marker: identity.join(crate::registryhost::ADVERTISE_MARKER_FILE),\r\n            peer_addrs: identity.join(\"peer-addrs.json\"),\r\n            heartbeat: crate::endpoint::pump_heartbeat_path(),\r\n            rotations: identity.join(\"rotation-pending.json\"),\r\n        }\r\n    }\r\n}\r\n\r\n/// Pump cadences (config-driven in production: [`DaemonConfig`]).\r\n#[derive(Debug, Clone, Copy)]\r\npub struct PumpCadence {\r\n    pub registry: Duration,\r\n    pub notif: Duration,\r\n    pub sync: Duration,\r\n    pub update: Duration,\r\n    /// Silent-peer registry eviction window (KNOWN-HAZARDS 4.10): swept each\r\n    /// registry tick, before re-advertisement.\r\n    pub registry_evict_after: Duration,\r\n}\r","truncated":true,"truncatedBy":"lines","totalLines":1717,"totalBytes":15084,"outputLines":300,"outputBytes":15084,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"//! Outbound peer pump (D9-1-2) — the production trigger loops every D5–D8\r\n//! slice deferred (\"rides D9 with the daemon lifecycle\").\r\n//!\r\n//! One daemon-hosted loop — *the* peer pump — is a pure scheduler + per-peer\r\n//! fan-out over four [`PumpWorker`] legs. The pump owns *when* (each worker's\r\n//! cadence + its wake markers, fed to the pure [`due`] kernel) and *toward\r\n//! whom* (every roster member of every non-detached member subnet); each worker\r\n//! owns *what* (its node-local `pre_round` and its per-peer `peer_step`), a thin\r\n//! call over an already-shipped, idempotent driver. The four legs, in fan-out\r\n//! order, each in its own module:\r\n//!\r\n//! - **registry push** ([`registry`], [`RegistryHost::advertise_local`] → one\r\n//!   feed stream per peer): the node re-advertises its own rows; peers\r\n//!   reconverge within one cadence (replay-is-recovery, the D4d/D8 push\r\n//!   posture). Mesh-D6 widened the push target from the directly-paired set to\r\n//!   ALL roster members — a wider DIRECT fan-out, never a relay (REQ-MESH-3).\r\n//!   Own rows only — a relayed third-party row would carry an origin the\r\n//!   receiver cannot gate honestly (KNOWN-HAZARDS 7.5/4.10), so every row still\r\n//!   arrives from its author over a handshake.\r\n//! - **notif push** ([`notif`], [`crate::notifsync::emit_notif_feed`]): the\r\n//!   full semilattice spool per subnet; the receiver's join dedups.\r\n//! - **sync pull** ([`sync`], [`crate::sync::request_sync`]): anti-entropy for\r\n//!   the minds. Want-refs are the union of [`crate::sync::select_refs`]\r\n//!   (locally tracked branches the policy allows toward the peer) and\r\n//!   **registry-derived** `a-<id>` refs (endpoints known in the shared\r\n//!   subnets — how a fresh instance bootstraps a mind it has never held), both\r\n//!   gated by the same [`SyncPolicy::allows`] the responder enforces (symmetric\r\n//!   scoping).\r\n//! - **update pull** ([`update`], [`crate::propagate::request_update`]): the\r\n//!   peer-propagated self-update (REQ-UPD-1), consent-gated by default\r\n//!   (REQ-UPD-4), with typed convergence outcomes (REQ-UPD-6).\r\n//!\r\n//! The scheduler kernels are pure and unit-tested with scripted workers (the\r\n//! choreography table below): [`compute_due`] (prime-all / wake-forces-one),\r\n//! [`pre_rounds`] (once per due round, before any peer_step), [`run_due`]\r\n//! (abort-on-first-fail), [`mark_ran`] (the §V4 stagger), [`fan_targets`]\r\n//! (detached-skip). LLM-bearing work is never a [`PumpWorker`] (KNOWN-HAZARDS\r\n//! 7.4) — see the trait's contract.\r\n//!\r\n//! Conflicts a pull surfaces are reported through [`PumpHooks::on_pull`] —\r\n//! the default production hook logs them loud. The bounded Psyche reconcile\r\n//! turn itself still runs at the activation paths (ADR-0013): the daemon\r\n//! does not yet host per-agent manifest runtimes (the 7.4 fan-out), so an\r\n//! in-pump turn has no runtime to ride; conflict artifacts persist safely\r\n//! meanwhile (REQ-HAZARD-CONFLICT-BOTH-PRESERVED).\r\n//!\r\n//! ## Wire discipline (inherited from the test suites, now production)\r\n//!\r\n//! Every pump write is fire-and-forget (`op_id: None`) — a journaled\r\n//! `net_stream_send` blocks on its ack and DISCARDS interleaved events\r\n//! (gotcha #1). Stream opens for push feeds carry no op either: the feeds\r\n//! are idempotent by construction. The sync pull's `open_op` IS durable\r\n//! (exactly-once open identity), minted from a dedicated [`EpochSource`]\r\n//! file so a daemon restart can never reuse one.\r\n//!\r\n//! Per-leg wire-discipline evidence lives with each worker now: registry push\r\n//! ([`registry`], REQ-INST-7), notif push ([`notif`], REQ-NOTIF-1), sync pull\r\n//! ([`sync`], REQ-INST-5).\r\n\r\nuse std::collections::{HashMap, HashSet};\r\nuse std::io;\r\nuse std::path::PathBuf;\r\nuse std::sync::atomic::{AtomicBool, Ordering};\r\nuse std::sync::Arc;\r\nuse std::thread;\r\nuse std::time::{Duration, Instant};\r\n\r\nuse spt_net::net::endpoint::addr_for_node_hex;\r\nuse spt_store::epoch::EpochSource;\r\nuse spt_store::peeraddrs::PeerAddrStore;\r\nuse spt_store::perch;\r\nuse spt_store::subnet::SubnetStore;\r\nuse spt_store::visibility::VisibilityStore;\r\n\r\nuse crate::brain::{Brain, BrokerEvent, PEER_REPLY_READ_BUDGET};\r\nuse crate::config::DaemonConfig;\r\nuse crate::effect::{Minter, MintedOp};\r\nuse crate::msg::{\r\n    NetPresenceEvent, PRESENCE_CONNECTED, PRESENCE_DIAL_FAILED, PRESENCE_DISCONNECTED,\r\n};\r\nuse crate::registryhost::RegistryHost;\r\nuse crate::sync::{SyncPolicy, SyncPullReport};\r\n\r\nmod notif;\r\nmod registry;\r\nmod sync;\r\nmod update;\r\nuse notif::NotifWorker;\r\nuse registry::RegistryWorker;\r\nuse sync::SyncWorker;\r\nuse update::UpdateWorker;\r\n\r\n/// The pump's tick granularity — each cadence fires when its period elapsed.\r\nconst TICK: Duration = Duration::from_millis(200);\r\n\r\n/// Heartbeat write throttle (M8 decision 23, REQ-DAEMON-5): the stall\r\n/// warning reads 3-cadence staleness, so a few seconds of heartbeat\r\n/// granularity is invisible to it — and 5 writes/sec of disk churn is not.\r\nconst HEARTBEAT_PERIOD: Duration = Duration::from_secs(5);\r\n\r\n/// Per-call deadline budget for the pump's brain-IPC reads (REQ-HAZARD-PUMP-\r\n/// IPC-DEADLINE). Far above any legitimate stream-open / sync round-trip, below\r\n/// the 60s QUIC idle timeout (we fire first; recovery is idempotent either\r\n/// way). A read that exceeds this is treated as a poisoned client and\r\n/// escalated to a supervised restart, NEVER a per-peer retry.\r\nconst PUMP_PEER_IO_TIMEOUT: Duration = Duration::from_secs(30);\r\n\r\n/// Supervisor backoff floor: the first restart after a pump death.\r\nconst SUPERVISE_BACKOFF_BASE: Duration = Duration::from_secs(5);\r\n\r\n/// Supervisor backoff cap (M8 decision 23): a persistently-crashing pump\r\n/// retries at most every 5 minutes — visible, bounded, never silent.\r\nconst SUPERVISE_BACKOFF_CAP: Duration = Duration::from_secs(300);\r\n\r\n/// A run that survived this long before dying counts as healthy — the next\r\n/// backoff resets to the floor instead of doubling (a once-a-day panic must\r\n/// not ratchet the pump toward permanent 5-minute outages).\r\nconst SUPERVISE_HEALTHY_RUN: Duration = Duration::from_secs(60);\r\n\r\n/// Per-peer dial-backoff floor (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G5): the\r\n/// first failed dial to a peer waits this long before the pump re-dials THAT\r\n/// peer. Scoped to the peer — a dead peer backs off while live peers stay hot.\r\nconst PEER_BACKOFF_BASE: Duration = Duration::from_secs(5);\r\n\r\n/// Per-peer dial-backoff cap (G5): a persistently-dead peer is re-dialed at most\r\n/// every 5 minutes (same bound as the supervisor) — bounded, never a hot redial\r\n/// loop, never silent. Reset to the floor on any successful connect.\r\nconst PEER_BACKOFF_CAP: Duration = Duration::from_secs(300);\r\n\r\n/// Round-drain margin over W1's per-dial reply-read budget (G3, Q1): because the\r\n/// dials are CONCURRENT, every outcome lands within ~one W1 bound, so the round\r\n/// closes shortly after it. Derived symbolically from\r\n/// [`PEER_REPLY_READ_BUDGET`] (not a hardcoded 12s) so it tracks any W1 retune.\r\nconst ROUND_DRAIN_MARGIN: Duration = Duration::from_secs(2);\r\n\r\n/// Per-peer dial schedule (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G5): a peer is\r\n/// dial-eligible when `now >= next_due`. A `DIAL_FAILED` (or a mid-round\r\n/// `peer_step` failure — Q3) doubles `backoff` (capped [`PEER_BACKOFF_CAP`]) and\r\n/// pushes `next_due` out; a successful connect drops the entry (reset). Kept in a\r\n/// `HashMap<peer_hex, PeerSched>` on the pump loop — RAM-only, re-primed on a\r\n/// supervised restart like `WorkerLasts`.\r\n#[derive(Clone, Copy, Debug)]\r\nstruct PeerSched {\r\n    next_due: Instant,\r\n    backoff: Duration,\r\n}\r\n\r\n/// The next per-peer backoff after a failed dial (pure, unit-tested): the first\r\n/// failure waits [`PEER_BACKOFF_BASE`]; each subsequent failure doubles, capped\r\n/// at [`PEER_BACKOFF_CAP`]. `next_due = now + backoff`.\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\nfn next_peer_backoff(prev: Option<PeerSched>, now: Instant) -> PeerSched {\r\n    let backoff = match prev {\r\n        None => PEER_BACKOFF_BASE,\r\n        Some(p) => p.backoff.saturating_mul(2).min(PEER_BACKOFF_CAP),\r\n    };\r\n    PeerSched {\r\n        next_due: now + backoff,\r\n        backoff,\r\n    }\r\n}\r\n\r\n/// Whether a peer may be dialed this round (pure): a peer with no schedule entry\r\n/// (never failed, or just reset by a success) is always eligible; one in backoff\r\n/// is eligible only once `next_due` has passed.\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\nfn peer_eligible(sched: &HashMap<String, PeerSched>, peer_hex: &str, now: Instant) -> bool {\r\n    sched.get(peer_hex).is_none_or(|s| now >= s.next_due)\r\n}\r\n\r\n/// The outcome of ONE events-carrier drain read (PUMP-TRUTH W2). Pulled out of the\r\n/// round loop so the load-bearing dead-carrier classification is a UNIT fact.\r\nenum DrainStep {\r\n    /// A presence event to apply to per-peer state.\r\n    Apply(NetPresenceEvent),\r\n    /// A non-presence frame on the event carrier — ignore, keep draining.\r\n    Skip,\r\n    /// A quiet read (`TimedOut`): no more outcomes available now → close the round.\r\n    RoundDone,\r\n    /// A dead CARRIER (any non-`TimedOut` read error — the broker stopped answering\r\n    /// the stream: reader-thread `UnexpectedEof`/`BrokenPipe` on a closed conn).\r\n    /// The re-pointed REQ-HAZARD-PUMP-IPC-DEADLINE: bubble to a supervised restart.\r\n    Restart(io::Error),\r\n}\r\n\r\n/// Classify one events-carrier drain read (PUMP-TRUTH W2, the re-pointed\r\n/// REQ-HAZARD-PUMP-IPC-DEADLINE). This is THE guard on the decouple: a dead PEER\r\n/// never reaches here (its failure is an ordinary `PRESENCE_DIAL_FAILED` event or\r\n/// a reclassified per-peer drop), but a dead BROKER — the event carrier itself\r\n/// going silent — MUST still bubble to a supervised restart. `TimedOut` is the\r\n/// benign \"no outcome available this instant\" (round closes on its deadline); any\r\n/// OTHER read error is the carrier dying and MUST NOT be swallowed as quiet.\r\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\nfn classify_drain_read(read: io::Result<BrokerEvent>) -> DrainStep {\r\n    match read {\r\n        Ok(BrokerEvent::NetPresence(ev)) => DrainStep::Apply(ev),\r\n        Ok(_) => DrainStep::Skip,\r\n        Err(e) if e.kind() == io::ErrorKind::TimedOut => DrainStep::RoundDone,\r\n        Err(e) => DrainStep::Restart(e),\r\n    }\r\n}\r\n\r\n/// Resolve a trusted peer's stable name (lowercase-hex pubkey) to a dialable\r\n/// address (the serde JSON `net-dial` carries). Production resolution lets\r\n/// discovery do the work ([`production_resolver`]); hermetic tests inject a\r\n/// concrete address map (loopback endpoints run no discovery).\r\npub type PeerResolver = Box<dyn Fn(&str) -> Option<serde_json::Value> + Send>;\r\n\r\n/// The production resolver: an id-only iroh address — mDNS on the LAN, n0\r\n/// DNS on the WAN (`addr_for_node_hex`).\r\npub fn production_resolver() -> PeerResolver {\r\n    Box::new(|hex| addr_for_node_hex(hex).and_then(|a| serde_json::to_value(a).ok()))\r\n}\r\n\r\n/// Where this node's pump-side stores live. Production = the canonical\r\n/// SPT_HOME layout; the loopback E2E gives its in-process \"node\" distinct\r\n/// roots so two nodes can share one test process.\r\npub struct PumpPaths {\r\n    /// The perch tree (registry advertisement scan).\r\n    pub owlery: PathBuf,\r\n    /// The context store root ([`ContextStore::open_or_init_in`]).\r\n    pub ctx_root: PathBuf,\r\n    /// The notif spool DB ([`NotifStore::open_at`]).\r\n    pub notif_db: PathBuf,\r\n    /// Transient pull scratch.\r\n    pub scratch: PathBuf,\r\n    /// `subnet.json` ([`SubnetStore::load_from`]).\r\n    pub subnets: PathBuf,\r\n    /// `visibility.json` ([`VisibilityStore::load_from`]).\r\n    pub vis: PathBuf,\r\n    /// The pump's durable open-op counter (its own file — colliding with the\r\n    /// registry's advertisement epochs would break neither, but a shared\r\n    /// in-memory cursor pair over one file double-mints; separate files keep\r\n    /// each `EpochSource` the sole writer of its counter).\r\n    pub ops: PathBuf,\r\n    /// The staged-release cache dir ([`ReleaseCache::open`]).\r\n    pub releases: PathBuf,\r\n    /// `release-keys.json` ([`VerifyPolicy::load_from`]).\r\n    pub release_keys: PathBuf,\r\n    /// The wake-edge freshness-pull marker (D9-2, REQ-INST-3): a\r\n    /// dormant→active transition drops it; the pump consumes it and forces a\r\n    /// sync round NOW instead of waiting out `cadence.sync`\r\n    /// ([`crate::resting::PULL_MARKER_FILE`]).\r\n    pub pull_marker: PathBuf,\r\n    /// The event-driven advertisement marker (M8 decision 15, REQ-CONV-2):\r\n    /// an endpoint online/offline transition drops it; the pump consumes it\r\n    /// and forces a registry round NOW instead of waiting out\r\n    /// `cadence.registry` ([`crate::registryhost::ADVERTISE_MARKER_FILE`]).\r\n    pub advertise_marker: PathBuf,\r\n    /// `peer-addrs.json` — last-known peer addresses (M8 decisions 14/20,\r\n    /// REQ-CONV-1): consulted before id-only discovery, written back after\r\n    /// every successful dial ([`spt_store::peeraddrs::PeerAddrStore`]).\r\n    pub peer_addrs: PathBuf,\r\n    /// The pump's last-tick heartbeat (M8 decision 23, REQ-DAEMON-5):\r\n    /// epoch-ms written while the loop is alive, rendered by\r\n    /// `spt daemon status` / the `subnet status` stall warning\r\n    /// ([`crate::endpoint::pump_heartbeat_path`]).\r\n    pub heartbeat: PathBuf,\r\n    /// `rotation-pending.json` (Mesh-D7, REQ-MESH-4): the timeboxed seed-rotation\r\n    /// schedule a `subnet revoke` writes; the pump fires due entries each\r\n    /// registry tick ([`spt_store::rotation::RotationPending`]).\r\n    pub rotations: PathBuf,\r\n}\r\n\r\nimpl PumpPaths {\r\n    /// The canonical SPT_HOME layout.\r\n    pub fn production() -> PumpPaths {\r\n        let home = perch::spt_home();\r\n        let identity = perch::identity_dir();\r\n        PumpPaths {\r\n            owlery: perch::owlery_dir(),\r\n            ctx_root: home.join(\"context\"),\r\n            notif_db: identity.join(\"notifs.db\"),\r\n            scratch: home.join(\"scratch\").join(\"pump\"),\r\n            subnets: identity.join(\"subnet.json\"),\r\n            vis: identity.join(\"visibility.json\"),\r\n            ops: identity.join(\"pump-ops.json\"),\r\n            releases: home.join(\"releases\"),\r\n            release_keys: identity.join(\"release-keys.json\"),\r\n            pull_marker: identity.join(crate::resting::PULL_MARKER_FILE),\r\n            advertise_marker: identity.join(crate::registryhost::ADVERTISE_MARKER_FILE),\r\n            peer_addrs: identity.join(\"peer-addrs.json\"),\r\n            heartbeat: crate::endpoint::pump_heartbeat_path(),\r\n            rotations: identity.join(\"rotation-pending.json\"),\r\n        }\r\n    }\r\n}\r\n\r\n/// Pump cadences (config-driven in production: [`DaemonConfig`]).\r\n#[derive(Debug, Clone, Copy)]\r\npub struct PumpCadence {\r\n    pub registry: Duration,\r\n    pub notif: Duration,\r\n    pub sync: Duration,\r\n    pub update: Duration,\r\n    /// Silent-peer registry eviction window (KNOWN-HAZARDS 4.10): swept each\r\n    /// registry tick, before re-advertisement.\r\n    pub registry_evict_after: Duration,\r\n}\r","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\pump\\mod.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1717,"totalBytes":15084,"outputLines":300,"outputBytes":15084,"shownRange":{"start":1,"end":300},"nextOffset":301}}},"isError":false,"timestamp":1784069042465}}
{"type":"message","id":"bedc3a1f","parentId":"543c694a","timestamp":"2026-07-14T22:44:02.473Z","message":{"role":"toolResult","toolCallId":"call_4wnVTcuLJ2Fn0q7gtHYyz87f|fc_0b084cf0b521ab15016a56bbb24a148190a19e3bdf4d4e79b9","toolName":"read","content":[{"type":"text","text":"        // no-ops.\n        // [impl->REQ-HAZARD-STALE-INDEX-LOCK]\n        for lock in spt_store::branchstore::sweep_stale_index_locks(\n            &spt_store::contextstore::seed_git_dir(&spt_store::perch::tracked_dir()),\n            spt_store::branchstore::STALE_LOCK_AGE,\n        ) {\n            eprintln!(\"STALE_LOCK_SWEPT:{}\", lock.display());\n        }\n\n        // Serve-state boot reset (M8 decision 6, REQ-SUBNET-5): the live\n        // attachment state starts from the config's startup defaults — an\n        // unsaved attach/detach flip deliberately does not survive a daemon\n        // restart (`--save` is the persistence path).\n        // [impl->REQ-SUBNET-5]\n        {\n            let att = spt_store::attachment::AttachmentStore::reset_to(\n                &DaemonConfig::load().detached_subnets,\n            );\n            if let Err(e) = att.save() {\n                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n            }\n            for name in &att.detached {\n                // Plain prose (no Markdown markers): spt-daemon can't import the\n                // bin-local helpfmt renderer, so this one source string is authored\n                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\n                // token is the machine contract; the rest is a human hint.\n                // [impl->REQ-CLI-OUTPUT-MARKDOWN]\n                eprintln!(\"SUBNET_DETACHED:{name} (startup default — run: spt subnet attach {name})\");\n            }\n        }\n\n        // The broker's network host (D4a, ADR-0004 §B): the node's iroh endpoint\n        // + live QUIC connections live in the broker so they survive a brain\n        // restart. Identity is the durable node.key (stable name across daemon\n        // restarts); relay stance comes from daemon.json; mDNS rides the\n        // endpoint (closing the §B mDNS/relay-session row by construction). A\n        // net failure degrades to a net-less broker — it must not cost PTY\n        // hosting (mirrors the broker-bind soft-fail below).\n        // [impl->REQ-DAEMON-2]\n        // Identity (the durable node.key) decides node_hex independently of the\n        // net bring-up: a NET_BIND_FAIL (e.g. the autostart beat the network up\n        // at boot — REQ-DAEMON-9) is transient and retried, but a broken\n        // identity is not, so we only arm the retry when identity is sound.\n        let node_hex: Option<String> = spt_store::nodeid::load_or_create()\n            .ok()\n            .map(|i| i.public_key().to_hex());\n        let net = if node_hex.is_some() {\n            try_start_net()\n        } else {\n            eprintln!(\"NODE_KEY_FAIL: identity unavailable — broker runs net-less, no retry\");\n            None\n        };\n\n        // The broker hosts PTYs (B1/B2) + the net endpoint (D4a). Serve it on a\n        // background thread; a bind failure there must not stop the seed channel\n        // (the B6 surface) — the PTY-hosting consumers arrive in B7/B8.\n        let net_up = net.is_some();\n        // Keep the broker handle alive past the bind so the brain supervisor's\n        // planned-restart signal can be wired into it below (ADR-0018 D3-3): the\n        // `KIND_BRAIN_RESTART` verb the broker serves must reach the supervisor.\n        let broker_handle: Option<Arc<Broker>> =\n            match Broker::bind_in_with_net(&broker_socket_name(), default_journal_path(), net) {\n                Ok(broker) => {\n                    let serve_broker = Arc::clone(&broker);\n                    thread::spawn(move || {\n                        let _ = serve_broker.serve();\n                    });\n                // Inbound net dispatch + outbound peer pump (D9-1) now run in\n                // the BRAIN child (restoration D2-1): they are pure IPC clients,\n                // so they live with the restartable brain and respawn with it.\n                // The broker keeps only the NetHost bring-up and the boot-race\n                // self-heal that binds it; the brain polls `net-status` and\n                // starts the consumers once net reports enabled.\n                // [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\n                    if !net_up && node_hex.is_some() {\n                        // Boot-race self-heal (REQ-DAEMON-9): net failed to bind\n                        // but identity is sound — almost always the autostart\n                        // racing the network up at boot. Retry net in the\n                        // background and attach it to the broker when it\n                        // succeeds, so the node becomes reachable WITHOUT a\n                        // manual restart; the brain notices `net-status` flip\n                        // enabled and starts the consumers then.\n                        // [impl->REQ-DAEMON-9]\n                        let broker = Arc::clone(&broker);\n                        thread::spawn(move || net_retry_attach(broker));\n                    }\n                    // Endpoint autostart replay (F-038 W5, REQ-ENDPOINT-AUTOSTART):\n                    // bring saved startup defaults back up against the broker we\n                    // just bound. Background thread — a saved endpoint that fails\n                    // to come up logs loud and never blocks daemon start, the\n                    // seed channel, or the other replays.\n                    // [impl->REQ-ENDPOINT-AUTOSTART]\n                    thread::spawn(|| {\n                        crate::autostart::replay_startup_endpoints(&broker_socket_name());\n                    });\n                    Some(broker)\n                }\n                Err(e) => {\n                    eprintln!(\"BROKER_BIND_FAIL: {e}\");\n                    None\n                }\n            };\n\n        // The digest hub (B8) holds the live per-endpoint PTY-digest projections;\n        // the digest-control channel serves `spt digest <id>` snapshot pulls +\n        // delta-stream subscribes against it. Served on a background thread like\n        // the broker. The per-session feed that *populates* the hub is driven by\n        // the brain (the parse is logic — ADR-0004 §B), wired as daemon-hosted\n        // sessions are spawned through the broker; a bare daemon serves the\n        // channel and answers \"no live digest\" until a session is hosted.\n        let digest_hub = Arc::new(DigestHub::new());\n        {\n            let hub = Arc::clone(&digest_hub);\n            thread::spawn(move || {\n                let _ = digesthub::serve_digest_control(&digest_socket_name(), hub);\n            });\n        }\n\n        // The drive hub (M11-W2, REQ-SHELL-3) holds the per-shell ephemeral drive\n        // slot — the owner→shell control surface. Broker-held like the digest hub\n\n[Showing lines 129-248 of 1703. Use :249 to continue]"}],"details":{"truncation":{"content":"        // no-ops.\r\n        // [impl->REQ-HAZARD-STALE-INDEX-LOCK]\r\n        for lock in spt_store::branchstore::sweep_stale_index_locks(\r\n            &spt_store::contextstore::seed_git_dir(&spt_store::perch::tracked_dir()),\r\n            spt_store::branchstore::STALE_LOCK_AGE,\r\n        ) {\r\n            eprintln!(\"STALE_LOCK_SWEPT:{}\", lock.display());\r\n        }\r\n\r\n        // Serve-state boot reset (M8 decision 6, REQ-SUBNET-5): the live\r\n        // attachment state starts from the config's startup defaults — an\r\n        // unsaved attach/detach flip deliberately does not survive a daemon\r\n        // restart (`--save` is the persistence path).\r\n        // [impl->REQ-SUBNET-5]\r\n        {\r\n            let att = spt_store::attachment::AttachmentStore::reset_to(\r\n                &DaemonConfig::load().detached_subnets,\r\n            );\r\n            if let Err(e) = att.save() {\r\n                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\r\n            }\r\n            for name in &att.detached {\r\n                // Plain prose (no Markdown markers): spt-daemon can't import the\r\n                // bin-local helpfmt renderer, so this one source string is authored\r\n                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\r\n                // token is the machine contract; the rest is a human hint.\r\n                // [impl->REQ-CLI-OUTPUT-MARKDOWN]\r\n                eprintln!(\"SUBNET_DETACHED:{name} (startup default — run: spt subnet attach {name})\");\r\n            }\r\n        }\r\n\r\n        // The broker's network host (D4a, ADR-0004 §B): the node's iroh endpoint\r\n        // + live QUIC connections live in the broker so they survive a brain\r\n        // restart. Identity is the durable node.key (stable name across daemon\r\n        // restarts); relay stance comes from daemon.json; mDNS rides the\r\n        // endpoint (closing the §B mDNS/relay-session row by construction). A\r\n        // net failure degrades to a net-less broker — it must not cost PTY\r\n        // hosting (mirrors the broker-bind soft-fail below).\r\n        // [impl->REQ-DAEMON-2]\r\n        // Identity (the durable node.key) decides node_hex independently of the\r\n        // net bring-up: a NET_BIND_FAIL (e.g. the autostart beat the network up\r\n        // at boot — REQ-DAEMON-9) is transient and retried, but a broken\r\n        // identity is not, so we only arm the retry when identity is sound.\r\n        let node_hex: Option<String> = spt_store::nodeid::load_or_create()\r\n            .ok()\r\n            .map(|i| i.public_key().to_hex());\r\n        let net = if node_hex.is_some() {\r\n            try_start_net()\r\n        } else {\r\n            eprintln!(\"NODE_KEY_FAIL: identity unavailable — broker runs net-less, no retry\");\r\n            None\r\n        };\r\n\r\n        // The broker hosts PTYs (B1/B2) + the net endpoint (D4a). Serve it on a\r\n        // background thread; a bind failure there must not stop the seed channel\r\n        // (the B6 surface) — the PTY-hosting consumers arrive in B7/B8.\r\n        let net_up = net.is_some();\r\n        // Keep the broker handle alive past the bind so the brain supervisor's\r\n        // planned-restart signal can be wired into it below (ADR-0018 D3-3): the\r\n        // `KIND_BRAIN_RESTART` verb the broker serves must reach the supervisor.\r\n        let broker_handle: Option<Arc<Broker>> =\r\n            match Broker::bind_in_with_net(&broker_socket_name(), default_journal_path(), net) {\r\n                Ok(broker) => {\r\n                    let serve_broker = Arc::clone(&broker);\r\n                    thread::spawn(move || {\r\n                        let _ = serve_broker.serve();\r\n                    });\r\n                // Inbound net dispatch + outbound peer pump (D9-1) now run in\r\n                // the BRAIN child (restoration D2-1): they are pure IPC clients,\r\n                // so they live with the restartable brain and respawn with it.\r\n                // The broker keeps only the NetHost bring-up and the boot-race\r\n                // self-heal that binds it; the brain polls `net-status` and\r\n                // starts the consumers once net reports enabled.\r\n                // [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\r\n                    if !net_up && node_hex.is_some() {\r\n                        // Boot-race self-heal (REQ-DAEMON-9): net failed to bind\r\n                        // but identity is sound — almost always the autostart\r\n                        // racing the network up at boot. Retry net in the\r\n                        // background and attach it to the broker when it\r\n                        // succeeds, so the node becomes reachable WITHOUT a\r\n                        // manual restart; the brain notices `net-status` flip\r\n                        // enabled and starts the consumers then.\r\n                        // [impl->REQ-DAEMON-9]\r\n                        let broker = Arc::clone(&broker);\r\n                        thread::spawn(move || net_retry_attach(broker));\r\n                    }\r\n                    // Endpoint autostart replay (F-038 W5, REQ-ENDPOINT-AUTOSTART):\r\n                    // bring saved startup defaults back up against the broker we\r\n                    // just bound. Background thread — a saved endpoint that fails\r\n                    // to come up logs loud and never blocks daemon start, the\r\n                    // seed channel, or the other replays.\r\n                    // [impl->REQ-ENDPOINT-AUTOSTART]\r\n                    thread::spawn(|| {\r\n                        crate::autostart::replay_startup_endpoints(&broker_socket_name());\r\n                    });\r\n                    Some(broker)\r\n                }\r\n                Err(e) => {\r\n                    eprintln!(\"BROKER_BIND_FAIL: {e}\");\r\n                    None\r\n                }\r\n            };\r\n\r\n        // The digest hub (B8) holds the live per-endpoint PTY-digest projections;\r\n        // the digest-control channel serves `spt digest <id>` snapshot pulls +\r\n        // delta-stream subscribes against it. Served on a background thread like\r\n        // the broker. The per-session feed that *populates* the hub is driven by\r\n        // the brain (the parse is logic — ADR-0004 §B), wired as daemon-hosted\r\n        // sessions are spawned through the broker; a bare daemon serves the\r\n        // channel and answers \"no live digest\" until a session is hosted.\r\n        let digest_hub = Arc::new(DigestHub::new());\r\n        {\r\n            let hub = Arc::clone(&digest_hub);\r\n            thread::spawn(move || {\r\n                let _ = digesthub::serve_digest_control(&digest_socket_name(), hub);\r\n            });\r\n        }\r\n\r\n        // The drive hub (M11-W2, REQ-SHELL-3) holds the per-shell ephemeral drive\r\n        // slot — the owner→shell control surface. Broker-held like the digest hub\r","truncated":true,"truncatedBy":"lines","totalLines":1575,"totalBytes":6853,"outputLines":120,"outputBytes":6853,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"        // no-ops.\r\n        // [impl->REQ-HAZARD-STALE-INDEX-LOCK]\r\n        for lock in spt_store::branchstore::sweep_stale_index_locks(\r\n            &spt_store::contextstore::seed_git_dir(&spt_store::perch::tracked_dir()),\r\n            spt_store::branchstore::STALE_LOCK_AGE,\r\n        ) {\r\n            eprintln!(\"STALE_LOCK_SWEPT:{}\", lock.display());\r\n        }\r\n\r\n        // Serve-state boot reset (M8 decision 6, REQ-SUBNET-5): the live\r\n        // attachment state starts from the config's startup defaults — an\r\n        // unsaved attach/detach flip deliberately does not survive a daemon\r\n        // restart (`--save` is the persistence path).\r\n        // [impl->REQ-SUBNET-5]\r\n        {\r\n            let att = spt_store::attachment::AttachmentStore::reset_to(\r\n                &DaemonConfig::load().detached_subnets,\r\n            );\r\n            if let Err(e) = att.save() {\r\n                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\r\n            }\r\n            for name in &att.detached {\r\n                // Plain prose (no Markdown markers): spt-daemon can't import the\r\n                // bin-local helpfmt renderer, so this one source string is authored\r\n                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\r\n                // token is the machine contract; the rest is a human hint.\r\n                // [impl->REQ-CLI-OUTPUT-MARKDOWN]\r\n                eprintln!(\"SUBNET_DETACHED:{name} (startup default — run: spt subnet attach {name})\");\r\n            }\r\n        }\r\n\r\n        // The broker's network host (D4a, ADR-0004 §B): the node's iroh endpoint\r\n        // + live QUIC connections live in the broker so they survive a brain\r\n        // restart. Identity is the durable node.key (stable name across daemon\r\n        // restarts); relay stance comes from daemon.json; mDNS rides the\r\n        // endpoint (closing the §B mDNS/relay-session row by construction). A\r\n        // net failure degrades to a net-less broker — it must not cost PTY\r\n        // hosting (mirrors the broker-bind soft-fail below).\r\n        // [impl->REQ-DAEMON-2]\r\n        // Identity (the durable node.key) decides node_hex independently of the\r\n        // net bring-up: a NET_BIND_FAIL (e.g. the autostart beat the network up\r\n        // at boot — REQ-DAEMON-9) is transient and retried, but a broken\r\n        // identity is not, so we only arm the retry when identity is sound.\r\n        let node_hex: Option<String> = spt_store::nodeid::load_or_create()\r\n            .ok()\r\n            .map(|i| i.public_key().to_hex());\r\n        let net = if node_hex.is_some() {\r\n            try_start_net()\r\n        } else {\r\n            eprintln!(\"NODE_KEY_FAIL: identity unavailable — broker runs net-less, no retry\");\r\n            None\r\n        };\r\n\r\n        // The broker hosts PTYs (B1/B2) + the net endpoint (D4a). Serve it on a\r\n        // background thread; a bind failure there must not stop the seed channel\r\n        // (the B6 surface) — the PTY-hosting consumers arrive in B7/B8.\r\n        let net_up = net.is_some();\r\n        // Keep the broker handle alive past the bind so the brain supervisor's\r\n        // planned-restart signal can be wired into it below (ADR-0018 D3-3): the\r\n        // `KIND_BRAIN_RESTART` verb the broker serves must reach the supervisor.\r\n        let broker_handle: Option<Arc<Broker>> =\r\n            match Broker::bind_in_with_net(&broker_socket_name(), default_journal_path(), net) {\r\n                Ok(broker) => {\r\n                    let serve_broker = Arc::clone(&broker);\r\n                    thread::spawn(move || {\r\n                        let _ = serve_broker.serve();\r\n                    });\r\n                // Inbound net dispatch + outbound peer pump (D9-1) now run in\r\n                // the BRAIN child (restoration D2-1): they are pure IPC clients,\r\n                // so they live with the restartable brain and respawn with it.\r\n                // The broker keeps only the NetHost bring-up and the boot-race\r\n                // self-heal that binds it; the brain polls `net-status` and\r\n                // starts the consumers once net reports enabled.\r\n                // [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\r\n                    if !net_up && node_hex.is_some() {\r\n                        // Boot-race self-heal (REQ-DAEMON-9): net failed to bind\r\n                        // but identity is sound — almost always the autostart\r\n                        // racing the network up at boot. Retry net in the\r\n                        // background and attach it to the broker when it\r\n                        // succeeds, so the node becomes reachable WITHOUT a\r\n                        // manual restart; the brain notices `net-status` flip\r\n                        // enabled and starts the consumers then.\r\n                        // [impl->REQ-DAEMON-9]\r\n                        let broker = Arc::clone(&broker);\r\n                        thread::spawn(move || net_retry_attach(broker));\r\n                    }\r\n                    // Endpoint autostart replay (F-038 W5, REQ-ENDPOINT-AUTOSTART):\r\n                    // bring saved startup defaults back up against the broker we\r\n                    // just bound. Background thread — a saved endpoint that fails\r\n                    // to come up logs loud and never blocks daemon start, the\r\n                    // seed channel, or the other replays.\r\n                    // [impl->REQ-ENDPOINT-AUTOSTART]\r\n                    thread::spawn(|| {\r\n                        crate::autostart::replay_startup_endpoints(&broker_socket_name());\r\n                    });\r\n                    Some(broker)\r\n                }\r\n                Err(e) => {\r\n                    eprintln!(\"BROKER_BIND_FAIL: {e}\");\r\n                    None\r\n                }\r\n            };\r\n\r\n        // The digest hub (B8) holds the live per-endpoint PTY-digest projections;\r\n        // the digest-control channel serves `spt digest <id>` snapshot pulls +\r\n        // delta-stream subscribes against it. Served on a background thread like\r\n        // the broker. The per-session feed that *populates* the hub is driven by\r\n        // the brain (the parse is logic — ADR-0004 §B), wired as daemon-hosted\r\n        // sessions are spawned through the broker; a bare daemon serves the\r\n        // channel and answers \"no live digest\" until a session is hosted.\r\n        let digest_hub = Arc::new(DigestHub::new());\r\n        {\r\n            let hub = Arc::clone(&digest_hub);\r\n            thread::spawn(move || {\r\n                let _ = digesthub::serve_digest_control(&digest_socket_name(), hub);\r\n            });\r\n        }\r\n\r\n        // The drive hub (M11-W2, REQ-SHELL-3) holds the per-shell ephemeral drive\r\n        // slot — the owner→shell control surface. Broker-held like the digest hub\r","startLine":129,"lineNumbers":[129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\daemon.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1703,"totalBytes":6853,"outputLines":120,"outputBytes":6853,"shownRange":{"start":129,"end":248},"nextOffset":249}}},"isError":false,"timestamp":1784069042473}}
{"type":"message","id":"4d2b05be","parentId":"bedc3a1f","timestamp":"2026-07-14T22:44:02.564Z","message":{"role":"toolResult","toolCallId":"call_8cRlE7PcbCi9AaCnq0DCir1k|fc_0b084cf0b521ab15016a56bbb24a048190a8f0308092ca65eb","toolName":"read","content":[{"type":"text","text":"    fn dispatch_resize(&self, env: Envelope, send: &SharedSend) -> Result<(), String> {\n…\n        let (session, log) = {\n…\n            let h = sessions\n                .get(&req.session_id)\n                .ok_or_else(|| format!(\"no such session {}\", req.session_id))?;\n            (Arc::clone(&h.session), Arc::clone(&h.log))\n        };\n        if !recover_log(&log).is_controller(send) {\n            return Err(\n                \"resize is controller-exclusive: only the interactive controller may resize\"\n                    .to_string(),\n            );\n        }\n        session\n            .resize(SurfaceSize::new(req.rows, req.cols))\n            .map_err(|e| format!(\"resize failed: {e}\"))?;\n        recover_log(&log).set_size_and_notify(req.rows, req.cols);\n        Ok(())\n    }\n\n    /// Report the broker-owned net endpoint's status (D4a). Answered even when\n    /// the broker has no network host (`enabled: false`) so a brain can probe\n    /// capability without treating absence as an error.\n    // [impl->REQ-DAEMON-2]\n    fn dispatch_net_status(&self, send: &SharedSend) {\n        let reply = match self.net.get() {\n            Some(host) => NetStatusReply {\n                enabled: true,\n                node_id_hex: Some(host.node_id_hex()),\n                addr: host.addr_json(),\n                conn_count: host.conn_count(),\n            },\n            None => NetStatusReply {\n                enabled: false,\n                node_id_hex: None,\n                addr: serde_json::Value::Null,\n                conn_count: 0,\n            },\n        };\n        let frame = Envelope::new(\n            KIND_NET_STATUS_REPLY,\n            serde_json::to_value(reply).expect(\"NetStatusReply serializes\"),\n        );\n        send_frame(send, &frame);\n    }\n\n    /// Report the broker's OWN compiled image version (F-025). `env!` bakes the\n    /// version at build time, so a broker that SURVIVED a `spt update apply`\n    /// (brain-only restart, ADR-0018 D3-3) honestly reports the PRE-apply version\n    /// — the authoritative running-image truth the `daemon status` version surface\n    /// compares against the freshly-installed CLI. Sourced from the running\n    /// process, never inferred from disk (the disk is the half already ahead).\n    // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE]\n    fn dispatch_broker_image(&self, send: &SharedSend) {\n        let frame = Envelope::new(\n            KIND_BROKER_IMAGE_REPLY,\n            serde_json::to_value(BrokerImageReply {\n…\n            })\n            .expect(\"BrokerImageReply serializes\"),\n        );\n…\n    }\n\n[Showing lines 3799-3853 of 6009. Use :3854 to continue]"}],"details":{"truncation":{"content":"            let h = sessions\r\n                .get(&req.session_id)\r\n                .ok_or_else(|| format!(\"no such session {}\", req.session_id))?;\r\n            (Arc::clone(&h.session), Arc::clone(&h.log))\r\n        };\r\n        if !recover_log(&log).is_controller(send) {\r\n            return Err(\r\n                \"resize is controller-exclusive: only the interactive controller may resize\"\r\n                    .to_string(),\r\n            );\r\n        }\r\n        session\r\n            .resize(SurfaceSize::new(req.rows, req.cols))\r\n            .map_err(|e| format!(\"resize failed: {e}\"))?;\r\n        recover_log(&log).set_size_and_notify(req.rows, req.cols);\r\n        Ok(())\r\n    }\r\n\r\n    /// Report the broker-owned net endpoint's status (D4a). Answered even when\r\n    /// the broker has no network host (`enabled: false`) so a brain can probe\r\n    /// capability without treating absence as an error.\r\n    // [impl->REQ-DAEMON-2]\r\n    fn dispatch_net_status(&self, send: &SharedSend) {\r\n        let reply = match self.net.get() {\r\n            Some(host) => NetStatusReply {\r\n                enabled: true,\r\n                node_id_hex: Some(host.node_id_hex()),\r\n                addr: host.addr_json(),\r\n                conn_count: host.conn_count(),\r\n            },\r\n            None => NetStatusReply {\r\n                enabled: false,\r\n                node_id_hex: None,\r\n                addr: serde_json::Value::Null,\r\n                conn_count: 0,\r\n            },\r\n        };\r\n        let frame = Envelope::new(\r\n            KIND_NET_STATUS_REPLY,\r\n            serde_json::to_value(reply).expect(\"NetStatusReply serializes\"),\r\n        );\r\n        send_frame(send, &frame);\r\n    }\r\n\r\n    /// Report the broker's OWN compiled image version (F-025). `env!` bakes the\r\n    /// version at build time, so a broker that SURVIVED a `spt update apply`\r\n    /// (brain-only restart, ADR-0018 D3-3) honestly reports the PRE-apply version\r\n    /// — the authoritative running-image truth the `daemon status` version surface\r\n    /// compares against the freshly-installed CLI. Sourced from the running\r\n    /// process, never inferred from disk (the disk is the half already ahead).\r\n    // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE]\r\n    fn dispatch_broker_image(&self, send: &SharedSend) {\r\n        let frame = Envelope::new(\r\n            KIND_BROKER_IMAGE_REPLY,\r\n            serde_json::to_value(BrokerImageReply {\r","truncated":true,"truncatedBy":"lines","totalLines":2211,"totalBytes":2412,"outputLines":55,"outputBytes":2412,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"    fn dispatch_resize(&self, env: Envelope, send: &SharedSend) -> Result<(), String> {\n…\n        let (session, log) = {\n…\n            let h = sessions\r\n                .get(&req.session_id)\r\n                .ok_or_else(|| format!(\"no such session {}\", req.session_id))?;\r\n            (Arc::clone(&h.session), Arc::clone(&h.log))\r\n        };\r\n        if !recover_log(&log).is_controller(send) {\r\n            return Err(\r\n                \"resize is controller-exclusive: only the interactive controller may resize\"\r\n                    .to_string(),\r\n            );\r\n        }\r\n        session\r\n            .resize(SurfaceSize::new(req.rows, req.cols))\r\n            .map_err(|e| format!(\"resize failed: {e}\"))?;\r\n        recover_log(&log).set_size_and_notify(req.rows, req.cols);\r\n        Ok(())\r\n    }\r\n\r\n    /// Report the broker-owned net endpoint's status (D4a). Answered even when\r\n    /// the broker has no network host (`enabled: false`) so a brain can probe\r\n    /// capability without treating absence as an error.\r\n    // [impl->REQ-DAEMON-2]\r\n    fn dispatch_net_status(&self, send: &SharedSend) {\r\n        let reply = match self.net.get() {\r\n            Some(host) => NetStatusReply {\r\n                enabled: true,\r\n                node_id_hex: Some(host.node_id_hex()),\r\n                addr: host.addr_json(),\r\n                conn_count: host.conn_count(),\r\n            },\r\n            None => NetStatusReply {\r\n                enabled: false,\r\n                node_id_hex: None,\r\n                addr: serde_json::Value::Null,\r\n                conn_count: 0,\r\n            },\r\n        };\r\n        let frame = Envelope::new(\r\n            KIND_NET_STATUS_REPLY,\r\n            serde_json::to_value(reply).expect(\"NetStatusReply serializes\"),\r\n        );\r\n        send_frame(send, &frame);\r\n    }\r\n\r\n    /// Report the broker's OWN compiled image version (F-025). `env!` bakes the\r\n    /// version at build time, so a broker that SURVIVED a `spt update apply`\r\n    /// (brain-only restart, ADR-0018 D3-3) honestly reports the PRE-apply version\r\n    /// — the authoritative running-image truth the `daemon status` version surface\r\n    /// compares against the freshly-installed CLI. Sourced from the running\r\n    /// process, never inferred from disk (the disk is the half already ahead).\r\n    // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE]\r\n    fn dispatch_broker_image(&self, send: &SharedSend) {\r\n        let frame = Envelope::new(\r\n            KIND_BROKER_IMAGE_REPLY,\r\n            serde_json::to_value(BrokerImageReply {\r\n…\n            })\n            .expect(\"BrokerImageReply serializes\"),\n        );\n…\n    }","startLine":3794,"lineNumbers":[3794,null,3797,null,3799,3800,3801,3802,3803,3804,3805,3806,3807,3808,3809,3810,3811,3812,3813,3814,3815,3816,3817,3818,3819,3820,3821,3822,3823,3824,3825,3826,3827,3828,3829,3830,3831,3832,3833,3834,3835,3836,3837,3838,3839,3840,3841,3842,3843,3844,3845,3846,3847,3848,3849,3850,3851,3852,3853,null,3857,3858,3859,null,3861]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\broker.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":6009,"totalBytes":2412,"outputLines":55,"outputBytes":2412,"shownRange":{"start":3799,"end":3853},"nextOffset":3854}}},"isError":false,"timestamp":1784069042564}}
{"type":"message","id":"f0e68ee5","parentId":"4d2b05be","timestamp":"2026-07-14T22:44:02.677Z","message":{"role":"toolResult","toolCallId":"call_78qamMGYXAAqpdMyf2CFaKHL|fc_0b084cf0b521ab15016a56bbb249f88190b7b485f43ce9e447","toolName":"read","content":[{"type":"text","text":"fn cmd_subnet_create(name: String) -> i32 {\n…\n    if let Some(out) = result.out {\n        print!(\"{out}\");\n        let _ = std::io::stdout().flush();\n    }\n    eprintln!(\"{}\", result.msg);\n    announce_sync_home(&adopted);\n    // Hold a fresh elevated console open (Windows UAC re-launch) so the joining\n    // material stays readable before the window closes; no-op otherwise.\n    pause_elevated_console_if_fresh();\n    result.code\n}\n\n/// One subnet's status-view row: membership shape only — never seeds, epochs,\n/// or codes (M7 plan decision 5).\nstruct SubnetStatusRow {\n    name: String,\n    /// Paired nodes known for the subnet (this node included).\n    nodes: usize,\n    /// Endpoints visible in the subnet's registry snapshot.\n    endpoints: usize,\n}\n\n/// Build the status rows from the subnet store + registry snapshots + the\n/// member roster. Pure over its inputs so the view is unit-tested hermetically.\n///\n/// Node membership is ROSTER-derived (self + roster members — the durable mesh\n/// membership record, Mesh-D6), with registry-row nodes unioned in as\n/// enrichment: a member node with zero advertised endpoints (fresh box, empty\n/// owlery) is still a member, and an offline peer whose rows the 4.10 eviction\n/// decayed must not vanish from its own subnet's view. Endpoint counts stay\n/// gossip-derived and stale-tolerant (they catch up as gossip lands).\n// [impl->REQ-SUBNET-1]\nfn subnet_status_rows(\n    store: &SubnetStore,\n    regs: &std::collections::BTreeMap<String, spt_net::net::registry::SubnetRegistry>,\n    roster: &spt_store::roster::RosterStore,\n    own_hex: Option<&str>,\n    only: Option<&str>,\n) -> Vec<SubnetStatusRow> {\n    store\n        .subnets\n        .iter()\n        .filter(|s| only.is_none_or(|n| n == s.name))\n        .map(|s| {\n            let (mut nodes, mut endpoints) = (std::collections::BTreeSet::new(), 0usize);\n            if let Some(own) = own_hex {\n                nodes.insert(own.to_string());\n            }\n            for member in roster.members_in(&s.name) {\n                nodes.insert(member.pubkey_hex.clone());\n            }\n            if let Some(reg) = regs.get(&s.name) {\n                for id in reg.endpoint_ids() {\n                    endpoints += 1;\n                    for inst in reg.instances(id) {\n                        nodes.insert(inst.node.clone());\n                    }\n                }\n            }\n            // This node is a member even when its identity could not load.\n            SubnetStatusRow {\n                name: s.name.clone(),\n                nodes: nodes.len().max(1),\n                endpoints,\n            }\n        })\n        .collect()\n}\n\n/// Render the status view (M7 plan decision 5, amended by M8 decisions\n/// 11–12): aligned rows; **daemon-aware** standalone text on zero subnets\n/// (never implies messaging works while the daemon is down); the hint\n/// footer rides only the bare `spt subnet` view (`hints`).\n// [impl->REQ-SUBNET-1]\n// [impl->REQ-SUBNET-8]\nfn render_subnet_status(rows: &[SubnetStatusRow], daemon_running: bool, hints: bool) -> String {\n    let mut out = String::new();\n    if rows.is_empty() {\n        out.push_str(standalone_text(daemon_running));\n    } else {\n        let pad = rows\n            .iter()\n            .map(|r| r.name.len())\n            .max()\n            .unwrap_or(0)\n            .max(\"SUBNET\".len());\n        out.push_str(&format!(\"{:<pad$}  NODES  ENDPOINTS\\n\", \"SUBNET\"));\n        for r in rows {\n            out.push_str(&format!(\n                \"{:<pad$}  {:<5}  {}\\n\",\n                r.name, r.nodes, r.endpoints\n            ));\n        }\n    }\n    if hints {\n        out.push_str(HINT_FOOTER);\n    }\n    out\n}\n\n/// The zero-subnet standalone text (M8 decision 11): what messaging can do\n/// right now depends on the daemon, so the blurb is daemon-state-keyed —\n/// the old text read as \"working\" even when the daemon was down.\n// [impl->REQ-SUBNET-8]\nfn standalone_text(daemon_running: bool) -> &'static str {\n    if daemon_running {\n        \"No subnets registered — this node is standalone.\\n\\\n         Local messaging works on this node; a subnet links your machines into one fabric.\\n\"\n    } else {\n        \"No subnets registered — this node is standalone.\\n\\\n         The daemon is NOT running — nothing is served until something starts it \\\n         (any spt command auto-starts it, or `spt daemon run`).\\n\"\n    }\n}\n\n/// The peer-pump stall warning (M8 decision 23 / REQ-SUBNET-8): rendered in\n/// the subnet status views when the daemon is up but the pump's heartbeat\n/// is older than 3 advertisement cadences — a half-dead daemon (the\n/// 2026-06-07 hfenduleam shape) must never render implied-healthy. `None` =\n/// no warning (heartbeat fresh, or never written — a pre-D4 daemon).\n// [impl->REQ-SUBNET-8]\nfn pump_stall_warning(now: u64) -> Option<String> {\n    let at = spt_daemon::read_pump_heartbeat()?;\n    let stale_after = 3 * spt_daemon::DaemonConfig::load()\n        .registry_pump_period\n        .as_millis() as u64;\n    let age = now.saturating_sub(at);\n    (age > stale_after).then(|| {\n        format!(\n            \"warning: peer pump STALLED ({}s since last tick) — subnet advertising/\\\n             connecting is not running; restart the daemon\\n\",\n            age / 1000\n        )\n    })\n}\n\n/// The daemon-offline caveat for the POPULATED status views (REQ-SUBNET-8): a\n/// stopped daemon serves nothing and cannot observe live reachability, so the\n/// node rows are last-known gossip — not live state. Say so rather than render\n/// an implied-healthy \"online\" beside a stopped daemon (the `daemon stop` →\n/// `subnet status --nodes` still-\"online\" confusion). The zero-subnet view is\n/// already daemon-keyed by `standalone_text`; this covers the rows case. `None`\n/// when the daemon is up (the stall / inbound hints own that state).\n// [impl->REQ-SUBNET-8]\nfn daemon_offline_hint(daemon_running: bool) -> Option<String> {\n    (!daemon_running).then(|| {\n        \"warning: the spt-core daemon is NOT running on this node — these rows are last-known \\\n         gossip, not live reachability; start it with any spt command (or `spt daemon run`).\\n\"\n            .to_string()\n    })\n}\n\n/// The Windows blocked-inbound hint (M8 root cause 3, REQ-INSTALL-7's\n/// render half): a fresh user-scope install never triggers the first-bind\n/// firewall prompt, so inbound UDP (mDNS + QUIC meet/pairing) drops with no\n/// rendered cause — the M7 NO_SEED_HOLDER dead-end. When the installer's\n/// named rule is absent, say so with the exact fix; when the probe itself\n/// fails or times out, say nothing (never alarm off a broken probe).\n/// Non-Windows: no firewall story to tell.\n// [impl->REQ-INSTALL-7]\nfn inbound_block_hint() -> Option<String> {\n    #[cfg(windows)]\n    {\n        if windows_inbound_rule_present() == Some(false) {\n            let exe = std::env::current_exe()\n                .map(|p| p.display().to_string())\n                .unwrap_or_else(|_| \"<path to spt.exe>\".to_string());\n            return Some(format!(\n                \"warning: no Windows Firewall inbound rule for spt — joins/pairing toward \\\n                 this node may be silently blocked (the NO_SEED_HOLDER shape). Run the \\\n                 installer elevated, or add the rule:\\n  netsh advfirewall firewall add \\\n                 rule name=\\\"spt-core inbound UDP\\\" dir=in action=allow protocol=UDP \\\n                 program=\\\"{exe}\\\"\\n\"\n            ));\n        }\n        None\n    }\n    #[cfg(not(windows))]\n    {\n        None\n    }\n}\n\n/// Whether the installer's named inbound-UDP rule exists, via a BOUNDED\n/// `netsh` probe (KNOWN-HAZARDS 5.3: every subprocess has a timeout — a\n/// wedged netsh costs 3s, never a hang). `None` = probe failed/timed out\n/// (the caller stays silent rather than alarm on a broken probe).\n// [impl->REQ-HAZARD-SUBPROCESS-TIMEOUT]\n#[cfg(windows)]\nfn windows_inbound_rule_present() -> Option<bool> {\n    let (tx, rx) = std::sync::mpsc::channel();\n    std::thread::spawn(move || {\n        let out = std::process::Command::new(\"netsh\")\n            .args([\n                \"advfirewall\",\n                \"firewall\",\n                \"show\",\n                \"rule\",\n                \"name=spt-core inbound UDP\",\n            ])\n            .output();\n        let _ = tx.send(out);\n    });\n    match rx.recv_timeout(Duration::from_secs(3)) {\n        Ok(Ok(out)) => Some(out.status.success()),\n        _ => None,\n    }\n}\n\n/// The bare-`spt subnet` hint footer (M7 plan decision 5, narrowed by M8\n/// decision 12: `spt subnet status` is a reading view and drops it).\nconst HINT_FOOTER: &str = \"\\nhint: `spt subnet create <name>` mints a new subnet on this machine\\n\\\n     hint: `spt subnet join <name>` pairs this machine into one (elevated)\\n\\\n     hint: `spt subnet show-code [name]` shows a subnet's joining code (elevated)\\n\";\n\n/// One node's `status --nodes` row (M7 plan decision 6): identity, advertised\n/// label, endpoint counts, and the gossip-recency liveness verdict.\nstruct NodeRow {\n    node: String,\n    label: Option<String>,\n    /// Active (listening-now) endpoint rows on this node.\n    active: usize,\n    /// All endpoint rows on this node.\n    total: usize,\n    liveness: NodeLiveness,\n}\n\n/// The gossip-recency half of the hybrid liveness decision (M7 plan decision\n/// 6): the cheap signals settle most rows; only [`Probe`](NodeLiveness::Probe)\n/// rows cost a dial.\n#[derive(Debug, Clone, Copy, PartialEq, Eq)]\nenum NodeLiveness {\n    Online,\n    Offline,\n    /// Gossip can't say (not heard recently, rows not all-Offline) — dial it.\n    Probe,\n}\n\n/// A node's render form for the `--nodes` table (REQ-SUBNET-3): the advertised\n/// label alone (`KITSUBITO`) when it is unambiguous; the key prefix appended\n/// (`KITSUBITO (225253f8…)`) only when `ambiguous` — another rendered node\n/// shares the label, so the prefix is the disambiguator the addressing layer\n/// would force anyway; the bare prefix (`225253f8…`) when unlabeled.\nfn node_display(node: &str, label: Option<&str>, ambiguous: bool) -> String {\n    let pfx = spt_net::net::registry::key_prefix(node);\n    match label {\n        Some(l) if ambiguous => format!(\"{l} ({pfx}…)\"),\n        Some(l) => l.to_string(),\n        None => format!(\"{pfx}…\"),\n    }\n}\n\n/// Build one subnet's per-node rows with the gossip-recency verdict. Pure\n/// over its inputs (the probe is the caller's impure follow-up).\n///\n/// `members` seeds the row set — `(node_hex, label)` for self + every\n/// trust-pinned peer — so a member with zero registry rows still renders\n/// (`[0/0]`): a fresh box has no endpoints yet, and an offline peer's rows\n/// decay under the 4.10 eviction; neither may vanish from the view.\n/// Liveness: own node → online (we are running); rows all-Offline →\n/// offline; heard within `stale_after_ms` → online; otherwise (including\n/// a rowless member — absence is not evidence) → probe.\n// [impl->REQ-SUBNET-1]\nfn node_status_rows(\n    reg: &spt_net::net::registry::SubnetRegistry,\n    members: &[(String, Option<String>)],\n    heard: &std::collections::BTreeMap<String, u64>,\n    own_hex: &str,\n    now_ms: u64,\n    stale_after_ms: u64,\n) -> Vec<NodeRow> {\n    use spt_net::net::registry::Status;\n    // node → (label, active, routable_total, any_routable, raw_total)\n    //\n    // Bug #2 (REQ-SUBNET-COUNT-ROUTABLE): the displayed denominator counts\n    // ROUTABLE rows only. `endpoint purge` is not a registry eviction — it gossips\n    // a one-shot Offline row that is immortal on a remote viewer (eviction is\n    // per-whole-node), so an unconditional total let purged endpoints accumulate\n    // and the remote `[active/total]` count drifted (0/2, 1/3). A separate RAW\n    // count (any row at all, incl Offline) still drives the all-Offline liveness\n    // signal below — that branch needs to know a row EXISTS, not that it routes.\n    let mut by_node: std::collections::BTreeMap<\n        String,\n        (Option<String>, usize, usize, bool, usize),\n    > = std::collections::BTreeMap::new();\n    for (node, label) in members {\n        let e = by_node.entry(node.clone()).or_default();\n        if e.0.is_none() {\n            e.0 = label.clone();\n        }\n    }\n    for id in reg.endpoint_ids() {\n        for inst in reg.instances(id) {\n            let e = by_node.entry(inst.node.clone()).or_default();\n            if e.0.is_none() {\n                e.0 = inst.node_label.clone();\n            }\n            e.1 += usize::from(inst.status == Status::Active);\n            // [impl->REQ-SUBNET-COUNT-ROUTABLE] routable-only denominator (e.2) +\n            // separate raw count (e.4) for the all-Offline liveness signal below.\n            e.2 += usize::from(inst.status.routable());\n            e.3 |= inst.status.routable();\n            e.4 += 1;\n        }\n    }\n    // Node-level labels (REQ-SUBNET-3): name an ENDPOINT-LESS peer that has no\n    // instance row to carry its hostname. Fill-only — never create a row (a\n    // label is not an endpoint, so it must not add a phantom `[0/total]` row or\n    // touch the liveness math) and never override a trust/instance label\n    // already resolved. A node in the label map but not already a known member\n    // is ignored: absence from members means it is not ours to show.\n    for (node, label) in reg.node_labels() {\n        if let Some(e) = by_node.get_mut(node) {\n            if e.0.is_none() {\n                e.0 = Some(label.to_string());\n            }\n        }\n    }\n    by_node\n        .into_iter()\n        .map(|(node, (label, active, total, any_routable, raw_total))| {\n            let liveness = if node == own_hex {\n                NodeLiveness::Online\n            } else if raw_total > 0 && !any_routable {\n                NodeLiveness::Offline\n            } else if heard\n                .get(&node)\n                .is_some_and(|&at| now_ms.saturating_sub(at) <= stale_after_ms)\n            {\n                NodeLiveness::Online\n            } else {\n                NodeLiveness::Probe\n            };\n            NodeRow {\n                node,\n                label,\n                active,\n                total,\n                liveness,\n            }\n        })\n        .collect()\n}\n\n/// Render one subnet's `--nodes` table from probe-settled rows.\n// [impl->REQ-SUBNET-1] [impl->REQ-SUBNET-3]\nfn render_node_rows(subnet: &str, rows: &[(NodeRow, bool)]) -> String {\n    let mut out = format!(\"SUBNET {subnet}\\n\");\n    if rows.is_empty() {\n        out.push_str(\"  (no gossip yet — pair another machine, or wait one pump cadence)\\n\");\n        return out;\n    }\n    // A label is unambiguous unless two rendered nodes share it (two boxes on\n    // the same hostname) — only then does the key-prefix disambiguator appear.\n    let mut label_counts: std::collections::BTreeMap<&str, usize> =\n        std::collections::BTreeMap::new();\n    for (r, _) in rows {\n        if let Some(l) = r.label.as_deref() {\n            *label_counts.entry(l).or_default() += 1;\n        }\n    }\n    let names: Vec<String> = rows\n        .iter()\n        .map(|(r, _)| {\n            let ambiguous = r\n                .label\n                .as_deref()\n                .is_some_and(|l| label_counts.get(l).copied().unwrap_or(0) > 1);\n            node_display(&r.node, r.label.as_deref(), ambiguous)\n        })\n        .collect();\n    let pad = names\n        .iter()\n        .map(|n| n.chars().count())\n        .max()\n        .unwrap_or(0)\n        .max(\"NODE\".len());\n    out.push_str(&format!(\"  {:<pad$}  STATUS   ENDPOINTS\\n\", \"NODE\"));\n    for ((row, online), name) in rows.iter().zip(&names) {\n        // Pad by char count, not byte len ('…' is multi-byte).\n        let fill = \" \".repeat(pad - name.chars().count());\n        out.push_str(&format!(\n            \"  {name}{fill}  {:<7}  [{}/{}]\\n\",\n            if *online { \"online\" } else { \"offline\" },\n            row.active,\n            row.total,\n        ));\n    }\n    out\n}\n\n/// Probe a stale node: dial it over the broker's QUIC endpoint (the hybrid\n/// liveness's expensive half — spent only on rows gossip could not settle).\n/// Any failure (daemon down, no address, dial refused/timed out) reads\n/// offline — fail-quiet, this is a status view.\n/// Run `f` on a scratch thread, returning its result — or `on_timeout` if it\n/// does not finish within `dur`. KH 5.3 (\"every blocking op gets a timeout\")\n/// generalized to a network op: the abandoned thread finishes harmlessly.\nfn run_bounded<T: Send + 'static>(\n    dur: std::time::Duration,\n    on_timeout: T,\n    f: impl FnOnce() -> T + Send + 'static,\n) -> T {\n    let (tx, rx) = std::sync::mpsc::channel();\n    std::thread::spawn(move || {\n        let _ = tx.send(f());\n    });\n    rx.recv_timeout(dur).unwrap_or(on_timeout)\n}\n\n/// Per-node probe ceiling. An id-only dial to a dead peer otherwise runs the\n/// full iroh discovery+connect timeout (~30s, observed live on the M8\n/// acceptance rig); a node that can't finish a subnet-scoped handshake in a\n/// couple seconds reads offline for liveness purposes. The probe itself\n/// (`probe_node_serving`, wansend.rs) is subnet-scoped per REQ-SUBNET-5: dial\n/// (proves reachable) THEN ask \"serving `subnet`?\", so a detached-but-alive\n/// peer reads offline for that subnet.\nconst PROBE_TIMEOUT: std::time::Duration = std::time::Duration::from_millis(2500);\n/// In-flight cap for the concurrent `--nodes` probe fan-out (REQ-MESH-6): a\n/// small fixed pool so a 200-member subnet can't open 200 simultaneous broker\n/// IPC conns + dials at once. `k ≤ cap` ⇒ one ceiling; `k > cap` ⇒\n/// `ceil(k/cap)` ceilings (logged — no silent truncation of the wait).\nconst MAX_INFLIGHT: usize = 16;\n\n/// Run every `(node, subnet)` probe CONCURRENTLY; collect results in input\n/// order. Wall-time ≈ ONE `ceiling` when `items.len() <= max_inflight`,\n/// else `ceil(k / max_inflight)` ceilings. The mesh widen (D6) makes a node\n/// see ALL roster members — many silent — so the serial per-node `probe_node`\n/// loop cost `offline_count × ceiling`; this fans it out (REQ-MESH-6). `probe`\n/// is INJECTED so the unit test passes a deterministic sleeper (no network);\n/// the real site passes `probe_node_serving`. Each probe still runs on its own\n/// thread under its own `recv_timeout(ceiling)` bound (via `run_bounded`), so\n/// one wedged dial costs ONE ceiling, never the batch — KH 5.3 preserved.\n// [impl->REQ-MESH-6]\nfn probe_all<F>(\n    items: &[(String, String)],\n    ceiling: std::time::Duration,\n    max_inflight: usize,\n    probe: F,\n) -> Vec<bool>\nwhere\n    F: Fn(&str, &str) -> bool + Send + Sync + 'static,\n{\n    if items.is_empty() {\n        return Vec::new();\n    }\n    let cap = max_inflight.max(1);\n    if items.len() > cap {\n        eprintln!(\n            \"Probing {} nodes in batches of {} — wait may be a small multiple of the probe ceiling.\",\n            items.len(),\n            cap\n        );\n        let _ = std::io::stderr().flush();\n    }\n    let probe = std::sync::Arc::new(probe);\n    let mut out = vec![false; items.len()];\n    // Process in windows of `cap`: each window spawns one bounded thread per\n    // item and joins before the next, so in-flight never exceeds `cap` and\n    // every window is bounded by one `ceiling`. Wall ≈ ceil(k/cap)×ceiling.\n    for (wi, window) in items.chunks(cap).enumerate() {\n        let base = wi * cap;\n        let handles: Vec<(usize, std::thread::JoinHandle<bool>)> = window\n            .iter()\n            .enumerate()\n            .map(|(off, (node, subnet))| {\n                let probe = probe.clone();\n                let node = node.clone();\n                let subnet = subnet.clone();\n                (\n                    base + off,\n                    std::thread::spawn(move || {\n                        run_bounded(ceiling, false, move || probe(&node, &subnet))\n                    }),\n                )\n            })\n            .collect();\n        for (idx, h) in handles {\n            out[idx] = h.join().unwrap_or(false);\n        }\n    }\n    out\n}\n\n/// Render the coming-online banner's \"spt subnets joined\" section + the\n/// concluding divider: header, underline, one `NAME: <state>` row per held\n/// subnet (`(none)` when empty), divider. Pure for tests.\n// [impl->REQ-DAEMON-3]\nfn render_subnets_joined(rows: &[(String, &'static str)]) -> String {\n    let mut out = String::from(\"spt subnets joined\\n──────────────────\\n\");\n    if rows.is_empty() {\n        out.push_str(\"  (none)\\n\");\n    } else {\n        for (name, state) in rows {\n            out.push_str(&format!(\"  {name}: {state}\\n\"));\n        }\n    }\n    out.push_str(\"────────────────────────────────────────\\n\");\n    out\n}\n\n/// Ensure the per-machine daemon is up for a daemon-dependent command —\n/// silent when it already runs; otherwise announce the transition on\n/// stderr (stdout stays payload-pure) and conclude with a divider before\n/// the command's own output (grill 2026-06-06). The membership-creating\n/// verbs call this because **membership implies reachability** (CONTEXT\n/// §subnet attachment): a sole seed-holder with no responder daemon is a\n/// contradiction of the subnet's purpose.\n// [impl->REQ-SUBNET-2] [impl->REQ-DAEMON-3]\nfn ensure_daemon_announced() -> Result<(), i32> {\n    if spt_daemon::is_running() {\n        return Ok(());\n    }\n    eprintln!(\"spt-core daemon is offline - coming online...\");\n    if let Err(e) = spt_daemon::ensure_running() {\n        eprintln!(\"DAEMON_START_FAIL: {e}\");\n        return Err(1);\n    }\n    let ident = node_ident_display();\n    eprintln!(\"spt-core daemon: online - {ident}\");\n    // Attachment states per subnet (M8 decision 6, REQ-SUBNET-5): detached\n    // is a chosen per-subnet state; a net-less daemon (endpoint bind\n    // failed) serves nothing — \"no connection\", never conflated with a\n    // deliberate detach (CONTEXT §subnet attachment).\n    let net_up = spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms())\n        .ok()\n        .and_then(|mut b| b.net_status().ok())\n        .map(|s| s.enabled)\n        .unwrap_or(true); // can't ask ⇒ assume serving rather than alarm\n    let att = spt_store::attachment::AttachmentStore::load();\n    let rows: Vec<(String, &'static str)> = SubnetStore::load()\n        .subnets\n        .iter()\n        .map(|s| {\n            let state = if att.is_detached(&s.name) {\n                \"detached\"\n            } else if net_up {\n                \"attached\"\n            } else {\n                \"no connection\"\n            };\n            (s.name.clone(), state)\n        })\n        .collect();\n    eprint!(\"{}\", render_subnets_joined(&rows));\n    // Blocked-inbound honesty on the coming-online banner too (M8 root\n    // cause 3, REQ-INSTALL-7): a fresh user-scope install learns NOW, not\n    // after a silent NO_SEED_HOLDER join failure.\n    if let Some(w) = inbound_block_hint() {\n        eprint!(\"{w}\");\n    }\n    Ok(())\n}\n\n/// `spt subnet status` --json: the membership rows (a copy of\n/// `SubnetStatusRow`), plus the per-node rows (a copy of `NodeRow` + the\n/// probe-settled liveness) when `--nodes` is set. Internal structs stay free to\n/// refactor — these are the committed shape.\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct SubnetStatusJson {\n    daemon_running: bool,\n    subnets: Vec<SubnetRowJson>,\n}\n\n/// One subnet's membership-shape row (mirrors `SubnetStatusRow`). `nodes`\n/// (per-node detail) is present only on the `--nodes` view; otherwise empty.\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct SubnetRowJson {\n    name: String,\n    node_count: usize,\n    endpoint_count: usize,\n    nodes: Vec<NodeRowJson>,\n}\n\n/// One node's `--nodes` row (mirrors `NodeRow` + the settled liveness verdict).\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct NodeRowJson {\n    node: String,\n    label: Option<String>,\n    active: usize,\n    total: usize,\n    online: bool,\n}\n\n/// `spt subnet [status [NAME] [--nodes]]` — the membership view (REQ-SUBNET-1,\n/// M7 plan decisions 5 + 6; M8 decisions 11–12, 23). Read-only and ungated:\n/// prints membership shape, never secrets. `hints` = the bare-`spt subnet`\n/// invocation (the footer rides only that view).\n// [impl->REQ-SUBNET-1]\n// [impl->REQ-SUBNET-8]\nfn cmd_subnet_status(name: Option<String>, nodes: bool, hints: bool, json: bool) -> i32 {\n    let store = SubnetStore::load();\n    if let Some(n) = &name {\n        if store.find(n).is_none() {\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\n            return 2;\n        }\n    }\n    let daemon_running = spt_daemon::is_running();\n    let stall = if daemon_running {\n        pump_stall_warning(now_ms())\n    } else {\n        None\n    };\n    // Blocked-inbound honesty (REQ-INSTALL-7): only worth checking when the\n    // daemon serves — a stopped daemon is the bigger headline already.\n    let inbound = if daemon_running {\n        inbound_block_hint()\n    } else {\n        None\n    };\n    let snap_dir = perch::identity_dir().join(\"registry\");\n    let regs = crate::wansend::load_snapshots(&snap_dir);\n    let roster = spt_store::roster::RosterStore::load();\n    let own_hex = spt_store::nodeid::load_or_create()\n        .map(|i| i.public_key().to_hex())\n        .unwrap_or_default();\n    if !nodes {\n        let rows = subnet_status_rows(\n            &store,\n            &regs,\n            &roster,\n            Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\n            name.as_deref(),\n        );\n        // [impl->REQ-CLI-JSON] The membership view without per-node detail.\n        if json {\n            let subnets = rows\n                .iter()\n                .map(|r| SubnetRowJson {\n                    name: r.name.clone(),\n                    node_count: r.nodes,\n                    endpoint_count: r.endpoints,\n                    nodes: Vec::new(),\n                })\n                .collect();\n            return print_json(&SubnetStatusJson {\n                daemon_running,\n                subnets,\n            });\n        }\n        let mut out = render_subnet_status(&rows, daemon_running, hints);\n        if let Some(w) = daemon_offline_hint(daemon_running) {\n            out.push_str(&w);\n        }\n        if let Some(w) = stall {\n            out.push_str(&w);\n        }\n        if let Some(w) = inbound {\n            out.push_str(&w);\n        }\n        // Human status view: render the assembled prose (HINT_FOOTER /\n        // standalone_text / pump_stall_warning / daemon_offline_hint /\n        // inbound_block_hint all flow through here). Node-id rows carry no\n        // Markdown markers, so only the hints restyle/strip.\n        // [impl->REQ-CLI-OUTPUT-MARKDOWN]\n        print!(\"{}\", crate::helpfmt::render(&out, crate::helpfmt::stdout_color()));\n        let _ = std::io::stdout().flush();\n        return 0;\n    }\n\n    // --nodes: per-node rows under the hybrid liveness (decision 6).\n    let heard: std::collections::BTreeMap<String, u64> = std::fs::read(\n        spt_daemon::registryhost::RegistryHost::heard_path(&snap_dir),\n    )\n    .ok()\n    .and_then(|b| serde_json::from_slice(&b).ok())\n    .unwrap_or_default();\n    // Stale = silent for 3 advertisement cadences (the daemon re-gossips\n    // every pump period; missing a couple is jitter, missing three is news).\n    let stale_after_ms = 3 * spt_daemon::DaemonConfig::load()\n        .registry_pump_period\n        .as_millis() as u64;\n    // Pass 1: classify every matching subnet's rows (pure `node_status_rows`),\n    // collecting the silent (Probe) ones into ONE cross-subnet work-list. The\n    // fan-out spans the whole view so a multi-subnet status pays one ceiling\n    // total, not one per subnet.\n    let mut per_subnet: Vec<(String, Vec<NodeRow>)> = Vec::new();\n    let mut worklist: Vec<(String, String)> = Vec::new();\n    for sub in &store.subnets {\n        if name.as_deref().is_some_and(|n| n != sub.name) {\n            continue;\n        }\n        let empty = spt_net::net::registry::SubnetRegistry::new();\n        let reg = regs.get(&sub.name).unwrap_or(&empty);\n        // Membership seed: self + roster members (rowless members still\n        // render — fresh boxes and eviction-decayed offline peers alike).\n        let mut members: Vec<(String, Option<String>)> = Vec::new();\n        if !own_hex.is_empty() {\n            members.push((own_hex.clone(), spt_store::hostlabel::os_hostname()));\n        }\n        for member in roster.members_in(&sub.name) {\n            let label = (!member.label.is_empty()).then(|| member.label.clone());\n            members.push((member.pubkey_hex.clone(), label));\n        }\n        let rows = node_status_rows(reg, &members, &heard, &own_hex, now_ms(), stale_after_ms);\n        for r in &rows {\n            if r.liveness == NodeLiveness::Probe {\n                worklist.push((r.node.clone(), sub.name.clone()));\n            }\n        }\n        per_subnet.push((sub.name.clone(), rows));\n    }\n    // Announce the probe phase once, before any dial — silent nodes cost a\n    // bounded dial each and the user should know what the wait is for.\n    if !worklist.is_empty() {\n        eprintln!(\"Checking remote nodes…\");\n        let _ = std::io::stderr().flush();\n    }\n    // Pass 2: one CONCURRENT batch across ALL subnets (REQ-MESH-6). Wall ≈ one\n    // PROBE_TIMEOUT (bounded by MAX_INFLIGHT), not k×PROBE_TIMEOUT serial.\n    let probed = probe_all(&worklist, PROBE_TIMEOUT, MAX_INFLIGHT, |n, s| {\n        crate::wansend::probe_node_serving(n, s)\n    });\n    // Pass 3: stitch results back in row order — the work-list was filled in\n    // row order, so a single cursor walks it deterministically. Render is\n    // unchanged (`render_node_rows`), so output matches the old serial path.\n    let mut cursor = 0usize;\n    let mut out = String::new();\n    // [impl->REQ-CLI-JSON] Collect the settled rows per subnet so the machine\n    // view emits the same probe-settled liveness the human table renders.\n    let mut json_subnets: Vec<SubnetRowJson> = Vec::new();\n    for (sub_name, rows) in per_subnet {\n        let settled: Vec<(NodeRow, bool)> = rows\n            .into_iter()\n            .map(|r| {\n                let online = match r.liveness {\n                    NodeLiveness::Online => true,\n                    NodeLiveness::Offline => false,\n                    NodeLiveness::Probe => {\n                        let v = probed.get(cursor).copied().unwrap_or(false);\n                        cursor += 1;\n                        v\n                    }\n                };\n                (r, online)\n            })\n            .collect();\n        if json {\n            let node_rows: Vec<NodeRowJson> = settled\n                .iter()\n                .map(|(r, online)| NodeRowJson {\n                    node: r.node.clone(),\n                    label: r.label.clone(),\n                    active: r.active,\n                    total: r.total,\n                    online: *online,\n                })\n                .collect();\n            json_subnets.push(SubnetRowJson {\n                name: sub_name.clone(),\n                node_count: node_rows.len(),\n                endpoint_count: node_rows.iter().map(|n| n.total).sum(),\n                nodes: node_rows,\n            });\n        }\n        out.push_str(&render_node_rows(&sub_name, &settled));\n    }\n    // [impl->REQ-CLI-JSON]\n    if json {\n        return print_json(&SubnetStatusJson {\n            daemon_running,\n            subnets: json_subnets,\n        });\n    }\n    if out.is_empty() {\n        out.push_str(standalone_text(daemon_running));\n    }\n    if let Some(w) = daemon_offline_hint(daemon_running) {\n        out.push_str(&w);\n    }\n    if let Some(w) = stall {\n        out.push_str(&w);\n    }\n    if let Some(w) = inbound {\n        out.push_str(&w);\n    }\n    if hints {\n        out.push_str(HINT_FOOTER);\n    }\n    // Same human status view as the non-`--nodes` branch — render the prose.\n    // [impl->REQ-CLI-OUTPUT-MARKDOWN]\n…\n}\n\n[Showing lines 6699-7483 of 17537. Use :7484 to continue]"}],"details":{"truncation":{"content":"    if let Some(out) = result.out {\r\n        print!(\"{out}\");\r\n        let _ = std::io::stdout().flush();\r\n    }\r\n    eprintln!(\"{}\", result.msg);\r\n    announce_sync_home(&adopted);\r\n    // Hold a fresh elevated console open (Windows UAC re-launch) so the joining\r\n    // material stays readable before the window closes; no-op otherwise.\r\n    pause_elevated_console_if_fresh();\r\n    result.code\r\n}\r\n\r\n/// One subnet's status-view row: membership shape only — never seeds, epochs,\r\n/// or codes (M7 plan decision 5).\r\nstruct SubnetStatusRow {\r\n    name: String,\r\n    /// Paired nodes known for the subnet (this node included).\r\n    nodes: usize,\r\n    /// Endpoints visible in the subnet's registry snapshot.\r\n    endpoints: usize,\r\n}\r\n\r\n/// Build the status rows from the subnet store + registry snapshots + the\r\n/// member roster. Pure over its inputs so the view is unit-tested hermetically.\r\n///\r\n/// Node membership is ROSTER-derived (self + roster members — the durable mesh\r\n/// membership record, Mesh-D6), with registry-row nodes unioned in as\r\n/// enrichment: a member node with zero advertised endpoints (fresh box, empty\r\n/// owlery) is still a member, and an offline peer whose rows the 4.10 eviction\r\n/// decayed must not vanish from its own subnet's view. Endpoint counts stay\r\n/// gossip-derived and stale-tolerant (they catch up as gossip lands).\r\n// [impl->REQ-SUBNET-1]\r\nfn subnet_status_rows(\r\n    store: &SubnetStore,\r\n    regs: &std::collections::BTreeMap<String, spt_net::net::registry::SubnetRegistry>,\r\n    roster: &spt_store::roster::RosterStore,\r\n    own_hex: Option<&str>,\r\n    only: Option<&str>,\r\n) -> Vec<SubnetStatusRow> {\r\n    store\r\n        .subnets\r\n        .iter()\r\n        .filter(|s| only.is_none_or(|n| n == s.name))\r\n        .map(|s| {\r\n            let (mut nodes, mut endpoints) = (std::collections::BTreeSet::new(), 0usize);\r\n            if let Some(own) = own_hex {\r\n                nodes.insert(own.to_string());\r\n            }\r\n            for member in roster.members_in(&s.name) {\r\n                nodes.insert(member.pubkey_hex.clone());\r\n            }\r\n            if let Some(reg) = regs.get(&s.name) {\r\n                for id in reg.endpoint_ids() {\r\n                    endpoints += 1;\r\n                    for inst in reg.instances(id) {\r\n                        nodes.insert(inst.node.clone());\r\n                    }\r\n                }\r\n            }\r\n            // This node is a member even when its identity could not load.\r\n            SubnetStatusRow {\r\n                name: s.name.clone(),\r\n                nodes: nodes.len().max(1),\r\n                endpoints,\r\n            }\r\n        })\r\n        .collect()\r\n}\r\n\r\n/// Render the status view (M7 plan decision 5, amended by M8 decisions\r\n/// 11–12): aligned rows; **daemon-aware** standalone text on zero subnets\r\n/// (never implies messaging works while the daemon is down); the hint\r\n/// footer rides only the bare `spt subnet` view (`hints`).\r\n// [impl->REQ-SUBNET-1]\r\n// [impl->REQ-SUBNET-8]\r\nfn render_subnet_status(rows: &[SubnetStatusRow], daemon_running: bool, hints: bool) -> String {\r\n    let mut out = String::new();\r\n    if rows.is_empty() {\r\n        out.push_str(standalone_text(daemon_running));\r\n    } else {\r\n        let pad = rows\r\n            .iter()\r\n            .map(|r| r.name.len())\r\n            .max()\r\n            .unwrap_or(0)\r\n            .max(\"SUBNET\".len());\r\n        out.push_str(&format!(\"{:<pad$}  NODES  ENDPOINTS\\n\", \"SUBNET\"));\r\n        for r in rows {\r\n            out.push_str(&format!(\r\n                \"{:<pad$}  {:<5}  {}\\n\",\r\n                r.name, r.nodes, r.endpoints\r\n            ));\r\n        }\r\n    }\r\n    if hints {\r\n        out.push_str(HINT_FOOTER);\r\n    }\r\n    out\r\n}\r\n\r\n/// The zero-subnet standalone text (M8 decision 11): what messaging can do\r\n/// right now depends on the daemon, so the blurb is daemon-state-keyed —\r\n/// the old text read as \"working\" even when the daemon was down.\r\n// [impl->REQ-SUBNET-8]\r\nfn standalone_text(daemon_running: bool) -> &'static str {\r\n    if daemon_running {\r\n        \"No subnets registered — this node is standalone.\\n\\\r\n         Local messaging works on this node; a subnet links your machines into one fabric.\\n\"\r\n    } else {\r\n        \"No subnets registered — this node is standalone.\\n\\\r\n         The daemon is NOT running — nothing is served until something starts it \\\r\n         (any spt command auto-starts it, or `spt daemon run`).\\n\"\r\n    }\r\n}\r\n\r\n/// The peer-pump stall warning (M8 decision 23 / REQ-SUBNET-8): rendered in\r\n/// the subnet status views when the daemon is up but the pump's heartbeat\r\n/// is older than 3 advertisement cadences — a half-dead daemon (the\r\n/// 2026-06-07 hfenduleam shape) must never render implied-healthy. `None` =\r\n/// no warning (heartbeat fresh, or never written — a pre-D4 daemon).\r\n// [impl->REQ-SUBNET-8]\r\nfn pump_stall_warning(now: u64) -> Option<String> {\r\n    let at = spt_daemon::read_pump_heartbeat()?;\r\n    let stale_after = 3 * spt_daemon::DaemonConfig::load()\r\n        .registry_pump_period\r\n        .as_millis() as u64;\r\n    let age = now.saturating_sub(at);\r\n    (age > stale_after).then(|| {\r\n        format!(\r\n            \"warning: peer pump STALLED ({}s since last tick) — subnet advertising/\\\r\n             connecting is not running; restart the daemon\\n\",\r\n            age / 1000\r\n        )\r\n    })\r\n}\r\n\r\n/// The daemon-offline caveat for the POPULATED status views (REQ-SUBNET-8): a\r\n/// stopped daemon serves nothing and cannot observe live reachability, so the\r\n/// node rows are last-known gossip — not live state. Say so rather than render\r\n/// an implied-healthy \"online\" beside a stopped daemon (the `daemon stop` →\r\n/// `subnet status --nodes` still-\"online\" confusion). The zero-subnet view is\r\n/// already daemon-keyed by `standalone_text`; this covers the rows case. `None`\r\n/// when the daemon is up (the stall / inbound hints own that state).\r\n// [impl->REQ-SUBNET-8]\r\nfn daemon_offline_hint(daemon_running: bool) -> Option<String> {\r\n    (!daemon_running).then(|| {\r\n        \"warning: the spt-core daemon is NOT running on this node — these rows are last-known \\\r\n         gossip, not live reachability; start it with any spt command (or `spt daemon run`).\\n\"\r\n            .to_string()\r\n    })\r\n}\r\n\r\n/// The Windows blocked-inbound hint (M8 root cause 3, REQ-INSTALL-7's\r\n/// render half): a fresh user-scope install never triggers the first-bind\r\n/// firewall prompt, so inbound UDP (mDNS + QUIC meet/pairing) drops with no\r\n/// rendered cause — the M7 NO_SEED_HOLDER dead-end. When the installer's\r\n/// named rule is absent, say so with the exact fix; when the probe itself\r\n/// fails or times out, say nothing (never alarm off a broken probe).\r\n/// Non-Windows: no firewall story to tell.\r\n// [impl->REQ-INSTALL-7]\r\nfn inbound_block_hint() -> Option<String> {\r\n    #[cfg(windows)]\r\n    {\r\n        if windows_inbound_rule_present() == Some(false) {\r\n            let exe = std::env::current_exe()\r\n                .map(|p| p.display().to_string())\r\n                .unwrap_or_else(|_| \"<path to spt.exe>\".to_string());\r\n            return Some(format!(\r\n                \"warning: no Windows Firewall inbound rule for spt — joins/pairing toward \\\r\n                 this node may be silently blocked (the NO_SEED_HOLDER shape). Run the \\\r\n                 installer elevated, or add the rule:\\n  netsh advfirewall firewall add \\\r\n                 rule name=\\\"spt-core inbound UDP\\\" dir=in action=allow protocol=UDP \\\r\n                 program=\\\"{exe}\\\"\\n\"\r\n            ));\r\n        }\r\n        None\r\n    }\r\n    #[cfg(not(windows))]\r\n    {\r\n        None\r\n    }\r\n}\r\n\r\n/// Whether the installer's named inbound-UDP rule exists, via a BOUNDED\r\n/// `netsh` probe (KNOWN-HAZARDS 5.3: every subprocess has a timeout — a\r\n/// wedged netsh costs 3s, never a hang). `None` = probe failed/timed out\r\n/// (the caller stays silent rather than alarm on a broken probe).\r\n// [impl->REQ-HAZARD-SUBPROCESS-TIMEOUT]\r\n#[cfg(windows)]\r\nfn windows_inbound_rule_present() -> Option<bool> {\r\n    let (tx, rx) = std::sync::mpsc::channel();\r\n    std::thread::spawn(move || {\r\n        let out = std::process::Command::new(\"netsh\")\r\n            .args([\r\n                \"advfirewall\",\r\n                \"firewall\",\r\n                \"show\",\r\n                \"rule\",\r\n                \"name=spt-core inbound UDP\",\r\n            ])\r\n            .output();\r\n        let _ = tx.send(out);\r\n    });\r\n    match rx.recv_timeout(Duration::from_secs(3)) {\r\n        Ok(Ok(out)) => Some(out.status.success()),\r\n        _ => None,\r\n    }\r\n}\r\n\r\n/// The bare-`spt subnet` hint footer (M7 plan decision 5, narrowed by M8\r\n/// decision 12: `spt subnet status` is a reading view and drops it).\r\nconst HINT_FOOTER: &str = \"\\nhint: `spt subnet create <name>` mints a new subnet on this machine\\n\\\r\n     hint: `spt subnet join <name>` pairs this machine into one (elevated)\\n\\\r\n     hint: `spt subnet show-code [name]` shows a subnet's joining code (elevated)\\n\";\r\n\r\n/// One node's `status --nodes` row (M7 plan decision 6): identity, advertised\r\n/// label, endpoint counts, and the gossip-recency liveness verdict.\r\nstruct NodeRow {\r\n    node: String,\r\n    label: Option<String>,\r\n    /// Active (listening-now) endpoint rows on this node.\r\n    active: usize,\r\n    /// All endpoint rows on this node.\r\n    total: usize,\r\n    liveness: NodeLiveness,\r\n}\r\n\r\n/// The gossip-recency half of the hybrid liveness decision (M7 plan decision\r\n/// 6): the cheap signals settle most rows; only [`Probe`](NodeLiveness::Probe)\r\n/// rows cost a dial.\r\n#[derive(Debug, Clone, Copy, PartialEq, Eq)]\r\nenum NodeLiveness {\r\n    Online,\r\n    Offline,\r\n    /// Gossip can't say (not heard recently, rows not all-Offline) — dial it.\r\n    Probe,\r\n}\r\n\r\n/// A node's render form for the `--nodes` table (REQ-SUBNET-3): the advertised\r\n/// label alone (`KITSUBITO`) when it is unambiguous; the key prefix appended\r\n/// (`KITSUBITO (225253f8…)`) only when `ambiguous` — another rendered node\r\n/// shares the label, so the prefix is the disambiguator the addressing layer\r\n/// would force anyway; the bare prefix (`225253f8…`) when unlabeled.\r\nfn node_display(node: &str, label: Option<&str>, ambiguous: bool) -> String {\r\n    let pfx = spt_net::net::registry::key_prefix(node);\r\n    match label {\r\n        Some(l) if ambiguous => format!(\"{l} ({pfx}…)\"),\r\n        Some(l) => l.to_string(),\r\n        None => format!(\"{pfx}…\"),\r\n    }\r\n}\r\n\r\n/// Build one subnet's per-node rows with the gossip-recency verdict. Pure\r\n/// over its inputs (the probe is the caller's impure follow-up).\r\n///\r\n/// `members` seeds the row set — `(node_hex, label)` for self + every\r\n/// trust-pinned peer — so a member with zero registry rows still renders\r\n/// (`[0/0]`): a fresh box has no endpoints yet, and an offline peer's rows\r\n/// decay under the 4.10 eviction; neither may vanish from the view.\r\n/// Liveness: own node → online (we are running); rows all-Offline →\r\n/// offline; heard within `stale_after_ms` → online; otherwise (including\r\n/// a rowless member — absence is not evidence) → probe.\r\n// [impl->REQ-SUBNET-1]\r\nfn node_status_rows(\r\n    reg: &spt_net::net::registry::SubnetRegistry,\r\n    members: &[(String, Option<String>)],\r\n    heard: &std::collections::BTreeMap<String, u64>,\r\n    own_hex: &str,\r\n    now_ms: u64,\r\n    stale_after_ms: u64,\r\n) -> Vec<NodeRow> {\r\n    use spt_net::net::registry::Status;\r\n    // node → (label, active, routable_total, any_routable, raw_total)\r\n    //\r\n    // Bug #2 (REQ-SUBNET-COUNT-ROUTABLE): the displayed denominator counts\r\n    // ROUTABLE rows only. `endpoint purge` is not a registry eviction — it gossips\r\n    // a one-shot Offline row that is immortal on a remote viewer (eviction is\r\n    // per-whole-node), so an unconditional total let purged endpoints accumulate\r\n    // and the remote `[active/total]` count drifted (0/2, 1/3). A separate RAW\r\n    // count (any row at all, incl Offline) still drives the all-Offline liveness\r\n    // signal below — that branch needs to know a row EXISTS, not that it routes.\r\n    let mut by_node: std::collections::BTreeMap<\r\n        String,\r\n        (Option<String>, usize, usize, bool, usize),\r\n    > = std::collections::BTreeMap::new();\r\n    for (node, label) in members {\r\n        let e = by_node.entry(node.clone()).or_default();\r\n        if e.0.is_none() {\r\n            e.0 = label.clone();\r\n        }\r\n    }\r\n    for id in reg.endpoint_ids() {\r\n        for inst in reg.instances(id) {\r\n            let e = by_node.entry(inst.node.clone()).or_default();\r\n            if e.0.is_none() {\r\n                e.0 = inst.node_label.clone();\r\n            }\r\n            e.1 += usize::from(inst.status == Status::Active);\r\n            // [impl->REQ-SUBNET-COUNT-ROUTABLE] routable-only denominator (e.2) +\r\n            // separate raw count (e.4) for the all-Offline liveness signal below.\r\n            e.2 += usize::from(inst.status.routable());\r\n            e.3 |= inst.status.routable();\r\n            e.4 += 1;\r\n        }\r\n    }\r\n    // Node-level labels (REQ-SUBNET-3): name an ENDPOINT-LESS peer that has no\r\n    // instance row to carry its hostname. Fill-only — never create a row (a\r\n    // label is not an endpoint, so it must not add a phantom `[0/total]` row or\r\n    // touch the liveness math) and never override a trust/instance label\r\n    // already resolved. A node in the label map but not already a known member\r\n    // is ignored: absence from members means it is not ours to show.\r\n    for (node, label) in reg.node_labels() {\r\n        if let Some(e) = by_node.get_mut(node) {\r\n            if e.0.is_none() {\r\n                e.0 = Some(label.to_string());\r\n            }\r\n        }\r\n    }\r\n    by_node\r\n        .into_iter()\r\n        .map(|(node, (label, active, total, any_routable, raw_total))| {\r\n            let liveness = if node == own_hex {\r\n                NodeLiveness::Online\r\n            } else if raw_total > 0 && !any_routable {\r\n                NodeLiveness::Offline\r\n            } else if heard\r\n                .get(&node)\r\n                .is_some_and(|&at| now_ms.saturating_sub(at) <= stale_after_ms)\r\n            {\r\n                NodeLiveness::Online\r\n            } else {\r\n                NodeLiveness::Probe\r\n            };\r\n            NodeRow {\r\n                node,\r\n                label,\r\n                active,\r\n                total,\r\n                liveness,\r\n            }\r\n        })\r\n        .collect()\r\n}\r\n\r\n/// Render one subnet's `--nodes` table from probe-settled rows.\r\n// [impl->REQ-SUBNET-1] [impl->REQ-SUBNET-3]\r\nfn render_node_rows(subnet: &str, rows: &[(NodeRow, bool)]) -> String {\r\n    let mut out = format!(\"SUBNET {subnet}\\n\");\r\n    if rows.is_empty() {\r\n        out.push_str(\"  (no gossip yet — pair another machine, or wait one pump cadence)\\n\");\r\n        return out;\r\n    }\r\n    // A label is unambiguous unless two rendered nodes share it (two boxes on\r\n    // the same hostname) — only then does the key-prefix disambiguator appear.\r\n    let mut label_counts: std::collections::BTreeMap<&str, usize> =\r\n        std::collections::BTreeMap::new();\r\n    for (r, _) in rows {\r\n        if let Some(l) = r.label.as_deref() {\r\n            *label_counts.entry(l).or_default() += 1;\r\n        }\r\n    }\r\n    let names: Vec<String> = rows\r\n        .iter()\r\n        .map(|(r, _)| {\r\n            let ambiguous = r\r\n                .label\r\n                .as_deref()\r\n                .is_some_and(|l| label_counts.get(l).copied().unwrap_or(0) > 1);\r\n            node_display(&r.node, r.label.as_deref(), ambiguous)\r\n        })\r\n        .collect();\r\n    let pad = names\r\n        .iter()\r\n        .map(|n| n.chars().count())\r\n        .max()\r\n        .unwrap_or(0)\r\n        .max(\"NODE\".len());\r\n    out.push_str(&format!(\"  {:<pad$}  STATUS   ENDPOINTS\\n\", \"NODE\"));\r\n    for ((row, online), name) in rows.iter().zip(&names) {\r\n        // Pad by char count, not byte len ('…' is multi-byte).\r\n        let fill = \" \".repeat(pad - name.chars().count());\r\n        out.push_str(&format!(\r\n            \"  {name}{fill}  {:<7}  [{}/{}]\\n\",\r\n            if *online { \"online\" } else { \"offline\" },\r\n            row.active,\r\n            row.total,\r\n        ));\r\n    }\r\n    out\r\n}\r\n\r\n/// Probe a stale node: dial it over the broker's QUIC endpoint (the hybrid\r\n/// liveness's expensive half — spent only on rows gossip could not settle).\r\n/// Any failure (daemon down, no address, dial refused/timed out) reads\r\n/// offline — fail-quiet, this is a status view.\r\n/// Run `f` on a scratch thread, returning its result — or `on_timeout` if it\r\n/// does not finish within `dur`. KH 5.3 (\"every blocking op gets a timeout\")\r\n/// generalized to a network op: the abandoned thread finishes harmlessly.\r\nfn run_bounded<T: Send + 'static>(\r\n    dur: std::time::Duration,\r\n    on_timeout: T,\r\n    f: impl FnOnce() -> T + Send + 'static,\r\n) -> T {\r\n    let (tx, rx) = std::sync::mpsc::channel();\r\n    std::thread::spawn(move || {\r\n        let _ = tx.send(f());\r\n    });\r\n    rx.recv_timeout(dur).unwrap_or(on_timeout)\r\n}\r\n\r\n/// Per-node probe ceiling. An id-only dial to a dead peer otherwise runs the\r\n/// full iroh discovery+connect timeout (~30s, observed live on the M8\r\n/// acceptance rig); a node that can't finish a subnet-scoped handshake in a\r\n/// couple seconds reads offline for liveness purposes. The probe itself\r\n/// (`probe_node_serving`, wansend.rs) is subnet-scoped per REQ-SUBNET-5: dial\r\n/// (proves reachable) THEN ask \"serving `subnet`?\", so a detached-but-alive\r\n/// peer reads offline for that subnet.\r\nconst PROBE_TIMEOUT: std::time::Duration = std::time::Duration::from_millis(2500);\r\n/// In-flight cap for the concurrent `--nodes` probe fan-out (REQ-MESH-6): a\r\n/// small fixed pool so a 200-member subnet can't open 200 simultaneous broker\r\n/// IPC conns + dials at once. `k ≤ cap` ⇒ one ceiling; `k > cap` ⇒\r\n/// `ceil(k/cap)` ceilings (logged — no silent truncation of the wait).\r\nconst MAX_INFLIGHT: usize = 16;\r\n\r\n/// Run every `(node, subnet)` probe CONCURRENTLY; collect results in input\r\n/// order. Wall-time ≈ ONE `ceiling` when `items.len() <= max_inflight`,\r\n/// else `ceil(k / max_inflight)` ceilings. The mesh widen (D6) makes a node\r\n/// see ALL roster members — many silent — so the serial per-node `probe_node`\r\n/// loop cost `offline_count × ceiling`; this fans it out (REQ-MESH-6). `probe`\r\n/// is INJECTED so the unit test passes a deterministic sleeper (no network);\r\n/// the real site passes `probe_node_serving`. Each probe still runs on its own\r\n/// thread under its own `recv_timeout(ceiling)` bound (via `run_bounded`), so\r\n/// one wedged dial costs ONE ceiling, never the batch — KH 5.3 preserved.\r\n// [impl->REQ-MESH-6]\r\nfn probe_all<F>(\r\n    items: &[(String, String)],\r\n    ceiling: std::time::Duration,\r\n    max_inflight: usize,\r\n    probe: F,\r\n) -> Vec<bool>\r\nwhere\r\n    F: Fn(&str, &str) -> bool + Send + Sync + 'static,\r\n{\r\n    if items.is_empty() {\r\n        return Vec::new();\r\n    }\r\n    let cap = max_inflight.max(1);\r\n    if items.len() > cap {\r\n        eprintln!(\r\n            \"Probing {} nodes in batches of {} — wait may be a small multiple of the probe ceiling.\",\r\n            items.len(),\r\n            cap\r\n        );\r\n        let _ = std::io::stderr().flush();\r\n    }\r\n    let probe = std::sync::Arc::new(probe);\r\n    let mut out = vec![false; items.len()];\r\n    // Process in windows of `cap`: each window spawns one bounded thread per\r\n    // item and joins before the next, so in-flight never exceeds `cap` and\r\n    // every window is bounded by one `ceiling`. Wall ≈ ceil(k/cap)×ceiling.\r\n    for (wi, window) in items.chunks(cap).enumerate() {\r\n        let base = wi * cap;\r\n        let handles: Vec<(usize, std::thread::JoinHandle<bool>)> = window\r\n            .iter()\r\n            .enumerate()\r\n            .map(|(off, (node, subnet))| {\r\n                let probe = probe.clone();\r\n                let node = node.clone();\r\n                let subnet = subnet.clone();\r\n                (\r\n                    base + off,\r\n                    std::thread::spawn(move || {\r\n                        run_bounded(ceiling, false, move || probe(&node, &subnet))\r\n                    }),\r\n                )\r\n            })\r\n            .collect();\r\n        for (idx, h) in handles {\r\n            out[idx] = h.join().unwrap_or(false);\r\n        }\r\n    }\r\n    out\r\n}\r\n\r\n/// Render the coming-online banner's \"spt subnets joined\" section + the\r\n/// concluding divider: header, underline, one `NAME: <state>` row per held\r\n/// subnet (`(none)` when empty), divider. Pure for tests.\r\n// [impl->REQ-DAEMON-3]\r\nfn render_subnets_joined(rows: &[(String, &'static str)]) -> String {\r\n    let mut out = String::from(\"spt subnets joined\\n──────────────────\\n\");\r\n    if rows.is_empty() {\r\n        out.push_str(\"  (none)\\n\");\r\n    } else {\r\n        for (name, state) in rows {\r\n            out.push_str(&format!(\"  {name}: {state}\\n\"));\r\n        }\r\n    }\r\n    out.push_str(\"────────────────────────────────────────\\n\");\r\n    out\r\n}\r\n\r\n/// Ensure the per-machine daemon is up for a daemon-dependent command —\r\n/// silent when it already runs; otherwise announce the transition on\r\n/// stderr (stdout stays payload-pure) and conclude with a divider before\r\n/// the command's own output (grill 2026-06-06). The membership-creating\r\n/// verbs call this because **membership implies reachability** (CONTEXT\r\n/// §subnet attachment): a sole seed-holder with no responder daemon is a\r\n/// contradiction of the subnet's purpose.\r\n// [impl->REQ-SUBNET-2] [impl->REQ-DAEMON-3]\r\nfn ensure_daemon_announced() -> Result<(), i32> {\r\n    if spt_daemon::is_running() {\r\n        return Ok(());\r\n    }\r\n    eprintln!(\"spt-core daemon is offline - coming online...\");\r\n    if let Err(e) = spt_daemon::ensure_running() {\r\n        eprintln!(\"DAEMON_START_FAIL: {e}\");\r\n        return Err(1);\r\n    }\r\n    let ident = node_ident_display();\r\n    eprintln!(\"spt-core daemon: online - {ident}\");\r\n    // Attachment states per subnet (M8 decision 6, REQ-SUBNET-5): detached\r\n    // is a chosen per-subnet state; a net-less daemon (endpoint bind\r\n    // failed) serves nothing — \"no connection\", never conflated with a\r\n    // deliberate detach (CONTEXT §subnet attachment).\r\n    let net_up = spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms())\r\n        .ok()\r\n        .and_then(|mut b| b.net_status().ok())\r\n        .map(|s| s.enabled)\r\n        .unwrap_or(true); // can't ask ⇒ assume serving rather than alarm\r\n    let att = spt_store::attachment::AttachmentStore::load();\r\n    let rows: Vec<(String, &'static str)> = SubnetStore::load()\r\n        .subnets\r\n        .iter()\r\n        .map(|s| {\r\n            let state = if att.is_detached(&s.name) {\r\n                \"detached\"\r\n            } else if net_up {\r\n                \"attached\"\r\n            } else {\r\n                \"no connection\"\r\n            };\r\n            (s.name.clone(), state)\r\n        })\r\n        .collect();\r\n    eprint!(\"{}\", render_subnets_joined(&rows));\r\n    // Blocked-inbound honesty on the coming-online banner too (M8 root\r\n    // cause 3, REQ-INSTALL-7): a fresh user-scope install learns NOW, not\r\n    // after a silent NO_SEED_HOLDER join failure.\r\n    if let Some(w) = inbound_block_hint() {\r\n        eprint!(\"{w}\");\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// `spt subnet status` --json: the membership rows (a copy of\r\n/// `SubnetStatusRow`), plus the per-node rows (a copy of `NodeRow` + the\r\n/// probe-settled liveness) when `--nodes` is set. Internal structs stay free to\r\n/// refactor — these are the committed shape.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct SubnetStatusJson {\r\n    daemon_running: bool,\r\n    subnets: Vec<SubnetRowJson>,\r\n}\r\n\r\n/// One subnet's membership-shape row (mirrors `SubnetStatusRow`). `nodes`\r\n/// (per-node detail) is present only on the `--nodes` view; otherwise empty.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct SubnetRowJson {\r\n    name: String,\r\n    node_count: usize,\r\n    endpoint_count: usize,\r\n    nodes: Vec<NodeRowJson>,\r\n}\r\n\r\n/// One node's `--nodes` row (mirrors `NodeRow` + the settled liveness verdict).\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct NodeRowJson {\r\n    node: String,\r\n    label: Option<String>,\r\n    active: usize,\r\n    total: usize,\r\n    online: bool,\r\n}\r\n\r\n/// `spt subnet [status [NAME] [--nodes]]` — the membership view (REQ-SUBNET-1,\r\n/// M7 plan decisions 5 + 6; M8 decisions 11–12, 23). Read-only and ungated:\r\n/// prints membership shape, never secrets. `hints` = the bare-`spt subnet`\r\n/// invocation (the footer rides only that view).\r\n// [impl->REQ-SUBNET-1]\r\n// [impl->REQ-SUBNET-8]\r\nfn cmd_subnet_status(name: Option<String>, nodes: bool, hints: bool, json: bool) -> i32 {\r\n    let store = SubnetStore::load();\r\n    if let Some(n) = &name {\r\n        if store.find(n).is_none() {\r\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\r\n            return 2;\r\n        }\r\n    }\r\n    let daemon_running = spt_daemon::is_running();\r\n    let stall = if daemon_running {\r\n        pump_stall_warning(now_ms())\r\n    } else {\r\n        None\r\n    };\r\n    // Blocked-inbound honesty (REQ-INSTALL-7): only worth checking when the\r\n    // daemon serves — a stopped daemon is the bigger headline already.\r\n    let inbound = if daemon_running {\r\n        inbound_block_hint()\r\n    } else {\r\n        None\r\n    };\r\n    let snap_dir = perch::identity_dir().join(\"registry\");\r\n    let regs = crate::wansend::load_snapshots(&snap_dir);\r\n    let roster = spt_store::roster::RosterStore::load();\r\n    let own_hex = spt_store::nodeid::load_or_create()\r\n        .map(|i| i.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    if !nodes {\r\n        let rows = subnet_status_rows(\r\n            &store,\r\n            &regs,\r\n            &roster,\r\n            Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\r\n            name.as_deref(),\r\n        );\r\n        // [impl->REQ-CLI-JSON] The membership view without per-node detail.\r\n        if json {\r\n            let subnets = rows\r\n                .iter()\r\n                .map(|r| SubnetRowJson {\r\n                    name: r.name.clone(),\r\n                    node_count: r.nodes,\r\n                    endpoint_count: r.endpoints,\r\n                    nodes: Vec::new(),\r\n                })\r\n                .collect();\r\n            return print_json(&SubnetStatusJson {\r\n                daemon_running,\r\n                subnets,\r\n            });\r\n        }\r\n        let mut out = render_subnet_status(&rows, daemon_running, hints);\r\n        if let Some(w) = daemon_offline_hint(daemon_running) {\r\n            out.push_str(&w);\r\n        }\r\n        if let Some(w) = stall {\r\n            out.push_str(&w);\r\n        }\r\n        if let Some(w) = inbound {\r\n            out.push_str(&w);\r\n        }\r\n        // Human status view: render the assembled prose (HINT_FOOTER /\r\n        // standalone_text / pump_stall_warning / daemon_offline_hint /\r\n        // inbound_block_hint all flow through here). Node-id rows carry no\r\n        // Markdown markers, so only the hints restyle/strip.\r\n        // [impl->REQ-CLI-OUTPUT-MARKDOWN]\r\n        print!(\"{}\", crate::helpfmt::render(&out, crate::helpfmt::stdout_color()));\r\n        let _ = std::io::stdout().flush();\r\n        return 0;\r\n    }\r\n\r\n    // --nodes: per-node rows under the hybrid liveness (decision 6).\r\n    let heard: std::collections::BTreeMap<String, u64> = std::fs::read(\r\n        spt_daemon::registryhost::RegistryHost::heard_path(&snap_dir),\r\n    )\r\n    .ok()\r\n    .and_then(|b| serde_json::from_slice(&b).ok())\r\n    .unwrap_or_default();\r\n    // Stale = silent for 3 advertisement cadences (the daemon re-gossips\r\n    // every pump period; missing a couple is jitter, missing three is news).\r\n    let stale_after_ms = 3 * spt_daemon::DaemonConfig::load()\r\n        .registry_pump_period\r\n        .as_millis() as u64;\r\n    // Pass 1: classify every matching subnet's rows (pure `node_status_rows`),\r\n    // collecting the silent (Probe) ones into ONE cross-subnet work-list. The\r\n    // fan-out spans the whole view so a multi-subnet status pays one ceiling\r\n    // total, not one per subnet.\r\n    let mut per_subnet: Vec<(String, Vec<NodeRow>)> = Vec::new();\r\n    let mut worklist: Vec<(String, String)> = Vec::new();\r\n    for sub in &store.subnets {\r\n        if name.as_deref().is_some_and(|n| n != sub.name) {\r\n            continue;\r\n        }\r\n        let empty = spt_net::net::registry::SubnetRegistry::new();\r\n        let reg = regs.get(&sub.name).unwrap_or(&empty);\r\n        // Membership seed: self + roster members (rowless members still\r\n        // render — fresh boxes and eviction-decayed offline peers alike).\r\n        let mut members: Vec<(String, Option<String>)> = Vec::new();\r\n        if !own_hex.is_empty() {\r\n            members.push((own_hex.clone(), spt_store::hostlabel::os_hostname()));\r\n        }\r\n        for member in roster.members_in(&sub.name) {\r\n            let label = (!member.label.is_empty()).then(|| member.label.clone());\r\n            members.push((member.pubkey_hex.clone(), label));\r\n        }\r\n        let rows = node_status_rows(reg, &members, &heard, &own_hex, now_ms(), stale_after_ms);\r\n        for r in &rows {\r\n            if r.liveness == NodeLiveness::Probe {\r\n                worklist.push((r.node.clone(), sub.name.clone()));\r\n            }\r\n        }\r\n        per_subnet.push((sub.name.clone(), rows));\r\n    }\r\n    // Announce the probe phase once, before any dial — silent nodes cost a\r\n    // bounded dial each and the user should know what the wait is for.\r\n    if !worklist.is_empty() {\r\n        eprintln!(\"Checking remote nodes…\");\r\n        let _ = std::io::stderr().flush();\r\n    }\r\n    // Pass 2: one CONCURRENT batch across ALL subnets (REQ-MESH-6). Wall ≈ one\r\n    // PROBE_TIMEOUT (bounded by MAX_INFLIGHT), not k×PROBE_TIMEOUT serial.\r\n    let probed = probe_all(&worklist, PROBE_TIMEOUT, MAX_INFLIGHT, |n, s| {\r\n        crate::wansend::probe_node_serving(n, s)\r\n    });\r\n    // Pass 3: stitch results back in row order — the work-list was filled in\r\n    // row order, so a single cursor walks it deterministically. Render is\r\n    // unchanged (`render_node_rows`), so output matches the old serial path.\r\n    let mut cursor = 0usize;\r\n    let mut out = String::new();\r\n    // [impl->REQ-CLI-JSON] Collect the settled rows per subnet so the machine\r\n    // view emits the same probe-settled liveness the human table renders.\r\n    let mut json_subnets: Vec<SubnetRowJson> = Vec::new();\r\n    for (sub_name, rows) in per_subnet {\r\n        let settled: Vec<(NodeRow, bool)> = rows\r\n            .into_iter()\r\n            .map(|r| {\r\n                let online = match r.liveness {\r\n                    NodeLiveness::Online => true,\r\n                    NodeLiveness::Offline => false,\r\n                    NodeLiveness::Probe => {\r\n                        let v = probed.get(cursor).copied().unwrap_or(false);\r\n                        cursor += 1;\r\n                        v\r\n                    }\r\n                };\r\n                (r, online)\r\n            })\r\n            .collect();\r\n        if json {\r\n            let node_rows: Vec<NodeRowJson> = settled\r\n                .iter()\r\n                .map(|(r, online)| NodeRowJson {\r\n                    node: r.node.clone(),\r\n                    label: r.label.clone(),\r\n                    active: r.active,\r\n                    total: r.total,\r\n                    online: *online,\r\n                })\r\n                .collect();\r\n            json_subnets.push(SubnetRowJson {\r\n                name: sub_name.clone(),\r\n                node_count: node_rows.len(),\r\n                endpoint_count: node_rows.iter().map(|n| n.total).sum(),\r\n                nodes: node_rows,\r\n            });\r\n        }\r\n        out.push_str(&render_node_rows(&sub_name, &settled));\r\n    }\r\n    // [impl->REQ-CLI-JSON]\r\n    if json {\r\n        return print_json(&SubnetStatusJson {\r\n            daemon_running,\r\n            subnets: json_subnets,\r\n        });\r\n    }\r\n    if out.is_empty() {\r\n        out.push_str(standalone_text(daemon_running));\r\n    }\r\n    if let Some(w) = daemon_offline_hint(daemon_running) {\r\n        out.push_str(&w);\r\n    }\r\n    if let Some(w) = stall {\r\n        out.push_str(&w);\r\n    }\r\n    if let Some(w) = inbound {\r\n        out.push_str(&w);\r\n    }\r\n    if hints {\r\n        out.push_str(HINT_FOOTER);\r\n    }\r\n    // Same human status view as the non-`--nodes` branch — render the prose.\r\n    // [impl->REQ-CLI-OUTPUT-MARKDOWN]\r","truncated":true,"truncatedBy":"lines","totalLines":10839,"totalBytes":32752,"outputLines":785,"outputBytes":32752,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn cmd_subnet_create(name: String) -> i32 {\n…\n    if let Some(out) = result.out {\r\n        print!(\"{out}\");\r\n        let _ = std::io::stdout().flush();\r\n    }\r\n    eprintln!(\"{}\", result.msg);\r\n    announce_sync_home(&adopted);\r\n    // Hold a fresh elevated console open (Windows UAC re-launch) so the joining\r\n    // material stays readable before the window closes; no-op otherwise.\r\n    pause_elevated_console_if_fresh();\r\n    result.code\r\n}\r\n\r\n/// One subnet's status-view row: membership shape only — never seeds, epochs,\r\n/// or codes (M7 plan decision 5).\r\nstruct SubnetStatusRow {\r\n    name: String,\r\n    /// Paired nodes known for the subnet (this node included).\r\n    nodes: usize,\r\n    /// Endpoints visible in the subnet's registry snapshot.\r\n    endpoints: usize,\r\n}\r\n\r\n/// Build the status rows from the subnet store + registry snapshots + the\r\n/// member roster. Pure over its inputs so the view is unit-tested hermetically.\r\n///\r\n/// Node membership is ROSTER-derived (self + roster members — the durable mesh\r\n/// membership record, Mesh-D6), with registry-row nodes unioned in as\r\n/// enrichment: a member node with zero advertised endpoints (fresh box, empty\r\n/// owlery) is still a member, and an offline peer whose rows the 4.10 eviction\r\n/// decayed must not vanish from its own subnet's view. Endpoint counts stay\r\n/// gossip-derived and stale-tolerant (they catch up as gossip lands).\r\n// [impl->REQ-SUBNET-1]\r\nfn subnet_status_rows(\r\n    store: &SubnetStore,\r\n    regs: &std::collections::BTreeMap<String, spt_net::net::registry::SubnetRegistry>,\r\n    roster: &spt_store::roster::RosterStore,\r\n    own_hex: Option<&str>,\r\n    only: Option<&str>,\r\n) -> Vec<SubnetStatusRow> {\r\n    store\r\n        .subnets\r\n        .iter()\r\n        .filter(|s| only.is_none_or(|n| n == s.name))\r\n        .map(|s| {\r\n            let (mut nodes, mut endpoints) = (std::collections::BTreeSet::new(), 0usize);\r\n            if let Some(own) = own_hex {\r\n                nodes.insert(own.to_string());\r\n            }\r\n            for member in roster.members_in(&s.name) {\r\n                nodes.insert(member.pubkey_hex.clone());\r\n            }\r\n            if let Some(reg) = regs.get(&s.name) {\r\n                for id in reg.endpoint_ids() {\r\n                    endpoints += 1;\r\n                    for inst in reg.instances(id) {\r\n                        nodes.insert(inst.node.clone());\r\n                    }\r\n                }\r\n            }\r\n            // This node is a member even when its identity could not load.\r\n            SubnetStatusRow {\r\n                name: s.name.clone(),\r\n                nodes: nodes.len().max(1),\r\n                endpoints,\r\n            }\r\n        })\r\n        .collect()\r\n}\r\n\r\n/// Render the status view (M7 plan decision 5, amended by M8 decisions\r\n/// 11–12): aligned rows; **daemon-aware** standalone text on zero subnets\r\n/// (never implies messaging works while the daemon is down); the hint\r\n/// footer rides only the bare `spt subnet` view (`hints`).\r\n// [impl->REQ-SUBNET-1]\r\n// [impl->REQ-SUBNET-8]\r\nfn render_subnet_status(rows: &[SubnetStatusRow], daemon_running: bool, hints: bool) -> String {\r\n    let mut out = String::new();\r\n    if rows.is_empty() {\r\n        out.push_str(standalone_text(daemon_running));\r\n    } else {\r\n        let pad = rows\r\n            .iter()\r\n            .map(|r| r.name.len())\r\n            .max()\r\n            .unwrap_or(0)\r\n            .max(\"SUBNET\".len());\r\n        out.push_str(&format!(\"{:<pad$}  NODES  ENDPOINTS\\n\", \"SUBNET\"));\r\n        for r in rows {\r\n            out.push_str(&format!(\r\n                \"{:<pad$}  {:<5}  {}\\n\",\r\n                r.name, r.nodes, r.endpoints\r\n            ));\r\n        }\r\n    }\r\n    if hints {\r\n        out.push_str(HINT_FOOTER);\r\n    }\r\n    out\r\n}\r\n\r\n/// The zero-subnet standalone text (M8 decision 11): what messaging can do\r\n/// right now depends on the daemon, so the blurb is daemon-state-keyed —\r\n/// the old text read as \"working\" even when the daemon was down.\r\n// [impl->REQ-SUBNET-8]\r\nfn standalone_text(daemon_running: bool) -> &'static str {\r\n    if daemon_running {\r\n        \"No subnets registered — this node is standalone.\\n\\\r\n         Local messaging works on this node; a subnet links your machines into one fabric.\\n\"\r\n    } else {\r\n        \"No subnets registered — this node is standalone.\\n\\\r\n         The daemon is NOT running — nothing is served until something starts it \\\r\n         (any spt command auto-starts it, or `spt daemon run`).\\n\"\r\n    }\r\n}\r\n\r\n/// The peer-pump stall warning (M8 decision 23 / REQ-SUBNET-8): rendered in\r\n/// the subnet status views when the daemon is up but the pump's heartbeat\r\n/// is older than 3 advertisement cadences — a half-dead daemon (the\r\n/// 2026-06-07 hfenduleam shape) must never render implied-healthy. `None` =\r\n/// no warning (heartbeat fresh, or never written — a pre-D4 daemon).\r\n// [impl->REQ-SUBNET-8]\r\nfn pump_stall_warning(now: u64) -> Option<String> {\r\n    let at = spt_daemon::read_pump_heartbeat()?;\r\n    let stale_after = 3 * spt_daemon::DaemonConfig::load()\r\n        .registry_pump_period\r\n        .as_millis() as u64;\r\n    let age = now.saturating_sub(at);\r\n    (age > stale_after).then(|| {\r\n        format!(\r\n            \"warning: peer pump STALLED ({}s since last tick) — subnet advertising/\\\r\n             connecting is not running; restart the daemon\\n\",\r\n            age / 1000\r\n        )\r\n    })\r\n}\r\n\r\n/// The daemon-offline caveat for the POPULATED status views (REQ-SUBNET-8): a\r\n/// stopped daemon serves nothing and cannot observe live reachability, so the\r\n/// node rows are last-known gossip — not live state. Say so rather than render\r\n/// an implied-healthy \"online\" beside a stopped daemon (the `daemon stop` →\r\n/// `subnet status --nodes` still-\"online\" confusion). The zero-subnet view is\r\n/// already daemon-keyed by `standalone_text`; this covers the rows case. `None`\r\n/// when the daemon is up (the stall / inbound hints own that state).\r\n// [impl->REQ-SUBNET-8]\r\nfn daemon_offline_hint(daemon_running: bool) -> Option<String> {\r\n    (!daemon_running).then(|| {\r\n        \"warning: the spt-core daemon is NOT running on this node — these rows are last-known \\\r\n         gossip, not live reachability; start it with any spt command (or `spt daemon run`).\\n\"\r\n            .to_string()\r\n    })\r\n}\r\n\r\n/// The Windows blocked-inbound hint (M8 root cause 3, REQ-INSTALL-7's\r\n/// render half): a fresh user-scope install never triggers the first-bind\r\n/// firewall prompt, so inbound UDP (mDNS + QUIC meet/pairing) drops with no\r\n/// rendered cause — the M7 NO_SEED_HOLDER dead-end. When the installer's\r\n/// named rule is absent, say so with the exact fix; when the probe itself\r\n/// fails or times out, say nothing (never alarm off a broken probe).\r\n/// Non-Windows: no firewall story to tell.\r\n// [impl->REQ-INSTALL-7]\r\nfn inbound_block_hint() -> Option<String> {\r\n    #[cfg(windows)]\r\n    {\r\n        if windows_inbound_rule_present() == Some(false) {\r\n            let exe = std::env::current_exe()\r\n                .map(|p| p.display().to_string())\r\n                .unwrap_or_else(|_| \"<path to spt.exe>\".to_string());\r\n            return Some(format!(\r\n                \"warning: no Windows Firewall inbound rule for spt — joins/pairing toward \\\r\n                 this node may be silently blocked (the NO_SEED_HOLDER shape). Run the \\\r\n                 installer elevated, or add the rule:\\n  netsh advfirewall firewall add \\\r\n                 rule name=\\\"spt-core inbound UDP\\\" dir=in action=allow protocol=UDP \\\r\n                 program=\\\"{exe}\\\"\\n\"\r\n            ));\r\n        }\r\n        None\r\n    }\r\n    #[cfg(not(windows))]\r\n    {\r\n        None\r\n    }\r\n}\r\n\r\n/// Whether the installer's named inbound-UDP rule exists, via a BOUNDED\r\n/// `netsh` probe (KNOWN-HAZARDS 5.3: every subprocess has a timeout — a\r\n/// wedged netsh costs 3s, never a hang). `None` = probe failed/timed out\r\n/// (the caller stays silent rather than alarm on a broken probe).\r\n// [impl->REQ-HAZARD-SUBPROCESS-TIMEOUT]\r\n#[cfg(windows)]\r\nfn windows_inbound_rule_present() -> Option<bool> {\r\n    let (tx, rx) = std::sync::mpsc::channel();\r\n    std::thread::spawn(move || {\r\n        let out = std::process::Command::new(\"netsh\")\r\n            .args([\r\n                \"advfirewall\",\r\n                \"firewall\",\r\n                \"show\",\r\n                \"rule\",\r\n                \"name=spt-core inbound UDP\",\r\n            ])\r\n            .output();\r\n        let _ = tx.send(out);\r\n    });\r\n    match rx.recv_timeout(Duration::from_secs(3)) {\r\n        Ok(Ok(out)) => Some(out.status.success()),\r\n        _ => None,\r\n    }\r\n}\r\n\r\n/// The bare-`spt subnet` hint footer (M7 plan decision 5, narrowed by M8\r\n/// decision 12: `spt subnet status` is a reading view and drops it).\r\nconst HINT_FOOTER: &str = \"\\nhint: `spt subnet create <name>` mints a new subnet on this machine\\n\\\r\n     hint: `spt subnet join <name>` pairs this machine into one (elevated)\\n\\\r\n     hint: `spt subnet show-code [name]` shows a subnet's joining code (elevated)\\n\";\r\n\r\n/// One node's `status --nodes` row (M7 plan decision 6): identity, advertised\r\n/// label, endpoint counts, and the gossip-recency liveness verdict.\r\nstruct NodeRow {\r\n    node: String,\r\n    label: Option<String>,\r\n    /// Active (listening-now) endpoint rows on this node.\r\n    active: usize,\r\n    /// All endpoint rows on this node.\r\n    total: usize,\r\n    liveness: NodeLiveness,\r\n}\r\n\r\n/// The gossip-recency half of the hybrid liveness decision (M7 plan decision\r\n/// 6): the cheap signals settle most rows; only [`Probe`](NodeLiveness::Probe)\r\n/// rows cost a dial.\r\n#[derive(Debug, Clone, Copy, PartialEq, Eq)]\r\nenum NodeLiveness {\r\n    Online,\r\n    Offline,\r\n    /// Gossip can't say (not heard recently, rows not all-Offline) — dial it.\r\n    Probe,\r\n}\r\n\r\n/// A node's render form for the `--nodes` table (REQ-SUBNET-3): the advertised\r\n/// label alone (`KITSUBITO`) when it is unambiguous; the key prefix appended\r\n/// (`KITSUBITO (225253f8…)`) only when `ambiguous` — another rendered node\r\n/// shares the label, so the prefix is the disambiguator the addressing layer\r\n/// would force anyway; the bare prefix (`225253f8…`) when unlabeled.\r\nfn node_display(node: &str, label: Option<&str>, ambiguous: bool) -> String {\r\n    let pfx = spt_net::net::registry::key_prefix(node);\r\n    match label {\r\n        Some(l) if ambiguous => format!(\"{l} ({pfx}…)\"),\r\n        Some(l) => l.to_string(),\r\n        None => format!(\"{pfx}…\"),\r\n    }\r\n}\r\n\r\n/// Build one subnet's per-node rows with the gossip-recency verdict. Pure\r\n/// over its inputs (the probe is the caller's impure follow-up).\r\n///\r\n/// `members` seeds the row set — `(node_hex, label)` for self + every\r\n/// trust-pinned peer — so a member with zero registry rows still renders\r\n/// (`[0/0]`): a fresh box has no endpoints yet, and an offline peer's rows\r\n/// decay under the 4.10 eviction; neither may vanish from the view.\r\n/// Liveness: own node → online (we are running); rows all-Offline →\r\n/// offline; heard within `stale_after_ms` → online; otherwise (including\r\n/// a rowless member — absence is not evidence) → probe.\r\n// [impl->REQ-SUBNET-1]\r\nfn node_status_rows(\r\n    reg: &spt_net::net::registry::SubnetRegistry,\r\n    members: &[(String, Option<String>)],\r\n    heard: &std::collections::BTreeMap<String, u64>,\r\n    own_hex: &str,\r\n    now_ms: u64,\r\n    stale_after_ms: u64,\r\n) -> Vec<NodeRow> {\r\n    use spt_net::net::registry::Status;\r\n    // node → (label, active, routable_total, any_routable, raw_total)\r\n    //\r\n    // Bug #2 (REQ-SUBNET-COUNT-ROUTABLE): the displayed denominator counts\r\n    // ROUTABLE rows only. `endpoint purge` is not a registry eviction — it gossips\r\n    // a one-shot Offline row that is immortal on a remote viewer (eviction is\r\n    // per-whole-node), so an unconditional total let purged endpoints accumulate\r\n    // and the remote `[active/total]` count drifted (0/2, 1/3). A separate RAW\r\n    // count (any row at all, incl Offline) still drives the all-Offline liveness\r\n    // signal below — that branch needs to know a row EXISTS, not that it routes.\r\n    let mut by_node: std::collections::BTreeMap<\r\n        String,\r\n        (Option<String>, usize, usize, bool, usize),\r\n    > = std::collections::BTreeMap::new();\r\n    for (node, label) in members {\r\n        let e = by_node.entry(node.clone()).or_default();\r\n        if e.0.is_none() {\r\n            e.0 = label.clone();\r\n        }\r\n    }\r\n    for id in reg.endpoint_ids() {\r\n        for inst in reg.instances(id) {\r\n            let e = by_node.entry(inst.node.clone()).or_default();\r\n            if e.0.is_none() {\r\n                e.0 = inst.node_label.clone();\r\n            }\r\n            e.1 += usize::from(inst.status == Status::Active);\r\n            // [impl->REQ-SUBNET-COUNT-ROUTABLE] routable-only denominator (e.2) +\r\n            // separate raw count (e.4) for the all-Offline liveness signal below.\r\n            e.2 += usize::from(inst.status.routable());\r\n            e.3 |= inst.status.routable();\r\n            e.4 += 1;\r\n        }\r\n    }\r\n    // Node-level labels (REQ-SUBNET-3): name an ENDPOINT-LESS peer that has no\r\n    // instance row to carry its hostname. Fill-only — never create a row (a\r\n    // label is not an endpoint, so it must not add a phantom `[0/total]` row or\r\n    // touch the liveness math) and never override a trust/instance label\r\n    // already resolved. A node in the label map but not already a known member\r\n    // is ignored: absence from members means it is not ours to show.\r\n    for (node, label) in reg.node_labels() {\r\n        if let Some(e) = by_node.get_mut(node) {\r\n            if e.0.is_none() {\r\n                e.0 = Some(label.to_string());\r\n            }\r\n        }\r\n    }\r\n    by_node\r\n        .into_iter()\r\n        .map(|(node, (label, active, total, any_routable, raw_total))| {\r\n            let liveness = if node == own_hex {\r\n                NodeLiveness::Online\r\n            } else if raw_total > 0 && !any_routable {\r\n                NodeLiveness::Offline\r\n            } else if heard\r\n                .get(&node)\r\n                .is_some_and(|&at| now_ms.saturating_sub(at) <= stale_after_ms)\r\n            {\r\n                NodeLiveness::Online\r\n            } else {\r\n                NodeLiveness::Probe\r\n            };\r\n            NodeRow {\r\n                node,\r\n                label,\r\n                active,\r\n                total,\r\n                liveness,\r\n            }\r\n        })\r\n        .collect()\r\n}\r\n\r\n/// Render one subnet's `--nodes` table from probe-settled rows.\r\n// [impl->REQ-SUBNET-1] [impl->REQ-SUBNET-3]\r\nfn render_node_rows(subnet: &str, rows: &[(NodeRow, bool)]) -> String {\r\n    let mut out = format!(\"SUBNET {subnet}\\n\");\r\n    if rows.is_empty() {\r\n        out.push_str(\"  (no gossip yet — pair another machine, or wait one pump cadence)\\n\");\r\n        return out;\r\n    }\r\n    // A label is unambiguous unless two rendered nodes share it (two boxes on\r\n    // the same hostname) — only then does the key-prefix disambiguator appear.\r\n    let mut label_counts: std::collections::BTreeMap<&str, usize> =\r\n        std::collections::BTreeMap::new();\r\n    for (r, _) in rows {\r\n        if let Some(l) = r.label.as_deref() {\r\n            *label_counts.entry(l).or_default() += 1;\r\n        }\r\n    }\r\n    let names: Vec<String> = rows\r\n        .iter()\r\n        .map(|(r, _)| {\r\n            let ambiguous = r\r\n                .label\r\n                .as_deref()\r\n                .is_some_and(|l| label_counts.get(l).copied().unwrap_or(0) > 1);\r\n            node_display(&r.node, r.label.as_deref(), ambiguous)\r\n        })\r\n        .collect();\r\n    let pad = names\r\n        .iter()\r\n        .map(|n| n.chars().count())\r\n        .max()\r\n        .unwrap_or(0)\r\n        .max(\"NODE\".len());\r\n    out.push_str(&format!(\"  {:<pad$}  STATUS   ENDPOINTS\\n\", \"NODE\"));\r\n    for ((row, online), name) in rows.iter().zip(&names) {\r\n        // Pad by char count, not byte len ('…' is multi-byte).\r\n        let fill = \" \".repeat(pad - name.chars().count());\r\n        out.push_str(&format!(\r\n            \"  {name}{fill}  {:<7}  [{}/{}]\\n\",\r\n            if *online { \"online\" } else { \"offline\" },\r\n            row.active,\r\n            row.total,\r\n        ));\r\n    }\r\n    out\r\n}\r\n\r\n/// Probe a stale node: dial it over the broker's QUIC endpoint (the hybrid\r\n/// liveness's expensive half — spent only on rows gossip could not settle).\r\n/// Any failure (daemon down, no address, dial refused/timed out) reads\r\n/// offline — fail-quiet, this is a status view.\r\n/// Run `f` on a scratch thread, returning its result — or `on_timeout` if it\r\n/// does not finish within `dur`. KH 5.3 (\"every blocking op gets a timeout\")\r\n/// generalized to a network op: the abandoned thread finishes harmlessly.\r\nfn run_bounded<T: Send + 'static>(\r\n    dur: std::time::Duration,\r\n    on_timeout: T,\r\n    f: impl FnOnce() -> T + Send + 'static,\r\n) -> T {\r\n    let (tx, rx) = std::sync::mpsc::channel();\r\n    std::thread::spawn(move || {\r\n        let _ = tx.send(f());\r\n    });\r\n    rx.recv_timeout(dur).unwrap_or(on_timeout)\r\n}\r\n\r\n/// Per-node probe ceiling. An id-only dial to a dead peer otherwise runs the\r\n/// full iroh discovery+connect timeout (~30s, observed live on the M8\r\n/// acceptance rig); a node that can't finish a subnet-scoped handshake in a\r\n/// couple seconds reads offline for liveness purposes. The probe itself\r\n/// (`probe_node_serving`, wansend.rs) is subnet-scoped per REQ-SUBNET-5: dial\r\n/// (proves reachable) THEN ask \"serving `subnet`?\", so a detached-but-alive\r\n/// peer reads offline for that subnet.\r\nconst PROBE_TIMEOUT: std::time::Duration = std::time::Duration::from_millis(2500);\r\n/// In-flight cap for the concurrent `--nodes` probe fan-out (REQ-MESH-6): a\r\n/// small fixed pool so a 200-member subnet can't open 200 simultaneous broker\r\n/// IPC conns + dials at once. `k ≤ cap` ⇒ one ceiling; `k > cap` ⇒\r\n/// `ceil(k/cap)` ceilings (logged — no silent truncation of the wait).\r\nconst MAX_INFLIGHT: usize = 16;\r\n\r\n/// Run every `(node, subnet)` probe CONCURRENTLY; collect results in input\r\n/// order. Wall-time ≈ ONE `ceiling` when `items.len() <= max_inflight`,\r\n/// else `ceil(k / max_inflight)` ceilings. The mesh widen (D6) makes a node\r\n/// see ALL roster members — many silent — so the serial per-node `probe_node`\r\n/// loop cost `offline_count × ceiling`; this fans it out (REQ-MESH-6). `probe`\r\n/// is INJECTED so the unit test passes a deterministic sleeper (no network);\r\n/// the real site passes `probe_node_serving`. Each probe still runs on its own\r\n/// thread under its own `recv_timeout(ceiling)` bound (via `run_bounded`), so\r\n/// one wedged dial costs ONE ceiling, never the batch — KH 5.3 preserved.\r\n// [impl->REQ-MESH-6]\r\nfn probe_all<F>(\r\n    items: &[(String, String)],\r\n    ceiling: std::time::Duration,\r\n    max_inflight: usize,\r\n    probe: F,\r\n) -> Vec<bool>\r\nwhere\r\n    F: Fn(&str, &str) -> bool + Send + Sync + 'static,\r\n{\r\n    if items.is_empty() {\r\n        return Vec::new();\r\n    }\r\n    let cap = max_inflight.max(1);\r\n    if items.len() > cap {\r\n        eprintln!(\r\n            \"Probing {} nodes in batches of {} — wait may be a small multiple of the probe ceiling.\",\r\n            items.len(),\r\n            cap\r\n        );\r\n        let _ = std::io::stderr().flush();\r\n    }\r\n    let probe = std::sync::Arc::new(probe);\r\n    let mut out = vec![false; items.len()];\r\n    // Process in windows of `cap`: each window spawns one bounded thread per\r\n    // item and joins before the next, so in-flight never exceeds `cap` and\r\n    // every window is bounded by one `ceiling`. Wall ≈ ceil(k/cap)×ceiling.\r\n    for (wi, window) in items.chunks(cap).enumerate() {\r\n        let base = wi * cap;\r\n        let handles: Vec<(usize, std::thread::JoinHandle<bool>)> = window\r\n            .iter()\r\n            .enumerate()\r\n            .map(|(off, (node, subnet))| {\r\n                let probe = probe.clone();\r\n                let node = node.clone();\r\n                let subnet = subnet.clone();\r\n                (\r\n                    base + off,\r\n                    std::thread::spawn(move || {\r\n                        run_bounded(ceiling, false, move || probe(&node, &subnet))\r\n                    }),\r\n                )\r\n            })\r\n            .collect();\r\n        for (idx, h) in handles {\r\n            out[idx] = h.join().unwrap_or(false);\r\n        }\r\n    }\r\n    out\r\n}\r\n\r\n/// Render the coming-online banner's \"spt subnets joined\" section + the\r\n/// concluding divider: header, underline, one `NAME: <state>` row per held\r\n/// subnet (`(none)` when empty), divider. Pure for tests.\r\n// [impl->REQ-DAEMON-3]\r\nfn render_subnets_joined(rows: &[(String, &'static str)]) -> String {\r\n    let mut out = String::from(\"spt subnets joined\\n──────────────────\\n\");\r\n    if rows.is_empty() {\r\n        out.push_str(\"  (none)\\n\");\r\n    } else {\r\n        for (name, state) in rows {\r\n            out.push_str(&format!(\"  {name}: {state}\\n\"));\r\n        }\r\n    }\r\n    out.push_str(\"────────────────────────────────────────\\n\");\r\n    out\r\n}\r\n\r\n/// Ensure the per-machine daemon is up for a daemon-dependent command —\r\n/// silent when it already runs; otherwise announce the transition on\r\n/// stderr (stdout stays payload-pure) and conclude with a divider before\r\n/// the command's own output (grill 2026-06-06). The membership-creating\r\n/// verbs call this because **membership implies reachability** (CONTEXT\r\n/// §subnet attachment): a sole seed-holder with no responder daemon is a\r\n/// contradiction of the subnet's purpose.\r\n// [impl->REQ-SUBNET-2] [impl->REQ-DAEMON-3]\r\nfn ensure_daemon_announced() -> Result<(), i32> {\r\n    if spt_daemon::is_running() {\r\n        return Ok(());\r\n    }\r\n    eprintln!(\"spt-core daemon is offline - coming online...\");\r\n    if let Err(e) = spt_daemon::ensure_running() {\r\n        eprintln!(\"DAEMON_START_FAIL: {e}\");\r\n        return Err(1);\r\n    }\r\n    let ident = node_ident_display();\r\n    eprintln!(\"spt-core daemon: online - {ident}\");\r\n    // Attachment states per subnet (M8 decision 6, REQ-SUBNET-5): detached\r\n    // is a chosen per-subnet state; a net-less daemon (endpoint bind\r\n    // failed) serves nothing — \"no connection\", never conflated with a\r\n    // deliberate detach (CONTEXT §subnet attachment).\r\n    let net_up = spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms())\r\n        .ok()\r\n        .and_then(|mut b| b.net_status().ok())\r\n        .map(|s| s.enabled)\r\n        .unwrap_or(true); // can't ask ⇒ assume serving rather than alarm\r\n    let att = spt_store::attachment::AttachmentStore::load();\r\n    let rows: Vec<(String, &'static str)> = SubnetStore::load()\r\n        .subnets\r\n        .iter()\r\n        .map(|s| {\r\n            let state = if att.is_detached(&s.name) {\r\n                \"detached\"\r\n            } else if net_up {\r\n                \"attached\"\r\n            } else {\r\n                \"no connection\"\r\n            };\r\n            (s.name.clone(), state)\r\n        })\r\n        .collect();\r\n    eprint!(\"{}\", render_subnets_joined(&rows));\r\n    // Blocked-inbound honesty on the coming-online banner too (M8 root\r\n    // cause 3, REQ-INSTALL-7): a fresh user-scope install learns NOW, not\r\n    // after a silent NO_SEED_HOLDER join failure.\r\n    if let Some(w) = inbound_block_hint() {\r\n        eprint!(\"{w}\");\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// `spt subnet status` --json: the membership rows (a copy of\r\n/// `SubnetStatusRow`), plus the per-node rows (a copy of `NodeRow` + the\r\n/// probe-settled liveness) when `--nodes` is set. Internal structs stay free to\r\n/// refactor — these are the committed shape.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct SubnetStatusJson {\r\n    daemon_running: bool,\r\n    subnets: Vec<SubnetRowJson>,\r\n}\r\n\r\n/// One subnet's membership-shape row (mirrors `SubnetStatusRow`). `nodes`\r\n/// (per-node detail) is present only on the `--nodes` view; otherwise empty.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct SubnetRowJson {\r\n    name: String,\r\n    node_count: usize,\r\n    endpoint_count: usize,\r\n    nodes: Vec<NodeRowJson>,\r\n}\r\n\r\n/// One node's `--nodes` row (mirrors `NodeRow` + the settled liveness verdict).\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct NodeRowJson {\r\n    node: String,\r\n    label: Option<String>,\r\n    active: usize,\r\n    total: usize,\r\n    online: bool,\r\n}\r\n\r\n/// `spt subnet [status [NAME] [--nodes]]` — the membership view (REQ-SUBNET-1,\r\n/// M7 plan decisions 5 + 6; M8 decisions 11–12, 23). Read-only and ungated:\r\n/// prints membership shape, never secrets. `hints` = the bare-`spt subnet`\r\n/// invocation (the footer rides only that view).\r\n// [impl->REQ-SUBNET-1]\r\n// [impl->REQ-SUBNET-8]\r\nfn cmd_subnet_status(name: Option<String>, nodes: bool, hints: bool, json: bool) -> i32 {\r\n    let store = SubnetStore::load();\r\n    if let Some(n) = &name {\r\n        if store.find(n).is_none() {\r\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\r\n            return 2;\r\n        }\r\n    }\r\n    let daemon_running = spt_daemon::is_running();\r\n    let stall = if daemon_running {\r\n        pump_stall_warning(now_ms())\r\n    } else {\r\n        None\r\n    };\r\n    // Blocked-inbound honesty (REQ-INSTALL-7): only worth checking when the\r\n    // daemon serves — a stopped daemon is the bigger headline already.\r\n    let inbound = if daemon_running {\r\n        inbound_block_hint()\r\n    } else {\r\n        None\r\n    };\r\n    let snap_dir = perch::identity_dir().join(\"registry\");\r\n    let regs = crate::wansend::load_snapshots(&snap_dir);\r\n    let roster = spt_store::roster::RosterStore::load();\r\n    let own_hex = spt_store::nodeid::load_or_create()\r\n        .map(|i| i.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    if !nodes {\r\n        let rows = subnet_status_rows(\r\n            &store,\r\n            &regs,\r\n            &roster,\r\n            Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\r\n            name.as_deref(),\r\n        );\r\n        // [impl->REQ-CLI-JSON] The membership view without per-node detail.\r\n        if json {\r\n            let subnets = rows\r\n                .iter()\r\n                .map(|r| SubnetRowJson {\r\n                    name: r.name.clone(),\r\n                    node_count: r.nodes,\r\n                    endpoint_count: r.endpoints,\r\n                    nodes: Vec::new(),\r\n                })\r\n                .collect();\r\n            return print_json(&SubnetStatusJson {\r\n                daemon_running,\r\n                subnets,\r\n            });\r\n        }\r\n        let mut out = render_subnet_status(&rows, daemon_running, hints);\r\n        if let Some(w) = daemon_offline_hint(daemon_running) {\r\n            out.push_str(&w);\r\n        }\r\n        if let Some(w) = stall {\r\n            out.push_str(&w);\r\n        }\r\n        if let Some(w) = inbound {\r\n            out.push_str(&w);\r\n        }\r\n        // Human status view: render the assembled prose (HINT_FOOTER /\r\n        // standalone_text / pump_stall_warning / daemon_offline_hint /\r\n        // inbound_block_hint all flow through here). Node-id rows carry no\r\n        // Markdown markers, so only the hints restyle/strip.\r\n        // [impl->REQ-CLI-OUTPUT-MARKDOWN]\r\n        print!(\"{}\", crate::helpfmt::render(&out, crate::helpfmt::stdout_color()));\r\n        let _ = std::io::stdout().flush();\r\n        return 0;\r\n    }\r\n\r\n    // --nodes: per-node rows under the hybrid liveness (decision 6).\r\n    let heard: std::collections::BTreeMap<String, u64> = std::fs::read(\r\n        spt_daemon::registryhost::RegistryHost::heard_path(&snap_dir),\r\n    )\r\n    .ok()\r\n    .and_then(|b| serde_json::from_slice(&b).ok())\r\n    .unwrap_or_default();\r\n    // Stale = silent for 3 advertisement cadences (the daemon re-gossips\r\n    // every pump period; missing a couple is jitter, missing three is news).\r\n    let stale_after_ms = 3 * spt_daemon::DaemonConfig::load()\r\n        .registry_pump_period\r\n        .as_millis() as u64;\r\n    // Pass 1: classify every matching subnet's rows (pure `node_status_rows`),\r\n    // collecting the silent (Probe) ones into ONE cross-subnet work-list. The\r\n    // fan-out spans the whole view so a multi-subnet status pays one ceiling\r\n    // total, not one per subnet.\r\n    let mut per_subnet: Vec<(String, Vec<NodeRow>)> = Vec::new();\r\n    let mut worklist: Vec<(String, String)> = Vec::new();\r\n    for sub in &store.subnets {\r\n        if name.as_deref().is_some_and(|n| n != sub.name) {\r\n            continue;\r\n        }\r\n        let empty = spt_net::net::registry::SubnetRegistry::new();\r\n        let reg = regs.get(&sub.name).unwrap_or(&empty);\r\n        // Membership seed: self + roster members (rowless members still\r\n        // render — fresh boxes and eviction-decayed offline peers alike).\r\n        let mut members: Vec<(String, Option<String>)> = Vec::new();\r\n        if !own_hex.is_empty() {\r\n            members.push((own_hex.clone(), spt_store::hostlabel::os_hostname()));\r\n        }\r\n        for member in roster.members_in(&sub.name) {\r\n            let label = (!member.label.is_empty()).then(|| member.label.clone());\r\n            members.push((member.pubkey_hex.clone(), label));\r\n        }\r\n        let rows = node_status_rows(reg, &members, &heard, &own_hex, now_ms(), stale_after_ms);\r\n        for r in &rows {\r\n            if r.liveness == NodeLiveness::Probe {\r\n                worklist.push((r.node.clone(), sub.name.clone()));\r\n            }\r\n        }\r\n        per_subnet.push((sub.name.clone(), rows));\r\n    }\r\n    // Announce the probe phase once, before any dial — silent nodes cost a\r\n    // bounded dial each and the user should know what the wait is for.\r\n    if !worklist.is_empty() {\r\n        eprintln!(\"Checking remote nodes…\");\r\n        let _ = std::io::stderr().flush();\r\n    }\r\n    // Pass 2: one CONCURRENT batch across ALL subnets (REQ-MESH-6). Wall ≈ one\r\n    // PROBE_TIMEOUT (bounded by MAX_INFLIGHT), not k×PROBE_TIMEOUT serial.\r\n    let probed = probe_all(&worklist, PROBE_TIMEOUT, MAX_INFLIGHT, |n, s| {\r\n        crate::wansend::probe_node_serving(n, s)\r\n    });\r\n    // Pass 3: stitch results back in row order — the work-list was filled in\r\n    // row order, so a single cursor walks it deterministically. Render is\r\n    // unchanged (`render_node_rows`), so output matches the old serial path.\r\n    let mut cursor = 0usize;\r\n    let mut out = String::new();\r\n    // [impl->REQ-CLI-JSON] Collect the settled rows per subnet so the machine\r\n    // view emits the same probe-settled liveness the human table renders.\r\n    let mut json_subnets: Vec<SubnetRowJson> = Vec::new();\r\n    for (sub_name, rows) in per_subnet {\r\n        let settled: Vec<(NodeRow, bool)> = rows\r\n            .into_iter()\r\n            .map(|r| {\r\n                let online = match r.liveness {\r\n                    NodeLiveness::Online => true,\r\n                    NodeLiveness::Offline => false,\r\n                    NodeLiveness::Probe => {\r\n                        let v = probed.get(cursor).copied().unwrap_or(false);\r\n                        cursor += 1;\r\n                        v\r\n                    }\r\n                };\r\n                (r, online)\r\n            })\r\n            .collect();\r\n        if json {\r\n            let node_rows: Vec<NodeRowJson> = settled\r\n                .iter()\r\n                .map(|(r, online)| NodeRowJson {\r\n                    node: r.node.clone(),\r\n                    label: r.label.clone(),\r\n                    active: r.active,\r\n                    total: r.total,\r\n                    online: *online,\r\n                })\r\n                .collect();\r\n            json_subnets.push(SubnetRowJson {\r\n                name: sub_name.clone(),\r\n                node_count: node_rows.len(),\r\n                endpoint_count: node_rows.iter().map(|n| n.total).sum(),\r\n                nodes: node_rows,\r\n            });\r\n        }\r\n        out.push_str(&render_node_rows(&sub_name, &settled));\r\n    }\r\n    // [impl->REQ-CLI-JSON]\r\n    if json {\r\n        return print_json(&SubnetStatusJson {\r\n            daemon_running,\r\n            subnets: json_subnets,\r\n        });\r\n    }\r\n    if out.is_empty() {\r\n        out.push_str(standalone_text(daemon_running));\r\n    }\r\n    if let Some(w) = daemon_offline_hint(daemon_running) {\r\n        out.push_str(&w);\r\n    }\r\n    if let Some(w) = stall {\r\n        out.push_str(&w);\r\n    }\r\n    if let Some(w) = inbound {\r\n        out.push_str(&w);\r\n    }\r\n    if hints {\r\n        out.push_str(HINT_FOOTER);\r\n    }\r\n    // Same human status view as the non-`--nodes` branch — render the prose.\r\n    // [impl->REQ-CLI-OUTPUT-MARKDOWN]\r\n…\n}","startLine":6667,"lineNumbers":[6667,null,6699,6700,6701,6702,6703,6704,6705,6706,6707,6708,6709,6710,6711,6712,6713,6714,6715,6716,6717,6718,6719,6720,6721,6722,6723,6724,6725,6726,6727,6728,6729,6730,6731,6732,6733,6734,6735,6736,6737,6738,6739,6740,6741,6742,6743,6744,6745,6746,6747,6748,6749,6750,6751,6752,6753,6754,6755,6756,6757,6758,6759,6760,6761,6762,6763,6764,6765,6766,6767,6768,6769,6770,6771,6772,6773,6774,6775,6776,6777,6778,6779,6780,6781,6782,6783,6784,6785,6786,6787,6788,6789,6790,6791,6792,6793,6794,6795,6796,6797,6798,6799,6800,6801,6802,6803,6804,6805,6806,6807,6808,6809,6810,6811,6812,6813,6814,6815,6816,6817,6818,6819,6820,6821,6822,6823,6824,6825,6826,6827,6828,6829,6830,6831,6832,6833,6834,6835,6836,6837,6838,6839,6840,6841,6842,6843,6844,6845,6846,6847,6848,6849,6850,6851,6852,6853,6854,6855,6856,6857,6858,6859,6860,6861,6862,6863,6864,6865,6866,6867,6868,6869,6870,6871,6872,6873,6874,6875,6876,6877,6878,6879,6880,6881,6882,6883,6884,6885,6886,6887,6888,6889,6890,6891,6892,6893,6894,6895,6896,6897,6898,6899,6900,6901,6902,6903,6904,6905,6906,6907,6908,6909,6910,6911,6912,6913,6914,6915,6916,6917,6918,6919,6920,6921,6922,6923,6924,6925,6926,6927,6928,6929,6930,6931,6932,6933,6934,6935,6936,6937,6938,6939,6940,6941,6942,6943,6944,6945,6946,6947,6948,6949,6950,6951,6952,6953,6954,6955,6956,6957,6958,6959,6960,6961,6962,6963,6964,6965,6966,6967,6968,6969,6970,6971,6972,6973,6974,6975,6976,6977,6978,6979,6980,6981,6982,6983,6984,6985,6986,6987,6988,6989,6990,6991,6992,6993,6994,6995,6996,6997,6998,6999,7000,7001,7002,7003,7004,7005,7006,7007,7008,7009,7010,7011,7012,7013,7014,7015,7016,7017,7018,7019,7020,7021,7022,7023,7024,7025,7026,7027,7028,7029,7030,7031,7032,7033,7034,7035,7036,7037,7038,7039,7040,7041,7042,7043,7044,7045,7046,7047,7048,7049,7050,7051,7052,7053,7054,7055,7056,7057,7058,7059,7060,7061,7062,7063,7064,7065,7066,7067,7068,7069,7070,7071,7072,7073,7074,7075,7076,7077,7078,7079,7080,7081,7082,7083,7084,7085,7086,7087,7088,7089,7090,7091,7092,7093,7094,7095,7096,7097,7098,7099,7100,7101,7102,7103,7104,7105,7106,7107,7108,7109,7110,7111,7112,7113,7114,7115,7116,7117,7118,7119,7120,7121,7122,7123,7124,7125,7126,7127,7128,7129,7130,7131,7132,7133,7134,7135,7136,7137,7138,7139,7140,7141,7142,7143,7144,7145,7146,7147,7148,7149,7150,7151,7152,7153,7154,7155,7156,7157,7158,7159,7160,7161,7162,7163,7164,7165,7166,7167,7168,7169,7170,7171,7172,7173,7174,7175,7176,7177,7178,7179,7180,7181,7182,7183,7184,7185,7186,7187,7188,7189,7190,7191,7192,7193,7194,7195,7196,7197,7198,7199,7200,7201,7202,7203,7204,7205,7206,7207,7208,7209,7210,7211,7212,7213,7214,7215,7216,7217,7218,7219,7220,7221,7222,7223,7224,7225,7226,7227,7228,7229,7230,7231,7232,7233,7234,7235,7236,7237,7238,7239,7240,7241,7242,7243,7244,7245,7246,7247,7248,7249,7250,7251,7252,7253,7254,7255,7256,7257,7258,7259,7260,7261,7262,7263,7264,7265,7266,7267,7268,7269,7270,7271,7272,7273,7274,7275,7276,7277,7278,7279,7280,7281,7282,7283,7284,7285,7286,7287,7288,7289,7290,7291,7292,7293,7294,7295,7296,7297,7298,7299,7300,7301,7302,7303,7304,7305,7306,7307,7308,7309,7310,7311,7312,7313,7314,7315,7316,7317,7318,7319,7320,7321,7322,7323,7324,7325,7326,7327,7328,7329,7330,7331,7332,7333,7334,7335,7336,7337,7338,7339,7340,7341,7342,7343,7344,7345,7346,7347,7348,7349,7350,7351,7352,7353,7354,7355,7356,7357,7358,7359,7360,7361,7362,7363,7364,7365,7366,7367,7368,7369,7370,7371,7372,7373,7374,7375,7376,7377,7378,7379,7380,7381,7382,7383,7384,7385,7386,7387,7388,7389,7390,7391,7392,7393,7394,7395,7396,7397,7398,7399,7400,7401,7402,7403,7404,7405,7406,7407,7408,7409,7410,7411,7412,7413,7414,7415,7416,7417,7418,7419,7420,7421,7422,7423,7424,7425,7426,7427,7428,7429,7430,7431,7432,7433,7434,7435,7436,7437,7438,7439,7440,7441,7442,7443,7444,7445,7446,7447,7448,7449,7450,7451,7452,7453,7454,7455,7456,7457,7458,7459,7460,7461,7462,7463,7464,7465,7466,7467,7468,7469,7470,7471,7472,7473,7474,7475,7476,7477,7478,7479,7480,7481,7482,7483,null,7487]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt\\src\\cli.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":17537,"totalBytes":32752,"outputLines":785,"outputBytes":32752,"shownRange":{"start":6699,"end":7483},"nextOffset":7484}}},"isError":false,"timestamp":1784069042677}}
{"type":"message","id":"d636b9b6","parentId":"f0e68ee5","timestamp":"2026-07-14T22:44:02.791Z","message":{"role":"toolResult","toolCallId":"call_0FOwWpIC1DiZDl2W9vgiHEJe|fc_0b084cf0b521ab15016a56bbb249dc81909ab9900e597cc310","toolName":"read","content":[{"type":"text","text":"fn cmd_daemon_stop(force: bool) -> i32 {\n…\n    match spt_daemon::stop_daemon() {\n…\n        Ok(spt_daemon::StopOutcome::IpcStopped) => {\n…\n        }\n        Err(e) => {\n            eprintln!(\"DAEMON_STOP_FAIL: {e}\");\n            1\n        }\n    }\n}\n\n/// The connection + peer-pump status lines (REQ-DAEMON-5/-9). Pure for tests.\n/// A net-LESS broker (`net_up == false`) surfaces \"no connection (retrying)\" +\n/// a pump waiting on the network — NOT a STALLED alarm read off a stale\n/// pre-boot heartbeat (the kitsubito 2026-06-08 boot-race misreport, where the\n/// heartbeat age exceeded uptime). With net up, the heartbeat drives\n/// live/stalled as before (a genuine wedge still reads STALLED honestly).\n// [impl->REQ-DAEMON-9]\nfn render_connection_lines(\n    net_up: bool,\n    heartbeat: Option<u64>,\n    now: u64,\n    stale_after: u64,\n) -> String {\n    if !net_up {\n        return \"connection: no connection — net endpoint not bound (retrying in background)\\n\\\n                peer pump: waiting on network\\n\"\n            .to_string();\n    }\n    match heartbeat {\n        Some(at) => {\n            let age = now.saturating_sub(at);\n            if age <= stale_after {\n                format!(\"peer pump: live (last tick {}s ago)\\n\", age / 1000)\n            } else {\n                format!(\n                    \"peer pump: STALLED (last tick {}s ago — advertising/connecting \\\n                     is not running; restart the daemon)\\n\",\n                    age / 1000\n                )\n            }\n        }\n        None => \"peer pump: no heartbeat recorded\\n\".to_string(),\n    }\n}\n\n/// `spt daemon [status]` — the node status view (M8 decisions 23 + 25b,\n/// REQ-CLI-2): daemon state (running/stopped + the peer-pump heartbeat —\n/// a stalled pump renders honestly, never implied-healthy), the member\n/// subnets, and this node's local endpoints. Read-only and ungated.\n// [impl->REQ-CLI-2]\n/// `spt daemon status` --json: the same facts the human view renders — daemon\n/// running + pid, network/pump liveness, the managing service, member subnet\n/// rows, and this node's local perches — copied into committed fields.\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct DaemonStatusJson {\n    running: bool,\n    pid: Option<String>,\n    /// Net endpoint bound (the pump has a network to gossip on). `None` when\n    /// the daemon is down (not queried).\n    net_up: Option<bool>,\n    /// Peer-pump last-tick wall-clock ms (`None` = no heartbeat recorded).\n    pump_heartbeat_ms: Option<u64>,\n    /// The managing service label, if a registered service owns this daemon.\n    managed_by: Option<String>,\n    managed_active: Option<bool>,\n    subnets: Vec<DaemonSubnetJson>,\n    local_endpoints: Vec<LocalPerchJson>,\n    /// F-025: the version the RUNNING broker reports it was compiled at (its own\n    /// image), or `None` when the daemon is down / the broker predates the\n    /// self-report. Distinct from the installed CLI version.\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    broker_image: Option<String>,\n    /// F-025: whether the running broker is on a DIFFERENT image than the\n    /// installed CLI (a `spt update apply` landed but the surviving daemon still\n    /// runs the previous version). `None` when the daemon is down.\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    broker_stale: Option<bool>,\n    /// LIFECYCLE-TRUTH W2 observability rider: brain-subscriber stall-evicts since\n    /// broker boot (a controller detached for a suspended/black-holed brain conn).\n    /// `None` when the daemon is down or the broker is too old to report; `Some(0)`\n    /// = healthy, none evicted.\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    stall_evict_count: Option<u64>,\n    /// Wall-ms of the most recent stall-evict (0 = none). Omitted when count is None.\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    stall_evict_last_ms: Option<u64>,\n}\n\n/// One member subnet's count row in the daemon status view.\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct DaemonSubnetJson {\n    name: String,\n    nodes: usize,\n    endpoints: usize,\n}\n\n/// F-025 running-image surface: compose the `daemon status` line reporting the\n/// version the BROKER process is actually executing beside the installed CLI\n/// version. `running` is the broker's self-reported compiled version (`None` = the\n/// broker predates the self-report IPC, i.e. it is definitely older than this\n/// build). A mismatch means a `spt update apply` landed on disk but the surviving\n/// broker still runs the previous image — daemon-coordinated features keep running\n/// the old version until the daemon restarts. Public wording, no internal codes.\n/// Pure — unit-tested.\n// [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE]\nfn render_broker_image_line(running: Option<&str>, installed: &str) -> String {\n    match running {\n        Some(v) if v == installed => format!(\"broker image: {v} (matches installed)\"),\n        Some(v) => format!(\n            \"broker image: {v} (running) — installed is {installed}; the daemon is still on the \\\n             previous version, so daemon-coordinated features run {v} until it restarts. Restart \\\n             with `spt daemon stop` then `spt daemon start`.\"\n        ),\n        None => format!(\n            \"broker image: not reported (the running daemon predates version reporting, or could \\\n             not be queried) — if it is older than the installed {installed}, restart with \\\n             `spt daemon stop` then `spt daemon start` to load {installed}.\"\n        ),\n    }\n}\n\n/// LIFECYCLE-TRUTH W2 observability rider: the `daemon status` line reporting\n/// brain-subscriber stall-evicts (a controller detached because its brain conn was\n/// suspended / black-holed). `None` = the broker couldn't be queried / is too old\n/// (silent — no line). `Some(0)` renders a healthy line so \"none\" is an explicit\n/// fact, not an absence; `Some(n>0)` names the count + the most-recent time so a\n/// brain that never returned is diagnosable. Public wording, no internal codes.\n/// Pure — unit-tested.\n// [impl->REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE]\nfn render_stall_evict_line(stats: Option<(u64, u64)>) -> Option<String> {\n    let (count, last_ms) = stats?;\n    if count == 0 {\n        return Some(\"brain subscribers: healthy (none stall-evicted)\".to_string());\n    }\n    let when = if last_ms == 0 {\n        String::new()\n    } else {\n        format!(\" (last at {last_ms} epoch-ms)\")\n    };\n    Some(format!(\n        \"brain subscribers: {count} stall-evicted since boot{when} — a controller was \\\n         detached because its brain connection stopped draining (suspended or wedged); \\\n         control was released so reattach/take could proceed\"\n    ))\n}\n\nfn cmd_daemon_status(json: bool) -> i32 {\n    // Daemon state: the socket ping is liveness truth (never the pid file).\n    let running = spt_daemon::is_running();\n    // [impl->REQ-CLI-JSON] Machine-readable view: assemble the same facts the\n    // human render below derives, then emit the DTO and return.\n    if json {\n        let pid = running\n            .then(|| {\n                std::fs::read_to_string(spt_daemon::daemon_pid_path())\n                    .ok()\n                    .map(|s| s.trim().to_string())\n                    .filter(|p| !p.is_empty())\n            })\n            .flatten();\n        // One broker handle answers net-status, the F-025 image query, and the W2\n        // stall-evict tally.\n        let (net_up, broker_image, broker_queried, stall_stats) = if running {\n            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\n                Ok(mut b) => {\n                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n                    let stall = b.stall_evicts().ok().flatten();\n                    // Ok(Some)=version / Ok(None)=old broker (both a successful\n                    // query) vs Err=couldn't query — keep them distinct so a\n                    // transient IPC failure does not read as a definite stale.\n                    match b.broker_image_version() {\n                        Ok(v) => (Some(n), v, true, stall),\n                        Err(_) => (Some(n), None, false, stall),\n                    }\n                }\n                Err(_) => (Some(true), None, false, None),\n            }\n        } else {\n            (None, None, false, None)\n        };\n        let (stall_evict_count, stall_evict_last_ms) = match stall_stats {\n            Some((c, l)) => (Some(c), Some(l)),\n            None => (None, None),\n        };\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] stale is only DEFINITE after a\n        // successful query: None when the daemon is down OR the broker could not be\n        // queried (no false-positive true on a transient failure — doyle F-025 nit).\n        let broker_stale = (running && broker_queried)\n            .then(|| broker_image.as_deref() != Some(env!(\"CARGO_PKG_VERSION\")));\n        let pump_heartbeat_ms = if running {\n            spt_daemon::read_pump_heartbeat()\n        } else {\n            None\n        };\n        let svc = spt_daemon::service::platform_service();\n        let (managed_by, managed_active) = if svc.detected() {\n            (Some(svc.label().to_string()), Some(svc.is_active()))\n        } else {\n            (None, None)\n        };\n        let store = SubnetStore::load();\n        let mut subnets = Vec::new();\n        if !store.subnets.is_empty() {\n            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n            let roster = spt_store::roster::RosterStore::load();\n            let own_hex = spt_store::nodeid::load_or_create()\n                .map(|i| i.public_key().to_hex())\n                .unwrap_or_default();\n            for row in subnet_status_rows(\n                &store,\n                &regs,\n                &roster,\n                Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\n                None,\n            ) {\n                subnets.push(DaemonSubnetJson {\n                    name: row.name,\n                    nodes: row.nodes,\n                    endpoints: row.endpoints,\n                });\n            }\n        }\n        let local_endpoints = roster::enumerate()\n            .into_iter()\n            .map(|p| LocalPerchJson {\n                id: p.id,\n                state: p.state,\n                address: p.address,\n                ready: p.ready,\n                alive: p.alive,\n                unbound: p.unbound,\n                // The project column is an `endpoint list` concern (#8); daemon-status\n                // does not derive it (avoids per-perch git cost here) — skip-if-none.\n                project: None,\n            })\n            .collect();\n        return print_json(&DaemonStatusJson {\n            running,\n            pid,\n            net_up,\n            pump_heartbeat_ms,\n            managed_by,\n            managed_active,\n            subnets,\n            local_endpoints,\n            broker_image,\n            broker_stale,\n            stall_evict_count,\n            stall_evict_last_ms,\n        });\n    }\n    if running {\n        let pid = std::fs::read_to_string(spt_daemon::daemon_pid_path())\n            .ok()\n            .map(|s| s.trim().to_string());\n        match pid {\n            Some(p) if !p.is_empty() => println!(\"daemon: running (pid {p})\"),\n            _ => println!(\"daemon: running\"),\n        }\n        // Connection + pump liveness (M8 decision 23 leg 1; REQ-DAEMON-9): a\n        // net-LESS broker (net endpoint not bound — e.g. mid boot-race\n        // self-heal after the autostart beat the network up) surfaces the REAL\n        // cause, not a STALLED alarm read off a stale pre-boot heartbeat.\n        // One broker handle answers both net-status and the F-025 image query.\n        let (net_up, broker_image, stall_stats) = match spt_daemon::brain::Brain::cold_start(\n            &spt_daemon::broker_socket_name(),\n            now_ms(),\n        ) {\n            Ok(mut b) => {\n                let net_up = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n                let stall = b.stall_evicts().ok().flatten();\n                let image = b.broker_image_version().ok().flatten();\n                (net_up, image, stall)\n            }\n            Err(_) => (true, None, None), // can't ask ⇒ don't false-alarm\n        };\n        let stale_after = 3 * spt_daemon::DaemonConfig::load()\n            .registry_pump_period\n            .as_millis() as u64;\n        print!(\n            \"{}\",\n            render_connection_lines(\n                net_up,\n                spt_daemon::read_pump_heartbeat(),\n                now_ms(),\n                stale_after,\n            )\n        );\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] surface the RUNNING broker\n        // image beside the installed version (the daemon may have survived an\n        // apply and still run the previous binary).\n        println!(\n            \"{}\",\n            render_broker_image_line(broker_image.as_deref(), env!(\"CARGO_PKG_VERSION\"))\n        );\n        // [impl->REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE] W2 observability rider:\n        // surface brain-subscriber stall-evicts so a suspended/wedged brain that\n        // never returned is a diagnosable fact, not a silent absence.\n        if let Some(line) = render_stall_evict_line(stall_stats) {\n            println!(\"{line}\");\n        }\n    } else {\n        // [impl->REQ-CLI-OUTPUT-MARKDOWN]\n        println!(\n            \"{}\",\n…\n        );\n    }\n…\n}\n\n[Showing lines 3959-4263 of 17537. Use :4264 to continue]"}],"details":{"truncation":{"content":"        }\r\n        Err(e) => {\r\n            eprintln!(\"DAEMON_STOP_FAIL: {e}\");\r\n            1\r\n        }\r\n    }\r\n}\r\n\r\n/// The connection + peer-pump status lines (REQ-DAEMON-5/-9). Pure for tests.\r\n/// A net-LESS broker (`net_up == false`) surfaces \"no connection (retrying)\" +\r\n/// a pump waiting on the network — NOT a STALLED alarm read off a stale\r\n/// pre-boot heartbeat (the kitsubito 2026-06-08 boot-race misreport, where the\r\n/// heartbeat age exceeded uptime). With net up, the heartbeat drives\r\n/// live/stalled as before (a genuine wedge still reads STALLED honestly).\r\n// [impl->REQ-DAEMON-9]\r\nfn render_connection_lines(\r\n    net_up: bool,\r\n    heartbeat: Option<u64>,\r\n    now: u64,\r\n    stale_after: u64,\r\n) -> String {\r\n    if !net_up {\r\n        return \"connection: no connection — net endpoint not bound (retrying in background)\\n\\\r\n                peer pump: waiting on network\\n\"\r\n            .to_string();\r\n    }\r\n    match heartbeat {\r\n        Some(at) => {\r\n            let age = now.saturating_sub(at);\r\n            if age <= stale_after {\r\n                format!(\"peer pump: live (last tick {}s ago)\\n\", age / 1000)\r\n            } else {\r\n                format!(\r\n                    \"peer pump: STALLED (last tick {}s ago — advertising/connecting \\\r\n                     is not running; restart the daemon)\\n\",\r\n                    age / 1000\r\n                )\r\n            }\r\n        }\r\n        None => \"peer pump: no heartbeat recorded\\n\".to_string(),\r\n    }\r\n}\r\n\r\n/// `spt daemon [status]` — the node status view (M8 decisions 23 + 25b,\r\n/// REQ-CLI-2): daemon state (running/stopped + the peer-pump heartbeat —\r\n/// a stalled pump renders honestly, never implied-healthy), the member\r\n/// subnets, and this node's local endpoints. Read-only and ungated.\r\n// [impl->REQ-CLI-2]\r\n/// `spt daemon status` --json: the same facts the human view renders — daemon\r\n/// running + pid, network/pump liveness, the managing service, member subnet\r\n/// rows, and this node's local perches — copied into committed fields.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct DaemonStatusJson {\r\n    running: bool,\r\n    pid: Option<String>,\r\n    /// Net endpoint bound (the pump has a network to gossip on). `None` when\r\n    /// the daemon is down (not queried).\r\n    net_up: Option<bool>,\r\n    /// Peer-pump last-tick wall-clock ms (`None` = no heartbeat recorded).\r\n    pump_heartbeat_ms: Option<u64>,\r\n    /// The managing service label, if a registered service owns this daemon.\r\n    managed_by: Option<String>,\r\n    managed_active: Option<bool>,\r\n    subnets: Vec<DaemonSubnetJson>,\r\n    local_endpoints: Vec<LocalPerchJson>,\r\n    /// F-025: the version the RUNNING broker reports it was compiled at (its own\r\n    /// image), or `None` when the daemon is down / the broker predates the\r\n    /// self-report. Distinct from the installed CLI version.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    broker_image: Option<String>,\r\n    /// F-025: whether the running broker is on a DIFFERENT image than the\r\n    /// installed CLI (a `spt update apply` landed but the surviving daemon still\r\n    /// runs the previous version). `None` when the daemon is down.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    broker_stale: Option<bool>,\r\n    /// LIFECYCLE-TRUTH W2 observability rider: brain-subscriber stall-evicts since\r\n    /// broker boot (a controller detached for a suspended/black-holed brain conn).\r\n    /// `None` when the daemon is down or the broker is too old to report; `Some(0)`\r\n    /// = healthy, none evicted.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    stall_evict_count: Option<u64>,\r\n    /// Wall-ms of the most recent stall-evict (0 = none). Omitted when count is None.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    stall_evict_last_ms: Option<u64>,\r\n}\r\n\r\n/// One member subnet's count row in the daemon status view.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct DaemonSubnetJson {\r\n    name: String,\r\n    nodes: usize,\r\n    endpoints: usize,\r\n}\r\n\r\n/// F-025 running-image surface: compose the `daemon status` line reporting the\r\n/// version the BROKER process is actually executing beside the installed CLI\r\n/// version. `running` is the broker's self-reported compiled version (`None` = the\r\n/// broker predates the self-report IPC, i.e. it is definitely older than this\r\n/// build). A mismatch means a `spt update apply` landed on disk but the surviving\r\n/// broker still runs the previous image — daemon-coordinated features keep running\r\n/// the old version until the daemon restarts. Public wording, no internal codes.\r\n/// Pure — unit-tested.\r\n// [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE]\r\nfn render_broker_image_line(running: Option<&str>, installed: &str) -> String {\r\n    match running {\r\n        Some(v) if v == installed => format!(\"broker image: {v} (matches installed)\"),\r\n        Some(v) => format!(\r\n            \"broker image: {v} (running) — installed is {installed}; the daemon is still on the \\\r\n             previous version, so daemon-coordinated features run {v} until it restarts. Restart \\\r\n             with `spt daemon stop` then `spt daemon start`.\"\r\n        ),\r\n        None => format!(\r\n            \"broker image: not reported (the running daemon predates version reporting, or could \\\r\n             not be queried) — if it is older than the installed {installed}, restart with \\\r\n             `spt daemon stop` then `spt daemon start` to load {installed}.\"\r\n        ),\r\n    }\r\n}\r\n\r\n/// LIFECYCLE-TRUTH W2 observability rider: the `daemon status` line reporting\r\n/// brain-subscriber stall-evicts (a controller detached because its brain conn was\r\n/// suspended / black-holed). `None` = the broker couldn't be queried / is too old\r\n/// (silent — no line). `Some(0)` renders a healthy line so \"none\" is an explicit\r\n/// fact, not an absence; `Some(n>0)` names the count + the most-recent time so a\r\n/// brain that never returned is diagnosable. Public wording, no internal codes.\r\n/// Pure — unit-tested.\r\n// [impl->REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE]\r\nfn render_stall_evict_line(stats: Option<(u64, u64)>) -> Option<String> {\r\n    let (count, last_ms) = stats?;\r\n    if count == 0 {\r\n        return Some(\"brain subscribers: healthy (none stall-evicted)\".to_string());\r\n    }\r\n    let when = if last_ms == 0 {\r\n        String::new()\r\n    } else {\r\n        format!(\" (last at {last_ms} epoch-ms)\")\r\n    };\r\n    Some(format!(\r\n        \"brain subscribers: {count} stall-evicted since boot{when} — a controller was \\\r\n         detached because its brain connection stopped draining (suspended or wedged); \\\r\n         control was released so reattach/take could proceed\"\r\n    ))\r\n}\r\n\r\nfn cmd_daemon_status(json: bool) -> i32 {\r\n    // Daemon state: the socket ping is liveness truth (never the pid file).\r\n    let running = spt_daemon::is_running();\r\n    // [impl->REQ-CLI-JSON] Machine-readable view: assemble the same facts the\r\n    // human render below derives, then emit the DTO and return.\r\n    if json {\r\n        let pid = running\r\n            .then(|| {\r\n                std::fs::read_to_string(spt_daemon::daemon_pid_path())\r\n                    .ok()\r\n                    .map(|s| s.trim().to_string())\r\n                    .filter(|p| !p.is_empty())\r\n            })\r\n            .flatten();\r\n        // One broker handle answers net-status, the F-025 image query, and the W2\r\n        // stall-evict tally.\r\n        let (net_up, broker_image, broker_queried, stall_stats) = if running {\r\n            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\r\n                Ok(mut b) => {\r\n                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\r\n                    let stall = b.stall_evicts().ok().flatten();\r\n                    // Ok(Some)=version / Ok(None)=old broker (both a successful\r\n                    // query) vs Err=couldn't query — keep them distinct so a\r\n                    // transient IPC failure does not read as a definite stale.\r\n                    match b.broker_image_version() {\r\n                        Ok(v) => (Some(n), v, true, stall),\r\n                        Err(_) => (Some(n), None, false, stall),\r\n                    }\r\n                }\r\n                Err(_) => (Some(true), None, false, None),\r\n            }\r\n        } else {\r\n            (None, None, false, None)\r\n        };\r\n        let (stall_evict_count, stall_evict_last_ms) = match stall_stats {\r\n            Some((c, l)) => (Some(c), Some(l)),\r\n            None => (None, None),\r\n        };\r\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] stale is only DEFINITE after a\r\n        // successful query: None when the daemon is down OR the broker could not be\r\n        // queried (no false-positive true on a transient failure — doyle F-025 nit).\r\n        let broker_stale = (running && broker_queried)\r\n            .then(|| broker_image.as_deref() != Some(env!(\"CARGO_PKG_VERSION\")));\r\n        let pump_heartbeat_ms = if running {\r\n            spt_daemon::read_pump_heartbeat()\r\n        } else {\r\n            None\r\n        };\r\n        let svc = spt_daemon::service::platform_service();\r\n        let (managed_by, managed_active) = if svc.detected() {\r\n            (Some(svc.label().to_string()), Some(svc.is_active()))\r\n        } else {\r\n            (None, None)\r\n        };\r\n        let store = SubnetStore::load();\r\n        let mut subnets = Vec::new();\r\n        if !store.subnets.is_empty() {\r\n            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n            let roster = spt_store::roster::RosterStore::load();\r\n            let own_hex = spt_store::nodeid::load_or_create()\r\n                .map(|i| i.public_key().to_hex())\r\n                .unwrap_or_default();\r\n            for row in subnet_status_rows(\r\n                &store,\r\n                &regs,\r\n                &roster,\r\n                Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\r\n                None,\r\n            ) {\r\n                subnets.push(DaemonSubnetJson {\r\n                    name: row.name,\r\n                    nodes: row.nodes,\r\n                    endpoints: row.endpoints,\r\n                });\r\n            }\r\n        }\r\n        let local_endpoints = roster::enumerate()\r\n            .into_iter()\r\n            .map(|p| LocalPerchJson {\r\n                id: p.id,\r\n                state: p.state,\r\n                address: p.address,\r\n                ready: p.ready,\r\n                alive: p.alive,\r\n                unbound: p.unbound,\r\n                // The project column is an `endpoint list` concern (#8); daemon-status\r\n                // does not derive it (avoids per-perch git cost here) — skip-if-none.\r\n                project: None,\r\n            })\r\n            .collect();\r\n        return print_json(&DaemonStatusJson {\r\n            running,\r\n            pid,\r\n            net_up,\r\n            pump_heartbeat_ms,\r\n            managed_by,\r\n            managed_active,\r\n            subnets,\r\n            local_endpoints,\r\n            broker_image,\r\n            broker_stale,\r\n            stall_evict_count,\r\n            stall_evict_last_ms,\r\n        });\r\n    }\r\n    if running {\r\n        let pid = std::fs::read_to_string(spt_daemon::daemon_pid_path())\r\n            .ok()\r\n            .map(|s| s.trim().to_string());\r\n        match pid {\r\n            Some(p) if !p.is_empty() => println!(\"daemon: running (pid {p})\"),\r\n            _ => println!(\"daemon: running\"),\r\n        }\r\n        // Connection + pump liveness (M8 decision 23 leg 1; REQ-DAEMON-9): a\r\n        // net-LESS broker (net endpoint not bound — e.g. mid boot-race\r\n        // self-heal after the autostart beat the network up) surfaces the REAL\r\n        // cause, not a STALLED alarm read off a stale pre-boot heartbeat.\r\n        // One broker handle answers both net-status and the F-025 image query.\r\n        let (net_up, broker_image, stall_stats) = match spt_daemon::brain::Brain::cold_start(\r\n            &spt_daemon::broker_socket_name(),\r\n            now_ms(),\r\n        ) {\r\n            Ok(mut b) => {\r\n                let net_up = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\r\n                let stall = b.stall_evicts().ok().flatten();\r\n                let image = b.broker_image_version().ok().flatten();\r\n                (net_up, image, stall)\r\n            }\r\n            Err(_) => (true, None, None), // can't ask ⇒ don't false-alarm\r\n        };\r\n        let stale_after = 3 * spt_daemon::DaemonConfig::load()\r\n            .registry_pump_period\r\n            .as_millis() as u64;\r\n        print!(\r\n            \"{}\",\r\n            render_connection_lines(\r\n                net_up,\r\n                spt_daemon::read_pump_heartbeat(),\r\n                now_ms(),\r\n                stale_after,\r\n            )\r\n        );\r\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] surface the RUNNING broker\r\n        // image beside the installed version (the daemon may have survived an\r\n        // apply and still run the previous binary).\r\n        println!(\r\n            \"{}\",\r\n            render_broker_image_line(broker_image.as_deref(), env!(\"CARGO_PKG_VERSION\"))\r\n        );\r\n        // [impl->REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE] W2 observability rider:\r\n        // surface brain-subscriber stall-evicts so a suspended/wedged brain that\r\n        // never returned is a diagnosable fact, not a silent absence.\r\n        if let Some(line) = render_stall_evict_line(stall_stats) {\r\n            println!(\"{line}\");\r\n        }\r\n    } else {\r\n        // [impl->REQ-CLI-OUTPUT-MARKDOWN]\r\n        println!(\r\n            \"{}\",\r","truncated":true,"truncatedBy":"lines","totalLines":13579,"totalBytes":13755,"outputLines":305,"outputBytes":13755,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn cmd_daemon_stop(force: bool) -> i32 {\n…\n    match spt_daemon::stop_daemon() {\n…\n        Ok(spt_daemon::StopOutcome::IpcStopped) => {\n…\n        }\r\n        Err(e) => {\r\n            eprintln!(\"DAEMON_STOP_FAIL: {e}\");\r\n            1\r\n        }\r\n    }\r\n}\r\n\r\n/// The connection + peer-pump status lines (REQ-DAEMON-5/-9). Pure for tests.\r\n/// A net-LESS broker (`net_up == false`) surfaces \"no connection (retrying)\" +\r\n/// a pump waiting on the network — NOT a STALLED alarm read off a stale\r\n/// pre-boot heartbeat (the kitsubito 2026-06-08 boot-race misreport, where the\r\n/// heartbeat age exceeded uptime). With net up, the heartbeat drives\r\n/// live/stalled as before (a genuine wedge still reads STALLED honestly).\r\n// [impl->REQ-DAEMON-9]\r\nfn render_connection_lines(\r\n    net_up: bool,\r\n    heartbeat: Option<u64>,\r\n    now: u64,\r\n    stale_after: u64,\r\n) -> String {\r\n    if !net_up {\r\n        return \"connection: no connection — net endpoint not bound (retrying in background)\\n\\\r\n                peer pump: waiting on network\\n\"\r\n            .to_string();\r\n    }\r\n    match heartbeat {\r\n        Some(at) => {\r\n            let age = now.saturating_sub(at);\r\n            if age <= stale_after {\r\n                format!(\"peer pump: live (last tick {}s ago)\\n\", age / 1000)\r\n            } else {\r\n                format!(\r\n                    \"peer pump: STALLED (last tick {}s ago — advertising/connecting \\\r\n                     is not running; restart the daemon)\\n\",\r\n                    age / 1000\r\n                )\r\n            }\r\n        }\r\n        None => \"peer pump: no heartbeat recorded\\n\".to_string(),\r\n    }\r\n}\r\n\r\n/// `spt daemon [status]` — the node status view (M8 decisions 23 + 25b,\r\n/// REQ-CLI-2): daemon state (running/stopped + the peer-pump heartbeat —\r\n/// a stalled pump renders honestly, never implied-healthy), the member\r\n/// subnets, and this node's local endpoints. Read-only and ungated.\r\n// [impl->REQ-CLI-2]\r\n/// `spt daemon status` --json: the same facts the human view renders — daemon\r\n/// running + pid, network/pump liveness, the managing service, member subnet\r\n/// rows, and this node's local perches — copied into committed fields.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct DaemonStatusJson {\r\n    running: bool,\r\n    pid: Option<String>,\r\n    /// Net endpoint bound (the pump has a network to gossip on). `None` when\r\n    /// the daemon is down (not queried).\r\n    net_up: Option<bool>,\r\n    /// Peer-pump last-tick wall-clock ms (`None` = no heartbeat recorded).\r\n    pump_heartbeat_ms: Option<u64>,\r\n    /// The managing service label, if a registered service owns this daemon.\r\n    managed_by: Option<String>,\r\n    managed_active: Option<bool>,\r\n    subnets: Vec<DaemonSubnetJson>,\r\n    local_endpoints: Vec<LocalPerchJson>,\r\n    /// F-025: the version the RUNNING broker reports it was compiled at (its own\r\n    /// image), or `None` when the daemon is down / the broker predates the\r\n    /// self-report. Distinct from the installed CLI version.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    broker_image: Option<String>,\r\n    /// F-025: whether the running broker is on a DIFFERENT image than the\r\n    /// installed CLI (a `spt update apply` landed but the surviving daemon still\r\n    /// runs the previous version). `None` when the daemon is down.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    broker_stale: Option<bool>,\r\n    /// LIFECYCLE-TRUTH W2 observability rider: brain-subscriber stall-evicts since\r\n    /// broker boot (a controller detached for a suspended/black-holed brain conn).\r\n    /// `None` when the daemon is down or the broker is too old to report; `Some(0)`\r\n    /// = healthy, none evicted.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    stall_evict_count: Option<u64>,\r\n    /// Wall-ms of the most recent stall-evict (0 = none). Omitted when count is None.\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    stall_evict_last_ms: Option<u64>,\r\n}\r\n\r\n/// One member subnet's count row in the daemon status view.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct DaemonSubnetJson {\r\n    name: String,\r\n    nodes: usize,\r\n    endpoints: usize,\r\n}\r\n\r\n/// F-025 running-image surface: compose the `daemon status` line reporting the\r\n/// version the BROKER process is actually executing beside the installed CLI\r\n/// version. `running` is the broker's self-reported compiled version (`None` = the\r\n/// broker predates the self-report IPC, i.e. it is definitely older than this\r\n/// build). A mismatch means a `spt update apply` landed on disk but the surviving\r\n/// broker still runs the previous image — daemon-coordinated features keep running\r\n/// the old version until the daemon restarts. Public wording, no internal codes.\r\n/// Pure — unit-tested.\r\n// [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE]\r\nfn render_broker_image_line(running: Option<&str>, installed: &str) -> String {\r\n    match running {\r\n        Some(v) if v == installed => format!(\"broker image: {v} (matches installed)\"),\r\n        Some(v) => format!(\r\n            \"broker image: {v} (running) — installed is {installed}; the daemon is still on the \\\r\n             previous version, so daemon-coordinated features run {v} until it restarts. Restart \\\r\n             with `spt daemon stop` then `spt daemon start`.\"\r\n        ),\r\n        None => format!(\r\n            \"broker image: not reported (the running daemon predates version reporting, or could \\\r\n             not be queried) — if it is older than the installed {installed}, restart with \\\r\n             `spt daemon stop` then `spt daemon start` to load {installed}.\"\r\n        ),\r\n    }\r\n}\r\n\r\n/// LIFECYCLE-TRUTH W2 observability rider: the `daemon status` line reporting\r\n/// brain-subscriber stall-evicts (a controller detached because its brain conn was\r\n/// suspended / black-holed). `None` = the broker couldn't be queried / is too old\r\n/// (silent — no line). `Some(0)` renders a healthy line so \"none\" is an explicit\r\n/// fact, not an absence; `Some(n>0)` names the count + the most-recent time so a\r\n/// brain that never returned is diagnosable. Public wording, no internal codes.\r\n/// Pure — unit-tested.\r\n// [impl->REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE]\r\nfn render_stall_evict_line(stats: Option<(u64, u64)>) -> Option<String> {\r\n    let (count, last_ms) = stats?;\r\n    if count == 0 {\r\n        return Some(\"brain subscribers: healthy (none stall-evicted)\".to_string());\r\n    }\r\n    let when = if last_ms == 0 {\r\n        String::new()\r\n    } else {\r\n        format!(\" (last at {last_ms} epoch-ms)\")\r\n    };\r\n    Some(format!(\r\n        \"brain subscribers: {count} stall-evicted since boot{when} — a controller was \\\r\n         detached because its brain connection stopped draining (suspended or wedged); \\\r\n         control was released so reattach/take could proceed\"\r\n    ))\r\n}\r\n\r\nfn cmd_daemon_status(json: bool) -> i32 {\r\n    // Daemon state: the socket ping is liveness truth (never the pid file).\r\n    let running = spt_daemon::is_running();\r\n    // [impl->REQ-CLI-JSON] Machine-readable view: assemble the same facts the\r\n    // human render below derives, then emit the DTO and return.\r\n    if json {\r\n        let pid = running\r\n            .then(|| {\r\n                std::fs::read_to_string(spt_daemon::daemon_pid_path())\r\n                    .ok()\r\n                    .map(|s| s.trim().to_string())\r\n                    .filter(|p| !p.is_empty())\r\n            })\r\n            .flatten();\r\n        // One broker handle answers net-status, the F-025 image query, and the W2\r\n        // stall-evict tally.\r\n        let (net_up, broker_image, broker_queried, stall_stats) = if running {\r\n            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\r\n                Ok(mut b) => {\r\n                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\r\n                    let stall = b.stall_evicts().ok().flatten();\r\n                    // Ok(Some)=version / Ok(None)=old broker (both a successful\r\n                    // query) vs Err=couldn't query — keep them distinct so a\r\n                    // transient IPC failure does not read as a definite stale.\r\n                    match b.broker_image_version() {\r\n                        Ok(v) => (Some(n), v, true, stall),\r\n                        Err(_) => (Some(n), None, false, stall),\r\n                    }\r\n                }\r\n                Err(_) => (Some(true), None, false, None),\r\n            }\r\n        } else {\r\n            (None, None, false, None)\r\n        };\r\n        let (stall_evict_count, stall_evict_last_ms) = match stall_stats {\r\n            Some((c, l)) => (Some(c), Some(l)),\r\n            None => (None, None),\r\n        };\r\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] stale is only DEFINITE after a\r\n        // successful query: None when the daemon is down OR the broker could not be\r\n        // queried (no false-positive true on a transient failure — doyle F-025 nit).\r\n        let broker_stale = (running && broker_queried)\r\n            .then(|| broker_image.as_deref() != Some(env!(\"CARGO_PKG_VERSION\")));\r\n        let pump_heartbeat_ms = if running {\r\n            spt_daemon::read_pump_heartbeat()\r\n        } else {\r\n            None\r\n        };\r\n        let svc = spt_daemon::service::platform_service();\r\n        let (managed_by, managed_active) = if svc.detected() {\r\n            (Some(svc.label().to_string()), Some(svc.is_active()))\r\n        } else {\r\n            (None, None)\r\n        };\r\n        let store = SubnetStore::load();\r\n        let mut subnets = Vec::new();\r\n        if !store.subnets.is_empty() {\r\n            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n            let roster = spt_store::roster::RosterStore::load();\r\n            let own_hex = spt_store::nodeid::load_or_create()\r\n                .map(|i| i.public_key().to_hex())\r\n                .unwrap_or_default();\r\n            for row in subnet_status_rows(\r\n                &store,\r\n                &regs,\r\n                &roster,\r\n                Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\r\n                None,\r\n            ) {\r\n                subnets.push(DaemonSubnetJson {\r\n                    name: row.name,\r\n                    nodes: row.nodes,\r\n                    endpoints: row.endpoints,\r\n                });\r\n            }\r\n        }\r\n        let local_endpoints = roster::enumerate()\r\n            .into_iter()\r\n            .map(|p| LocalPerchJson {\r\n                id: p.id,\r\n                state: p.state,\r\n                address: p.address,\r\n                ready: p.ready,\r\n                alive: p.alive,\r\n                unbound: p.unbound,\r\n                // The project column is an `endpoint list` concern (#8); daemon-status\r\n                // does not derive it (avoids per-perch git cost here) — skip-if-none.\r\n                project: None,\r\n            })\r\n            .collect();\r\n        return print_json(&DaemonStatusJson {\r\n            running,\r\n            pid,\r\n            net_up,\r\n            pump_heartbeat_ms,\r\n            managed_by,\r\n            managed_active,\r\n            subnets,\r\n            local_endpoints,\r\n            broker_image,\r\n            broker_stale,\r\n            stall_evict_count,\r\n            stall_evict_last_ms,\r\n        });\r\n    }\r\n    if running {\r\n        let pid = std::fs::read_to_string(spt_daemon::daemon_pid_path())\r\n            .ok()\r\n            .map(|s| s.trim().to_string());\r\n        match pid {\r\n            Some(p) if !p.is_empty() => println!(\"daemon: running (pid {p})\"),\r\n            _ => println!(\"daemon: running\"),\r\n        }\r\n        // Connection + pump liveness (M8 decision 23 leg 1; REQ-DAEMON-9): a\r\n        // net-LESS broker (net endpoint not bound — e.g. mid boot-race\r\n        // self-heal after the autostart beat the network up) surfaces the REAL\r\n        // cause, not a STALLED alarm read off a stale pre-boot heartbeat.\r\n        // One broker handle answers both net-status and the F-025 image query.\r\n        let (net_up, broker_image, stall_stats) = match spt_daemon::brain::Brain::cold_start(\r\n            &spt_daemon::broker_socket_name(),\r\n            now_ms(),\r\n        ) {\r\n            Ok(mut b) => {\r\n                let net_up = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\r\n                let stall = b.stall_evicts().ok().flatten();\r\n                let image = b.broker_image_version().ok().flatten();\r\n                (net_up, image, stall)\r\n            }\r\n            Err(_) => (true, None, None), // can't ask ⇒ don't false-alarm\r\n        };\r\n        let stale_after = 3 * spt_daemon::DaemonConfig::load()\r\n            .registry_pump_period\r\n            .as_millis() as u64;\r\n        print!(\r\n            \"{}\",\r\n            render_connection_lines(\r\n                net_up,\r\n                spt_daemon::read_pump_heartbeat(),\r\n                now_ms(),\r\n                stale_after,\r\n            )\r\n        );\r\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] surface the RUNNING broker\r\n        // image beside the installed version (the daemon may have survived an\r\n        // apply and still run the previous binary).\r\n        println!(\r\n            \"{}\",\r\n            render_broker_image_line(broker_image.as_deref(), env!(\"CARGO_PKG_VERSION\"))\r\n        );\r\n        // [impl->REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE] W2 observability rider:\r\n        // surface brain-subscriber stall-evicts so a suspended/wedged brain that\r\n        // never returned is a diagnosable fact, not a silent absence.\r\n        if let Some(line) = render_stall_evict_line(stall_stats) {\r\n            println!(\"{line}\");\r\n        }\r\n    } else {\r\n        // [impl->REQ-CLI-OUTPUT-MARKDOWN]\r\n        println!(\r\n            \"{}\",\r\n…\n        );\n    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{"type":"message","id":"98d3a20d","parentId":"667efdd6","timestamp":"2026-07-14T22:44:18.573Z","message":{"role":"toolResult","toolCallId":"call_unFmYBwBwmgQYYNclvtJsluJ|fc_0b084cf0b521ab15016a56bbc25bcc8190900c8b6a0b033606","toolName":"grep","content":[{"type":"text","text":" 69|use spt_store::epoch::EpochSource;\n*70|use spt_store::peeraddrs::PeerAddrStore;\n 71|use spt_store::perch;\n 72|use spt_store::subnet::SubnetStore;\n 73|use spt_store::visibility::VisibilityStore;\n...\n 78|use crate::msg::{\n*79|    NetPresenceEvent, PRESENCE_CONNECTED, PRESENCE_DIAL_FAILED, PRESENCE_DISCONNECTED,\n 80|};\n 81|use crate::registryhost::RegistryHost;\n 82|use crate::sync::{SyncPolicy, SyncPullReport};\n...\n 136|/// Per-peer dial schedule (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G5): a peer is\n*137|/// dial-eligible when `now >= next_due`. A `DIAL_FAILED` (or a mid-round\n 138|/// `peer_step` failure — Q3) doubles `backoff` (capped [`PEER_BACKOFF_CAP`]) and\n 139|/// pushes `next_due` out; a successful connect drops the entry (reset). Kept in a\n 140|/// `HashMap<peer_hex, PeerSched>` on the pump loop — RAM-only, re-primed on a\n...\n 187|/// REQ-HAZARD-PUMP-IPC-DEADLINE). This is THE guard on the decouple: a dead PEER\n*188|/// never reaches here (its failure is an ordinary `PRESENCE_DIAL_FAILED` event or\n 189|/// a reclassified per-peer drop), but a dead BROKER — the event carrier itself\n 190|/// going silent — MUST still bubble to a supervised restart. `TimedOut` is the\n 191|/// benign \"no outcome available this instant\" (round closes on its deadline); any\n...\n 205|/// address (the serde JSON `net-dial` carries). Production resolution lets\n*206|/// discovery do the work ([`production_resolver`]); hermetic tests inject a\n 207|/// concrete address map (loopback endpoints run no discovery).\n 208|pub type PeerResolver = Box<dyn Fn(&str) -> Option<serde_json::Value> + Send>;\n 209|\n...\n 211|/// DNS on the WAN (`addr_for_node_hex`).\n*212|pub fn production_resolver() -> PeerResolver {\n 213|    Box::new(|hex| addr_for_node_hex(hex).and_then(|a| serde_json::to_value(a).ok()))\n 214|}\n 215|\n...\n 252|    /// REQ-CONV-1): consulted before id-only discovery, written back after\n*253|    /// every successful dial ([`spt_store::peeraddrs::PeerAddrStore`]).\n 254|    pub peer_addrs: PathBuf,\n 255|    /// The pump's last-tick heartbeat (M8 decision 23, REQ-DAEMON-5):\n 256|    /// epoch-ms written while the loop is alive, rendered by\n...\n 405|    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\n*406|    attachment: spt_store::attachment::AttachmentStore,\n 407|    /// The roster-backed sync gate — one store feeding both the push targets\n 408|    /// and the sync authorization (symmetric scoping).\n 409|    policy: SyncPolicy,\n...\n 421|        // [impl->REQ-SUBNET-5]\n*422|        let attachment = spt_store::attachment::AttachmentStore::load_from(\n 423|            &paths\n 424|                .subnets\n 425|                .parent()\n...\n 462|            subnets: SubnetStore::default(),\n*463|            attachment: spt_store::attachment::AttachmentStore::default(),\n 464|            policy: SyncPolicy {\n 465|                subnets: Vec::new(),\n 466|                roster: spt_store::roster::RosterStore::default(),\n...\n 609|        let mut peer_subnets: HashMap<String, Vec<String>> = HashMap::new();\n*610|        for (sub_name, peer_hex) in fan_targets(&ctx, registry.node_hex()) {\n 611|            peer_subnets.entry(peer_hex).or_default().push(sub_name);\n 612|        }\n 613|        let round_start = Instant::now();\n...\n 648|        // deadline (concurrent dials all land within ~one W1 bound). A CONNECTED\n*649|        // runs that peer's legs in THIS round; a DIAL_FAILED backs the peer off; a\n 650|        // peer unresolved at the deadline simply reschedules — NEVER a whole-round\n 651|        // poison. `TimedOut` = quiet (drain done); any other read error = the\n 652|        // broker stopped answering the stream (dead carrier) → bubble → supervised\n...\n 730|/// conn + back the peer off (Q3 — a mid-round `peer_step` fail isolates exactly\n*731|/// like a `DIAL_FAILED`, never round-wide), the round continues, the heartbeat\n 732|/// advances. A genuine broker-IPC-CARRIER desync — a raw `TimedOut` (the carrier\n 733|/// ops `net_open_stream` / `subscribe` / `send` keep it) — STILL bubbles `Err` to\n 734|/// a SUPERVISED RESTART: a dead BROKER conn restarts the pump; a dead PEER never\n...\n 798|/// THIS round (advertise the round it connects — no head-of-line block by the dead\n*799|/// peers). `DIAL_FAILED` → back the peer off (G5), log the ordinary per-peer\n 800|/// signal, and drop the stale seed (REQ-CONV-1 self-heal → next round re-resolves\n 801|/// via discovery). `DISCONNECTED` → drop the cached conn, NO backoff (redial-\n 802|/// eligible immediately, Q3). A future presence kind is tolerated (no-op).\n...\n 857|    match ev.kind.as_str() {\n*858|        PRESENCE_CONNECTED => {\n 859|            conns.insert(ev.remote_id_hex.clone(), ev.conn_id);\n 860|            sched.remove(&ev.remote_id_hex); // live peer → reset backoff\n 861|            pending.remove(&ev.remote_id_hex);\n...\n 864|                let _ =\n*865|                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n 866|            }\n 867|            is_target\n 868|        }\n*869|        PRESENCE_DIAL_FAILED => {\n 870|            eprintln!(\n 871|                \"PUMP_PEER_FAIL:{}:{}\",\n 872|                ev.remote_id_hex,\n...\n 879|            // eligible round re-resolves via id-only discovery.\n*880|            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\n 881|            false\n 882|        }\n 883|        PRESENCE_DISCONNECTED => {\n...\n 906|// [impl->REQ-SUBNET-5]\n*907|fn fan_targets(ctx: &RoundCtx, self_hex: &str) -> Vec<(String, String)> {\n 908|    let mut out = Vec::new();\n 909|    for sub in &ctx.subnets.subnets {\n 910|        if ctx.attachment.is_detached(&sub.name) {\n...\n 942|/// else the injected resolver (production: id-only discovery). A stale seed costs\n*943|/// one failed dial and is then dropped (`PeerAddrStore::drop_seed` on the\n*944|/// resulting `DIAL_FAILED`) so the next eligible round re-resolves via discovery:\n 945|/// a stale addr never strands a peer. The OBSERVED-addr write-back the old\n*946|/// blocking dial carried now rides the `PRESENCE_CONNECTED` event\n 947|/// ([`handle_presence_event`]). `None` = unresolvable right now — the peer\n 948|/// reschedules on its own cadence, never a round failure.\n 949|// [impl->REQ-CONV-1]\n...\n 954|) -> Option<serde_json::Value> {\n*955|    if let Some(seeded) = PeerAddrStore::load_from(peer_addrs).get(peer_hex).cloned() {\n 956|        return Some(seeded); // seeded FIRST (cold-start fast path)\n 957|    }\n 958|    resolver(peer_hex) // miss → id-only discovery\n...\n 1102|                &paths,\n*1103|                production_resolver(),\n 1104|                PumpConfig::from_config(&cfg),\n 1105|                PumpHooks::default(),\n 1106|                &stop,\n...\n 1382|        roster.merge_entry(entry(\"work\", \"bb\"));\n*1383|        let mut attachment = spt_store::attachment::AttachmentStore::default();\n 1384|        attachment.set_detached(\"work\", true); // work is detached → skipped\n 1385|\n 1386|        let ctx = RoundCtx {\n...\n 1394|        };\n*1395|        let targets = fan_targets(&ctx, \"self\");\n 1396|        assert_eq!(\n 1397|            targets,\n 1398|            vec![(\"home\".to_string(), \"aa\".to_string())],\n...\n 1482|    // [unit->REQ-PUMP-PEER-ISOLATION] the drained-presence state effect, correlated\n*1483|    // by remote_id_hex (outcomes arrive out of submit order): a DIAL_FAILED backs\n 1484|    // THAT peer off + clears its pending flag; a CONNECTED resets its backoff,\n 1485|    // caches the conn, clears pending, and (only when it is a fan target) signals\n 1486|    // legs-to-run; a DISCONNECTED drops the cached conn with NO backoff.\n...\n 1505|\n*1506|        // DIAL_FAILED for \"dead\" → back off, clear pending, no conn, no legs.\n 1507|        assert!(!presence_state_effect(\n*1508|            &ev(PRESENCE_DIAL_FAILED, 0, \"dead\"),\n 1509|            &mut conns, &mut sched, &mut pending, &seeds, false, now,\n 1510|        ));\n 1511|        assert!(!peer_eligible(&sched, \"dead\", now), \"dead peer backed off\");\n...\n 1516|        assert!(presence_state_effect(\n*1517|            &ev(PRESENCE_CONNECTED, 9, \"live\"),\n 1518|            &mut conns, &mut sched, &mut pending, &seeds, true, now,\n 1519|        ), \"a connected fan-target signals legs-to-run\");\n 1520|        assert_eq!(conns.get(\"live\"), Some(&9), \"conn cached under its hex\");\n...\n 1525|        assert!(!presence_state_effect(\n*1526|            &ev(PRESENCE_CONNECTED, 5, \"bystander\"),\n 1527|            &mut conns, &mut sched, &mut pending, &seeds, false, now,\n 1528|        ), \"a non-target connect caches without running legs\");\n 1529|        assert_eq!(conns.get(\"bystander\"), Some(&5));\n...\n 1533|        presence_state_effect(\n*1534|            &ev(PRESENCE_CONNECTED, 7, \"returner\"),\n 1535|            &mut conns, &mut sched, &mut pending, &seeds, false, now,\n 1536|        );\n 1537|        assert!(peer_eligible(&sched, \"returner\", now), \"a returning peer re-dials promptly\");\n...\n 1579|            seq: 0,\n*1580|            kind: PRESENCE_CONNECTED.to_string(),\n 1581|            conn_id: 1,\n 1582|            remote_id_hex: \"aa\".into(),\n 1583|            reason: None,\n...\n 1671|    // recorded address is submitted FIRST (no discovery round-trip); a miss goes\n*1672|    // straight to the id-only resolver; and after a DIAL_FAILED the stale seed is\n 1673|    // dropped so the next round re-resolves via discovery — a stale addr never\n*1674|    // strands a peer. (The OBSERVED-addr write-back now rides PRESENCE_CONNECTED,\n 1675|    // covered by presence_state_effect_correlates_and_isolates.)\n 1676|    #[test]\n 1677|    fn resolve_submit_addr_prefers_seed_then_heals_stale() {\n...\n 1694|        // Seeded: the recorded addr is submitted FIRST (skips discovery).\n*1695|        PeerAddrStore::record(&seeds, \"ab\", seeded_addr.clone()).unwrap();\n 1696|        assert_eq!(\n 1697|            resolve_submit_addr(&resolver, \"ab\", &seeds),\n 1698|            Some(seeded_addr.clone()),\n...\n 1701|\n*1702|        // Stale-seed self-heal: a DIAL_FAILED drops the seed, so the NEXT round\n 1703|        // resolves via id-only discovery again — the peer is never stranded.\n*1704|        PeerAddrStore::drop_seed(&seeds, \"ab\").unwrap();\n 1705|        assert_eq!(\n 1706|            resolve_submit_addr(&resolver, \"ab\", &seeds),\n 1707|            Some(id_only.clone()),"}],"details":{"scopePath":"spt-core/crates/spt-daemon/src/pump/mod.rs","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\pump\\mod.rs","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":38,"fileCount":1,"files":["spt-core/crates/spt-daemon/src/pump/mod.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/pump/mod.rs","count":38}],"truncated":false,"displayContent":"   69│use spt_store::epoch::EpochSource;\n  *70│use spt_store::peeraddrs::PeerAddrStore;\n   71│use spt_store::perch;\n   72│use spt_store::subnet::SubnetStore;\n   73│use spt_store::visibility::VisibilityStore;\n     │...\n   78│use crate::msg::{\n  *79│    NetPresenceEvent, PRESENCE_CONNECTED, PRESENCE_DIAL_FAILED, PRESENCE_DISCONNECTED,\n   80│};\n   81│use crate::registryhost::RegistryHost;\n   82│use crate::sync::{SyncPolicy, SyncPullReport};\n     │...\n  136│/// Per-peer dial schedule (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G5): a peer is\n *137│/// dial-eligible when `now >= next_due`. A `DIAL_FAILED` (or a mid-round\n  138│/// `peer_step` failure — Q3) doubles `backoff` (capped [`PEER_BACKOFF_CAP`]) and\n  139│/// pushes `next_due` out; a successful connect drops the entry (reset). Kept in a\n  140│/// `HashMap<peer_hex, PeerSched>` on the pump loop — RAM-only, re-primed on a\n     │...\n  187│/// REQ-HAZARD-PUMP-IPC-DEADLINE). This is THE guard on the decouple: a dead PEER\n *188│/// never reaches here (its failure is an ordinary `PRESENCE_DIAL_FAILED` event or\n  189│/// a reclassified per-peer drop), but a dead BROKER — the event carrier itself\n  190│/// going silent — MUST still bubble to a supervised restart. `TimedOut` is the\n  191│/// benign \"no outcome available this instant\" (round closes on its deadline); any\n     │...\n  205│/// address (the serde JSON `net-dial` carries). Production resolution lets\n *206│/// discovery do the work ([`production_resolver`]); hermetic tests inject a\n  207│/// concrete address map (loopback endpoints run no discovery).\n  208│pub type PeerResolver = Box<dyn Fn(&str) -> Option<serde_json::Value> + Send>;\n  209│\n     │...\n  211│/// DNS on the WAN (`addr_for_node_hex`).\n *212│pub fn production_resolver() -> PeerResolver {\n  213│    Box::new(|hex| addr_for_node_hex(hex).and_then(|a| serde_json::to_value(a).ok()))\n  214│}\n  215│\n     │...\n  252│    /// REQ-CONV-1): consulted before id-only discovery, written back after\n *253│    /// every successful dial ([`spt_store::peeraddrs::PeerAddrStore`]).\n  254│    pub peer_addrs: PathBuf,\n  255│    /// The pump's last-tick heartbeat (M8 decision 23, REQ-DAEMON-5):\n  256│    /// epoch-ms written while the loop is alive, rendered by\n     │...\n  405│    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\n *406│    attachment: spt_store::attachment::AttachmentStore,\n  407│    /// The roster-backed sync gate — one store feeding both the push targets\n  408│    /// and the sync authorization (symmetric scoping).\n  409│    policy: SyncPolicy,\n     │...\n  421│        // [impl->REQ-SUBNET-5]\n *422│        let attachment = spt_store::attachment::AttachmentStore::load_from(\n  423│            &paths\n  424│                .subnets\n  425│                .parent()\n     │...\n  462│            subnets: SubnetStore::default(),\n *463│            attachment: spt_store::attachment::AttachmentStore::default(),\n  464│            policy: SyncPolicy {\n  465│                subnets: Vec::new(),\n  466│                roster: spt_store::roster::RosterStore::default(),\n     │...\n  609│        let mut peer_subnets: HashMap<String, Vec<String>> = HashMap::new();\n *610│        for (sub_name, peer_hex) in fan_targets(&ctx, registry.node_hex()) {\n  611│            peer_subnets.entry(peer_hex).or_default().push(sub_name);\n  612│        }\n  613│        let round_start = Instant::now();\n     │...\n  648│        // deadline (concurrent dials all land within ~one W1 bound). A CONNECTED\n *649│        // runs that peer's legs in THIS round; a DIAL_FAILED backs the peer off; a\n  650│        // peer unresolved at the deadline simply reschedules — NEVER a whole-round\n  651│        // poison. `TimedOut` = quiet (drain done); any other read error = the\n  652│        // broker stopped answering the stream (dead carrier) → bubble → supervised\n     │...\n  730│/// conn + back the peer off (Q3 — a mid-round `peer_step` fail isolates exactly\n *731│/// like a `DIAL_FAILED`, never round-wide), the round continues, the heartbeat\n  732│/// advances. A genuine broker-IPC-CARRIER desync — a raw `TimedOut` (the carrier\n  733│/// ops `net_open_stream` / `subscribe` / `send` keep it) — STILL bubbles `Err` to\n  734│/// a SUPERVISED RESTART: a dead BROKER conn restarts the pump; a dead PEER never\n     │...\n  798│/// THIS round (advertise the round it connects — no head-of-line block by the dead\n *799│/// peers). `DIAL_FAILED` → back the peer off (G5), log the ordinary per-peer\n  800│/// signal, and drop the stale seed (REQ-CONV-1 self-heal → next round re-resolves\n  801│/// via discovery). `DISCONNECTED` → drop the cached conn, NO backoff (redial-\n  802│/// eligible immediately, Q3). A future presence kind is tolerated (no-op).\n     │...\n  857│    match ev.kind.as_str() {\n *858│        PRESENCE_CONNECTED => {\n  859│            conns.insert(ev.remote_id_hex.clone(), ev.conn_id);\n  860│            sched.remove(&ev.remote_id_hex); // live peer → reset backoff\n  861│            pending.remove(&ev.remote_id_hex);\n     │...\n  864│                let _ =\n *865│                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n  866│            }\n  867│            is_target\n  868│        }\n *869│        PRESENCE_DIAL_FAILED => {\n  870│            eprintln!(\n  871│                \"PUMP_PEER_FAIL:{}:{}\",\n  872│                ev.remote_id_hex,\n     │...\n  879│            // eligible round re-resolves via id-only discovery.\n *880│            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\n  881│            false\n  882│        }\n  883│        PRESENCE_DISCONNECTED => {\n     │...\n  906│// [impl->REQ-SUBNET-5]\n *907│fn fan_targets(ctx: &RoundCtx, self_hex: &str) -> Vec<(String, String)> {\n  908│    let mut out = Vec::new();\n  909│    for sub in &ctx.subnets.subnets {\n  910│        if ctx.attachment.is_detached(&sub.name) {\n     │...\n  942│/// else the injected resolver (production: id-only discovery). A stale seed costs\n *943│/// one failed dial and is then dropped (`PeerAddrStore::drop_seed` on the\n *944│/// resulting `DIAL_FAILED`) so the next eligible round re-resolves via discovery:\n  945│/// a stale addr never strands a peer. The OBSERVED-addr write-back the old\n *946│/// blocking dial carried now rides the `PRESENCE_CONNECTED` event\n  947│/// ([`handle_presence_event`]). `None` = unresolvable right now — the peer\n  948│/// reschedules on its own cadence, never a round failure.\n  949│// [impl->REQ-CONV-1]\n     │...\n  954│) -> Option<serde_json::Value> {\n *955│    if let Some(seeded) = PeerAddrStore::load_from(peer_addrs).get(peer_hex).cloned() {\n  956│        return Some(seeded); // seeded FIRST (cold-start fast path)\n  957│    }\n  958│    resolver(peer_hex) // miss → id-only discovery\n     │...\n 1102│                &paths,\n*1103│                production_resolver(),\n 1104│                PumpConfig::from_config(&cfg),\n 1105│                PumpHooks::default(),\n 1106│                &stop,\n     │...\n 1382│        roster.merge_entry(entry(\"work\", \"bb\"));\n*1383│        let mut attachment = spt_store::attachment::AttachmentStore::default();\n 1384│        attachment.set_detached(\"work\", true); // work is detached → skipped\n 1385│\n 1386│        let ctx = RoundCtx {\n     │...\n 1394│        };\n*1395│        let targets = fan_targets(&ctx, \"self\");\n 1396│        assert_eq!(\n 1397│            targets,\n 1398│            vec![(\"home\".to_string(), \"aa\".to_string())],\n     │...\n 1482│    // [unit->REQ-PUMP-PEER-ISOLATION] the drained-presence state effect, correlated\n*1483│    // by remote_id_hex (outcomes arrive out of submit order): a DIAL_FAILED backs\n 1484│    // THAT peer off + clears its pending flag; a CONNECTED resets its backoff,\n 1485│    // caches the conn, clears pending, and (only when it is a fan target) signals\n 1486│    // legs-to-run; a DISCONNECTED drops the cached conn with NO backoff.\n     │...\n 1505│\n*1506│        // DIAL_FAILED for \"dead\" → back off, clear pending, no conn, no legs.\n 1507│        assert!(!presence_state_effect(\n*1508│            &ev(PRESENCE_DIAL_FAILED, 0, \"dead\"),\n 1509│            &mut conns, &mut sched, &mut pending, &seeds, false, now,\n 1510│        ));\n 1511│        assert!(!peer_eligible(&sched, \"dead\", now), \"dead peer backed off\");\n     │...\n 1516│        assert!(presence_state_effect(\n*1517│            &ev(PRESENCE_CONNECTED, 9, \"live\"),\n 1518│            &mut conns, &mut sched, &mut pending, &seeds, true, now,\n 1519│        ), \"a connected fan-target signals legs-to-run\");\n 1520│        assert_eq!(conns.get(\"live\"), Some(&9), \"conn cached under its hex\");\n     │...\n 1525│        assert!(!presence_state_effect(\n*1526│            &ev(PRESENCE_CONNECTED, 5, \"bystander\"),\n 1527│            &mut conns, &mut sched, &mut pending, &seeds, false, now,\n 1528│        ), \"a non-target connect caches without running legs\");\n 1529│        assert_eq!(conns.get(\"bystander\"), Some(&5));\n     │...\n 1533│        presence_state_effect(\n*1534│            &ev(PRESENCE_CONNECTED, 7, \"returner\"),\n 1535│            &mut conns, &mut sched, &mut pending, &seeds, false, now,\n 1536│        );\n 1537│        assert!(peer_eligible(&sched, \"returner\", now), \"a returning peer re-dials promptly\");\n     │...\n 1579│            seq: 0,\n*1580│            kind: PRESENCE_CONNECTED.to_string(),\n 1581│            conn_id: 1,\n 1582│            remote_id_hex: \"aa\".into(),\n 1583│            reason: None,\n     │...\n 1671│    // recorded address is submitted FIRST (no discovery round-trip); a miss goes\n*1672│    // straight to the id-only resolver; and after a DIAL_FAILED the stale seed is\n 1673│    // dropped so the next round re-resolves via discovery — a stale addr never\n*1674│    // strands a peer. (The OBSERVED-addr write-back now rides PRESENCE_CONNECTED,\n 1675│    // covered by presence_state_effect_correlates_and_isolates.)\n 1676│    #[test]\n 1677│    fn resolve_submit_addr_prefers_seed_then_heals_stale() {\n     │...\n 1694│        // Seeded: the recorded addr is submitted FIRST (skips discovery).\n*1695│        PeerAddrStore::record(&seeds, \"ab\", seeded_addr.clone()).unwrap();\n 1696│        assert_eq!(\n 1697│            resolve_submit_addr(&resolver, \"ab\", &seeds),\n 1698│            Some(seeded_addr.clone()),\n     │...\n 1701│\n*1702│        // Stale-seed self-heal: a DIAL_FAILED drops the seed, so the NEXT round\n 1703│        // resolves via id-only discovery again — the peer is never stranded.\n*1704│        PeerAddrStore::drop_seed(&seeds, \"ab\").unwrap();\n 1705│        assert_eq!(\n 1706│            resolve_submit_addr(&resolver, \"ab\", &seeds),\n 1707│            Some(id_only.clone()),"},"isError":false,"timestamp":1784069058572}}
{"type":"message","id":"a5e55b88","parentId":"98d3a20d","timestamp":"2026-07-14T22:44:18.603Z","message":{"role":"toolResult","toolCallId":"call_zfZEM2KPfiJXdldo3bIGkC1D|fc_0b084cf0b521ab15016a56bbc25c7c8190832ccb516a35f720","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt-daemon/\n\n### src/\n#### daemon.rs\n 147|            if let Err(e) = att.save() {\n*148|                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n 149|            }\n 150|            for name in &att.detached {\n 151|                // Plain prose (no Markdown markers): spt-daemon can't import the\n#### dispatch.rs\n 111|    ShellLink,\n*112|    /// A subnet-scoped liveness probe (`ServeProbeRecord::Request` — \"serving\n 113|    /// subnet X?\", the `--nodes` view's detach-aware refinement, REQ-SUBNET-5).\n*114|    ServeProbe,\n 115|    /// Unclassifiable — dropped.\n 116|    Unknown,\n 117|}\n...\n 129|        }\n*130|        Some(\"request\") if line.get(\"serve_probe\").is_some() => StreamFamily::ServeProbe,\n 131|        Some(\"query\") => StreamFamily::Update,\n 132|        // The status-only convergence query rides the update family (M8\n 133|        // decision 19, REQ-UPD-6) — same serve loop, no artifact bytes.\n...\n 444|        }\n*445|        StreamFamily::ServeProbe => {\n*446|            // No gate (serveprobe module docs): the answer is public\n 447|            // serve-state for a named subnet, read fresh from this node's\n 448|            // own stores — the QUIC handshake is the only subject.\n 449|            // [impl->REQ-SUBNET-5]\n*450|            match crate::serveprobe::serve_subnet_probe(&mut brain, stream_id) {\n 451|                Ok(out) => DispatchOutcome::Served(format!(\"{out:?}\")),\n 452|                Err(e) => DispatchOutcome::Failed(e.to_string()),\n 453|            }\n#### lib.rs\n 155|pub mod seedproofx;\n*156|pub mod serveprobe;\n 157|pub mod service;\n 158|pub mod shellchan;\n 159|pub mod shelldisc;\n...\n 220|pub use nethost::{NetConfig, NetHost, NET_EFFECT_SESSION};\n*221|pub use serveprobe::{\n*222|    is_serving_subnet, request_subnet_probe, serve_subnet_probe, ServeProbeServeOutcome,\n 223|};\n 224|pub use notif::{\n 225|    first_fire, most_recently_active_visible, produce_and_first_fire, produce_consent_notif,\n#### pairhost.rs\n 75|    let mut subnets = SubnetStore::load();\n*76|    spt_store::attachment::AttachmentStore::load().filter_serving(&mut subnets);\n 77|    // Roster (REQ-MESH-2): refresh this seed-holder's own entry for every\n 78|    // served subnet so the joiner always learns at least us, then hand it the\n 79|    // whole current roster in the Seed frame.\n#### serveprobe.rs\n 1|//! Subnet-scoped liveness probe (REQ-SUBNET-5) — the serve/request pair plus\n*2|//! the shared local \"am I serving subnet X?\" predicate the `--nodes` view\n 3|//! ultimately consults across the wire.\n 4|//!\n 5|//! ## Why this exists\n...\n 10|//! endpoint was bound (the box is up), but ONE ALPN serves every subnet, so it\n*11|//! could not tell \"still serving THIS subnet\" from \"up for its own home\". A\n 12|//! peer that ran `subnet detach X` correctly stops advertising/connecting X\n 13|//! (the pump skips it — [`pump`]; the pairing responder filters it —\n 14|//! [`pairhost`]) yet its endpoint stays bound, so the raw dial read it\n...\n 17|//! The fix: after the dial proves reachability, the prober asks the peer\n*18|//! \"serving `subnet`?\" over this one-shot record. The peer answers from the\n*19|//! SAME source the pump/responder consult — [`is_serving_subnet`], which is\n 20|//! membership ∧ `!AttachmentStore::is_detached`. A detached peer answers\n 21|//! `false` and flips offline within a cadence.\n 22|//!\n...\n 36|use spt_net::net::ndjson;\n*37|use spt_net::net::serveprobe::{ServeProbeDecoder, ServeProbeRecord};\n 38|use spt_store::attachment::AttachmentStore;\n 39|use spt_store::subnet::SubnetStore;\n 40|\n...\n 50|// [impl->REQ-SUBNET-5]\n*51|pub fn is_serving_subnet(subnet: &str) -> bool {\n 52|    let member = SubnetStore::load().find(subnet).is_some();\n 53|    member && !AttachmentStore::load().is_detached(subnet)\n 54|}\n...\n 58|#[derive(Debug, Clone, PartialEq, Eq)]\n*59|pub enum ServeProbeServeOutcome {\n 60|    /// The probe ran; the reply carried this serve-state for the named subnet.\n 61|    Answered { subnet: String, serving: bool },\n 62|    /// The stream never produced a parseable request — dropped.\n...\n 72|    stream_id: u64,\n*73|) -> io::Result<ServeProbeServeOutcome> {\n 74|    brain.net_stream_subscribe(stream_id, 0)?;\n*75|    let mut decoder = ServeProbeDecoder::new();\n 76|    loop {\n 77|        match brain.read_event()? {\n 78|            BrokerEvent::NetStreamData {\n...\n 83|                for rec in decoder.push(&bytes) {\n*84|                    let ServeProbeRecord::Request { serve_probe } = rec else {\n 85|                        continue; // echoed replies / protocol noise: degrade\n 86|                    };\n*87|                    let serving = is_serving_subnet(&serve_probe);\n*88|                    let reply = ServeProbeRecord::Reply { serving };\n 89|                    brain.net_stream_send(stream_id, &ndjson::encode_line(&reply), None, true)?;\n*90|                    return Ok(ServeProbeServeOutcome::Answered {\n*91|                        subnet: serve_probe,\n 92|                        serving,\n 93|                    });\n 94|                }\n...\n 97|                brain.net_stream_send(stream_id, &[], None, true)?;\n*98|                return Ok(ServeProbeServeOutcome::BadRequest(\n 99|                    \"stream ended before a request\".into(),\n 100|                ));\n 101|            }\n...\n 108|/// Operator-side: open a serve-probe stream on a dialed connection, ask\n*109|/// \"serving `subnet`?\", block for the one reply. A fire-and-forget read (no\n 110|/// durable op id — a status probe is idempotent and stateless). A finished\n 111|/// stream with no reply, or any malformed reply, reads `false` — fail-quiet,\n 112|/// this drives a status view that never errors.\n...\n 115|    let opened = brain.net_open_stream(conn_id, None)?;\n*116|    let line = ndjson::encode_line(&ServeProbeRecord::Request {\n*117|        serve_probe: subnet.to_string(),\n 118|    });\n 119|    brain.net_stream_send(opened.stream_id, &line, None, true)?;\n 120|\n 121|    brain.net_stream_subscribe(opened.stream_id, 0)?;\n*122|    let mut decoder = ServeProbeDecoder::new();\n 123|    loop {\n 124|        match brain.read_event()? {\n 125|            BrokerEvent::NetStreamData {\n...\n 130|                for rec in decoder.push(&bytes) {\n*131|                    let ServeProbeRecord::Reply { serving } = rec else {\n 132|                        continue; // our own request echoed: noise\n 133|                    };\n 134|                    return Ok(serving);\n\n### tests/\n#### dispatch.rs\n 967|// [int->REQ-SUBNET-5] the subnet-scoped liveness probe end to end over the\n*968|// loopback wire: A dials B (reachable) then asks \"serving <subnet>?\"; B's\n 969|// PRODUCTION dispatcher classifies the serve-probe stream and answers from B's\n 970|// own AttachmentStore + SubnetStore. An attached member answers serving=true;\n 971|// a subnet B never joined answers false; B `detach`ing the subnet flips the\n...\n 975|#[test]\n*976|fn dispatcher_serves_a_subnet_serve_probe() {\n 977|    use spt_daemon::request_subnet_probe;\n 978|    use spt_store::attachment::AttachmentStore;\n 979|\n\n## spt-net/src/\n### net.rs\n 16|pub mod rest;\n*17|pub mod serveprobe;\n 18|pub mod shelllink;\n 19|pub mod sync;\n 20|pub mod update;\n\n### net/\n#### serveprobe.rs\n 1|//! Subnet-scoped liveness probe records (REQ-SUBNET-5) — \"are you still\n*2|//! serving subnet X?\" on the wire.\n 3|//!\n 4|//! The `--nodes` view's liveness has an expensive half: a node that gossip\n 5|//! could not settle (silent for a cadence) gets a live probe. The pre-fix\n...\n 7|//! — but ONE ALPN (`spt-core/net/0`) serves every subnet, so the dial proved\n*8|//! \"the box is up\", never \"still serving THIS subnet\". A peer that ran\n 9|//! `subnet detach X` stops advertising/connecting X (the pump skips it,\n 10|//! KH pump filter) yet its daemon endpoint stays bound for its own home,\n 11|//! so the raw dial kept reading it `online` for X forever.\n...\n 13|//! This record adds the app-level refinement the dial cannot give: after the\n*14|//! dial proves reachability, the prober asks \"serving `serve_probe`?\" and the\n 15|//! peer answers from the SAME source the pump/responder consult\n 16|//! (`AttachmentStore::is_detached` ∧ membership). A detached peer answers\n 17|//! `serving = false` and flips offline within a cadence — the criterion-5\n...\n 32|/// `Request` shares the `kind=request` opener and is demuxed by shape (the\n*33|/// distinctive `serve_probe` field — the dispatcher's first-line table).\n 34|// [impl->REQ-SUBNET-5]\n 35|#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\n 36|#[serde(tag = \"kind\", rename_all = \"snake_case\")]\n*37|pub enum ServeProbeRecord {\n 38|    /// Prober's node → peer, first (and only) operator record: are you\n*39|    /// serving subnet `serve_probe` (its name) right now? One-shot stream.\n*40|    Request { serve_probe: String },\n 41|    /// Peer → prober: `serving` is true iff the peer is a member of that\n 42|    /// subnet AND currently serving it (not detached). A peer that withdrew\n 43|    /// the subnet (detach) or never held it answers `false`.\n...\n 46|\n*47|impl ServeProbeRecord {\n 48|    /// Encode as one NDJSON line (the JSON document + `\\n`).\n 49|    pub fn encode_line(&self) -> Vec<u8> {\n 50|        ndjson::encode_line(self)\n...\n 54|/// The serve-probe stream's NDJSON reassembler.\n*55|pub type ServeProbeDecoder = NdjsonDecoder<ServeProbeRecord>;\n 56|\n 57|#[cfg(test)]\n 58|mod tests {\n...\n 63|    // stream; a record split across pushes reassembles. The request's wire\n*64|    // shape carries the distinctive `serve_probe` demux field.\n 65|    #[test]\n 66|    fn records_round_trip_and_degrade() {\n 67|        let records = vec![\n*68|            ServeProbeRecord::Request {\n*69|                serve_probe: \"ACCEPT\".into(),\n 70|            },\n*71|            ServeProbeRecord::Reply { serving: true },\n 72|        ];\n 73|        let mut wire = Vec::new();\n 74|        for r in &records {\n...\n 76|        }\n*77|        // The request's wire form must carry `serve_probe` (the demux key).\n 78|        let first = String::from_utf8(records[0].encode_line()).unwrap();\n*79|        assert!(first.contains(\"\\\"serve_probe\\\"\"), \"{first}\");\n 80|        assert!(first.contains(\"\\\"kind\\\":\\\"request\\\"\"), \"{first}\");\n 81|\n*82|        let mut dec = ServeProbeDecoder::new();\n 83|        assert_eq!(dec.push(&wire), records, \"both kinds round-trip in order\");\n 84|\n 85|        // Unknown future kind: skipped, feed not wedged.\n 86|        let mut with_junk = records[0].encode_line();\n*87|        with_junk.extend_from_slice(b\"{\\\"kind\\\":\\\"serve_probe_v2\\\",\\\"x\\\":1}\\n\");\n 88|        with_junk.extend_from_slice(&records[1].encode_line());\n*89|        let mut dec = ServeProbeDecoder::new();\n 90|        assert_eq!(dec.push(&with_junk), records, \"unknown kind skipped\");\n 91|\n 92|        // Split mid-record reassembles.\n 93|        let line = records[0].encode_line();\n*94|        let mut dec = ServeProbeDecoder::new();\n 95|        assert!(dec.push(&line[..line.len() / 2]).is_empty());\n 96|        assert_eq!(dec.push(&line[line.len() / 2..]), vec![records[0].clone()]);\n 97|    }\n\n## spt-store/src/\n### attachment.rs\n 101|    /// untouched on disk).\n*102|    pub fn filter_serving(&self, store: &mut SubnetStore) {\n 103|        store.subnets.retain(|s| !self.is_detached(&s.name));\n 104|    }\n 105|}\n\n## spt/src/\n### cli.rs\n 1053|    },\n*1054|    /// Stop serving a held subnet (the daemon keeps running).\n 1055|    ///\n 1056|    /// The membership (seed) stays on disk, but this node neither\n 1057|    /// advertises into nor connects to the subnet — pairing responder,\n...\n 1066|    },\n*1067|    /// Resume serving a detached subnet.\n 1068|    ///\n 1069|    /// Advertising + connecting restart within one pump cadence.\n 1070|    Attach {\n...\n 7112|/// couple seconds reads offline for liveness purposes. The probe itself\n*7113|/// (`probe_node_serving`, wansend.rs) is subnet-scoped per REQ-SUBNET-5: dial\n*7114|/// (proves reachable) THEN ask \"serving `subnet`?\", so a detached-but-alive\n 7115|/// peer reads offline for that subnet.\n 7116|const PROBE_TIMEOUT: std::time::Duration = std::time::Duration::from_millis(2500);\n 7117|/// In-flight cap for the concurrent `--nodes` probe fan-out (REQ-MESH-6): a\n...\n 7128|/// is INJECTED so the unit test passes a deterministic sleeper (no network);\n*7129|/// the real site passes `probe_node_serving`. Each probe still runs on its own\n 7130|/// thread under its own `recv_timeout(ceiling)` bound (via `run_bounded`), so\n 7131|/// one wedged dial costs ONE ceiling, never the batch — KH 5.3 preserved.\n 7132|// [impl->REQ-MESH-6]\n...\n 7413|    let probed = probe_all(&worklist, PROBE_TIMEOUT, MAX_INFLIGHT, |n, s| {\n*7414|        crate::wansend::probe_node_serving(n, s)\n 7415|    });\n 7416|    // Pass 3: stitch results back in row order — the work-list was filled in\n 7417|    // row order, so a single cursor walks it deterministically. Render is\n### wansend.rs\n 584|/// gossip-recency could not settle): true iff the peer is reachable RIGHT NOW\n*585|/// **and still serving `subnet`**. The raw dial alone is subnet-blind (one\n 586|/// ALPN serves every subnet, so it only proves the box is up — a peer that\n 587|/// `subnet detach`ed would keep reading online); so after the dial proves\n*588|/// reachability we ask the peer \"serving `subnet`?\" over the serve-probe\n 589|/// record, which it answers from its own `AttachmentStore` (REQ-SUBNET-5).\n 590|/// Every failure mode (daemon down, no dialable address, refused/timed-out\n 591|/// dial, peer answers not-serving / no reply) reads `false` — the caller\n...\n 594|// [impl->REQ-SUBNET-5]\n*595|pub fn probe_node_serving(node_hex: &str, subnet: &str) -> bool {\n 596|    if spt_daemon::daemon::ensure_running().is_err() {\n 597|        return false;\n 598|    }\n...\n 605|    // Dial proves the box is reachable; the serve-probe refines it to \"still\n*606|    // serving THIS subnet\" (a detached peer dials fine but answers false).\n 607|    let Ok(dialed) = brain.net_dial(addr, None) else {\n 608|        return false;\n 609|    };"}],"details":{"scopePath":"spt-core/crates","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":64,"fileCount":11,"files":["spt-core/crates/spt-daemon/src/daemon.rs","spt-core/crates/spt-daemon/src/dispatch.rs","spt-core/crates/spt-daemon/src/lib.rs","spt-core/crates/spt-daemon/src/pairhost.rs","spt-core/crates/spt-daemon/src/serveprobe.rs","spt-core/crates/spt-daemon/tests/dispatch.rs","spt-core/crates/spt-net/src/net.rs","spt-core/crates/spt-net/src/net/serveprobe.rs","spt-core/crates/spt-store/src/attachment.rs","spt-core/crates/spt/src/cli.rs","spt-core/crates/spt/src/wansend.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/daemon.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/dispatch.rs","count":6},{"path":"spt-core/crates/spt-daemon/src/lib.rs","count":3},{"path":"spt-core/crates/spt-daemon/src/pairhost.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/serveprobe.rs","count":20},{"path":"spt-core/crates/spt-daemon/tests/dispatch.rs","count":2},{"path":"spt-core/crates/spt-net/src/net.rs","count":1},{"path":"spt-core/crates/spt-net/src/net/serveprobe.rs","count":19},{"path":"spt-core/crates/spt-store/src/attachment.rs","count":1},{"path":"spt-core/crates/spt/src/cli.rs","count":6},{"path":"spt-core/crates/spt/src/wansend.rs","count":4}],"truncated":true,"perFileLimitReached":20,"displayContent":"# spt-core/crates/\n\n## spt-daemon/\n\n### src/\n#### daemon.rs\n 147│            if let Err(e) = att.save() {\n*148│                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n 149│            }\n 150│            for name in &att.detached {\n 151│                // Plain prose (no Markdown markers): spt-daemon can't import the\n#### dispatch.rs\n 111│    ShellLink,\n*112│    /// A subnet-scoped liveness probe (`ServeProbeRecord::Request` — \"serving\n 113│    /// subnet X?\", the `--nodes` view's detach-aware refinement, REQ-SUBNET-5).\n*114│    ServeProbe,\n 115│    /// Unclassifiable — dropped.\n 116│    Unknown,\n 117│}\n    │...\n 129│        }\n*130│        Some(\"request\") if line.get(\"serve_probe\").is_some() => StreamFamily::ServeProbe,\n 131│        Some(\"query\") => StreamFamily::Update,\n 132│        // The status-only convergence query rides the update family (M8\n 133│        // decision 19, REQ-UPD-6) — same serve loop, no artifact bytes.\n    │...\n 444│        }\n*445│        StreamFamily::ServeProbe => {\n*446│            // No gate (serveprobe module docs): the answer is public\n 447│            // serve-state for a named subnet, read fresh from this node's\n 448│            // own stores — the QUIC handshake is the only subject.\n 449│            // [impl->REQ-SUBNET-5]\n*450│            match crate::serveprobe::serve_subnet_probe(&mut brain, stream_id) {\n 451│                Ok(out) => DispatchOutcome::Served(format!(\"{out:?}\")),\n 452│                Err(e) => DispatchOutcome::Failed(e.to_string()),\n 453│            }\n#### lib.rs\n 155│pub mod seedproofx;\n*156│pub mod serveprobe;\n 157│pub mod service;\n 158│pub mod shellchan;\n 159│pub mod shelldisc;\n    │...\n 220│pub use nethost::{NetConfig, NetHost, NET_EFFECT_SESSION};\n*221│pub use serveprobe::{\n*222│    is_serving_subnet, request_subnet_probe, serve_subnet_probe, ServeProbeServeOutcome,\n 223│};\n 224│pub use notif::{\n 225│    first_fire, most_recently_active_visible, produce_and_first_fire, produce_consent_notif,\n#### pairhost.rs\n 75│    let mut subnets = SubnetStore::load();\n*76│    spt_store::attachment::AttachmentStore::load().filter_serving(&mut subnets);\n 77│    // Roster (REQ-MESH-2): refresh this seed-holder's own entry for every\n 78│    // served subnet so the joiner always learns at least us, then hand it the\n 79│    // whole current roster in the Seed frame.\n#### serveprobe.rs\n   1│//! Subnet-scoped liveness probe (REQ-SUBNET-5) — the serve/request pair plus\n  *2│//! the shared local \"am I serving subnet X?\" predicate the `--nodes` view\n   3│//! ultimately consults across the wire.\n   4│//!\n   5│//! ## Why this exists\n    │...\n  10│//! endpoint was bound (the box is up), but ONE ALPN serves every subnet, so it\n *11│//! could not tell \"still serving THIS subnet\" from \"up for its own home\". A\n  12│//! peer that ran `subnet detach X` correctly stops advertising/connecting X\n  13│//! (the pump skips it — [`pump`]; the pairing responder filters it —\n  14│//! [`pairhost`]) yet its endpoint stays bound, so the raw dial read it\n    │...\n  17│//! The fix: after the dial proves reachability, the prober asks the peer\n *18│//! \"serving `subnet`?\" over this one-shot record. The peer answers from the\n *19│//! SAME source the pump/responder consult — [`is_serving_subnet`], which is\n  20│//! membership ∧ `!AttachmentStore::is_detached`. A detached peer answers\n  21│//! `false` and flips offline within a cadence.\n  22│//!\n    │...\n  36│use spt_net::net::ndjson;\n *37│use spt_net::net::serveprobe::{ServeProbeDecoder, ServeProbeRecord};\n  38│use spt_store::attachment::AttachmentStore;\n  39│use spt_store::subnet::SubnetStore;\n  40│\n    │...\n  50│// [impl->REQ-SUBNET-5]\n *51│pub fn is_serving_subnet(subnet: &str) -> bool {\n  52│    let member = SubnetStore::load().find(subnet).is_some();\n  53│    member && !AttachmentStore::load().is_detached(subnet)\n  54│}\n    │...\n  58│#[derive(Debug, Clone, PartialEq, Eq)]\n *59│pub enum ServeProbeServeOutcome {\n  60│    /// The probe ran; the reply carried this serve-state for the named subnet.\n  61│    Answered { subnet: String, serving: bool },\n  62│    /// The stream never produced a parseable request — dropped.\n    │...\n  72│    stream_id: u64,\n *73│) -> io::Result<ServeProbeServeOutcome> {\n  74│    brain.net_stream_subscribe(stream_id, 0)?;\n *75│    let mut decoder = ServeProbeDecoder::new();\n  76│    loop {\n  77│        match brain.read_event()? {\n  78│            BrokerEvent::NetStreamData {\n    │...\n  83│                for rec in decoder.push(&bytes) {\n *84│                    let ServeProbeRecord::Request { serve_probe } = rec else {\n  85│                        continue; // echoed replies / protocol noise: degrade\n  86│                    };\n *87│                    let serving = is_serving_subnet(&serve_probe);\n *88│                    let reply = ServeProbeRecord::Reply { serving };\n  89│                    brain.net_stream_send(stream_id, &ndjson::encode_line(&reply), None, true)?;\n *90│                    return Ok(ServeProbeServeOutcome::Answered {\n *91│                        subnet: serve_probe,\n  92│                        serving,\n  93│                    });\n  94│                }\n    │...\n  97│                brain.net_stream_send(stream_id, &[], None, true)?;\n *98│                return Ok(ServeProbeServeOutcome::BadRequest(\n  99│                    \"stream ended before a request\".into(),\n 100│                ));\n 101│            }\n    │...\n 108│/// Operator-side: open a serve-probe stream on a dialed connection, ask\n*109│/// \"serving `subnet`?\", block for the one reply. A fire-and-forget read (no\n 110│/// durable op id — a status probe is idempotent and stateless). A finished\n 111│/// stream with no reply, or any malformed reply, reads `false` — fail-quiet,\n 112│/// this drives a status view that never errors.\n    │...\n 115│    let opened = brain.net_open_stream(conn_id, None)?;\n*116│    let line = ndjson::encode_line(&ServeProbeRecord::Request {\n*117│        serve_probe: subnet.to_string(),\n 118│    });\n 119│    brain.net_stream_send(opened.stream_id, &line, None, true)?;\n 120│\n 121│    brain.net_stream_subscribe(opened.stream_id, 0)?;\n*122│    let mut decoder = ServeProbeDecoder::new();\n 123│    loop {\n 124│        match brain.read_event()? {\n 125│            BrokerEvent::NetStreamData {\n    │...\n 130│                for rec in decoder.push(&bytes) {\n*131│                    let ServeProbeRecord::Reply { serving } = rec else {\n 132│                        continue; // our own request echoed: noise\n 133│                    };\n 134│                    return Ok(serving);\n\n### tests/\n#### dispatch.rs\n 967│// [int->REQ-SUBNET-5] the subnet-scoped liveness probe end to end over the\n*968│// loopback wire: A dials B (reachable) then asks \"serving <subnet>?\"; B's\n 969│// PRODUCTION dispatcher classifies the serve-probe stream and answers from B's\n 970│// own AttachmentStore + SubnetStore. An attached member answers serving=true;\n 971│// a subnet B never joined answers false; B `detach`ing the subnet flips the\n    │...\n 975│#[test]\n*976│fn dispatcher_serves_a_subnet_serve_probe() {\n 977│    use spt_daemon::request_subnet_probe;\n 978│    use spt_store::attachment::AttachmentStore;\n 979│\n\n## spt-net/src/\n### net.rs\n 16│pub mod rest;\n*17│pub mod serveprobe;\n 18│pub mod shelllink;\n 19│pub mod sync;\n 20│pub mod update;\n\n### net/\n#### serveprobe.rs\n  1│//! Subnet-scoped liveness probe records (REQ-SUBNET-5) — \"are you still\n *2│//! serving subnet X?\" on the wire.\n  3│//!\n  4│//! The `--nodes` view's liveness has an expensive half: a node that gossip\n  5│//! could not settle (silent for a cadence) gets a live probe. The pre-fix\n   │...\n  7│//! — but ONE ALPN (`spt-core/net/0`) serves every subnet, so the dial proved\n *8│//! \"the box is up\", never \"still serving THIS subnet\". A peer that ran\n  9│//! `subnet detach X` stops advertising/connecting X (the pump skips it,\n 10│//! KH pump filter) yet its daemon endpoint stays bound for its own home,\n 11│//! so the raw dial kept reading it `online` for X forever.\n   │...\n 13│//! This record adds the app-level refinement the dial cannot give: after the\n*14│//! dial proves reachability, the prober asks \"serving `serve_probe`?\" and the\n 15│//! peer answers from the SAME source the pump/responder consult\n 16│//! (`AttachmentStore::is_detached` ∧ membership). A detached peer answers\n 17│//! `serving = false` and flips offline within a cadence — the criterion-5\n   │...\n 32│/// `Request` shares the `kind=request` opener and is demuxed by shape (the\n*33│/// distinctive `serve_probe` field — the dispatcher's first-line table).\n 34│// [impl->REQ-SUBNET-5]\n 35│#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\n 36│#[serde(tag = \"kind\", rename_all = \"snake_case\")]\n*37│pub enum ServeProbeRecord {\n 38│    /// Prober's node → peer, first (and only) operator record: are you\n*39│    /// serving subnet `serve_probe` (its name) right now? One-shot stream.\n*40│    Request { serve_probe: String },\n 41│    /// Peer → prober: `serving` is true iff the peer is a member of that\n 42│    /// subnet AND currently serving it (not detached). A peer that withdrew\n 43│    /// the subnet (detach) or never held it answers `false`.\n   │...\n 46│\n*47│impl ServeProbeRecord {\n 48│    /// Encode as one NDJSON line (the JSON document + `\\n`).\n 49│    pub fn encode_line(&self) -> Vec<u8> {\n 50│        ndjson::encode_line(self)\n   │...\n 54│/// The serve-probe stream's NDJSON reassembler.\n*55│pub type ServeProbeDecoder = NdjsonDecoder<ServeProbeRecord>;\n 56│\n 57│#[cfg(test)]\n 58│mod tests {\n   │...\n 63│    // stream; a record split across pushes reassembles. The request's wire\n*64│    // shape carries the distinctive `serve_probe` demux field.\n 65│    #[test]\n 66│    fn records_round_trip_and_degrade() {\n 67│        let records = vec![\n*68│            ServeProbeRecord::Request {\n*69│                serve_probe: \"ACCEPT\".into(),\n 70│            },\n*71│            ServeProbeRecord::Reply { serving: true },\n 72│        ];\n 73│        let mut wire = Vec::new();\n 74│        for r in &records {\n   │...\n 76│        }\n*77│        // The request's wire form must carry `serve_probe` (the demux key).\n 78│        let first = String::from_utf8(records[0].encode_line()).unwrap();\n*79│        assert!(first.contains(\"\\\"serve_probe\\\"\"), \"{first}\");\n 80│        assert!(first.contains(\"\\\"kind\\\":\\\"request\\\"\"), \"{first}\");\n 81│\n*82│        let mut dec = ServeProbeDecoder::new();\n 83│        assert_eq!(dec.push(&wire), records, \"both kinds round-trip in order\");\n 84│\n 85│        // Unknown future kind: skipped, feed not wedged.\n 86│        let mut with_junk = records[0].encode_line();\n*87│        with_junk.extend_from_slice(b\"{\\\"kind\\\":\\\"serve_probe_v2\\\",\\\"x\\\":1}\\n\");\n 88│        with_junk.extend_from_slice(&records[1].encode_line());\n*89│        let mut dec = ServeProbeDecoder::new();\n 90│        assert_eq!(dec.push(&with_junk), records, \"unknown kind skipped\");\n 91│\n 92│        // Split mid-record reassembles.\n 93│        let line = records[0].encode_line();\n*94│        let mut dec = ServeProbeDecoder::new();\n 95│        assert!(dec.push(&line[..line.len() / 2]).is_empty());\n 96│        assert_eq!(dec.push(&line[line.len() / 2..]), vec![records[0].clone()]);\n 97│    }\n\n## spt-store/src/\n### attachment.rs\n 101│    /// untouched on disk).\n*102│    pub fn filter_serving(&self, store: &mut SubnetStore) {\n 103│        store.subnets.retain(|s| !self.is_detached(&s.name));\n 104│    }\n 105│}\n\n## spt/src/\n### cli.rs\n 1053│    },\n*1054│    /// Stop serving a held subnet (the daemon keeps running).\n 1055│    ///\n 1056│    /// The membership (seed) stays on disk, but this node neither\n 1057│    /// advertises into nor connects to the subnet — pairing responder,\n     │...\n 1066│    },\n*1067│    /// Resume serving a detached subnet.\n 1068│    ///\n 1069│    /// Advertising + connecting restart within one pump cadence.\n 1070│    Attach {\n     │...\n 7112│/// couple seconds reads offline for liveness purposes. The probe itself\n*7113│/// (`probe_node_serving`, wansend.rs) is subnet-scoped per REQ-SUBNET-5: dial\n*7114│/// (proves reachable) THEN ask \"serving `subnet`?\", so a detached-but-alive\n 7115│/// peer reads offline for that subnet.\n 7116│const PROBE_TIMEOUT: std::time::Duration = std::time::Duration::from_millis(2500);\n 7117│/// In-flight cap for the concurrent `--nodes` probe fan-out (REQ-MESH-6): a\n     │...\n 7128│/// is INJECTED so the unit test passes a deterministic sleeper (no network);\n*7129│/// the real site passes `probe_node_serving`. Each probe still runs on its own\n 7130│/// thread under its own `recv_timeout(ceiling)` bound (via `run_bounded`), so\n 7131│/// one wedged dial costs ONE ceiling, never the batch — KH 5.3 preserved.\n 7132│// [impl->REQ-MESH-6]\n     │...\n 7413│    let probed = probe_all(&worklist, PROBE_TIMEOUT, MAX_INFLIGHT, |n, s| {\n*7414│        crate::wansend::probe_node_serving(n, s)\n 7415│    });\n 7416│    // Pass 3: stitch results back in row order — the work-list was filled in\n 7417│    // row order, so a single cursor walks it deterministically. Render is\n### wansend.rs\n 584│/// gossip-recency could not settle): true iff the peer is reachable RIGHT NOW\n*585│/// **and still serving `subnet`**. The raw dial alone is subnet-blind (one\n 586│/// ALPN serves every subnet, so it only proves the box is up — a peer that\n 587│/// `subnet detach`ed would keep reading online); so after the dial proves\n*588│/// reachability we ask the peer \"serving `subnet`?\" over the serve-probe\n 589│/// record, which it answers from its own `AttachmentStore` (REQ-SUBNET-5).\n 590│/// Every failure mode (daemon down, no dialable address, refused/timed-out\n 591│/// dial, peer answers not-serving / no reply) reads `false` — the caller\n    │...\n 594│// [impl->REQ-SUBNET-5]\n*595│pub fn probe_node_serving(node_hex: &str, subnet: &str) -> bool {\n 596│    if spt_daemon::daemon::ensure_running().is_err() {\n 597│        return false;\n 598│    }\n    │...\n 605│    // Dial proves the box is reachable; the serve-probe refines it to \"still\n*606│    // serving THIS subnet\" (a detached peer dials fine but answers false).\n 607│    let Ok(dialed) = brain.net_dial(addr, None) else {\n 608│        return false;\n 609│    };"},"isError":false,"timestamp":1784069058603}}
{"type":"message","id":"a55287a2","parentId":"a5e55b88","timestamp":"2026-07-14T22:44:18.606Z","message":{"role":"toolResult","toolCallId":"call_i7sKnyFfuJCGIHP3aYeZNLYq|fc_0b084cf0b521ab15016a56bbc25c70819086cd8a3787342b29","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt-daemon/\n\n### src/\n#### config.rs\n 118|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n*119|    detached_subnets: Option<Vec<String>>,\n 120|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n 121|    worker_reap_ttl_secs: Option<u64>,\n 122|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n...\n 180|    /// writes it. Default empty = every held subnet starts attached.\n*181|    pub detached_subnets: Vec<String>,\n 182|    /// The worker-reap TTL floor (seconds since a worker's `started`), W-3\n 183|    /// (REQ-WORKER-REAP): the reconcile GC reaps any worker older than this even\n 184|    /// under a live parent with a stale `ready` marker (the `SubagentStop`-never-fired\n...\n 211|            resources_blurb: None,       // endpoints author their own (REQ-INST-14)\n*212|            detached_subnets: Vec::new(), // every held subnet starts attached (REQ-SUBNET-5)\n 213|            worker_reap_ttl_secs: spt_store::worker_reap::DEFAULT_REAP_TTL_SECS, // 24h (W-3)\n 214|            startup_endpoints: Vec::new(), // nothing auto-starts by default (REQ-ENDPOINT-AUTOSTART)\n 215|        }\n...\n 285|            resources_blurb: file.resources_blurb,\n*286|            detached_subnets: file.detached_subnets.unwrap_or_default(),\n 287|            worker_reap_ttl_secs: file.worker_reap_ttl_secs.unwrap_or(d.worker_reap_ttl_secs),\n 288|            startup_endpoints: file.startup_endpoints.unwrap_or_default(),\n 289|        }\n...\n 313|            resources_blurb: self.resources_blurb.clone(),\n*314|            detached_subnets: Some(self.detached_subnets.clone()),\n 315|            worker_reap_ttl_secs: Some(self.worker_reap_ttl_secs),\n 316|            startup_endpoints: Some(self.startup_endpoints.clone()),\n 317|        };\n...\n 398|            resources_blurb: Some(\"node default services\".to_string()),\n*399|            detached_subnets: vec![\"work\".to_string()],\n 400|            worker_reap_ttl_secs: 7_200,\n 401|            startup_endpoints: vec![\n 402|                StartupEndpoint {\n...\n 420|    #[test]\n*421|    fn detached_subnets_knob_defaults_empty() {\n*422|        assert!(DaemonConfig::default().detached_subnets.is_empty());\n 423|\n 424|        let dir = tempfile::tempdir().unwrap();\n 425|        let path = dir.path().join(\"daemon.json\");\n*426|        std::fs::write(&path, r#\"{\"detached_subnets\": [\"work\"]}\"#).unwrap();\n 427|        assert_eq!(\n*428|            DaemonConfig::load_from(&path).detached_subnets,\n 429|            vec![\"work\".to_string()]\n 430|        );\n 431|        // An absent file keeps the all-attached default.\n 432|        assert!(DaemonConfig::load_from(&dir.path().join(\"nope.json\"))\n*433|            .detached_subnets\n 434|            .is_empty());\n 435|    }\n 436|\n...\n 590|                pulse_period: Duration::from_millis(1234),\n*591|                detached_subnets: vec![\"work\".to_string()],\n 592|                ..DaemonConfig::default()\n 593|            };\n 594|            seeded.save_to(&DaemonConfig::default_path()).unwrap();\n...\n 609|            assert_eq!(cfg.pulse_period, Duration::from_millis(1234));\n*610|            assert_eq!(cfg.detached_subnets, vec![\"work\".to_string()]);\n 611|\n 612|            // Same id, different adapter+cwd → replaced in place, returns true.\n 613|            let replaced = DaemonConfig::upsert_startup_endpoint(StartupEndpoint {\n#### daemon.rs\n 143|        {\n*144|            let att = spt_store::attachment::AttachmentStore::reset_to(\n*145|                &DaemonConfig::load().detached_subnets,\n 146|            );\n 147|            if let Err(e) = att.save() {\n 148|                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n...\n 152|                // bin-local helpfmt renderer, so this one source string is authored\n*153|                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\n 154|                // token is the machine contract; the rest is a human hint.\n 155|                // [impl->REQ-CLI-OUTPUT-MARKDOWN]\n*156|                eprintln!(\"SUBNET_DETACHED:{name} (startup default — run: spt subnet attach {name})\");\n 157|            }\n 158|        }\n 159|\n#### lib.rs\n 221|pub use serveprobe::{\n*222|    is_serving_subnet, request_subnet_probe, serve_subnet_probe, ServeProbeServeOutcome,\n 223|};\n 224|pub use notif::{\n 225|    first_fire, most_recently_active_visible, produce_and_first_fire, produce_consent_notif,\n#### pairhost.rs\n 75|    let mut subnets = SubnetStore::load();\n*76|    spt_store::attachment::AttachmentStore::load().filter_serving(&mut subnets);\n 77|    // Roster (REQ-MESH-2): refresh this seed-holder's own entry for every\n 78|    // served subnet so the joiner always learns at least us, then hand it the\n 79|    // whole current roster in the Seed frame.\n...\n 192|            // window like the subnet store itself.\n*193|            let attachment = spt_store::attachment::AttachmentStore::load();\n 194|            let names: Vec<String> = SubnetStore::load()\n 195|                .subnets\n 196|                .iter()\n 197|                .map(|s| s.name.clone())\n*198|                .filter(|n| !attachment.is_detached(n))\n 199|                .collect();\n 200|            // One listener task per subnet for this window's lifetime.\n 201|            let mut window_tasks = Vec::new();\n#### serveprobe.rs\n 18|//! \"serving `subnet`?\" over this one-shot record. The peer answers from the\n*19|//! SAME source the pump/responder consult — [`is_serving_subnet`], which is\n*20|//! membership ∧ `!AttachmentStore::is_detached`. A detached peer answers\n 21|//! `false` and flips offline within a cadence.\n 22|//!\n 23|//! ## Trust class\n...\n 37|use spt_net::net::serveprobe::{ServeProbeDecoder, ServeProbeRecord};\n*38|use spt_store::attachment::AttachmentStore;\n 39|use spt_store::subnet::SubnetStore;\n 40|\n 41|use crate::brain::{Brain, BrokerEvent};\n...\n 50|// [impl->REQ-SUBNET-5]\n*51|pub fn is_serving_subnet(subnet: &str) -> bool {\n 52|    let member = SubnetStore::load().find(subnet).is_some();\n*53|    member && !AttachmentStore::load().is_detached(subnet)\n 54|}\n 55|\n 56|/// Why a serve-probe serve returned — loud + typed, rendered into the dispatch\n...\n 86|                    };\n*87|                    let serving = is_serving_subnet(&serve_probe);\n 88|                    let reply = ServeProbeRecord::Reply { serving };\n 89|                    brain.net_stream_send(stream_id, &ndjson::encode_line(&reply), None, true)?;\n 90|                    return Ok(ServeProbeServeOutcome::Answered {\n...\n 155|    #[test]\n*156|    fn is_serving_subnet_honors_membership_and_detach() {\n 157|        with_home(|_| {\n 158|            // Not a member yet: never serving.\n*159|            assert!(!is_serving_subnet(\"ACCEPT\"), \"non-member is not serving\");\n 160|\n 161|            // Join (create) the subnet → attached by default → serving.\n 162|            let mut store = SubnetStore::load();\n...\n 164|            store.save().expect(\"save subnet\");\n*165|            assert!(is_serving_subnet(\"ACCEPT\"), \"member + attached serves\");\n 166|\n 167|            // Detach it → still a member on disk, but not serving.\n*168|            let mut att = AttachmentStore::load();\n 169|            att.set_detached(\"ACCEPT\", true);\n 170|            att.save().expect(\"save attachment\");\n 171|            assert!(\n*172|                !is_serving_subnet(\"ACCEPT\"),\n 173|                \"detached member does not serve\"\n 174|            );\n 175|\n 176|            // Re-attach → serving again.\n*177|            let mut att = AttachmentStore::load();\n 178|            att.set_detached(\"ACCEPT\", false);\n 179|            att.save().expect(\"save attachment\");\n*180|            assert!(is_serving_subnet(\"ACCEPT\"), \"re-attached member serves\");\n 181|        });\n 182|    }\n 183|}\n\n#### pump/\n##### mod.rs\n 405|    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\n*406|    attachment: spt_store::attachment::AttachmentStore,\n 407|    /// The roster-backed sync gate — one store feeding both the push targets\n 408|    /// and the sync authorization (symmetric scoping).\n 409|    policy: SyncPolicy,\n...\n 421|        // [impl->REQ-SUBNET-5]\n*422|        let attachment = spt_store::attachment::AttachmentStore::load_from(\n 423|            &paths\n 424|                .subnets\n 425|                .parent()\n...\n 462|            subnets: SubnetStore::default(),\n*463|            attachment: spt_store::attachment::AttachmentStore::default(),\n 464|            policy: SyncPolicy {\n 465|                subnets: Vec::new(),\n 466|                roster: spt_store::roster::RosterStore::default(),\n...\n 909|    for sub in &ctx.subnets.subnets {\n*910|        if ctx.attachment.is_detached(&sub.name) {\n 911|            continue; // detached: neither advertise into nor connect to\n 912|        }\n 913|        for peer in push_targets(&ctx.policy.roster, &sub.name, self_hex) {\n...\n 1382|        roster.merge_entry(entry(\"work\", \"bb\"));\n*1383|        let mut attachment = spt_store::attachment::AttachmentStore::default();\n 1384|        attachment.set_detached(\"work\", true); // work is detached → skipped\n 1385|\n 1386|        let ctx = RoundCtx {\n\n### tests/\n#### dispatch.rs\n 969|// PRODUCTION dispatcher classifies the serve-probe stream and answers from B's\n*970|// own AttachmentStore + SubnetStore. An attached member answers serving=true;\n 971|// a subnet B never joined answers false; B `detach`ing the subnet flips the\n 972|// answer to false WHILE B STAYS REACHABLE on the same connection (the\n 973|// criterion-5 fix — a raw dial proved only \"the box is up\" and kept reading\n...\n 977|    use spt_daemon::request_subnet_probe;\n*978|    use spt_store::attachment::AttachmentStore;\n 979|\n 980|    init_home();\n 981|    let _g = LOCK.lock().unwrap_or_else(|p| p.into_inner());\n...\n 994|    store.save().expect(\"save subnet\");\n*995|    let mut att = AttachmentStore::load();\n 996|    att.set_detached(\"ProbeNet\", false); // clean any prior detach in shared home\n 997|    att.save().expect(\"save attachment\");\n 998|\n...\n 1017|    // Detach it → the SAME reachable box now answers not-serving.\n*1018|    let mut att = AttachmentStore::load();\n 1019|    att.set_detached(\"ProbeNet\", true);\n 1020|    att.save().expect(\"save attachment\");\n 1021|    assert!(\n...\n 1026|    // Re-attach → serving again (also restores the shared SPT_HOME state).\n*1027|    let mut att = AttachmentStore::load();\n 1028|    att.set_detached(\"ProbeNet\", false);\n 1029|    att.save().expect(\"save attachment\");\n 1030|    assert!(\n\n## spt-net/src/net/\n### serveprobe.rs\n 15|//! peer answers from the SAME source the pump/responder consult\n*16|//! (`AttachmentStore::is_detached` ∧ membership). A detached peer answers\n 17|//! `serving = false` and flips offline within a cadence — the criterion-5\n 18|//! contract.\n 19|//!\n\n## spt-store/src/\n### attachment.rs\n 13|//!   effect without a daemon restart).\n*14|//! - **Startup default** = `daemon.json` `detached_subnets` (the `--save`\n 15|//!   flag writes it); the daemon RESETS this file from the config at boot,\n 16|//!   so an unsaved flip deliberately does not survive a restart.\n 17|// [impl->REQ-SUBNET-5]\n...\n 36|#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\n*37|pub struct AttachmentStore {\n 38|    /// Subnets deliberately not served right now.\n 39|    #[serde(default)]\n 40|    pub detached: BTreeSet<String>,\n...\n 42|\n*43|impl AttachmentStore {\n 44|    /// Load from the canonical [`attachment_file`]. Absent ⇒ everything\n 45|    /// attached (the default state) — never an error.\n*46|    pub fn load() -> AttachmentStore {\n 47|        Self::load_from(&attachment_file())\n 48|    }\n 49|\n...\n 51|    /// (a broken state file must not silently detach a node's subnets).\n*52|    pub fn load_from(path: &Path) -> AttachmentStore {\n 53|        match std::fs::read_to_string(path) {\n 54|            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n*55|            Err(_) => AttachmentStore::default(),\n 56|        }\n 57|    }\n 58|\n...\n 74|    /// Whether `name` is deliberately not served right now.\n*75|    pub fn is_detached(&self, name: &str) -> bool {\n 76|        self.detached.contains(name)\n 77|    }\n 78|\n...\n 91|    /// restart by design (`--save` is the persistence).\n*92|    pub fn reset_to(defaults: &[String]) -> AttachmentStore {\n*93|        AttachmentStore {\n 94|            detached: defaults.iter().cloned().collect(),\n 95|        }\n 96|    }\n...\n 102|    pub fn filter_serving(&self, store: &mut SubnetStore) {\n*103|        store.subnets.retain(|s| !self.is_detached(&s.name));\n 104|    }\n 105|}\n 106|\n...\n 117|\n*118|        let mut att = AttachmentStore::load_from(&path);\n*119|        assert!(!att.is_detached(\"home\"), \"absent file = all attached\");\n 120|\n 121|        assert!(att.set_detached(\"home\", true), \"first detach = an edge\");\n 122|        assert!(!att.set_detached(\"home\", true), \"re-detach = no edge\");\n*123|        assert!(att.is_detached(\"home\"));\n 124|        att.save_to(&path).unwrap();\n 125|\n*126|        let reloaded = AttachmentStore::load_from(&path);\n*127|        assert!(reloaded.is_detached(\"home\"), \"state survives reload\");\n*128|        assert!(!reloaded.is_detached(\"work\"), \"others stay attached\");\n 129|\n 130|        let mut att = reloaded;\n 131|        assert!(att.set_detached(\"home\", false), \"re-attach = an edge\");\n...\n 144|        std::fs::write(&path, \"not json {{{\").unwrap();\n*145|        assert!(!AttachmentStore::load_from(&path).is_detached(\"home\"));\n 146|    }\n 147|\n 148|    // [unit->REQ-SUBNET-5] the boot reset seeds live state from the config\n...\n 151|    fn boot_reset_and_serving_filter() {\n*152|        let att = AttachmentStore::reset_to(&[\"work\".to_string()]);\n*153|        assert!(att.is_detached(\"work\"));\n*154|        assert!(!att.is_detached(\"home\"));\n 155|\n 156|        let mut store = SubnetStore::default();\n 157|        store.create_subnet(\"home\").unwrap();\n\n## spt/src/\n### cli.rs\n 7227|        .unwrap_or(true); // can't ask ⇒ assume serving rather than alarm\n*7228|    let att = spt_store::attachment::AttachmentStore::load();\n 7229|    let rows: Vec<(String, &'static str)> = SubnetStore::load()\n 7230|        .subnets\n 7231|        .iter()\n 7232|        .map(|s| {\n*7233|            let state = if att.is_detached(&s.name) {\n 7234|                \"detached\"\n 7235|            } else if net_up {\n 7236|                \"attached\"\n...\n 7543|    }\n*7544|    let mut att = spt_store::attachment::AttachmentStore::load();\n 7545|    att.set_detached(name, false);\n 7546|    let _ = att.save();\n 7547|    let snap = perch::identity_dir()\n...\n 7839|    }\n*7840|    let mut att = spt_store::attachment::AttachmentStore::load();\n 7841|    let edge = att.set_detached(name, detach);\n 7842|    if let Err(e) = att.save() {\n 7843|        eprintln!(\"ATTACHMENT_SAVE_FAIL:{name}: {e}\");\n...\n 7854|        let mut cfg = spt_daemon::DaemonConfig::load();\n*7855|        cfg.detached_subnets.retain(|n| n != name);\n 7856|        if detach {\n*7857|            cfg.detached_subnets.push(name.to_string());\n 7858|        }\n 7859|        match cfg.save_to(&path) {\n 7860|            Ok(()) => eprintln!(\"SAVED:{name} startup default = {}\", verb.to_lowercase()),\n### wansend.rs\n 588|/// reachability we ask the peer \"serving `subnet`?\" over the serve-probe\n*589|/// record, which it answers from its own `AttachmentStore` (REQ-SUBNET-5).\n 590|/// Every failure mode (daemon down, no dialable address, refused/timed-out\n 591|/// dial, peer answers not-serving / no reply) reads `false` — the caller\n 592|/// renders offline, never errors a status view."}],"details":{"scopePath":"spt-core/crates","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":72,"fileCount":11,"files":["spt-core/crates/spt-daemon/src/config.rs","spt-core/crates/spt-daemon/src/daemon.rs","spt-core/crates/spt-daemon/src/lib.rs","spt-core/crates/spt-daemon/src/pairhost.rs","spt-core/crates/spt-daemon/src/pump/mod.rs","spt-core/crates/spt-daemon/src/serveprobe.rs","spt-core/crates/spt-daemon/tests/dispatch.rs","spt-core/crates/spt-net/src/net/serveprobe.rs","spt-core/crates/spt-store/src/attachment.rs","spt-core/crates/spt/src/cli.rs","spt-core/crates/spt/src/wansend.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/config.rs","count":13},{"path":"spt-core/crates/spt-daemon/src/daemon.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/lib.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/pairhost.rs","count":3},{"path":"spt-core/crates/spt-daemon/src/pump/mod.rs","count":5},{"path":"spt-core/crates/spt-daemon/src/serveprobe.rs","count":13},{"path":"spt-core/crates/spt-daemon/tests/dispatch.rs","count":5},{"path":"spt-core/crates/spt-net/src/net/serveprobe.rs","count":1},{"path":"spt-core/crates/spt-store/src/attachment.rs","count":20},{"path":"spt-core/crates/spt/src/cli.rs","count":6},{"path":"spt-core/crates/spt/src/wansend.rs","count":1}],"truncated":false,"displayContent":"# spt-core/crates/\n\n## spt-daemon/\n\n### src/\n#### config.rs\n 118│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n*119│    detached_subnets: Option<Vec<String>>,\n 120│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n 121│    worker_reap_ttl_secs: Option<u64>,\n 122│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    │...\n 180│    /// writes it. Default empty = every held subnet starts attached.\n*181│    pub detached_subnets: Vec<String>,\n 182│    /// The worker-reap TTL floor (seconds since a worker's `started`), W-3\n 183│    /// (REQ-WORKER-REAP): the reconcile GC reaps any worker older than this even\n 184│    /// under a live parent with a stale `ready` marker (the `SubagentStop`-never-fired\n    │...\n 211│            resources_blurb: None,       // endpoints author their own (REQ-INST-14)\n*212│            detached_subnets: Vec::new(), // every held subnet starts attached (REQ-SUBNET-5)\n 213│            worker_reap_ttl_secs: spt_store::worker_reap::DEFAULT_REAP_TTL_SECS, // 24h (W-3)\n 214│            startup_endpoints: Vec::new(), // nothing auto-starts by default (REQ-ENDPOINT-AUTOSTART)\n 215│        }\n    │...\n 285│            resources_blurb: file.resources_blurb,\n*286│            detached_subnets: file.detached_subnets.unwrap_or_default(),\n 287│            worker_reap_ttl_secs: file.worker_reap_ttl_secs.unwrap_or(d.worker_reap_ttl_secs),\n 288│            startup_endpoints: file.startup_endpoints.unwrap_or_default(),\n 289│        }\n    │...\n 313│            resources_blurb: self.resources_blurb.clone(),\n*314│            detached_subnets: Some(self.detached_subnets.clone()),\n 315│            worker_reap_ttl_secs: Some(self.worker_reap_ttl_secs),\n 316│            startup_endpoints: Some(self.startup_endpoints.clone()),\n 317│        };\n    │...\n 398│            resources_blurb: Some(\"node default services\".to_string()),\n*399│            detached_subnets: vec![\"work\".to_string()],\n 400│            worker_reap_ttl_secs: 7_200,\n 401│            startup_endpoints: vec![\n 402│                StartupEndpoint {\n    │...\n 420│    #[test]\n*421│    fn detached_subnets_knob_defaults_empty() {\n*422│        assert!(DaemonConfig::default().detached_subnets.is_empty());\n 423│\n 424│        let dir = tempfile::tempdir().unwrap();\n 425│        let path = dir.path().join(\"daemon.json\");\n*426│        std::fs::write(&path, r#\"{\"detached_subnets\": [\"work\"]}\"#).unwrap();\n 427│        assert_eq!(\n*428│            DaemonConfig::load_from(&path).detached_subnets,\n 429│            vec![\"work\".to_string()]\n 430│        );\n 431│        // An absent file keeps the all-attached default.\n 432│        assert!(DaemonConfig::load_from(&dir.path().join(\"nope.json\"))\n*433│            .detached_subnets\n 434│            .is_empty());\n 435│    }\n 436│\n    │...\n 590│                pulse_period: Duration::from_millis(1234),\n*591│                detached_subnets: vec![\"work\".to_string()],\n 592│                ..DaemonConfig::default()\n 593│            };\n 594│            seeded.save_to(&DaemonConfig::default_path()).unwrap();\n    │...\n 609│            assert_eq!(cfg.pulse_period, Duration::from_millis(1234));\n*610│            assert_eq!(cfg.detached_subnets, vec![\"work\".to_string()]);\n 611│\n 612│            // Same id, different adapter+cwd → replaced in place, returns true.\n 613│            let replaced = DaemonConfig::upsert_startup_endpoint(StartupEndpoint {\n#### daemon.rs\n 143│        {\n*144│            let att = spt_store::attachment::AttachmentStore::reset_to(\n*145│                &DaemonConfig::load().detached_subnets,\n 146│            );\n 147│            if let Err(e) = att.save() {\n 148│                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n    │...\n 152│                // bin-local helpfmt renderer, so this one source string is authored\n*153│                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\n 154│                // token is the machine contract; the rest is a human hint.\n 155│                // [impl->REQ-CLI-OUTPUT-MARKDOWN]\n*156│                eprintln!(\"SUBNET_DETACHED:{name} (startup default — run: spt subnet attach {name})\");\n 157│            }\n 158│        }\n 159│\n#### lib.rs\n 221│pub use serveprobe::{\n*222│    is_serving_subnet, request_subnet_probe, serve_subnet_probe, ServeProbeServeOutcome,\n 223│};\n 224│pub use notif::{\n 225│    first_fire, most_recently_active_visible, produce_and_first_fire, produce_consent_notif,\n#### pairhost.rs\n  75│    let mut subnets = SubnetStore::load();\n *76│    spt_store::attachment::AttachmentStore::load().filter_serving(&mut subnets);\n  77│    // Roster (REQ-MESH-2): refresh this seed-holder's own entry for every\n  78│    // served subnet so the joiner always learns at least us, then hand it the\n  79│    // whole current roster in the Seed frame.\n    │...\n 192│            // window like the subnet store itself.\n*193│            let attachment = spt_store::attachment::AttachmentStore::load();\n 194│            let names: Vec<String> = SubnetStore::load()\n 195│                .subnets\n 196│                .iter()\n 197│                .map(|s| s.name.clone())\n*198│                .filter(|n| !attachment.is_detached(n))\n 199│                .collect();\n 200│            // One listener task per subnet for this window's lifetime.\n 201│            let mut window_tasks = Vec::new();\n#### serveprobe.rs\n  18│//! \"serving `subnet`?\" over this one-shot record. The peer answers from the\n *19│//! SAME source the pump/responder consult — [`is_serving_subnet`], which is\n *20│//! membership ∧ `!AttachmentStore::is_detached`. A detached peer answers\n  21│//! `false` and flips offline within a cadence.\n  22│//!\n  23│//! ## Trust class\n    │...\n  37│use spt_net::net::serveprobe::{ServeProbeDecoder, ServeProbeRecord};\n *38│use spt_store::attachment::AttachmentStore;\n  39│use spt_store::subnet::SubnetStore;\n  40│\n  41│use crate::brain::{Brain, BrokerEvent};\n    │...\n  50│// [impl->REQ-SUBNET-5]\n *51│pub fn is_serving_subnet(subnet: &str) -> bool {\n  52│    let member = SubnetStore::load().find(subnet).is_some();\n *53│    member && !AttachmentStore::load().is_detached(subnet)\n  54│}\n  55│\n  56│/// Why a serve-probe serve returned — loud + typed, rendered into the dispatch\n    │...\n  86│                    };\n *87│                    let serving = is_serving_subnet(&serve_probe);\n  88│                    let reply = ServeProbeRecord::Reply { serving };\n  89│                    brain.net_stream_send(stream_id, &ndjson::encode_line(&reply), None, true)?;\n  90│                    return Ok(ServeProbeServeOutcome::Answered {\n    │...\n 155│    #[test]\n*156│    fn is_serving_subnet_honors_membership_and_detach() {\n 157│        with_home(|_| {\n 158│            // Not a member yet: never serving.\n*159│            assert!(!is_serving_subnet(\"ACCEPT\"), \"non-member is not serving\");\n 160│\n 161│            // Join (create) the subnet → attached by default → serving.\n 162│            let mut store = SubnetStore::load();\n    │...\n 164│            store.save().expect(\"save subnet\");\n*165│            assert!(is_serving_subnet(\"ACCEPT\"), \"member + attached serves\");\n 166│\n 167│            // Detach it → still a member on disk, but not serving.\n*168│            let mut att = AttachmentStore::load();\n 169│            att.set_detached(\"ACCEPT\", true);\n 170│            att.save().expect(\"save attachment\");\n 171│            assert!(\n*172│                !is_serving_subnet(\"ACCEPT\"),\n 173│                \"detached member does not serve\"\n 174│            );\n 175│\n 176│            // Re-attach → serving again.\n*177│            let mut att = AttachmentStore::load();\n 178│            att.set_detached(\"ACCEPT\", false);\n 179│            att.save().expect(\"save attachment\");\n*180│            assert!(is_serving_subnet(\"ACCEPT\"), \"re-attached member serves\");\n 181│        });\n 182│    }\n 183│}\n\n#### pump/\n##### mod.rs\n  405│    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\n *406│    attachment: spt_store::attachment::AttachmentStore,\n  407│    /// The roster-backed sync gate — one store feeding both the push targets\n  408│    /// and the sync authorization (symmetric scoping).\n  409│    policy: SyncPolicy,\n     │...\n  421│        // [impl->REQ-SUBNET-5]\n *422│        let attachment = spt_store::attachment::AttachmentStore::load_from(\n  423│            &paths\n  424│                .subnets\n  425│                .parent()\n     │...\n  462│            subnets: SubnetStore::default(),\n *463│            attachment: spt_store::attachment::AttachmentStore::default(),\n  464│            policy: SyncPolicy {\n  465│                subnets: Vec::new(),\n  466│                roster: spt_store::roster::RosterStore::default(),\n     │...\n  909│    for sub in &ctx.subnets.subnets {\n *910│        if ctx.attachment.is_detached(&sub.name) {\n  911│            continue; // detached: neither advertise into nor connect to\n  912│        }\n  913│        for peer in push_targets(&ctx.policy.roster, &sub.name, self_hex) {\n     │...\n 1382│        roster.merge_entry(entry(\"work\", \"bb\"));\n*1383│        let mut attachment = spt_store::attachment::AttachmentStore::default();\n 1384│        attachment.set_detached(\"work\", true); // work is detached → skipped\n 1385│\n 1386│        let ctx = RoundCtx {\n\n### tests/\n#### dispatch.rs\n  969│// PRODUCTION dispatcher classifies the serve-probe stream and answers from B's\n *970│// own AttachmentStore + SubnetStore. An attached member answers serving=true;\n  971│// a subnet B never joined answers false; B `detach`ing the subnet flips the\n  972│// answer to false WHILE B STAYS REACHABLE on the same connection (the\n  973│// criterion-5 fix — a raw dial proved only \"the box is up\" and kept reading\n     │...\n  977│    use spt_daemon::request_subnet_probe;\n *978│    use spt_store::attachment::AttachmentStore;\n  979│\n  980│    init_home();\n  981│    let _g = LOCK.lock().unwrap_or_else(|p| p.into_inner());\n     │...\n  994│    store.save().expect(\"save subnet\");\n *995│    let mut att = AttachmentStore::load();\n  996│    att.set_detached(\"ProbeNet\", false); // clean any prior detach in shared home\n  997│    att.save().expect(\"save attachment\");\n  998│\n     │...\n 1017│    // Detach it → the SAME reachable box now answers not-serving.\n*1018│    let mut att = AttachmentStore::load();\n 1019│    att.set_detached(\"ProbeNet\", true);\n 1020│    att.save().expect(\"save attachment\");\n 1021│    assert!(\n     │...\n 1026│    // Re-attach → serving again (also restores the shared SPT_HOME state).\n*1027│    let mut att = AttachmentStore::load();\n 1028│    att.set_detached(\"ProbeNet\", false);\n 1029│    att.save().expect(\"save attachment\");\n 1030│    assert!(\n\n## spt-net/src/net/\n### serveprobe.rs\n 15│//! peer answers from the SAME source the pump/responder consult\n*16│//! (`AttachmentStore::is_detached` ∧ membership). A detached peer answers\n 17│//! `serving = false` and flips offline within a cadence — the criterion-5\n 18│//! contract.\n 19│//!\n\n## spt-store/src/\n### attachment.rs\n  13│//!   effect without a daemon restart).\n *14│//! - **Startup default** = `daemon.json` `detached_subnets` (the `--save`\n  15│//!   flag writes it); the daemon RESETS this file from the config at boot,\n  16│//!   so an unsaved flip deliberately does not survive a restart.\n  17│// [impl->REQ-SUBNET-5]\n    │...\n  36│#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\n *37│pub struct AttachmentStore {\n  38│    /// Subnets deliberately not served right now.\n  39│    #[serde(default)]\n  40│    pub detached: BTreeSet<String>,\n    │...\n  42│\n *43│impl AttachmentStore {\n  44│    /// Load from the canonical [`attachment_file`]. Absent ⇒ everything\n  45│    /// attached (the default state) — never an error.\n *46│    pub fn load() -> AttachmentStore {\n  47│        Self::load_from(&attachment_file())\n  48│    }\n  49│\n    │...\n  51│    /// (a broken state file must not silently detach a node's subnets).\n *52│    pub fn load_from(path: &Path) -> AttachmentStore {\n  53│        match std::fs::read_to_string(path) {\n  54│            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n *55│            Err(_) => AttachmentStore::default(),\n  56│        }\n  57│    }\n  58│\n    │...\n  74│    /// Whether `name` is deliberately not served right now.\n *75│    pub fn is_detached(&self, name: &str) -> bool {\n  76│        self.detached.contains(name)\n  77│    }\n  78│\n    │...\n  91│    /// restart by design (`--save` is the persistence).\n *92│    pub fn reset_to(defaults: &[String]) -> AttachmentStore {\n *93│        AttachmentStore {\n  94│            detached: defaults.iter().cloned().collect(),\n  95│        }\n  96│    }\n    │...\n 102│    pub fn filter_serving(&self, store: &mut SubnetStore) {\n*103│        store.subnets.retain(|s| !self.is_detached(&s.name));\n 104│    }\n 105│}\n 106│\n    │...\n 117│\n*118│        let mut att = AttachmentStore::load_from(&path);\n*119│        assert!(!att.is_detached(\"home\"), \"absent file = all attached\");\n 120│\n 121│        assert!(att.set_detached(\"home\", true), \"first detach = an edge\");\n 122│        assert!(!att.set_detached(\"home\", true), \"re-detach = no edge\");\n*123│        assert!(att.is_detached(\"home\"));\n 124│        att.save_to(&path).unwrap();\n 125│\n*126│        let reloaded = AttachmentStore::load_from(&path);\n*127│        assert!(reloaded.is_detached(\"home\"), \"state survives reload\");\n*128│        assert!(!reloaded.is_detached(\"work\"), \"others stay attached\");\n 129│\n 130│        let mut att = reloaded;\n 131│        assert!(att.set_detached(\"home\", false), \"re-attach = an edge\");\n    │...\n 144│        std::fs::write(&path, \"not json {{{\").unwrap();\n*145│        assert!(!AttachmentStore::load_from(&path).is_detached(\"home\"));\n 146│    }\n 147│\n 148│    // [unit->REQ-SUBNET-5] the boot reset seeds live state from the config\n    │...\n 151│    fn boot_reset_and_serving_filter() {\n*152│        let att = AttachmentStore::reset_to(&[\"work\".to_string()]);\n*153│        assert!(att.is_detached(\"work\"));\n*154│        assert!(!att.is_detached(\"home\"));\n 155│\n 156│        let mut store = SubnetStore::default();\n 157│        store.create_subnet(\"home\").unwrap();\n\n## spt/src/\n### cli.rs\n 7227│        .unwrap_or(true); // can't ask ⇒ assume serving rather than alarm\n*7228│    let att = spt_store::attachment::AttachmentStore::load();\n 7229│    let rows: Vec<(String, &'static str)> = SubnetStore::load()\n 7230│        .subnets\n 7231│        .iter()\n 7232│        .map(|s| {\n*7233│            let state = if att.is_detached(&s.name) {\n 7234│                \"detached\"\n 7235│            } else if net_up {\n 7236│                \"attached\"\n     │...\n 7543│    }\n*7544│    let mut att = spt_store::attachment::AttachmentStore::load();\n 7545│    att.set_detached(name, false);\n 7546│    let _ = att.save();\n 7547│    let snap = perch::identity_dir()\n     │...\n 7839│    }\n*7840│    let mut att = spt_store::attachment::AttachmentStore::load();\n 7841│    let edge = att.set_detached(name, detach);\n 7842│    if let Err(e) = att.save() {\n 7843│        eprintln!(\"ATTACHMENT_SAVE_FAIL:{name}: {e}\");\n     │...\n 7854│        let mut cfg = spt_daemon::DaemonConfig::load();\n*7855│        cfg.detached_subnets.retain(|n| n != name);\n 7856│        if detach {\n*7857│            cfg.detached_subnets.push(name.to_string());\n 7858│        }\n 7859│        match cfg.save_to(&path) {\n 7860│            Ok(()) => eprintln!(\"SAVED:{name} startup default = {}\", verb.to_lowercase()),\n### wansend.rs\n 588│/// reachability we ask the peer \"serving `subnet`?\" over the serve-probe\n*589│/// record, which it answers from its own `AttachmentStore` (REQ-SUBNET-5).\n 590│/// Every failure mode (daemon down, no dialable address, refused/timed-out\n 591│/// dial, peer answers not-serving / no reply) reads `false` — the caller\n 592│/// renders offline, never errors a status view."},"isError":false,"timestamp":1784069058606}}
{"type":"message","id":"2aa48812","parentId":"a55287a2","timestamp":"2026-07-14T22:44:18.615Z","message":{"role":"toolResult","toolCallId":"call_slEJoj6BlI9djy9COrkwCkE3|fc_0b084cf0b521ab15016a56bbc25c4c8190968753dd217f9a69","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/spt-daemon/src/\n## access.rs\n 15|//!   endpoint's identity or home. The subject value MUST be the QUIC\n*16|//!   handshake-proven remote node id from the broker's conn/stream table,\n 17|//!   never a payload field (REQ-HAZARD-WAN-ORIGIN-AUTH).\n 18|//! - **Outbound** → any visible node: the whitelist never restricts who an\n 19|//!   endpoint talks *to*.\n...\n 81|/// The ADR-0009 access-whitelist gate for one wire-inbound interaction against\n*82|/// `endpoint`, originating from handshake-proven `origin_node`.\n 83|///\n 84|/// Decision order: same-node short-circuit → store lookup (absent = open) →\n 85|/// class split (reply exempt, unsolicited gated on the node list).\n## attach.rs\n 31|//! is served: the [`AttachRecord::Request`] is *unsolicited wire inbound*, so\n*32|//! [`access_check`] sees the **handshake-proven** origin from the broker's\n 33|//! stream table — never payload bytes (KNOWN-HAZARDS 7.5). Remote-drive of\n 34|//! your own running instance is ungated by default (ADR-0009 default-open);\n 35|//! the D5d whitelist drops in at this same call.\n...\n 76|    Exited(Option<i32>),\n*77|    /// The operator closed its send side (detached); the viewport ended with\n 78|    /// the session still running.\n 79|    Detached,\n 80|    /// This controller was DISPLACED by a different operator's `--take`/`kick`\n...\n 214|///\n*215|/// `origin_node` MUST be the handshake-proven remote id from the broker's\n 216|/// stream table (`NetStreamInfo::remote_id_hex`) — never payload bytes\n 217|/// (REQ-HAZARD-WAN-ORIGIN-AUTH). `endpoint` names the endpoint whose session\n 218|/// is being attached, for the gate. `net_from_seq` is this brain's resume\n...\n 362|                            // resolves controller / viewer / busy / take by the\n*363|                            // intent + this handshake-proven origin, and replies a\n 364|                            // `Subscribed`. driven_by / viewer_count are now\n 365|                            // BROKER-owned (single writer — resolves the\n 366|                            // clear-race), so this loop no longer stamps them.\n...\n 502|                if role == Some(ServeRole::Controller) {\n*503|                    // The driver detached — the endpoint rests warm (controller-\n 504|                    // only; a viewer leaving is wake-neutral).\n 505|                    feed_rest(endpoint, crate::resting::RestEvent::Detach);\n 506|                }\n## brain.rs\n 46|    KIND_ADAPTER_APPLY, KIND_APPLIED, KIND_BRAIN_RESTART, KIND_BROKER_IMAGE, KIND_BROKER_IMAGE_REPLY, KIND_STALL_EVICTS, KIND_STALL_EVICTS_REPLY, KIND_VIEWER_EVICTED,\n*47|    KIND_BRAIN_RESTARTED, KIND_DISPLACED, KIND_ENDPOINT_INJECTED, KIND_ENDPOINT_INPUT, KIND_ERROR, KIND_EXIT, KIND_INPUT, KIND_KILL, KIND_NET_DIAL,\n*48|    KIND_NET_DIALED, KIND_NET_DIAL_LOOPBACK, KIND_NET_DIAL_SUBMIT, KIND_NET_DIAL_SUBMITTED,\n 49|    KIND_NET_PRESENCE_EVENT, KIND_NET_PRESENCE_SUBSCRIBE,\n 50|    KIND_NET_SENT,\n 51|    KIND_NET_STATUS, KIND_NET_STATUS_REPLY, KIND_NET_STREAMS, KIND_NET_STREAMS_REPLY,\n 52|    KIND_NET_STREAM_DATA, KIND_NET_STREAM_EOF, KIND_NET_STREAM_OPEN, KIND_NET_STREAM_OPENED,\n*53|    KIND_MET_MEMBER, KIND_NET_STREAM_SEND, KIND_NET_STREAM_SUBSCRIBE, KIND_OUTPUT, KIND_PAIR_CODE_SUBMIT, KIND_PAIR_JOIN, KIND_PAIR_JOINED, KIND_PAIR_MEET,\n 54|    KIND_RESIZE, KIND_SESSIONS, KIND_SESSIONS_REPLY, KIND_SIZE, KIND_SPAWN, KIND_SPAWNED,\n 55|    KIND_SUBSCRIBE, KIND_SUBSCRIBED, KIND_UNSUBSCRIBE, UnsubscribeReq,\n 56|};\n...\n 176|\n*177|/// The outcome of the two-phase join's MEET phase ([`Brain::pair_meet`],\n 178|/// REQ-JOIN-TWO-PHASE): a member was found (its real address is held under the\n 179|/// session id), or the meet failed before any code was needed (rendered for the\n 180|/// operator without ever prompting for a code).\n...\n 215|        frames: Receiver<io::Result<Envelope>>,\n*216|        /// The reader-thread handle — held so the thread is owned, not detached\n 217|        /// silently. On a supervised restart the whole [`Brain`] drops; this\n 218|        /// handle drops with it (the thread, blocked in `read_frame`, is\n 219|        /// abandoned and exits when the old conn closes — KH 7.6).\n...\n 224|impl BrainConn {\n*225|    /// Split a connected+handshaked stream into the pump carrier: spawn the\n 226|    /// `pump-ipc-reader` thread (blocking [`read_frame`] → channel) and keep the\n 227|    /// [`SendHalf`] for writes. The reader logs spawn/exit so a leaked (parked)\n 228|    /// reader is diagnosable in the field (KH 7.6).\n...\n 235|            .spawn(move || {\n*236|                eprintln!(\"PUMP_IPC_READER: spawned\");\n 237|                loop {\n 238|                    let framed = read_frame(&mut recv);\n 239|                    let was_err = framed.is_err();\n...\n 250|                }\n*251|                eprintln!(\"PUMP_IPC_READER: exited\");\n 252|            })\n 253|            .expect(\"spawn pump-ipc-reader thread\");\n 254|        BrainConn::Split {\n...\n 315|impl Brain {\n*316|    /// Cold start: connect, handshake, fresh generation 0, `gen_start = now`.\n 317|    /// The ordinary blocking carrier ([`BrainConn::Whole`]) — every client\n 318|    /// except the peer pump, which uses [`Brain::cold_start_pump`].\n 319|    pub fn cold_start(name: &str, now_ms: u64) -> io::Result<Self> {\n...\n 335|\n*336|    /// Cold start in **PUMP mode**: connect, handshake, then SPLIT the stream\n 337|    /// into the reader-thread carrier ([`BrainConn::Split`]) and arm a per-IPC-\n 338|    /// call deadline of `io_timeout`. This is the peer pump's dedicated client —\n 339|    /// every reply read is bounded ([`Brain::read_event_until`] via\n...\n 362|\n*363|    /// Handoff: connect, handshake, rehydrate the resume cursor + generation\n 364|    /// from `prior`, but stamp `gen_start = now()` (NOT `prior.gen_start_ms` —\n 365|    /// the 2.4 invariant), and re-subscribe to the session from the cursor for a\n 366|    /// gapless resume.\n...\n 618|    /// (unbounded), same as `call_deadline`.\n*619|    // [impl->REQ-PUMP-DIAL-FASTFAIL]\n 620|    pub fn reply_read_deadline(&self) -> Option<Instant> {\n 621|        peer_reply_deadline(self.io_timeout, Instant::now())\n 622|    }\n...\n 767|                }\n*768|                KIND_NET_DIALED => {\n 769|                    let ev: NetDialed = serde_json::from_value(env.payload)\n 770|                        .map_err(|e| io::Error::new(io::ErrorKind::InvalidData, e))?;\n 771|                    return Ok(BrokerEvent::NetDialed(ev));\n...\n 775|                // [impl->REQ-PUMP-PEER-ISOLATION]\n*776|                KIND_NET_DIAL_SUBMITTED => return Ok(BrokerEvent::NetDialSubmitted),\n 777|                KIND_NET_STREAM_OPENED => {\n 778|                    let ev: NetStreamOpened = serde_json::from_value(env.payload)\n 779|                        .map_err(|e| io::Error::new(io::ErrorKind::InvalidData, e))?;\n...\n 801|                }\n*802|                KIND_MET_MEMBER => {\n 803|                    let ev: MetMember = serde_json::from_value(env.payload)\n 804|                        .map_err(|e| io::Error::new(io::ErrorKind::InvalidData, e))?;\n 805|                    return Ok(BrokerEvent::MetMember(ev));\n...\n 887|    /// cannot happen on the still-ordered brain-IPC channel.\n*888|    // [impl->REQ-PUMP-DIAL-FASTFAIL]\n 889|    pub fn read_peer_reply_until(&mut self, deadline: Option<Instant>) -> io::Result<BrokerEvent> {\n 890|        self.read_event_until(deadline)\n 891|            .map_err(reclassify_peer_reply_err)\n...\n 915|    /// role-aware subscribe with `intent` + the operator identity `by` (the\n*916|    /// handshake-proven origin for a remote attach). The broker resolves the role\n 917|    /// and replies a [`BrokerEvent::Subscribed`] the caller (a [`serve_attach`]\n 918|    /// loop) reads to learn whether it became controller / viewer / was refused.\n 919|    /// Like [`Brain::attach`] this is a second reader, not a logic handoff (the\n...\n 1235|\n*1236|    /// Phase 1 of the two-phase join (REQ-JOIN-TWO-PHASE): MEET a seed-holder for\n 1237|    /// `subnet` — no code. The daemon resolves and holds the member's real\n 1238|    /// address; the reply is either a [`MetMember`] (proceed to the code) or a\n 1239|    /// classified failure ([`MetOutcome::Failed`]) surfaced before any code\n...\n 1244|        self.send(\n*1245|            KIND_PAIR_MEET,\n 1246|            serde_json::to_value(PairMeetReq {\n 1247|                subnet: subnet.to_string(),\n 1248|                verbose,\n...\n 1296|        self.send(\n*1297|            KIND_NET_DIAL,\n 1298|            serde_json::to_value(NetDialReq {\n 1299|                addr,\n 1300|                op_id: op.map(|o| o.seq),\n## brainproc.rs\n 160|    // Persist this brain generation's stderr to the rotating SPT_HOME/logs sink\n*161|    // (REQ-DAEMON-STDERR-PERSIST) — a detached brain's stdio is /dev/null, so every\n 162|    // diagnostic below would otherwise vanish (the incident-night RCA-blind gap). Runs\n 163|    // FIRST so even the BRAIN_UP line and a connect failure are captured. Best-effort.\n 164|    // [impl->REQ-DAEMON-STDERR-PERSIST]\n...\n 986|/// Spawn the production brain child: re-exec `daemon brain` as a plain\n*987|/// (non-detached) managed child, so it inherits the broker's environment —\n*988|/// including `SPT_HOME` — and dies with no orphaning. NOT `spawn_detached`\n 989|/// (that path rebuilds the Windows env block and would drop `SPT_HOME`). The\n 990|/// broker stamps `{generation, start-reason}` onto the argv (ADR-0018 V2).\n 991|///\n...\n 1043|    // OWN process group so the daemon can reap the brain + everything it spawns\n*1044|    // (the shellwake watchers, the detached Psyches — all inherit this group) as\n 1045|    // one unit on stop, without signalling the daemon itself. Windows roots the\n 1046|    // reap on a Job object instead (assigned in the supervisor via BrainReaper).\n 1047|    #[cfg(unix)]\n## broker.rs\n 60|    Spawned, SubscribeOutcome, SubscribeReq, UnsubscribeReq, KIND_BRAIN_RESTART, KIND_BRAIN_RESTARTED, KIND_ENDPOINT_INPUT, KIND_ERROR, KIND_EXIT,\n*61|    KIND_INPUT, KIND_KILL, KIND_NET_DIAL, KIND_NET_DIAL_LOOPBACK, KIND_NET_DIAL_SUBMIT,\n*62|    KIND_NET_DIAL_SUBMITTED, KIND_NET_PRESENCE_SUBSCRIBE,\n 63|    KIND_NET_SENT,\n 64|    KIND_ADAPTER_APPLY, KIND_APPLIED,\n 65|    KIND_BROKER_IMAGE, KIND_BROKER_IMAGE_REPLY, KIND_STALL_EVICTS, KIND_STALL_EVICTS_REPLY,\n...\n 67|    KIND_NET_STREAM_OPEN, KIND_NET_STREAM_OPENED, KIND_NET_STREAM_SEND, KIND_NET_STREAM_SUBSCRIBE,\n*68|    KIND_MET_MEMBER, KIND_PAIR_CODE_SUBMIT, KIND_PAIR_JOIN, KIND_PAIR_JOINED, KIND_PAIR_MEET, KIND_RESIZE, KIND_SESSIONS, KIND_SESSIONS_REPLY, KIND_SPAWN,\n 69|    KIND_SPAWNED, KIND_SUBSCRIBE, KIND_UNSUBSCRIBE,\n 70|};\n 71|use crate::nethost::{NetHost, NET_EFFECT_SESSION};\n...\n 141|/// that stays full for [`CONTROLLER_WRITE_DEADLINE`] (tracked via\n*142|/// [`ControllerSink::last_ok`]) is detached. Generous so a momentary slow consumer\n 143|/// never trips the deadline.\n 144|const CONTROLLER_CHANNEL_DEPTH: usize = 4096;\n 145|\n...\n 582|    /// load-bearing for at-least-once output: advancing past a *failed* write to a\n*583|    /// dying-but-not-yet-detached controller would make resume skip that chunk\n 584|    /// forever (at-least-once → at-most-once); decreasing on a deliberate\n 585|    /// `attach(sub, 0)` rewind-replay would reset the resume point under a live\n 586|    /// reader.\n...\n 1073|            \"BRAIN_SUBSCRIBER_STALL_EVICT:{} conn={conn} {} — controller writer blocked > {}ms \\\n*1074|             on a suspended/black-holed brain conn; detached, driven_by released \\\n 1075|             [REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE]\",\n 1076|            self.session_id,\n 1077|            crate::conn::log_stamp(),\n...\n 2548|    /// `session_id → (subnet, real address, 5-min deadline)` between\n*2549|    /// [`KIND_PAIR_MEET`] and [`KIND_PAIR_CODE_SUBMIT`]. The code phase dials the\n 2550|    /// held address (no re-search); a wrong-code retry keeps the entry. Pairing\n 2551|    /// is never journaled (the code must not persist) — in-memory only, and a\n 2552|    /// daemon restart simply makes the operator re-run the meet.\n...\n 2975|\n*2976|    /// Drive one brain connection: handshake, then dispatch its command frames\n 2977|    /// until it disconnects. On disconnect, detach this connection from any\n 2978|    /// sessions it subscribed to — the sessions themselves persist (B2: a brain\n 2979|    /// restart must not disturb the hosted children).\n...\n 3002|\n*3003|        // Version handshake: this connection must be a brain (2.3).\n 3004|        recv_hello(&mut recv, Role::Brain)?;\n 3005|\n 3006|        let mut my_subs: Vec<u64> = Vec::new();\n...\n 3054|                KIND_STALL_EVICTS => self.dispatch_stall_evicts(&send),\n*3055|                KIND_NET_DIAL => {\n 3056|                    if let Err(msg) = self.dispatch_net_dial(env, &send) {\n 3057|                        send_error(&send, &msg);\n 3058|                    }\n 3059|                }\n*3060|                KIND_NET_DIAL_LOOPBACK => {\n 3061|                    if let Err(msg) = self.dispatch_net_dial_loopback(&send) {\n 3062|                        send_error(&send, &msg);\n 3063|                    }\n...\n 3065|                // [impl->REQ-PUMP-PEER-ISOLATION]\n*3066|                KIND_NET_DIAL_SUBMIT => {\n 3067|                    if let Err(msg) = self.dispatch_net_dial_submit(env, &send) {\n 3068|                        send_error(&send, &msg);\n 3069|                    }\n...\n 3075|                }\n*3076|                KIND_PAIR_MEET => {\n 3077|                    if let Err(msg) = self.dispatch_pair_meet(env, &send) {\n 3078|                        send_error(&send, &msg);\n 3079|                    }\n...\n 3338|        // longer inline under the log lock, so a backed-up controller can never\n*3339|        // wedge the session; a fully-stalled controller is detached after the\n 3340|        // deadline (bounded wedge, never permanent).\n 3341|        let log_drain = Arc::clone(&log);\n 3342|        let drain = session\n...\n 3946|                    })\n*3947|                    .map_err(|e| format!(\"net-dial failed: {e}\"))?;\n 3948|                // Frozen wire-compat text, single-sourced from the shared marker so\n 3949|                // the A-4b retry matches one source of truth (ADR-0034 Addendum 2).\n 3950|                let conn_id = host\n...\n 3971|    /// ack RIGHT AWAY. The dial's real outcome rides the presence stream\n*3972|    /// (CONNECTED / DIAL_FAILED), never this reply — so one dead peer can neither\n 3973|    /// block the caller nor poison the round. The pump submits with `op_id: None`\n 3974|    /// (its dials are non-journaled today), so this path does not journal; the\n 3975|    /// blocking [`Self::dispatch_net_dial`] keeps the exactly-once op path for its\n...\n 3989|        // On a successful connect `register_conn` re-derives the SAME hex from the\n*3990|        // proven pubkey; on failure `submit_dial` tags DIAL_FAILED with it — so an\n 3991|        // outcome always matches the peer the pump submitted for.\n 3992|        let remote_id_hex = spt_proto::identity::PublicKey::from_bytes(addr.id.as_bytes())\n 3993|            .map_err(|e| format!(\"bad net-dial-submit addr id: {e}\"))?\n...\n 3996|        // Immediate bare ack — the dial spawned; its outcome is a presence event.\n*3997|        send_frame(send, &Envelope::new(KIND_NET_DIAL_SUBMITTED, serde_json::Value::Null));\n 3998|        Ok(())\n 3999|    }\n 4000|\n...\n 4063|\n*4064|    /// Phase 1 of the two-phase join (REQ-JOIN-TWO-PHASE): MEET a seed-holder for\n 4065|    /// the named subnet — resolve its real, stable pairing address via the\n 4066|    /// rendezvous (PUBLIC `(name, epoch)`, no code) — and HOLD it under a fresh\n*4067|    /// session id, bounded by [`PAIR_CODE_WAIT`]. Replies [`KIND_MET_MEMBER`] so\n 4068|    /// the CLI can collect the code, fresh, against a found member. Expired holds\n 4069|    /// from abandoned earlier attempts are swept here (no separate reaper — pairing\n 4070|    /// is rare and the map is tiny).\n## config.rs\n 38|/// driver, so a missed tick costs only latency, never correctness.\n*39|pub const DEFAULT_REGISTRY_PUMP_PERIOD: Duration = Duration::from_secs(30);\n*40|pub const DEFAULT_NOTIF_PUMP_PERIOD: Duration = Duration::from_secs(15);\n 41|pub const DEFAULT_SYNC_PULL_PERIOD: Duration = Duration::from_secs(60);\n 42|pub const DEFAULT_UPDATE_CHECK_PERIOD: Duration = Duration::from_secs(3_600);\n 43|\n...\n 118|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n*119|    detached_subnets: Option<Vec<String>>,\n 120|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n 121|    worker_reap_ttl_secs: Option<u64>,\n 122|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n...\n 176|    pub resources_blurb: Option<String>,\n*177|    /// Subnets whose serve-state STARTS detached (M8 decision 6,\n 178|    /// REQ-SUBNET-5): the daemon's boot reset seeds the live\n 179|    /// `attachment.json` from this list — `spt subnet detach/attach --save`\n 180|    /// writes it. Default empty = every held subnet starts attached.\n*181|    pub detached_subnets: Vec<String>,\n 182|    /// The worker-reap TTL floor (seconds since a worker's `started`), W-3\n 183|    /// (REQ-WORKER-REAP): the reconcile GC reaps any worker older than this even\n 184|    /// under a live parent with a stale `ready` marker (the `SubagentStop`-never-fired\n...\n 204|            peer_pump: true,         // the subnet self-drives (D9-1)\n*205|            registry_pump_period: DEFAULT_REGISTRY_PUMP_PERIOD,\n 206|            registry_evict_after: DEFAULT_REGISTRY_EVICT_AFTER,\n*207|            notif_pump_period: DEFAULT_NOTIF_PUMP_PERIOD,\n 208|            sync_pull_period: DEFAULT_SYNC_PULL_PERIOD,\n 209|            update_check_period: DEFAULT_UPDATE_CHECK_PERIOD,\n 210|            auto_suspend_after_ms: None, // opt-in, default OFF (REQ-INST-3)\n 211|            resources_blurb: None,       // endpoints author their own (REQ-INST-14)\n*212|            detached_subnets: Vec::new(), // every held subnet starts attached (REQ-SUBNET-5)\n 213|            worker_reap_ttl_secs: spt_store::worker_reap::DEFAULT_REAP_TTL_SECS, // 24h (W-3)\n 214|            startup_endpoints: Vec::new(), // nothing auto-starts by default (REQ-ENDPOINT-AUTOSTART)\n 215|        }\n...\n 285|            resources_blurb: file.resources_blurb,\n*286|            detached_subnets: file.detached_subnets.unwrap_or_default(),\n 287|            worker_reap_ttl_secs: file.worker_reap_ttl_secs.unwrap_or(d.worker_reap_ttl_secs),\n 288|            startup_endpoints: file.startup_endpoints.unwrap_or_default(),\n 289|        }\n...\n 313|            resources_blurb: self.resources_blurb.clone(),\n*314|            detached_subnets: Some(self.detached_subnets.clone()),\n 315|            worker_reap_ttl_secs: Some(self.worker_reap_ttl_secs),\n 316|            startup_endpoints: Some(self.startup_endpoints.clone()),\n 317|        };\n...\n 398|            resources_blurb: Some(\"node default services\".to_string()),\n*399|            detached_subnets: vec![\"work\".to_string()],\n 400|            worker_reap_ttl_secs: 7_200,\n 401|            startup_endpoints: vec![\n 402|                StartupEndpoint {\n...\n 420|    #[test]\n*421|    fn detached_subnets_knob_defaults_empty() {\n*422|        assert!(DaemonConfig::default().detached_subnets.is_empty());\n 423|\n 424|        let dir = tempfile::tempdir().unwrap();\n 425|        let path = dir.path().join(\"daemon.json\");\n*426|        std::fs::write(&path, r#\"{\"detached_subnets\": [\"work\"]}\"#).unwrap();\n 427|        assert_eq!(\n*428|            DaemonConfig::load_from(&path).detached_subnets,\n 429|            vec![\"work\".to_string()]\n 430|        );\n 431|        // An absent file keeps the all-attached default.\n 432|        assert!(DaemonConfig::load_from(&dir.path().join(\"nope.json\"))\n*433|            .detached_subnets\n 434|            .is_empty());\n 435|    }\n 436|\n...\n 590|                pulse_period: Duration::from_millis(1234),\n*591|                detached_subnets: vec![\"work\".to_string()],\n 592|                ..DaemonConfig::default()\n 593|            };\n 594|            seeded.save_to(&DaemonConfig::default_path()).unwrap();\n...\n 609|            assert_eq!(cfg.pulse_period, Duration::from_millis(1234));\n*610|            assert_eq!(cfg.detached_subnets, vec![\"work\".to_string()]);\n 611|\n 612|            // Same id, different adapter+cwd → replaced in place, returns true.\n 613|            let replaced = DaemonConfig::upsert_startup_endpoint(StartupEndpoint {\n## conn.rs\n 45|//! completion (`write_frame` returns only after the completion APC — the\n*46|//! synchronous return IS the completion handshake); (4) the retired half is\n 47|//! parked in a graveyard slot — never dropped while the watchdog might still\n 48|//! touch the raw handle (drop = `CloseHandle`, and a recycled handle value\n 49|//! must never see a late `CancelIoEx`), and never re-gated; (5) on Windows the\n...\n 238|    /// abort, retire, never reuse.\n*239|    // [impl->REQ-CONN-POISON-DIAL-SCOPE]\n 240|    fn render_retirement(&self, timed_out: bool, cause: Option<&io::Error>) -> String {\n 241|        if timed_out {\n 242|            format!(\n...\n 257|                 as POISONED — only the failure class differs) \\\n*258|                 [REQ-CONN-POISON-DIAL-SCOPE]\",\n 259|                self.attribution()\n 260|            )\n 261|        }\n...\n 341|    /// completion (the writer clears `inflight` the instant `write_frame`\n*342|    /// returns — that return IS the buffer-release handshake), then sever.\n 343|    fn watchdog(&self) {\n 344|        let mut d = recover(&self.dog);\n 345|        loop {\n...\n 561|\n*562|        // Completion handshake: `write_frame` has returned, so the OS op —\n 563|        // canceled or not — reported completion and the frame buffer is\n 564|        // released. Clear the arm BEFORE deciding health, so the watchdog\n 565|        // never severs while the op is formally in flight.\n...\n 706|\n*707|    // [unit->REQ-CONN-POISON-DIAL-SCOPE] the F-039 leg-(a) token split: the loud\n 708|    // CONN_WRITE_POISONED token is RESERVED for the deadline (timed_out) class;\n 709|    // an organic write failure renders the distinct CONN_WRITE_RETIRED token\n 710|    // carrying the error kind — and (doyle amendment 1) the SAME attribution\n...\n 752|\n*753|    // [unit->REQ-CONN-POISON-DIAL-SCOPE] behavior is UNCHANGED by the token\n 754|    // split (the REQ-HAZARD-SHAREDSEND invariant): an organic fast-fail still\n 755|    // poisons + retires the conn — it is only the CLASS that differs (the error\n 756|    // surfaces with its own kind, never TimedOut, and the next write refuses).\n## daemon.rs\n 9|//! invocation calls it; if no daemon answers the seed-control ping it spawns\n*10|//! `spt daemon` detached and waits (bounded) for it to come up. The reliable\n 11|//! anchor is the seed channel — bound for the whole daemon lifetime, so a ping\n 12|//! against it is a true liveness test (`listen` is the interim model's anchor;\n 13|//! here the seed channel plays that role for cold-start detection).\n...\n 92|                &exe.to_string_lossy(),\n*93|                // --detached BELT (REQ-HAZARD-DETACHED-DAEMON-STDIO): the respawned\n 94|                // unelevated daemon then runs detach_console + the null-handles guard,\n 95|                // so it never keeps live inherited stdio (matches every other rung).\n*96|                &[\"daemon\".to_string(), \"run\".to_string(), \"--detached\".to_string()],\n 97|            ) {\n 98|                Ok(Some(pid)) => {\n 99|                    eprintln!(\n...\n 144|            let att = spt_store::attachment::AttachmentStore::reset_to(\n*145|                &DaemonConfig::load().detached_subnets,\n 146|            );\n 147|            if let Err(e) = att.save() {\n 148|                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n 149|            }\n*150|            for name in &att.detached {\n 151|                // Plain prose (no Markdown markers): spt-daemon can't import the\n 152|                // bin-local helpfmt renderer, so this one source string is authored\n 153|                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\n...\n 168|        // Identity (the durable node.key) decides node_hex independently of the\n*169|        // net bring-up: a NET_BIND_FAIL (e.g. the autostart beat the network up\n 170|        // at boot — REQ-DAEMON-9) is transient and retried, but a broken\n 171|        // identity is not, so we only arm the retry when identity is sound.\n 172|        let node_hex: Option<String> = spt_store::nodeid::load_or_create()\n...\n 303|        // graceful-stop path below. The brain subtree (the brain + its shellwake\n*304|        // watchers + its detached Psyches) reaps as one unit; the daemon itself is\n 305|        // never in the container.\n 306|        // [impl->REQ-HAZARD-DAEMON-STOP-REAP]\n 307|        let reaper = crate::reap::BrainReaper::new();\n...\n 338|        // does not respawn the brain we are about to kill) THEN reap the brain\n*339|        // subtree — the brain, its shellwake watchers, and its detached Psyches die\n 340|        // with the daemon instead of orphaning as ~8 stray claude-spt-psyche.exe /\n 341|        // spt.exe. The daemon is not in the reap container, so this never\n 342|        // self-terminates: it returns cleanly below.\n...\n 376|/// endpoint, wiring on-connect roster propagation (REQ-MESH-2). `None` on a\n*377|/// `NET_BIND_FAIL` (e.g. the network/DNS stack not ready yet) or a missing\n 378|/// identity — the caller binds net-less and (REQ-DAEMON-9) retries.\n 379|// [impl->REQ-DAEMON-2]\n 380|// [impl->REQ-DAEMON-9]\n...\n 402|        Err(e) => {\n*403|            eprintln!(\"NET_BIND_FAIL: {e} — broker runs net-less\");\n 404|            None\n 405|        }\n 406|    }\n...\n 409|/// Background net self-heal supervisor (REQ-DAEMON-9): a daemon that came up\n*410|/// net-less (NET_BIND_FAIL at boot — typically the autostart racing the network\n 411|/// up) keeps retrying `try_start_net` with capped backoff and, on success,\n 412|/// ATTACHES the host to the live broker (`OnceLock`, so exactly once). The node\n 413|/// becomes reachable without a manual restart. Runs until net binds — the\n...\n 418|fn net_retry_attach(broker: Arc<Broker>) {\n*419|    let mut backoff = NET_RETRY_FIRST;\n 420|    loop {\n 421|        thread::sleep(backoff);\n 422|        if let Some(host) = try_start_net() {\n...\n 432|\n*433|const NET_RETRY_FIRST: Duration = Duration::from_secs(1);\n*434|const NET_RETRY_CAP: Duration = Duration::from_secs(30);\n 435|\n 436|/// The net self-heal backoff ladder (REQ-DAEMON-9): double each retry, capped\n*437|/// at [`NET_RETRY_CAP`]. Pure for tests.\n 438|fn net_retry_backoff(cur: Duration) -> Duration {\n*439|    (cur * 2).min(NET_RETRY_CAP)\n 440|}\n 441|\n 442|/// Whether a daemon is already serving the seed-control channel for this home.\n...\n 477|/// Service-aware (REQ-DAEMON-8): when an OS service manager has a registered\n*478|/// spt-daemon, this starts THAT — never a competing manual `spawn_detached`\n 479|/// daemon that would fight the service for the broker socket (the kitsubito\n*480|/// 2026-06-08 restart-loop). No manager ⇒ the detached spawn path as before.\n 481|// [impl->REQ-DAEMON-8]\n 482|pub fn ensure_running() -> io::Result<()> {\n 483|    if is_running() {\n...\n 494|                eprintln!(\"DAEMON_SERVICE_START_FALLBACK: {e} — starting a manual daemon\");\n*495|                spawn_detached()?;\n 496|            }\n 497|        }\n*498|        crate::service::StartPlan::ManualSpawn => spawn_detached()?,\n 499|        // `running` was passed false, so AlreadyRunning is unreachable here.\n 500|        crate::service::StartPlan::AlreadyRunning => return Ok(()),\n 501|    }\n## deelevate.rs\n 15|//!\n*16|//! - [`crate::daemon::spawn_detached`] de-elevates the child it launches —\n 17|//!   Windows: the UAC **linked token** ([`spawn_deelevated`]); Linux: drop\n 18|//!   the child to `SUDO_UID`/`SUDO_GID` with the invoker's `HOME`\n 19|//!   ([`sudo_invoker`] + `CommandExt::uid/gid`).\n...\n 32|//! they are re-declared here because the dependency arrow points the other\n*33|//! way (`spt` → `spt-daemon`). Like [`crate::daemon::detached_no_inherit`],\n 34|//! the Windows calls are raw `extern \"system\"` declarations (advapi32 is in\n 35|//! the MSVC default link set) — no new dependency for one seam.\n 36|// [impl->REQ-HAZARD-ELEVATED-DAEMON-SPAWN]\n...\n 417|\n*418|    // Raw advapi32/kernel32 declarations (the detached_no_inherit posture:\n 419|    // both libraries are in the MSVC default link set, no new dependency).\n 420|    #[repr(C)]\n 421|    struct StartupInfoW {\n...\n 510|    // CreateProcessWithTokenW accepts only a RESTRICTED creation-flag set —\n*511|    // DETACHED_PROCESS and CREATE_NO_WINDOW (the detached_no_inherit combo)\n 512|    // are rejected with ERROR_INVALID_PARAMETER (87; hit live, second\n 513|    // elevated verification round). Detach therefore rides\n 514|    // CREATE_NEW_CONSOLE with the console window HIDDEN via the startup\n...\n 521|    /// tab-close does not reap the de-elevated daemon (see the unelevated path in\n*522|    /// `daemon::detached_no_inherit`). CreateProcessWithTokenW accepts only a\n 523|    /// RESTRICTED creation-flag set, so this flag may be rejected with\n 524|    /// ERROR_INVALID_PARAMETER (87) — `create_with_token` retries WITHOUT it in\n 525|    /// that case (the elevated daemon then relies on the no-job common case /\n...\n 555|\n*556|    /// Spawn `program args…` detached under the **desktop shell's token** —\n 557|    /// the unelevated desktop user, whoever is actually at the machine.\n 558|    ///\n 559|    /// Why the shell token and not the UAC linked token: without\n...\n 687|    /// `CreateProcessWithTokenW` under the same flags as\n*688|    /// `detached_no_inherit`, command line quoted by the shared\n 689|    /// [`quote_windows_arg`] rules. The environment is BUILT FOR THE TOKEN\n 690|    /// (`CreateEnvironmentBlock`) — inheriting the elevated caller's\n 691|    /// variables would point the child at the wrong `%LOCALAPPDATA%`\n## digesthub.rs\n 20|//! The channel rides the same forward-compatible [`Envelope`] + codec + version\n*21|//! handshake as the broker / seed-control IPC (a transient `spt` CLI connects as a\n 22|//! [`Role::Brain`] logic client). **Local addressing only** — the qualified\n 23|//! `[subnet:]id@node` cross-node form is a later milestone (rejected by the CLI\n 24|//! before it ever reaches here).\n...\n 185|\n*186|/// Drive one control connection: handshake, then service snapshot pulls and\n 187|/// subscribe streams until the client disconnects.\n 188|fn handle_conn<C: Read + Write>(mut conn: C, hub: &DigestHub) -> io::Result<()> {\n 189|    recv_hello(&mut conn, Role::Brain)?;\n## dispatch.rs\n 51|//! stream's event feed alone (no double-subscription interleave). Origin is\n*52|//! the table's `remote_id_hex` — handshake-proven, never payload\n 53|//! (REQ-HAZARD-WAN-ORIGIN-AUTH); every family's own gate then runs unchanged.\n 54|// [impl->REQ-NET-1]\n 55|// [impl->REQ-HAZARD-WAN-ORIGIN-AUTH]\n...\n 346|            // WHICH endpoint the operator asks for (client-supplied, like Xfer's\n*347|            // `endpoint`); the origin subject stays the handshake identity. The\n 348|            // LOCAL path sends no endpoint_id and its session_id → endpoint mapping\n 349|            // is unchanged.\n 350|            // `endpoint` is the gate subject; `remote_session` carries the\n...\n 398|            // The wire names whose whitelist gates (the rule set); the origin\n*399|            // it is checked against stays handshake-proven. Blank refuses.\n 400|            let endpoint = line\n 401|                .get(\"endpoint\")\n 402|                .and_then(|v| v.as_str())\n...\n 423|            // The wire names whose whitelist gates (the xfer posture); the\n*424|            // origin stays handshake-proven. The serve applies the event\n 425|            // through the LOCAL transition host — echo gate, wake effects,\n 426|            // and shell cascade run on this node, where the instance lives.\n 427|            // [impl->REQ-INST-6]\n...\n 447|            // serve-state for a named subnet, read fresh from this node's\n*448|            // own stores — the QUIC handshake is the only subject.\n 449|            // [impl->REQ-SUBNET-5]\n 450|            match crate::serveprobe::serve_subnet_probe(&mut brain, stream_id) {\n 451|                Ok(out) => DispatchOutcome::Served(format!(\"{out:?}\")),\n...\n 558|    // This serving node's identity for the presence resolution: the broker's\n*559|    // handshake identity (the same hex peers see in our registry rows).\n 560|    let self_hex = brain\n 561|        .net_status()\n 562|        .ok()\n## drivehub.rs\n 31|//! The channel rides the same forward-compatible [`Envelope`] + codec + version\n*32|//! handshake as the digest / broker / seed-control IPC (a transient `spt` CLI\n 33|//! connects as a [`Role::Brain`] logic client). **Local addressing only** —\n 34|//! cross-node drive over the ephemeral Iroh link is a later task (never spooled,\n 35|//! same drop-on-offline semantics).\n...\n 191|\n*192|/// Drive one control connection: handshake, then service write / take / clear\n 193|/// requests until the client disconnects.\n 194|fn handle_conn<C: Read + Write>(mut conn: C, hub: &DriveHub) -> io::Result<()> {\n 195|    recv_hello(&mut conn, Role::Brain)?;\n## effect.rs\n 214|\n*215|/// The broker's NET-DIAL no-longer-held reply — the ONE source for the emitted\n 216|/// text, built from [`OP_NO_LONGER_HELD_MARKER`] so the wire string and the\n 217|/// retry's match substring cannot drift. Byte-identical to the pre-const literal\n 218|/// (a unit test pins it); the frozen marker rides inside the per-verb wrapper.\n## endpoint.rs\n 20|/// tag is stable across processes that share the same `spt_home` — exactly what\n*21|/// the auto-start handshake needs (the spawned daemon must independently derive\n 22|/// the launching client's socket name).\n 23|fn home_tag() -> String {\n 24|    let mut h = std::collections::hash_map::DefaultHasher::new();\n## frame.rs\n*1|//! The versioned broker↔brain IPC frame schema and connection handshake.\n 2|//!\n 3|//! This is the single most update-frequency-sensitive contract in spt-core\n 4|//! (KNOWN-HAZARDS 2.3): self-update (ADR-0004) swaps the brain routinely while\n...\n 14|//!    fields* a newer brain adds are silently ignored on the older side.\n*15|//! 2. **A version handshake.** On connect, the brain sends a [`Hello`]; the\n 16|//!    broker accepts iff the brain's `protocol_version >= MIN_COMPATIBLE_VERSION`.\n 17|//!    A newer brain (higher version) is accepted by an older broker; a brain\n 18|//!    too old to satisfy the broker's floor is rejected with a typed error\n...\n 28|\n*29|/// The oldest peer `protocol_version` this build will still handshake with.\n 30|/// Held at `1` for v1; raised only when an old version is genuinely retired.\n 31|pub const MIN_COMPATIBLE_VERSION: u32 = 1;\n 32|\n...\n 64|\n*65|/// Why a handshake was refused — surfaced typed rather than as a silent\n 66|/// misparse so an incompatible peer fails loudly (the 2.3 failure mode is a\n 67|/// peer dying *unlogged* on an arity/version mismatch).\n 68|#[derive(Debug, Clone, PartialEq, Eq)]\n...\n 190|    #[test]\n*191|    fn handshake_accepts_newer_brain_on_older_broker() {\n 192|        let newer_hello_wire = json!({\n 193|            \"protocol_version\": IPC_PROTOCOL_VERSION + 5,\n 194|            \"role\": \"brain\",\n...\n 204|    #[test]\n*205|    fn handshake_rejects_below_floor() {\n 206|        let hello = Hello {\n 207|            protocol_version: MIN_COMPATIBLE_VERSION - 1,\n 208|            role: Role::Brain,\n...\n 217|    #[test]\n*218|    fn handshake_rejects_role_mismatch() {\n 219|        let hello = Hello::current(Role::Broker);\n 220|        assert!(matches!(\n 221|            accept_hello(&hello, Role::Brain),\n## harnesshost.rs\n 28|//! and mints no link token (a harness binds via `api`, not the shell link\n*29|//! handshake).\n 30|// [impl->REQ-HOST-RUN-1]\n 31|\n 32|use std::collections::BTreeMap;\n## lib.rs\n 17|//! - [`frame`] — the forward-compatible [`Envelope`] schema + the version\n*18|//!   [`Hello`] handshake (KNOWN-HAZARDS 2.3, [`REQ-HAZARD-HANDOFF-ARGV-COMPAT`]);\n 19|//! - [`codec`] — length-prefixed JSON framing over any [`std::io::Read`]/`Write`;\n 20|//! - [`transport`] — the OS-split carrier (named pipe / UDS) behind one\n 21|//!   [`DaemonTransport`] trait, mirroring `spt-term`'s `SessionSurface`.\n...\n 85|//! broker-owned QUIC stream funnels through [`wan::receive_wan`] — the ADR-0009\n*86|//! access-gate seam ([`access`], handshake-proven origin only, KNOWN-HAZARDS\n 87|//! 7.5) plus durable op-id dedup (7.2, wire-fed) — into the existing local\n 88|//! REQ-MSG delivery path.\n 89|//!\n...\n 238|pub use release::{\n*239|    current_platform, parse_verifying_key, sha256_hex, verify_artifact, verify_detached,\n 240|    verify_metadata, verify_signature, verify_update_set_artifact, verify_update_set_metadata,\n 241|    RejectReason,\n 242|    ReleaseMetadata, SignedRelease, SignedUpdateSet, UpdateArtifactMetadata, UpdateSetMetadata,\n## linkhost.rs\n 14|//! Same posture as remote rest/attach: the [`access_check`] whitelist on the\n*15|//! **handshake-proven** origin node (ADR-0009; REQ-HAZARD-WAN-ORIGIN-AUTH —\n 16|//! never a payload field), subject = the wire-named owner. A refusal sends no\n 17|//! reply. Owner exclusivity then holds structurally: the action resolves only\n 18|//! inside that owner's own shell tree — a foreign owner's ref is NO_SHELL,\n...\n 440|/// Serve one shell-link stream against this node, blocking until the single\n*441|/// request runs (or refuses). `origin_node` MUST be the handshake-proven\n 442|/// remote id from the broker's stream table — never payload bytes\n 443|/// (REQ-HAZARD-WAN-ORIGIN-AUTH). The gate subject is the wire-named owner\n 444|/// (the xfer posture: the wire picks whose whitelist, the origin it is\n## livehost.rs\n 124|            let _ = h.thread.join();\n*125|            // F-030 W3: nothing detached to reap — the per-event psyche driver spawns\n 126|            // no resident child, so joining the driver thread + de-tabling above is the\n 127|            // whole un-host (the resident-psyche handle-reap + orphan-reap retired with\n 128|            // the residency machinery). Un-hosting a genuinely-offline endpoint is legit.\n## msg.rs\n 4|//! Split out from [`crate::frame`] (which owns the *envelope mechanics* and the\n*5|//! version handshake) so the message *vocabulary* can grow additively without\n 6|//! touching the wire-compat machinery. Every payload is a plain serde struct\n 7|//! with serde's default unknown-field tolerance, so a newer brain may add a\n 8|//! field and an older broker still decodes the message (KNOWN-HAZARDS 2.3).\n...\n 112|/// `op_id` the dial is exactly-once (journaled like an idempotent `input`).\n*113|pub const KIND_NET_DIAL: &str = \"net-dial\";\n 114|/// Brain→broker: mint (or reuse) the broker's single in-process loopback\n 115|/// connection (M12 W1.5, B1) — the transport a LOCAL `spt rc` rides because QUIC\n 116|/// self-dial is refused by iroh. An explicit verb (NOT a sentinel addr on\n*117|/// [`KIND_NET_DIAL`]): loopback handling stays isolated from the dial hot path.\n 118|/// Null payload (the singleton is idempotent by reuse — no op id, no addr).\n*119|/// Answered with a [`KIND_NET_DIALED`] whose `remote_id_hex` is THIS node's own id.\n*120|pub const KIND_NET_DIAL_LOOPBACK: &str = \"net-dial-loopback\";\n 121|/// Broker→brain: a dial durably landed — fresh or deduped (`applied_now`\n 122|/// distinguishes, mirroring [`KIND_APPLIED`]). Carries the broker-minted conn id.\n*123|pub const KIND_NET_DIALED: &str = \"net-dialed\";\n 124|/// Brain→broker: open a bidi QUIC stream on a held connection (D4b). With an\n 125|/// `op_id` the open is exactly-once (journaled like a dial).\n 126|pub const KIND_NET_STREAM_OPEN: &str = \"net-stream-open\";\n...\n 156|/// dial. Payload = the existing [`NetDialReq`] (addr + op_id + minter). The\n*157|/// broker acks immediately ([`KIND_NET_DIAL_SUBMITTED`]) and dials CONCURRENTLY\n 158|/// on its runtime under W1's per-dial bound; the OUTCOME rides the presence\n*159|/// stream ([`PRESENCE_CONNECTED`] on success, [`PRESENCE_DIAL_FAILED`] on\n*160|/// failure) — never a blocking reply. Contrast [`KIND_NET_DIAL`] (blocking\n 161|/// request-reply, kept for its other callers: shellwake, pairing, rc).\n 162|// [impl->REQ-PUMP-PEER-ISOLATION]\n*163|pub const KIND_NET_DIAL_SUBMIT: &str = \"net-dial-submit\";\n*164|/// Broker→brain (PUMP-TRUTH W2): the immediate ack that a [`KIND_NET_DIAL_SUBMIT`]\n 165|/// was accepted and the concurrent dial spawned. Bare ack (null payload) — the\n 166|/// dial's real outcome rides the presence stream, not this frame.\n 167|// [impl->REQ-PUMP-PEER-ISOLATION]\n*168|pub const KIND_NET_DIAL_SUBMITTED: &str = \"net-dial-submitted\";\n 169|\n 170|/// [`NetPresenceEvent::kind`]: a connection joined the broker's conn table.\n 171|pub const PRESENCE_CONNECTED: &str = \"connected\";\n...\n 174|/// [`NetPresenceEvent::kind`] (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION): a\n*175|/// NON-BLOCKING dial submitted via [`KIND_NET_DIAL_SUBMIT`] failed to connect.\n 176|/// The outcome-channel for a fire-and-forget dial (its success rides\n 177|/// [`PRESENCE_CONNECTED`] as today). Carries no live connection → `conn_id: 0`\n 178|/// sentinel; consumers correlate a fail by `kind` + `remote_id_hex`, NEVER\n...\n 181|// [impl->REQ-PUMP-PEER-ISOLATION]\n*182|pub const PRESENCE_DIAL_FAILED: &str = \"dial-failed\";\n 183|\n 184|/// Brain→broker: run the joiner leg of the subnet pairing ceremony (M7 D3,\n 185|/// REQ-SUBNET-2). The ceremony must run broker-side: it dials via the\n...\n 190|\n*191|/// Brain→broker: phase 1 of the two-phase join (REQ-JOIN-TWO-PHASE) — MEET a\n 192|/// seed-holder for the named subnet (no code). The daemon resolves and holds the\n*193|/// member's real pairing address, replying [`KIND_MET_MEMBER`].\n*194|pub const KIND_PAIR_MEET: &str = \"pair-meet\";\n 195|/// Broker→brain: a seed-holder was met — its real address is held under a\n 196|/// session id, awaiting the code ([`KIND_PAIR_CODE_SUBMIT`]).\n*197|pub const KIND_MET_MEMBER: &str = \"met-member\";\n 198|/// Brain→broker: phase 2 of the two-phase join — submit the code for a held\n 199|/// meet session. The daemon dials the HELD address (no re-search) and runs the\n 200|/// SPAKE2 ceremony, replying [`KIND_PAIR_JOINED`]. A wrong-code retry re-submits\n...\n 344|    /// The identity attaching: `Some(node)` = a remote operator (the\n*345|    /// handshake-proven origin), `None` = local (the daemon brain's own\n 346|    /// spawn-reader / resume). The broker keys controller identity on this:\n 347|    /// a same-`by` re-subscribe silently re-takes the controller (no\n 348|    /// `Displaced`); a `None` (local) re-attach NEVER displaces a remote\n...\n 669|    /// The remote node's stable name (lowercase-hex pubkey), proven by the QUIC\n*670|    /// handshake (the EndpointId *is* the key).\n 671|    pub remote_id_hex: String,\n 672|    /// Echoes the request's durable op id, when one was carried.\n 673|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n\nShowing files 1-20 of 61+. Use skip=20 for the next page, or narrow paths/pattern."}],"details":{"scopePath":"spt-core/crates/spt-daemon/src, spt-core/crates/spt-net/src","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":149,"fileCount":20,"files":["spt-core/crates/spt-daemon/src/access.rs","spt-core/crates/spt-daemon/src/attach.rs","spt-core/crates/spt-daemon/src/brain.rs","spt-core/crates/spt-daemon/src/brainproc.rs","spt-core/crates/spt-daemon/src/broker.rs","spt-core/crates/spt-daemon/src/config.rs","spt-core/crates/spt-daemon/src/conn.rs","spt-core/crates/spt-daemon/src/daemon.rs","spt-core/crates/spt-daemon/src/deelevate.rs","spt-core/crates/spt-daemon/src/digesthub.rs","spt-core/crates/spt-daemon/src/dispatch.rs","spt-core/crates/spt-daemon/src/drivehub.rs","spt-core/crates/spt-daemon/src/effect.rs","spt-core/crates/spt-daemon/src/endpoint.rs","spt-core/crates/spt-daemon/src/frame.rs","spt-core/crates/spt-daemon/src/harnesshost.rs","spt-core/crates/spt-daemon/src/lib.rs","spt-core/crates/spt-daemon/src/linkhost.rs","spt-core/crates/spt-daemon/src/livehost.rs","spt-core/crates/spt-daemon/src/msg.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/access.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/attach.rs","count":5},{"path":"spt-core/crates/spt-daemon/src/brain.rs","count":20},{"path":"spt-core/crates/spt-daemon/src/brainproc.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/broker.rs","count":20},{"path":"spt-core/crates/spt-daemon/src/config.rs","count":18},{"path":"spt-core/crates/spt-daemon/src/conn.rs","count":7},{"path":"spt-core/crates/spt-daemon/src/daemon.rs","count":20},{"path":"spt-core/crates/spt-daemon/src/deelevate.rs","count":7},{"path":"spt-core/crates/spt-daemon/src/digesthub.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/dispatch.rs","count":6},{"path":"spt-core/crates/spt-daemon/src/drivehub.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/effect.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/endpoint.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/frame.rs","count":7},{"path":"spt-core/crates/spt-daemon/src/harnesshost.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/lib.rs","count":3},{"path":"spt-core/crates/spt-daemon/src/linkhost.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/livehost.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/msg.rs","count":20}],"truncated":true,"fileLimitReached":20,"perFileLimitReached":20,"displayContent":"# spt-core/crates/spt-daemon/src/\n## access.rs\n 15│//!   endpoint's identity or home. The subject value MUST be the QUIC\n*16│//!   handshake-proven remote node id from the broker's conn/stream table,\n 17│//!   never a payload field (REQ-HAZARD-WAN-ORIGIN-AUTH).\n 18│//! - **Outbound** → any visible node: the whitelist never restricts who an\n 19│//!   endpoint talks *to*.\n   │...\n 81│/// The ADR-0009 access-whitelist gate for one wire-inbound interaction against\n*82│/// `endpoint`, originating from handshake-proven `origin_node`.\n 83│///\n 84│/// Decision order: same-node short-circuit → store lookup (absent = open) →\n 85│/// class split (reply exempt, unsolicited gated on the node list).\n## attach.rs\n  31│//! is served: the [`AttachRecord::Request`] is *unsolicited wire inbound*, so\n *32│//! [`access_check`] sees the **handshake-proven** origin from the broker's\n  33│//! stream table — never payload bytes (KNOWN-HAZARDS 7.5). Remote-drive of\n  34│//! your own running instance is ungated by default (ADR-0009 default-open);\n  35│//! the D5d whitelist drops in at this same call.\n    │...\n  76│    Exited(Option<i32>),\n *77│    /// The operator closed its send side (detached); the viewport ended with\n  78│    /// the session still running.\n  79│    Detached,\n  80│    /// This controller was DISPLACED by a different operator's `--take`/`kick`\n    │...\n 214│///\n*215│/// `origin_node` MUST be the handshake-proven remote id from the broker's\n 216│/// stream table (`NetStreamInfo::remote_id_hex`) — never payload bytes\n 217│/// (REQ-HAZARD-WAN-ORIGIN-AUTH). `endpoint` names the endpoint whose session\n 218│/// is being attached, for the gate. `net_from_seq` is this brain's resume\n    │...\n 362│                            // resolves controller / viewer / busy / take by the\n*363│                            // intent + this handshake-proven origin, and replies a\n 364│                            // `Subscribed`. driven_by / viewer_count are now\n 365│                            // BROKER-owned (single writer — resolves the\n 366│                            // clear-race), so this loop no longer stamps them.\n    │...\n 502│                if role == Some(ServeRole::Controller) {\n*503│                    // The driver detached — the endpoint rests warm (controller-\n 504│                    // only; a viewer leaving is wake-neutral).\n 505│                    feed_rest(endpoint, crate::resting::RestEvent::Detach);\n 506│                }\n## brain.rs\n   46│    KIND_ADAPTER_APPLY, KIND_APPLIED, KIND_BRAIN_RESTART, KIND_BROKER_IMAGE, KIND_BROKER_IMAGE_REPLY, KIND_STALL_EVICTS, KIND_STALL_EVICTS_REPLY, KIND_VIEWER_EVICTED,\n  *47│    KIND_BRAIN_RESTARTED, KIND_DISPLACED, KIND_ENDPOINT_INJECTED, KIND_ENDPOINT_INPUT, KIND_ERROR, KIND_EXIT, KIND_INPUT, KIND_KILL, KIND_NET_DIAL,\n  *48│    KIND_NET_DIALED, KIND_NET_DIAL_LOOPBACK, KIND_NET_DIAL_SUBMIT, KIND_NET_DIAL_SUBMITTED,\n   49│    KIND_NET_PRESENCE_EVENT, KIND_NET_PRESENCE_SUBSCRIBE,\n   50│    KIND_NET_SENT,\n   51│    KIND_NET_STATUS, KIND_NET_STATUS_REPLY, KIND_NET_STREAMS, KIND_NET_STREAMS_REPLY,\n   52│    KIND_NET_STREAM_DATA, KIND_NET_STREAM_EOF, KIND_NET_STREAM_OPEN, KIND_NET_STREAM_OPENED,\n  *53│    KIND_MET_MEMBER, KIND_NET_STREAM_SEND, KIND_NET_STREAM_SUBSCRIBE, KIND_OUTPUT, KIND_PAIR_CODE_SUBMIT, KIND_PAIR_JOIN, KIND_PAIR_JOINED, KIND_PAIR_MEET,\n   54│    KIND_RESIZE, KIND_SESSIONS, KIND_SESSIONS_REPLY, KIND_SIZE, KIND_SPAWN, KIND_SPAWNED,\n   55│    KIND_SUBSCRIBE, KIND_SUBSCRIBED, KIND_UNSUBSCRIBE, UnsubscribeReq,\n   56│};\n     │...\n  176│\n *177│/// The outcome of the two-phase join's MEET phase ([`Brain::pair_meet`],\n  178│/// REQ-JOIN-TWO-PHASE): a member was found (its real address is held under the\n  179│/// session id), or the meet failed before any code was needed (rendered for the\n  180│/// operator without ever prompting for a code).\n     │...\n  215│        frames: Receiver<io::Result<Envelope>>,\n *216│        /// The reader-thread handle — held so the thread is owned, not detached\n  217│        /// silently. On a supervised restart the whole [`Brain`] drops; this\n  218│        /// handle drops with it (the thread, blocked in `read_frame`, is\n  219│        /// abandoned and exits when the old conn closes — KH 7.6).\n     │...\n  224│impl BrainConn {\n *225│    /// Split a connected+handshaked stream into the pump carrier: spawn the\n  226│    /// `pump-ipc-reader` thread (blocking [`read_frame`] → channel) and keep the\n  227│    /// [`SendHalf`] for writes. The reader logs spawn/exit so a leaked (parked)\n  228│    /// reader is diagnosable in the field (KH 7.6).\n     │...\n  235│            .spawn(move || {\n *236│                eprintln!(\"PUMP_IPC_READER: spawned\");\n  237│                loop {\n  238│                    let framed = read_frame(&mut recv);\n  239│                    let was_err = framed.is_err();\n     │...\n  250│                }\n *251│                eprintln!(\"PUMP_IPC_READER: exited\");\n  252│            })\n  253│            .expect(\"spawn pump-ipc-reader thread\");\n  254│        BrainConn::Split {\n     │...\n  315│impl Brain {\n *316│    /// Cold start: connect, handshake, fresh generation 0, `gen_start = now`.\n  317│    /// The ordinary blocking carrier ([`BrainConn::Whole`]) — every client\n  318│    /// except the peer pump, which uses [`Brain::cold_start_pump`].\n  319│    pub fn cold_start(name: &str, now_ms: u64) -> io::Result<Self> {\n     │...\n  335│\n *336│    /// Cold start in **PUMP mode**: connect, handshake, then SPLIT the stream\n  337│    /// into the reader-thread carrier ([`BrainConn::Split`]) and arm a per-IPC-\n  338│    /// call deadline of `io_timeout`. This is the peer pump's dedicated client —\n  339│    /// every reply read is bounded ([`Brain::read_event_until`] via\n     │...\n  362│\n *363│    /// Handoff: connect, handshake, rehydrate the resume cursor + generation\n  364│    /// from `prior`, but stamp `gen_start = now()` (NOT `prior.gen_start_ms` —\n  365│    /// the 2.4 invariant), and re-subscribe to the session from the cursor for a\n  366│    /// gapless resume.\n     │...\n  618│    /// (unbounded), same as `call_deadline`.\n *619│    // [impl->REQ-PUMP-DIAL-FASTFAIL]\n  620│    pub fn reply_read_deadline(&self) -> Option<Instant> {\n  621│        peer_reply_deadline(self.io_timeout, Instant::now())\n  622│    }\n     │...\n  767│                }\n *768│                KIND_NET_DIALED => {\n  769│                    let ev: NetDialed = serde_json::from_value(env.payload)\n  770│                        .map_err(|e| io::Error::new(io::ErrorKind::InvalidData, e))?;\n  771│                    return Ok(BrokerEvent::NetDialed(ev));\n     │...\n  775│                // [impl->REQ-PUMP-PEER-ISOLATION]\n *776│                KIND_NET_DIAL_SUBMITTED => return Ok(BrokerEvent::NetDialSubmitted),\n  777│                KIND_NET_STREAM_OPENED => {\n  778│                    let ev: NetStreamOpened = serde_json::from_value(env.payload)\n  779│                        .map_err(|e| io::Error::new(io::ErrorKind::InvalidData, e))?;\n     │...\n  801│                }\n *802│                KIND_MET_MEMBER => {\n  803│                    let ev: MetMember = serde_json::from_value(env.payload)\n  804│                        .map_err(|e| io::Error::new(io::ErrorKind::InvalidData, e))?;\n  805│                    return Ok(BrokerEvent::MetMember(ev));\n     │...\n  887│    /// cannot happen on the still-ordered brain-IPC channel.\n *888│    // [impl->REQ-PUMP-DIAL-FASTFAIL]\n  889│    pub fn read_peer_reply_until(&mut self, deadline: Option<Instant>) -> io::Result<BrokerEvent> {\n  890│        self.read_event_until(deadline)\n  891│            .map_err(reclassify_peer_reply_err)\n     │...\n  915│    /// role-aware subscribe with `intent` + the operator identity `by` (the\n *916│    /// handshake-proven origin for a remote attach). The broker resolves the role\n  917│    /// and replies a [`BrokerEvent::Subscribed`] the caller (a [`serve_attach`]\n  918│    /// loop) reads to learn whether it became controller / viewer / was refused.\n  919│    /// Like [`Brain::attach`] this is a second reader, not a logic handoff (the\n     │...\n 1235│\n*1236│    /// Phase 1 of the two-phase join (REQ-JOIN-TWO-PHASE): MEET a seed-holder for\n 1237│    /// `subnet` — no code. The daemon resolves and holds the member's real\n 1238│    /// address; the reply is either a [`MetMember`] (proceed to the code) or a\n 1239│    /// classified failure ([`MetOutcome::Failed`]) surfaced before any code\n     │...\n 1244│        self.send(\n*1245│            KIND_PAIR_MEET,\n 1246│            serde_json::to_value(PairMeetReq {\n 1247│                subnet: subnet.to_string(),\n 1248│                verbose,\n     │...\n 1296│        self.send(\n*1297│            KIND_NET_DIAL,\n 1298│            serde_json::to_value(NetDialReq {\n 1299│                addr,\n 1300│                op_id: op.map(|o| o.seq),\n## brainproc.rs\n  160│    // Persist this brain generation's stderr to the rotating SPT_HOME/logs sink\n *161│    // (REQ-DAEMON-STDERR-PERSIST) — a detached brain's stdio is /dev/null, so every\n  162│    // diagnostic below would otherwise vanish (the incident-night RCA-blind gap). Runs\n  163│    // FIRST so even the BRAIN_UP line and a connect failure are captured. Best-effort.\n  164│    // [impl->REQ-DAEMON-STDERR-PERSIST]\n     │...\n  986│/// Spawn the production brain child: re-exec `daemon brain` as a plain\n *987│/// (non-detached) managed child, so it inherits the broker's environment —\n *988│/// including `SPT_HOME` — and dies with no orphaning. NOT `spawn_detached`\n  989│/// (that path rebuilds the Windows env block and would drop `SPT_HOME`). The\n  990│/// broker stamps `{generation, start-reason}` onto the argv (ADR-0018 V2).\n  991│///\n     │...\n 1043│    // OWN process group so the daemon can reap the brain + everything it spawns\n*1044│    // (the shellwake watchers, the detached Psyches — all inherit this group) as\n 1045│    // one unit on stop, without signalling the daemon itself. Windows roots the\n 1046│    // reap on a Job object instead (assigned in the supervisor via BrainReaper).\n 1047│    #[cfg(unix)]\n## broker.rs\n   60│    Spawned, SubscribeOutcome, SubscribeReq, UnsubscribeReq, KIND_BRAIN_RESTART, KIND_BRAIN_RESTARTED, KIND_ENDPOINT_INPUT, KIND_ERROR, KIND_EXIT,\n  *61│    KIND_INPUT, KIND_KILL, KIND_NET_DIAL, KIND_NET_DIAL_LOOPBACK, KIND_NET_DIAL_SUBMIT,\n  *62│    KIND_NET_DIAL_SUBMITTED, KIND_NET_PRESENCE_SUBSCRIBE,\n   63│    KIND_NET_SENT,\n   64│    KIND_ADAPTER_APPLY, KIND_APPLIED,\n   65│    KIND_BROKER_IMAGE, KIND_BROKER_IMAGE_REPLY, KIND_STALL_EVICTS, KIND_STALL_EVICTS_REPLY,\n     │...\n   67│    KIND_NET_STREAM_OPEN, KIND_NET_STREAM_OPENED, KIND_NET_STREAM_SEND, KIND_NET_STREAM_SUBSCRIBE,\n  *68│    KIND_MET_MEMBER, KIND_PAIR_CODE_SUBMIT, KIND_PAIR_JOIN, KIND_PAIR_JOINED, KIND_PAIR_MEET, KIND_RESIZE, KIND_SESSIONS, KIND_SESSIONS_REPLY, KIND_SPAWN,\n   69│    KIND_SPAWNED, KIND_SUBSCRIBE, KIND_UNSUBSCRIBE,\n   70│};\n   71│use crate::nethost::{NetHost, NET_EFFECT_SESSION};\n     │...\n  141│/// that stays full for [`CONTROLLER_WRITE_DEADLINE`] (tracked via\n *142│/// [`ControllerSink::last_ok`]) is detached. Generous so a momentary slow consumer\n  143│/// never trips the deadline.\n  144│const CONTROLLER_CHANNEL_DEPTH: usize = 4096;\n  145│\n     │...\n  582│    /// load-bearing for at-least-once output: advancing past a *failed* write to a\n *583│    /// dying-but-not-yet-detached controller would make resume skip that chunk\n  584│    /// forever (at-least-once → at-most-once); decreasing on a deliberate\n  585│    /// `attach(sub, 0)` rewind-replay would reset the resume point under a live\n  586│    /// reader.\n     │...\n 1073│            \"BRAIN_SUBSCRIBER_STALL_EVICT:{} conn={conn} {} — controller writer blocked > {}ms \\\n*1074│             on a suspended/black-holed brain conn; detached, driven_by released \\\n 1075│             [REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE]\",\n 1076│            self.session_id,\n 1077│            crate::conn::log_stamp(),\n     │...\n 2548│    /// `session_id → (subnet, real address, 5-min deadline)` between\n*2549│    /// [`KIND_PAIR_MEET`] and [`KIND_PAIR_CODE_SUBMIT`]. The code phase dials the\n 2550│    /// held address (no re-search); a wrong-code retry keeps the entry. Pairing\n 2551│    /// is never journaled (the code must not persist) — in-memory only, and a\n 2552│    /// daemon restart simply makes the operator re-run the meet.\n     │...\n 2975│\n*2976│    /// Drive one brain connection: handshake, then dispatch its command frames\n 2977│    /// until it disconnects. On disconnect, detach this connection from any\n 2978│    /// sessions it subscribed to — the sessions themselves persist (B2: a brain\n 2979│    /// restart must not disturb the hosted children).\n     │...\n 3002│\n*3003│        // Version handshake: this connection must be a brain (2.3).\n 3004│        recv_hello(&mut recv, Role::Brain)?;\n 3005│\n 3006│        let mut my_subs: Vec<u64> = Vec::new();\n     │...\n 3054│                KIND_STALL_EVICTS => self.dispatch_stall_evicts(&send),\n*3055│                KIND_NET_DIAL => {\n 3056│                    if let Err(msg) = self.dispatch_net_dial(env, &send) {\n 3057│                        send_error(&send, &msg);\n 3058│                    }\n 3059│                }\n*3060│                KIND_NET_DIAL_LOOPBACK => {\n 3061│                    if let Err(msg) = self.dispatch_net_dial_loopback(&send) {\n 3062│                        send_error(&send, &msg);\n 3063│                    }\n     │...\n 3065│                // [impl->REQ-PUMP-PEER-ISOLATION]\n*3066│                KIND_NET_DIAL_SUBMIT => {\n 3067│                    if let Err(msg) = self.dispatch_net_dial_submit(env, &send) {\n 3068│                        send_error(&send, &msg);\n 3069│                    }\n     │...\n 3075│                }\n*3076│                KIND_PAIR_MEET => {\n 3077│                    if let Err(msg) = self.dispatch_pair_meet(env, &send) {\n 3078│                        send_error(&send, &msg);\n 3079│                    }\n     │...\n 3338│        // longer inline under the log lock, so a backed-up controller can never\n*3339│        // wedge the session; a fully-stalled controller is detached after the\n 3340│        // deadline (bounded wedge, never permanent).\n 3341│        let log_drain = Arc::clone(&log);\n 3342│        let drain = session\n     │...\n 3946│                    })\n*3947│                    .map_err(|e| format!(\"net-dial failed: {e}\"))?;\n 3948│                // Frozen wire-compat text, single-sourced from the shared marker so\n 3949│                // the A-4b retry matches one source of truth (ADR-0034 Addendum 2).\n 3950│                let conn_id = host\n     │...\n 3971│    /// ack RIGHT AWAY. The dial's real outcome rides the presence stream\n*3972│    /// (CONNECTED / DIAL_FAILED), never this reply — so one dead peer can neither\n 3973│    /// block the caller nor poison the round. The pump submits with `op_id: None`\n 3974│    /// (its dials are non-journaled today), so this path does not journal; the\n 3975│    /// blocking [`Self::dispatch_net_dial`] keeps the exactly-once op path for its\n     │...\n 3989│        // On a successful connect `register_conn` re-derives the SAME hex from the\n*3990│        // proven pubkey; on failure `submit_dial` tags DIAL_FAILED with it — so an\n 3991│        // outcome always matches the peer the pump submitted for.\n 3992│        let remote_id_hex = spt_proto::identity::PublicKey::from_bytes(addr.id.as_bytes())\n 3993│            .map_err(|e| format!(\"bad net-dial-submit addr id: {e}\"))?\n     │...\n 3996│        // Immediate bare ack — the dial spawned; its outcome is a presence event.\n*3997│        send_frame(send, &Envelope::new(KIND_NET_DIAL_SUBMITTED, serde_json::Value::Null));\n 3998│        Ok(())\n 3999│    }\n 4000│\n     │...\n 4063│\n*4064│    /// Phase 1 of the two-phase join (REQ-JOIN-TWO-PHASE): MEET a seed-holder for\n 4065│    /// the named subnet — resolve its real, stable pairing address via the\n 4066│    /// rendezvous (PUBLIC `(name, epoch)`, no code) — and HOLD it under a fresh\n*4067│    /// session id, bounded by [`PAIR_CODE_WAIT`]. Replies [`KIND_MET_MEMBER`] so\n 4068│    /// the CLI can collect the code, fresh, against a found member. Expired holds\n 4069│    /// from abandoned earlier attempts are swept here (no separate reaper — pairing\n 4070│    /// is rare and the map is tiny).\n## config.rs\n  38│/// driver, so a missed tick costs only latency, never correctness.\n *39│pub const DEFAULT_REGISTRY_PUMP_PERIOD: Duration = Duration::from_secs(30);\n *40│pub const DEFAULT_NOTIF_PUMP_PERIOD: Duration = Duration::from_secs(15);\n  41│pub const DEFAULT_SYNC_PULL_PERIOD: Duration = Duration::from_secs(60);\n  42│pub const DEFAULT_UPDATE_CHECK_PERIOD: Duration = Duration::from_secs(3_600);\n  43│\n    │...\n 118│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n*119│    detached_subnets: Option<Vec<String>>,\n 120│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n 121│    worker_reap_ttl_secs: Option<u64>,\n 122│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    │...\n 176│    pub resources_blurb: Option<String>,\n*177│    /// Subnets whose serve-state STARTS detached (M8 decision 6,\n 178│    /// REQ-SUBNET-5): the daemon's boot reset seeds the live\n 179│    /// `attachment.json` from this list — `spt subnet detach/attach --save`\n 180│    /// writes it. Default empty = every held subnet starts attached.\n*181│    pub detached_subnets: Vec<String>,\n 182│    /// The worker-reap TTL floor (seconds since a worker's `started`), W-3\n 183│    /// (REQ-WORKER-REAP): the reconcile GC reaps any worker older than this even\n 184│    /// under a live parent with a stale `ready` marker (the `SubagentStop`-never-fired\n    │...\n 204│            peer_pump: true,         // the subnet self-drives (D9-1)\n*205│            registry_pump_period: DEFAULT_REGISTRY_PUMP_PERIOD,\n 206│            registry_evict_after: DEFAULT_REGISTRY_EVICT_AFTER,\n*207│            notif_pump_period: DEFAULT_NOTIF_PUMP_PERIOD,\n 208│            sync_pull_period: DEFAULT_SYNC_PULL_PERIOD,\n 209│            update_check_period: DEFAULT_UPDATE_CHECK_PERIOD,\n 210│            auto_suspend_after_ms: None, // opt-in, default OFF (REQ-INST-3)\n 211│            resources_blurb: None,       // endpoints author their own (REQ-INST-14)\n*212│            detached_subnets: Vec::new(), // every held subnet starts attached (REQ-SUBNET-5)\n 213│            worker_reap_ttl_secs: spt_store::worker_reap::DEFAULT_REAP_TTL_SECS, // 24h (W-3)\n 214│            startup_endpoints: Vec::new(), // nothing auto-starts by default (REQ-ENDPOINT-AUTOSTART)\n 215│        }\n    │...\n 285│            resources_blurb: file.resources_blurb,\n*286│            detached_subnets: file.detached_subnets.unwrap_or_default(),\n 287│            worker_reap_ttl_secs: file.worker_reap_ttl_secs.unwrap_or(d.worker_reap_ttl_secs),\n 288│            startup_endpoints: file.startup_endpoints.unwrap_or_default(),\n 289│        }\n    │...\n 313│            resources_blurb: self.resources_blurb.clone(),\n*314│            detached_subnets: Some(self.detached_subnets.clone()),\n 315│            worker_reap_ttl_secs: Some(self.worker_reap_ttl_secs),\n 316│            startup_endpoints: Some(self.startup_endpoints.clone()),\n 317│        };\n    │...\n 398│            resources_blurb: Some(\"node default services\".to_string()),\n*399│            detached_subnets: vec![\"work\".to_string()],\n 400│            worker_reap_ttl_secs: 7_200,\n 401│            startup_endpoints: vec![\n 402│                StartupEndpoint {\n    │...\n 420│    #[test]\n*421│    fn detached_subnets_knob_defaults_empty() {\n*422│        assert!(DaemonConfig::default().detached_subnets.is_empty());\n 423│\n 424│        let dir = tempfile::tempdir().unwrap();\n 425│        let path = dir.path().join(\"daemon.json\");\n*426│        std::fs::write(&path, r#\"{\"detached_subnets\": [\"work\"]}\"#).unwrap();\n 427│        assert_eq!(\n*428│            DaemonConfig::load_from(&path).detached_subnets,\n 429│            vec![\"work\".to_string()]\n 430│        );\n 431│        // An absent file keeps the all-attached default.\n 432│        assert!(DaemonConfig::load_from(&dir.path().join(\"nope.json\"))\n*433│            .detached_subnets\n 434│            .is_empty());\n 435│    }\n 436│\n    │...\n 590│                pulse_period: Duration::from_millis(1234),\n*591│                detached_subnets: vec![\"work\".to_string()],\n 592│                ..DaemonConfig::default()\n 593│            };\n 594│            seeded.save_to(&DaemonConfig::default_path()).unwrap();\n    │...\n 609│            assert_eq!(cfg.pulse_period, Duration::from_millis(1234));\n*610│            assert_eq!(cfg.detached_subnets, vec![\"work\".to_string()]);\n 611│\n 612│            // Same id, different adapter+cwd → replaced in place, returns true.\n 613│            let replaced = DaemonConfig::upsert_startup_endpoint(StartupEndpoint {\n## conn.rs\n  45│//! completion (`write_frame` returns only after the completion APC — the\n *46│//! synchronous return IS the completion handshake); (4) the retired half is\n  47│//! parked in a graveyard slot — never dropped while the watchdog might still\n  48│//! touch the raw handle (drop = `CloseHandle`, and a recycled handle value\n  49│//! must never see a late `CancelIoEx`), and never re-gated; (5) on Windows the\n    │...\n 238│    /// abort, retire, never reuse.\n*239│    // [impl->REQ-CONN-POISON-DIAL-SCOPE]\n 240│    fn render_retirement(&self, timed_out: bool, cause: Option<&io::Error>) -> String {\n 241│        if timed_out {\n 242│            format!(\n    │...\n 257│                 as POISONED — only the failure class differs) \\\n*258│                 [REQ-CONN-POISON-DIAL-SCOPE]\",\n 259│                self.attribution()\n 260│            )\n 261│        }\n    │...\n 341│    /// completion (the writer clears `inflight` the instant `write_frame`\n*342│    /// returns — that return IS the buffer-release handshake), then sever.\n 343│    fn watchdog(&self) {\n 344│        let mut d = recover(&self.dog);\n 345│        loop {\n    │...\n 561│\n*562│        // Completion handshake: `write_frame` has returned, so the OS op —\n 563│        // canceled or not — reported completion and the frame buffer is\n 564│        // released. Clear the arm BEFORE deciding health, so the watchdog\n 565│        // never severs while the op is formally in flight.\n    │...\n 706│\n*707│    // [unit->REQ-CONN-POISON-DIAL-SCOPE] the F-039 leg-(a) token split: the loud\n 708│    // CONN_WRITE_POISONED token is RESERVED for the deadline (timed_out) class;\n 709│    // an organic write failure renders the distinct CONN_WRITE_RETIRED token\n 710│    // carrying the error kind — and (doyle amendment 1) the SAME attribution\n    │...\n 752│\n*753│    // [unit->REQ-CONN-POISON-DIAL-SCOPE] behavior is UNCHANGED by the token\n 754│    // split (the REQ-HAZARD-SHAREDSEND invariant): an organic fast-fail still\n 755│    // poisons + retires the conn — it is only the CLASS that differs (the error\n 756│    // surfaces with its own kind, never TimedOut, and the next write refuses).\n## daemon.rs\n   9│//! invocation calls it; if no daemon answers the seed-control ping it spawns\n *10│//! `spt daemon` detached and waits (bounded) for it to come up. The reliable\n  11│//! anchor is the seed channel — bound for the whole daemon lifetime, so a ping\n  12│//! against it is a true liveness test (`listen` is the interim model's anchor;\n  13│//! here the seed channel plays that role for cold-start detection).\n    │...\n  92│                &exe.to_string_lossy(),\n *93│                // --detached BELT (REQ-HAZARD-DETACHED-DAEMON-STDIO): the respawned\n  94│                // unelevated daemon then runs detach_console + the null-handles guard,\n  95│                // so it never keeps live inherited stdio (matches every other rung).\n *96│                &[\"daemon\".to_string(), \"run\".to_string(), \"--detached\".to_string()],\n  97│            ) {\n  98│                Ok(Some(pid)) => {\n  99│                    eprintln!(\n    │...\n 144│            let att = spt_store::attachment::AttachmentStore::reset_to(\n*145│                &DaemonConfig::load().detached_subnets,\n 146│            );\n 147│            if let Err(e) = att.save() {\n 148│                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n 149│            }\n*150│            for name in &att.detached {\n 151│                // Plain prose (no Markdown markers): spt-daemon can't import the\n 152│                // bin-local helpfmt renderer, so this one source string is authored\n 153│                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\n    │...\n 168│        // Identity (the durable node.key) decides node_hex independently of the\n*169│        // net bring-up: a NET_BIND_FAIL (e.g. the autostart beat the network up\n 170│        // at boot — REQ-DAEMON-9) is transient and retried, but a broken\n 171│        // identity is not, so we only arm the retry when identity is sound.\n 172│        let node_hex: Option<String> = spt_store::nodeid::load_or_create()\n    │...\n 303│        // graceful-stop path below. The brain subtree (the brain + its shellwake\n*304│        // watchers + its detached Psyches) reaps as one unit; the daemon itself is\n 305│        // never in the container.\n 306│        // [impl->REQ-HAZARD-DAEMON-STOP-REAP]\n 307│        let reaper = crate::reap::BrainReaper::new();\n    │...\n 338│        // does not respawn the brain we are about to kill) THEN reap the brain\n*339│        // subtree — the brain, its shellwake watchers, and its detached Psyches die\n 340│        // with the daemon instead of orphaning as ~8 stray claude-spt-psyche.exe /\n 341│        // spt.exe. The daemon is not in the reap container, so this never\n 342│        // self-terminates: it returns cleanly below.\n    │...\n 376│/// endpoint, wiring on-connect roster propagation (REQ-MESH-2). `None` on a\n*377│/// `NET_BIND_FAIL` (e.g. the network/DNS stack not ready yet) or a missing\n 378│/// identity — the caller binds net-less and (REQ-DAEMON-9) retries.\n 379│// [impl->REQ-DAEMON-2]\n 380│// [impl->REQ-DAEMON-9]\n    │...\n 402│        Err(e) => {\n*403│            eprintln!(\"NET_BIND_FAIL: {e} — broker runs net-less\");\n 404│            None\n 405│        }\n 406│    }\n    │...\n 409│/// Background net self-heal supervisor (REQ-DAEMON-9): a daemon that came up\n*410│/// net-less (NET_BIND_FAIL at boot — typically the autostart racing the network\n 411│/// up) keeps retrying `try_start_net` with capped backoff and, on success,\n 412│/// ATTACHES the host to the live broker (`OnceLock`, so exactly once). The node\n 413│/// becomes reachable without a manual restart. Runs until net binds — the\n    │...\n 418│fn net_retry_attach(broker: Arc<Broker>) {\n*419│    let mut backoff = NET_RETRY_FIRST;\n 420│    loop {\n 421│        thread::sleep(backoff);\n 422│        if let Some(host) = try_start_net() {\n    │...\n 432│\n*433│const NET_RETRY_FIRST: Duration = Duration::from_secs(1);\n*434│const NET_RETRY_CAP: Duration = Duration::from_secs(30);\n 435│\n 436│/// The net self-heal backoff ladder (REQ-DAEMON-9): double each retry, capped\n*437│/// at [`NET_RETRY_CAP`]. Pure for tests.\n 438│fn net_retry_backoff(cur: Duration) -> Duration {\n*439│    (cur * 2).min(NET_RETRY_CAP)\n 440│}\n 441│\n 442│/// Whether a daemon is already serving the seed-control channel for this home.\n    │...\n 477│/// Service-aware (REQ-DAEMON-8): when an OS service manager has a registered\n*478│/// spt-daemon, this starts THAT — never a competing manual `spawn_detached`\n 479│/// daemon that would fight the service for the broker socket (the kitsubito\n*480│/// 2026-06-08 restart-loop). No manager ⇒ the detached spawn path as before.\n 481│// [impl->REQ-DAEMON-8]\n 482│pub fn ensure_running() -> io::Result<()> {\n 483│    if is_running() {\n    │...\n 494│                eprintln!(\"DAEMON_SERVICE_START_FALLBACK: {e} — starting a manual daemon\");\n*495│                spawn_detached()?;\n 496│            }\n 497│        }\n*498│        crate::service::StartPlan::ManualSpawn => spawn_detached()?,\n 499│        // `running` was passed false, so AlreadyRunning is unreachable here.\n 500│        crate::service::StartPlan::AlreadyRunning => return Ok(()),\n 501│    }\n## deelevate.rs\n  15│//!\n *16│//! - [`crate::daemon::spawn_detached`] de-elevates the child it launches —\n  17│//!   Windows: the UAC **linked token** ([`spawn_deelevated`]); Linux: drop\n  18│//!   the child to `SUDO_UID`/`SUDO_GID` with the invoker's `HOME`\n  19│//!   ([`sudo_invoker`] + `CommandExt::uid/gid`).\n    │...\n  32│//! they are re-declared here because the dependency arrow points the other\n *33│//! way (`spt` → `spt-daemon`). Like [`crate::daemon::detached_no_inherit`],\n  34│//! the Windows calls are raw `extern \"system\"` declarations (advapi32 is in\n  35│//! the MSVC default link set) — no new dependency for one seam.\n  36│// [impl->REQ-HAZARD-ELEVATED-DAEMON-SPAWN]\n    │...\n 417│\n*418│    // Raw advapi32/kernel32 declarations (the detached_no_inherit posture:\n 419│    // both libraries are in the MSVC default link set, no new dependency).\n 420│    #[repr(C)]\n 421│    struct StartupInfoW {\n    │...\n 510│    // CreateProcessWithTokenW accepts only a RESTRICTED creation-flag set —\n*511│    // DETACHED_PROCESS and CREATE_NO_WINDOW (the detached_no_inherit combo)\n 512│    // are rejected with ERROR_INVALID_PARAMETER (87; hit live, second\n 513│    // elevated verification round). Detach therefore rides\n 514│    // CREATE_NEW_CONSOLE with the console window HIDDEN via the startup\n    │...\n 521│    /// tab-close does not reap the de-elevated daemon (see the unelevated path in\n*522│    /// `daemon::detached_no_inherit`). CreateProcessWithTokenW accepts only a\n 523│    /// RESTRICTED creation-flag set, so this flag may be rejected with\n 524│    /// ERROR_INVALID_PARAMETER (87) — `create_with_token` retries WITHOUT it in\n 525│    /// that case (the elevated daemon then relies on the no-job common case /\n    │...\n 555│\n*556│    /// Spawn `program args…` detached under the **desktop shell's token** —\n 557│    /// the unelevated desktop user, whoever is actually at the machine.\n 558│    ///\n 559│    /// Why the shell token and not the UAC linked token: without\n    │...\n 687│    /// `CreateProcessWithTokenW` under the same flags as\n*688│    /// `detached_no_inherit`, command line quoted by the shared\n 689│    /// [`quote_windows_arg`] rules. The environment is BUILT FOR THE TOKEN\n 690│    /// (`CreateEnvironmentBlock`) — inheriting the elevated caller's\n 691│    /// variables would point the child at the wrong `%LOCALAPPDATA%`\n## digesthub.rs\n  20│//! The channel rides the same forward-compatible [`Envelope`] + codec + version\n *21│//! handshake as the broker / seed-control IPC (a transient `spt` CLI connects as a\n  22│//! [`Role::Brain`] logic client). **Local addressing only** — the qualified\n  23│//! `[subnet:]id@node` cross-node form is a later milestone (rejected by the CLI\n  24│//! before it ever reaches here).\n    │...\n 185│\n*186│/// Drive one control connection: handshake, then service snapshot pulls and\n 187│/// subscribe streams until the client disconnects.\n 188│fn handle_conn<C: Read + Write>(mut conn: C, hub: &DigestHub) -> io::Result<()> {\n 189│    recv_hello(&mut conn, Role::Brain)?;\n## dispatch.rs\n  51│//! stream's event feed alone (no double-subscription interleave). Origin is\n *52│//! the table's `remote_id_hex` — handshake-proven, never payload\n  53│//! (REQ-HAZARD-WAN-ORIGIN-AUTH); every family's own gate then runs unchanged.\n  54│// [impl->REQ-NET-1]\n  55│// [impl->REQ-HAZARD-WAN-ORIGIN-AUTH]\n    │...\n 346│            // WHICH endpoint the operator asks for (client-supplied, like Xfer's\n*347│            // `endpoint`); the origin subject stays the handshake identity. The\n 348│            // LOCAL path sends no endpoint_id and its session_id → endpoint mapping\n 349│            // is unchanged.\n 350│            // `endpoint` is the gate subject; `remote_session` carries the\n    │...\n 398│            // The wire names whose whitelist gates (the rule set); the origin\n*399│            // it is checked against stays handshake-proven. Blank refuses.\n 400│            let endpoint = line\n 401│                .get(\"endpoint\")\n 402│                .and_then(|v| v.as_str())\n    │...\n 423│            // The wire names whose whitelist gates (the xfer posture); the\n*424│            // origin stays handshake-proven. The serve applies the event\n 425│            // through the LOCAL transition host — echo gate, wake effects,\n 426│            // and shell cascade run on this node, where the instance lives.\n 427│            // [impl->REQ-INST-6]\n    │...\n 447│            // serve-state for a named subnet, read fresh from this node's\n*448│            // own stores — the QUIC handshake is the only subject.\n 449│            // [impl->REQ-SUBNET-5]\n 450│            match crate::serveprobe::serve_subnet_probe(&mut brain, stream_id) {\n 451│                Ok(out) => DispatchOutcome::Served(format!(\"{out:?}\")),\n    │...\n 558│    // This serving node's identity for the presence resolution: the broker's\n*559│    // handshake identity (the same hex peers see in our registry rows).\n 560│    let self_hex = brain\n 561│        .net_status()\n 562│        .ok()\n## drivehub.rs\n  31│//! The channel rides the same forward-compatible [`Envelope`] + codec + version\n *32│//! handshake as the digest / broker / seed-control IPC (a transient `spt` CLI\n  33│//! connects as a [`Role::Brain`] logic client). **Local addressing only** —\n  34│//! cross-node drive over the ephemeral Iroh link is a later task (never spooled,\n  35│//! same drop-on-offline semantics).\n    │...\n 191│\n*192│/// Drive one control connection: handshake, then service write / take / clear\n 193│/// requests until the client disconnects.\n 194│fn handle_conn<C: Read + Write>(mut conn: C, hub: &DriveHub) -> io::Result<()> {\n 195│    recv_hello(&mut conn, Role::Brain)?;\n## effect.rs\n 214│\n*215│/// The broker's NET-DIAL no-longer-held reply — the ONE source for the emitted\n 216│/// text, built from [`OP_NO_LONGER_HELD_MARKER`] so the wire string and the\n 217│/// retry's match substring cannot drift. Byte-identical to the pre-const literal\n 218│/// (a unit test pins it); the frozen marker rides inside the per-verb wrapper.\n## endpoint.rs\n 20│/// tag is stable across processes that share the same `spt_home` — exactly what\n*21│/// the auto-start handshake needs (the spawned daemon must independently derive\n 22│/// the launching client's socket name).\n 23│fn home_tag() -> String {\n 24│    let mut h = std::collections::hash_map::DefaultHasher::new();\n## frame.rs\n  *1│//! The versioned broker↔brain IPC frame schema and connection handshake.\n   2│//!\n   3│//! This is the single most update-frequency-sensitive contract in spt-core\n   4│//! (KNOWN-HAZARDS 2.3): self-update (ADR-0004) swaps the brain routinely while\n    │...\n  14│//!    fields* a newer brain adds are silently ignored on the older side.\n *15│//! 2. **A version handshake.** On connect, the brain sends a [`Hello`]; the\n  16│//!    broker accepts iff the brain's `protocol_version >= MIN_COMPATIBLE_VERSION`.\n  17│//!    A newer brain (higher version) is accepted by an older broker; a brain\n  18│//!    too old to satisfy the broker's floor is rejected with a typed error\n    │...\n  28│\n *29│/// The oldest peer `protocol_version` this build will still handshake with.\n  30│/// Held at `1` for v1; raised only when an old version is genuinely retired.\n  31│pub const MIN_COMPATIBLE_VERSION: u32 = 1;\n  32│\n    │...\n  64│\n *65│/// Why a handshake was refused — surfaced typed rather than as a silent\n  66│/// misparse so an incompatible peer fails loudly (the 2.3 failure mode is a\n  67│/// peer dying *unlogged* on an arity/version mismatch).\n  68│#[derive(Debug, Clone, PartialEq, Eq)]\n    │...\n 190│    #[test]\n*191│    fn handshake_accepts_newer_brain_on_older_broker() {\n 192│        let newer_hello_wire = json!({\n 193│            \"protocol_version\": IPC_PROTOCOL_VERSION + 5,\n 194│            \"role\": \"brain\",\n    │...\n 204│    #[test]\n*205│    fn handshake_rejects_below_floor() {\n 206│        let hello = Hello {\n 207│            protocol_version: MIN_COMPATIBLE_VERSION - 1,\n 208│            role: Role::Brain,\n    │...\n 217│    #[test]\n*218│    fn handshake_rejects_role_mismatch() {\n 219│        let hello = Hello::current(Role::Broker);\n 220│        assert!(matches!(\n 221│            accept_hello(&hello, Role::Brain),\n## harnesshost.rs\n 28│//! and mints no link token (a harness binds via `api`, not the shell link\n*29│//! handshake).\n 30│// [impl->REQ-HOST-RUN-1]\n 31│\n 32│use std::collections::BTreeMap;\n## lib.rs\n  17│//! - [`frame`] — the forward-compatible [`Envelope`] schema + the version\n *18│//!   [`Hello`] handshake (KNOWN-HAZARDS 2.3, [`REQ-HAZARD-HANDOFF-ARGV-COMPAT`]);\n  19│//! - [`codec`] — length-prefixed JSON framing over any [`std::io::Read`]/`Write`;\n  20│//! - [`transport`] — the OS-split carrier (named pipe / UDS) behind one\n  21│//!   [`DaemonTransport`] trait, mirroring `spt-term`'s `SessionSurface`.\n    │...\n  85│//! broker-owned QUIC stream funnels through [`wan::receive_wan`] — the ADR-0009\n *86│//! access-gate seam ([`access`], handshake-proven origin only, KNOWN-HAZARDS\n  87│//! 7.5) plus durable op-id dedup (7.2, wire-fed) — into the existing local\n  88│//! REQ-MSG delivery path.\n  89│//!\n    │...\n 238│pub use release::{\n*239│    current_platform, parse_verifying_key, sha256_hex, verify_artifact, verify_detached,\n 240│    verify_metadata, verify_signature, verify_update_set_artifact, verify_update_set_metadata,\n 241│    RejectReason,\n 242│    ReleaseMetadata, SignedRelease, SignedUpdateSet, UpdateArtifactMetadata, UpdateSetMetadata,\n## linkhost.rs\n  14│//! Same posture as remote rest/attach: the [`access_check`] whitelist on the\n *15│//! **handshake-proven** origin node (ADR-0009; REQ-HAZARD-WAN-ORIGIN-AUTH —\n  16│//! never a payload field), subject = the wire-named owner. A refusal sends no\n  17│//! reply. Owner exclusivity then holds structurally: the action resolves only\n  18│//! inside that owner's own shell tree — a foreign owner's ref is NO_SHELL,\n    │...\n 440│/// Serve one shell-link stream against this node, blocking until the single\n*441│/// request runs (or refuses). `origin_node` MUST be the handshake-proven\n 442│/// remote id from the broker's stream table — never payload bytes\n 443│/// (REQ-HAZARD-WAN-ORIGIN-AUTH). The gate subject is the wire-named owner\n 444│/// (the xfer posture: the wire picks whose whitelist, the origin it is\n## livehost.rs\n 124│            let _ = h.thread.join();\n*125│            // F-030 W3: nothing detached to reap — the per-event psyche driver spawns\n 126│            // no resident child, so joining the driver thread + de-tabling above is the\n 127│            // whole un-host (the resident-psyche handle-reap + orphan-reap retired with\n 128│            // the residency machinery). Un-hosting a genuinely-offline endpoint is legit.\n## msg.rs\n   4│//! Split out from [`crate::frame`] (which owns the *envelope mechanics* and the\n  *5│//! version handshake) so the message *vocabulary* can grow additively without\n   6│//! touching the wire-compat machinery. Every payload is a plain serde struct\n   7│//! with serde's default unknown-field tolerance, so a newer brain may add a\n   8│//! field and an older broker still decodes the message (KNOWN-HAZARDS 2.3).\n    │...\n 112│/// `op_id` the dial is exactly-once (journaled like an idempotent `input`).\n*113│pub const KIND_NET_DIAL: &str = \"net-dial\";\n 114│/// Brain→broker: mint (or reuse) the broker's single in-process loopback\n 115│/// connection (M12 W1.5, B1) — the transport a LOCAL `spt rc` rides because QUIC\n 116│/// self-dial is refused by iroh. An explicit verb (NOT a sentinel addr on\n*117│/// [`KIND_NET_DIAL`]): loopback handling stays isolated from the dial hot path.\n 118│/// Null payload (the singleton is idempotent by reuse — no op id, no addr).\n*119│/// Answered with a [`KIND_NET_DIALED`] whose `remote_id_hex` is THIS node's own id.\n*120│pub const KIND_NET_DIAL_LOOPBACK: &str = \"net-dial-loopback\";\n 121│/// Broker→brain: a dial durably landed — fresh or deduped (`applied_now`\n 122│/// distinguishes, mirroring [`KIND_APPLIED`]). Carries the broker-minted conn id.\n*123│pub const KIND_NET_DIALED: &str = \"net-dialed\";\n 124│/// Brain→broker: open a bidi QUIC stream on a held connection (D4b). With an\n 125│/// `op_id` the open is exactly-once (journaled like a dial).\n 126│pub const KIND_NET_STREAM_OPEN: &str = \"net-stream-open\";\n    │...\n 156│/// dial. Payload = the existing [`NetDialReq`] (addr + op_id + minter). The\n*157│/// broker acks immediately ([`KIND_NET_DIAL_SUBMITTED`]) and dials CONCURRENTLY\n 158│/// on its runtime under W1's per-dial bound; the OUTCOME rides the presence\n*159│/// stream ([`PRESENCE_CONNECTED`] on success, [`PRESENCE_DIAL_FAILED`] on\n*160│/// failure) — never a blocking reply. Contrast [`KIND_NET_DIAL`] (blocking\n 161│/// request-reply, kept for its other callers: shellwake, pairing, rc).\n 162│// [impl->REQ-PUMP-PEER-ISOLATION]\n*163│pub const KIND_NET_DIAL_SUBMIT: &str = \"net-dial-submit\";\n*164│/// Broker→brain (PUMP-TRUTH W2): the immediate ack that a [`KIND_NET_DIAL_SUBMIT`]\n 165│/// was accepted and the concurrent dial spawned. Bare ack (null payload) — the\n 166│/// dial's real outcome rides the presence stream, not this frame.\n 167│// [impl->REQ-PUMP-PEER-ISOLATION]\n*168│pub const KIND_NET_DIAL_SUBMITTED: &str = \"net-dial-submitted\";\n 169│\n 170│/// [`NetPresenceEvent::kind`]: a connection joined the broker's conn table.\n 171│pub const PRESENCE_CONNECTED: &str = \"connected\";\n    │...\n 174│/// [`NetPresenceEvent::kind`] (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION): a\n*175│/// NON-BLOCKING dial submitted via [`KIND_NET_DIAL_SUBMIT`] failed to connect.\n 176│/// The outcome-channel for a fire-and-forget dial (its success rides\n 177│/// [`PRESENCE_CONNECTED`] as today). Carries no live connection → `conn_id: 0`\n 178│/// sentinel; consumers correlate a fail by `kind` + `remote_id_hex`, NEVER\n    │...\n 181│// [impl->REQ-PUMP-PEER-ISOLATION]\n*182│pub const PRESENCE_DIAL_FAILED: &str = \"dial-failed\";\n 183│\n 184│/// Brain→broker: run the joiner leg of the subnet pairing ceremony (M7 D3,\n 185│/// REQ-SUBNET-2). The ceremony must run broker-side: it dials via the\n    │...\n 190│\n*191│/// Brain→broker: phase 1 of the two-phase join (REQ-JOIN-TWO-PHASE) — MEET a\n 192│/// seed-holder for the named subnet (no code). The daemon resolves and holds the\n*193│/// member's real pairing address, replying [`KIND_MET_MEMBER`].\n*194│pub const KIND_PAIR_MEET: &str = \"pair-meet\";\n 195│/// Broker→brain: a seed-holder was met — its real address is held under a\n 196│/// session id, awaiting the code ([`KIND_PAIR_CODE_SUBMIT`]).\n*197│pub const KIND_MET_MEMBER: &str = \"met-member\";\n 198│/// Brain→broker: phase 2 of the two-phase join — submit the code for a held\n 199│/// meet session. The daemon dials the HELD address (no re-search) and runs the\n 200│/// SPAKE2 ceremony, replying [`KIND_PAIR_JOINED`]. A wrong-code retry re-submits\n    │...\n 344│    /// The identity attaching: `Some(node)` = a remote operator (the\n*345│    /// handshake-proven origin), `None` = local (the daemon brain's own\n 346│    /// spawn-reader / resume). The broker keys controller identity on this:\n 347│    /// a same-`by` re-subscribe silently re-takes the controller (no\n 348│    /// `Displaced`); a `None` (local) re-attach NEVER displaces a remote\n    │...\n 669│    /// The remote node's stable name (lowercase-hex pubkey), proven by the QUIC\n*670│    /// handshake (the EndpointId *is* the key).\n 671│    pub remote_id_hex: String,\n 672│    /// Echoes the request's durable op id, when one was carried.\n 673│    #[serde(default, skip_serializing_if = \"Option::is_none\")]"},"isError":false,"timestamp":1784069058615}}
{"type":"message","id":"ccc03db6","parentId":"2aa48812","timestamp":"2026-07-14T22:44:18.623Z","message":{"role":"toolResult","toolCallId":"call_3ymIEZ8DpiZGi7KxijWHbm96|fc_0b084cf0b521ab15016a56bbc25c688190a7cb909e73805236","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt-net/src/\n### lib.rs\n 6|//! endpoint (WAN, with the n0-relay default + a self-host knob — ADR-0002), mDNS\n*7|//! LAN discovery, TOTP-seeded SPAKE2 pairing (ADR-0005), the eventually-consistent\n 8|//! per-subnet registry (ADR-0006), the subnet notification spool (ADR-0007),\n 9|//! cross-node Psyche sync (ADR-0003 + KNOWN-HAZARDS 6.5), and the update\n 10|//! peer-propagation transport plugged into the M3c update-engine seam (ADR-0004 §D).\n...\n 31|//!   D0  scaffold + `net` feature flag                         ← this commit\n*32|//!   D1  Iroh endpoint + n0 relay/self-host + mDNS discovery    (REQ-NET-1, REQ-NET-2)\n 33|//!   D2  TOTP-SPAKE2 pairing + transcript/seed-epoch/rate-limit (REQ-PAIR-1..6)\n 34|//!   D3  per-subnet registry + epoch-lease resolution           (REQ-INST-7,9..13)\n 35|//!   D4  broker-owned QUIC endpoint (ADR-0004 §B)               (REQ-EP-4 seam)\n\n### net/\n#### endpoint.rs\n 20|\n*21|use iroh::address_lookup::MdnsAddressLookup;\n 22|use iroh::endpoint::{presets, IdleTimeout, Incoming, PortmapperConfig, QuicTransportConfig};\n*23|use iroh::{Endpoint, EndpointId, RelayMap, RelayMode, SecretKey};\n 24|use spt_proto::identity::{Identity, PublicKey};\n 25|\n 26|// Re-exported for the daemon (D4): the broker holds live QUIC connections +\n...\n 30|pub use iroh::endpoint::{Connection, RecvStream, SendStream};\n*31|pub use iroh::EndpointAddr;\n 32|\n 33|/// The ALPN every spt-core node-to-node QUIC connection negotiates. Versioned so a\n 34|/// future wire break is a new protocol id, not a silent incompatibility.\n...\n 79|/// Where this endpoint looks for relay assistance (ADR-0002). Maps onto iroh's\n*80|/// [`RelayMode`]; the default ([`RelayPolicy::N0Default`]) is the zero-config path.\n 81|// [impl->REQ-NET-2]\n 82|#[derive(Debug, Clone)]\n 83|pub enum RelayPolicy {\n...\n 92|\n*93|/// Whether the endpoint also runs **mDNS** LAN discovery on top of the preset's n0\n*94|/// DNS discovery. With mDNS on, a node advertises itself and resolves peers by id\n 95|/// alone on the local network, so two machines on the same LAN find each other with\n 96|/// no ticket exchange and no relay round-trip ([`NetEndpoint::connect_by_id`]).\n 97|// [impl->REQ-NET-1]\n...\n 99|pub enum LocalDiscovery {\n*100|    /// Advertise + resolve over mDNS (swarm-discovery) in addition to n0 DNS.\n*101|    Mdns,\n*102|    /// No mDNS — WAN discovery only (and direct addresses). Used by hermetic tests.\n 103|    Off,\n 104|}\n 105|\n...\n 121|    /// a static `ip:port` ticket (firewall allow-rules, the two-host rig's\n*122|    /// env-derived peer addresses) with no relay/discovery infrastructure.\n 123|    Port(u16),\n 124|}\n 125|\n...\n 150|/// (e.g. IPv6 whose AAAA resolves but whose path is dead) silently burns\n*151|/// discovery/connect time on every attempt. We probe each family once at bind and\n 152|/// drop the *dead* one — never a fixed \"prefer IPv4\" (an IPv6-only network must\n 153|/// still work).\n 154|#[derive(Debug, Clone, Copy, PartialEq, Eq)]\n...\n 167|/// `:443` is the same discriminator the field incident used by hand\n*168|/// (`Test-NetConnection dns.iroh.link -Port 443`): it catches a half-broken family\n 169|/// whose route exists but whose path is dead, which a mere route-table check\n 170|/// (UDP connect) would miss.\n 171|const PROBE_V4: &str = \"1.1.1.1:443\";\n...\n 284|        relay: RelayPolicy,\n*285|        discovery: LocalDiscovery,\n 286|    ) -> Result<NetEndpoint, NetError> {\n*287|        Self::bind_with_alpns(identity, relay, discovery, vec![SPT_NET_ALPN.to_vec()]).await\n 288|    }\n 289|\n 290|    /// Bind on an explicit ALPN set instead of the default trusted [`SPT_NET_ALPN`].\n...\n 294|    /// accept loop must not share the trusted message surface (ADR-0005; `pairing.rs`\n*295|    /// \"Why a dedicated pre-trust ALPN\"). All relay/discovery handling is identical to\n 296|    /// [`bind`](Self::bind).\n 297|    // [impl->REQ-NET-1] [impl->REQ-NET-2]\n 298|    pub async fn bind_with_alpns(\n...\n 300|        relay: RelayPolicy,\n*301|        discovery: LocalDiscovery,\n 302|        alpns: Vec<Vec<u8>>,\n 303|    ) -> Result<NetEndpoint, NetError> {\n*304|        Self::bind_scoped(identity, relay, discovery, alpns, BindScope::All).await\n 305|    }\n 306|\n 307|    /// The full bind form: [`bind_with_alpns`](Self::bind_with_alpns) plus an\n...\n 315|        relay: RelayPolicy,\n*316|        discovery: LocalDiscovery,\n 317|        alpns: Vec<Vec<u8>>,\n 318|        scope: BindScope,\n 319|    ) -> Result<NetEndpoint, NetError> {\n...\n 337|        // dead/force-disabled IP family so a half-broken family never silently\n*338|        // burns discovery/connect time. Hermetic scopes (Loopback/Port) keep\n 339|        // dual-stack untouched — they reach no WAN and must stay deterministic\n 340|        // (no probe, no Windows-firewall surprise).\n 341|        let families = match scope {\n...\n 400|            RelayPolicy::N0Default => builder,\n*401|            RelayPolicy::SelfHosted(map) => builder.relay_mode(RelayMode::Custom(map)),\n#### registry.rs\n 561|/// resolver uses ([`SubnetRegistry::resolve_visible`]), so a hidden endpoint\n*562|/// never appears — discovery leaks nothing a viewer couldn't reach\n 563|/// (ADR-0006 §6, exclusion by construction). Unroutable (`Offline`) rows are\n 564|/// skipped too: a dead instance serves nothing, so it is not a resource.\n 565|// [impl->REQ-INST-14]\n...\n 1816|    // [unit->REQ-INST-14] the projection is the yellow-pages view over\n*1817|    // VISIBLE rows only: a hidden endpoint never appears (discovery leaks\n 1818|    // nothing resolution would refuse), an Offline row is not a resource,\n 1819|    // and an absent blurb renders clean (None, not an error).\n 1820|    #[test]\n\n#### pairing/\n##### meet.rs\n 25|//! close, and would pin an ephemeral key as the peer's durable name. So the\n*26|//! meet endpoint serves **discovery only**: the joiner asks, the responder\n*27|//! answers with its real [`EndpointAddr`] (one tiny length-prefixed frame on a\n 28|//! dedicated pre-trust ALPN, [`SPT_PAIR_MEET_ALPN`]), and the joiner re-dials\n 29|//! the real endpoint over [`SPT_PAIR_ALPN`](super::wire::SPT_PAIR_ALPN) where\n 30|//! the existing SPAKE2 ceremony runs **unchanged** — real pubkeys both ways.\n 31|//!\n*32|//! ## Security posture (token gates discovery, PAKE gates trust)\n 33|//!\n 34|//! Anyone who knows the subnet name and the current code window can derive the\n 35|//! meet keypair, impersonate the listener, and hand the joiner any address —\n...\n 45|\n*46|use iroh::{EndpointAddr, EndpointId};\n 47|use sha2::{Digest, Sha256};\n 48|use spt_proto::identity::{Identity, PublicKey};\n 49|\n...\n 66|\n*67|/// Hard cap on the meet reply frame — a serialized [`EndpointAddr`] is a few\n 68|/// hundred bytes; 4 KiB bounds a hostile length prefix (same stance as\n 69|/// `wire.rs` MAX_FRAME).\n 70|const MAX_MEET_FRAME: usize = 4096;\n...\n 94|/// same keypair (and therefore the *public* id it dials); the keypair gates\n*95|/// nothing but discovery (module docs).\n 96|// [impl->REQ-PAIR-5]\n 97|pub fn rendezvous_identity(token: &[u8; 32]) -> Identity {\n 98|    let mut h = Sha256::new();\n...\n 119|/// Bind the meet listener for `(subnet_name, totp_step)` under the derived\n*120|/// identity. The relay/discovery/scope knobs mirror\n 121|/// [`NetEndpoint::bind_scoped`]; production passes the node's configured\n 122|/// [`RelayPolicy`] so the derived id is relay-reachable (and n0-DNS\n 123|/// resolvable) by a joiner that knows nothing but the two user inputs.\n...\n 128|    relay: RelayPolicy,\n*129|    discovery: LocalDiscovery,\n 130|    scope: BindScope,\n 131|) -> Result<RendezvousListener, NetError> {\n 132|    let id = rendezvous_identity(&rendezvous_token(subnet_name, totp_step));\n...\n 135|        relay,\n*136|        discovery,\n 137|        vec![SPT_PAIR_MEET_ALPN.to_vec()],\n 138|        scope,\n 139|    )\n...\n 155|    // [impl->REQ-PAIR-5]\n*156|    pub async fn serve_once(&self, real_addr: &EndpointAddr) -> Result<(), MeetError> {\n 157|        let incoming = self\n 158|            .ep\n 159|            .accept()\n...\n 193|/// [`dial_via_rendezvous`]; this explicit-address form is the seam for\n*194|/// hermetic tests and static-`ip:port` rigs where no relay/discovery exists.\n 195|// [impl->REQ-PAIR-5]\n 196|pub async fn meet_at(\n 197|    dialer: &NetEndpoint,\n*198|    meet_addr: EndpointAddr,\n*199|) -> Result<EndpointAddr, MeetError> {\n 200|    let conn = dialer\n 201|        .connect_with_alpn(meet_addr, SPT_PAIR_MEET_ALPN)\n 202|        .await\n...\n 225|        .map_err(|e| MeetError::Protocol(format!(\"read addr: {e}\")))?;\n*226|    let addr: EndpointAddr = serde_json::from_slice(&json)\n 227|        .map_err(|e| MeetError::Protocol(format!(\"decode addr: {e}\")))?;\n 228|    conn.close(0u32.into(), b\"met\");\n 229|    Ok(addr)\n...\n 265|/// The rendezvous MEET only — resolve the seed-holder's **real, stable**\n*266|/// [`EndpointAddr`] by racing the ±1-window meet ids, WITHOUT the final ceremony\n 267|/// dial. This is the meet half of [`dial_via_rendezvous`] split out for the\n 268|/// two-phase join (REQ-JOIN-TWO-PHASE): the daemon resolves and HOLDS this\n 269|/// address, then collects the code and dials it over [`SPT_PAIR_ALPN`] for the\n...\n 277|    totp_step: u64,\n*278|) -> Result<EndpointAddr, MeetError> {\n 279|    let mut probes = tokio::task::JoinSet::new();\n 280|    for token in rendezvous_window(subnet_name, totp_step) {\n 281|        let pk = rendezvous_identity(&token).public_key();\n...\n 285|        probes.spawn(async move {\n*286|            tokio::time::timeout(MEET_PROBE_TIMEOUT, meet_at(&dialer, EndpointAddr::new(id)))\n 287|                .await\n 288|                .map_err(|_| MeetError::Protocol(\"meet probe timed out\".into()))\n 289|                .and_then(|r| r)\n...\n 329|\n*330|    /// Bind a hermetic (loopback, no relay/discovery) endpoint on `alpns`.\n 331|    async fn hermetic(id: &Identity, alpns: Vec<Vec<u8>>) -> NetEndpoint {\n 332|        NetEndpoint::bind_scoped(\n 333|            id,\n...\n 343|    /// The meet listener's derived-id address with its loopback sockets\n*344|    /// attached — what relay/discovery resolution would produce, built\n 345|    /// explicitly because the hermetic test has neither. The id in the addr\n 346|    /// is RE-DERIVED from (name, step), not copied from the listener, so the\n 347|    /// dial proves the listener really holds the token-derived key (TLS\n 348|    /// authenticates the id).\n*349|    fn derived_addr(listener: &RendezvousListener, subnet: &str, step: u64) -> EndpointAddr {\n 350|        let pk = rendezvous_endpoint_id(subnet, step);\n 351|        let id = EndpointId::from_bytes(&pk.to_bytes()).expect(\"valid derived id\");\n 352|        let socks: Vec<SocketAddr> = listener.endpoint().addr().ip_addrs().copied().collect();\n##### rendezvous.rs\n 1|//! Pre-trust pairing **rendezvous token** derivation (ADR-0006; `CONTEXT.md` \"link\n*2|//! discovery (TOTP + name)\", D2f, REQ-PAIR-5).\n 3|//!\n 4|//! Two not-yet-trusted nodes that don't know each other's node id must still *meet* at\n 5|//! the relay to run the ceremony. They meet on a shared **rendezvous token** both can\n##### wire.rs\n 36|//!\n*37|//! Like [`endpoint`](super::super::endpoint) tests, this dials by `EndpointAddr` over\n 38|//! loopback with relays disabled. The relay **rendezvous** (`H(subnet-name ‖ step)`,\n 39|//! `CONTEXT.md`) that lets two nodes that don't know each other's id *meet* is deferred\n 40|//! to D9; here the joiner already holds the responder's dialable address. Seed transfer\n\n## spt-daemon/src/\n### brain.rs\n 1285|    /// Dial a peer over the broker-owned endpoint (D4a). `addr` is the peer's\n*1286|    /// serialized `EndpointAddr` (as another node's `net-status` reply carries).\n 1287|    /// With `op_id` the dial is exactly-once: a replay of the same durable id\n 1288|    /// after a brain crash is deduped at the broker and answered with the\n 1289|    /// already-open connection ([`NetDialed::applied_now`] distinguishes).\n### broker.rs\n 45|use spt_net::net::attach::AttachIntent;\n*46|use spt_net::net::endpoint::EndpointAddr;\n 47|use spt_store::perch::{resolve_perch_path, ParentHint};\n 48|\n 49|use crate::codec::read_frame;\n...\n 2573|    subnet: String,\n*2574|    addr: EndpointAddr,\n 2575|    /// When the wait-for-code window expires (meet + 5 minutes).\n 2576|    deadline: Instant,\n 2577|}\n...\n 3919|            .ok_or(\"net disabled: this broker was bound without a network host\")?;\n*3920|        let addr: EndpointAddr =\n 3921|            serde_json::from_value(req.addr).map_err(|e| format!(\"bad net-dial addr: {e}\"))?;\n 3922|        match req.op_id {\n 3923|            None => {\n...\n 3968|    /// submit. Decode the target addr, derive its correlation key\n*3969|    /// (`EndpointAddr::node_id_hex` — the peer the outcome events key on), fire\n 3970|    /// the concurrent dial ([`NetHost::submit_dial`], returns immediately), and\n 3971|    /// ack RIGHT AWAY. The dial's real outcome rides the presence stream\n 3972|    /// (CONNECTED / DIAL_FAILED), never this reply — so one dead peer can neither\n...\n 3984|            .ok_or(\"net disabled: this broker was bound without a network host\")?;\n*3985|        let addr: EndpointAddr = serde_json::from_value(req.addr)\n 3986|            .map_err(|e| format!(\"bad net-dial-submit addr: {e}\"))?;\n 3987|        // Correlation key: the target's stable hex (from the dial addr's node id\n 3988|        // — same derivation as the roster-member path at dispatch_pair_* uses).\n...\n 4041|            Some(v) => Some(\n*4042|                serde_json::from_value::<EndpointAddr>(v)\n 4043|                    .map_err(|e| format!(\"bad pair-join responder_addr: {e}\"))?,\n 4044|            ),\n 4045|            None => None,\n### daemon.rs\n 374|/// Try to bring up the broker's network host once: build the production\n*375|/// `NetConfig` (durable node.key + relay/discovery/membership) and start the\n 376|/// endpoint, wiring on-connect roster propagation (REQ-MESH-2). `None` on a\n 377|/// `NET_BIND_FAIL` (e.g. the network/DNS stack not ready yet) or a missing\n 378|/// identity — the caller binds net-less and (REQ-DAEMON-9) retries.\n...\n 390|        relay,\n*391|        discovery: LocalDiscovery::Mdns,\n 392|        scope: BindScope::All, // production: real interfaces\n 393|        // Mesh-D2: enforce seed-proof on every dial + accept, reading the live\n 394|        // subnet store each connect.\n### msg.rs\n 531|    pub node_id_hex: Option<String>,\n*532|    /// The endpoint's dialable address — a serde-serialized iroh `EndpointAddr`,\n 533|    /// opaque to this catalog (the net host owns its shape). `null` when disabled.\n 534|    #[serde(default)]\n 535|    pub addr: serde_json::Value,\n...\n 568|pub struct NetDialReq {\n*569|    /// The peer's dialable address — a serde-serialized iroh `EndpointAddr`\n 570|    /// (opaque JSON here; the broker's net host decodes it).\n 571|    pub addr: serde_json::Value,\n 572|    /// The durable op id for exactly-once dialing. `Some(id)` routes the dial\n...\n 593|    /// Skip the rendezvous and dial THIS responder address directly (a\n*594|    /// serde-serialized `EndpointAddr`) — the static-`ip:port` rig seam,\n 595|    /// mirroring `pairing::meet::meet_at`'s explicit-address form. The\n 596|    /// guided CLI never sets it.\n 597|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n...\n 629|    pub subnet: String,\n*630|    /// Request a detailed discovery trace in the failure detail\n 631|    /// (REQ-JOIN-DIAGNOSTICS, `spt subnet join --verbose`). Additive\n 632|    /// serde-default — an older CLI omits it (concise failures).\n 633|    #[serde(default)]\n...\n 680|    /// the connection's current path addresses) — a serde-serialized iroh\n*681|    /// `EndpointAddr`, opaque here. The address-seeding write-back source\n 682|    /// (M8 decision 20, REQ-CONV-1): what the pump persists into\n 683|    /// `peer-addrs.json` after a successful dial. `null` from an older\n 684|    /// broker or when no path is readable (additive serde-default field).\n### nethost.rs\n 22|//!\n*23|//! `MdnsAddressLookup` and the relay session are both constructed *inside* the\n 24|//! iroh endpoint, so broker ownership of the endpoint closes the ADR-0004 §B\n 25|//! \"mDNS socket / relay session\" row with no extra machinery: there is no\n 26|//! separate socket to own.\n...\n 37|use spt_net::net::endpoint::{\n*38|    BindScope, Connection, EndpointAddr, LocalDiscovery, NetEndpoint, RecvStream, RelayPolicy,\n 39|    SendStream, SPT_NET_ALPN,\n 40|};\n 41|use spt_net::net::mesh::seedproof::ProofRole;\n...\n 85|/// (from `daemon.json` in production; [`RelayPolicy::Disabled`] in hermetic\n*86|/// tests), and whether mDNS LAN discovery rides along.\n 87|pub struct NetConfig {\n 88|    /// The node identity the endpoint binds as (seed → same ed25519 keypair).\n 89|    pub identity: Identity,\n...\n 91|    pub relay: RelayPolicy,\n*92|    /// mDNS LAN discovery on/off (off in hermetic tests).\n*93|    pub discovery: LocalDiscovery,\n 94|    /// Socket bind scope: [`BindScope::All`] in production;\n 95|    /// [`BindScope::Loopback`] in hermetic tests (no real interface touched,\n 96|    /// no per-test-binary Windows firewall prompt).\n...\n 506|/// the path address string, or `null` when id-only / path-less (nothing worth\n*507|/// seeding over discovery). Shared by [`register_conn`]'s presence write-back\n 508|/// and [`NetHost::conn_remote_addr_json`] so both seed identically.\n 509|// [impl->REQ-CONV-1]\n 510|fn observed_addr_json(conn: &Connection) -> serde_json::Value {\n...\n 512|    if addr.is_empty() {\n*513|        return serde_json::Value::Null; // id-only adds nothing over discovery\n 514|    }\n 515|    serde_json::to_value(addr).unwrap_or(serde_json::Value::Null)\n 516|}\n...\n 536|    /// `bounded_block_on`; the submit via its own `timeout`).\n*537|    async fn connect(self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n 538|        let conn = self\n 539|            .endpoint\n 540|            .connect(addr)\n...\n 753|    loopback_conn: Mutex<Option<u64>>,\n*754|    /// Serializes [`Self::open_loopback_pair`] (M11-W3) so the peer-row discovery\n 755|    /// (a before/after diff on the loopback conn's inbound rows) sees exactly the\n 756|    /// one row this open minted — concurrent pair-opens on the shared loopback conn\n 757|    /// would otherwise race the diff.\n...\n 829|                cfg.relay.clone(),\n*830|                cfg.discovery,\n 831|                vec![\n 832|                    SPT_NET_ALPN.to_vec(),\n 833|                    spt_net::net::pairing::wire::SPT_PAIR_ALPN.to_vec(),\n...\n 909|            cfg.relay,\n*910|            cfg.discovery,\n 911|            cfg.scope,\n 912|        );\n 913|\n...\n 1019|        code: &str,\n*1020|        responder_addr: Option<EndpointAddr>,\n 1021|    ) -> Result<String, crate::pairhost::JoinFail> {\n 1022|        let endpoint = Arc::clone(&self.endpoint);\n 1023|        self.runtime.handle().block_on(async move {\n...\n 1036|        verbose: bool,\n*1037|    ) -> Result<EndpointAddr, crate::pairhost::JoinFail> {\n 1038|        let endpoint = Arc::clone(&self.endpoint);\n 1039|        self.runtime.handle().block_on(async move {\n 1040|            crate::pairhost::meet_seed_holder(&endpoint, subnet, verbose).await\n...\n 1049|    /// The endpoint's dialable address (id + currently-known direct/relay paths).\n*1050|    pub fn addr(&self) -> EndpointAddr {\n 1051|        self.endpoint.addr()\n 1052|    }\n 1053|\n...\n 1089|    // [impl->REQ-DAEMON-2]\n*1090|    pub fn dial(&self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n 1091|        let plan = self.dial_plan();\n 1092|        let sem = Arc::clone(&self.dial_semaphore);\n 1093|        // Bounded (REQ-HAZARD-BROKER-QUIC-DEADLINE): the `connect` + `prove_membership`\n...\n 1118|    // [impl->REQ-PUMP-PEER-ISOLATION]\n*1119|    pub fn submit_dial(&self, addr: EndpointAddr, remote_id_hex: String) {\n 1120|        let plan = self.dial_plan();\n 1121|        let sem = Arc::clone(&self.dial_semaphore);\n 1122|        let shared = Arc::clone(&self.shared);\n...\n 1566|            relay: RelayPolicy::Disabled,\n*1567|            discovery: LocalDiscovery::Off,\n 1568|            scope: BindScope::Loopback,\n 1569|            membership: None,\n 1570|        }\n### pairhost.rs\n 92|            // pump's post-join first sync dials it directly instead of\n*93|            // paying the id-only discovery cold start.\n 94|            // [impl->REQ-CONV-1]\n 95|            record_ceremony_peer_addr(&conn, &outcome.joiner_hex);\n 96|            // Re-pair overwrite (M8 decision 13, REQ-SUBNET-7): a COMPLETED\n...\n 172|    relay: RelayPolicy,\n*173|    discovery: LocalDiscovery,\n 174|    scope: BindScope,\n 175|) {\n 176|    let scope = match scope {\n...\n 205|                window_tasks.push(tokio::spawn(async move {\n*206|                    let listener = match bind_rendezvous(&name, step, relay, discovery, scope).await\n 207|                    {\n 208|                        Ok(l) => l,\n 209|                        Err(e) => {\n...\n 299|    code: &str,\n*300|    responder_addr: Option<spt_net::net::endpoint::EndpointAddr>,\n 301|) -> Result<String, JoinFail> {\n 302|    let mut subnets = SubnetStore::load();\n 303|    // Roster (REQ-MESH-2): run_initiator merges the seed-holder's transferred\n...\n 420|    subnet_name: &str,\n*421|    responder_addr: Option<spt_net::net::endpoint::EndpointAddr>,\n 422|) -> Result<Connection, JoinFail> {\n 423|    match responder_addr {\n 424|        Some(addr) => endpoint\n...\n 454|    verbose: bool,\n*455|) -> Result<spt_net::net::endpoint::EndpointAddr, JoinFail> {\n 456|    const SEARCH_DEADLINE: Duration = Duration::from_secs(75);\n 457|    let start = std::time::Instant::now();\n 458|    let attempts = std::cell::Cell::new(0u32);\n...\n 566|/// Compose the meet-failure detail surfaced to the joiner (REQ-JOIN-DIAGNOSTICS):\n*567|/// concise (the last concrete error) by default; a structured discovery trace\n 568|/// (families the joiner could bind, rendezvous window, attempts/elapsed-vs-deadline,\n 569|/// the joiner's own CEREMONY CLOCK — REQ-JOIN-VERBOSE-CLOCK, the enlyzeam blind\n 570|/// spot — and the last error) under `--verbose`. Pure — the unit-tested core.\n...\n 591|         \\x20 joiner clock: {}\\n\\\n*592|         \\x20 discovery: ±1 TOTP window = 3 derived rendezvous ids per attempt \\\n 593|         (resolved via relay + n0-DNS / mDNS)\\n\\\n 594|         \\x20 last error: {last_err}\",\n 595|        clock.render()\n...\n 625|/// the pump's next dial. Best-effort and skip-on-pathless: seeding is an\n*626|/// optimization; the id-only discovery path is always behind it.\n 627|// [impl->REQ-CONV-1]\n 628|fn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\n 629|    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n 630|    if addr.is_empty() {\n*631|        return; // id-only adds nothing over discovery\n 632|    }\n 633|    let Ok(value) = serde_json::to_value(addr) else {\n 634|        return;\n 635|    };\n*636|    let path = spt_store::peeraddrs::peer_addrs_file();\n*637|    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n 638|        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n 639|    }\n 640|}\n...\n 742|    // detail: concise (just the last concrete error) by default, and a structured\n*743|    // discovery trace under --verbose (families / rendezvous window / attempts vs\n 744|    // deadline / the JOINER's ceremony clock / the last error never swallowed).\n 745|    // The verbose dump — including the joiner's step/offset/state, the enlyzeam\n 746|    // blind spot — is what a stuck WAN join needs.\n### registryhost.rs\n 364|        // broadcast=subnet ride every row this node authors — the other-node\n*365|        // discovery arm. Computed once per scan (the registration set is\n 366|        // node-level).\n 367|        // [impl->REQ-EP-5]\n 368|        let shell_adapters: Vec<String> = spt_runtime::registry::registered(&perch::adapters_dir())\n### seedproofx.rs\n 47|use spt_proto::identity::{Identity, PublicKey};\n*48|use spt_store::peeraddrs::PeerAddrStore;\n 49|use spt_store::roster::{RosterEntry, RosterStore, Tombstone};\n 50|use spt_store::subnet::SubnetStore;\n 51|\n...\n 869|// [impl->REQ-MESH-2]\n*870|pub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\n 871|    let mut changed = false;\n 872|    for e in entries {\n 873|        if e.pubkey_hex == self_hex {\n...\n 884|\n*885|/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\n 886|/// re-read per connect (rare; honors a concurrent pairing/revoke without a\n 887|/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\n 888|/// provider stamps the node's live address onto its self-entry so peers learn\n...\n 932|            let _ = store.save();\n*933|            let path = spt_store::peeraddrs::peer_addrs_file();\n*934|            let mut pa = PeerAddrStore::load_from(&path);\n 935|            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\n 936|                let _ = pa.save_to(&path);\n 937|            }\n...\n 1056|\n*1057|        let mut pa = PeerAddrStore::default();\n 1058|        pa.put(\"bb\", observed_b.clone()); // a fresher, locally-observed addr\n 1059|\n 1060|        let entries = vec![\n### shelldisc.rs\n*1|//! Shell discovery + agent-context injection (M5-D3d — CONTEXT §Shell model\n 2|//! \"Broadcast policy\" / \"Agent awareness\").\n 3|//!\n 4|//! Discovery is **local-node in D3**: an owner sees its *own* instances\n...\n 13|//!\n*14|//! [`shell_context`] renders the discovery as the agent's background context\n 15|//! — the caller injects it at reported-boundary resurface points as a\n 16|//! **deferred** spool row (hook-channel context that never wakes a listener;\n*17|//! same surface the notif resurface rides). Empty discovery renders nothing.\n 18|// [impl->REQ-EP-5]\n 19|\n 20|use std::path::Path;\n...\n 151|/// The other-node adapter lines (`GameRobot (on node ab12cd34…)`) — node hex\n*152|/// truncated for display; the full hex stays in the discovery value. The\n 153|/// spawn caveat is rendered once at the section header, not per line.\n 154|pub fn remote_instantiable_lines(d: &ShellDiscovery) -> Vec<String> {\n 155|    d.remote_instantiable\n...\n 164|/// Render `owner`'s shell context for boundary injection — the \"agent ideally\n*165|/// just knows\" surface (CONTEXT §Agent awareness). `None` when discovery is\n 166|/// empty: an agent with no shell world gets no row at all.\n 167|// [impl->REQ-EP-5]\n 168|pub fn shell_context(\n...\n 213|        out.push_str(\n*214|            \"\\nshell adapters on other subnet nodes (discovery only — cross-node spawn is deferred):\",\n 215|        );\n 216|        for line in remote_instantiable_lines(d) {\n 217|            out.push_str(\"\\n  \");\n...\n 245|\n*246|    // [unit->REQ-EP-5] discovery shapes: own instances always list;\n 247|    // instantiable = registered shell adapters with broadcast subnet/same-node\n 248|    // — broadcast=none and absent broadcast never surface; a harness adapter\n 249|    // never surfaces; a deregistered adapter drops out of instantiable while\n...\n 251|    #[test]\n*252|    fn discovery_own_plus_broadcast_gated_instantiable() {\n 253|        let tmp = tempfile::tempdir().unwrap();\n 254|        let home = tmp.path();\n 255|        let owlery = home.join(\"owlery\");\n...\n 307|    // arm 2): subnet-broadcast adapters gossiped on other nodes' registry\n*308|    // rows join discovery — deduped per (adapter, node), own-node and\n 309|    // Offline rows skipped, locally-instantiable names suppressed (the local\n 310|    // entry covers them) — and render as their own caveated section.\n 311|    #[test]\n...\n 370|    // shapes (alias-first, adapter never obscured; broadcast labeled); a\n*371|    // section absent when its half is empty; None on empty discovery — an\n 372|    // agent with no shell world gets no row at all.\n 373|    #[test]\n 374|    fn shell_context_renders_sections_and_empties_to_none() {\n...\n 379|\n*380|        // Empty discovery → no context.\n 381|        let none = spt_runtime::registry::registered(&adapters);\n 382|        assert_eq!(shell_context(&owlery, \"doyle\", &none), None);\n 383|\n### shellwake.rs\n 363|fn forward_wake(owner: &str, node: &str) -> Result<String, String> {\n*364|    use spt_net::net::endpoint::addr_for_node_hex;\n*365|    let addr = addr_for_node_hex(node)\n 366|        .and_then(|a| serde_json::to_value(a).ok())\n 367|        .ok_or_else(|| format!(\"no dialable address for {node}\"))?;\n 368|    let mut brain =\n\n### pump/\n#### mod.rs\n 67|\n*68|use spt_net::net::endpoint::addr_for_node_hex;\n 69|use spt_store::epoch::EpochSource;\n*70|use spt_store::peeraddrs::PeerAddrStore;\n 71|use spt_store::perch;\n 72|use spt_store::subnet::SubnetStore;\n 73|use spt_store::visibility::VisibilityStore;\n...\n 205|/// address (the serde JSON `net-dial` carries). Production resolution lets\n*206|/// discovery do the work ([`production_resolver`]); hermetic tests inject a\n*207|/// concrete address map (loopback endpoints run no discovery).\n 208|pub type PeerResolver = Box<dyn Fn(&str) -> Option<serde_json::Value> + Send>;\n 209|\n 210|/// The production resolver: an id-only iroh address — mDNS on the LAN, n0\n*211|/// DNS on the WAN (`addr_for_node_hex`).\n 212|pub fn production_resolver() -> PeerResolver {\n*213|    Box::new(|hex| addr_for_node_hex(hex).and_then(|a| serde_json::to_value(a).ok()))\n 214|}\n 215|\n 216|/// Where this node's pump-side stores live. Production = the canonical\n...\n 251|    /// `peer-addrs.json` — last-known peer addresses (M8 decisions 14/20,\n*252|    /// REQ-CONV-1): consulted before id-only discovery, written back after\n*253|    /// every successful dial ([`spt_store::peeraddrs::PeerAddrStore`]).\n*254|    pub peer_addrs: PathBuf,\n 255|    /// The pump's last-tick heartbeat (M8 decision 23, REQ-DAEMON-5):\n 256|    /// epoch-ms written while the loop is alive, rendered by\n 257|    /// `spt daemon status` / the `subnet status` stall warning\n...\n 282|            advertise_marker: identity.join(crate::registryhost::ADVERTISE_MARKER_FILE),\n*283|            peer_addrs: identity.join(\"peer-addrs.json\"),\n 284|            heartbeat: crate::endpoint::pump_heartbeat_path(),\n 285|            rotations: identity.join(\"rotation-pending.json\"),\n 286|        }\n...\n 626|            } else if peer_eligible(&sched, peer_hex, round_start) {\n*627|                if let Some(addr) = resolve_submit_addr(&resolver, peer_hex, &paths.peer_addrs) {\n 628|                    match brain.submit_dial(addr) {\n 629|                        Ok(()) => {\n 630|                            pending.insert(peer_hex.clone());\n...\n 665|                    ev, &mut brain, &mut ops, &mut workers, &due_flags, &mut conns, &mut sched,\n*666|                    &mut pending, &peer_subnets, &ctx, &paths.peer_addrs, round_start,\n 667|                )?,\n 668|                DrainStep::Skip => continue, // the event carrier only carries presence\n 669|                DrainStep::RoundDone => break, // quiet (TimedOut) — drain done\n...\n 800|/// signal, and drop the stale seed (REQ-CONV-1 self-heal → next round re-resolves\n*801|/// via discovery). `DISCONNECTED` → drop the cached conn, NO backoff (redial-\n 802|/// eligible immediately, Q3). A future presence kind is tolerated (no-op).\n 803|// [impl->REQ-PUMP-PEER-ISOLATION]\n 804|#[allow(clippy::too_many_arguments)]\n...\n 815|    ctx: &RoundCtx,\n*816|    peer_addrs: &std::path::Path,\n 817|    now: Instant,\n 818|) -> io::Result<()> {\n 819|    let is_target = peer_subnets.contains_key(&ev.remote_id_hex);\n*820|    if presence_state_effect(&ev, conns, sched, pending, peer_addrs, is_target, now) {\n 821|        // A CONNECTED peer that is a fan target this round → advertise NOW.\n 822|        if let Some(subs) = peer_subnets.get(&ev.remote_id_hex) {\n 823|            run_peer_subnets(\n...\n 852|    pending: &mut HashSet<String>,\n*853|    peer_addrs: &std::path::Path,\n 854|    is_target: bool,\n 855|    now: Instant,\n 856|) -> bool {\n...\n 864|                let _ =\n*865|                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n 866|            }\n 867|            is_target\n 868|        }\n...\n 878|            // Stale-seed self-heal (REQ-CONV-1): forget the seed so the next\n*879|            // eligible round re-resolves via id-only discovery.\n*880|            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\n 881|            false\n 882|        }\n 883|        PRESENCE_DISCONNECTED => {\n...\n 940|/// REQ-CONV-1 seeded order): the durable last-known address (`peer-addrs.json`)\n*941|/// FIRST — the cold-start fast path that skips the id-only discovery round-trip —\n\n## spt-store/src/\n### peeraddrs.rs\n 4|//! (lowercase-hex pubkey) to its **last-known dialable address** — an opaque,\n*5|//! serde-serialized iroh `EndpointAddr` (this crate never grows an iroh\n 6|//! dependency edge; the value's shape belongs to the net layer, same posture\n 7|//! as the broker IPC's `net-dial` payload).\n 8|//!\n*9|//! Why it exists: production peer resolution is id-only discovery (mDNS on\n 10|//! the LAN, n0 DNS on the WAN) — both cold starts pay it in full (~1 min\n 11|//! observed). Two writers keep this file warm: the pairing ceremony (both\n 12|//! sides, from the live ceremony connection) and the peer pump on every\n 13|//! successful connect. The pump's resolver consults it FIRST and falls back\n*14|//! to id-only discovery on a miss **or a dial failure** — a stale address\n 15|//! can cost one failed dial, never strand a peer.\n 16|//!\n 17|//! Absent/corrupt degrades to empty (seeding is an optimization; the id-only\n...\n 29|/// `pump-ops.json` — M8 decision 20).\n*30|pub fn peer_addrs_file() -> PathBuf {\n 31|    crate::perch::spt_home()\n 32|        .join(\"identity\")\n 33|        .join(\"peer-addrs.json\")\n...\n 37|#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\n*38|pub struct PeerAddrStore {\n*39|    /// Last-known dialable address per peer (opaque `EndpointAddr` JSON).\n 40|    #[serde(default)]\n 41|    pub addrs: BTreeMap<String, serde_json::Value>,\n 42|}\n 43|\n*44|impl PeerAddrStore {\n*45|    /// Load from the canonical [`peer_addrs_file`]. Absent ⇒ empty.\n*46|    pub fn load() -> PeerAddrStore {\n*47|        Self::load_from(&peer_addrs_file())\n 48|    }\n 49|\n 50|    /// Load from an explicit path. Absent/corrupt degrades to empty — a\n 51|    /// broken seed file must never break peer resolution (the id-only\n*52|    /// discovery path is always behind it).\n*53|    pub fn load_from(path: &Path) -> PeerAddrStore {\n 54|        match std::fs::read_to_string(path) {\n 55|            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n*56|            Err(_) => PeerAddrStore::default(),\n 57|        }\n 58|    }\n 59|\n...\n 61|    pub fn save(&self) -> std::io::Result<()> {\n*62|        self.save_to(&peer_addrs_file())\n 63|    }\n 64|\n 65|    /// Persist to an explicit path (atomic; creates the parent dir).\n...\n 95|    /// address FAILS, the pump forgets the stale seed so the next round\n*96|    /// re-resolves via id-only discovery — a stale addr never strands a peer.\n 97|    // [impl->REQ-CONV-1]\n 98|    pub fn forget(&mut self, peer_hex: &str) -> bool {\n 99|        self.addrs.remove(peer_hex).is_some()\n...\n 136|\n*137|        let mut store = PeerAddrStore::load_from(&path);\n 138|        assert!(store.get(\"ab12\").is_none(), \"absent file = empty\");\n 139|\n 140|        let addr = serde_json::json!({\"id\": \"ab12\", \"addrs\": [\"192.168.1.7:4711\"]});\n...\n 144|\n*145|        let reloaded = PeerAddrStore::load_from(&path);\n 146|        assert_eq!(reloaded.get(\"ab12\"), Some(&addr), \"addr survives reload\");\n 147|        assert!(reloaded.get(\"cd34\").is_none(), \"unknown peer stays a miss\");\n 148|\n...\n 161|        std::fs::write(&path, \"not json {{{\").unwrap();\n*162|        assert!(PeerAddrStore::load_from(&path).addrs.is_empty());\n 163|    }\n 164|\n 165|    // [unit->REQ-CONV-1] the one-step record (load → put → save) lands on\n...\n 172|\n*173|        PeerAddrStore::record(&path, \"ef56\", addr.clone()).unwrap();\n*174|        assert_eq!(PeerAddrStore::load_from(&path).get(\"ef56\"), Some(&addr));\n 175|\n 176|        // No-op record on an unchanged value must not error (and must not\n 177|        // care whether the file write was skipped).\n### perch.rs\n 116|/// The member-roster file: `<spt_home>/identity/roster.json` (REQ-MESH-2,\n*117|/// ADR-0017). The subnet discovery directory — a node-level union-merge\n 118|/// grow-set of `(pubkey, label, machine_id, address, last-seen)` per member,\n 119|/// with per-pubkey tombstones. Node-local, replicated via the\n 120|/// pairing/seed-proof'd P2P channel, **never** git-tracked/synced (same class\n### registry.rs\n*1|//! SQLite registry for agent address discovery — `<owlery>/.registry`.\n 2|//!\n 3|//! Schema + surface copied verbatim from sister `registry.rs` (ADR-0001). Maps\n 4|//! an agent id → its TCP address + owning pid. This is the **local** registry\n\nShowing files 1-20 of 21+. Use skip=20 for the next page, or narrow paths/pattern."}],"details":{"scopePath":"spt-core/crates/spt-net/src, spt-core/crates/spt-daemon/src, spt-core/crates/spt-store/src","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":152,"fileCount":20,"files":["spt-core/crates/spt-net/src/lib.rs","spt-core/crates/spt-net/src/net/endpoint.rs","spt-core/crates/spt-net/src/net/pairing/meet.rs","spt-core/crates/spt-net/src/net/pairing/rendezvous.rs","spt-core/crates/spt-net/src/net/pairing/wire.rs","spt-core/crates/spt-net/src/net/registry.rs","spt-core/crates/spt-daemon/src/brain.rs","spt-core/crates/spt-daemon/src/broker.rs","spt-core/crates/spt-daemon/src/daemon.rs","spt-core/crates/spt-daemon/src/msg.rs","spt-core/crates/spt-daemon/src/nethost.rs","spt-core/crates/spt-daemon/src/pairhost.rs","spt-core/crates/spt-daemon/src/pump/mod.rs","spt-core/crates/spt-daemon/src/registryhost.rs","spt-core/crates/spt-daemon/src/seedproofx.rs","spt-core/crates/spt-daemon/src/shelldisc.rs","spt-core/crates/spt-daemon/src/shellwake.rs","spt-core/crates/spt-store/src/peeraddrs.rs","spt-core/crates/spt-store/src/perch.rs","spt-core/crates/spt-store/src/registry.rs"],"fileMatches":[{"path":"spt-core/crates/spt-net/src/lib.rs","count":2},{"path":"spt-core/crates/spt-net/src/net/endpoint.rs","count":20},{"path":"spt-core/crates/spt-net/src/net/pairing/meet.rs","count":20},{"path":"spt-core/crates/spt-net/src/net/pairing/rendezvous.rs","count":1},{"path":"spt-core/crates/spt-net/src/net/pairing/wire.rs","count":1},{"path":"spt-core/crates/spt-net/src/net/registry.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/brain.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/broker.rs","count":6},{"path":"spt-core/crates/spt-daemon/src/daemon.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/msg.rs","count":5},{"path":"spt-core/crates/spt-daemon/src/nethost.rs","count":17},{"path":"spt-core/crates/spt-daemon/src/pairhost.rs","count":13},{"path":"spt-core/crates/spt-daemon/src/pump/mod.rs","count":20},{"path":"spt-core/crates/spt-daemon/src/registryhost.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/seedproofx.rs","count":6},{"path":"spt-core/crates/spt-daemon/src/shelldisc.rs","count":11},{"path":"spt-core/crates/spt-daemon/src/shellwake.rs","count":2},{"path":"spt-core/crates/spt-store/src/peeraddrs.rs","count":20},{"path":"spt-core/crates/spt-store/src/perch.rs","count":1},{"path":"spt-core/crates/spt-store/src/registry.rs","count":1}],"truncated":true,"fileLimitReached":20,"perFileLimitReached":20,"displayContent":"# spt-core/crates/\n\n## spt-net/src/\n### lib.rs\n  6│//! endpoint (WAN, with the n0-relay default + a self-host knob — ADR-0002), mDNS\n *7│//! LAN discovery, TOTP-seeded SPAKE2 pairing (ADR-0005), the eventually-consistent\n  8│//! per-subnet registry (ADR-0006), the subnet notification spool (ADR-0007),\n  9│//! cross-node Psyche sync (ADR-0003 + KNOWN-HAZARDS 6.5), and the update\n 10│//! peer-propagation transport plugged into the M3c update-engine seam (ADR-0004 §D).\n   │...\n 31│//!   D0  scaffold + `net` feature flag                         ← this commit\n*32│//!   D1  Iroh endpoint + n0 relay/self-host + mDNS discovery    (REQ-NET-1, REQ-NET-2)\n 33│//!   D2  TOTP-SPAKE2 pairing + transcript/seed-epoch/rate-limit (REQ-PAIR-1..6)\n 34│//!   D3  per-subnet registry + epoch-lease resolution           (REQ-INST-7,9..13)\n 35│//!   D4  broker-owned QUIC endpoint (ADR-0004 §B)               (REQ-EP-4 seam)\n\n### net/\n#### endpoint.rs\n  20│\n *21│use iroh::address_lookup::MdnsAddressLookup;\n  22│use iroh::endpoint::{presets, IdleTimeout, Incoming, PortmapperConfig, QuicTransportConfig};\n *23│use iroh::{Endpoint, EndpointId, RelayMap, RelayMode, SecretKey};\n  24│use spt_proto::identity::{Identity, PublicKey};\n  25│\n  26│// Re-exported for the daemon (D4): the broker holds live QUIC connections +\n    │...\n  30│pub use iroh::endpoint::{Connection, RecvStream, SendStream};\n *31│pub use iroh::EndpointAddr;\n  32│\n  33│/// The ALPN every spt-core node-to-node QUIC connection negotiates. Versioned so a\n  34│/// future wire break is a new protocol id, not a silent incompatibility.\n    │...\n  79│/// Where this endpoint looks for relay assistance (ADR-0002). Maps onto iroh's\n *80│/// [`RelayMode`]; the default ([`RelayPolicy::N0Default`]) is the zero-config path.\n  81│// [impl->REQ-NET-2]\n  82│#[derive(Debug, Clone)]\n  83│pub enum RelayPolicy {\n    │...\n  92│\n *93│/// Whether the endpoint also runs **mDNS** LAN discovery on top of the preset's n0\n *94│/// DNS discovery. With mDNS on, a node advertises itself and resolves peers by id\n  95│/// alone on the local network, so two machines on the same LAN find each other with\n  96│/// no ticket exchange and no relay round-trip ([`NetEndpoint::connect_by_id`]).\n  97│// [impl->REQ-NET-1]\n    │...\n  99│pub enum LocalDiscovery {\n*100│    /// Advertise + resolve over mDNS (swarm-discovery) in addition to n0 DNS.\n*101│    Mdns,\n*102│    /// No mDNS — WAN discovery only (and direct addresses). Used by hermetic tests.\n 103│    Off,\n 104│}\n 105│\n    │...\n 121│    /// a static `ip:port` ticket (firewall allow-rules, the two-host rig's\n*122│    /// env-derived peer addresses) with no relay/discovery infrastructure.\n 123│    Port(u16),\n 124│}\n 125│\n    │...\n 150│/// (e.g. IPv6 whose AAAA resolves but whose path is dead) silently burns\n*151│/// discovery/connect time on every attempt. We probe each family once at bind and\n 152│/// drop the *dead* one — never a fixed \"prefer IPv4\" (an IPv6-only network must\n 153│/// still work).\n 154│#[derive(Debug, Clone, Copy, PartialEq, Eq)]\n    │...\n 167│/// `:443` is the same discriminator the field incident used by hand\n*168│/// (`Test-NetConnection dns.iroh.link -Port 443`): it catches a half-broken family\n 169│/// whose route exists but whose path is dead, which a mere route-table check\n 170│/// (UDP connect) would miss.\n 171│const PROBE_V4: &str = \"1.1.1.1:443\";\n    │...\n 284│        relay: RelayPolicy,\n*285│        discovery: LocalDiscovery,\n 286│    ) -> Result<NetEndpoint, NetError> {\n*287│        Self::bind_with_alpns(identity, relay, discovery, vec![SPT_NET_ALPN.to_vec()]).await\n 288│    }\n 289│\n 290│    /// Bind on an explicit ALPN set instead of the default trusted [`SPT_NET_ALPN`].\n    │...\n 294│    /// accept loop must not share the trusted message surface (ADR-0005; `pairing.rs`\n*295│    /// \"Why a dedicated pre-trust ALPN\"). All relay/discovery handling is identical to\n 296│    /// [`bind`](Self::bind).\n 297│    // [impl->REQ-NET-1] [impl->REQ-NET-2]\n 298│    pub async fn bind_with_alpns(\n    │...\n 300│        relay: RelayPolicy,\n*301│        discovery: LocalDiscovery,\n 302│        alpns: Vec<Vec<u8>>,\n 303│    ) -> Result<NetEndpoint, NetError> {\n*304│        Self::bind_scoped(identity, relay, discovery, alpns, BindScope::All).await\n 305│    }\n 306│\n 307│    /// The full bind form: [`bind_with_alpns`](Self::bind_with_alpns) plus an\n    │...\n 315│        relay: RelayPolicy,\n*316│        discovery: LocalDiscovery,\n 317│        alpns: Vec<Vec<u8>>,\n 318│        scope: BindScope,\n 319│    ) -> Result<NetEndpoint, NetError> {\n    │...\n 337│        // dead/force-disabled IP family so a half-broken family never silently\n*338│        // burns discovery/connect time. Hermetic scopes (Loopback/Port) keep\n 339│        // dual-stack untouched — they reach no WAN and must stay deterministic\n 340│        // (no probe, no Windows-firewall surprise).\n 341│        let families = match scope {\n    │...\n 400│            RelayPolicy::N0Default => builder,\n*401│            RelayPolicy::SelfHosted(map) => builder.relay_mode(RelayMode::Custom(map)),\n#### registry.rs\n  561│/// resolver uses ([`SubnetRegistry::resolve_visible`]), so a hidden endpoint\n *562│/// never appears — discovery leaks nothing a viewer couldn't reach\n  563│/// (ADR-0006 §6, exclusion by construction). Unroutable (`Offline`) rows are\n  564│/// skipped too: a dead instance serves nothing, so it is not a resource.\n  565│// [impl->REQ-INST-14]\n     │...\n 1816│    // [unit->REQ-INST-14] the projection is the yellow-pages view over\n*1817│    // VISIBLE rows only: a hidden endpoint never appears (discovery leaks\n 1818│    // nothing resolution would refuse), an Offline row is not a resource,\n 1819│    // and an absent blurb renders clean (None, not an error).\n 1820│    #[test]\n\n#### pairing/\n##### meet.rs\n  25│//! close, and would pin an ephemeral key as the peer's durable name. So the\n *26│//! meet endpoint serves **discovery only**: the joiner asks, the responder\n *27│//! answers with its real [`EndpointAddr`] (one tiny length-prefixed frame on a\n  28│//! dedicated pre-trust ALPN, [`SPT_PAIR_MEET_ALPN`]), and the joiner re-dials\n  29│//! the real endpoint over [`SPT_PAIR_ALPN`](super::wire::SPT_PAIR_ALPN) where\n  30│//! the existing SPAKE2 ceremony runs **unchanged** — real pubkeys both ways.\n  31│//!\n *32│//! ## Security posture (token gates discovery, PAKE gates trust)\n  33│//!\n  34│//! Anyone who knows the subnet name and the current code window can derive the\n  35│//! meet keypair, impersonate the listener, and hand the joiner any address —\n    │...\n  45│\n *46│use iroh::{EndpointAddr, EndpointId};\n  47│use sha2::{Digest, Sha256};\n  48│use spt_proto::identity::{Identity, PublicKey};\n  49│\n    │...\n  66│\n *67│/// Hard cap on the meet reply frame — a serialized [`EndpointAddr`] is a few\n  68│/// hundred bytes; 4 KiB bounds a hostile length prefix (same stance as\n  69│/// `wire.rs` MAX_FRAME).\n  70│const MAX_MEET_FRAME: usize = 4096;\n    │...\n  94│/// same keypair (and therefore the *public* id it dials); the keypair gates\n *95│/// nothing but discovery (module docs).\n  96│// [impl->REQ-PAIR-5]\n  97│pub fn rendezvous_identity(token: &[u8; 32]) -> Identity {\n  98│    let mut h = Sha256::new();\n    │...\n 119│/// Bind the meet listener for `(subnet_name, totp_step)` under the derived\n*120│/// identity. The relay/discovery/scope knobs mirror\n 121│/// [`NetEndpoint::bind_scoped`]; production passes the node's configured\n 122│/// [`RelayPolicy`] so the derived id is relay-reachable (and n0-DNS\n 123│/// resolvable) by a joiner that knows nothing but the two user inputs.\n    │...\n 128│    relay: RelayPolicy,\n*129│    discovery: LocalDiscovery,\n 130│    scope: BindScope,\n 131│) -> Result<RendezvousListener, NetError> {\n 132│    let id = rendezvous_identity(&rendezvous_token(subnet_name, totp_step));\n    │...\n 135│        relay,\n*136│        discovery,\n 137│        vec![SPT_PAIR_MEET_ALPN.to_vec()],\n 138│        scope,\n 139│    )\n    │...\n 155│    // [impl->REQ-PAIR-5]\n*156│    pub async fn serve_once(&self, real_addr: &EndpointAddr) -> Result<(), MeetError> {\n 157│        let incoming = self\n 158│            .ep\n 159│            .accept()\n    │...\n 193│/// [`dial_via_rendezvous`]; this explicit-address form is the seam for\n*194│/// hermetic tests and static-`ip:port` rigs where no relay/discovery exists.\n 195│// [impl->REQ-PAIR-5]\n 196│pub async fn meet_at(\n 197│    dialer: &NetEndpoint,\n*198│    meet_addr: EndpointAddr,\n*199│) -> Result<EndpointAddr, MeetError> {\n 200│    let conn = dialer\n 201│        .connect_with_alpn(meet_addr, SPT_PAIR_MEET_ALPN)\n 202│        .await\n    │...\n 225│        .map_err(|e| MeetError::Protocol(format!(\"read addr: {e}\")))?;\n*226│    let addr: EndpointAddr = serde_json::from_slice(&json)\n 227│        .map_err(|e| MeetError::Protocol(format!(\"decode addr: {e}\")))?;\n 228│    conn.close(0u32.into(), b\"met\");\n 229│    Ok(addr)\n    │...\n 265│/// The rendezvous MEET only — resolve the seed-holder's **real, stable**\n*266│/// [`EndpointAddr`] by racing the ±1-window meet ids, WITHOUT the final ceremony\n 267│/// dial. This is the meet half of [`dial_via_rendezvous`] split out for the\n 268│/// two-phase join (REQ-JOIN-TWO-PHASE): the daemon resolves and HOLDS this\n 269│/// address, then collects the code and dials it over [`SPT_PAIR_ALPN`] for the\n    │...\n 277│    totp_step: u64,\n*278│) -> Result<EndpointAddr, MeetError> {\n 279│    let mut probes = tokio::task::JoinSet::new();\n 280│    for token in rendezvous_window(subnet_name, totp_step) {\n 281│        let pk = rendezvous_identity(&token).public_key();\n    │...\n 285│        probes.spawn(async move {\n*286│            tokio::time::timeout(MEET_PROBE_TIMEOUT, meet_at(&dialer, EndpointAddr::new(id)))\n 287│                .await\n 288│                .map_err(|_| MeetError::Protocol(\"meet probe timed out\".into()))\n 289│                .and_then(|r| r)\n    │...\n 329│\n*330│    /// Bind a hermetic (loopback, no relay/discovery) endpoint on `alpns`.\n 331│    async fn hermetic(id: &Identity, alpns: Vec<Vec<u8>>) -> NetEndpoint {\n 332│        NetEndpoint::bind_scoped(\n 333│            id,\n    │...\n 343│    /// The meet listener's derived-id address with its loopback sockets\n*344│    /// attached — what relay/discovery resolution would produce, built\n 345│    /// explicitly because the hermetic test has neither. The id in the addr\n 346│    /// is RE-DERIVED from (name, step), not copied from the listener, so the\n 347│    /// dial proves the listener really holds the token-derived key (TLS\n 348│    /// authenticates the id).\n*349│    fn derived_addr(listener: &RendezvousListener, subnet: &str, step: u64) -> EndpointAddr {\n 350│        let pk = rendezvous_endpoint_id(subnet, step);\n 351│        let id = EndpointId::from_bytes(&pk.to_bytes()).expect(\"valid derived id\");\n 352│        let socks: Vec<SocketAddr> = listener.endpoint().addr().ip_addrs().copied().collect();\n##### rendezvous.rs\n 1│//! Pre-trust pairing **rendezvous token** derivation (ADR-0006; `CONTEXT.md` \"link\n*2│//! discovery (TOTP + name)\", D2f, REQ-PAIR-5).\n 3│//!\n 4│//! Two not-yet-trusted nodes that don't know each other's node id must still *meet* at\n 5│//! the relay to run the ceremony. They meet on a shared **rendezvous token** both can\n##### wire.rs\n 36│//!\n*37│//! Like [`endpoint`](super::super::endpoint) tests, this dials by `EndpointAddr` over\n 38│//! loopback with relays disabled. The relay **rendezvous** (`H(subnet-name ‖ step)`,\n 39│//! `CONTEXT.md`) that lets two nodes that don't know each other's id *meet* is deferred\n 40│//! to D9; here the joiner already holds the responder's dialable address. Seed transfer\n\n## spt-daemon/src/\n### brain.rs\n 1285│    /// Dial a peer over the broker-owned endpoint (D4a). `addr` is the peer's\n*1286│    /// serialized `EndpointAddr` (as another node's `net-status` reply carries).\n 1287│    /// With `op_id` the dial is exactly-once: a replay of the same durable id\n 1288│    /// after a brain crash is deduped at the broker and answered with the\n 1289│    /// already-open connection ([`NetDialed::applied_now`] distinguishes).\n### broker.rs\n   45│use spt_net::net::attach::AttachIntent;\n  *46│use spt_net::net::endpoint::EndpointAddr;\n   47│use spt_store::perch::{resolve_perch_path, ParentHint};\n   48│\n   49│use crate::codec::read_frame;\n     │...\n 2573│    subnet: String,\n*2574│    addr: EndpointAddr,\n 2575│    /// When the wait-for-code window expires (meet + 5 minutes).\n 2576│    deadline: Instant,\n 2577│}\n     │...\n 3919│            .ok_or(\"net disabled: this broker was bound without a network host\")?;\n*3920│        let addr: EndpointAddr =\n 3921│            serde_json::from_value(req.addr).map_err(|e| format!(\"bad net-dial addr: {e}\"))?;\n 3922│        match req.op_id {\n 3923│            None => {\n     │...\n 3968│    /// submit. Decode the target addr, derive its correlation key\n*3969│    /// (`EndpointAddr::node_id_hex` — the peer the outcome events key on), fire\n 3970│    /// the concurrent dial ([`NetHost::submit_dial`], returns immediately), and\n 3971│    /// ack RIGHT AWAY. The dial's real outcome rides the presence stream\n 3972│    /// (CONNECTED / DIAL_FAILED), never this reply — so one dead peer can neither\n     │...\n 3984│            .ok_or(\"net disabled: this broker was bound without a network host\")?;\n*3985│        let addr: EndpointAddr = serde_json::from_value(req.addr)\n 3986│            .map_err(|e| format!(\"bad net-dial-submit addr: {e}\"))?;\n 3987│        // Correlation key: the target's stable hex (from the dial addr's node id\n 3988│        // — same derivation as the roster-member path at dispatch_pair_* uses).\n     │...\n 4041│            Some(v) => Some(\n*4042│                serde_json::from_value::<EndpointAddr>(v)\n 4043│                    .map_err(|e| format!(\"bad pair-join responder_addr: {e}\"))?,\n 4044│            ),\n 4045│            None => None,\n### daemon.rs\n 374│/// Try to bring up the broker's network host once: build the production\n*375│/// `NetConfig` (durable node.key + relay/discovery/membership) and start the\n 376│/// endpoint, wiring on-connect roster propagation (REQ-MESH-2). `None` on a\n 377│/// `NET_BIND_FAIL` (e.g. the network/DNS stack not ready yet) or a missing\n 378│/// identity — the caller binds net-less and (REQ-DAEMON-9) retries.\n    │...\n 390│        relay,\n*391│        discovery: LocalDiscovery::Mdns,\n 392│        scope: BindScope::All, // production: real interfaces\n 393│        // Mesh-D2: enforce seed-proof on every dial + accept, reading the live\n 394│        // subnet store each connect.\n### msg.rs\n 531│    pub node_id_hex: Option<String>,\n*532│    /// The endpoint's dialable address — a serde-serialized iroh `EndpointAddr`,\n 533│    /// opaque to this catalog (the net host owns its shape). `null` when disabled.\n 534│    #[serde(default)]\n 535│    pub addr: serde_json::Value,\n    │...\n 568│pub struct NetDialReq {\n*569│    /// The peer's dialable address — a serde-serialized iroh `EndpointAddr`\n 570│    /// (opaque JSON here; the broker's net host decodes it).\n 571│    pub addr: serde_json::Value,\n 572│    /// The durable op id for exactly-once dialing. `Some(id)` routes the dial\n    │...\n 593│    /// Skip the rendezvous and dial THIS responder address directly (a\n*594│    /// serde-serialized `EndpointAddr`) — the static-`ip:port` rig seam,\n 595│    /// mirroring `pairing::meet::meet_at`'s explicit-address form. The\n 596│    /// guided CLI never sets it.\n 597│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    │...\n 629│    pub subnet: String,\n*630│    /// Request a detailed discovery trace in the failure detail\n 631│    /// (REQ-JOIN-DIAGNOSTICS, `spt subnet join --verbose`). Additive\n 632│    /// serde-default — an older CLI omits it (concise failures).\n 633│    #[serde(default)]\n    │...\n 680│    /// the connection's current path addresses) — a serde-serialized iroh\n*681│    /// `EndpointAddr`, opaque here. The address-seeding write-back source\n 682│    /// (M8 decision 20, REQ-CONV-1): what the pump persists into\n 683│    /// `peer-addrs.json` after a successful dial. `null` from an older\n 684│    /// broker or when no path is readable (additive serde-default field).\n### nethost.rs\n   22│//!\n  *23│//! `MdnsAddressLookup` and the relay session are both constructed *inside* the\n   24│//! iroh endpoint, so broker ownership of the endpoint closes the ADR-0004 §B\n   25│//! \"mDNS socket / relay session\" row with no extra machinery: there is no\n   26│//! separate socket to own.\n     │...\n   37│use spt_net::net::endpoint::{\n  *38│    BindScope, Connection, EndpointAddr, LocalDiscovery, NetEndpoint, RecvStream, RelayPolicy,\n   39│    SendStream, SPT_NET_ALPN,\n   40│};\n   41│use spt_net::net::mesh::seedproof::ProofRole;\n     │...\n   85│/// (from `daemon.json` in production; [`RelayPolicy::Disabled`] in hermetic\n  *86│/// tests), and whether mDNS LAN discovery rides along.\n   87│pub struct NetConfig {\n   88│    /// The node identity the endpoint binds as (seed → same ed25519 keypair).\n   89│    pub identity: Identity,\n     │...\n   91│    pub relay: RelayPolicy,\n  *92│    /// mDNS LAN discovery on/off (off in hermetic tests).\n  *93│    pub discovery: LocalDiscovery,\n   94│    /// Socket bind scope: [`BindScope::All`] in production;\n   95│    /// [`BindScope::Loopback`] in hermetic tests (no real interface touched,\n   96│    /// no per-test-binary Windows firewall prompt).\n     │...\n  506│/// the path address string, or `null` when id-only / path-less (nothing worth\n *507│/// seeding over discovery). Shared by [`register_conn`]'s presence write-back\n  508│/// and [`NetHost::conn_remote_addr_json`] so both seed identically.\n  509│// [impl->REQ-CONV-1]\n  510│fn observed_addr_json(conn: &Connection) -> serde_json::Value {\n     │...\n  512│    if addr.is_empty() {\n *513│        return serde_json::Value::Null; // id-only adds nothing over discovery\n  514│    }\n  515│    serde_json::to_value(addr).unwrap_or(serde_json::Value::Null)\n  516│}\n     │...\n  536│    /// `bounded_block_on`; the submit via its own `timeout`).\n *537│    async fn connect(self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n  538│        let conn = self\n  539│            .endpoint\n  540│            .connect(addr)\n     │...\n  753│    loopback_conn: Mutex<Option<u64>>,\n *754│    /// Serializes [`Self::open_loopback_pair`] (M11-W3) so the peer-row discovery\n  755│    /// (a before/after diff on the loopback conn's inbound rows) sees exactly the\n  756│    /// one row this open minted — concurrent pair-opens on the shared loopback conn\n  757│    /// would otherwise race the diff.\n     │...\n  829│                cfg.relay.clone(),\n *830│                cfg.discovery,\n  831│                vec![\n  832│                    SPT_NET_ALPN.to_vec(),\n  833│                    spt_net::net::pairing::wire::SPT_PAIR_ALPN.to_vec(),\n     │...\n  909│            cfg.relay,\n *910│            cfg.discovery,\n  911│            cfg.scope,\n  912│        );\n  913│\n     │...\n 1019│        code: &str,\n*1020│        responder_addr: Option<EndpointAddr>,\n 1021│    ) -> Result<String, crate::pairhost::JoinFail> {\n 1022│        let endpoint = Arc::clone(&self.endpoint);\n 1023│        self.runtime.handle().block_on(async move {\n     │...\n 1036│        verbose: bool,\n*1037│    ) -> Result<EndpointAddr, crate::pairhost::JoinFail> {\n 1038│        let endpoint = Arc::clone(&self.endpoint);\n 1039│        self.runtime.handle().block_on(async move {\n 1040│            crate::pairhost::meet_seed_holder(&endpoint, subnet, verbose).await\n     │...\n 1049│    /// The endpoint's dialable address (id + currently-known direct/relay paths).\n*1050│    pub fn addr(&self) -> EndpointAddr {\n 1051│        self.endpoint.addr()\n 1052│    }\n 1053│\n     │...\n 1089│    // [impl->REQ-DAEMON-2]\n*1090│    pub fn dial(&self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n 1091│        let plan = self.dial_plan();\n 1092│        let sem = Arc::clone(&self.dial_semaphore);\n 1093│        // Bounded (REQ-HAZARD-BROKER-QUIC-DEADLINE): the `connect` + `prove_membership`\n     │...\n 1118│    // [impl->REQ-PUMP-PEER-ISOLATION]\n*1119│    pub fn submit_dial(&self, addr: EndpointAddr, remote_id_hex: String) {\n 1120│        let plan = self.dial_plan();\n 1121│        let sem = Arc::clone(&self.dial_semaphore);\n 1122│        let shared = Arc::clone(&self.shared);\n     │...\n 1566│            relay: RelayPolicy::Disabled,\n*1567│            discovery: LocalDiscovery::Off,\n 1568│            scope: BindScope::Loopback,\n 1569│            membership: None,\n 1570│        }\n### pairhost.rs\n  92│            // pump's post-join first sync dials it directly instead of\n *93│            // paying the id-only discovery cold start.\n  94│            // [impl->REQ-CONV-1]\n  95│            record_ceremony_peer_addr(&conn, &outcome.joiner_hex);\n  96│            // Re-pair overwrite (M8 decision 13, REQ-SUBNET-7): a COMPLETED\n    │...\n 172│    relay: RelayPolicy,\n*173│    discovery: LocalDiscovery,\n 174│    scope: BindScope,\n 175│) {\n 176│    let scope = match scope {\n    │...\n 205│                window_tasks.push(tokio::spawn(async move {\n*206│                    let listener = match bind_rendezvous(&name, step, relay, discovery, scope).await\n 207│                    {\n 208│                        Ok(l) => l,\n 209│                        Err(e) => {\n    │...\n 299│    code: &str,\n*300│    responder_addr: Option<spt_net::net::endpoint::EndpointAddr>,\n 301│) -> Result<String, JoinFail> {\n 302│    let mut subnets = SubnetStore::load();\n 303│    // Roster (REQ-MESH-2): run_initiator merges the seed-holder's transferred\n    │...\n 420│    subnet_name: &str,\n*421│    responder_addr: Option<spt_net::net::endpoint::EndpointAddr>,\n 422│) -> Result<Connection, JoinFail> {\n 423│    match responder_addr {\n 424│        Some(addr) => endpoint\n    │...\n 454│    verbose: bool,\n*455│) -> Result<spt_net::net::endpoint::EndpointAddr, JoinFail> {\n 456│    const SEARCH_DEADLINE: Duration = Duration::from_secs(75);\n 457│    let start = std::time::Instant::now();\n 458│    let attempts = std::cell::Cell::new(0u32);\n    │...\n 566│/// Compose the meet-failure detail surfaced to the joiner (REQ-JOIN-DIAGNOSTICS):\n*567│/// concise (the last concrete error) by default; a structured discovery trace\n 568│/// (families the joiner could bind, rendezvous window, attempts/elapsed-vs-deadline,\n 569│/// the joiner's own CEREMONY CLOCK — REQ-JOIN-VERBOSE-CLOCK, the enlyzeam blind\n 570│/// spot — and the last error) under `--verbose`. Pure — the unit-tested core.\n    │...\n 591│         \\x20 joiner clock: {}\\n\\\n*592│         \\x20 discovery: ±1 TOTP window = 3 derived rendezvous ids per attempt \\\n 593│         (resolved via relay + n0-DNS / mDNS)\\n\\\n 594│         \\x20 last error: {last_err}\",\n 595│        clock.render()\n    │...\n 625│/// the pump's next dial. Best-effort and skip-on-pathless: seeding is an\n*626│/// optimization; the id-only discovery path is always behind it.\n 627│// [impl->REQ-CONV-1]\n 628│fn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\n 629│    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n 630│    if addr.is_empty() {\n*631│        return; // id-only adds nothing over discovery\n 632│    }\n 633│    let Ok(value) = serde_json::to_value(addr) else {\n 634│        return;\n 635│    };\n*636│    let path = spt_store::peeraddrs::peer_addrs_file();\n*637│    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n 638│        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n 639│    }\n 640│}\n    │...\n 742│    // detail: concise (just the last concrete error) by default, and a structured\n*743│    // discovery trace under --verbose (families / rendezvous window / attempts vs\n 744│    // deadline / the JOINER's ceremony clock / the last error never swallowed).\n 745│    // The verbose dump — including the joiner's step/offset/state, the enlyzeam\n 746│    // blind spot — is what a stuck WAN join needs.\n### registryhost.rs\n 364│        // broadcast=subnet ride every row this node authors — the other-node\n*365│        // discovery arm. Computed once per scan (the registration set is\n 366│        // node-level).\n 367│        // [impl->REQ-EP-5]\n 368│        let shell_adapters: Vec<String> = spt_runtime::registry::registered(&perch::adapters_dir())\n### seedproofx.rs\n   47│use spt_proto::identity::{Identity, PublicKey};\n  *48│use spt_store::peeraddrs::PeerAddrStore;\n   49│use spt_store::roster::{RosterEntry, RosterStore, Tombstone};\n   50│use spt_store::subnet::SubnetStore;\n   51│\n     │...\n  869│// [impl->REQ-MESH-2]\n *870│pub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\n  871│    let mut changed = false;\n  872│    for e in entries {\n  873│        if e.pubkey_hex == self_hex {\n     │...\n  884│\n *885│/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\n  886│/// re-read per connect (rare; honors a concurrent pairing/revoke without a\n  887│/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\n  888│/// provider stamps the node's live address onto its self-entry so peers learn\n     │...\n  932│            let _ = store.save();\n *933│            let path = spt_store::peeraddrs::peer_addrs_file();\n *934│            let mut pa = PeerAddrStore::load_from(&path);\n  935│            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\n  936│                let _ = pa.save_to(&path);\n  937│            }\n     │...\n 1056│\n*1057│        let mut pa = PeerAddrStore::default();\n 1058│        pa.put(\"bb\", observed_b.clone()); // a fresher, locally-observed addr\n 1059│\n 1060│        let entries = vec![\n### shelldisc.rs\n  *1│//! Shell discovery + agent-context injection (M5-D3d — CONTEXT §Shell model\n   2│//! \"Broadcast policy\" / \"Agent awareness\").\n   3│//!\n   4│//! Discovery is **local-node in D3**: an owner sees its *own* instances\n    │...\n  13│//!\n *14│//! [`shell_context`] renders the discovery as the agent's background context\n  15│//! — the caller injects it at reported-boundary resurface points as a\n  16│//! **deferred** spool row (hook-channel context that never wakes a listener;\n *17│//! same surface the notif resurface rides). Empty discovery renders nothing.\n  18│// [impl->REQ-EP-5]\n  19│\n  20│use std::path::Path;\n    │...\n 151│/// The other-node adapter lines (`GameRobot (on node ab12cd34…)`) — node hex\n*152│/// truncated for display; the full hex stays in the discovery value. The\n 153│/// spawn caveat is rendered once at the section header, not per line.\n 154│pub fn remote_instantiable_lines(d: &ShellDiscovery) -> Vec<String> {\n 155│    d.remote_instantiable\n    │...\n 164│/// Render `owner`'s shell context for boundary injection — the \"agent ideally\n*165│/// just knows\" surface (CONTEXT §Agent awareness). `None` when discovery is\n 166│/// empty: an agent with no shell world gets no row at all.\n 167│// [impl->REQ-EP-5]\n 168│pub fn shell_context(\n    │...\n 213│        out.push_str(\n*214│            \"\\nshell adapters on other subnet nodes (discovery only — cross-node spawn is deferred):\",\n 215│        );\n 216│        for line in remote_instantiable_lines(d) {\n 217│            out.push_str(\"\\n  \");\n    │...\n 245│\n*246│    // [unit->REQ-EP-5] discovery shapes: own instances always list;\n 247│    // instantiable = registered shell adapters with broadcast subnet/same-node\n 248│    // — broadcast=none and absent broadcast never surface; a harness adapter\n 249│    // never surfaces; a deregistered adapter drops out of instantiable while\n    │...\n 251│    #[test]\n*252│    fn discovery_own_plus_broadcast_gated_instantiable() {\n 253│        let tmp = tempfile::tempdir().unwrap();\n 254│        let home = tmp.path();\n 255│        let owlery = home.join(\"owlery\");\n    │...\n 307│    // arm 2): subnet-broadcast adapters gossiped on other nodes' registry\n*308│    // rows join discovery — deduped per (adapter, node), own-node and\n 309│    // Offline rows skipped, locally-instantiable names suppressed (the local\n 310│    // entry covers them) — and render as their own caveated section.\n 311│    #[test]\n    │...\n 370│    // shapes (alias-first, adapter never obscured; broadcast labeled); a\n*371│    // section absent when its half is empty; None on empty discovery — an\n 372│    // agent with no shell world gets no row at all.\n 373│    #[test]\n 374│    fn shell_context_renders_sections_and_empties_to_none() {\n    │...\n 379│\n*380│        // Empty discovery → no context.\n 381│        let none = spt_runtime::registry::registered(&adapters);\n 382│        assert_eq!(shell_context(&owlery, \"doyle\", &none), None);\n 383│\n### shellwake.rs\n 363│fn forward_wake(owner: &str, node: &str) -> Result<String, String> {\n*364│    use spt_net::net::endpoint::addr_for_node_hex;\n*365│    let addr = addr_for_node_hex(node)\n 366│        .and_then(|a| serde_json::to_value(a).ok())\n 367│        .ok_or_else(|| format!(\"no dialable address for {node}\"))?;\n 368│    let mut brain =\n\n### pump/\n#### mod.rs\n  67│\n *68│use spt_net::net::endpoint::addr_for_node_hex;\n  69│use spt_store::epoch::EpochSource;\n *70│use spt_store::peeraddrs::PeerAddrStore;\n  71│use spt_store::perch;\n  72│use spt_store::subnet::SubnetStore;\n  73│use spt_store::visibility::VisibilityStore;\n    │...\n 205│/// address (the serde JSON `net-dial` carries). Production resolution lets\n*206│/// discovery do the work ([`production_resolver`]); hermetic tests inject a\n*207│/// concrete address map (loopback endpoints run no discovery).\n 208│pub type PeerResolver = Box<dyn Fn(&str) -> Option<serde_json::Value> + Send>;\n 209│\n 210│/// The production resolver: an id-only iroh address — mDNS on the LAN, n0\n*211│/// DNS on the WAN (`addr_for_node_hex`).\n 212│pub fn production_resolver() -> PeerResolver {\n*213│    Box::new(|hex| addr_for_node_hex(hex).and_then(|a| serde_json::to_value(a).ok()))\n 214│}\n 215│\n 216│/// Where this node's pump-side stores live. Production = the canonical\n    │...\n 251│    /// `peer-addrs.json` — last-known peer addresses (M8 decisions 14/20,\n*252│    /// REQ-CONV-1): consulted before id-only discovery, written back after\n*253│    /// every successful dial ([`spt_store::peeraddrs::PeerAddrStore`]).\n*254│    pub peer_addrs: PathBuf,\n 255│    /// The pump's last-tick heartbeat (M8 decision 23, REQ-DAEMON-5):\n 256│    /// epoch-ms written while the loop is alive, rendered by\n 257│    /// `spt daemon status` / the `subnet status` stall warning\n    │...\n 282│            advertise_marker: identity.join(crate::registryhost::ADVERTISE_MARKER_FILE),\n*283│            peer_addrs: identity.join(\"peer-addrs.json\"),\n 284│            heartbeat: crate::endpoint::pump_heartbeat_path(),\n 285│            rotations: identity.join(\"rotation-pending.json\"),\n 286│        }\n    │...\n 626│            } else if peer_eligible(&sched, peer_hex, round_start) {\n*627│                if let Some(addr) = resolve_submit_addr(&resolver, peer_hex, &paths.peer_addrs) {\n 628│                    match brain.submit_dial(addr) {\n 629│                        Ok(()) => {\n 630│                            pending.insert(peer_hex.clone());\n    │...\n 665│                    ev, &mut brain, &mut ops, &mut workers, &due_flags, &mut conns, &mut sched,\n*666│                    &mut pending, &peer_subnets, &ctx, &paths.peer_addrs, round_start,\n 667│                )?,\n 668│                DrainStep::Skip => continue, // the event carrier only carries presence\n 669│                DrainStep::RoundDone => break, // quiet (TimedOut) — drain done\n    │...\n 800│/// signal, and drop the stale seed (REQ-CONV-1 self-heal → next round re-resolves\n*801│/// via discovery). `DISCONNECTED` → drop the cached conn, NO backoff (redial-\n 802│/// eligible immediately, Q3). A future presence kind is tolerated (no-op).\n 803│// [impl->REQ-PUMP-PEER-ISOLATION]\n 804│#[allow(clippy::too_many_arguments)]\n    │...\n 815│    ctx: &RoundCtx,\n*816│    peer_addrs: &std::path::Path,\n 817│    now: Instant,\n 818│) -> io::Result<()> {\n 819│    let is_target = peer_subnets.contains_key(&ev.remote_id_hex);\n*820│    if presence_state_effect(&ev, conns, sched, pending, peer_addrs, is_target, now) {\n 821│        // A CONNECTED peer that is a fan target this round → advertise NOW.\n 822│        if let Some(subs) = peer_subnets.get(&ev.remote_id_hex) {\n 823│            run_peer_subnets(\n    │...\n 852│    pending: &mut HashSet<String>,\n*853│    peer_addrs: &std::path::Path,\n 854│    is_target: bool,\n 855│    now: Instant,\n 856│) -> bool {\n    │...\n 864│                let _ =\n*865│                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n 866│            }\n 867│            is_target\n 868│        }\n    │...\n 878│            // Stale-seed self-heal (REQ-CONV-1): forget the seed so the next\n*879│            // eligible round re-resolves via id-only discovery.\n*880│            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\n 881│            false\n 882│        }\n 883│        PRESENCE_DISCONNECTED => {\n    │...\n 940│/// REQ-CONV-1 seeded order): the durable last-known address (`peer-addrs.json`)\n*941│/// FIRST — the cold-start fast path that skips the id-only discovery round-trip —\n\n## spt-store/src/\n### peeraddrs.rs\n   4│//! (lowercase-hex pubkey) to its **last-known dialable address** — an opaque,\n  *5│//! serde-serialized iroh `EndpointAddr` (this crate never grows an iroh\n   6│//! dependency edge; the value's shape belongs to the net layer, same posture\n   7│//! as the broker IPC's `net-dial` payload).\n   8│//!\n  *9│//! Why it exists: production peer resolution is id-only discovery (mDNS on\n  10│//! the LAN, n0 DNS on the WAN) — both cold starts pay it in full (~1 min\n  11│//! observed). Two writers keep this file warm: the pairing ceremony (both\n  12│//! sides, from the live ceremony connection) and the peer pump on every\n  13│//! successful connect. The pump's resolver consults it FIRST and falls back\n *14│//! to id-only discovery on a miss **or a dial failure** — a stale address\n  15│//! can cost one failed dial, never strand a peer.\n  16│//!\n  17│//! Absent/corrupt degrades to empty (seeding is an optimization; the id-only\n    │...\n  29│/// `pump-ops.json` — M8 decision 20).\n *30│pub fn peer_addrs_file() -> PathBuf {\n  31│    crate::perch::spt_home()\n  32│        .join(\"identity\")\n  33│        .join(\"peer-addrs.json\")\n    │...\n  37│#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\n *38│pub struct PeerAddrStore {\n *39│    /// Last-known dialable address per peer (opaque `EndpointAddr` JSON).\n  40│    #[serde(default)]\n  41│    pub addrs: BTreeMap<String, serde_json::Value>,\n  42│}\n  43│\n *44│impl PeerAddrStore {\n *45│    /// Load from the canonical [`peer_addrs_file`]. Absent ⇒ empty.\n *46│    pub fn load() -> PeerAddrStore {\n *47│        Self::load_from(&peer_addrs_file())\n  48│    }\n  49│\n  50│    /// Load from an explicit path. Absent/corrupt degrades to empty — a\n  51│    /// broken seed file must never break peer resolution (the id-only\n *52│    /// discovery path is always behind it).\n *53│    pub fn load_from(path: &Path) -> PeerAddrStore {\n  54│        match std::fs::read_to_string(path) {\n  55│            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n *56│            Err(_) => PeerAddrStore::default(),\n  57│        }\n  58│    }\n  59│\n    │...\n  61│    pub fn save(&self) -> std::io::Result<()> {\n *62│        self.save_to(&peer_addrs_file())\n  63│    }\n  64│\n  65│    /// Persist to an explicit path (atomic; creates the parent dir).\n    │...\n  95│    /// address FAILS, the pump forgets the stale seed so the next round\n *96│    /// re-resolves via id-only discovery — a stale addr never strands a peer.\n  97│    // [impl->REQ-CONV-1]\n  98│    pub fn forget(&mut self, peer_hex: &str) -> bool {\n  99│        self.addrs.remove(peer_hex).is_some()\n    │...\n 136│\n*137│        let mut store = PeerAddrStore::load_from(&path);\n 138│        assert!(store.get(\"ab12\").is_none(), \"absent file = empty\");\n 139│\n 140│        let addr = serde_json::json!({\"id\": \"ab12\", \"addrs\": [\"192.168.1.7:4711\"]});\n    │...\n 144│\n*145│        let reloaded = PeerAddrStore::load_from(&path);\n 146│        assert_eq!(reloaded.get(\"ab12\"), Some(&addr), \"addr survives reload\");\n 147│        assert!(reloaded.get(\"cd34\").is_none(), \"unknown peer stays a miss\");\n 148│\n    │...\n 161│        std::fs::write(&path, \"not json {{{\").unwrap();\n*162│        assert!(PeerAddrStore::load_from(&path).addrs.is_empty());\n 163│    }\n 164│\n 165│    // [unit->REQ-CONV-1] the one-step record (load → put → save) lands on\n    │...\n 172│\n*173│        PeerAddrStore::record(&path, \"ef56\", addr.clone()).unwrap();\n*174│        assert_eq!(PeerAddrStore::load_from(&path).get(\"ef56\"), Some(&addr));\n 175│\n 176│        // No-op record on an unchanged value must not error (and must not\n 177│        // care whether the file write was skipped).\n### perch.rs\n 116│/// The member-roster file: `<spt_home>/identity/roster.json` (REQ-MESH-2,\n*117│/// ADR-0017). The subnet discovery directory — a node-level union-merge\n 118│/// grow-set of `(pubkey, label, machine_id, address, last-seen)` per member,\n 119│/// with per-pubkey tombstones. Node-local, replicated via the\n 120│/// pairing/seed-proof'd P2P channel, **never** git-tracked/synced (same class\n### registry.rs\n*1│//! SQLite registry for agent address discovery — `<owlery>/.registry`.\n 2│//!\n 3│//! Schema + surface copied verbatim from sister `registry.rs` (ADR-0001). Maps\n 4│//! an agent id → its TCP address + owning pid. This is the **local** registry"},"isError":false,"timestamp":1784069058623}}
{"type":"message","id":"9c94c2ae","parentId":"ccc03db6","timestamp":"2026-07-14T22:44:18.632Z","message":{"role":"toolResult","toolCallId":"call_8kr98WpVtrXMt2BecYEZOlUr|fc_0b084cf0b521ab15016a56bbc25c408190a3c364c16f1750e1","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/spt-daemon/src/\n## attach.rs\n 76|    Exited(Option<i32>),\n*77|    /// The operator closed its send side (detached); the viewport ended with\n 78|    /// the session still running.\n*79|    Detached,\n 80|    /// This controller was DISPLACED by a different operator's `--take`/`kick`\n 81|    /// (REQ-KICK-1): the loud `Displaced` notice was sent and the stream\n 82|    /// finished. The endpoint stays driven (by the taker) — no dormant edge.\n...\n 502|                if role == Some(ServeRole::Controller) {\n*503|                    // The driver detached — the endpoint rests warm (controller-\n 504|                    // only; a viewer leaving is wake-neutral).\n 505|                    feed_rest(endpoint, crate::resting::RestEvent::Detach);\n 506|                }\n...\n 509|                }\n*510|                return Ok(AttachServeOutcome::Detached);\n 511|            }\n 512|\n 513|            // ── Session → wire: output and exit. ────────────────────────────\n## brain.rs\n 215|        frames: Receiver<io::Result<Envelope>>,\n*216|        /// The reader-thread handle — held so the thread is owned, not detached\n 217|        /// silently. On a supervised restart the whole [`Brain`] drops; this\n 218|        /// handle drops with it (the thread, blocked in `read_frame`, is\n 219|        /// abandoned and exits when the old conn closes — KH 7.6).\n...\n 1839|    /// connects (cold_start sends the hello), the stub recv_hello's it, then loops:\n*1840|    /// it owns the server `Stream` and writes any envelope the test feeds via `feed`.\n 1841|    /// (We never need to READ the brain's writes for these tests — the subscribe\n 1842|    /// `attach_skip_to_live` sends is harmlessly left in the OS socket buffer; the\n 1843|    /// frames are tiny. We drop the recv half so it does not hold resources.)\n## brainproc.rs\n 160|    // Persist this brain generation's stderr to the rotating SPT_HOME/logs sink\n*161|    // (REQ-DAEMON-STDERR-PERSIST) — a detached brain's stdio is /dev/null, so every\n 162|    // diagnostic below would otherwise vanish (the incident-night RCA-blind gap). Runs\n 163|    // FIRST so even the BRAIN_UP line and a connect failure are captured. Best-effort.\n 164|    // [impl->REQ-DAEMON-STDERR-PERSIST]\n...\n 986|/// Spawn the production brain child: re-exec `daemon brain` as a plain\n*987|/// (non-detached) managed child, so it inherits the broker's environment —\n*988|/// including `SPT_HOME` — and dies with no orphaning. NOT `spawn_detached`\n 989|/// (that path rebuilds the Windows env block and would drop `SPT_HOME`). The\n 990|/// broker stamps `{generation, start-reason}` onto the argv (ADR-0018 V2).\n 991|///\n...\n 1043|    // OWN process group so the daemon can reap the brain + everything it spawns\n*1044|    // (the shellwake watchers, the detached Psyches — all inherit this group) as\n 1045|    // one unit on stop, without signalling the daemon itself. Windows roots the\n 1046|    // reap on a Job object instead (assigned in the supervisor via BrainReaper).\n 1047|    #[cfg(unix)]\n## broker.rs\n 141|/// that stays full for [`CONTROLLER_WRITE_DEADLINE`] (tracked via\n*142|/// [`ControllerSink::last_ok`]) is detached. Generous so a momentary slow consumer\n 143|/// never trips the deadline.\n 144|const CONTROLLER_CHANNEL_DEPTH: usize = 4096;\n 145|\n...\n 582|    /// load-bearing for at-least-once output: advancing past a *failed* write to a\n*583|    /// dying-but-not-yet-detached controller would make resume skip that chunk\n 584|    /// forever (at-least-once → at-most-once); decreasing on a deliberate\n 585|    /// `attach(sub, 0)` rewind-replay would reset the resume point under a live\n 586|    /// reader.\n...\n 1073|            \"BRAIN_SUBSCRIBER_STALL_EVICT:{} conn={conn} {} — controller writer blocked > {}ms \\\n*1074|             on a suspended/black-holed brain conn; detached, driven_by released \\\n 1075|             [REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE]\",\n 1076|            self.session_id,\n 1077|            crate::conn::log_stamp(),\n...\n 3338|        // longer inline under the log lock, so a backed-up controller can never\n*3339|        // wedge the session; a fully-stalled controller is detached after the\n 3340|        // deadline (bounded wedge, never permanent).\n 3341|        let log_drain = Arc::clone(&log);\n 3342|        let drain = session\n...\n 4524|        assert_eq!(c, 2, \"ok write of seq 1 -> cursor 2\");\n*4525|        // Amendment 1: a FAILED write (dying-but-not-detached subscriber) freezes\n 4526|        // the cursor — the next chunk is NOT marked delivered, so resume replays\n 4527|        // it (nothing skipped). This is the exact mid-stream-socket-death case.\n 4528|        let frozen = advanced_cursor(c, 2, false);\n## config.rs\n 118|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n*119|    detached_subnets: Option<Vec<String>>,\n 120|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n 121|    worker_reap_ttl_secs: Option<u64>,\n 122|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n...\n 176|    pub resources_blurb: Option<String>,\n*177|    /// Subnets whose serve-state STARTS detached (M8 decision 6,\n 178|    /// REQ-SUBNET-5): the daemon's boot reset seeds the live\n 179|    /// `attachment.json` from this list — `spt subnet detach/attach --save`\n 180|    /// writes it. Default empty = every held subnet starts attached.\n*181|    pub detached_subnets: Vec<String>,\n 182|    /// The worker-reap TTL floor (seconds since a worker's `started`), W-3\n 183|    /// (REQ-WORKER-REAP): the reconcile GC reaps any worker older than this even\n 184|    /// under a live parent with a stale `ready` marker (the `SubagentStop`-never-fired\n...\n 211|            resources_blurb: None,       // endpoints author their own (REQ-INST-14)\n*212|            detached_subnets: Vec::new(), // every held subnet starts attached (REQ-SUBNET-5)\n 213|            worker_reap_ttl_secs: spt_store::worker_reap::DEFAULT_REAP_TTL_SECS, // 24h (W-3)\n 214|            startup_endpoints: Vec::new(), // nothing auto-starts by default (REQ-ENDPOINT-AUTOSTART)\n 215|        }\n...\n 285|            resources_blurb: file.resources_blurb,\n*286|            detached_subnets: file.detached_subnets.unwrap_or_default(),\n 287|            worker_reap_ttl_secs: file.worker_reap_ttl_secs.unwrap_or(d.worker_reap_ttl_secs),\n 288|            startup_endpoints: file.startup_endpoints.unwrap_or_default(),\n 289|        }\n...\n 313|            resources_blurb: self.resources_blurb.clone(),\n*314|            detached_subnets: Some(self.detached_subnets.clone()),\n 315|            worker_reap_ttl_secs: Some(self.worker_reap_ttl_secs),\n 316|            startup_endpoints: Some(self.startup_endpoints.clone()),\n 317|        };\n...\n 398|            resources_blurb: Some(\"node default services\".to_string()),\n*399|            detached_subnets: vec![\"work\".to_string()],\n 400|            worker_reap_ttl_secs: 7_200,\n 401|            startup_endpoints: vec![\n 402|                StartupEndpoint {\n...\n 420|    #[test]\n*421|    fn detached_subnets_knob_defaults_empty() {\n*422|        assert!(DaemonConfig::default().detached_subnets.is_empty());\n 423|\n 424|        let dir = tempfile::tempdir().unwrap();\n 425|        let path = dir.path().join(\"daemon.json\");\n*426|        std::fs::write(&path, r#\"{\"detached_subnets\": [\"work\"]}\"#).unwrap();\n 427|        assert_eq!(\n*428|            DaemonConfig::load_from(&path).detached_subnets,\n 429|            vec![\"work\".to_string()]\n 430|        );\n 431|        // An absent file keeps the all-attached default.\n 432|        assert!(DaemonConfig::load_from(&dir.path().join(\"nope.json\"))\n*433|            .detached_subnets\n 434|            .is_empty());\n 435|    }\n 436|\n...\n 590|                pulse_period: Duration::from_millis(1234),\n*591|                detached_subnets: vec![\"work\".to_string()],\n 592|                ..DaemonConfig::default()\n 593|            };\n 594|            seeded.save_to(&DaemonConfig::default_path()).unwrap();\n...\n 609|            assert_eq!(cfg.pulse_period, Duration::from_millis(1234));\n*610|            assert_eq!(cfg.detached_subnets, vec![\"work\".to_string()]);\n 611|\n 612|            // Same id, different adapter+cwd → replaced in place, returns true.\n 613|            let replaced = DaemonConfig::upsert_startup_endpoint(StartupEndpoint {\n## daemon.rs\n 9|//! invocation calls it; if no daemon answers the seed-control ping it spawns\n*10|//! `spt daemon` detached and waits (bounded) for it to come up. The reliable\n 11|//! anchor is the seed channel — bound for the whole daemon lifetime, so a ping\n 12|//! against it is a true liveness test (`listen` is the interim model's anchor;\n 13|//! here the seed channel plays that role for cold-start detection).\n...\n 92|                &exe.to_string_lossy(),\n*93|                // --detached BELT (REQ-HAZARD-DETACHED-DAEMON-STDIO): the respawned\n 94|                // unelevated daemon then runs detach_console + the null-handles guard,\n 95|                // so it never keeps live inherited stdio (matches every other rung).\n*96|                &[\"daemon\".to_string(), \"run\".to_string(), \"--detached\".to_string()],\n 97|            ) {\n 98|                Ok(Some(pid)) => {\n 99|                    eprintln!(\n...\n 144|            let att = spt_store::attachment::AttachmentStore::reset_to(\n*145|                &DaemonConfig::load().detached_subnets,\n 146|            );\n 147|            if let Err(e) = att.save() {\n 148|                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n 149|            }\n*150|            for name in &att.detached {\n 151|                // Plain prose (no Markdown markers): spt-daemon can't import the\n 152|                // bin-local helpfmt renderer, so this one source string is authored\n*153|                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\n 154|                // token is the machine contract; the rest is a human hint.\n 155|                // [impl->REQ-CLI-OUTPUT-MARKDOWN]\n*156|                eprintln!(\"SUBNET_DETACHED:{name} (startup default — run: spt subnet attach {name})\");\n 157|            }\n 158|        }\n 159|\n...\n 303|        // graceful-stop path below. The brain subtree (the brain + its shellwake\n*304|        // watchers + its detached Psyches) reaps as one unit; the daemon itself is\n 305|        // never in the container.\n 306|        // [impl->REQ-HAZARD-DAEMON-STOP-REAP]\n 307|        let reaper = crate::reap::BrainReaper::new();\n...\n 338|        // does not respawn the brain we are about to kill) THEN reap the brain\n*339|        // subtree — the brain, its shellwake watchers, and its detached Psyches die\n 340|        // with the daemon instead of orphaning as ~8 stray claude-spt-psyche.exe /\n 341|        // spt.exe. The daemon is not in the reap container, so this never\n 342|        // self-terminates: it returns cleanly below.\n...\n 392|        scope: BindScope::All, // production: real interfaces\n*393|        // Mesh-D2: enforce seed-proof on every dial + accept, reading the live\n 394|        // subnet store each connect.\n*395|        membership: Some(crate::seedproofx::production_membership()),\n 396|    };\n 397|    match NetHost::start(net_cfg) {\n 398|        Ok(host) => {\n*399|            host.set_roster_exchange(crate::seedproofx::production_roster_exchange());\n 400|            Some(host)\n 401|        }\n 402|        Err(e) => {\n...\n 477|/// Service-aware (REQ-DAEMON-8): when an OS service manager has a registered\n*478|/// spt-daemon, this starts THAT — never a competing manual `spawn_detached`\n 479|/// daemon that would fight the service for the broker socket (the kitsubito\n*480|/// 2026-06-08 restart-loop). No manager ⇒ the detached spawn path as before.\n 481|// [impl->REQ-DAEMON-8]\n 482|pub fn ensure_running() -> io::Result<()> {\n 483|    if is_running() {\n...\n 494|                eprintln!(\"DAEMON_SERVICE_START_FALLBACK: {e} — starting a manual daemon\");\n*495|                spawn_detached()?;\n 496|            }\n 497|        }\n*498|        crate::service::StartPlan::ManualSpawn => spawn_detached()?,\n 499|        // `running` was passed false, so AlreadyRunning is unreachable here.\n 500|        crate::service::StartPlan::AlreadyRunning => return Ok(()),\n 501|    }\n...\n 512|    ServiceStarted(&'static str),\n*513|    /// Spawned a manual detached daemon (no manager registered).\n 514|    Spawned,\n 515|}\n 516|\n...\n 544|                eprintln!(\"DAEMON_SERVICE_START_FALLBACK: {e} — starting a manual daemon\");\n*545|                spawn_detached()?;\n 546|                wait_until_up()?;\n 547|                Ok(StartOutcome::Spawned)\n 548|            }\n...\n 550|        crate::service::StartPlan::ManualSpawn => {\n*551|            spawn_detached()?;\n 552|            wait_until_up()?;\n 553|            Ok(StartOutcome::Spawned)\n 554|        }\n...\n 586|\n*587|/// Spawn `spt daemon` as a detached background process. Inherits the environment\n 588|/// — so the child resolves the **same** `SPT_HOME`, hence the same canonical\n 589|/// socket names — but drops the std handles so it outlives the launching CLI\n 590|/// call. The child is independent (not killed when the parent exits): on unix it\n## deelevate.rs\n 15|//!\n*16|//! - [`crate::daemon::spawn_detached`] de-elevates the child it launches —\n 17|//!   Windows: the UAC **linked token** ([`spawn_deelevated`]); Linux: drop\n 18|//!   the child to `SUDO_UID`/`SUDO_GID` with the invoker's `HOME`\n 19|//!   ([`sudo_invoker`] + `CommandExt::uid/gid`).\n...\n 32|//! they are re-declared here because the dependency arrow points the other\n*33|//! way (`spt` → `spt-daemon`). Like [`crate::daemon::detached_no_inherit`],\n 34|//! the Windows calls are raw `extern \"system\"` declarations (advapi32 is in\n 35|//! the MSVC default link set) — no new dependency for one seam.\n 36|// [impl->REQ-HAZARD-ELEVATED-DAEMON-SPAWN]\n...\n 417|\n*418|    // Raw advapi32/kernel32 declarations (the detached_no_inherit posture:\n 419|    // both libraries are in the MSVC default link set, no new dependency).\n 420|    #[repr(C)]\n 421|    struct StartupInfoW {\n...\n 510|    // CreateProcessWithTokenW accepts only a RESTRICTED creation-flag set —\n*511|    // DETACHED_PROCESS and CREATE_NO_WINDOW (the detached_no_inherit combo)\n 512|    // are rejected with ERROR_INVALID_PARAMETER (87; hit live, second\n 513|    // elevated verification round). Detach therefore rides\n 514|    // CREATE_NEW_CONSOLE with the console window HIDDEN via the startup\n...\n 521|    /// tab-close does not reap the de-elevated daemon (see the unelevated path in\n*522|    /// `daemon::detached_no_inherit`). CreateProcessWithTokenW accepts only a\n 523|    /// RESTRICTED creation-flag set, so this flag may be rejected with\n 524|    /// ERROR_INVALID_PARAMETER (87) — `create_with_token` retries WITHOUT it in\n 525|    /// that case (the elevated daemon then relies on the no-job common case /\n...\n 555|\n*556|    /// Spawn `program args…` detached under the **desktop shell's token** —\n 557|    /// the unelevated desktop user, whoever is actually at the machine.\n 558|    ///\n 559|    /// Why the shell token and not the UAC linked token: without\n...\n 687|    /// `CreateProcessWithTokenW` under the same flags as\n*688|    /// `detached_no_inherit`, command line quoted by the shared\n 689|    /// [`quote_windows_arg`] rules. The environment is BUILT FOR THE TOKEN\n 690|    /// (`CreateEnvironmentBlock`) — inheriting the elevated caller's\n 691|    /// variables would point the child at the wrong `%LOCALAPPDATA%`\n## dispatch.rs\n 4|//! Every E2E test so far drove the serve half manually (a probe brain calling\n*5|//! `serve_sync` / `serve_update` / `apply_notif_feed` / `receive_wan` against\n 6|//! a known stream). In production nothing did — a peer could dial and write\n 7|//! and the bytes sat in the broker's stream log unread. This module is the\n 8|//! missing consumer: a daemon-hosted loop that watches the broker's stream\n...\n 66|use spt_net::net::replicate::{\n*67|    FeedDecoder as RegistryDecoder, NodeLabelUpdate, RegistryFeedRecord, RegistryUpdate,\n 68|};\n 69|use spt_net::net::wanmsg::{WanDecoder, WanReply};\n 70|use spt_store::contextstore::ContextStore;\n...\n 331|        }\n*332|        StreamFamily::Notif => serve_notif_feed(&mut brain, stream_id, origin),\n*333|        StreamFamily::WanMsg => serve_wan_feed(&mut brain, stream_id, origin, paths, registry),\n*334|        StreamFamily::Registry => serve_registry_feed(&mut brain, stream_id, origin, registry),\n 335|        StreamFamily::Attach => {\n 336|            // The gate subject is the session's OWNING endpoint, resolved\n 337|            // from the broker's table (the spawn's label) — never from wire\n...\n 472|// [impl->REQ-INST-7]\n*473|fn serve_registry_feed(\n 474|    brain: &mut Brain,\n 475|    stream_id: u64,\n 476|    origin: &str,\n...\n 501|                    match rec {\n*502|                        RegistryFeedRecord::Instance(u) => updates.push(u),\n*503|                        RegistryFeedRecord::NodeLabel(n) => labels.push(n),\n 504|                    }\n 505|                }\n 506|                if !labels.is_empty() {\n...\n 530|            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\n*531|                return DispatchOutcome::Served(format!(\"registry feed: {merged} record(s)\"));\n 532|            }\n 533|            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\n 534|            Ok(_) => {}\n...\n 551|// [impl->REQ-PRES-1]\n*552|fn serve_notif_feed(brain: &mut Brain, stream_id: u64, origin: &str) -> DispatchOutcome {\n 553|    let store = match NotifStore::open() {\n 554|        Ok(s) => s,\n 555|        Err(e) => return DispatchOutcome::Failed(e.to_string()),\n...\n 589|            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\n*590|                return DispatchOutcome::Served(format!(\"notif feed: {applied} record(s)\"));\n 591|            }\n 592|            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\n 593|            Ok(_) => {}\n...\n 630|// [impl->REQ-NET-1]\n*631|fn serve_wan_feed(\n 632|    brain: &mut Brain,\n 633|    stream_id: u64,\n 634|    origin: &str,\n...\n 674|            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\n*675|                return DispatchOutcome::Served(format!(\"wan feed: {handled} record(s)\"));\n 676|            }\n 677|            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\n 678|            Ok(_) => {}\n## lib.rs\n 154|pub mod seedmap;\n*155|pub mod seedproofx;\n 156|pub mod serveprobe;\n 157|pub mod service;\n 158|pub mod shellchan;\n...\n 238|pub use release::{\n*239|    current_platform, parse_verifying_key, sha256_hex, verify_artifact, verify_detached,\n 240|    verify_metadata, verify_signature, verify_update_set_artifact, verify_update_set_metadata,\n 241|    RejectReason,\n 242|    ReleaseMetadata, SignedRelease, SignedUpdateSet, UpdateArtifactMetadata, UpdateSetMetadata,\n## livehost.rs\n 124|            let _ = h.thread.join();\n*125|            // F-030 W3: nothing detached to reap — the per-event psyche driver spawns\n 126|            // no resident child, so joining the driver thread + de-tabling above is the\n 127|            // whole un-host (the resident-psyche handle-reap + orphan-reap retired with\n 128|            // the residency machinery). Un-hosting a genuinely-offline endpoint is legit.\n## nethost.rs\n 40|};\n*41|use spt_net::net::mesh::seedproof::ProofRole;\n 42|use spt_proto::identity::{Identity, PublicKey};\n 43|\n 44|use crate::broker::SharedSend;\n...\n 46|use crate::effect::Minter;\n*47|use crate::seedproofx::{prove_membership, MembershipSource, RosterExchange};\n 48|use crate::msg::{\n 49|    net_presence_event_envelope, net_stream_data_envelope, net_stream_eof_envelope,\n 50|    NetPresenceEvent, NetStreamInfo, PRESENCE_CONNECTED, PRESENCE_DIAL_FAILED, PRESENCE_DISCONNECTED,\n...\n 63|/// Chosen at **10s**: comfortably above any legitimate LAN/relay connect +\n*64|/// seed-proof round-trip (sub-second typical, a few seconds over a slow relay),\n 65|/// and well below the brain's 30s `PUMP_PEER_IO_TIMEOUT` so the BROKER always\n 66|/// fires FIRST — the timeout then surfaces to the pump as a normal broker error\n 67|/// reply (`peer_outcome`'s ordinary per-peer arm → drop conn + redial, round\n...\n 98|    /// Live source of this node's subnet credentials for the connect-time\n*99|    /// seed-proof (Mesh-D2, REQ-MESH-1). `Some` enables the mutual proof at\n 100|    /// every dial + accept (fail → drop); `None` disables it entirely — both\n 101|    /// peers must agree, or the side expecting the control stream would hang.\n 102|    /// Production wires `Some(SubnetStore::load …)`; mechanics-only tests that\n...\n 142|    /// The subnets the peer proved current-epoch seed-knowledge of at connect\n*143|    /// (Mesh-D2, REQ-MESH-1). Empty when seed-proof is disabled (`membership:\n 144|    /// None`). The D5 gate swap reads this in place of `is_trusted(subnet, …)`;\n 145|    /// at D2 it is cached but not yet consumed (the `is_trusted` gates still run\n 146|    /// in parallel — belt + suspenders, no regression).\n...\n 519|/// for both the blocking [`NetHost::dial`] and the spawned\n*520|/// [`NetHost::submit_dial`], so W1's per-dial bound and the Mesh-D2 seed-proof\n 521|/// stay single-sourced (never a second, drifting dial impl).\n 522|struct DialPlan {\n 523|    endpoint: Arc<NetEndpoint>,\n...\n 555|                .ok_or_else(|| {\n*556|                    io::Error::other(\"seed-proof failed: peer is not a subnet member\")\n 557|                })?\n 558|            }\n 559|            None => HashSet::new(),\n...\n 736|    stream_ops: Mutex<HashMap<(Minter, u64), u64>>,\n*737|    /// This node's pubkey (the seed-proof's local channel-binding identity).\n 738|    local_id: PublicKey,\n*739|    /// The connect-time seed-proof credential source (Mesh-D2). `None` disables\n 740|    /// the proof (see [`NetConfig::membership`]).\n 741|    membership: Option<MembershipSource>,\n 742|    /// The on-connect roster-exchange seam (Mesh-D4, REQ-MESH-2), set on the live\n...\n 951|    /// live host. The daemon calls this once after `start` with\n*952|    /// [`crate::seedproofx::production_roster_exchange`]; tests inject their own.\n 953|    /// Off `NetConfig` by design — see the `roster` field. Takes effect on the\n 954|    /// next dial/accept (each connect snapshots it).\n 955|    // [impl->REQ-MESH-2]\n...\n 1159|    /// [`Self::submit_dial`] connect through — the ONE connect+prove+register\n*1160|    /// path, so W1's bound and the seed-proof stay single-sourced.\n 1161|    fn dial_plan(&self) -> DialPlan {\n 1162|        DialPlan {\n 1163|            endpoint: Arc::clone(&self.endpoint),\n...\n 1197|    /// The subnets the peer of `conn_id` proved current-epoch seed-knowledge of\n*1198|    /// at connect (Mesh-D2, REQ-MESH-1). Empty when seed-proof was disabled or\n 1199|    /// the conn is gone. The seam the D5 gate swap reads in place of\n 1200|    /// `is_trusted(subnet, origin)`; unused by any gate at D2.\n 1201|    // [impl->REQ-MESH-1]\n## notif.rs\n 297|/// Render + spawn the adapter's `[session.notif]` template for a surfaced\n*298|/// notif — detached, fire-and-forget (an OS toast must never block or fail a\n 299|/// surface; combinable with the agent-surface delivery). The caller gates on\n 300|/// the manifest actually declaring the role (the seam is opt-in).\n 301|// [impl->REQ-NOTIF-2]\n...\n 1059|        };\n*1060|        // The bounded run shares the template/key fill with the detached\n 1061|        // spawn (command_for) — capturing it proves the render.\n 1062|        let out = rt\n 1063|            .run_bounded(\n...\n 1085|    /// A `[session.notif]` template whose render is a marker file (the spawn\n*1086|    /// is detached — no stdout to capture).\n 1087|    #[cfg(windows)]\n 1088|    fn marker_notif_template(marker: &std::path::Path) -> String {\n 1089|        format!(\"cmd /C echo {{notif_from}} > {}\", marker.display())\n...\n 1174|                    std::time::Instant::now() < deadline,\n*1175|                    \"the detached template spawn never rendered\"\n 1176|                );\n 1177|                std::thread::sleep(std::time::Duration::from_millis(50));\n 1178|            };\n## notifsync.rs\n 62|    pub fn admits(&self, subnet: &str, origin_node: &str) -> bool {\n*63|        self.subnets.iter().any(|s| s == subnet) && self.roster.is_member(subnet, origin_node)\n 64|    }\n 65|}\n 66|\n...\n 109|            // [impl->REQ-MESH-5]\n*110|            if !policy.roster.is_member(&row.subnet, origin_node) {\n 111|                return Ok(NotifApplyVerdict::DroppedUntrusted);\n 112|            }\n 113|            let outcome = store\n## pairhost.rs\n 69|    };\n*70|    // Serve-state filter (M8 decision 6, REQ-SUBNET-5): a detached subnet\n 71|    // is not served — the responder sees a store WITHOUT it, so a joiner\n 72|    // gets the same answer as for a subnet this node does not hold. The\n 73|    // membership record on disk is untouched.\n...\n 98|            // row means this MACHINE re-paired under a fresh key — the\n*99|            // superseded identity's roster entry is tombstoned + its registry\n 100|            // rows evicted, and a machine_id-anchored rekey awareness notice is\n 101|            // raised (the demoted warn-on-change, REQ-MESH-5 — never a gate).\n 102|            // Fires only here, post-confirm (a gossiped claim never evicts).\n...\n 115|            // joiner's identity (its self-intro) + the address observed on the\n*116|            // live ceremony connection. A completed re-pair of a tombstoned key\n*117|            // clears the tombstone (decision 10) — the deliberate elevated act.\n 118|            // [impl->REQ-MESH-2]\n*119|            roster.clear_tombstone(&outcome.subnet, &outcome.joiner_hex);\n 120|            record_roster_peer(\n 121|                &mut roster,\n 122|                &outcome.subnet,\n...\n 188|            let step = time_step(now_secs());\n*189|            // Serve-state filter (REQ-SUBNET-5): a detached subnet's meet\n 190|            // listener does not rotate — a joiner cannot rendezvous with a\n 191|            // membership this node deliberately is not serving. Re-read per\n 192|            // window like the subnet store itself.\n...\n 197|                .map(|s| s.name.clone())\n*198|                .filter(|n| !attachment.is_detached(n))\n 199|                .collect();\n 200|            // One listener task per subnet for this window's lifetime.\n 201|            let mut window_tasks = Vec::new();\n## propagate.rs\n 65|    /// The requester closed its send side before fetching (e.g. its own gate\n*66|    /// rejected the offer, or it detached mid-protocol).\n*67|    Detached,\n 68|    /// A status-only query was answered (M8 decision 19,\n 69|    /// `xtask debug-converge`) — no artifact bytes moved.\n 70|    // [impl->REQ-UPD-6]\n...\n 134|                            // [impl->REQ-UPD-6]\n*135|                            let trusted = roster.is_member_any(origin_node);\n 136|                            let status = if trusted {\n 137|                                let policy = VerifyPolicy::load_from(\n 138|                                    &spt_store::perch::identity_dir().join(\"release-keys.json\"),\n...\n 173|                            // having nothing).\n*174|                            let trusted = roster.is_member_any(origin_node);\n 175|                            let staged = if trusted { cache.staged_update() } else { None };\n 176|                            // Offer only a release that is actually newer on\n 177|                            // the requester's channel (an honest responder\n...\n 288|                brain.net_stream_send(stream_id, &[], None, true)?;\n*289|                return Ok(UpdateServeOutcome::Detached);\n 290|            }\n 291|            BrokerEvent::Error { message } => return Err(io::Error::other(message)),\n 292|            _ => {}\n## reap.rs\n 2|//! spt-hosted subtree — the supervised brain child and everything it spawns\n*3|//! (the shellwake watchers, the DETACHED live-agent Psyches) — must die WITH the\n 4|//! daemon on `spt daemon stop`, never linger as orphaned `claude-spt-psyche.exe`\n 5|//! / `spt.exe`. Today a stop orphans ~8 of them: the Psyches are spawned\n*6|//! detached (`spt_runtime::runtime` drops the `Child`) and the brain's livehost /\n 7|//! shellwake stop flags are held \"for symmetry\", never raised — so killing the\n 8|//! daemon leaves the whole brain subtree running.\n 9|//!\n## registryhost.rs\n 36|};\n*37|use spt_net::net::replicate::{NodeLabelUpdate, RegistryFeedRecord, RegistryUpdate};\n 38|use spt_store::epoch::EpochSource;\n 39|use spt_store::liveness::{is_perch_alive, is_perch_unbound};\n 40|use spt_store::perch::{self, ParentHint};\n...\n 62|    /// The membership directory (Mesh-D5, REQ-MESH-5): authorization is now\n*63|    /// live roster membership (roster-listed ∧ ¬tombstoned), not a stored\n*64|    /// pairwise pin. A non-member can't even connect (D2 seed-proof drops it),\n 65|    /// so this only ever runs against a peer that already proved seed knowledge.\n 66|    pub roster: RosterStore,\n 67|}\n...\n 86|    pub fn admits(&self, subnet: &str, origin_node: &str) -> bool {\n*87|        self.subnets.iter().any(|s| s == subnet) && self.roster.is_member(subnet, origin_node)\n 88|    }\n 89|}\n 90|\n...\n 250|                // [impl->REQ-MESH-5]\n*251|                if !policy.roster.is_member(&u.subnet, origin_node) {\n 252|                    return RegistryApplyVerdict::UntrustedOrigin;\n 253|                }\n 254|                admitted_any = true;\n...\n 314|                // [impl->REQ-MESH-5]\n*315|                if !policy.roster.is_member(&u.subnet, origin_node) {\n 316|                    return RegistryApplyVerdict::UntrustedOrigin;\n 317|                }\n 318|                admitted_any = true;\n...\n 344|    // [impl->REQ-INST-7]\n*345|    pub fn advertise_local(&self, owlery: &Path) -> Vec<RegistryFeedRecord> {\n 346|        let subnets = SubnetStore::load();\n 347|        let mut vis = VisibilityStore::load();\n 348|        // First-join home adoption (D9-5, REQ-INST-15): within one\n...\n 508|                ) {\n*509|                    Ok(Some(_)) => out.push(RegistryFeedRecord::Instance(RegistryUpdate {\n 510|                        subnet: sub.name.clone(),\n 511|                        endpoint_id: id.clone(),\n 512|                        instance,\n...\n 570|                reg.merge_instance(&id, instance.clone());\n*571|                out.push(RegistryFeedRecord::Instance(RegistryUpdate {\n 572|                    subnet: sub.name.clone(),\n 573|                    endpoint_id: id,\n 574|                    instance,\n...\n 593|                reg.merge_node_label(&self.node_hex, label.clone(), ep);\n*594|                out.push(RegistryFeedRecord::NodeLabel(NodeLabelUpdate {\n 595|                    subnet: sub.name.clone(),\n 596|                    node: self.node_hex.clone(),\n 597|                    label: label.clone(),\n...\n 933|/// by the pairing host AFTER a completed ceremony: resolve the superseded\n*934|/// identities from the subnet's snapshot, tombstone their roster entries (this\n 935|/// subnet's scope — the ceremony proved control of THIS subnet's code, nothing\n 936|/// about others), rewrite the disk snapshot, and note the hexes in the eviction\n 937|/// marker so the pump clears the in-memory rows on its next tick. The caller\n...\n 940|///\n*941|/// The roster tombstone is the load-bearing eviction since Mesh-D5a: the\n 942|/// inbound gates authorize on [`RosterStore::is_member`], so a re-keyed identity\n*943|/// that kept its roster entry would stay a member. Tombstone (not a bare remove)\n 944|/// because the roster is a grow-set: a plain delete re-merges from any peer\n*945|/// that still lists the dead key. The D3 tombstone primitive dominates +\n 946|/// suppresses reinsert; a fresh re-pair of that key would clear it (decision\n 947|/// 10), exactly as the joiner's own key is cleared at the call site. (Mesh-D6\n 948|/// deleted the former trust-row drop — the roster is the sole membership record.)\n...\n 971|        // The gate-effective eviction (Mesh-D5a moved the gate to the roster).\n*972|        roster.tombstone(subnet, hex, &wall_ms().to_string());\n 973|        // The demoted warn-on-change (REQ-MESH-5): a machine_id-anchored\n 974|        // awareness notice, never a gate. Absent a machine id, `dead` is\n 975|        // empty (superseded_identities requires the id match) — so no false\n...\n 978|            \"MACHINE_REKEYED:{subnet} machine '{}' (id {}…): last seen as {}…, now presents {}… \\\n*979|             (roster tombstoned — awareness only, not a block)\",\n 980|            intro.label,\n 981|            spt_net::net::registry::key_prefix(&intro.machine_id),\n 982|            spt_net::net::registry::key_prefix(hex),\n...\n 1271|    // [unit->REQ-SUBNET-7] [unit->REQ-MESH-5] the effect leg: a completed\n*1272|    // re-pair tombstones the superseded identity's roster entry (this subnet\n 1273|    // only) — the gate-effective eviction since D5a moved the gate to\n 1274|    // `is_member` — and returns a machine_id-anchored rekey awareness notice\n 1275|    // (the demoted warn-on-change, never a block). Rewrites the disk snapshot\n...\n 1279|    #[test]\n*1280|    fn repair_evict_tombstones_roster_snapshot_and_notices() {\n 1281|        let dir = tempfile::tempdir().unwrap();\n 1282|        let snap_dir = dir.path().join(\"registry\");\n 1283|        let h = RegistryHost::new_at(\n...\n 1305|        roster.merge_entry(member(\"worknet\", \"old-key\"));\n*1306|        assert!(roster.is_member(\"home\", \"old-key\"), \"member before re-pair\");\n 1307|        let intro = spt_net::net::pairing::wire::NodeIntro {\n 1308|            label: \"BOX\".into(),\n 1309|            machine_id: \"mid-1\".into(),\n...\n 1324|        );\n*1325|        // The gate-effective eviction: tombstoned in the ceremony subnet,\n 1326|        // still a member elsewhere (the ceremony proved THIS subnet only).\n 1327|        assert!(\n\n## pump/\n### mod.rs\n 6|//! cadence + its wake markers, fed to the pure [`due`] kernel) and *toward\n*7|//! whom* (every roster member of every non-detached member subnet); each worker\n 8|//! owns *what* (its node-local `pre_round` and its per-peer `peer_step`), a thin\n 9|//! call over an already-shipped, idempotent driver. The four legs, in fan-out\n 10|//! order, each in its own module:\n...\n 36|//! (abort-on-first-fail), [`mark_ran`] (the §V4 stagger), [`fan_targets`]\n*37|//! (detached-skip). LLM-bearing work is never a [`PumpWorker`] (KNOWN-HAZARDS\n 38|//! 7.4) — see the trait's contract.\n 39|//!\n 40|//! Conflicts a pull surfaces are reported through [`PumpHooks::on_pull`] —\n...\n 404|    subnets: SubnetStore,\n*405|    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\n 406|    attachment: spt_store::attachment::AttachmentStore,\n 407|    /// The roster-backed sync gate — one store feeding both the push targets\n 408|    /// and the sync authorization (symmetric scoping).\n...\n 417|        let subnets = SubnetStore::load_from(&paths.subnets);\n*418|        // Serve-state (M8 decision 6, REQ-SUBNET-5): a detached subnet is\n 419|        // neither advertised into nor connected to — skipped wholesale in the\n 420|        // per-subnet loop below.\n 421|        // [impl->REQ-SUBNET-5]\n...\n 491|    /// push-feed discipline — `op_id: None`, finished on send).\n*492|    fn push_feed(&mut self, feed: &[u8]) -> io::Result<()> {\n*493|        push_feed(self.brain, self.conn_id, feed)\n 494|    }\n 495|\n 496|    /// Mint the next durable open-op from the pump's sole counter (exactly-once\n...\n 902|/// The round's fan-out targets: every `(subnet, peer)` this node pushes to —\n*903|/// every member subnet that is NOT detached (REQ-SUBNET-5), crossed with that\n 904|/// subnet's full roster minus self (REQ-MESH-3). One owned list so the order\n*905|/// and the detached-skip are pure unit facts.\n 906|// [impl->REQ-SUBNET-5]\n 907|fn fan_targets(ctx: &RoundCtx, self_hex: &str) -> Vec<(String, String)> {\n 908|    let mut out = Vec::new();\n 909|    for sub in &ctx.subnets.subnets {\n*910|        if ctx.attachment.is_detached(&sub.name) {\n*911|            continue; // detached: neither advertise into nor connect to\n 912|        }\n 913|        for peer in push_targets(&ctx.policy.roster, &sub.name, self_hex) {\n 914|            out.push((sub.name.clone(), peer));\n...\n 920|/// The widened push target (Mesh-D6, REQ-MESH-3): every roster member of\n*921|/// `subnet` except this node itself. Tombstoned members are already excluded by\n 922|/// [`RosterStore::members_in`]. This is THE fan-out change — the push target is\n 923|/// the full roster, not the directly-paired set — kept a pure function so the\n 924|/// \"rows reach all members, never relayed\" widen is a unit fact, not just an\n...\n 963|/// stream per feed: streams are single-purpose by the demux contract.\n*964|fn push_feed(brain: &mut Brain, conn_id: u64, feed: &[u8]) -> io::Result<()> {\n 965|    let opened = brain.net_open_stream(conn_id, None)?;\n 966|    brain.net_stream_send(opened.stream_id, feed, None, true)?;\n 967|    Ok(())\n...\n 1159|    // member of the subnet (not the directly-paired set), excluding self and\n*1160|    // tombstoned members. This is the seam whose widening closes the staggered\n 1161|    // A→B→C repro — own rows reach all members directly, never relayed.\n 1162|    #[test]\n*1163|    fn push_target_is_the_full_roster_minus_self_and_tombstoned() {\n 1164|        use spt_store::roster::{RosterEntry, RosterStore};\n 1165|        let entry = |sub: &str, pk: &str| RosterEntry {\n 1166|            pubkey_hex: pk.to_string(),\n...\n 1179|        r.merge_entry(entry(\"work\", \"cc\")); // other subnet — not a home target\n*1180|        r.tombstone(\"home\", \"gone\", \"1\");\n 1181|\n 1182|        let mut targets = push_targets(&r, \"home\", \"self\");\n 1183|        targets.sort();\n...\n 1186|            vec![\"aa\".to_string(), \"bb\".to_string()],\n*1187|            \"all home members except self and the tombstoned one — and never another subnet's\"\n 1188|        );\n 1189|        // A subnet with only ourselves yields no targets (never pump at self).\n 1190|        assert!(push_targets(&r, \"work\", \"cc\").is_empty());\n...\n 1360|\n*1361|    // Fact 6 — detached-subnet skip: a detached subnet contributes no fan-out\n 1362|    // targets; a served subnet yields its roster minus self.\n 1363|    // [unit->REQ-SUBNET-5]\n 1364|    #[test]\n*1365|    fn choreography_fan_targets_skips_detached_and_self() {\n 1366|        use spt_store::roster::{RosterEntry, RosterStore};\n 1367|        let entry = |sub: &str, pk: &str| RosterEntry {\n 1368|            pubkey_hex: pk.to_string(),\n...\n 1383|        let mut attachment = spt_store::attachment::AttachmentStore::default();\n*1384|        attachment.set_detached(\"work\", true); // work is detached → skipped\n 1385|\n 1386|        let ctx = RoundCtx {\n 1387|            subnets,\n...\n 1398|            vec![(\"home\".to_string(), \"aa\".to_string())],\n*1399|            \"home/aa only — self excluded, the detached work subnet skipped\"\n 1400|        );\n 1401|    }\n 1402|\n### notif.rs\n 55|        if !feed.is_empty() {\n*56|            io.push_feed(&feed)?;\n 57|        }\n 58|        Ok(())\n 59|    }\n### registry.rs\n 17|\n*18|use spt_net::net::replicate::RegistryFeedRecord;\n 19|use spt_store::subnet::SubnetStore;\n 20|\n 21|use crate::registryhost::RegistryHost;\n...\n 29|/// re-seed leg on their next connect — never over gossip; the revokee's\n*30|/// already-propagated tombstone denies it the grace. Pure-store work (no conn\n 31|/// handle needed): the daemon re-reads `subnet.json` per connect, so the bump\n 32|/// takes effect without a restart.\n 33|// [impl->REQ-MESH-4]\n...\n 83|    /// Adverts computed in `pre_round`, consumed per-subnet in `peer_step`.\n*84|    adverts: Vec<RegistryFeedRecord>,\n 85|}\n 86|\n 87|impl RegistryWorker {\n...\n 150|        // re-minted seed rides the member control stream on the next connect;\n*151|        // the revokee's tombstone (already propagated) keeps it locked out.\n 152|        fire_due_rotations(&self.subnets, &self.rotations, now_ms());\n 153|        // Re-advertise this node's own rows; held as worker state for the\n 154|        // per-subnet `peer_step` filter below.\n...\n 174|        if !lines.is_empty() {\n*175|            io.push_feed(&lines)?;\n 176|        }\n 177|        Ok(())\n 178|    }\n\nShowing files 1-20 of 39+. Use skip=20 for the next page, or narrow paths/pattern."}],"details":{"scopePath":"spt-core/crates/spt-daemon/src, spt-core/crates/spt-net/src","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":150,"fileCount":20,"files":["spt-core/crates/spt-daemon/src/attach.rs","spt-core/crates/spt-daemon/src/brain.rs","spt-core/crates/spt-daemon/src/brainproc.rs","spt-core/crates/spt-daemon/src/broker.rs","spt-core/crates/spt-daemon/src/config.rs","spt-core/crates/spt-daemon/src/daemon.rs","spt-core/crates/spt-daemon/src/deelevate.rs","spt-core/crates/spt-daemon/src/dispatch.rs","spt-core/crates/spt-daemon/src/lib.rs","spt-core/crates/spt-daemon/src/livehost.rs","spt-core/crates/spt-daemon/src/nethost.rs","spt-core/crates/spt-daemon/src/notif.rs","spt-core/crates/spt-daemon/src/notifsync.rs","spt-core/crates/spt-daemon/src/pairhost.rs","spt-core/crates/spt-daemon/src/propagate.rs","spt-core/crates/spt-daemon/src/pump/mod.rs","spt-core/crates/spt-daemon/src/pump/notif.rs","spt-core/crates/spt-daemon/src/pump/registry.rs","spt-core/crates/spt-daemon/src/reap.rs","spt-core/crates/spt-daemon/src/registryhost.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/attach.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/brain.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/brainproc.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/broker.rs","count":5},{"path":"spt-core/crates/spt-daemon/src/config.rs","count":14},{"path":"spt-core/crates/spt-daemon/src/daemon.rs","count":20},{"path":"spt-core/crates/spt-daemon/src/deelevate.rs","count":7},{"path":"spt-core/crates/spt-daemon/src/dispatch.rs","count":13},{"path":"spt-core/crates/spt-daemon/src/lib.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/livehost.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/nethost.rs","count":12},{"path":"spt-core/crates/spt-daemon/src/notif.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/notifsync.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/pairhost.rs","count":7},{"path":"spt-core/crates/spt-daemon/src/propagate.rs","count":5},{"path":"spt-core/crates/spt-daemon/src/pump/mod.rs","count":20},{"path":"spt-core/crates/spt-daemon/src/pump/notif.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/pump/registry.rs","count":5},{"path":"spt-core/crates/spt-daemon/src/reap.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/registryhost.rs","count":20}],"truncated":true,"fileLimitReached":20,"perFileLimitReached":20,"displayContent":"# spt-core/crates/spt-daemon/src/\n## attach.rs\n  76│    Exited(Option<i32>),\n *77│    /// The operator closed its send side (detached); the viewport ended with\n  78│    /// the session still running.\n *79│    Detached,\n  80│    /// This controller was DISPLACED by a different operator's `--take`/`kick`\n  81│    /// (REQ-KICK-1): the loud `Displaced` notice was sent and the stream\n  82│    /// finished. The endpoint stays driven (by the taker) — no dormant edge.\n    │...\n 502│                if role == Some(ServeRole::Controller) {\n*503│                    // The driver detached — the endpoint rests warm (controller-\n 504│                    // only; a viewer leaving is wake-neutral).\n 505│                    feed_rest(endpoint, crate::resting::RestEvent::Detach);\n 506│                }\n    │...\n 509│                }\n*510│                return Ok(AttachServeOutcome::Detached);\n 511│            }\n 512│\n 513│            // ── Session → wire: output and exit. ────────────────────────────\n## brain.rs\n  215│        frames: Receiver<io::Result<Envelope>>,\n *216│        /// The reader-thread handle — held so the thread is owned, not detached\n  217│        /// silently. On a supervised restart the whole [`Brain`] drops; this\n  218│        /// handle drops with it (the thread, blocked in `read_frame`, is\n  219│        /// abandoned and exits when the old conn closes — KH 7.6).\n     │...\n 1839│    /// connects (cold_start sends the hello), the stub recv_hello's it, then loops:\n*1840│    /// it owns the server `Stream` and writes any envelope the test feeds via `feed`.\n 1841│    /// (We never need to READ the brain's writes for these tests — the subscribe\n 1842│    /// `attach_skip_to_live` sends is harmlessly left in the OS socket buffer; the\n 1843│    /// frames are tiny. We drop the recv half so it does not hold resources.)\n## brainproc.rs\n  160│    // Persist this brain generation's stderr to the rotating SPT_HOME/logs sink\n *161│    // (REQ-DAEMON-STDERR-PERSIST) — a detached brain's stdio is /dev/null, so every\n  162│    // diagnostic below would otherwise vanish (the incident-night RCA-blind gap). Runs\n  163│    // FIRST so even the BRAIN_UP line and a connect failure are captured. Best-effort.\n  164│    // [impl->REQ-DAEMON-STDERR-PERSIST]\n     │...\n  986│/// Spawn the production brain child: re-exec `daemon brain` as a plain\n *987│/// (non-detached) managed child, so it inherits the broker's environment —\n *988│/// including `SPT_HOME` — and dies with no orphaning. NOT `spawn_detached`\n  989│/// (that path rebuilds the Windows env block and would drop `SPT_HOME`). The\n  990│/// broker stamps `{generation, start-reason}` onto the argv (ADR-0018 V2).\n  991│///\n     │...\n 1043│    // OWN process group so the daemon can reap the brain + everything it spawns\n*1044│    // (the shellwake watchers, the detached Psyches — all inherit this group) as\n 1045│    // one unit on stop, without signalling the daemon itself. Windows roots the\n 1046│    // reap on a Job object instead (assigned in the supervisor via BrainReaper).\n 1047│    #[cfg(unix)]\n## broker.rs\n  141│/// that stays full for [`CONTROLLER_WRITE_DEADLINE`] (tracked via\n *142│/// [`ControllerSink::last_ok`]) is detached. Generous so a momentary slow consumer\n  143│/// never trips the deadline.\n  144│const CONTROLLER_CHANNEL_DEPTH: usize = 4096;\n  145│\n     │...\n  582│    /// load-bearing for at-least-once output: advancing past a *failed* write to a\n *583│    /// dying-but-not-yet-detached controller would make resume skip that chunk\n  584│    /// forever (at-least-once → at-most-once); decreasing on a deliberate\n  585│    /// `attach(sub, 0)` rewind-replay would reset the resume point under a live\n  586│    /// reader.\n     │...\n 1073│            \"BRAIN_SUBSCRIBER_STALL_EVICT:{} conn={conn} {} — controller writer blocked > {}ms \\\n*1074│             on a suspended/black-holed brain conn; detached, driven_by released \\\n 1075│             [REQ-HAZARD-BROKER-VIEWER-BRAIN-DECOUPLE]\",\n 1076│            self.session_id,\n 1077│            crate::conn::log_stamp(),\n     │...\n 3338│        // longer inline under the log lock, so a backed-up controller can never\n*3339│        // wedge the session; a fully-stalled controller is detached after the\n 3340│        // deadline (bounded wedge, never permanent).\n 3341│        let log_drain = Arc::clone(&log);\n 3342│        let drain = session\n     │...\n 4524│        assert_eq!(c, 2, \"ok write of seq 1 -> cursor 2\");\n*4525│        // Amendment 1: a FAILED write (dying-but-not-detached subscriber) freezes\n 4526│        // the cursor — the next chunk is NOT marked delivered, so resume replays\n 4527│        // it (nothing skipped). This is the exact mid-stream-socket-death case.\n 4528│        let frozen = advanced_cursor(c, 2, false);\n## config.rs\n 118│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n*119│    detached_subnets: Option<Vec<String>>,\n 120│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n 121│    worker_reap_ttl_secs: Option<u64>,\n 122│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    │...\n 176│    pub resources_blurb: Option<String>,\n*177│    /// Subnets whose serve-state STARTS detached (M8 decision 6,\n 178│    /// REQ-SUBNET-5): the daemon's boot reset seeds the live\n 179│    /// `attachment.json` from this list — `spt subnet detach/attach --save`\n 180│    /// writes it. Default empty = every held subnet starts attached.\n*181│    pub detached_subnets: Vec<String>,\n 182│    /// The worker-reap TTL floor (seconds since a worker's `started`), W-3\n 183│    /// (REQ-WORKER-REAP): the reconcile GC reaps any worker older than this even\n 184│    /// under a live parent with a stale `ready` marker (the `SubagentStop`-never-fired\n    │...\n 211│            resources_blurb: None,       // endpoints author their own (REQ-INST-14)\n*212│            detached_subnets: Vec::new(), // every held subnet starts attached (REQ-SUBNET-5)\n 213│            worker_reap_ttl_secs: spt_store::worker_reap::DEFAULT_REAP_TTL_SECS, // 24h (W-3)\n 214│            startup_endpoints: Vec::new(), // nothing auto-starts by default (REQ-ENDPOINT-AUTOSTART)\n 215│        }\n    │...\n 285│            resources_blurb: file.resources_blurb,\n*286│            detached_subnets: file.detached_subnets.unwrap_or_default(),\n 287│            worker_reap_ttl_secs: file.worker_reap_ttl_secs.unwrap_or(d.worker_reap_ttl_secs),\n 288│            startup_endpoints: file.startup_endpoints.unwrap_or_default(),\n 289│        }\n    │...\n 313│            resources_blurb: self.resources_blurb.clone(),\n*314│            detached_subnets: Some(self.detached_subnets.clone()),\n 315│            worker_reap_ttl_secs: Some(self.worker_reap_ttl_secs),\n 316│            startup_endpoints: Some(self.startup_endpoints.clone()),\n 317│        };\n    │...\n 398│            resources_blurb: Some(\"node default services\".to_string()),\n*399│            detached_subnets: vec![\"work\".to_string()],\n 400│            worker_reap_ttl_secs: 7_200,\n 401│            startup_endpoints: vec![\n 402│                StartupEndpoint {\n    │...\n 420│    #[test]\n*421│    fn detached_subnets_knob_defaults_empty() {\n*422│        assert!(DaemonConfig::default().detached_subnets.is_empty());\n 423│\n 424│        let dir = tempfile::tempdir().unwrap();\n 425│        let path = dir.path().join(\"daemon.json\");\n*426│        std::fs::write(&path, r#\"{\"detached_subnets\": [\"work\"]}\"#).unwrap();\n 427│        assert_eq!(\n*428│            DaemonConfig::load_from(&path).detached_subnets,\n 429│            vec![\"work\".to_string()]\n 430│        );\n 431│        // An absent file keeps the all-attached default.\n 432│        assert!(DaemonConfig::load_from(&dir.path().join(\"nope.json\"))\n*433│            .detached_subnets\n 434│            .is_empty());\n 435│    }\n 436│\n    │...\n 590│                pulse_period: Duration::from_millis(1234),\n*591│                detached_subnets: vec![\"work\".to_string()],\n 592│                ..DaemonConfig::default()\n 593│            };\n 594│            seeded.save_to(&DaemonConfig::default_path()).unwrap();\n    │...\n 609│            assert_eq!(cfg.pulse_period, Duration::from_millis(1234));\n*610│            assert_eq!(cfg.detached_subnets, vec![\"work\".to_string()]);\n 611│\n 612│            // Same id, different adapter+cwd → replaced in place, returns true.\n 613│            let replaced = DaemonConfig::upsert_startup_endpoint(StartupEndpoint {\n## daemon.rs\n   9│//! invocation calls it; if no daemon answers the seed-control ping it spawns\n *10│//! `spt daemon` detached and waits (bounded) for it to come up. The reliable\n  11│//! anchor is the seed channel — bound for the whole daemon lifetime, so a ping\n  12│//! against it is a true liveness test (`listen` is the interim model's anchor;\n  13│//! here the seed channel plays that role for cold-start detection).\n    │...\n  92│                &exe.to_string_lossy(),\n *93│                // --detached BELT (REQ-HAZARD-DETACHED-DAEMON-STDIO): the respawned\n  94│                // unelevated daemon then runs detach_console + the null-handles guard,\n  95│                // so it never keeps live inherited stdio (matches every other rung).\n *96│                &[\"daemon\".to_string(), \"run\".to_string(), \"--detached\".to_string()],\n  97│            ) {\n  98│                Ok(Some(pid)) => {\n  99│                    eprintln!(\n    │...\n 144│            let att = spt_store::attachment::AttachmentStore::reset_to(\n*145│                &DaemonConfig::load().detached_subnets,\n 146│            );\n 147│            if let Err(e) = att.save() {\n 148│                eprintln!(\"ATTACHMENT_RESET_FAIL: {e} — serving with all subnets attached\");\n 149│            }\n*150│            for name in &att.detached {\n 151│                // Plain prose (no Markdown markers): spt-daemon can't import the\n 152│                // bin-local helpfmt renderer, so this one source string is authored\n*153│                // marker-free rather than rendered. The `SUBNET_DETACHED:{name}`\n 154│                // token is the machine contract; the rest is a human hint.\n 155│                // [impl->REQ-CLI-OUTPUT-MARKDOWN]\n*156│                eprintln!(\"SUBNET_DETACHED:{name} (startup default — run: spt subnet attach {name})\");\n 157│            }\n 158│        }\n 159│\n    │...\n 303│        // graceful-stop path below. The brain subtree (the brain + its shellwake\n*304│        // watchers + its detached Psyches) reaps as one unit; the daemon itself is\n 305│        // never in the container.\n 306│        // [impl->REQ-HAZARD-DAEMON-STOP-REAP]\n 307│        let reaper = crate::reap::BrainReaper::new();\n    │...\n 338│        // does not respawn the brain we are about to kill) THEN reap the brain\n*339│        // subtree — the brain, its shellwake watchers, and its detached Psyches die\n 340│        // with the daemon instead of orphaning as ~8 stray claude-spt-psyche.exe /\n 341│        // spt.exe. The daemon is not in the reap container, so this never\n 342│        // self-terminates: it returns cleanly below.\n    │...\n 392│        scope: BindScope::All, // production: real interfaces\n*393│        // Mesh-D2: enforce seed-proof on every dial + accept, reading the live\n 394│        // subnet store each connect.\n*395│        membership: Some(crate::seedproofx::production_membership()),\n 396│    };\n 397│    match NetHost::start(net_cfg) {\n 398│        Ok(host) => {\n*399│            host.set_roster_exchange(crate::seedproofx::production_roster_exchange());\n 400│            Some(host)\n 401│        }\n 402│        Err(e) => {\n    │...\n 477│/// Service-aware (REQ-DAEMON-8): when an OS service manager has a registered\n*478│/// spt-daemon, this starts THAT — never a competing manual `spawn_detached`\n 479│/// daemon that would fight the service for the broker socket (the kitsubito\n*480│/// 2026-06-08 restart-loop). No manager ⇒ the detached spawn path as before.\n 481│// [impl->REQ-DAEMON-8]\n 482│pub fn ensure_running() -> io::Result<()> {\n 483│    if is_running() {\n    │...\n 494│                eprintln!(\"DAEMON_SERVICE_START_FALLBACK: {e} — starting a manual daemon\");\n*495│                spawn_detached()?;\n 496│            }\n 497│        }\n*498│        crate::service::StartPlan::ManualSpawn => spawn_detached()?,\n 499│        // `running` was passed false, so AlreadyRunning is unreachable here.\n 500│        crate::service::StartPlan::AlreadyRunning => return Ok(()),\n 501│    }\n    │...\n 512│    ServiceStarted(&'static str),\n*513│    /// Spawned a manual detached daemon (no manager registered).\n 514│    Spawned,\n 515│}\n 516│\n    │...\n 544│                eprintln!(\"DAEMON_SERVICE_START_FALLBACK: {e} — starting a manual daemon\");\n*545│                spawn_detached()?;\n 546│                wait_until_up()?;\n 547│                Ok(StartOutcome::Spawned)\n 548│            }\n    │...\n 550│        crate::service::StartPlan::ManualSpawn => {\n*551│            spawn_detached()?;\n 552│            wait_until_up()?;\n 553│            Ok(StartOutcome::Spawned)\n 554│        }\n    │...\n 586│\n*587│/// Spawn `spt daemon` as a detached background process. Inherits the environment\n 588│/// — so the child resolves the **same** `SPT_HOME`, hence the same canonical\n 589│/// socket names — but drops the std handles so it outlives the launching CLI\n 590│/// call. The child is independent (not killed when the parent exits): on unix it\n## deelevate.rs\n  15│//!\n *16│//! - [`crate::daemon::spawn_detached`] de-elevates the child it launches —\n  17│//!   Windows: the UAC **linked token** ([`spawn_deelevated`]); Linux: drop\n  18│//!   the child to `SUDO_UID`/`SUDO_GID` with the invoker's `HOME`\n  19│//!   ([`sudo_invoker`] + `CommandExt::uid/gid`).\n    │...\n  32│//! they are re-declared here because the dependency arrow points the other\n *33│//! way (`spt` → `spt-daemon`). Like [`crate::daemon::detached_no_inherit`],\n  34│//! the Windows calls are raw `extern \"system\"` declarations (advapi32 is in\n  35│//! the MSVC default link set) — no new dependency for one seam.\n  36│// [impl->REQ-HAZARD-ELEVATED-DAEMON-SPAWN]\n    │...\n 417│\n*418│    // Raw advapi32/kernel32 declarations (the detached_no_inherit posture:\n 419│    // both libraries are in the MSVC default link set, no new dependency).\n 420│    #[repr(C)]\n 421│    struct StartupInfoW {\n    │...\n 510│    // CreateProcessWithTokenW accepts only a RESTRICTED creation-flag set —\n*511│    // DETACHED_PROCESS and CREATE_NO_WINDOW (the detached_no_inherit combo)\n 512│    // are rejected with ERROR_INVALID_PARAMETER (87; hit live, second\n 513│    // elevated verification round). Detach therefore rides\n 514│    // CREATE_NEW_CONSOLE with the console window HIDDEN via the startup\n    │...\n 521│    /// tab-close does not reap the de-elevated daemon (see the unelevated path in\n*522│    /// `daemon::detached_no_inherit`). CreateProcessWithTokenW accepts only a\n 523│    /// RESTRICTED creation-flag set, so this flag may be rejected with\n 524│    /// ERROR_INVALID_PARAMETER (87) — `create_with_token` retries WITHOUT it in\n 525│    /// that case (the elevated daemon then relies on the no-job common case /\n    │...\n 555│\n*556│    /// Spawn `program args…` detached under the **desktop shell's token** —\n 557│    /// the unelevated desktop user, whoever is actually at the machine.\n 558│    ///\n 559│    /// Why the shell token and not the UAC linked token: without\n    │...\n 687│    /// `CreateProcessWithTokenW` under the same flags as\n*688│    /// `detached_no_inherit`, command line quoted by the shared\n 689│    /// [`quote_windows_arg`] rules. The environment is BUILT FOR THE TOKEN\n 690│    /// (`CreateEnvironmentBlock`) — inheriting the elevated caller's\n 691│    /// variables would point the child at the wrong `%LOCALAPPDATA%`\n## dispatch.rs\n   4│//! Every E2E test so far drove the serve half manually (a probe brain calling\n  *5│//! `serve_sync` / `serve_update` / `apply_notif_feed` / `receive_wan` against\n   6│//! a known stream). In production nothing did — a peer could dial and write\n   7│//! and the bytes sat in the broker's stream log unread. This module is the\n   8│//! missing consumer: a daemon-hosted loop that watches the broker's stream\n    │...\n  66│use spt_net::net::replicate::{\n *67│    FeedDecoder as RegistryDecoder, NodeLabelUpdate, RegistryFeedRecord, RegistryUpdate,\n  68│};\n  69│use spt_net::net::wanmsg::{WanDecoder, WanReply};\n  70│use spt_store::contextstore::ContextStore;\n    │...\n 331│        }\n*332│        StreamFamily::Notif => serve_notif_feed(&mut brain, stream_id, origin),\n*333│        StreamFamily::WanMsg => serve_wan_feed(&mut brain, stream_id, origin, paths, registry),\n*334│        StreamFamily::Registry => serve_registry_feed(&mut brain, stream_id, origin, registry),\n 335│        StreamFamily::Attach => {\n 336│            // The gate subject is the session's OWNING endpoint, resolved\n 337│            // from the broker's table (the spawn's label) — never from wire\n    │...\n 472│// [impl->REQ-INST-7]\n*473│fn serve_registry_feed(\n 474│    brain: &mut Brain,\n 475│    stream_id: u64,\n 476│    origin: &str,\n    │...\n 501│                    match rec {\n*502│                        RegistryFeedRecord::Instance(u) => updates.push(u),\n*503│                        RegistryFeedRecord::NodeLabel(n) => labels.push(n),\n 504│                    }\n 505│                }\n 506│                if !labels.is_empty() {\n    │...\n 530│            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\n*531│                return DispatchOutcome::Served(format!(\"registry feed: {merged} record(s)\"));\n 532│            }\n 533│            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\n 534│            Ok(_) => {}\n    │...\n 551│// [impl->REQ-PRES-1]\n*552│fn serve_notif_feed(brain: &mut Brain, stream_id: u64, origin: &str) -> DispatchOutcome {\n 553│    let store = match NotifStore::open() {\n 554│        Ok(s) => s,\n 555│        Err(e) => return DispatchOutcome::Failed(e.to_string()),\n    │...\n 589│            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\n*590│                return DispatchOutcome::Served(format!(\"notif feed: {applied} record(s)\"));\n 591│            }\n 592│            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\n 593│            Ok(_) => {}\n    │...\n 630│// [impl->REQ-NET-1]\n*631│fn serve_wan_feed(\n 632│    brain: &mut Brain,\n 633│    stream_id: u64,\n 634│    origin: &str,\n    │...\n 674│            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\n*675│                return DispatchOutcome::Served(format!(\"wan feed: {handled} record(s)\"));\n 676│            }\n 677│            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\n 678│            Ok(_) => {}\n## lib.rs\n 154│pub mod seedmap;\n*155│pub mod seedproofx;\n 156│pub mod serveprobe;\n 157│pub mod service;\n 158│pub mod shellchan;\n    │...\n 238│pub use release::{\n*239│    current_platform, parse_verifying_key, sha256_hex, verify_artifact, verify_detached,\n 240│    verify_metadata, verify_signature, verify_update_set_artifact, verify_update_set_metadata,\n 241│    RejectReason,\n 242│    ReleaseMetadata, SignedRelease, SignedUpdateSet, UpdateArtifactMetadata, UpdateSetMetadata,\n## livehost.rs\n 124│            let _ = h.thread.join();\n*125│            // F-030 W3: nothing detached to reap — the per-event psyche driver spawns\n 126│            // no resident child, so joining the driver thread + de-tabling above is the\n 127│            // whole un-host (the resident-psyche handle-reap + orphan-reap retired with\n 128│            // the residency machinery). Un-hosting a genuinely-offline endpoint is legit.\n## nethost.rs\n   40│};\n  *41│use spt_net::net::mesh::seedproof::ProofRole;\n   42│use spt_proto::identity::{Identity, PublicKey};\n   43│\n   44│use crate::broker::SharedSend;\n     │...\n   46│use crate::effect::Minter;\n  *47│use crate::seedproofx::{prove_membership, MembershipSource, RosterExchange};\n   48│use crate::msg::{\n   49│    net_presence_event_envelope, net_stream_data_envelope, net_stream_eof_envelope,\n   50│    NetPresenceEvent, NetStreamInfo, PRESENCE_CONNECTED, PRESENCE_DIAL_FAILED, PRESENCE_DISCONNECTED,\n     │...\n   63│/// Chosen at **10s**: comfortably above any legitimate LAN/relay connect +\n  *64│/// seed-proof round-trip (sub-second typical, a few seconds over a slow relay),\n   65│/// and well below the brain's 30s `PUMP_PEER_IO_TIMEOUT` so the BROKER always\n   66│/// fires FIRST — the timeout then surfaces to the pump as a normal broker error\n   67│/// reply (`peer_outcome`'s ordinary per-peer arm → drop conn + redial, round\n     │...\n   98│    /// Live source of this node's subnet credentials for the connect-time\n  *99│    /// seed-proof (Mesh-D2, REQ-MESH-1). `Some` enables the mutual proof at\n  100│    /// every dial + accept (fail → drop); `None` disables it entirely — both\n  101│    /// peers must agree, or the side expecting the control stream would hang.\n  102│    /// Production wires `Some(SubnetStore::load …)`; mechanics-only tests that\n     │...\n  142│    /// The subnets the peer proved current-epoch seed-knowledge of at connect\n *143│    /// (Mesh-D2, REQ-MESH-1). Empty when seed-proof is disabled (`membership:\n  144│    /// None`). The D5 gate swap reads this in place of `is_trusted(subnet, …)`;\n  145│    /// at D2 it is cached but not yet consumed (the `is_trusted` gates still run\n  146│    /// in parallel — belt + suspenders, no regression).\n     │...\n  519│/// for both the blocking [`NetHost::dial`] and the spawned\n *520│/// [`NetHost::submit_dial`], so W1's per-dial bound and the Mesh-D2 seed-proof\n  521│/// stay single-sourced (never a second, drifting dial impl).\n  522│struct DialPlan {\n  523│    endpoint: Arc<NetEndpoint>,\n     │...\n  555│                .ok_or_else(|| {\n *556│                    io::Error::other(\"seed-proof failed: peer is not a subnet member\")\n  557│                })?\n  558│            }\n  559│            None => HashSet::new(),\n     │...\n  736│    stream_ops: Mutex<HashMap<(Minter, u64), u64>>,\n *737│    /// This node's pubkey (the seed-proof's local channel-binding identity).\n  738│    local_id: PublicKey,\n *739│    /// The connect-time seed-proof credential source (Mesh-D2). `None` disables\n  740│    /// the proof (see [`NetConfig::membership`]).\n  741│    membership: Option<MembershipSource>,\n  742│    /// The on-connect roster-exchange seam (Mesh-D4, REQ-MESH-2), set on the live\n     │...\n  951│    /// live host. The daemon calls this once after `start` with\n *952│    /// [`crate::seedproofx::production_roster_exchange`]; tests inject their own.\n  953│    /// Off `NetConfig` by design — see the `roster` field. Takes effect on the\n  954│    /// next dial/accept (each connect snapshots it).\n  955│    // [impl->REQ-MESH-2]\n     │...\n 1159│    /// [`Self::submit_dial`] connect through — the ONE connect+prove+register\n*1160│    /// path, so W1's bound and the seed-proof stay single-sourced.\n 1161│    fn dial_plan(&self) -> DialPlan {\n 1162│        DialPlan {\n 1163│            endpoint: Arc::clone(&self.endpoint),\n     │...\n 1197│    /// The subnets the peer of `conn_id` proved current-epoch seed-knowledge of\n*1198│    /// at connect (Mesh-D2, REQ-MESH-1). Empty when seed-proof was disabled or\n 1199│    /// the conn is gone. The seam the D5 gate swap reads in place of\n 1200│    /// `is_trusted(subnet, origin)`; unused by any gate at D2.\n 1201│    // [impl->REQ-MESH-1]\n## notif.rs\n  297│/// Render + spawn the adapter's `[session.notif]` template for a surfaced\n *298│/// notif — detached, fire-and-forget (an OS toast must never block or fail a\n  299│/// surface; combinable with the agent-surface delivery). The caller gates on\n  300│/// the manifest actually declaring the role (the seam is opt-in).\n  301│// [impl->REQ-NOTIF-2]\n     │...\n 1059│        };\n*1060│        // The bounded run shares the template/key fill with the detached\n 1061│        // spawn (command_for) — capturing it proves the render.\n 1062│        let out = rt\n 1063│            .run_bounded(\n     │...\n 1085│    /// A `[session.notif]` template whose render is a marker file (the spawn\n*1086│    /// is detached — no stdout to capture).\n 1087│    #[cfg(windows)]\n 1088│    fn marker_notif_template(marker: &std::path::Path) -> String {\n 1089│        format!(\"cmd /C echo {{notif_from}} > {}\", marker.display())\n     │...\n 1174│                    std::time::Instant::now() < deadline,\n*1175│                    \"the detached template spawn never rendered\"\n 1176│                );\n 1177│                std::thread::sleep(std::time::Duration::from_millis(50));\n 1178│            };\n## notifsync.rs\n  62│    pub fn admits(&self, subnet: &str, origin_node: &str) -> bool {\n *63│        self.subnets.iter().any(|s| s == subnet) && self.roster.is_member(subnet, origin_node)\n  64│    }\n  65│}\n  66│\n    │...\n 109│            // [impl->REQ-MESH-5]\n*110│            if !policy.roster.is_member(&row.subnet, origin_node) {\n 111│                return Ok(NotifApplyVerdict::DroppedUntrusted);\n 112│            }\n 113│            let outcome = store\n## pairhost.rs\n  69│    };\n *70│    // Serve-state filter (M8 decision 6, REQ-SUBNET-5): a detached subnet\n  71│    // is not served — the responder sees a store WITHOUT it, so a joiner\n  72│    // gets the same answer as for a subnet this node does not hold. The\n  73│    // membership record on disk is untouched.\n    │...\n  98│            // row means this MACHINE re-paired under a fresh key — the\n *99│            // superseded identity's roster entry is tombstoned + its registry\n 100│            // rows evicted, and a machine_id-anchored rekey awareness notice is\n 101│            // raised (the demoted warn-on-change, REQ-MESH-5 — never a gate).\n 102│            // Fires only here, post-confirm (a gossiped claim never evicts).\n    │...\n 115│            // joiner's identity (its self-intro) + the address observed on the\n*116│            // live ceremony connection. A completed re-pair of a tombstoned key\n*117│            // clears the tombstone (decision 10) — the deliberate elevated act.\n 118│            // [impl->REQ-MESH-2]\n*119│            roster.clear_tombstone(&outcome.subnet, &outcome.joiner_hex);\n 120│            record_roster_peer(\n 121│                &mut roster,\n 122│                &outcome.subnet,\n    │...\n 188│            let step = time_step(now_secs());\n*189│            // Serve-state filter (REQ-SUBNET-5): a detached subnet's meet\n 190│            // listener does not rotate — a joiner cannot rendezvous with a\n 191│            // membership this node deliberately is not serving. Re-read per\n 192│            // window like the subnet store itself.\n    │...\n 197│                .map(|s| s.name.clone())\n*198│                .filter(|n| !attachment.is_detached(n))\n 199│                .collect();\n 200│            // One listener task per subnet for this window's lifetime.\n 201│            let mut window_tasks = Vec::new();\n## propagate.rs\n  65│    /// The requester closed its send side before fetching (e.g. its own gate\n *66│    /// rejected the offer, or it detached mid-protocol).\n *67│    Detached,\n  68│    /// A status-only query was answered (M8 decision 19,\n  69│    /// `xtask debug-converge`) — no artifact bytes moved.\n  70│    // [impl->REQ-UPD-6]\n    │...\n 134│                            // [impl->REQ-UPD-6]\n*135│                            let trusted = roster.is_member_any(origin_node);\n 136│                            let status = if trusted {\n 137│                                let policy = VerifyPolicy::load_from(\n 138│                                    &spt_store::perch::identity_dir().join(\"release-keys.json\"),\n    │...\n 173│                            // having nothing).\n*174│                            let trusted = roster.is_member_any(origin_node);\n 175│                            let staged = if trusted { cache.staged_update() } else { None };\n 176│                            // Offer only a release that is actually newer on\n 177│                            // the requester's channel (an honest responder\n    │...\n 288│                brain.net_stream_send(stream_id, &[], None, true)?;\n*289│                return Ok(UpdateServeOutcome::Detached);\n 290│            }\n 291│            BrokerEvent::Error { message } => return Err(io::Error::other(message)),\n 292│            _ => {}\n## reap.rs\n 2│//! spt-hosted subtree — the supervised brain child and everything it spawns\n*3│//! (the shellwake watchers, the DETACHED live-agent Psyches) — must die WITH the\n 4│//! daemon on `spt daemon stop`, never linger as orphaned `claude-spt-psyche.exe`\n 5│//! / `spt.exe`. Today a stop orphans ~8 of them: the Psyches are spawned\n*6│//! detached (`spt_runtime::runtime` drops the `Child`) and the brain's livehost /\n 7│//! shellwake stop flags are held \"for symmetry\", never raised — so killing the\n 8│//! daemon leaves the whole brain subtree running.\n 9│//!\n## registryhost.rs\n   36│};\n  *37│use spt_net::net::replicate::{NodeLabelUpdate, RegistryFeedRecord, RegistryUpdate};\n   38│use spt_store::epoch::EpochSource;\n   39│use spt_store::liveness::{is_perch_alive, is_perch_unbound};\n   40│use spt_store::perch::{self, ParentHint};\n     │...\n   62│    /// The membership directory (Mesh-D5, REQ-MESH-5): authorization is now\n  *63│    /// live roster membership (roster-listed ∧ ¬tombstoned), not a stored\n  *64│    /// pairwise pin. A non-member can't even connect (D2 seed-proof drops it),\n   65│    /// so this only ever runs against a peer that already proved seed knowledge.\n   66│    pub roster: RosterStore,\n   67│}\n     │...\n   86│    pub fn admits(&self, subnet: &str, origin_node: &str) -> bool {\n  *87│        self.subnets.iter().any(|s| s == subnet) && self.roster.is_member(subnet, origin_node)\n   88│    }\n   89│}\n   90│\n     │...\n  250│                // [impl->REQ-MESH-5]\n *251│                if !policy.roster.is_member(&u.subnet, origin_node) {\n  252│                    return RegistryApplyVerdict::UntrustedOrigin;\n  253│                }\n  254│                admitted_any = true;\n     │...\n  314│                // [impl->REQ-MESH-5]\n *315│                if !policy.roster.is_member(&u.subnet, origin_node) {\n  316│                    return RegistryApplyVerdict::UntrustedOrigin;\n  317│                }\n  318│                admitted_any = true;\n     │...\n  344│    // [impl->REQ-INST-7]\n *345│    pub fn advertise_local(&self, owlery: &Path) -> Vec<RegistryFeedRecord> {\n  346│        let subnets = SubnetStore::load();\n  347│        let mut vis = VisibilityStore::load();\n  348│        // First-join home adoption (D9-5, REQ-INST-15): within one\n     │...\n  508│                ) {\n *509│                    Ok(Some(_)) => out.push(RegistryFeedRecord::Instance(RegistryUpdate {\n  510│                        subnet: sub.name.clone(),\n  511│                        endpoint_id: id.clone(),\n  512│                        instance,\n     │...\n  570│                reg.merge_instance(&id, instance.clone());\n *571│                out.push(RegistryFeedRecord::Instance(RegistryUpdate {\n  572│                    subnet: sub.name.clone(),\n  573│                    endpoint_id: id,\n  574│                    instance,\n     │...\n  593│                reg.merge_node_label(&self.node_hex, label.clone(), ep);\n *594│                out.push(RegistryFeedRecord::NodeLabel(NodeLabelUpdate {\n  595│                    subnet: sub.name.clone(),\n  596│                    node: self.node_hex.clone(),\n  597│                    label: label.clone(),\n     │...\n  933│/// by the pairing host AFTER a completed ceremony: resolve the superseded\n *934│/// identities from the subnet's snapshot, tombstone their roster entries (this\n  935│/// subnet's scope — the ceremony proved control of THIS subnet's code, nothing\n  936│/// about others), rewrite the disk snapshot, and note the hexes in the eviction\n  937│/// marker so the pump clears the in-memory rows on its next tick. The caller\n     │...\n  940│///\n *941│/// The roster tombstone is the load-bearing eviction since Mesh-D5a: the\n  942│/// inbound gates authorize on [`RosterStore::is_member`], so a re-keyed identity\n *943│/// that kept its roster entry would stay a member. Tombstone (not a bare remove)\n  944│/// because the roster is a grow-set: a plain delete re-merges from any peer\n *945│/// that still lists the dead key. The D3 tombstone primitive dominates +\n  946│/// suppresses reinsert; a fresh re-pair of that key would clear it (decision\n  947│/// 10), exactly as the joiner's own key is cleared at the call site. (Mesh-D6\n  948│/// deleted the former trust-row drop — the roster is the sole membership record.)\n     │...\n  971│        // The gate-effective eviction (Mesh-D5a moved the gate to the roster).\n *972│        roster.tombstone(subnet, hex, &wall_ms().to_string());\n  973│        // The demoted warn-on-change (REQ-MESH-5): a machine_id-anchored\n  974│        // awareness notice, never a gate. Absent a machine id, `dead` is\n  975│        // empty (superseded_identities requires the id match) — so no false\n     │...\n  978│            \"MACHINE_REKEYED:{subnet} machine '{}' (id {}…): last seen as {}…, now presents {}… \\\n *979│             (roster tombstoned — awareness only, not a block)\",\n  980│            intro.label,\n  981│            spt_net::net::registry::key_prefix(&intro.machine_id),\n  982│            spt_net::net::registry::key_prefix(hex),\n     │...\n 1271│    // [unit->REQ-SUBNET-7] [unit->REQ-MESH-5] the effect leg: a completed\n*1272│    // re-pair tombstones the superseded identity's roster entry (this subnet\n 1273│    // only) — the gate-effective eviction since D5a moved the gate to\n 1274│    // `is_member` — and returns a machine_id-anchored rekey awareness notice\n 1275│    // (the demoted warn-on-change, never a block). Rewrites the disk snapshot\n     │...\n 1279│    #[test]\n*1280│    fn repair_evict_tombstones_roster_snapshot_and_notices() {\n 1281│        let dir = tempfile::tempdir().unwrap();\n 1282│        let snap_dir = dir.path().join(\"registry\");\n 1283│        let h = RegistryHost::new_at(\n     │...\n 1305│        roster.merge_entry(member(\"worknet\", \"old-key\"));\n*1306│        assert!(roster.is_member(\"home\", \"old-key\"), \"member before re-pair\");\n 1307│        let intro = spt_net::net::pairing::wire::NodeIntro {\n 1308│            label: \"BOX\".into(),\n 1309│            machine_id: \"mid-1\".into(),\n     │...\n 1324│        );\n*1325│        // The gate-effective eviction: tombstoned in the ceremony subnet,\n 1326│        // still a member elsewhere (the ceremony proved THIS subnet only).\n 1327│        assert!(\n\n## pump/\n### mod.rs\n    6│//! cadence + its wake markers, fed to the pure [`due`] kernel) and *toward\n   *7│//! whom* (every roster member of every non-detached member subnet); each worker\n    8│//! owns *what* (its node-local `pre_round` and its per-peer `peer_step`), a thin\n    9│//! call over an already-shipped, idempotent driver. The four legs, in fan-out\n   10│//! order, each in its own module:\n     │...\n   36│//! (abort-on-first-fail), [`mark_ran`] (the §V4 stagger), [`fan_targets`]\n  *37│//! (detached-skip). LLM-bearing work is never a [`PumpWorker`] (KNOWN-HAZARDS\n   38│//! 7.4) — see the trait's contract.\n   39│//!\n   40│//! Conflicts a pull surfaces are reported through [`PumpHooks::on_pull`] —\n     │...\n  404│    subnets: SubnetStore,\n *405│    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\n  406│    attachment: spt_store::attachment::AttachmentStore,\n  407│    /// The roster-backed sync gate — one store feeding both the push targets\n  408│    /// and the sync authorization (symmetric scoping).\n     │...\n  417│        let subnets = SubnetStore::load_from(&paths.subnets);\n *418│        // Serve-state (M8 decision 6, REQ-SUBNET-5): a detached subnet is\n  419│        // neither advertised into nor connected to — skipped wholesale in the\n  420│        // per-subnet loop below.\n  421│        // [impl->REQ-SUBNET-5]\n     │...\n  491│    /// push-feed discipline — `op_id: None`, finished on send).\n *492│    fn push_feed(&mut self, feed: &[u8]) -> io::Result<()> {\n *493│        push_feed(self.brain, self.conn_id, feed)\n  494│    }\n  495│\n  496│    /// Mint the next durable open-op from the pump's sole counter (exactly-once\n     │...\n  902│/// The round's fan-out targets: every `(subnet, peer)` this node pushes to —\n *903│/// every member subnet that is NOT detached (REQ-SUBNET-5), crossed with that\n  904│/// subnet's full roster minus self (REQ-MESH-3). One owned list so the order\n *905│/// and the detached-skip are pure unit facts.\n  906│// [impl->REQ-SUBNET-5]\n  907│fn fan_targets(ctx: &RoundCtx, self_hex: &str) -> Vec<(String, String)> {\n  908│    let mut out = Vec::new();\n  909│    for sub in &ctx.subnets.subnets {\n *910│        if ctx.attachment.is_detached(&sub.name) {\n *911│            continue; // detached: neither advertise into nor connect to\n  912│        }\n  913│        for peer in push_targets(&ctx.policy.roster, &sub.name, self_hex) {\n  914│            out.push((sub.name.clone(), peer));\n     │...\n  920│/// The widened push target (Mesh-D6, REQ-MESH-3): every roster member of\n *921│/// `subnet` except this node itself. Tombstoned members are already excluded by\n  922│/// [`RosterStore::members_in`]. This is THE fan-out change — the push target is\n  923│/// the full roster, not the directly-paired set — kept a pure function so the\n  924│/// \"rows reach all members, never relayed\" widen is a unit fact, not just an\n     │...\n  963│/// stream per feed: streams are single-purpose by the demux contract.\n *964│fn push_feed(brain: &mut Brain, conn_id: u64, feed: &[u8]) -> io::Result<()> {\n  965│    let opened = brain.net_open_stream(conn_id, None)?;\n  966│    brain.net_stream_send(opened.stream_id, feed, None, true)?;\n  967│    Ok(())\n     │...\n 1159│    // member of the subnet (not the directly-paired set), excluding self and\n*1160│    // tombstoned members. This is the seam whose widening closes the staggered\n 1161│    // A→B→C repro — own rows reach all members directly, never relayed.\n 1162│    #[test]\n*1163│    fn push_target_is_the_full_roster_minus_self_and_tombstoned() {\n 1164│        use spt_store::roster::{RosterEntry, RosterStore};\n 1165│        let entry = |sub: &str, pk: &str| RosterEntry {\n 1166│            pubkey_hex: pk.to_string(),\n     │...\n 1179│        r.merge_entry(entry(\"work\", \"cc\")); // other subnet — not a home target\n*1180│        r.tombstone(\"home\", \"gone\", \"1\");\n 1181│\n 1182│        let mut targets = push_targets(&r, \"home\", \"self\");\n 1183│        targets.sort();\n     │...\n 1186│            vec![\"aa\".to_string(), \"bb\".to_string()],\n*1187│            \"all home members except self and the tombstoned one — and never another subnet's\"\n 1188│        );\n 1189│        // A subnet with only ourselves yields no targets (never pump at self).\n 1190│        assert!(push_targets(&r, \"work\", \"cc\").is_empty());\n     │...\n 1360│\n*1361│    // Fact 6 — detached-subnet skip: a detached subnet contributes no fan-out\n 1362│    // targets; a served subnet yields its roster minus self.\n 1363│    // [unit->REQ-SUBNET-5]\n 1364│    #[test]\n*1365│    fn choreography_fan_targets_skips_detached_and_self() {\n 1366│        use spt_store::roster::{RosterEntry, RosterStore};\n 1367│        let entry = |sub: &str, pk: &str| RosterEntry {\n 1368│            pubkey_hex: pk.to_string(),\n     │...\n 1383│        let mut attachment = spt_store::attachment::AttachmentStore::default();\n*1384│        attachment.set_detached(\"work\", true); // work is detached → skipped\n 1385│\n 1386│        let ctx = RoundCtx {\n 1387│            subnets,\n     │...\n 1398│            vec![(\"home\".to_string(), \"aa\".to_string())],\n*1399│            \"home/aa only — self excluded, the detached work subnet skipped\"\n 1400│        );\n 1401│    }\n 1402│\n### notif.rs\n 55│        if !feed.is_empty() {\n*56│            io.push_feed(&feed)?;\n 57│        }\n 58│        Ok(())\n 59│    }\n### registry.rs\n  17│\n *18│use spt_net::net::replicate::RegistryFeedRecord;\n  19│use spt_store::subnet::SubnetStore;\n  20│\n  21│use crate::registryhost::RegistryHost;\n    │...\n  29│/// re-seed leg on their next connect — never over gossip; the revokee's\n *30│/// already-propagated tombstone denies it the grace. Pure-store work (no conn\n  31│/// handle needed): the daemon re-reads `subnet.json` per connect, so the bump\n  32│/// takes effect without a restart.\n  33│// [impl->REQ-MESH-4]\n    │...\n  83│    /// Adverts computed in `pre_round`, consumed per-subnet in `peer_step`.\n *84│    adverts: Vec<RegistryFeedRecord>,\n  85│}\n  86│\n  87│impl RegistryWorker {\n    │...\n 150│        // re-minted seed rides the member control stream on the next connect;\n*151│        // the revokee's tombstone (already propagated) keeps it locked out.\n 152│        fire_due_rotations(&self.subnets, &self.rotations, now_ms());\n 153│        // Re-advertise this node's own rows; held as worker state for the\n 154│        // per-subnet `peer_step` filter below.\n    │...\n 174│        if !lines.is_empty() {\n*175│            io.push_feed(&lines)?;\n 176│        }\n 177│        Ok(())\n 178│    }"},"isError":false,"timestamp":1784069058632}}
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Test-overridable via\n/// [`NetHost::set_quic_op_timeout`] so the hermetic black-hole tests fail fast.\nconst BROKER_QUIC_OP_TIMEOUT_MS: u64 = 10_000;\n\n/// Bounded concurrent-dial cap (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G4): a\n/// large-subnet guard so a big roster's fan-out-all can never spawn unbounded\n/// concurrent connects. Generous — today's rosters are far under it; it is\n/// cheap insurance, not a throttle on any real workload. BOTH the non-blocking\n/// [`NetHost::submit_dial`] AND the blocking [`NetHost::dial`] acquire a permit\n/// from the SAME semaphore (Q2 caveat: else the cap is bypassed).\n// [impl->REQ-PUMP-PEER-ISOLATION]\nconst PUMP_DIAL_CONCURRENCY: usize = 24;\n\n/// Everything needed to stand the broker's endpoint up: the node's identity\n/// (the endpoint *is* the node's name — EndpointId == pubkey), the relay stance\n/// (from `daemon.json` in production; [`RelayPolicy::Disabled`] in hermetic\n/// tests), and whether mDNS LAN discovery rides along.\npub struct NetConfig {\n    /// The node identity the endpoint binds as (seed → same ed25519 keypair).\n    pub identity: Identity,\n    /// Relay stance (ADR-0002): n0 default / self-host / disabled.\n    pub relay: RelayPolicy,\n    /// mDNS LAN discovery on/off (off in hermetic tests).\n    pub discovery: LocalDiscovery,\n    /// Socket bind scope: [`BindScope::All`] in production;\n    /// [`BindScope::Loopback`] in hermetic tests (no real interface touched,\n    /// no per-test-binary Windows firewall prompt).\n    pub scope: BindScope,\n    /// Live source of this node's subnet credentials for the connect-time\n    /// seed-proof (Mesh-D2, REQ-MESH-1). `Some` enables the mutual proof at\n    /// every dial + accept (fail → drop); `None` disables it entirely — both\n    /// peers must agree, or the side expecting the control stream would hang.\n    /// Production wires `Some(SubnetStore::load …)`; mechanics-only tests that\n    /// don't exercise membership pass `None`.\n    pub membership: Option<MembershipSource>,\n}\n\n/// Default bounded stream-read ring depth (chunks) — same sizing rationale as\n/// the PTY `OutputLog`: large enough that a brain-restart window never evicts\n/// unreplayed chunks in practice; bounded so an unsubscribed stream can't\n/// buffer without limit.\nconst DEFAULT_STREAM_RING_CHUNKS: usize = 4096;\n\n/// Max bytes pulled per stream read (one ring chunk).\nconst STREAM_READ_CHUNK: usize = 64 * 1024;\n\n/// Transport backing a held connection. A real `Quic` connection (the only\n/// kind an inbound handshake can produce), or a broker-minted `Loopback` —\n/// an in-process connection with NO iroh handshake whose identity IS this node,\n/// established BY CONSTRUCTION. A loopback conn can ONLY be minted broker-side\n/// via [`NetHost::dial_loopback`]; it can never arise from an inbound handshake\n/// (a remote always presents its own key and cannot claim to be us). This is\n/// what lets a LOCAL `spt rc` ride the byte-identical `serve_attach` pump (M12\n/// W1.5, B1) — QUIC self-dial is refused by iroh (\"Connecting to ourself is not\n/// supported\"), so local attach rides a broker loopback conn instead.\nenum ConnKind {\n    /// A real QUIC connection — kept alive by ownership here; dropping it closes\n    /// the connection. Cloned (cheap handle) for stream opens.\n    Quic(Connection),\n    /// A broker-minted in-process loopback (no iroh handle, no handshake). Its\n    /// streams are minted eagerly in cross-wired pairs by [`NetHost::open_stream`];\n    /// there is no accept loop and no closed-watcher (it lives for the host).\n    Loopback,\n}\n\n/// One live connection the broker holds (QUIC or loopback).\nstruct ConnEntry {\n    /// The transport backing this connection.\n    kind: ConnKind,\n    /// The remote node's stable name (hex pubkey). For QUIC, proven by the\n    /// handshake; for loopback, THIS node's own id (the broker-minted identity).\n    remote_id_hex: String,\n    /// The subnets the peer proved current-epoch seed-knowledge of at connect\n    /// (Mesh-D2, REQ-MESH-1). Empty when seed-proof is disabled (`membership:\n    /// None`). The D5 gate swap reads this in place of `is_trusted(subnet, …)`;\n    /// at D2 it is cached but not yet consumed (the `is_trusted` gates still run\n    /// in parallel — belt + suspenders, no regression).\n    proven_subnets: HashSet<String>,\n}\n\n/// A bounded, sequenced read log for one QUIC stream — the PTY `OutputLog`\n/// discipline applied to the network (D4b): the stream's single read pump is\n/// the only producer; a brain connection attaches as the subscriber; every\n/// subscriber send happens under the enclosing `Mutex`, so live chunks and a\n/// replay can never interleave out of `seq` order. Chunks produced while no\n/// brain is attached sit in the ring and replay on the next subscribe — a\n/// brain restart loses nothing (Spike #3 invariant B/D).\n// [impl->REQ-DAEMON-2]\nstruct StreamLog {\n    stream_id: u64,\n    /// TRANSPORT read counter: bumped once per [`append`](Self::append) (one\n    /// read-pump `read_chunk`), INDEPENDENT of byte size. NOT a logical-chunk\n    /// count — QUIC may coalesce several sender writes into one receiver\n    /// `read_chunk` (or split one), so `next_seq` can be < the number of logical\n    /// chunks the sender issued for the SAME bytes. Correctness (byte-exact +\n    /// exactly-once) holds via these transport seqs + the recv cursor regardless;\n    /// any test asserting `next_seq == logical-chunk-count` is wrong (the Windows\n    /// coalescing flake) and must gate on BYTES instead.\n    next_seq: u64,\n    ring: VecDeque<(u64, Vec<u8>)>,\n    cap_chunks: usize,\n    subscriber: Option<SharedSend>,\n    /// Read side finished cleanly (peer called finish / conn ended).\n    finished: bool,\n    /// **Retentive backpressure cap** (M11-W3, REQ-SHELL-4), in chunks; `0` ⇒ not\n    /// retentive (ordinary bounded-overwrite stream). A shell-tunnel stream must\n    /// NOT drop bytes — CONTEXT:262 \"tunneled protocols cannot drop frames, so\n    /// congestion surfaces as lag, never loss.\" So a retentive log never cap-evicts\n    /// on append (no loss), and the read pump REFUSES to pull the next chunk once\n    /// the undrained ring reaches this cap (no unbounded growth ⇒ no OOM) — the\n    /// transport's native flow-control then lags the *sender*. A chunk leaves the\n…\n}\n…\nimpl NetShared {\n…\n}\n\n/// Register a live connection: mint its broker id and spawn its inbound-stream\n/// acceptor. Must run inside the host's runtime context (the accept loop, or a\n/// `block_on` future) — it spawns tasks.\n/// The connection's OBSERVED remote address as opaque seed JSON (REQ-CONV-1):\n/// the path address string, or `null` when id-only / path-less (nothing worth\n/// seeding over discovery). Shared by [`register_conn`]'s presence write-back\n/// and [`NetHost::conn_remote_addr_json`] so both seed identically.\n// [impl->REQ-CONV-1]\nfn observed_addr_json(conn: &Connection) -> serde_json::Value {\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n    if addr.is_empty() {\n        return serde_json::Value::Null; // id-only adds nothing over discovery\n    }\n    serde_json::to_value(addr).unwrap_or(serde_json::Value::Null)\n}\n\n/// A `Send + 'static` snapshot of one dial's inputs — the SHARED connect path\n/// for both the blocking [`NetHost::dial`] and the spawned\n/// [`NetHost::submit_dial`], so W1's per-dial bound and the Mesh-D2 seed-proof\n/// stay single-sourced (never a second, drifting dial impl).\nstruct DialPlan {\n    endpoint: Arc<NetEndpoint>,\n    shared: Arc<NetShared>,\n    local_id: PublicKey,\n    membership: Option<MembershipSource>,\n    roster_rx: Option<RosterExchange>,\n    self_addr: serde_json::Value,\n}\n\nimpl DialPlan {\n    /// Connect, prove membership in-band (Mesh-D2 — a failed/empty proof drops\n    /// the dial before it registers; Mesh-D4 roster leg rides the same stream on\n    /// success), then register the conn (which emits `PRESENCE_CONNECTED` with\n    /// the observed addr). The caller bounds this await (the blocking dial via\n    /// `bounded_block_on`; the submit via its own `timeout`).\n    async fn connect(self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n        let conn = self\n            .endpoint\n            .connect(addr)\n            .await\n            .map_err(|e| io::Error::other(e.to_string()))?;\n        let proven = match self.membership {\n            Some(src) => {\n                let creds = src();\n                prove_membership(\n                    &conn,\n                    self.local_id,\n                    ProofRole::Dialer,\n                    &creds,\n                    self.roster_rx.as_ref(),\n                    &self.self_addr,\n                )\n                .await\n                .ok_or_else(|| {\n                    io::Error::other(\"seed-proof failed: peer is not a subnet member\")\n                })?\n            }\n            None => HashSet::new(),\n        };\n        Ok(register_conn(&self.shared, conn, proven))\n    }\n}\n\nfn register_conn(\n    shared: &Arc<NetShared>,\n    conn: Connection,\n    proven_subnets: HashSet<String>,\n) -> (u64, String) {\n    let remote_id_hex = PublicKey::from_bytes(conn.remote_id().as_bytes())\n        .expect(\"an iroh EndpointId is always a valid ed25519 public key\")\n        .to_hex();\n    let id = shared.next_conn_id.fetch_add(1, Ordering::Relaxed);\n    shared.conns.lock().unwrap().insert(\n        id,\n        ConnEntry {\n            kind: ConnKind::Quic(conn.clone()),\n            remote_id_hex: remote_id_hex.clone(),\n            proven_subnets,\n        },\n    );\n…\n}\n…\nimpl Drop for DialGauge {\n    fn drop(&mut self) {\n…\n    }\n}\n\nimpl NetHost {\n    /// Bind the broker's endpoint on a fresh dedicated runtime and start the\n    /// accept loop. The endpoint speaks TWO ALPNs (M7 D3, REQ-SUBNET-2): the\n    /// trusted [`SPT_NET_ALPN`] (connections join the table as before) and\n    /// the pre-trust pairing ALPN — routed to the always-on responder\n    /// ([`crate::pairhost::respond`]), never registered in the stream table.\n    /// One endpoint for both is deliberate: the pairing transcript binds and\n    /// pins the REAL node pubkey, and the relay can only route one endpoint\n    /// per key — the ALPN is the pre-trust/trusted boundary (ADR-0005).\n    /// The meet-rotation listener loop rides the same runtime.\n    // [impl->REQ-DAEMON-2]\n    // [impl->REQ-SUBNET-2]\n    pub fn start(cfg: NetConfig) -> io::Result<NetHost> {\n        // Hermeticity guard (REQ-PAIR-8): a loopback-scoped endpoint is the\n        // \"no network reached\" promise — the ceremony clock's lazy NTP query\n        // must honor it (tests must never probe a real NTP server). Real\n        // scopes keep the decision-18 offset correction.\n        spt_net::net::pairing::ntp::set_enabled(!matches!(cfg.scope, BindScope::Loopback));\n        let runtime = tokio::runtime::Builder::new_multi_thread()\n            .worker_threads(2)\n            .thread_name(\"spt-broker-net\")\n            .enable_all()\n            .build()?;\n        let endpoint = runtime\n            .block_on(NetEndpoint::bind_scoped(\n                &cfg.identity,\n                cfg.relay.clone(),\n                cfg.discovery,\n                vec![\n                    SPT_NET_ALPN.to_vec(),\n                    spt_net::net::pairing::wire::SPT_PAIR_ALPN.to_vec(),\n                ],\n                cfg.scope,\n            ))\n            .map_err(|e| io::Error::other(e.to_string()))?;\n        let endpoint = Arc::new(endpoint);\n        let shared = Arc::new(NetShared::new());\n        let local_pub = cfg.identity.public_key();\n        let pair_rate = Arc::new(tokio::sync::Mutex::new(\n            spt_net::net::pairing::ratelimit::PairingRateLimiter::new(),\n        ));\n\n        // Accept loop: lives for the endpoint's lifetime on the host's runtime.\n        // Each handshake completes on its own task so a slow peer can't stall\n        // the loop; a failed handshake is simply not registered. The pairing\n        // ALPN routes to the responder; everything else is the trusted table.\n        let roster = Arc::new(Mutex::new(None::<RosterExchange>));\n        let ep = Arc::clone(&endpoint);\n        let sh = Arc::clone(&shared);\n        let rate = Arc::clone(&pair_rate);\n        let accept_membership = cfg.membership.clone();\n        let accept_roster = Arc::clone(&roster);\n        let accept_ep = Arc::clone(&endpoint);\n        runtime.spawn(async move {\n            while let Some(incoming) = ep.accept().await {\n                let sh = Arc::clone(&sh);\n                let rate = Arc::clone(&rate);\n                let membership = accept_membership.clone();\n                // Snapshot the (opt-in) roster exchange + our live address for\n                // this connect; the leg runs after the proof verifies.\n                let roster_rx = accept_roster.lock().unwrap().clone();\n                let self_addr =\n                    serde_json::to_value(accept_ep.addr()).unwrap_or(serde_json::Value::Null);\n                tokio::spawn(async move {\n                    let Ok(connecting) = incoming.accept() else {\n                        return;\n                    };\n                    let Ok(conn) = connecting.await else { return };\n                    if conn.alpn() == spt_net::net::pairing::wire::SPT_PAIR_ALPN {\n                        crate::pairhost::respond(conn, local_pub, rate).await;\n                    } else {\n                        // Mesh-D2: prove membership in-band BEFORE the connection\n                        // joins the table. A non-prover (no shared subnet / bad\n                        // seed) is dropped — the conn falls out of scope and QUIC\n                        // closes it. With membership disabled, register as before.\n                        // Mesh-D4: on success, a roster leg rides the same stream.\n                        let proven = match membership {\n                            Some(src) => {\n                                let creds = src();\n                                match prove_membership(\n                                    &conn,\n                                    local_pub,\n                                    ProofRole::Acceptor,\n                                    &creds,\n                                    roster_rx.as_ref(),\n                                    &self_addr,\n                                )\n                                .await\n                                {\n                                    Some(set) => set,\n                                    None => return, // drop the connection\n                                }\n                            }\n                            None => HashSet::new(),\n                        };\n                        register_conn(&sh, conn, proven);\n                    }\n                });\n            }\n        });\n\n        // The meet-rotation loop (M7 D3): how a joiner that knows only\n        // (subnet name, code) finds this responder. Idles with no subnets.\n        crate::pairhost::spawn_meet_rotation(\n            runtime.handle(),\n            Arc::clone(&endpoint),\n            cfg.relay,\n            cfg.discovery,\n            cfg.scope,\n        );\n\n        // The limiter Arc lives on in the accept loop; the host keeps no\n        // handle (per-ceremony state is the responder's, not the table's).\n        drop(pair_rate);\n\n        // DIAGNOSTIC (UPDATE-WEDGE round-3): the reactor-liveness canary. Stamps\n        // epoch-ms every ~25ms FROM the 2-worker runtime, so a starved runtime\n        // (workers monopolized by non-yielding dead-peer connects) shows as a\n        // stale stamp. Throwaway probe — no REQ, gated by nothing (cheap store).\n        let net_canary_tick_ms = Arc::new(AtomicU64::new(epoch_ms()));\n        let canary = Arc::clone(&net_canary_tick_ms);\n        runtime.spawn(async move {\n            let mut ivl = tokio::time::interval(Duration::from_millis(25));\n            loop {\n                ivl.tick().await;\n                canary.store(epoch_ms(), Ordering::Relaxed);\n            }\n        });\n\n        Ok(NetHost {\n            runtime,\n            endpoint,\n            shared,\n            dial_ops: Mutex::new(HashMap::new()),\n            stream_ops: Mutex::new(HashMap::new()),\n            local_id: local_pub,\n            membership: cfg.membership,\n            roster,\n            loopback_conn: Mutex::new(None),\n            loopback_pair_lock: Mutex::new(()),\n            quic_op_timeout_ms: AtomicU64::new(BROKER_QUIC_OP_TIMEOUT_MS),\n            dial_semaphore: Arc::new(tokio::sync::Semaphore::new(PUMP_DIAL_CONCURRENCY)),\n            active_dial_tasks: Arc::new(AtomicUsize::new(0)),\n            net_canary_tick_ms,\n        })\n    }\n\n    /// Wire the on-connect roster-exchange seam (Mesh-D4, REQ-MESH-2) onto this\n    /// live host. The daemon calls this once after `start` with\n    /// [`crate::seedproofx::production_roster_exchange`]; tests inject their own.\n    /// Off `NetConfig` by design — see the `roster` field. Takes effect on the\n    /// next dial/accept (each connect snapshots it).\n    // [impl->REQ-MESH-2]\n    pub fn set_roster_exchange(&self, exchange: RosterExchange) {\n        *self.roster.lock().unwrap() = Some(exchange);\n    }\n\n    /// The broker-side QUIC-op deadline currently in force (default\n    /// [`BROKER_QUIC_OP_TIMEOUT_MS`]).\n    fn quic_op_timeout(&self) -> Duration {\n        Duration::from_millis(self.quic_op_timeout_ms.load(Ordering::Relaxed))\n    }\n\n    /// Override the broker-side QUIC-op deadline (REQ-HAZARD-BROKER-QUIC-DEADLINE).\n    /// Production keeps the [`BROKER_QUIC_OP_TIMEOUT_MS`] default; the hermetic\n    /// black-hole tests set a short bound so a dead-peer await fails fast instead\n    /// of pinning the test for ~10s. Off [`NetConfig`] by design (mirrors\n    /// [`Self::set_roster_exchange`]) — the many hermetic test configs need no change.\n…\n    /// ([`PUMP_DIAL_CONCURRENCY`] minus in-flight blocking + submit dials). Lets the\n    /// rig confirm the semaphore (24) is NOT the bottleneck vs the 2-worker pool.\n    pub fn dial_permits_available(&self) -> usize {\n        self.dial_semaphore.available_permits()\n    }\n\n    /// Dial a peer over `SPT_NET_ALPN`, registering the connection in the table.\n    /// Bridges sync→async via the host's own runtime (the broker's dispatch\n    /// threads block here; the future runs on the net worker threads).\n    // [impl->REQ-DAEMON-2]\n    pub fn dial(&self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n        let plan = self.dial_plan();\n        let sem = Arc::clone(&self.dial_semaphore);\n        // Bounded (REQ-HAZARD-BROKER-QUIC-DEADLINE): the `connect` + `prove_membership`\n        // awaits are the exact unbounded sites a dead peer black-holes — wrap\n        // them so a non-responsive peer fails as an ordinary error within the bound.\n        self.bounded_block_on(async move {\n            // Q2 caveat: the blocking dial acquires a permit from the SAME\n            // semaphore as `submit_dial`, so the concurrency cap bounds every dial\n            // source (never bypassed). `acquire_owned` errs only on a closed\n            // semaphore — we never close it.\n            let _permit = sem\n                .acquire_owned()\n                .await\n                .map_err(|e| io::Error::other(e.to_string()))?;\n            plan.connect(addr).await\n        })\n    }\n\n    /// PUMP-TRUTH W2 (REQ-PUMP-PEER-ISOLATION): submit a NON-BLOCKING dial and\n    /// return IMMEDIATELY. Spawns the connect on the host runtime under the shared\n    /// concurrency permit ([`PUMP_DIAL_CONCURRENCY`]); the dial is bounded exactly\n    /// like [`Self::dial`] (W1's per-dial bound), so a dead peer fails PROMPTLY.\n    /// The OUTCOME rides the presence stream — success already emits\n    /// `PRESENCE_CONNECTED` inside `register_conn`; failure appends\n    /// `PRESENCE_DIAL_FAILED` here (conn_id:0 sentinel, correlated by\n    /// `remote_id_hex`). Never a blocking reply, never a whole-round poison — one\n    /// dead peer's fate is isolated to its own event.\n    // [impl->REQ-PUMP-PEER-ISOLATION]\n    pub fn submit_dial(&self, addr: EndpointAddr, remote_id_hex: String) {\n        let plan = self.dial_plan();\n        let sem = Arc::clone(&self.dial_semaphore);\n        let shared = Arc::clone(&self.shared);\n        let dur = self.quic_op_timeout();\n        // DIAGNOSTIC (round-3): mark this dial in-flight for the whole task, so\n        // the starvation rig can read how many dead-peer connects are occupying\n        // the 2-worker runtime at once. RAII decrement (panic/cancel-safe).\n        let gauge = Arc::clone(&self.active_dial_tasks);\n        self.runtime.spawn(async move {\n            gauge.fetch_add(1, Ordering::Relaxed);\n            let _dial_guard = DialGauge(gauge);\n            let outcome = async {\n                let _permit = sem\n                    .acquire_owned()\n                    .await\n                    .map_err(|e| io::Error::other(e.to_string()))?;\n                match tokio::time::timeout(dur, plan.connect(addr)).await {\n                    Ok(inner) => inner,\n                    Err(_elapsed) => Err(io::Error::other(format!(\n                        \"submit-dial exceeded the {dur:?} bound (peer unresponsive)\"\n                    ))),\n                }\n            }\n            .await;\n            if let Err(e) = outcome {\n                // Ordinary per-peer failure rides the presence stream — the pump\n                // backs THIS peer off and moves on; the round is never poisoned.\n                shared\n                    .presence\n                    .lock()\n                    .unwrap()\n                    .append_dial_failed(&remote_id_hex, e.to_string());\n            }\n        });\n    }\n\n    /// Snapshot the per-dial state (endpoint, shared table, identity, membership,\n    /// the opt-in roster exchange, our live address) into a `Send + 'static`\n    /// [`DialPlan`] both the blocking [`Self::dial`] and the spawned\n    /// [`Self::submit_dial`] connect through — the ONE connect+prove+register\n    /// path, so W1's bound and the seed-proof stay single-sourced.\n    fn dial_plan(&self) -> DialPlan {\n        DialPlan {\n            endpoint: Arc::clone(&self.endpoint),\n            shared: Arc::clone(&self.shared),\n            local_id: self.local_id,\n            membership: self.membership.clone(),\n            roster_rx: self.roster.lock().unwrap().clone(),\n            self_addr: serde_json::to_value(self.endpoint.addr())\n                .unwrap_or(serde_json::Value::Null),\n        }\n    }\n\n    /// Record that journaled dial `(minter, op_id)` opened `conn_id` (called inside\n    /// the `apply_once` closure, so a concurrent deduped replay always finds it).\n    /// The `minter` matches the journal key the broker built (ADR-0034 namespacing).\n…\n}"}],"details":{"displayContent":{"text":"use crate::msg::{\n…\n    NetPresenceEvent, NetStreamInfo, PRESENCE_CONNECTED, PRESENCE_DIAL_FAILED, PRESENCE_DISCONNECTED,\n};\n\n/// The reserved [`crate::effect::EffectKey`] session namespace for net-scoped\n/// effects (a dial has no PTY session). Broker session ids are minted from 1\n/// (`Broker::next_id` starts at 1), so `0` can never collide with a real session.\npub const NET_EFFECT_SESSION: u64 = 0;\n\n/// Broker-side QUIC-op deadline (REQ-HAZARD-BROKER-QUIC-DEADLINE), in ms. Each\n/// brain-waiting QUIC await — `dial` / `open_stream` / `send_stream` — is bounded\n/// by this so a black-holed or dead peer fails PROMPTLY with an ORDINARY error\n/// the broker replies, never an unbounded await that wedges the single-threaded\n/// pump (the B-half of REQ-HAZARD-PUMP-IPC-DEADLINE; the 2.2h hfenduleam wedge).\n/// Chosen at **10s**: comfortably above any legitimate LAN/relay connect +\n/// seed-proof round-trip (sub-second typical, a few seconds over a slow relay),\n/// and well below the brain's 30s `PUMP_PEER_IO_TIMEOUT` so the BROKER always\n/// fires FIRST — the timeout then surfaces to the pump as a normal broker error\n/// reply (`peer_outcome`'s ordinary per-peer arm → drop conn + redial, round\n/// continues, heartbeat advances), NOT the brain's own read-deadline (the A-half\n/// poison → supervised-restart path). The 20s margin below 30s covers the error\n/// frame's IPC transit + the brain's read scheduling. Test-overridable via\n/// [`NetHost::set_quic_op_timeout`] so the hermetic black-hole tests fail fast.\nconst BROKER_QUIC_OP_TIMEOUT_MS: u64 = 10_000;\n\n/// Bounded concurrent-dial cap (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION, G4): a\n/// large-subnet guard so a big roster's fan-out-all can never spawn unbounded\n/// concurrent connects. Generous — today's rosters are far under it; it is\n/// cheap insurance, not a throttle on any real workload. BOTH the non-blocking\n/// [`NetHost::submit_dial`] AND the blocking [`NetHost::dial`] acquire a permit\n/// from the SAME semaphore (Q2 caveat: else the cap is bypassed).\n// [impl->REQ-PUMP-PEER-ISOLATION]\nconst PUMP_DIAL_CONCURRENCY: usize = 24;\n\n/// Everything needed to stand the broker's endpoint up: the node's identity\n/// (the endpoint *is* the node's name — EndpointId == pubkey), the relay stance\n/// (from `daemon.json` in production; [`RelayPolicy::Disabled`] in hermetic\n/// tests), and whether mDNS LAN discovery rides along.\npub struct NetConfig {\n    /// The node identity the endpoint binds as (seed → same ed25519 keypair).\n    pub identity: Identity,\n    /// Relay stance (ADR-0002): n0 default / self-host / disabled.\n    pub relay: RelayPolicy,\n    /// mDNS LAN discovery on/off (off in hermetic tests).\n    pub discovery: LocalDiscovery,\n    /// Socket bind scope: [`BindScope::All`] in production;\n    /// [`BindScope::Loopback`] in hermetic tests (no real interface touched,\n    /// no per-test-binary Windows firewall prompt).\n    pub scope: BindScope,\n    /// Live source of this node's subnet credentials for the connect-time\n    /// seed-proof (Mesh-D2, REQ-MESH-1). `Some` enables the mutual proof at\n    /// every dial + accept (fail → drop); `None` disables it entirely — both\n    /// peers must agree, or the side expecting the control stream would hang.\n    /// Production wires `Some(SubnetStore::load …)`; mechanics-only tests that\n    /// don't exercise membership pass `None`.\n    pub membership: Option<MembershipSource>,\n}\n\n/// Default bounded stream-read ring depth (chunks) — same sizing rationale as\n/// the PTY `OutputLog`: large enough that a brain-restart window never evicts\n/// unreplayed chunks in practice; bounded so an unsubscribed stream can't\n/// buffer without limit.\nconst DEFAULT_STREAM_RING_CHUNKS: usize = 4096;\n\n/// Max bytes pulled per stream read (one ring chunk).\nconst STREAM_READ_CHUNK: usize = 64 * 1024;\n\n/// Transport backing a held connection. A real `Quic` connection (the only\n/// kind an inbound handshake can produce), or a broker-minted `Loopback` —\n/// an in-process connection with NO iroh handshake whose identity IS this node,\n/// established BY CONSTRUCTION. A loopback conn can ONLY be minted broker-side\n/// via [`NetHost::dial_loopback`]; it can never arise from an inbound handshake\n/// (a remote always presents its own key and cannot claim to be us). This is\n/// what lets a LOCAL `spt rc` ride the byte-identical `serve_attach` pump (M12\n/// W1.5, B1) — QUIC self-dial is refused by iroh (\"Connecting to ourself is not\n/// supported\"), so local attach rides a broker loopback conn instead.\nenum ConnKind {\n    /// A real QUIC connection — kept alive by ownership here; dropping it closes\n    /// the connection. Cloned (cheap handle) for stream opens.\n    Quic(Connection),\n    /// A broker-minted in-process loopback (no iroh handle, no handshake). Its\n    /// streams are minted eagerly in cross-wired pairs by [`NetHost::open_stream`];\n    /// there is no accept loop and no closed-watcher (it lives for the host).\n    Loopback,\n}\n\n/// One live connection the broker holds (QUIC or loopback).\nstruct ConnEntry {\n    /// The transport backing this connection.\n    kind: ConnKind,\n    /// The remote node's stable name (hex pubkey). For QUIC, proven by the\n    /// handshake; for loopback, THIS node's own id (the broker-minted identity).\n    remote_id_hex: String,\n    /// The subnets the peer proved current-epoch seed-knowledge of at connect\n    /// (Mesh-D2, REQ-MESH-1). Empty when seed-proof is disabled (`membership:\n    /// None`). The D5 gate swap reads this in place of `is_trusted(subnet, …)`;\n    /// at D2 it is cached but not yet consumed (the `is_trusted` gates still run\n    /// in parallel — belt + suspenders, no regression).\n    proven_subnets: HashSet<String>,\n}\n\n/// A bounded, sequenced read log for one QUIC stream — the PTY `OutputLog`\n/// discipline applied to the network (D4b): the stream's single read pump is\n/// the only producer; a brain connection attaches as the subscriber; every\n/// subscriber send happens under the enclosing `Mutex`, so live chunks and a\n/// replay can never interleave out of `seq` order. Chunks produced while no\n/// brain is attached sit in the ring and replay on the next subscribe — a\n/// brain restart loses nothing (Spike #3 invariant B/D).\n// [impl->REQ-DAEMON-2]\nstruct StreamLog {\n    stream_id: u64,\n    /// TRANSPORT read counter: bumped once per [`append`](Self::append) (one\n    /// read-pump `read_chunk`), INDEPENDENT of byte size. NOT a logical-chunk\n    /// count — QUIC may coalesce several sender writes into one receiver\n    /// `read_chunk` (or split one), so `next_seq` can be < the number of logical\n    /// chunks the sender issued for the SAME bytes. Correctness (byte-exact +\n    /// exactly-once) holds via these transport seqs + the recv cursor regardless;\n    /// any test asserting `next_seq == logical-chunk-count` is wrong (the Windows\n    /// coalescing flake) and must gate on BYTES instead.\n    next_seq: u64,\n    ring: VecDeque<(u64, Vec<u8>)>,\n    cap_chunks: usize,\n    subscriber: Option<SharedSend>,\n    /// Read side finished cleanly (peer called finish / conn ended).\n    finished: bool,\n    /// **Retentive backpressure cap** (M11-W3, REQ-SHELL-4), in chunks; `0` ⇒ not\n    /// retentive (ordinary bounded-overwrite stream). A shell-tunnel stream must\n    /// NOT drop bytes — CONTEXT:262 \"tunneled protocols cannot drop frames, so\n    /// congestion surfaces as lag, never loss.\" So a retentive log never cap-evicts\n    /// on append (no loss), and the read pump REFUSES to pull the next chunk once\n    /// the undrained ring reaches this cap (no unbounded growth ⇒ no OOM) — the\n    /// transport's native flow-control then lags the *sender*. A chunk leaves the\n…\n}\n…\nimpl NetShared {\n…\n}\n\n/// Register a live connection: mint its broker id and spawn its inbound-stream\n/// acceptor. Must run inside the host's runtime context (the accept loop, or a\n/// `block_on` future) — it spawns tasks.\n/// The connection's OBSERVED remote address as opaque seed JSON (REQ-CONV-1):\n/// the path address string, or `null` when id-only / path-less (nothing worth\n/// seeding over discovery). Shared by [`register_conn`]'s presence write-back\n/// and [`NetHost::conn_remote_addr_json`] so both seed identically.\n// [impl->REQ-CONV-1]\nfn observed_addr_json(conn: &Connection) -> serde_json::Value {\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n    if addr.is_empty() {\n        return serde_json::Value::Null; // id-only adds nothing over discovery\n    }\n    serde_json::to_value(addr).unwrap_or(serde_json::Value::Null)\n}\n\n/// A `Send + 'static` snapshot of one dial's inputs — the SHARED connect path\n/// for both the blocking [`NetHost::dial`] and the spawned\n/// [`NetHost::submit_dial`], so W1's per-dial bound and the Mesh-D2 seed-proof\n/// stay single-sourced (never a second, drifting dial impl).\nstruct DialPlan {\n    endpoint: Arc<NetEndpoint>,\n    shared: Arc<NetShared>,\n    local_id: PublicKey,\n    membership: Option<MembershipSource>,\n    roster_rx: Option<RosterExchange>,\n    self_addr: serde_json::Value,\n}\n\nimpl DialPlan {\n    /// Connect, prove membership in-band (Mesh-D2 — a failed/empty proof drops\n    /// the dial before it registers; Mesh-D4 roster leg rides the same stream on\n    /// success), then register the conn (which emits `PRESENCE_CONNECTED` with\n    /// the observed addr). The caller bounds this await (the blocking dial via\n    /// `bounded_block_on`; the submit via its own `timeout`).\n    async fn connect(self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n        let conn = self\n            .endpoint\n            .connect(addr)\n            .await\n            .map_err(|e| io::Error::other(e.to_string()))?;\n        let proven = match self.membership {\n            Some(src) => {\n                let creds = src();\n                prove_membership(\n                    &conn,\n                    self.local_id,\n                    ProofRole::Dialer,\n                    &creds,\n                    self.roster_rx.as_ref(),\n                    &self.self_addr,\n                )\n                .await\n                .ok_or_else(|| {\n                    io::Error::other(\"seed-proof failed: peer is not a subnet member\")\n                })?\n            }\n            None => HashSet::new(),\n        };\n        Ok(register_conn(&self.shared, conn, proven))\n    }\n}\n\nfn register_conn(\n    shared: &Arc<NetShared>,\n    conn: Connection,\n    proven_subnets: HashSet<String>,\n) -> (u64, String) {\n    let remote_id_hex = PublicKey::from_bytes(conn.remote_id().as_bytes())\n        .expect(\"an iroh EndpointId is always a valid ed25519 public key\")\n        .to_hex();\n    let id = shared.next_conn_id.fetch_add(1, Ordering::Relaxed);\n    shared.conns.lock().unwrap().insert(\n        id,\n        ConnEntry {\n            kind: ConnKind::Quic(conn.clone()),\n            remote_id_hex: remote_id_hex.clone(),\n            proven_subnets,\n        },\n    );\n…\n}\n…\nimpl Drop for DialGauge {\n    fn drop(&mut self) {\n…\n    }\n}\n\nimpl NetHost {\n    /// Bind the broker's endpoint on a fresh dedicated runtime and start the\n    /// accept loop. The endpoint speaks TWO ALPNs (M7 D3, REQ-SUBNET-2): the\n    /// trusted [`SPT_NET_ALPN`] (connections join the table as before) and\n    /// the pre-trust pairing ALPN — routed to the always-on responder\n    /// ([`crate::pairhost::respond`]), never registered in the stream table.\n    /// One endpoint for both is deliberate: the pairing transcript binds and\n    /// pins the REAL node pubkey, and the relay can only route one endpoint\n    /// per key — the ALPN is the pre-trust/trusted boundary (ADR-0005).\n    /// The meet-rotation listener loop rides the same runtime.\n    // [impl->REQ-DAEMON-2]\n    // [impl->REQ-SUBNET-2]\n    pub fn start(cfg: NetConfig) -> io::Result<NetHost> {\n        // Hermeticity guard (REQ-PAIR-8): a loopback-scoped endpoint is the\n        // \"no network reached\" promise — the ceremony clock's lazy NTP query\n        // must honor it (tests must never probe a real NTP server). Real\n        // scopes keep the decision-18 offset correction.\n        spt_net::net::pairing::ntp::set_enabled(!matches!(cfg.scope, BindScope::Loopback));\n        let runtime = tokio::runtime::Builder::new_multi_thread()\n            .worker_threads(2)\n            .thread_name(\"spt-broker-net\")\n            .enable_all()\n            .build()?;\n        let endpoint = runtime\n            .block_on(NetEndpoint::bind_scoped(\n                &cfg.identity,\n                cfg.relay.clone(),\n                cfg.discovery,\n                vec![\n                    SPT_NET_ALPN.to_vec(),\n                    spt_net::net::pairing::wire::SPT_PAIR_ALPN.to_vec(),\n                ],\n                cfg.scope,\n            ))\n            .map_err(|e| io::Error::other(e.to_string()))?;\n        let endpoint = Arc::new(endpoint);\n        let shared = Arc::new(NetShared::new());\n        let local_pub = cfg.identity.public_key();\n        let pair_rate = Arc::new(tokio::sync::Mutex::new(\n            spt_net::net::pairing::ratelimit::PairingRateLimiter::new(),\n        ));\n\n        // Accept loop: lives for the endpoint's lifetime on the host's runtime.\n        // Each handshake completes on its own task so a slow peer can't stall\n        // the loop; a failed handshake is simply not registered. The pairing\n        // ALPN routes to the responder; everything else is the trusted table.\n        let roster = Arc::new(Mutex::new(None::<RosterExchange>));\n        let ep = Arc::clone(&endpoint);\n        let sh = Arc::clone(&shared);\n        let rate = Arc::clone(&pair_rate);\n        let accept_membership = cfg.membership.clone();\n        let accept_roster = Arc::clone(&roster);\n        let accept_ep = Arc::clone(&endpoint);\n        runtime.spawn(async move {\n            while let Some(incoming) = ep.accept().await {\n                let sh = Arc::clone(&sh);\n                let rate = Arc::clone(&rate);\n                let membership = accept_membership.clone();\n                // Snapshot the (opt-in) roster exchange + our live address for\n                // this connect; the leg runs after the proof verifies.\n                let roster_rx = accept_roster.lock().unwrap().clone();\n                let self_addr =\n                    serde_json::to_value(accept_ep.addr()).unwrap_or(serde_json::Value::Null);\n                tokio::spawn(async move {\n                    let Ok(connecting) = incoming.accept() else {\n                        return;\n                    };\n                    let Ok(conn) = connecting.await else { return };\n                    if conn.alpn() == spt_net::net::pairing::wire::SPT_PAIR_ALPN {\n                        crate::pairhost::respond(conn, local_pub, rate).await;\n                    } else {\n                        // Mesh-D2: prove membership in-band BEFORE the connection\n                        // joins the table. A non-prover (no shared subnet / bad\n                        // seed) is dropped — the conn falls out of scope and QUIC\n                        // closes it. With membership disabled, register as before.\n                        // Mesh-D4: on success, a roster leg rides the same stream.\n                        let proven = match membership {\n                            Some(src) => {\n                                let creds = src();\n                                match prove_membership(\n                                    &conn,\n                                    local_pub,\n                                    ProofRole::Acceptor,\n                                    &creds,\n                                    roster_rx.as_ref(),\n                                    &self_addr,\n                                )\n                                .await\n                                {\n                                    Some(set) => set,\n                                    None => return, // drop the connection\n                                }\n                            }\n                            None => HashSet::new(),\n                        };\n                        register_conn(&sh, conn, proven);\n                    }\n                });\n            }\n        });\n\n        // The meet-rotation loop (M7 D3): how a joiner that knows only\n        // (subnet name, code) finds this responder. Idles with no subnets.\n        crate::pairhost::spawn_meet_rotation(\n            runtime.handle(),\n            Arc::clone(&endpoint),\n            cfg.relay,\n            cfg.discovery,\n            cfg.scope,\n        );\n\n        // The limiter Arc lives on in the accept loop; the host keeps no\n        // handle (per-ceremony state is the responder's, not the table's).\n        drop(pair_rate);\n\n        // DIAGNOSTIC (UPDATE-WEDGE round-3): the reactor-liveness canary. Stamps\n        // epoch-ms every ~25ms FROM the 2-worker runtime, so a starved runtime\n        // (workers monopolized by non-yielding dead-peer connects) shows as a\n        // stale stamp. Throwaway probe — no REQ, gated by nothing (cheap store).\n        let net_canary_tick_ms = Arc::new(AtomicU64::new(epoch_ms()));\n        let canary = Arc::clone(&net_canary_tick_ms);\n        runtime.spawn(async move {\n            let mut ivl = tokio::time::interval(Duration::from_millis(25));\n            loop {\n                ivl.tick().await;\n                canary.store(epoch_ms(), Ordering::Relaxed);\n            }\n        });\n\n        Ok(NetHost {\n            runtime,\n            endpoint,\n            shared,\n            dial_ops: Mutex::new(HashMap::new()),\n            stream_ops: Mutex::new(HashMap::new()),\n            local_id: local_pub,\n            membership: cfg.membership,\n            roster,\n            loopback_conn: Mutex::new(None),\n            loopback_pair_lock: Mutex::new(()),\n            quic_op_timeout_ms: AtomicU64::new(BROKER_QUIC_OP_TIMEOUT_MS),\n            dial_semaphore: Arc::new(tokio::sync::Semaphore::new(PUMP_DIAL_CONCURRENCY)),\n            active_dial_tasks: Arc::new(AtomicUsize::new(0)),\n            net_canary_tick_ms,\n        })\n    }\n\n    /// Wire the on-connect roster-exchange seam (Mesh-D4, REQ-MESH-2) onto this\n    /// live host. The daemon calls this once after `start` with\n    /// [`crate::seedproofx::production_roster_exchange`]; tests inject their own.\n    /// Off `NetConfig` by design — see the `roster` field. Takes effect on the\n    /// next dial/accept (each connect snapshots it).\n    // [impl->REQ-MESH-2]\n    pub fn set_roster_exchange(&self, exchange: RosterExchange) {\n        *self.roster.lock().unwrap() = Some(exchange);\n    }\n\n    /// The broker-side QUIC-op deadline currently in force (default\n    /// [`BROKER_QUIC_OP_TIMEOUT_MS`]).\n    fn quic_op_timeout(&self) -> Duration {\n        Duration::from_millis(self.quic_op_timeout_ms.load(Ordering::Relaxed))\n    }\n\n    /// Override the broker-side QUIC-op deadline (REQ-HAZARD-BROKER-QUIC-DEADLINE).\n    /// Production keeps the [`BROKER_QUIC_OP_TIMEOUT_MS`] default; the hermetic\n    /// black-hole tests set a short bound so a dead-peer await fails fast instead\n    /// of pinning the test for ~10s. Off [`NetConfig`] by design (mirrors\n    /// [`Self::set_roster_exchange`]) — the many hermetic test configs need no change.\n…\n    /// ([`PUMP_DIAL_CONCURRENCY`] minus in-flight blocking + submit dials). Lets the\n    /// rig confirm the semaphore (24) is NOT the bottleneck vs the 2-worker pool.\n    pub fn dial_permits_available(&self) -> usize {\n        self.dial_semaphore.available_permits()\n    }\n\n    /// Dial a peer over `SPT_NET_ALPN`, registering the connection in the table.\n    /// Bridges sync→async via the host's own runtime (the broker's dispatch\n    /// threads block here; the future runs on the net worker threads).\n    // [impl->REQ-DAEMON-2]\n    pub fn dial(&self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n        let plan = self.dial_plan();\n        let sem = Arc::clone(&self.dial_semaphore);\n        // Bounded (REQ-HAZARD-BROKER-QUIC-DEADLINE): the `connect` + `prove_membership`\n        // awaits are the exact unbounded sites a dead peer black-holes — wrap\n        // them so a non-responsive peer fails as an ordinary error within the bound.\n        self.bounded_block_on(async move {\n            // Q2 caveat: the blocking dial acquires a permit from the SAME\n            // semaphore as `submit_dial`, so the concurrency cap bounds every dial\n            // source (never bypassed). `acquire_owned` errs only on a closed\n            // semaphore — we never close it.\n            let _permit = sem\n                .acquire_owned()\n                .await\n                .map_err(|e| io::Error::other(e.to_string()))?;\n            plan.connect(addr).await\n        })\n    }\n\n    /// PUMP-TRUTH W2 (REQ-PUMP-PEER-ISOLATION): submit a NON-BLOCKING dial and\n    /// return IMMEDIATELY. Spawns the connect on the host runtime under the shared\n    /// concurrency permit ([`PUMP_DIAL_CONCURRENCY`]); the dial is bounded exactly\n    /// like [`Self::dial`] (W1's per-dial bound), so a dead peer fails PROMPTLY.\n    /// The OUTCOME rides the presence stream — success already emits\n    /// `PRESENCE_CONNECTED` inside `register_conn`; failure appends\n    /// `PRESENCE_DIAL_FAILED` here (conn_id:0 sentinel, correlated by\n    /// `remote_id_hex`). Never a blocking reply, never a whole-round poison — one\n    /// dead peer's fate is isolated to its own event.\n    // [impl->REQ-PUMP-PEER-ISOLATION]\n    pub fn submit_dial(&self, addr: EndpointAddr, remote_id_hex: String) {\n        let plan = self.dial_plan();\n        let sem = Arc::clone(&self.dial_semaphore);\n        let shared = Arc::clone(&self.shared);\n        let dur = self.quic_op_timeout();\n        // DIAGNOSTIC (round-3): mark this dial in-flight for the whole task, so\n        // the starvation rig can read how many dead-peer connects are occupying\n        // the 2-worker runtime at once. RAII decrement (panic/cancel-safe).\n        let gauge = Arc::clone(&self.active_dial_tasks);\n        self.runtime.spawn(async move {\n            gauge.fetch_add(1, Ordering::Relaxed);\n            let _dial_guard = DialGauge(gauge);\n            let outcome = async {\n                let _permit = sem\n                    .acquire_owned()\n                    .await\n                    .map_err(|e| io::Error::other(e.to_string()))?;\n                match tokio::time::timeout(dur, plan.connect(addr)).await {\n                    Ok(inner) => inner,\n                    Err(_elapsed) => Err(io::Error::other(format!(\n                        \"submit-dial exceeded the {dur:?} bound (peer unresponsive)\"\n                    ))),\n                }\n            }\n            .await;\n            if let Err(e) = outcome {\n                // Ordinary per-peer failure rides the presence stream — the pump\n                // backs THIS peer off and moves on; the round is never poisoned.\n                shared\n                    .presence\n                    .lock()\n                    .unwrap()\n                    .append_dial_failed(&remote_id_hex, e.to_string());\n            }\n        });\n    }\n\n    /// Snapshot the per-dial state (endpoint, shared table, identity, membership,\n    /// the opt-in roster exchange, our live address) into a `Send + 'static`\n    /// [`DialPlan`] both the blocking [`Self::dial`] and the spawned\n    /// [`Self::submit_dial`] connect through — the ONE connect+prove+register\n    /// path, so W1's bound and the seed-proof stay single-sourced.\n    fn dial_plan(&self) -> DialPlan {\n        DialPlan {\n            endpoint: Arc::clone(&self.endpoint),\n            shared: Arc::clone(&self.shared),\n            local_id: self.local_id,\n            membership: self.membership.clone(),\n            roster_rx: self.roster.lock().unwrap().clone(),\n            self_addr: serde_json::to_value(self.endpoint.addr())\n                .unwrap_or(serde_json::Value::Null),\n        }\n    }\n\n    /// Record that journaled dial `(minter, op_id)` opened `conn_id` (called inside\n    /// the `apply_once` closure, so a concurrent deduped replay always finds it).\n    /// The `minter` matches the journal key the broker built (ADR-0034 namespacing).\n…\n}","startLine":48,"lineNumbers":[48,null,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,null,186,null,489,null,500,501,502,503,504,505,506,507,508,509,510,511,512,513,514,515,516,517,518,519,520,521,522,523,524,525,526,527,528,529,530,531,532,533,534,535,536,537,538,539,540,541,542,543,544,545,546,547,548,549,550,551,552,553,554,555,556,557,558,559,560,561,562,563,564,565,566,567,568,569,570,571,572,573,574,575,576,577,578,579,580,581,null,632,null,797,798,null,800,801,802,803,804,805,806,807,808,809,810,811,812,813,814,815,816,817,818,819,820,821,822,823,824,825,826,827,828,829,830,831,832,833,834,835,836,837,838,839,840,841,842,843,844,845,846,847,848,849,850,851,852,853,854,855,856,857,858,859,860,861,862,863,864,865,866,867,868,869,870,871,872,873,874,875,876,877,878,879,880,881,882,883,884,885,886,887,888,889,890,891,892,893,894,895,896,897,898,899,900,901,902,903,904,905,906,907,908,909,910,911,912,913,914,915,916,917,918,919,920,921,922,923,924,925,926,927,928,929,930,931,932,933,934,935,936,937,938,939,940,941,942,943,944,945,946,947,948,949,950,951,952,953,954,955,956,957,958,959,960,961,962,963,964,965,966,967,968,969,970,null,1080,1081,1082,1083,1084,1085,1086,1087,1088,1089,1090,1091,1092,1093,1094,1095,1096,1097,1098,1099,1100,1101,1102,1103,1104,1105,1106,1107,1108,1109,1110,1111,1112,1113,1114,1115,1116,1117,1118,1119,1120,1121,1122,1123,1124,1125,1126,1127,1128,1129,1130,1131,1132,1133,1134,1135,1136,1137,1138,1139,1140,1141,1142,1143,1144,1145,1146,1147,1148,1149,1150,1151,1152,1153,1154,1155,1156,1157,1158,1159,1160,1161,1162,1163,1164,1165,1166,1167,1168,1169,1170,1171,1172,1173,1174,1175,null,1557]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\nethost.rs"}}},"isError":false,"timestamp":1784069069945}}
{"type":"message","id":"32ff04b3","parentId":"cb5b6f4d","timestamp":"2026-07-14T22:44:29.946Z","message":{"role":"toolResult","toolCallId":"call_vGsHwjXYMoqJL4jTKiz5mp28|fc_0b084cf0b521ab15016a56bbcda82c8190b94ce3aebe005b49","toolName":"read","content":[{"type":"text","text":"pub enum RegistryApplyVerdict {\n…\n    Merged(MergeOutcome),\n    /// Refused: this node is not a member of the record's subnet.\n    NotMember,\n    /// Refused: the origin is not trusted in the record's subnet.\n    UntrustedOrigin,\n}\n\n/// The inbound gate's config — reloaded per feed (config edits take effect\n/// without a restart; the access-gate stance shared with sync/notif).\npub struct RegistryGatePolicy {\n    /// Names of every subnet this node is a member of.\n    pub subnets: Vec<String>,\n    /// The membership directory (Mesh-D5, REQ-MESH-5): authorization is now\n    /// live roster membership (roster-listed ∧ ¬tombstoned), not a stored\n    /// pairwise pin. A non-member can't even connect (D2 seed-proof drops it),\n    /// so this only ever runs against a peer that already proved seed knowledge.\n    pub roster: RosterStore,\n}\n\nimpl RegistryGatePolicy {\n    /// Load from the node's canonical stores.\n    pub fn load() -> RegistryGatePolicy {\n        let subnets = SubnetStore::load()\n            .subnets\n            .iter()\n            .map(|s| s.name.clone())\n            .collect();\n        RegistryGatePolicy {\n            subnets,\n            roster: RosterStore::load(),\n        }\n    }\n\n    /// member subnet ∧ origin is a roster member of that subnet — fail-closed on\n    /// both.\n    // [impl->REQ-MESH-5]\n    pub fn admits(&self, subnet: &str, origin_node: &str) -> bool {\n        self.subnets.iter().any(|s| s == subnet) && self.roster.is_member(subnet, origin_node)\n    }\n}\n\n/// The daemon's per-subnet registry instances + this node's advertisement\n/// epoch source. Shared (`Arc`) between the dispatcher's registry arm and\n/// the peer pump.\npub struct RegistryHost {\n    /// This node's stable name (lowercase-hex pubkey).\n    node_hex: String,\n    /// This node's human label (M7 D2, REQ-SUBNET-3): the OS hostname,\n    /// re-read at daemon startup ([`new`](Self::new)) and stamped onto every\n    /// advertised row — a hostname change reaches peers as ordinary\n    /// epoch-bumped updates. Display/addressing sugar; `node_hex` stays the\n…\n}\n…\n    /// an observed *transition to `Active` on a peer node* — the wire signal\n    /// that another instance of the id just became the driven one (its\n    /// daemon advertises transitions epoch-bumped), which rests a local\n    /// instance of the same id warm (CONTEXT: driving `ling@laptop` makes\n    /// `ling@desktop` dormant).\n    ///\n    /// Flip = `Updated` merge where the stored row's status was NOT `Active`\n    /// and the incoming one is. Deliberately **never `Inserted`**: this\n    /// registry is in-memory, so a daemon restart re-inserts every peer row\n    /// at its *current* status — counting inserts would knock local\n    /// instances dormant on every restart; and never the periodic\n    /// re-advertisement (`Updated` with prev already `Active` is not a\n    /// flip). The lease has already dropped stale/equal epochs before any\n    /// of this runs.\n    // [impl->REQ-INST-3]\n    pub fn apply_feed_flips(\n        &self,\n        origin_node: &str,\n        updates: &[RegistryUpdate],\n        policy: &RegistryGatePolicy,\n    ) -> (Vec<RegistryApplyVerdict>, Vec<String>) {\n        let mut regs = self.regs.lock().unwrap();\n        let mut flips: Vec<String> = Vec::new();\n        let mut admitted_any = false;\n        let verdicts = updates\n            .iter()\n            .map(|u| {\n                if !policy.subnets.iter().any(|s| s == &u.subnet) {\n                    return RegistryApplyVerdict::NotMember;\n                }\n                // [impl->REQ-MESH-5]\n                if !policy.roster.is_member(&u.subnet, origin_node) {\n                    return RegistryApplyVerdict::UntrustedOrigin;\n                }\n                admitted_any = true;\n                let reg = regs.entry(u.subnet.clone()).or_default();\n                let prev = reg\n                    .instances(&u.endpoint_id)\n                    .iter()\n                    .find(|i| i.node == u.instance.node)\n                    .map(|i| i.status);\n                // The epoch lease (4.8) decides; an own-row echo from a peer\n                // is dropped Stale by construction (our epoch is newer or\n                // equal — never authored elsewhere).\n                let outcome = reg.merge_instance(&u.endpoint_id, u.instance.clone());\n                if outcome == MergeOutcome::Updated\n                    && u.instance.status == Status::Active\n                    && prev != Some(Status::Active)\n                    && u.instance.node != self.node_hex\n                    && !flips.contains(&u.endpoint_id)\n                {\n                    flips.push(u.endpoint_id.clone());\n                }\n                RegistryApplyVerdict::Merged(outcome)\n            })\n            .collect();\n        drop(regs);\n        // Gossip-recency stamp (M7 D2): an ADMITTED feed proves the origin\n        // node is up right now — even a Stale merge verdict is a liveness\n        // signal (the lease judged the row, not the sender). Refused feeds\n        // stamp nothing (an untrusted sender earns no liveness credit).\n        // [impl->REQ-SUBNET-1]\n        if admitted_any {\n            self.heard\n                .lock()\n                .unwrap()\n                .insert(origin_node.to_string(), wall_ms());\n        }\n        self.write_snapshots();\n        (verdicts, flips)\n    }\n\n    /// Apply inbound node-level label updates (REQ-SUBNET-3) under the SAME\n    /// fail-closed gate as [`apply_feed_flips`]: a non-member subnet or an\n    /// untrusted origin is refused; an admitted update merges via\n    /// [`SubnetRegistry::merge_node_label`] (epoch lease) and stamps the\n    /// origin's gossip-recency (an admitted label feed proves the peer is up,\n    /// exactly like an instance feed). The endpoint-less carrier: this is how a\n    /// peer with zero endpoints gets its hostname into our `--nodes` view.\n    // [impl->REQ-SUBNET-3]\n    pub fn apply_node_labels(\n        &self,\n        origin_node: &str,\n        updates: &[NodeLabelUpdate],\n        policy: &RegistryGatePolicy,\n    ) -> Vec<RegistryApplyVerdict> {\n        let mut regs = self.regs.lock().unwrap();\n        let mut admitted_any = false;\n        let verdicts = updates\n            .iter()\n            .map(|u| {\n                if !policy.subnets.iter().any(|s| s == &u.subnet) {\n                    return RegistryApplyVerdict::NotMember;\n                }\n                // [impl->REQ-MESH-5]\n                if !policy.roster.is_member(&u.subnet, origin_node) {\n                    return RegistryApplyVerdict::UntrustedOrigin;\n                }\n                admitted_any = true;\n                let reg = regs.entry(u.subnet.clone()).or_default();\n                RegistryApplyVerdict::Merged(reg.merge_node_label(\n                    &u.node,\n                    u.label.clone(),\n                    u.epoch,\n                ))\n            })\n            .collect();\n        drop(regs);\n        if admitted_any {\n            self.heard\n                .lock()\n                .unwrap()\n                .insert(origin_node.to_string(), wall_ms());\n        }\n        self.write_snapshots();\n        verdicts\n    }\n\n    /// Scan the owlery and (re-)advertise every self perch into every member\n    /// subnet it is visible in, each row stamped with a fresh epoch. Returns\n    /// the updates to push to peers (the node's own rows only — peers' rows\n    /// reconverge from their own re-advertisement, no transitive gossip in\n    /// v1: trust is pairwise per subnet, a relayed third-party row would\n    /// carry an origin the receiver can't gate honestly).\n    // [impl->REQ-INST-7]\n    pub fn advertise_local(&self, owlery: &Path) -> Vec<RegistryFeedRecord> {\n        let subnets = SubnetStore::load();\n        let mut vis = VisibilityStore::load();\n        // First-join home adoption (D9-5, REQ-INST-15): within one\n        // advertisement cadence of the node's first join (a pair lands the\n        // subnet record; no pairing-protocol threading needed), unhomed Self\n        // perches adopt the sole subnet + seed their sync scope. Strictly\n        // adopt-if-unset; a multi-subnet store adopts nothing.\n        // [impl->REQ-INST-15]\n        if !spt_store::home::adopt_for_unset(owlery, &subnets, &mut vis).is_empty() {\n            let _ = vis.save();\n        }\n        let vis = vis;\n        // The node-level resource-blurb seed (D9-4): an endpoint that has not\n        // authored its own blurb advertises this default (config seeds, the\n        // agent refines — CONTEXT §resource advertisement).\n        let node_blurb = crate::config::DaemonConfig::load().resources_blurb;\n        // The node's subnet-broadcast shell adapters (M5-D8c, CONTEXT\n        // §Discovery scope): registered kind=\"shell\" adapters that chose\n        // broadcast=subnet ride every row this node authors — the other-node\n        // discovery arm. Computed once per scan (the registration set is\n        // node-level).\n        // [impl->REQ-EP-5]\n        let shell_adapters: Vec<String> = spt_runtime::registry::registered(&perch::adapters_dir())\n            .iter()\n            .filter(|(r, m)| {\n                r.kind == spt_runtime::manifest::AdapterKind::Shell\n                    && m.shell.as_ref().and_then(|s| s.broadcast)\n                        == Some(spt_runtime::manifest::Broadcast::Subnet)\n            })\n            .map(|(r, _)| r.name.clone())\n            .collect();\n        let mut out = Vec::new();\n        let mut regs = self.regs.lock().unwrap();\n        let mut epoch = self.epoch.lock().unwrap();\n\n…\n    }"}],"details":{"displayContent":{"text":"pub enum RegistryApplyVerdict {\n…\n    Merged(MergeOutcome),\n    /// Refused: this node is not a member of the record's subnet.\n    NotMember,\n    /// Refused: the origin is not trusted in the record's subnet.\n    UntrustedOrigin,\n}\n\n/// The inbound gate's config — reloaded per feed (config edits take effect\n/// without a restart; the access-gate stance shared with sync/notif).\npub struct RegistryGatePolicy {\n    /// Names of every subnet this node is a member of.\n    pub subnets: Vec<String>,\n    /// The membership directory (Mesh-D5, REQ-MESH-5): authorization is now\n    /// live roster membership (roster-listed ∧ ¬tombstoned), not a stored\n    /// pairwise pin. A non-member can't even connect (D2 seed-proof drops it),\n    /// so this only ever runs against a peer that already proved seed knowledge.\n    pub roster: RosterStore,\n}\n\nimpl RegistryGatePolicy {\n    /// Load from the node's canonical stores.\n    pub fn load() -> RegistryGatePolicy {\n        let subnets = SubnetStore::load()\n            .subnets\n            .iter()\n            .map(|s| s.name.clone())\n            .collect();\n        RegistryGatePolicy {\n            subnets,\n            roster: RosterStore::load(),\n        }\n    }\n\n    /// member subnet ∧ origin is a roster member of that subnet — fail-closed on\n    /// both.\n    // [impl->REQ-MESH-5]\n    pub fn admits(&self, subnet: &str, origin_node: &str) -> bool {\n        self.subnets.iter().any(|s| s == subnet) && self.roster.is_member(subnet, origin_node)\n    }\n}\n\n/// The daemon's per-subnet registry instances + this node's advertisement\n/// epoch source. Shared (`Arc`) between the dispatcher's registry arm and\n/// the peer pump.\npub struct RegistryHost {\n    /// This node's stable name (lowercase-hex pubkey).\n    node_hex: String,\n    /// This node's human label (M7 D2, REQ-SUBNET-3): the OS hostname,\n    /// re-read at daemon startup ([`new`](Self::new)) and stamped onto every\n    /// advertised row — a hostname change reaches peers as ordinary\n    /// epoch-bumped updates. Display/addressing sugar; `node_hex` stays the\n…\n}\n…\n    /// an observed *transition to `Active` on a peer node* — the wire signal\n    /// that another instance of the id just became the driven one (its\n    /// daemon advertises transitions epoch-bumped), which rests a local\n    /// instance of the same id warm (CONTEXT: driving `ling@laptop` makes\n    /// `ling@desktop` dormant).\n    ///\n    /// Flip = `Updated` merge where the stored row's status was NOT `Active`\n    /// and the incoming one is. Deliberately **never `Inserted`**: this\n    /// registry is in-memory, so a daemon restart re-inserts every peer row\n    /// at its *current* status — counting inserts would knock local\n    /// instances dormant on every restart; and never the periodic\n    /// re-advertisement (`Updated` with prev already `Active` is not a\n    /// flip). The lease has already dropped stale/equal epochs before any\n    /// of this runs.\n    // [impl->REQ-INST-3]\n    pub fn apply_feed_flips(\n        &self,\n        origin_node: &str,\n        updates: &[RegistryUpdate],\n        policy: &RegistryGatePolicy,\n    ) -> (Vec<RegistryApplyVerdict>, Vec<String>) {\n        let mut regs = self.regs.lock().unwrap();\n        let mut flips: Vec<String> = Vec::new();\n        let mut admitted_any = false;\n        let verdicts = updates\n            .iter()\n            .map(|u| {\n                if !policy.subnets.iter().any(|s| s == &u.subnet) {\n                    return RegistryApplyVerdict::NotMember;\n                }\n                // [impl->REQ-MESH-5]\n                if !policy.roster.is_member(&u.subnet, origin_node) {\n                    return RegistryApplyVerdict::UntrustedOrigin;\n                }\n                admitted_any = true;\n                let reg = regs.entry(u.subnet.clone()).or_default();\n                let prev = reg\n                    .instances(&u.endpoint_id)\n                    .iter()\n                    .find(|i| i.node == u.instance.node)\n                    .map(|i| i.status);\n                // The epoch lease (4.8) decides; an own-row echo from a peer\n                // is dropped Stale by construction (our epoch is newer or\n                // equal — never authored elsewhere).\n                let outcome = reg.merge_instance(&u.endpoint_id, u.instance.clone());\n                if outcome == MergeOutcome::Updated\n                    && u.instance.status == Status::Active\n                    && prev != Some(Status::Active)\n                    && u.instance.node != self.node_hex\n                    && !flips.contains(&u.endpoint_id)\n                {\n                    flips.push(u.endpoint_id.clone());\n                }\n                RegistryApplyVerdict::Merged(outcome)\n            })\n            .collect();\n        drop(regs);\n        // Gossip-recency stamp (M7 D2): an ADMITTED feed proves the origin\n        // node is up right now — even a Stale merge verdict is a liveness\n        // signal (the lease judged the row, not the sender). Refused feeds\n        // stamp nothing (an untrusted sender earns no liveness credit).\n        // [impl->REQ-SUBNET-1]\n        if admitted_any {\n            self.heard\n                .lock()\n                .unwrap()\n                .insert(origin_node.to_string(), wall_ms());\n        }\n        self.write_snapshots();\n        (verdicts, flips)\n    }\n\n    /// Apply inbound node-level label updates (REQ-SUBNET-3) under the SAME\n    /// fail-closed gate as [`apply_feed_flips`]: a non-member subnet or an\n    /// untrusted origin is refused; an admitted update merges via\n    /// [`SubnetRegistry::merge_node_label`] (epoch lease) and stamps the\n    /// origin's gossip-recency (an admitted label feed proves the peer is up,\n    /// exactly like an instance feed). The endpoint-less carrier: this is how a\n    /// peer with zero endpoints gets its hostname into our `--nodes` view.\n    // [impl->REQ-SUBNET-3]\n    pub fn apply_node_labels(\n        &self,\n        origin_node: &str,\n        updates: &[NodeLabelUpdate],\n        policy: &RegistryGatePolicy,\n    ) -> Vec<RegistryApplyVerdict> {\n        let mut regs = self.regs.lock().unwrap();\n        let mut admitted_any = false;\n        let verdicts = updates\n            .iter()\n            .map(|u| {\n                if !policy.subnets.iter().any(|s| s == &u.subnet) {\n                    return RegistryApplyVerdict::NotMember;\n                }\n                // [impl->REQ-MESH-5]\n                if !policy.roster.is_member(&u.subnet, origin_node) {\n                    return RegistryApplyVerdict::UntrustedOrigin;\n                }\n                admitted_any = true;\n                let reg = regs.entry(u.subnet.clone()).or_default();\n                RegistryApplyVerdict::Merged(reg.merge_node_label(\n                    &u.node,\n                    u.label.clone(),\n                    u.epoch,\n                ))\n            })\n            .collect();\n        drop(regs);\n        if admitted_any {\n            self.heard\n                .lock()\n                .unwrap()\n                .insert(origin_node.to_string(), wall_ms());\n        }\n        self.write_snapshots();\n        verdicts\n    }\n\n    /// Scan the owlery and (re-)advertise every self perch into every member\n    /// subnet it is visible in, each row stamped with a fresh epoch. Returns\n    /// the updates to push to peers (the node's own rows only — peers' rows\n    /// reconverge from their own re-advertisement, no transitive gossip in\n    /// v1: trust is pairwise per subnet, a relayed third-party row would\n    /// carry an origin the receiver can't gate honestly).\n    // [impl->REQ-INST-7]\n    pub fn advertise_local(&self, owlery: &Path) -> Vec<RegistryFeedRecord> {\n        let subnets = SubnetStore::load();\n        let mut vis = VisibilityStore::load();\n        // First-join home adoption (D9-5, REQ-INST-15): within one\n        // advertisement cadence of the node's first join (a pair lands the\n        // subnet record; no pairing-protocol threading needed), unhomed Self\n        // perches adopt the sole subnet + seed their sync scope. Strictly\n        // adopt-if-unset; a multi-subnet store adopts nothing.\n        // [impl->REQ-INST-15]\n        if !spt_store::home::adopt_for_unset(owlery, &subnets, &mut vis).is_empty() {\n            let _ = vis.save();\n        }\n        let vis = vis;\n        // The node-level resource-blurb seed (D9-4): an endpoint that has not\n        // authored its own blurb advertises this default (config seeds, the\n        // agent refines — CONTEXT §resource advertisement).\n        let node_blurb = crate::config::DaemonConfig::load().resources_blurb;\n        // The node's subnet-broadcast shell adapters (M5-D8c, CONTEXT\n        // §Discovery scope): registered kind=\"shell\" adapters that chose\n        // broadcast=subnet ride every row this node authors — the other-node\n        // discovery arm. Computed once per scan (the registration set is\n        // node-level).\n        // [impl->REQ-EP-5]\n        let shell_adapters: Vec<String> = spt_runtime::registry::registered(&perch::adapters_dir())\n            .iter()\n            .filter(|(r, m)| {\n                r.kind == spt_runtime::manifest::AdapterKind::Shell\n                    && m.shell.as_ref().and_then(|s| s.broadcast)\n                        == Some(spt_runtime::manifest::Broadcast::Subnet)\n            })\n            .map(|(r, _)| r.name.clone())\n            .collect();\n        let mut out = Vec::new();\n        let mut regs = self.regs.lock().unwrap();\n        let mut epoch = self.epoch.lock().unwrap();\n\n…\n    }","startLine":47,"lineNumbers":[47,null,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,null,120,null,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300,301,302,303,304,305,306,307,308,309,310,311,312,313,314,315,316,317,318,319,320,321,322,323,324,325,326,327,328,329,330,331,332,333,334,335,336,337,338,339,340,341,342,343,344,345,346,347,348,349,350,351,352,353,354,355,356,357,358,359,360,361,362,363,364,365,366,367,368,369,370,371,372,373,374,375,376,377,378,379,380,null,606]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\registryhost.rs"}}},"isError":false,"timestamp":1784069069945}}
{"type":"message","id":"2d5ca434","parentId":"32ff04b3","timestamp":"2026-07-14T22:44:29.951Z","message":{"role":"toolResult","toolCallId":"call_98W2gG8y1QQOvyBzInqkPQd1|fc_0b084cf0b521ab15016a56bbcda7f88190817d77d2f2f55766","toolName":"read","content":[{"type":"text","text":"# spt-core cargo workspace (M0). Acyclically-layered crates per R-ARCH-1:\n#   spt-proto -> spt-store -> spt-msg -> {spt-net, spt-term, spt-runtime} -> spt-live -> spt-daemon -> spt\n# M0 builds the bottom two: spt-proto (wire) + spt-store (persistence).\n# M1 adds spt-msg (local messaging) — third layer, one-way above spt-store.\n# M2a adds spt-runtime (harness contract: manifest schema + AgentRuntime) — fourth layer.\n# M2b adds spt-live (live-agent lifecycle executor) — fifth layer, daemon-bound (not public SDK).\n# M3a adds spt-term (session-surface mechanism: ConPTY/forkpty PTY layer) — sibling of spt-runtime, above spt-msg.\n# M3b adds spt-daemon (broker/brain supervisor) — seventh layer, above spt-live, below spt; internal (not public SDK).\n# M4 adds spt-net (P2P WAN/LAN transport) — sibling of spt-term/spt-runtime, above spt-msg; internal, default-on `net` feature.\n[workspace]\nresolver = \"2\"\nmembers = [\"crates/spt-proto\", \"crates/spt-store\", \"crates/spt-msg\", \"crates/spt-net\", \"crates/spt-term\", \"crates/spt-runtime\", \"crates/spt-live\", \"crates/spt-daemon\", \"crates/spt\", \"adapters/mock\", \"crates/xtask\"]\n\n# M6-D6 (grill decision 9): ONE shared version for every crate and the binary\n# — the product version (v0.1.0 tag, `spt --version`). The wire-protocol\n# version stays its own counter (REQ-ARCH-3) and the SignedRelease `version`\n# is the separate monotonic release counter; neither conflates with this.\n[workspace.package]\nversion = \"0.31.0\"\n"}],"details":{"displayContent":{"text":"# spt-core cargo workspace (M0). Acyclically-layered crates per R-ARCH-1:\r\n#   spt-proto -> spt-store -> spt-msg -> {spt-net, spt-term, spt-runtime} -> spt-live -> spt-daemon -> spt\r\n# M0 builds the bottom two: spt-proto (wire) + spt-store (persistence).\r\n# M1 adds spt-msg (local messaging) — third layer, one-way above spt-store.\r\n# M2a adds spt-runtime (harness contract: manifest schema + AgentRuntime) — fourth layer.\r\n# M2b adds spt-live (live-agent lifecycle executor) — fifth layer, daemon-bound (not public SDK).\r\n# M3a adds spt-term (session-surface mechanism: ConPTY/forkpty PTY layer) — sibling of spt-runtime, above spt-msg.\r\n# M3b adds spt-daemon (broker/brain supervisor) — seventh layer, above spt-live, below spt; internal (not public SDK).\r\n# M4 adds spt-net (P2P WAN/LAN transport) — sibling of spt-term/spt-runtime, above spt-msg; internal, default-on `net` feature.\r\n[workspace]\r\nresolver = \"2\"\r\nmembers = [\"crates/spt-proto\", \"crates/spt-store\", \"crates/spt-msg\", \"crates/spt-net\", \"crates/spt-term\", \"crates/spt-runtime\", \"crates/spt-live\", \"crates/spt-daemon\", \"crates/spt\", \"adapters/mock\", \"crates/xtask\"]\r\n\r\n# M6-D6 (grill decision 9): ONE shared version for every crate and the binary\r\n# — the product version (v0.1.0 tag, `spt --version`). The wire-protocol\r\n# version stays its own counter (REQ-ARCH-3) and the SignedRelease `version`\r\n# is the separate monotonic release counter; neither conflates with this.\r\n[workspace.package]\r\nversion = \"0.31.0\"\r\n","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\Cargo.toml"}}},"isError":false,"timestamp":1784069069951}}
{"type":"message","id":"fe84b7fb","parentId":"2d5ca434","timestamp":"2026-07-14T22:44:29.958Z","message":{"role":"toolResult","toolCallId":"call_Ti63hUP5gVIKPJIyacXeraYR|fc_0b084cf0b521ab15016a56bbcda83481909c558f7dd50b7e9b","toolName":"read","content":[{"type":"text","text":"fn worker(\n…\n) -> DispatchOutcome {\n…\n    match family {\n…\n        StreamFamily::ServeProbe => {\n…\n            // [impl->REQ-SUBNET-5]\n            match crate::serveprobe::serve_subnet_probe(&mut brain, stream_id) {\n                Ok(out) => DispatchOutcome::Served(format!(\"{out:?}\")),\n                Err(e) => DispatchOutcome::Failed(e.to_string()),\n            }\n        }\n        StreamFamily::Unknown => DispatchOutcome::Unknown,\n    }\n}\n\n/// Registry feed arm: decode `RegistryUpdate` lines, merge each batch into\n/// the daemon's [`RegistryHost`] under the fail-closed gate (member subnet ∧\n/// origin trusted in that subnet), until the peer finishes.\n///\n/// An admitted batch may carry **attention flips** (REQ-INST-3): a peer\n/// instance of an id observed transitioning to `Active` — its node's daemon\n/// just gave it a driver, so a *locally hosted* instance of the same id\n/// rests warm (CONTEXT: driving `ling@laptop` makes `ling@desktop`\n/// dormant). The rest edge's transition echo is gate-armed\n/// ([`crate::resting::arm_transition_echo`]) — the endpoint's own pulse\n/// loop runs the bounded summarizer call, never this worker (the KH 7.4\n/// non-blocking posture: N flips in one feed are N gate files, not N LLM\n/// calls serialized here).\n// [impl->REQ-INST-7]\nfn serve_registry_feed(\n    brain: &mut Brain,\n    stream_id: u64,\n    origin: &str,\n    registry: &RegistryHost,\n) -> DispatchOutcome {\n    let policy = RegistryGatePolicy::load();\n    if let Err(e) = brain.net_stream_subscribe(stream_id, 0) {\n        return DispatchOutcome::Failed(e.to_string());\n    }\n    let mut decoder = RegistryDecoder::new();\n    let mut merged = 0usize;\n    loop {\n        match brain.read_event() {\n            Ok(BrokerEvent::NetStreamData {\n                stream_id: sid,\n                bytes,\n                ..\n            }) if sid == stream_id => {\n                let records = decoder.push(&bytes);\n                if records.is_empty() {\n                    continue;\n                }\n                // Split the feed into instance rows and node-level labels\n                // (REQ-SUBNET-3) — each goes through its own gated apply path.\n                let mut updates: Vec<RegistryUpdate> = Vec::new();\n                let mut labels: Vec<NodeLabelUpdate> = Vec::new();\n                for rec in records {\n                    match rec {\n                        RegistryFeedRecord::Instance(u) => updates.push(u),\n                        RegistryFeedRecord::NodeLabel(n) => labels.push(n),\n                    }\n                }\n                if !labels.is_empty() {\n                    merged += registry.apply_node_labels(origin, &labels, &policy).len();\n                }\n                if updates.is_empty() {\n                    continue;\n                }\n                let (verdicts, flips) = registry.apply_feed_flips(origin, &updates, &policy);\n                merged += verdicts.len();\n                // Attention shift (D9-2): only ids this node actually hosts\n                // (a perch with a record); everything else is a no-op here.\n                // [impl->REQ-INST-3]\n                for id in flips {\n                    let local = perch::resolve_perch_path(&id, spt_store::perch::ParentHint::Infer);\n                    if local.join(\"info.json\").exists() {\n                        if let Err(e) = crate::resting::daemon_rest_event(\n                            &id,\n                            crate::resting::RestEvent::AttentionShift,\n                            None,\n                        ) {\n                            eprintln!(\"REST_SHIFT_FAIL:{id}:{e}\");\n                        }\n                    }\n                }\n            }\n            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\n                return DispatchOutcome::Served(format!(\"registry feed: {merged} record(s)\"));\n            }\n            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\n            Ok(_) => {}\n            Err(e) => return DispatchOutcome::Failed(e.to_string()),\n        }\n    }\n}\n\n/// Notif feed arm: decode rows as they arrive, apply each batch under the\n/// fail-closed gate, until the peer finishes. The policy re-loads per feed\n/// (not per record) — the same freshness the other arms get per request.\n///\n\n[Showing lines 449-543 of 759. Use :544 to continue]"}],"details":{"truncation":{"content":"            // [impl->REQ-SUBNET-5]\r\n            match crate::serveprobe::serve_subnet_probe(&mut brain, stream_id) {\r\n                Ok(out) => DispatchOutcome::Served(format!(\"{out:?}\")),\r\n                Err(e) => DispatchOutcome::Failed(e.to_string()),\r\n            }\r\n        }\r\n        StreamFamily::Unknown => DispatchOutcome::Unknown,\r\n    }\r\n}\r\n\r\n/// Registry feed arm: decode `RegistryUpdate` lines, merge each batch into\r\n/// the daemon's [`RegistryHost`] under the fail-closed gate (member subnet ∧\r\n/// origin trusted in that subnet), until the peer finishes.\r\n///\r\n/// An admitted batch may carry **attention flips** (REQ-INST-3): a peer\r\n/// instance of an id observed transitioning to `Active` — its node's daemon\r\n/// just gave it a driver, so a *locally hosted* instance of the same id\r\n/// rests warm (CONTEXT: driving `ling@laptop` makes `ling@desktop`\r\n/// dormant). The rest edge's transition echo is gate-armed\r\n/// ([`crate::resting::arm_transition_echo`]) — the endpoint's own pulse\r\n/// loop runs the bounded summarizer call, never this worker (the KH 7.4\r\n/// non-blocking posture: N flips in one feed are N gate files, not N LLM\r\n/// calls serialized here).\r\n// [impl->REQ-INST-7]\r\nfn serve_registry_feed(\r\n    brain: &mut Brain,\r\n    stream_id: u64,\r\n    origin: &str,\r\n    registry: &RegistryHost,\r\n) -> DispatchOutcome {\r\n    let policy = RegistryGatePolicy::load();\r\n    if let Err(e) = brain.net_stream_subscribe(stream_id, 0) {\r\n        return DispatchOutcome::Failed(e.to_string());\r\n    }\r\n    let mut decoder = RegistryDecoder::new();\r\n    let mut merged = 0usize;\r\n    loop {\r\n        match brain.read_event() {\r\n            Ok(BrokerEvent::NetStreamData {\r\n                stream_id: sid,\r\n                bytes,\r\n                ..\r\n            }) if sid == stream_id => {\r\n                let records = decoder.push(&bytes);\r\n                if records.is_empty() {\r\n                    continue;\r\n                }\r\n                // Split the feed into instance rows and node-level labels\r\n                // (REQ-SUBNET-3) — each goes through its own gated apply path.\r\n                let mut updates: Vec<RegistryUpdate> = Vec::new();\r\n                let mut labels: Vec<NodeLabelUpdate> = Vec::new();\r\n                for rec in records {\r\n                    match rec {\r\n                        RegistryFeedRecord::Instance(u) => updates.push(u),\r\n                        RegistryFeedRecord::NodeLabel(n) => labels.push(n),\r\n                    }\r\n                }\r\n                if !labels.is_empty() {\r\n                    merged += registry.apply_node_labels(origin, &labels, &policy).len();\r\n                }\r\n                if updates.is_empty() {\r\n                    continue;\r\n                }\r\n                let (verdicts, flips) = registry.apply_feed_flips(origin, &updates, &policy);\r\n                merged += verdicts.len();\r\n                // Attention shift (D9-2): only ids this node actually hosts\r\n                // (a perch with a record); everything else is a no-op here.\r\n                // [impl->REQ-INST-3]\r\n                for id in flips {\r\n                    let local = perch::resolve_perch_path(&id, spt_store::perch::ParentHint::Infer);\r\n                    if local.join(\"info.json\").exists() {\r\n                        if let Err(e) = crate::resting::daemon_rest_event(\r\n                            &id,\r\n                            crate::resting::RestEvent::AttentionShift,\r\n                            None,\r\n                        ) {\r\n                            eprintln!(\"REST_SHIFT_FAIL:{id}:{e}\");\r\n                        }\r\n                    }\r\n                }\r\n            }\r\n            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\r\n                return DispatchOutcome::Served(format!(\"registry feed: {merged} record(s)\"));\r\n            }\r\n            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\r\n            Ok(_) => {}\r\n            Err(e) => return DispatchOutcome::Failed(e.to_string()),\r\n        }\r\n    }\r\n}\r\n\r\n/// Notif feed arm: decode rows as they arrive, apply each batch under the\r\n/// fail-closed gate, until the peer finishes. The policy re-loads per feed\r\n/// (not per record) — the same freshness the other arms get per request.\r\n///\r","truncated":true,"truncatedBy":"lines","totalLines":311,"totalBytes":4341,"outputLines":95,"outputBytes":4341,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn worker(\n…\n) -> DispatchOutcome {\n…\n    match family {\n…\n        StreamFamily::ServeProbe => {\n…\n            // [impl->REQ-SUBNET-5]\r\n            match crate::serveprobe::serve_subnet_probe(&mut brain, stream_id) {\r\n                Ok(out) => DispatchOutcome::Served(format!(\"{out:?}\")),\r\n                Err(e) => DispatchOutcome::Failed(e.to_string()),\r\n            }\r\n        }\r\n        StreamFamily::Unknown => DispatchOutcome::Unknown,\r\n    }\r\n}\r\n\r\n/// Registry feed arm: decode `RegistryUpdate` lines, merge each batch into\r\n/// the daemon's [`RegistryHost`] under the fail-closed gate (member subnet ∧\r\n/// origin trusted in that subnet), until the peer finishes.\r\n///\r\n/// An admitted batch may carry **attention flips** (REQ-INST-3): a peer\r\n/// instance of an id observed transitioning to `Active` — its node's daemon\r\n/// just gave it a driver, so a *locally hosted* instance of the same id\r\n/// rests warm (CONTEXT: driving `ling@laptop` makes `ling@desktop`\r\n/// dormant). The rest edge's transition echo is gate-armed\r\n/// ([`crate::resting::arm_transition_echo`]) — the endpoint's own pulse\r\n/// loop runs the bounded summarizer call, never this worker (the KH 7.4\r\n/// non-blocking posture: N flips in one feed are N gate files, not N LLM\r\n/// calls serialized here).\r\n// [impl->REQ-INST-7]\r\nfn serve_registry_feed(\r\n    brain: &mut Brain,\r\n    stream_id: u64,\r\n    origin: &str,\r\n    registry: &RegistryHost,\r\n) -> DispatchOutcome {\r\n    let policy = RegistryGatePolicy::load();\r\n    if let Err(e) = brain.net_stream_subscribe(stream_id, 0) {\r\n        return DispatchOutcome::Failed(e.to_string());\r\n    }\r\n    let mut decoder = RegistryDecoder::new();\r\n    let mut merged = 0usize;\r\n    loop {\r\n        match brain.read_event() {\r\n            Ok(BrokerEvent::NetStreamData {\r\n                stream_id: sid,\r\n                bytes,\r\n                ..\r\n            }) if sid == stream_id => {\r\n                let records = decoder.push(&bytes);\r\n                if records.is_empty() {\r\n                    continue;\r\n                }\r\n                // Split the feed into instance rows and node-level labels\r\n                // (REQ-SUBNET-3) — each goes through its own gated apply path.\r\n                let mut updates: Vec<RegistryUpdate> = Vec::new();\r\n                let mut labels: Vec<NodeLabelUpdate> = Vec::new();\r\n                for rec in records {\r\n                    match rec {\r\n                        RegistryFeedRecord::Instance(u) => updates.push(u),\r\n                        RegistryFeedRecord::NodeLabel(n) => labels.push(n),\r\n                    }\r\n                }\r\n                if !labels.is_empty() {\r\n                    merged += registry.apply_node_labels(origin, &labels, &policy).len();\r\n                }\r\n                if updates.is_empty() {\r\n                    continue;\r\n                }\r\n                let (verdicts, flips) = registry.apply_feed_flips(origin, &updates, &policy);\r\n                merged += verdicts.len();\r\n                // Attention shift (D9-2): only ids this node actually hosts\r\n                // (a perch with a record); everything else is a no-op here.\r\n                // [impl->REQ-INST-3]\r\n                for id in flips {\r\n                    let local = perch::resolve_perch_path(&id, spt_store::perch::ParentHint::Infer);\r\n                    if local.join(\"info.json\").exists() {\r\n                        if let Err(e) = crate::resting::daemon_rest_event(\r\n                            &id,\r\n                            crate::resting::RestEvent::AttentionShift,\r\n                            None,\r\n                        ) {\r\n                            eprintln!(\"REST_SHIFT_FAIL:{id}:{e}\");\r\n                        }\r\n                    }\r\n                }\r\n            }\r\n            Ok(BrokerEvent::NetStreamEof { stream_id: sid, .. }) if sid == stream_id => {\r\n                return DispatchOutcome::Served(format!(\"registry feed: {merged} record(s)\"));\r\n            }\r\n            Ok(BrokerEvent::Error { message }) => return DispatchOutcome::Failed(message),\r\n            Ok(_) => {}\r\n            Err(e) => return DispatchOutcome::Failed(e.to_string()),\r\n        }\r\n    }\r\n}\r\n\r\n/// Notif feed arm: decode rows as they arrive, apply each batch under the\r\n/// fail-closed gate, until the peer finishes. The policy re-loads per feed\r\n/// (not per record) — the same freshness the other arms get per request.\r\n///\r","startLine":285,"lineNumbers":[285,null,291,null,304,null,445,null,449,450,451,452,453,454,455,456,457,458,459,460,461,462,463,464,465,466,467,468,469,470,471,472,473,474,475,476,477,478,479,480,481,482,483,484,485,486,487,488,489,490,491,492,493,494,495,496,497,498,499,500,501,502,503,504,505,506,507,508,509,510,511,512,513,514,515,516,517,518,519,520,521,522,523,524,525,526,527,528,529,530,531,532,533,534,535,536,537,538,539,540,541,542,543]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\dispatch.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":759,"totalBytes":4341,"outputLines":95,"outputBytes":4341,"shownRange":{"start":449,"end":543},"nextOffset":544}}},"isError":false,"timestamp":1784069069958}}
{"type":"message","id":"39cd2852","parentId":"fe84b7fb","timestamp":"2026-07-14T22:44:29.969Z","message":{"role":"toolResult","toolCallId":"call_BLhvWQiyCRQuc76vZVNtSLbn|fc_0b084cf0b521ab15016a56bbcda84481908b3be15ad95d5b36","toolName":"read","content":[{"type":"text","text":"fn label_of(node: &str, regs: &BTreeMap<String, SubnetRegistry>) -> Option<String> {\n    for reg in regs.values() {\n        for id in reg.endpoint_ids() {\n            for i in reg.instances(id) {\n                if i.node == node {\n                    if let Some(label) = &i.node_label {\n                        return Some(label.clone());\n                    }\n                }\n            }\n        }\n    }\n    None\n}\n\n/// Load every per-subnet registry snapshot under `dir`. Missing dir or an\n/// unparseable snapshot degrade to absent (the reader's stale-tolerant\n/// contract) — resolution then simply finds nothing there.\npub fn load_snapshots(dir: &Path) -> BTreeMap<String, SubnetRegistry> {\n    let mut out = BTreeMap::new();\n    let Ok(entries) = std::fs::read_dir(dir) else {\n        return out;\n    };\n    for entry in entries.flatten() {\n        let path = entry.path();\n        if path.extension().and_then(|e| e.to_str()) != Some(\"json\") {\n            continue;\n        }\n        let Some(stem) = path.file_stem().and_then(|s| s.to_str()) else {\n            continue;\n        };\n        let Ok(raw) = std::fs::read_to_string(&path) else {\n            continue;\n        };\n        let Ok(reg) = serde_json::from_str::<SubnetRegistry>(&raw) else {\n            continue;\n        };\n        out.insert(stem.to_string(), reg);\n    }\n    out\n}\n\nfn now_ms() -> u64 {\n    std::time::SystemTime::now()\n        .duration_since(std::time::UNIX_EPOCH)\n        .map(|d| d.as_millis() as u64)\n        .unwrap_or(0)\n}\n\n#[cfg(test)]\nmod tests {\n    use super::*;\n    use crate::testutil::isolated_home;\n    use spt_daemon::broker::Broker;\n    use spt_daemon::dispatch::{run_dispatch_loop, DispatchPaths};\n    use spt_daemon::nethost::{NetConfig, NetHost};\n    use spt_daemon::registryhost::RegistryHost;\n    use spt_net::net::endpoint::{BindScope, LocalDiscovery, RelayPolicy};\n    use spt_net::net::registry::{Instance, Status};\n    use spt_proto::identity::Identity;\n    use spt_store::info::{self, InfoJson};\n    use spt_store::perch::ParentHint;\n…\n}\n\n[Showing lines 674-733 of 1429. Use :734 to continue]"}],"details":{"truncation":{"content":"        for id in reg.endpoint_ids() {\r\n            for i in reg.instances(id) {\r\n                if i.node == node {\r\n                    if let Some(label) = &i.node_label {\r\n                        return Some(label.clone());\r\n                    }\r\n                }\r\n            }\r\n        }\r\n    }\r\n    None\r\n}\r\n\r\n/// Load every per-subnet registry snapshot under `dir`. Missing dir or an\r\n/// unparseable snapshot degrade to absent (the reader's stale-tolerant\r\n/// contract) — resolution then simply finds nothing there.\r\npub fn load_snapshots(dir: &Path) -> BTreeMap<String, SubnetRegistry> {\r\n    let mut out = BTreeMap::new();\r\n    let Ok(entries) = std::fs::read_dir(dir) else {\r\n        return out;\r\n    };\r\n    for entry in entries.flatten() {\r\n        let path = entry.path();\r\n        if path.extension().and_then(|e| e.to_str()) != Some(\"json\") {\r\n            continue;\r\n        }\r\n        let Some(stem) = path.file_stem().and_then(|s| s.to_str()) else {\r\n            continue;\r\n        };\r\n        let Ok(raw) = std::fs::read_to_string(&path) else {\r\n            continue;\r\n        };\r\n        let Ok(reg) = serde_json::from_str::<SubnetRegistry>(&raw) else {\r\n            continue;\r\n        };\r\n        out.insert(stem.to_string(), reg);\r\n    }\r\n    out\r\n}\r\n\r\nfn now_ms() -> u64 {\r\n    std::time::SystemTime::now()\r\n        .duration_since(std::time::UNIX_EPOCH)\r\n        .map(|d| d.as_millis() as u64)\r\n        .unwrap_or(0)\r\n}\r\n\r\n#[cfg(test)]\r\nmod tests {\r\n    use super::*;\r\n    use crate::testutil::isolated_home;\r\n    use spt_daemon::broker::Broker;\r\n    use spt_daemon::dispatch::{run_dispatch_loop, DispatchPaths};\r\n    use spt_daemon::nethost::{NetConfig, NetHost};\r\n    use spt_daemon::registryhost::RegistryHost;\r\n    use spt_net::net::endpoint::{BindScope, LocalDiscovery, RelayPolicy};\r\n    use spt_net::net::registry::{Instance, Status};\r\n    use spt_proto::identity::Identity;\r\n    use spt_store::info::{self, InfoJson};\r\n    use spt_store::perch::ParentHint;\r","truncated":true,"truncatedBy":"lines","totalLines":756,"totalBytes":1996,"outputLines":60,"outputBytes":1996,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn label_of(node: &str, regs: &BTreeMap<String, SubnetRegistry>) -> Option<String> {\n    for reg in regs.values() {\n        for id in reg.endpoint_ids() {\r\n            for i in reg.instances(id) {\r\n                if i.node == node {\r\n                    if let Some(label) = &i.node_label {\r\n                        return Some(label.clone());\r\n                    }\r\n                }\r\n            }\r\n        }\r\n    }\r\n    None\r\n}\r\n\r\n/// Load every per-subnet registry snapshot under `dir`. Missing dir or an\r\n/// unparseable snapshot degrade to absent (the reader's stale-tolerant\r\n/// contract) — resolution then simply finds nothing there.\r\npub fn load_snapshots(dir: &Path) -> BTreeMap<String, SubnetRegistry> {\r\n    let mut out = BTreeMap::new();\r\n    let Ok(entries) = std::fs::read_dir(dir) else {\r\n        return out;\r\n    };\r\n    for entry in entries.flatten() {\r\n        let path = entry.path();\r\n        if path.extension().and_then(|e| e.to_str()) != Some(\"json\") {\r\n            continue;\r\n        }\r\n        let Some(stem) = path.file_stem().and_then(|s| s.to_str()) else {\r\n            continue;\r\n        };\r\n        let Ok(raw) = std::fs::read_to_string(&path) else {\r\n            continue;\r\n        };\r\n        let Ok(reg) = serde_json::from_str::<SubnetRegistry>(&raw) else {\r\n            continue;\r\n        };\r\n        out.insert(stem.to_string(), reg);\r\n    }\r\n    out\r\n}\r\n\r\nfn now_ms() -> u64 {\r\n    std::time::SystemTime::now()\r\n        .duration_since(std::time::UNIX_EPOCH)\r\n        .map(|d| d.as_millis() as u64)\r\n        .unwrap_or(0)\r\n}\r\n\r\n#[cfg(test)]\r\nmod tests {\r\n    use super::*;\r\n    use crate::testutil::isolated_home;\r\n    use spt_daemon::broker::Broker;\r\n    use spt_daemon::dispatch::{run_dispatch_loop, DispatchPaths};\r\n    use spt_daemon::nethost::{NetConfig, NetHost};\r\n    use spt_daemon::registryhost::RegistryHost;\r\n    use spt_net::net::endpoint::{BindScope, LocalDiscovery, RelayPolicy};\r\n    use spt_net::net::registry::{Instance, Status};\r\n    use spt_proto::identity::Identity;\r\n    use spt_store::info::{self, InfoJson};\r\n    use spt_store::perch::ParentHint;\r\n…\n}","startLine":672,"lineNumbers":[672,673,674,675,676,677,678,679,680,681,682,683,684,685,686,687,688,689,690,691,692,693,694,695,696,697,698,699,700,701,702,703,704,705,706,707,708,709,710,711,712,713,714,715,716,717,718,719,720,721,722,723,724,725,726,727,728,729,730,731,732,733,null,1428]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt\\src\\wansend.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1429,"totalBytes":1996,"outputLines":60,"outputBytes":1996,"shownRange":{"start":674,"end":733},"nextOffset":734}}},"isError":false,"timestamp":1784069069968}}
{"type":"message","id":"8189e807","parentId":"39cd2852","timestamp":"2026-07-14T22:44:29.982Z","message":{"role":"toolResult","toolCallId":"call_vpYugCgv3ee2QyY7s8KlbUIM|fc_0b084cf0b521ab15016a56bbcda7fc8190b89651e8cc810864","toolName":"read","content":[{"type":"text","text":"trait PumpWorker {\n…\n\n    /// Node-local work run ONCE per due round, before any `peer_step`.\n    /// Default: nothing.\n    fn pre_round(&mut self, _ctx: &RoundCtx) {}\n\n    /// The per-peer step for one `(subnet, peer)` under this round's context. A\n    /// failure aborts the remaining due workers for THIS peer and drops its\n    /// conn (redial next tick) — abort-on-first-fail, current behaviour.\n    fn peer_step(\n        &mut self,\n        io: &mut PeerIo,\n        subnet: &str,\n        peer_hex: &str,\n        ctx: &RoundCtx,\n    ) -> io::Result<()>;\n}\n\n/// Per-round shared loads (§Frozen-3): the config-ish stores the shell reads\n/// ONCE per due round and hands every worker by `&RoundCtx`. The single-read\n/// invariant — push targets and the sync gate see the SAME roster — is made a\n/// structural fact by loading the roster-backed [`SyncPolicy`] here, once.\n/// Carries ONLY per-round shared loads; never long-lived deps (those are\n/// construction-captured by each worker).\nstruct RoundCtx {\n    /// `subnet.json` — the member subnets iterated for fan-out.\n    subnets: SubnetStore,\n    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\n    attachment: spt_store::attachment::AttachmentStore,\n    /// The roster-backed sync gate — one store feeding both the push targets\n    /// and the sync authorization (symmetric scoping).\n    policy: SyncPolicy,\n}\n\nimpl RoundCtx {\n    /// Load the per-round shared stores from the pump's paths (the access-gate\n    /// freshness stance — every config-ish store re-read per round so an edit\n    /// takes effect within one tick, no restart).\n    fn load(paths: &PumpPaths) -> RoundCtx {\n        let subnets = SubnetStore::load_from(&paths.subnets);\n        // Serve-state (M8 decision 6, REQ-SUBNET-5): a detached subnet is\n        // neither advertised into nor connected to — skipped wholesale in the\n        // per-subnet loop below.\n        // [impl->REQ-SUBNET-5]\n        let attachment = spt_store::attachment::AttachmentStore::load_from(\n            &paths\n                .subnets\n                .parent()\n                .map(|p| p.join(\"attachment.json\"))\n                .unwrap_or_else(|| PathBuf::from(\"attachment.json\")),\n        );\n        // THE WIDEN (Mesh-D6, REQ-MESH-3): the push target is the full roster\n        // (all members), not the directly-paired set. The one roster loaded\n        // here feeds both the push (who we dial) and the sync gate (who we\n        // authorize), so they read one store.\n        let roster_path = paths\n            .subnets\n            .parent()\n            .map(|p| p.join(\"roster.json\"))\n            .unwrap_or_else(|| PathBuf::from(\"roster.json\"));\n        let policy = SyncPolicy {\n            subnets: subnets\n                .subnets\n                .iter()\n                .map(|s| (s.name.clone(), s.hide_new_endpoints))\n                .collect(),\n            roster: spt_store::roster::RosterStore::load_from(&roster_path),\n            vis: VisibilityStore::load_from(&paths.vis),\n        };\n        RoundCtx {\n            subnets,\n            attachment,\n            policy,\n        }\n    }\n}\n\n#[cfg(test)]\nimpl RoundCtx {\n    /// A minimal empty round context for worker unit tests whose `pre_round` /\n    /// `peer_step` ignore it (the registry leg keys off its own state, not the\n    /// shared loads).\n    fn for_test() -> RoundCtx {\n        RoundCtx {\n            subnets: SubnetStore::default(),\n            attachment: spt_store::attachment::AttachmentStore::default(),\n            policy: SyncPolicy {\n                subnets: Vec::new(),\n                roster: spt_store::roster::RosterStore::default(),\n                vis: VisibilityStore::default(),\n            },\n        }\n    }\n}\n\n/// The shell-owned per-peer IO surface (§Frozen-5): the ONE brain IPC handle,\n/// the established conn id, and the SOLE open-op [`EpochSource`]\n/// (`pump-ops.json`). A worker mints durable open-ops only through this handle\n/// — a worker-owned `EpochSource` over the shared counter is the KH\n/// epoch-lease double-mint and is forbidden.\nstruct PeerIo<'a> {\n    /// The one brain IPC handle.\n    brain: &'a mut Brain,\n    /// The established peer conn id for this step.\n    conn_id: u64,\n    /// The pump's sole durable open-op counter. Workers mint open-ops only\n    /// through [`PeerIo::open_op`] (the sync + update legs); a worker-owned\n    /// `EpochSource` over this counter would be the KH epoch-lease double-mint.\n    ops: &'a mut EpochSource,\n}\n\nimpl PeerIo<'_> {\n    /// Open a fresh stream and write one whole feed fire-and-forget (the\n    /// push-feed discipline — `op_id: None`, finished on send).\n    fn push_feed(&mut self, feed: &[u8]) -> io::Result<()> {\n        push_feed(self.brain, self.conn_id, feed)\n    }\n\n    /// Mint the next durable open-op from the pump's sole counter (exactly-once\n    /// open identity — a restart can never reuse one), tagged with the `pump`\n    /// journal minter (ADR-0034): the pump is the sole writer of `pump-ops.json`,\n    /// so its ops namespace under `pump` and never collide with cli/rc/shell ops.\n    fn open_op(&mut self) -> io::Result<MintedOp> {\n        Ok(MintedOp::new(Minter::Pump, self.ops.next_epoch()?))\n    }\n}\n\n/// Run the pump until `stop` is set. Owns one brain IPC connection and a\n/// per-peer connection cache (an IO failure against a peer drops its cache\n/// row; the next tick redials — conns are rebuilt freely, nothing leaks\n/// because the broker's closed-watcher reaps dead conns).\n///\n/// The pure scheduler + fan-out (pump-seam P4, all four legs behind the seam):\n/// heartbeat → poll every worker's wake → the [`due`] kernel → each due\n/// worker's `pre_round` (once, before any peer_step) → per-subnet × per-peer\n/// (`ensure_conn` → each due worker's `peer_step` in fan-out order,\n/// abort-on-first-fail) → mark-after-round with a POST-round instant. No leg\n/// logic lives here — the shell owns only *when* and *toward whom*.\npub fn run_peer_pump(\n    broker_name: &str,\n    registry: Arc<RegistryHost>,\n    paths: &PumpPaths,\n    resolver: PeerResolver,\n    config: PumpConfig,\n    hooks: PumpHooks,\n    stop: &AtomicBool,\n) -> io::Result<()> {\n    let PumpConfig {\n        cadence,\n        full_auto_update,\n    } = config;\n    // PUMP MODE: a brain whose carrier is SPLIT at construction (reader thread +\n    // channel) so every reply read is bounded by PUMP_PEER_IO_TIMEOUT — a\n    // black-holed peer can never wedge this single-threaded loop (the 2.2h\n    // hfenduleam stall). A timed-out read escalates to a supervised restart\n    // below, never a per-peer retry (REQ-HAZARD-PUMP-IPC-DEADLINE).\n    // [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\n    let mut brain = connect(broker_name)?;\n    // The DEDICATED event-drain carrier (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION):\n    // a SECOND pump-mode brain that OWNS the presence subscription. It is split\n    // from `brain` deliberately — `brain` runs the per-peer `peer_step` pulls\n    // whose reply-reads consume every event kind off their carrier; sharing one\n    // carrier would make a pull-read swallow a presence frame (advancing the\n    // exactly-once cursor while dropping the outcome — the D4c break). Two\n    // carriers keep the drain and the pulls from swallowing each other by\n    // construction. Tail-follow (no history replay, baseline on first live event)\n    // so a long-lived broker's evicted ring can never gap-trip a false restart.\n    let mut events = connect(broker_name)?;\n    events.net_presence_subscribe_tail()?;\n    let mut ops = EpochSource::load_from(&paths.ops);\n    // The live per-peer connection cache (updated by presence events) + the\n    // per-peer dial schedule (G5 backoff). Both RAM-only, re-primed on restart.\n    let mut conns: HashMap<String, u64> = HashMap::new();\n    let mut sched: HashMap<String, PeerSched> = HashMap::new();\n    // The four cadenced legs behind the worker seam, in fan-out order\n    // (registry → notif → sync → update). The shell drives them generically;\n    // each leg's *what* lives in its module (§Frozen). Construction capture\n    // (§Frozen-4): each worker owns the registry Arc / path slices / config\n    // knob it needs — the sync worker additionally owns the conflict-surface\n    // hooks (ADR-0013).\n    let mut registry_worker = RegistryWorker::new(Arc::clone(&registry), paths, &cadence);\n    let mut notif_worker = NotifWorker::new(paths, &cadence);\n    let mut sync_worker = SyncWorker::new(Arc::clone(&registry), paths, &cadence, hooks);\n    let mut update_worker = UpdateWorker::new(Arc::clone(&registry), paths, &cadence, full_auto_update);\n    let mut workers: [&mut dyn PumpWorker; 4] = [\n        &mut registry_worker,\n        &mut notif_worker,\n        &mut sync_worker,\n        &mut update_worker,\n    ];\n    // WorkerLasts (ADR-0018 §V4): RAM-only last-ran instants, parallel to\n    // `workers`. `None` = never run yet → due immediately, so the first tick\n    // primes every leg. Never `Instant - Duration` — the underflow panic on a\n    // sub-uptime monotonic clock (KH 5.9) lives nowhere in this path.\n    let mut last: [Option<Instant>; 4] = [None; 4];\n    let mut last_hb: Option<Instant> = None;\n\n    while !stop.load(Ordering::Relaxed) {\n        let now = Instant::now();\n        // Shell-owned liveness heartbeat (M8 decision 23, REQ-DAEMON-5): written\n        // while the loop is ALIVE — including idle ticks — never per work round,\n        // so a wedged step and a healthy quiet pump are distinguishable.\n        // Throttled; per-tick, never a worker (REQ-DAEMON-5), no wake.\n        // [impl->REQ-DAEMON-5]\n        if due(last_hb, false, now, HEARTBEAT_PERIOD) {\n            write_heartbeat(&paths.heartbeat);\n            last_hb = Some(now);\n        }\n        // Poll every worker's wake and decide due (the pure scheduler step):\n        // every wake is consumed EVERY tick so a marker is never stranded (the\n        // registry advertise-now, REQ-CONV-2; the sync freshness pull,\n        // REQ-INST-3). The take IS the remove — one wake claims exactly one\n        // forced round.\n        let (due_flags, any_due) = compute_due(&mut workers, &last, now);\n        if !any_due {\n            thread::sleep(TICK);\n            continue;\n        }\n\n        // Per-round shared loads (§Frozen-3): subnets / attachment /\n        // roster-backed policy, read ONCE and handed to every worker.\n        let ctx = RoundCtx::load(paths);\n\n        // Each due worker's node-local pre_round, once per round before ANY\n        // peer_step (only the registry leg does work here — its sweep +\n        // advertise; the rest default to a no-op).\n        pre_rounds(&mut workers, &due_flags, &ctx);\n\n        // ── PUMP-TRUTH W2 round (REQ-PUMP-PEER-ISOLATION) — concurrent dials +\n        // per-peer fault isolation. Group this round's fan-out targets by peer (a\n        // peer may target several subnets; one conn serves them all).\n        let mut peer_subnets: HashMap<String, Vec<String>> = HashMap::new();\n        for (sub_name, peer_hex) in fan_targets(&ctx, registry.node_hex()) {\n            peer_subnets.entry(peer_hex).or_default().push(sub_name);\n        }\n        let round_start = Instant::now();\n        let mut pending: HashSet<String> = HashSet::new();\n\n        // Submit NON-BLOCKING dials for eligible unconnected peers; run the due\n        // legs NOW for already-connected ones. The live peer advertises without\n        // waiting on a dead one (no head-of-line block) — a dead peer is only a\n        // pending outcome, never a serial blocker.\n        for (peer_hex, subs) in &peer_subnets {\n            if let Some(&conn_id) = conns.get(peer_hex) {\n                run_peer_subnets(\n                    &mut brain, &mut ops, &mut workers, &due_flags, &mut conns, &mut sched,\n                    conn_id, subs, peer_hex, &ctx, round_start,\n                )?;\n            } else if peer_eligible(&sched, peer_hex, round_start) {\n                if let Some(addr) = resolve_submit_addr(&resolver, peer_hex, &paths.peer_addrs) {\n                    match brain.submit_dial(addr) {\n                        Ok(()) => {\n                            pending.insert(peer_hex.clone());\n                        }\n                        // A raw carrier-op TimedOut on the submit IPC itself is a\n                        // genuine broker-IPC desync → bubble → supervised restart.\n                        Err(e) if e.kind() == io::ErrorKind::TimedOut => return Err(e),\n                        // The broker refused the submit (net disabled / bad addr):\n                        // an ordinary per-peer failure — back off, round continues.\n                        Err(e) => {\n                            eprintln!(\"PUMP_PEER_FAIL:{peer_hex}:{e}\");\n                            let prev = sched.get(peer_hex).copied();\n                            sched.insert(peer_hex.clone(), next_peer_backoff(prev, round_start));\n                        }\n                    }\n                }\n            }\n        }\n\n        // Drain dial outcomes on the DEDICATED event carrier until the round\n        // deadline (concurrent dials all land within ~one W1 bound). A CONNECTED\n        // runs that peer's legs in THIS round; a DIAL_FAILED backs the peer off; a\n        // peer unresolved at the deadline simply reschedules — NEVER a whole-round\n        // poison. `TimedOut` = quiet (drain done); any other read error = the\n        // broker stopped answering the stream (dead carrier) → bubble → supervised\n        // restart (the re-pointed REQ-HAZARD-PUMP-IPC-DEADLINE: a dead BROKER still\n        // restarts the pump; a dead PEER never does).\n        // [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\n        let round_deadline = round_start + PEER_REPLY_READ_BUDGET + ROUND_DRAIN_MARGIN;\n        loop {\n            let read_deadline = if pending.is_empty() {\n                Instant::now() // no outstanding submits — sweep only what is queued\n            } else {\n                round_deadline\n            };\n            match classify_drain_read(events.read_event_until(Some(read_deadline))) {\n                DrainStep::Apply(ev) => handle_presence_event(\n                    ev, &mut brain, &mut ops, &mut workers, &due_flags, &mut conns, &mut sched,\n                    &mut pending, &peer_subnets, &ctx, &paths.peer_addrs, round_start,\n                )?,\n                DrainStep::Skip => continue, // the event carrier only carries presence\n                DrainStep::RoundDone => break, // quiet (TimedOut) — drain done\n                DrainStep::Restart(e) => return Err(e), // dead broker/carrier → restart\n            }\n        }\n\n        // Mark-after-round with a POST-round instant (ADR-0018 §V4: the\n        // stagger — ran = ATTEMPTED, not succeeded; the next due is measured\n        // from here, not from the round's start).\n        mark_ran(&mut last, &due_flags, Instant::now());\n    }\n    Ok(())\n}\n\n/// Compute each worker's due flag for this tick (the pure scheduler step):\n/// poll EVERY worker's wake first — even a not-otherwise-due leg, so a marker\n/// is never stranded — then the [`due`] kernel over its RAM-only last-ran\n/// instant. Returns the per-worker flags (parallel to `workers`) and whether\n/// ANY leg is due (an all-idle tick sleeps without loading a round).\nfn compute_due(\n    workers: &mut [&mut dyn PumpWorker],\n    last: &[Option<Instant>],\n    now: Instant,\n) -> (Vec<bool>, bool) {\n    let mut flags = vec![false; workers.len()];\n    let mut any = false;\n    for i in 0..workers.len() {\n        let wake = workers[i].poll_wake();\n        flags[i] = due(last[i], wake, now, workers[i].cadence());\n        any |= flags[i];\n    }\n    (flags, any)\n}\n\n/// Run each due worker's node-local `pre_round` ONCE for the round, before any\n/// peer_step (the registry sweep + advertise; the other legs default no-op).\nfn pre_rounds(workers: &mut [&mut dyn PumpWorker], due_flags: &[bool], ctx: &RoundCtx) {\n    for i in 0..workers.len() {\n        if due_flags[i] {\n            workers[i].pre_round(ctx);\n        }\n    }\n}\n\n/// Run `step` for each due worker index in fan-out order, aborting on the\n/// FIRST error (abort-on-first-fail — the caller drops the peer's conn and\n/// redials next tick). The peer-step IO itself lives in `step`; this is the\n/// pure ordering/abort kernel, so the choreography is a unit fact.\nfn run_due(due_flags: &[bool], mut step: impl FnMut(usize) -> io::Result<()>) -> io::Result<()> {\n    for (i, &is_due) in due_flags.iter().enumerate() {\n        if is_due {\n            step(i)?;\n        }\n    }\n    Ok(())\n}\n\n/// Per-peer fan-out outcome (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION) — SUPERSEDES\n/// W1's whole-round `peer_outcome` poison at the round level while KEEPING its\n/// carrier-desync→restart path. `Ok` keeps the conn. An ORDINARY error (including\n/// a connect-then-silent peer's reply-read `TimedOut`, already reclassified OUT of\n/// `TimedOut` by `Brain::read_peer_reply_until`) is a PER-PEER failure: drop THAT\n/// conn + back the peer off (Q3 — a mid-round `peer_step` fail isolates exactly\n/// like a `DIAL_FAILED`, never round-wide), the round continues, the heartbeat\n/// advances. A genuine broker-IPC-CARRIER desync — a raw `TimedOut` (the carrier\n/// ops `net_open_stream` / `subscribe` / `send` keep it) — STILL bubbles `Err` to\n/// a SUPERVISED RESTART: a dead BROKER conn restarts the pump; a dead PEER never\n/// does (the decouple W2 delivers).\n// [impl->REQ-PUMP-PEER-ISOLATION]\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\nfn peer_leg_outcome(\n    result: io::Result<()>,\n    peer_hex: &str,\n    conns: &mut HashMap<String, u64>,\n    sched: &mut HashMap<String, PeerSched>,\n    now: Instant,\n) -> io::Result<()> {\n    match result {\n        Ok(()) => Ok(()),\n        Err(e) if e.kind() == io::ErrorKind::TimedOut => Err(e), // carrier desync → restart\n        Err(e) => {\n            eprintln!(\"PUMP_PEER_FAIL:{peer_hex}:{e}\");\n            conns.remove(peer_hex); // ordinary per-peer failure → drop conn\n            let prev = sched.get(peer_hex).copied();\n            sched.insert(peer_hex.to_string(), next_peer_backoff(prev, now)); // + back off (Q3)\n            Ok(())\n        }\n    }\n}\n\n/// Run every due worker's `peer_step` for a CONNECTED peer across all subnets it\n/// targets this round (one conn serves them all), applying [`peer_leg_outcome`]\n/// after each — an ordinary failure drops the conn + backs the peer off and stops\n/// this peer's remaining legs; a carrier desync bubbles to a supervised restart.\n/// Each worker mints its open-ops only through the shell-owned [`PeerIo`].\n// [impl->REQ-PUMP-PEER-ISOLATION]\n#[allow(clippy::too_many_arguments)]\nfn run_peer_subnets(\n    brain: &mut Brain,\n    ops: &mut EpochSource,\n    workers: &mut [&mut dyn PumpWorker],\n    due_flags: &[bool],\n    conns: &mut HashMap<String, u64>,\n    sched: &mut HashMap<String, PeerSched>,\n    conn_id: u64,\n    subs: &[String],\n    peer_hex: &str,\n    ctx: &RoundCtx,\n    now: Instant,\n) -> io::Result<()> {\n    for sub_name in subs {\n        let outcome = run_due(due_flags, |i| {\n            let mut io = PeerIo {\n                brain: &mut *brain,\n                conn_id,\n                ops: &mut *ops,\n            };\n            workers[i].peer_step(&mut io, sub_name, peer_hex, ctx)\n        });\n        peer_leg_outcome(outcome, peer_hex, conns, sched, now)?;\n        if !conns.contains_key(peer_hex) {\n            break; // an ordinary failure dropped the conn — redial a later round\n        }\n    }\n    Ok(())\n}\n\n/// Apply one drained presence event to the pump's per-peer state (PUMP-TRUTH W2).\n/// `CONNECTED` → cache the conn, RESET the peer's backoff, seed the observed addr\n/// (REQ-CONV-1 write-back rides the async connect), and run the peer's due legs in\n/// THIS round (advertise the round it connects — no head-of-line block by the dead\n/// peers). `DIAL_FAILED` → back the peer off (G5), log the ordinary per-peer\n/// signal, and drop the stale seed (REQ-CONV-1 self-heal → next round re-resolves\n/// via discovery). `DISCONNECTED` → drop the cached conn, NO backoff (redial-\n/// eligible immediately, Q3). A future presence kind is tolerated (no-op).\n// [impl->REQ-PUMP-PEER-ISOLATION]\n#[allow(clippy::too_many_arguments)]\nfn handle_presence_event(\n    ev: NetPresenceEvent,\n    brain: &mut Brain,\n    ops: &mut EpochSource,\n    workers: &mut [&mut dyn PumpWorker],\n    due_flags: &[bool],\n    conns: &mut HashMap<String, u64>,\n    sched: &mut HashMap<String, PeerSched>,\n    pending: &mut HashSet<String>,\n    peer_subnets: &HashMap<String, Vec<String>>,\n    ctx: &RoundCtx,\n    peer_addrs: &std::path::Path,\n    now: Instant,\n) -> io::Result<()> {\n    let is_target = peer_subnets.contains_key(&ev.remote_id_hex);\n    if presence_state_effect(&ev, conns, sched, pending, peer_addrs, is_target, now) {\n        // A CONNECTED peer that is a fan target this round → advertise NOW.\n        if let Some(subs) = peer_subnets.get(&ev.remote_id_hex) {\n            run_peer_subnets(\n                brain,\n                ops,\n                workers,\n                due_flags,\n                conns,\n                sched,\n                ev.conn_id,\n                subs,\n                &ev.remote_id_hex,\n                ctx,\n                now,\n            )?;\n        }\n    }\n    Ok(())\n}\n\n/// Apply a drained presence event's per-peer STATE effect — pure of the brain, so\n/// it is a UNIT fact (correlation by `remote_id_hex`, backoff on fail, reset on\n/// connect, disconnect drops the conn). Mutates conns / sched / pending + the seed\n/// store; returns `true` iff the peer's due legs should now run (a CONNECTED that\n/// is a fan target this round — `is_target`). See [`handle_presence_event`] for\n/// the per-kind rationale.\n// [impl->REQ-PUMP-PEER-ISOLATION]\nfn presence_state_effect(\n    ev: &NetPresenceEvent,\n    conns: &mut HashMap<String, u64>,\n    sched: &mut HashMap<String, PeerSched>,\n    pending: &mut HashSet<String>,\n    peer_addrs: &std::path::Path,\n    is_target: bool,\n    now: Instant,\n) -> bool {\n    match ev.kind.as_str() {\n        PRESENCE_CONNECTED => {\n            conns.insert(ev.remote_id_hex.clone(), ev.conn_id);\n            sched.remove(&ev.remote_id_hex); // live peer → reset backoff\n            pending.remove(&ev.remote_id_hex);\n            // REQ-CONV-1 write-back: seed the OBSERVED addr from the async connect.\n            if !ev.remote_addr.is_null() {\n                let _ =\n                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n            }\n            is_target\n        }\n        PRESENCE_DIAL_FAILED => {\n            eprintln!(\n                \"PUMP_PEER_FAIL:{}:{}\",\n                ev.remote_id_hex,\n                ev.reason.as_deref().unwrap_or(\"dial failed\")\n            );\n            pending.remove(&ev.remote_id_hex);\n            let prev = sched.get(&ev.remote_id_hex).copied();\n            sched.insert(ev.remote_id_hex.clone(), next_peer_backoff(prev, now));\n            // Stale-seed self-heal (REQ-CONV-1): forget the seed so the next\n            // eligible round re-resolves via id-only discovery.\n            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\n            false\n        }\n        PRESENCE_DISCONNECTED => {\n            // Drop the cached conn — redial-eligible immediately, NO backoff (Q3).\n            conns.retain(|_, cid| *cid != ev.conn_id);\n            false\n        }\n        _ => false, // a future presence kind an older pump tolerates\n    }\n}\n\n/// Mark every due worker ran (ADR-0018 §V4: a POST-round `now`, ran =\n/// ATTEMPTED not succeeded). Non-due slots are untouched, so the stagger holds.\nfn mark_ran(last: &mut [Option<Instant>], due_flags: &[bool], now: Instant) {\n    for i in 0..last.len() {\n        if due_flags[i] {\n            last[i] = Some(now);\n        }\n    }\n}\n\n/// The round's fan-out targets: every `(subnet, peer)` this node pushes to —\n/// every member subnet that is NOT detached (REQ-SUBNET-5), crossed with that\n/// subnet's full roster minus self (REQ-MESH-3). One owned list so the order\n/// and the detached-skip are pure unit facts.\n// [impl->REQ-SUBNET-5]\nfn fan_targets(ctx: &RoundCtx, self_hex: &str) -> Vec<(String, String)> {\n    let mut out = Vec::new();\n    for sub in &ctx.subnets.subnets {\n        if ctx.attachment.is_detached(&sub.name) {\n            continue; // detached: neither advertise into nor connect to\n        }\n        for peer in push_targets(&ctx.policy.roster, &sub.name, self_hex) {\n            out.push((sub.name.clone(), peer));\n        }\n    }\n    out\n}\n\n/// The widened push target (Mesh-D6, REQ-MESH-3): every roster member of\n/// `subnet` except this node itself. Tombstoned members are already excluded by\n/// [`RosterStore::members_in`]. This is THE fan-out change — the push target is\n/// the full roster, not the directly-paired set — kept a pure function so the\n/// \"rows reach all members, never relayed\" widen is a unit fact, not just an\n/// integration property.\n// [impl->REQ-MESH-3]\nfn push_targets(\n    roster: &spt_store::roster::RosterStore,\n    subnet: &str,\n    self_hex: &str,\n) -> Vec<String> {\n    roster\n        .members_in(subnet)\n        .filter(|m| m.pubkey_hex != self_hex)\n        .map(|m| m.pubkey_hex.clone())\n        .collect()\n}\n\n/// Resolve the ONE address to submit a non-blocking dial to (M8 decisions 14/20,\n/// REQ-CONV-1 seeded order): the durable last-known address (`peer-addrs.json`)\n/// FIRST — the cold-start fast path that skips the id-only discovery round-trip —\n/// else the injected resolver (production: id-only discovery). A stale seed costs\n/// one failed dial and is then dropped (`PeerAddrStore::drop_seed` on the\n/// resulting `DIAL_FAILED`) so the next eligible round re-resolves via discovery:\n/// a stale addr never strands a peer. The OBSERVED-addr write-back the old\n/// blocking dial carried now rides the `PRESENCE_CONNECTED` event\n/// ([`handle_presence_event`]). `None` = unresolvable right now — the peer\n/// reschedules on its own cadence, never a round failure.\n// [impl->REQ-CONV-1]\nfn resolve_submit_addr(\n    resolver: &PeerResolver,\n    peer_hex: &str,\n    peer_addrs: &std::path::Path,\n) -> Option<serde_json::Value> {\n    if let Some(seeded) = PeerAddrStore::load_from(peer_addrs).get(peer_hex).cloned() {\n        return Some(seeded); // seeded FIRST (cold-start fast path)\n    }\n    resolver(peer_hex) // miss → id-only discovery\n}\n\n/// Open a fresh stream on `conn_id`, write one whole feed fire-and-forget,\n/// and finish it (the receiver's dispatcher classifies + applies). One\n/// stream per feed: streams are single-purpose by the demux contract.\nfn push_feed(brain: &mut Brain, conn_id: u64, feed: &[u8]) -> io::Result<()> {\n    let opened = brain.net_open_stream(conn_id, None)?;\n    brain.net_stream_send(opened.stream_id, feed, None, true)?;\n    Ok(())\n}\n\n/// Connect a fresh brain IPC client in PUMP mode (retrying through broker\n/// startup): the carrier is split at construction with the per-call deadline\n/// armed ([`Brain::cold_start_pump`]), so the pump's reads are bounded from the\n/// first tick (REQ-HAZARD-PUMP-IPC-DEADLINE).\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\nfn connect(broker_name: &str) -> io::Result<Brain> {\n    let mut last = io::Error::other(\"broker never answered\");\n    for _ in 0..300 {\n        match Brain::cold_start_pump(broker_name, now_ms(), PUMP_PEER_IO_TIMEOUT) {\n            Ok(b) => return Ok(b),\n            Err(e) => last = e,\n        }\n        thread::sleep(Duration::from_millis(10));\n    }\n    Err(last)\n}\n\nfn now_ms() -> u64 {\n    std::time::SystemTime::now()\n        .duration_since(std::time::UNIX_EPOCH)\n        .map(|d| d.as_millis() as u64)\n        .unwrap_or(0)\n}\n\n\n[Showing lines 379-993 of 1717. Use :994 to continue]"}],"details":{"truncation":{"content":"\r\n    /// Node-local work run ONCE per due round, before any `peer_step`.\r\n    /// Default: nothing.\r\n    fn pre_round(&mut self, _ctx: &RoundCtx) {}\r\n\r\n    /// The per-peer step for one `(subnet, peer)` under this round's context. A\r\n    /// failure aborts the remaining due workers for THIS peer and drops its\r\n    /// conn (redial next tick) — abort-on-first-fail, current behaviour.\r\n    fn peer_step(\r\n        &mut self,\r\n        io: &mut PeerIo,\r\n        subnet: &str,\r\n        peer_hex: &str,\r\n        ctx: &RoundCtx,\r\n    ) -> io::Result<()>;\r\n}\r\n\r\n/// Per-round shared loads (§Frozen-3): the config-ish stores the shell reads\r\n/// ONCE per due round and hands every worker by `&RoundCtx`. The single-read\r\n/// invariant — push targets and the sync gate see the SAME roster — is made a\r\n/// structural fact by loading the roster-backed [`SyncPolicy`] here, once.\r\n/// Carries ONLY per-round shared loads; never long-lived deps (those are\r\n/// construction-captured by each worker).\r\nstruct RoundCtx {\r\n    /// `subnet.json` — the member subnets iterated for fan-out.\r\n    subnets: SubnetStore,\r\n    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\r\n    attachment: spt_store::attachment::AttachmentStore,\r\n    /// The roster-backed sync gate — one store feeding both the push targets\r\n    /// and the sync authorization (symmetric scoping).\r\n    policy: SyncPolicy,\r\n}\r\n\r\nimpl RoundCtx {\r\n    /// Load the per-round shared stores from the pump's paths (the access-gate\r\n    /// freshness stance — every config-ish store re-read per round so an edit\r\n    /// takes effect within one tick, no restart).\r\n    fn load(paths: &PumpPaths) -> RoundCtx {\r\n        let subnets = SubnetStore::load_from(&paths.subnets);\r\n        // Serve-state (M8 decision 6, REQ-SUBNET-5): a detached subnet is\r\n        // neither advertised into nor connected to — skipped wholesale in the\r\n        // per-subnet loop below.\r\n        // [impl->REQ-SUBNET-5]\r\n        let attachment = spt_store::attachment::AttachmentStore::load_from(\r\n            &paths\r\n                .subnets\r\n                .parent()\r\n                .map(|p| p.join(\"attachment.json\"))\r\n                .unwrap_or_else(|| PathBuf::from(\"attachment.json\")),\r\n        );\r\n        // THE WIDEN (Mesh-D6, REQ-MESH-3): the push target is the full roster\r\n        // (all members), not the directly-paired set. The one roster loaded\r\n        // here feeds both the push (who we dial) and the sync gate (who we\r\n        // authorize), so they read one store.\r\n        let roster_path = paths\r\n            .subnets\r\n            .parent()\r\n            .map(|p| p.join(\"roster.json\"))\r\n            .unwrap_or_else(|| PathBuf::from(\"roster.json\"));\r\n        let policy = SyncPolicy {\r\n            subnets: subnets\r\n                .subnets\r\n                .iter()\r\n                .map(|s| (s.name.clone(), s.hide_new_endpoints))\r\n                .collect(),\r\n            roster: spt_store::roster::RosterStore::load_from(&roster_path),\r\n            vis: VisibilityStore::load_from(&paths.vis),\r\n        };\r\n        RoundCtx {\r\n            subnets,\r\n            attachment,\r\n            policy,\r\n        }\r\n    }\r\n}\r\n\r\n#[cfg(test)]\r\nimpl RoundCtx {\r\n    /// A minimal empty round context for worker unit tests whose `pre_round` /\r\n    /// `peer_step` ignore it (the registry leg keys off its own state, not the\r\n    /// shared loads).\r\n    fn for_test() -> RoundCtx {\r\n        RoundCtx {\r\n            subnets: SubnetStore::default(),\r\n            attachment: spt_store::attachment::AttachmentStore::default(),\r\n            policy: SyncPolicy {\r\n                subnets: Vec::new(),\r\n                roster: spt_store::roster::RosterStore::default(),\r\n                vis: VisibilityStore::default(),\r\n            },\r\n        }\r\n    }\r\n}\r\n\r\n/// The shell-owned per-peer IO surface (§Frozen-5): the ONE brain IPC handle,\r\n/// the established conn id, and the SOLE open-op [`EpochSource`]\r\n/// (`pump-ops.json`). A worker mints durable open-ops only through this handle\r\n/// — a worker-owned `EpochSource` over the shared counter is the KH\r\n/// epoch-lease double-mint and is forbidden.\r\nstruct PeerIo<'a> {\r\n    /// The one brain IPC handle.\r\n    brain: &'a mut Brain,\r\n    /// The established peer conn id for this step.\r\n    conn_id: u64,\r\n    /// The pump's sole durable open-op counter. Workers mint open-ops only\r\n    /// through [`PeerIo::open_op`] (the sync + update legs); a worker-owned\r\n    /// `EpochSource` over this counter would be the KH epoch-lease double-mint.\r\n    ops: &'a mut EpochSource,\r\n}\r\n\r\nimpl PeerIo<'_> {\r\n    /// Open a fresh stream and write one whole feed fire-and-forget (the\r\n    /// push-feed discipline — `op_id: None`, finished on send).\r\n    fn push_feed(&mut self, feed: &[u8]) -> io::Result<()> {\r\n        push_feed(self.brain, self.conn_id, feed)\r\n    }\r\n\r\n    /// Mint the next durable open-op from the pump's sole counter (exactly-once\r\n    /// open identity — a restart can never reuse one), tagged with the `pump`\r\n    /// journal minter (ADR-0034): the pump is the sole writer of `pump-ops.json`,\r\n    /// so its ops namespace under `pump` and never collide with cli/rc/shell ops.\r\n    fn open_op(&mut self) -> io::Result<MintedOp> {\r\n        Ok(MintedOp::new(Minter::Pump, self.ops.next_epoch()?))\r\n    }\r\n}\r\n\r\n/// Run the pump until `stop` is set. Owns one brain IPC connection and a\r\n/// per-peer connection cache (an IO failure against a peer drops its cache\r\n/// row; the next tick redials — conns are rebuilt freely, nothing leaks\r\n/// because the broker's closed-watcher reaps dead conns).\r\n///\r\n/// The pure scheduler + fan-out (pump-seam P4, all four legs behind the seam):\r\n/// heartbeat → poll every worker's wake → the [`due`] kernel → each due\r\n/// worker's `pre_round` (once, before any peer_step) → per-subnet × per-peer\r\n/// (`ensure_conn` → each due worker's `peer_step` in fan-out order,\r\n/// abort-on-first-fail) → mark-after-round with a POST-round instant. No leg\r\n/// logic lives here — the shell owns only *when* and *toward whom*.\r\npub fn run_peer_pump(\r\n    broker_name: &str,\r\n    registry: Arc<RegistryHost>,\r\n    paths: &PumpPaths,\r\n    resolver: PeerResolver,\r\n    config: PumpConfig,\r\n    hooks: PumpHooks,\r\n    stop: &AtomicBool,\r\n) -> io::Result<()> {\r\n    let PumpConfig {\r\n        cadence,\r\n        full_auto_update,\r\n    } = config;\r\n    // PUMP MODE: a brain whose carrier is SPLIT at construction (reader thread +\r\n    // channel) so every reply read is bounded by PUMP_PEER_IO_TIMEOUT — a\r\n    // black-holed peer can never wedge this single-threaded loop (the 2.2h\r\n    // hfenduleam stall). A timed-out read escalates to a supervised restart\r\n    // below, never a per-peer retry (REQ-HAZARD-PUMP-IPC-DEADLINE).\r\n    // [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\n    let mut brain = connect(broker_name)?;\r\n    // The DEDICATED event-drain carrier (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION):\r\n    // a SECOND pump-mode brain that OWNS the presence subscription. It is split\r\n    // from `brain` deliberately — `brain` runs the per-peer `peer_step` pulls\r\n    // whose reply-reads consume every event kind off their carrier; sharing one\r\n    // carrier would make a pull-read swallow a presence frame (advancing the\r\n    // exactly-once cursor while dropping the outcome — the D4c break). Two\r\n    // carriers keep the drain and the pulls from swallowing each other by\r\n    // construction. Tail-follow (no history replay, baseline on first live event)\r\n    // so a long-lived broker's evicted ring can never gap-trip a false restart.\r\n    let mut events = connect(broker_name)?;\r\n    events.net_presence_subscribe_tail()?;\r\n    let mut ops = EpochSource::load_from(&paths.ops);\r\n    // The live per-peer connection cache (updated by presence events) + the\r\n    // per-peer dial schedule (G5 backoff). Both RAM-only, re-primed on restart.\r\n    let mut conns: HashMap<String, u64> = HashMap::new();\r\n    let mut sched: HashMap<String, PeerSched> = HashMap::new();\r\n    // The four cadenced legs behind the worker seam, in fan-out order\r\n    // (registry → notif → sync → update). The shell drives them generically;\r\n    // each leg's *what* lives in its module (§Frozen). Construction capture\r\n    // (§Frozen-4): each worker owns the registry Arc / path slices / config\r\n    // knob it needs — the sync worker additionally owns the conflict-surface\r\n    // hooks (ADR-0013).\r\n    let mut registry_worker = RegistryWorker::new(Arc::clone(&registry), paths, &cadence);\r\n    let mut notif_worker = NotifWorker::new(paths, &cadence);\r\n    let mut sync_worker = SyncWorker::new(Arc::clone(&registry), paths, &cadence, hooks);\r\n    let mut update_worker = UpdateWorker::new(Arc::clone(&registry), paths, &cadence, full_auto_update);\r\n    let mut workers: [&mut dyn PumpWorker; 4] = [\r\n        &mut registry_worker,\r\n        &mut notif_worker,\r\n        &mut sync_worker,\r\n        &mut update_worker,\r\n    ];\r\n    // WorkerLasts (ADR-0018 §V4): RAM-only last-ran instants, parallel to\r\n    // `workers`. `None` = never run yet → due immediately, so the first tick\r\n    // primes every leg. Never `Instant - Duration` — the underflow panic on a\r\n    // sub-uptime monotonic clock (KH 5.9) lives nowhere in this path.\r\n    let mut last: [Option<Instant>; 4] = [None; 4];\r\n    let mut last_hb: Option<Instant> = None;\r\n\r\n    while !stop.load(Ordering::Relaxed) {\r\n        let now = Instant::now();\r\n        // Shell-owned liveness heartbeat (M8 decision 23, REQ-DAEMON-5): written\r\n        // while the loop is ALIVE — including idle ticks — never per work round,\r\n        // so a wedged step and a healthy quiet pump are distinguishable.\r\n        // Throttled; per-tick, never a worker (REQ-DAEMON-5), no wake.\r\n        // [impl->REQ-DAEMON-5]\r\n        if due(last_hb, false, now, HEARTBEAT_PERIOD) {\r\n            write_heartbeat(&paths.heartbeat);\r\n            last_hb = Some(now);\r\n        }\r\n        // Poll every worker's wake and decide due (the pure scheduler step):\r\n        // every wake is consumed EVERY tick so a marker is never stranded (the\r\n        // registry advertise-now, REQ-CONV-2; the sync freshness pull,\r\n        // REQ-INST-3). The take IS the remove — one wake claims exactly one\r\n        // forced round.\r\n        let (due_flags, any_due) = compute_due(&mut workers, &last, now);\r\n        if !any_due {\r\n            thread::sleep(TICK);\r\n            continue;\r\n        }\r\n\r\n        // Per-round shared loads (§Frozen-3): subnets / attachment /\r\n        // roster-backed policy, read ONCE and handed to every worker.\r\n        let ctx = RoundCtx::load(paths);\r\n\r\n        // Each due worker's node-local pre_round, once per round before ANY\r\n        // peer_step (only the registry leg does work here — its sweep +\r\n        // advertise; the rest default to a no-op).\r\n        pre_rounds(&mut workers, &due_flags, &ctx);\r\n\r\n        // ── PUMP-TRUTH W2 round (REQ-PUMP-PEER-ISOLATION) — concurrent dials +\r\n        // per-peer fault isolation. Group this round's fan-out targets by peer (a\r\n        // peer may target several subnets; one conn serves them all).\r\n        let mut peer_subnets: HashMap<String, Vec<String>> = HashMap::new();\r\n        for (sub_name, peer_hex) in fan_targets(&ctx, registry.node_hex()) {\r\n            peer_subnets.entry(peer_hex).or_default().push(sub_name);\r\n        }\r\n        let round_start = Instant::now();\r\n        let mut pending: HashSet<String> = HashSet::new();\r\n\r\n        // Submit NON-BLOCKING dials for eligible unconnected peers; run the due\r\n        // legs NOW for already-connected ones. The live peer advertises without\r\n        // waiting on a dead one (no head-of-line block) — a dead peer is only a\r\n        // pending outcome, never a serial blocker.\r\n        for (peer_hex, subs) in &peer_subnets {\r\n            if let Some(&conn_id) = conns.get(peer_hex) {\r\n                run_peer_subnets(\r\n                    &mut brain, &mut ops, &mut workers, &due_flags, &mut conns, &mut sched,\r\n                    conn_id, subs, peer_hex, &ctx, round_start,\r\n                )?;\r\n            } else if peer_eligible(&sched, peer_hex, round_start) {\r\n                if let Some(addr) = resolve_submit_addr(&resolver, peer_hex, &paths.peer_addrs) {\r\n                    match brain.submit_dial(addr) {\r\n                        Ok(()) => {\r\n                            pending.insert(peer_hex.clone());\r\n                        }\r\n                        // A raw carrier-op TimedOut on the submit IPC itself is a\r\n                        // genuine broker-IPC desync → bubble → supervised restart.\r\n                        Err(e) if e.kind() == io::ErrorKind::TimedOut => return Err(e),\r\n                        // The broker refused the submit (net disabled / bad addr):\r\n                        // an ordinary per-peer failure — back off, round continues.\r\n                        Err(e) => {\r\n                            eprintln!(\"PUMP_PEER_FAIL:{peer_hex}:{e}\");\r\n                            let prev = sched.get(peer_hex).copied();\r\n                            sched.insert(peer_hex.clone(), next_peer_backoff(prev, round_start));\r\n                        }\r\n                    }\r\n                }\r\n            }\r\n        }\r\n\r\n        // Drain dial outcomes on the DEDICATED event carrier until the round\r\n        // deadline (concurrent dials all land within ~one W1 bound). A CONNECTED\r\n        // runs that peer's legs in THIS round; a DIAL_FAILED backs the peer off; a\r\n        // peer unresolved at the deadline simply reschedules — NEVER a whole-round\r\n        // poison. `TimedOut` = quiet (drain done); any other read error = the\r\n        // broker stopped answering the stream (dead carrier) → bubble → supervised\r\n        // restart (the re-pointed REQ-HAZARD-PUMP-IPC-DEADLINE: a dead BROKER still\r\n        // restarts the pump; a dead PEER never does).\r\n        // [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\n        let round_deadline = round_start + PEER_REPLY_READ_BUDGET + ROUND_DRAIN_MARGIN;\r\n        loop {\r\n            let read_deadline = if pending.is_empty() {\r\n                Instant::now() // no outstanding submits — sweep only what is queued\r\n            } else {\r\n                round_deadline\r\n            };\r\n            match classify_drain_read(events.read_event_until(Some(read_deadline))) {\r\n                DrainStep::Apply(ev) => handle_presence_event(\r\n                    ev, &mut brain, &mut ops, &mut workers, &due_flags, &mut conns, &mut sched,\r\n                    &mut pending, &peer_subnets, &ctx, &paths.peer_addrs, round_start,\r\n                )?,\r\n                DrainStep::Skip => continue, // the event carrier only carries presence\r\n                DrainStep::RoundDone => break, // quiet (TimedOut) — drain done\r\n                DrainStep::Restart(e) => return Err(e), // dead broker/carrier → restart\r\n            }\r\n        }\r\n\r\n        // Mark-after-round with a POST-round instant (ADR-0018 §V4: the\r\n        // stagger — ran = ATTEMPTED, not succeeded; the next due is measured\r\n        // from here, not from the round's start).\r\n        mark_ran(&mut last, &due_flags, Instant::now());\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// Compute each worker's due flag for this tick (the pure scheduler step):\r\n/// poll EVERY worker's wake first — even a not-otherwise-due leg, so a marker\r\n/// is never stranded — then the [`due`] kernel over its RAM-only last-ran\r\n/// instant. Returns the per-worker flags (parallel to `workers`) and whether\r\n/// ANY leg is due (an all-idle tick sleeps without loading a round).\r\nfn compute_due(\r\n    workers: &mut [&mut dyn PumpWorker],\r\n    last: &[Option<Instant>],\r\n    now: Instant,\r\n) -> (Vec<bool>, bool) {\r\n    let mut flags = vec![false; workers.len()];\r\n    let mut any = false;\r\n    for i in 0..workers.len() {\r\n        let wake = workers[i].poll_wake();\r\n        flags[i] = due(last[i], wake, now, workers[i].cadence());\r\n        any |= flags[i];\r\n    }\r\n    (flags, any)\r\n}\r\n\r\n/// Run each due worker's node-local `pre_round` ONCE for the round, before any\r\n/// peer_step (the registry sweep + advertise; the other legs default no-op).\r\nfn pre_rounds(workers: &mut [&mut dyn PumpWorker], due_flags: &[bool], ctx: &RoundCtx) {\r\n    for i in 0..workers.len() {\r\n        if due_flags[i] {\r\n            workers[i].pre_round(ctx);\r\n        }\r\n    }\r\n}\r\n\r\n/// Run `step` for each due worker index in fan-out order, aborting on the\r\n/// FIRST error (abort-on-first-fail — the caller drops the peer's conn and\r\n/// redials next tick). The peer-step IO itself lives in `step`; this is the\r\n/// pure ordering/abort kernel, so the choreography is a unit fact.\r\nfn run_due(due_flags: &[bool], mut step: impl FnMut(usize) -> io::Result<()>) -> io::Result<()> {\r\n    for (i, &is_due) in due_flags.iter().enumerate() {\r\n        if is_due {\r\n            step(i)?;\r\n        }\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// Per-peer fan-out outcome (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION) — SUPERSEDES\r\n/// W1's whole-round `peer_outcome` poison at the round level while KEEPING its\r\n/// carrier-desync→restart path. `Ok` keeps the conn. An ORDINARY error (including\r\n/// a connect-then-silent peer's reply-read `TimedOut`, already reclassified OUT of\r\n/// `TimedOut` by `Brain::read_peer_reply_until`) is a PER-PEER failure: drop THAT\r\n/// conn + back the peer off (Q3 — a mid-round `peer_step` fail isolates exactly\r\n/// like a `DIAL_FAILED`, never round-wide), the round continues, the heartbeat\r\n/// advances. A genuine broker-IPC-CARRIER desync — a raw `TimedOut` (the carrier\r\n/// ops `net_open_stream` / `subscribe` / `send` keep it) — STILL bubbles `Err` to\r\n/// a SUPERVISED RESTART: a dead BROKER conn restarts the pump; a dead PEER never\r\n/// does (the decouple W2 delivers).\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\nfn peer_leg_outcome(\r\n    result: io::Result<()>,\r\n    peer_hex: &str,\r\n    conns: &mut HashMap<String, u64>,\r\n    sched: &mut HashMap<String, PeerSched>,\r\n    now: Instant,\r\n) -> io::Result<()> {\r\n    match result {\r\n        Ok(()) => Ok(()),\r\n        Err(e) if e.kind() == io::ErrorKind::TimedOut => Err(e), // carrier desync → restart\r\n        Err(e) => {\r\n            eprintln!(\"PUMP_PEER_FAIL:{peer_hex}:{e}\");\r\n            conns.remove(peer_hex); // ordinary per-peer failure → drop conn\r\n            let prev = sched.get(peer_hex).copied();\r\n            sched.insert(peer_hex.to_string(), next_peer_backoff(prev, now)); // + back off (Q3)\r\n            Ok(())\r\n        }\r\n    }\r\n}\r\n\r\n/// Run every due worker's `peer_step` for a CONNECTED peer across all subnets it\r\n/// targets this round (one conn serves them all), applying [`peer_leg_outcome`]\r\n/// after each — an ordinary failure drops the conn + backs the peer off and stops\r\n/// this peer's remaining legs; a carrier desync bubbles to a supervised restart.\r\n/// Each worker mints its open-ops only through the shell-owned [`PeerIo`].\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\n#[allow(clippy::too_many_arguments)]\r\nfn run_peer_subnets(\r\n    brain: &mut Brain,\r\n    ops: &mut EpochSource,\r\n    workers: &mut [&mut dyn PumpWorker],\r\n    due_flags: &[bool],\r\n    conns: &mut HashMap<String, u64>,\r\n    sched: &mut HashMap<String, PeerSched>,\r\n    conn_id: u64,\r\n    subs: &[String],\r\n    peer_hex: &str,\r\n    ctx: &RoundCtx,\r\n    now: Instant,\r\n) -> io::Result<()> {\r\n    for sub_name in subs {\r\n        let outcome = run_due(due_flags, |i| {\r\n            let mut io = PeerIo {\r\n                brain: &mut *brain,\r\n                conn_id,\r\n                ops: &mut *ops,\r\n            };\r\n            workers[i].peer_step(&mut io, sub_name, peer_hex, ctx)\r\n        });\r\n        peer_leg_outcome(outcome, peer_hex, conns, sched, now)?;\r\n        if !conns.contains_key(peer_hex) {\r\n            break; // an ordinary failure dropped the conn — redial a later round\r\n        }\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// Apply one drained presence event to the pump's per-peer state (PUMP-TRUTH W2).\r\n/// `CONNECTED` → cache the conn, RESET the peer's backoff, seed the observed addr\r\n/// (REQ-CONV-1 write-back rides the async connect), and run the peer's due legs in\r\n/// THIS round (advertise the round it connects — no head-of-line block by the dead\r\n/// peers). `DIAL_FAILED` → back the peer off (G5), log the ordinary per-peer\r\n/// signal, and drop the stale seed (REQ-CONV-1 self-heal → next round re-resolves\r\n/// via discovery). `DISCONNECTED` → drop the cached conn, NO backoff (redial-\r\n/// eligible immediately, Q3). A future presence kind is tolerated (no-op).\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\n#[allow(clippy::too_many_arguments)]\r\nfn handle_presence_event(\r\n    ev: NetPresenceEvent,\r\n    brain: &mut Brain,\r\n    ops: &mut EpochSource,\r\n    workers: &mut [&mut dyn PumpWorker],\r\n    due_flags: &[bool],\r\n    conns: &mut HashMap<String, u64>,\r\n    sched: &mut HashMap<String, PeerSched>,\r\n    pending: &mut HashSet<String>,\r\n    peer_subnets: &HashMap<String, Vec<String>>,\r\n    ctx: &RoundCtx,\r\n    peer_addrs: &std::path::Path,\r\n    now: Instant,\r\n) -> io::Result<()> {\r\n    let is_target = peer_subnets.contains_key(&ev.remote_id_hex);\r\n    if presence_state_effect(&ev, conns, sched, pending, peer_addrs, is_target, now) {\r\n        // A CONNECTED peer that is a fan target this round → advertise NOW.\r\n        if let Some(subs) = peer_subnets.get(&ev.remote_id_hex) {\r\n            run_peer_subnets(\r\n                brain,\r\n                ops,\r\n                workers,\r\n                due_flags,\r\n                conns,\r\n                sched,\r\n                ev.conn_id,\r\n                subs,\r\n                &ev.remote_id_hex,\r\n                ctx,\r\n                now,\r\n            )?;\r\n        }\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// Apply a drained presence event's per-peer STATE effect — pure of the brain, so\r\n/// it is a UNIT fact (correlation by `remote_id_hex`, backoff on fail, reset on\r\n/// connect, disconnect drops the conn). Mutates conns / sched / pending + the seed\r\n/// store; returns `true` iff the peer's due legs should now run (a CONNECTED that\r\n/// is a fan target this round — `is_target`). See [`handle_presence_event`] for\r\n/// the per-kind rationale.\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\nfn presence_state_effect(\r\n    ev: &NetPresenceEvent,\r\n    conns: &mut HashMap<String, u64>,\r\n    sched: &mut HashMap<String, PeerSched>,\r\n    pending: &mut HashSet<String>,\r\n    peer_addrs: &std::path::Path,\r\n    is_target: bool,\r\n    now: Instant,\r\n) -> bool {\r\n    match ev.kind.as_str() {\r\n        PRESENCE_CONNECTED => {\r\n            conns.insert(ev.remote_id_hex.clone(), ev.conn_id);\r\n            sched.remove(&ev.remote_id_hex); // live peer → reset backoff\r\n            pending.remove(&ev.remote_id_hex);\r\n            // REQ-CONV-1 write-back: seed the OBSERVED addr from the async connect.\r\n            if !ev.remote_addr.is_null() {\r\n                let _ =\r\n                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\r\n            }\r\n            is_target\r\n        }\r\n        PRESENCE_DIAL_FAILED => {\r\n            eprintln!(\r\n                \"PUMP_PEER_FAIL:{}:{}\",\r\n                ev.remote_id_hex,\r\n                ev.reason.as_deref().unwrap_or(\"dial failed\")\r\n            );\r\n            pending.remove(&ev.remote_id_hex);\r\n            let prev = sched.get(&ev.remote_id_hex).copied();\r\n            sched.insert(ev.remote_id_hex.clone(), next_peer_backoff(prev, now));\r\n            // Stale-seed self-heal (REQ-CONV-1): forget the seed so the next\r\n            // eligible round re-resolves via id-only discovery.\r\n            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\r\n            false\r\n        }\r\n        PRESENCE_DISCONNECTED => {\r\n            // Drop the cached conn — redial-eligible immediately, NO backoff (Q3).\r\n            conns.retain(|_, cid| *cid != ev.conn_id);\r\n            false\r\n        }\r\n        _ => false, // a future presence kind an older pump tolerates\r\n    }\r\n}\r\n\r\n/// Mark every due worker ran (ADR-0018 §V4: a POST-round `now`, ran =\r\n/// ATTEMPTED not succeeded). Non-due slots are untouched, so the stagger holds.\r\nfn mark_ran(last: &mut [Option<Instant>], due_flags: &[bool], now: Instant) {\r\n    for i in 0..last.len() {\r\n        if due_flags[i] {\r\n            last[i] = Some(now);\r\n        }\r\n    }\r\n}\r\n\r\n/// The round's fan-out targets: every `(subnet, peer)` this node pushes to —\r\n/// every member subnet that is NOT detached (REQ-SUBNET-5), crossed with that\r\n/// subnet's full roster minus self (REQ-MESH-3). One owned list so the order\r\n/// and the detached-skip are pure unit facts.\r\n// [impl->REQ-SUBNET-5]\r\nfn fan_targets(ctx: &RoundCtx, self_hex: &str) -> Vec<(String, String)> {\r\n    let mut out = Vec::new();\r\n    for sub in &ctx.subnets.subnets {\r\n        if ctx.attachment.is_detached(&sub.name) {\r\n            continue; // detached: neither advertise into nor connect to\r\n        }\r\n        for peer in push_targets(&ctx.policy.roster, &sub.name, self_hex) {\r\n            out.push((sub.name.clone(), peer));\r\n        }\r\n    }\r\n    out\r\n}\r\n\r\n/// The widened push target (Mesh-D6, REQ-MESH-3): every roster member of\r\n/// `subnet` except this node itself. Tombstoned members are already excluded by\r\n/// [`RosterStore::members_in`]. This is THE fan-out change — the push target is\r\n/// the full roster, not the directly-paired set — kept a pure function so the\r\n/// \"rows reach all members, never relayed\" widen is a unit fact, not just an\r\n/// integration property.\r\n// [impl->REQ-MESH-3]\r\nfn push_targets(\r\n    roster: &spt_store::roster::RosterStore,\r\n    subnet: &str,\r\n    self_hex: &str,\r\n) -> Vec<String> {\r\n    roster\r\n        .members_in(subnet)\r\n        .filter(|m| m.pubkey_hex != self_hex)\r\n        .map(|m| m.pubkey_hex.clone())\r\n        .collect()\r\n}\r\n\r\n/// Resolve the ONE address to submit a non-blocking dial to (M8 decisions 14/20,\r\n/// REQ-CONV-1 seeded order): the durable last-known address (`peer-addrs.json`)\r\n/// FIRST — the cold-start fast path that skips the id-only discovery round-trip —\r\n/// else the injected resolver (production: id-only discovery). A stale seed costs\r\n/// one failed dial and is then dropped (`PeerAddrStore::drop_seed` on the\r\n/// resulting `DIAL_FAILED`) so the next eligible round re-resolves via discovery:\r\n/// a stale addr never strands a peer. The OBSERVED-addr write-back the old\r\n/// blocking dial carried now rides the `PRESENCE_CONNECTED` event\r\n/// ([`handle_presence_event`]). `None` = unresolvable right now — the peer\r\n/// reschedules on its own cadence, never a round failure.\r\n// [impl->REQ-CONV-1]\r\nfn resolve_submit_addr(\r\n    resolver: &PeerResolver,\r\n    peer_hex: &str,\r\n    peer_addrs: &std::path::Path,\r\n) -> Option<serde_json::Value> {\r\n    if let Some(seeded) = PeerAddrStore::load_from(peer_addrs).get(peer_hex).cloned() {\r\n        return Some(seeded); // seeded FIRST (cold-start fast path)\r\n    }\r\n    resolver(peer_hex) // miss → id-only discovery\r\n}\r\n\r\n/// Open a fresh stream on `conn_id`, write one whole feed fire-and-forget,\r\n/// and finish it (the receiver's dispatcher classifies + applies). One\r\n/// stream per feed: streams are single-purpose by the demux contract.\r\nfn push_feed(brain: &mut Brain, conn_id: u64, feed: &[u8]) -> io::Result<()> {\r\n    let opened = brain.net_open_stream(conn_id, None)?;\r\n    brain.net_stream_send(opened.stream_id, feed, None, true)?;\r\n    Ok(())\r\n}\r\n\r\n/// Connect a fresh brain IPC client in PUMP mode (retrying through broker\r\n/// startup): the carrier is split at construction with the per-call deadline\r\n/// armed ([`Brain::cold_start_pump`]), so the pump's reads are bounded from the\r\n/// first tick (REQ-HAZARD-PUMP-IPC-DEADLINE).\r\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\nfn connect(broker_name: &str) -> io::Result<Brain> {\r\n    let mut last = io::Error::other(\"broker never answered\");\r\n    for _ in 0..300 {\r\n        match Brain::cold_start_pump(broker_name, now_ms(), PUMP_PEER_IO_TIMEOUT) {\r\n            Ok(b) => return Ok(b),\r\n            Err(e) => last = e,\r\n        }\r\n        thread::sleep(Duration::from_millis(10));\r\n    }\r\n    Err(last)\r\n}\r\n\r\nfn now_ms() -> u64 {\r\n    std::time::SystemTime::now()\r\n        .duration_since(std::time::UNIX_EPOCH)\r\n        .map(|d| d.as_millis() as u64)\r\n        .unwrap_or(0)\r\n}\r\n\r","truncated":true,"truncatedBy":"lines","totalLines":1339,"totalBytes":28441,"outputLines":615,"outputBytes":28441,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"trait PumpWorker {\n…\n\r\n    /// Node-local work run ONCE per due round, before any `peer_step`.\r\n    /// Default: nothing.\r\n    fn pre_round(&mut self, _ctx: &RoundCtx) {}\r\n\r\n    /// The per-peer step for one `(subnet, peer)` under this round's context. A\r\n    /// failure aborts the remaining due workers for THIS peer and drops its\r\n    /// conn (redial next tick) — abort-on-first-fail, current behaviour.\r\n    fn peer_step(\r\n        &mut self,\r\n        io: &mut PeerIo,\r\n        subnet: &str,\r\n        peer_hex: &str,\r\n        ctx: &RoundCtx,\r\n    ) -> io::Result<()>;\r\n}\r\n\r\n/// Per-round shared loads (§Frozen-3): the config-ish stores the shell reads\r\n/// ONCE per due round and hands every worker by `&RoundCtx`. The single-read\r\n/// invariant — push targets and the sync gate see the SAME roster — is made a\r\n/// structural fact by loading the roster-backed [`SyncPolicy`] here, once.\r\n/// Carries ONLY per-round shared loads; never long-lived deps (those are\r\n/// construction-captured by each worker).\r\nstruct RoundCtx {\r\n    /// `subnet.json` — the member subnets iterated for fan-out.\r\n    subnets: SubnetStore,\r\n    /// `attachment.json` — a detached subnet is skipped wholesale (REQ-SUBNET-5).\r\n    attachment: spt_store::attachment::AttachmentStore,\r\n    /// The roster-backed sync gate — one store feeding both the push targets\r\n    /// and the sync authorization (symmetric scoping).\r\n    policy: SyncPolicy,\r\n}\r\n\r\nimpl RoundCtx {\r\n    /// Load the per-round shared stores from the pump's paths (the access-gate\r\n    /// freshness stance — every config-ish store re-read per round so an edit\r\n    /// takes effect within one tick, no restart).\r\n    fn load(paths: &PumpPaths) -> RoundCtx {\r\n        let subnets = SubnetStore::load_from(&paths.subnets);\r\n        // Serve-state (M8 decision 6, REQ-SUBNET-5): a detached subnet is\r\n        // neither advertised into nor connected to — skipped wholesale in the\r\n        // per-subnet loop below.\r\n        // [impl->REQ-SUBNET-5]\r\n        let attachment = spt_store::attachment::AttachmentStore::load_from(\r\n            &paths\r\n                .subnets\r\n                .parent()\r\n                .map(|p| p.join(\"attachment.json\"))\r\n                .unwrap_or_else(|| PathBuf::from(\"attachment.json\")),\r\n        );\r\n        // THE WIDEN (Mesh-D6, REQ-MESH-3): the push target is the full roster\r\n        // (all members), not the directly-paired set. The one roster loaded\r\n        // here feeds both the push (who we dial) and the sync gate (who we\r\n        // authorize), so they read one store.\r\n        let roster_path = paths\r\n            .subnets\r\n            .parent()\r\n            .map(|p| p.join(\"roster.json\"))\r\n            .unwrap_or_else(|| PathBuf::from(\"roster.json\"));\r\n        let policy = SyncPolicy {\r\n            subnets: subnets\r\n                .subnets\r\n                .iter()\r\n                .map(|s| (s.name.clone(), s.hide_new_endpoints))\r\n                .collect(),\r\n            roster: spt_store::roster::RosterStore::load_from(&roster_path),\r\n            vis: VisibilityStore::load_from(&paths.vis),\r\n        };\r\n        RoundCtx {\r\n            subnets,\r\n            attachment,\r\n            policy,\r\n        }\r\n    }\r\n}\r\n\r\n#[cfg(test)]\r\nimpl RoundCtx {\r\n    /// A minimal empty round context for worker unit tests whose `pre_round` /\r\n    /// `peer_step` ignore it (the registry leg keys off its own state, not the\r\n    /// shared loads).\r\n    fn for_test() -> RoundCtx {\r\n        RoundCtx {\r\n            subnets: SubnetStore::default(),\r\n            attachment: spt_store::attachment::AttachmentStore::default(),\r\n            policy: SyncPolicy {\r\n                subnets: Vec::new(),\r\n                roster: spt_store::roster::RosterStore::default(),\r\n                vis: VisibilityStore::default(),\r\n            },\r\n        }\r\n    }\r\n}\r\n\r\n/// The shell-owned per-peer IO surface (§Frozen-5): the ONE brain IPC handle,\r\n/// the established conn id, and the SOLE open-op [`EpochSource`]\r\n/// (`pump-ops.json`). A worker mints durable open-ops only through this handle\r\n/// — a worker-owned `EpochSource` over the shared counter is the KH\r\n/// epoch-lease double-mint and is forbidden.\r\nstruct PeerIo<'a> {\r\n    /// The one brain IPC handle.\r\n    brain: &'a mut Brain,\r\n    /// The established peer conn id for this step.\r\n    conn_id: u64,\r\n    /// The pump's sole durable open-op counter. Workers mint open-ops only\r\n    /// through [`PeerIo::open_op`] (the sync + update legs); a worker-owned\r\n    /// `EpochSource` over this counter would be the KH epoch-lease double-mint.\r\n    ops: &'a mut EpochSource,\r\n}\r\n\r\nimpl PeerIo<'_> {\r\n    /// Open a fresh stream and write one whole feed fire-and-forget (the\r\n    /// push-feed discipline — `op_id: None`, finished on send).\r\n    fn push_feed(&mut self, feed: &[u8]) -> io::Result<()> {\r\n        push_feed(self.brain, self.conn_id, feed)\r\n    }\r\n\r\n    /// Mint the next durable open-op from the pump's sole counter (exactly-once\r\n    /// open identity — a restart can never reuse one), tagged with the `pump`\r\n    /// journal minter (ADR-0034): the pump is the sole writer of `pump-ops.json`,\r\n    /// so its ops namespace under `pump` and never collide with cli/rc/shell ops.\r\n    fn open_op(&mut self) -> io::Result<MintedOp> {\r\n        Ok(MintedOp::new(Minter::Pump, self.ops.next_epoch()?))\r\n    }\r\n}\r\n\r\n/// Run the pump until `stop` is set. Owns one brain IPC connection and a\r\n/// per-peer connection cache (an IO failure against a peer drops its cache\r\n/// row; the next tick redials — conns are rebuilt freely, nothing leaks\r\n/// because the broker's closed-watcher reaps dead conns).\r\n///\r\n/// The pure scheduler + fan-out (pump-seam P4, all four legs behind the seam):\r\n/// heartbeat → poll every worker's wake → the [`due`] kernel → each due\r\n/// worker's `pre_round` (once, before any peer_step) → per-subnet × per-peer\r\n/// (`ensure_conn` → each due worker's `peer_step` in fan-out order,\r\n/// abort-on-first-fail) → mark-after-round with a POST-round instant. No leg\r\n/// logic lives here — the shell owns only *when* and *toward whom*.\r\npub fn run_peer_pump(\r\n    broker_name: &str,\r\n    registry: Arc<RegistryHost>,\r\n    paths: &PumpPaths,\r\n    resolver: PeerResolver,\r\n    config: PumpConfig,\r\n    hooks: PumpHooks,\r\n    stop: &AtomicBool,\r\n) -> io::Result<()> {\r\n    let PumpConfig {\r\n        cadence,\r\n        full_auto_update,\r\n    } = config;\r\n    // PUMP MODE: a brain whose carrier is SPLIT at construction (reader thread +\r\n    // channel) so every reply read is bounded by PUMP_PEER_IO_TIMEOUT — a\r\n    // black-holed peer can never wedge this single-threaded loop (the 2.2h\r\n    // hfenduleam stall). A timed-out read escalates to a supervised restart\r\n    // below, never a per-peer retry (REQ-HAZARD-PUMP-IPC-DEADLINE).\r\n    // [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\n    let mut brain = connect(broker_name)?;\r\n    // The DEDICATED event-drain carrier (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION):\r\n    // a SECOND pump-mode brain that OWNS the presence subscription. It is split\r\n    // from `brain` deliberately — `brain` runs the per-peer `peer_step` pulls\r\n    // whose reply-reads consume every event kind off their carrier; sharing one\r\n    // carrier would make a pull-read swallow a presence frame (advancing the\r\n    // exactly-once cursor while dropping the outcome — the D4c break). Two\r\n    // carriers keep the drain and the pulls from swallowing each other by\r\n    // construction. Tail-follow (no history replay, baseline on first live event)\r\n    // so a long-lived broker's evicted ring can never gap-trip a false restart.\r\n    let mut events = connect(broker_name)?;\r\n    events.net_presence_subscribe_tail()?;\r\n    let mut ops = EpochSource::load_from(&paths.ops);\r\n    // The live per-peer connection cache (updated by presence events) + the\r\n    // per-peer dial schedule (G5 backoff). Both RAM-only, re-primed on restart.\r\n    let mut conns: HashMap<String, u64> = HashMap::new();\r\n    let mut sched: HashMap<String, PeerSched> = HashMap::new();\r\n    // The four cadenced legs behind the worker seam, in fan-out order\r\n    // (registry → notif → sync → update). The shell drives them generically;\r\n    // each leg's *what* lives in its module (§Frozen). Construction capture\r\n    // (§Frozen-4): each worker owns the registry Arc / path slices / config\r\n    // knob it needs — the sync worker additionally owns the conflict-surface\r\n    // hooks (ADR-0013).\r\n    let mut registry_worker = RegistryWorker::new(Arc::clone(&registry), paths, &cadence);\r\n    let mut notif_worker = NotifWorker::new(paths, &cadence);\r\n    let mut sync_worker = SyncWorker::new(Arc::clone(&registry), paths, &cadence, hooks);\r\n    let mut update_worker = UpdateWorker::new(Arc::clone(&registry), paths, &cadence, full_auto_update);\r\n    let mut workers: [&mut dyn PumpWorker; 4] = [\r\n        &mut registry_worker,\r\n        &mut notif_worker,\r\n        &mut sync_worker,\r\n        &mut update_worker,\r\n    ];\r\n    // WorkerLasts (ADR-0018 §V4): RAM-only last-ran instants, parallel to\r\n    // `workers`. `None` = never run yet → due immediately, so the first tick\r\n    // primes every leg. Never `Instant - Duration` — the underflow panic on a\r\n    // sub-uptime monotonic clock (KH 5.9) lives nowhere in this path.\r\n    let mut last: [Option<Instant>; 4] = [None; 4];\r\n    let mut last_hb: Option<Instant> = None;\r\n\r\n    while !stop.load(Ordering::Relaxed) {\r\n        let now = Instant::now();\r\n        // Shell-owned liveness heartbeat (M8 decision 23, REQ-DAEMON-5): written\r\n        // while the loop is ALIVE — including idle ticks — never per work round,\r\n        // so a wedged step and a healthy quiet pump are distinguishable.\r\n        // Throttled; per-tick, never a worker (REQ-DAEMON-5), no wake.\r\n        // [impl->REQ-DAEMON-5]\r\n        if due(last_hb, false, now, HEARTBEAT_PERIOD) {\r\n            write_heartbeat(&paths.heartbeat);\r\n            last_hb = Some(now);\r\n        }\r\n        // Poll every worker's wake and decide due (the pure scheduler step):\r\n        // every wake is consumed EVERY tick so a marker is never stranded (the\r\n        // registry advertise-now, REQ-CONV-2; the sync freshness pull,\r\n        // REQ-INST-3). The take IS the remove — one wake claims exactly one\r\n        // forced round.\r\n        let (due_flags, any_due) = compute_due(&mut workers, &last, now);\r\n        if !any_due {\r\n            thread::sleep(TICK);\r\n            continue;\r\n        }\r\n\r\n        // Per-round shared loads (§Frozen-3): subnets / attachment /\r\n        // roster-backed policy, read ONCE and handed to every worker.\r\n        let ctx = RoundCtx::load(paths);\r\n\r\n        // Each due worker's node-local pre_round, once per round before ANY\r\n        // peer_step (only the registry leg does work here — its sweep +\r\n        // advertise; the rest default to a no-op).\r\n        pre_rounds(&mut workers, &due_flags, &ctx);\r\n\r\n        // ── PUMP-TRUTH W2 round (REQ-PUMP-PEER-ISOLATION) — concurrent dials +\r\n        // per-peer fault isolation. Group this round's fan-out targets by peer (a\r\n        // peer may target several subnets; one conn serves them all).\r\n        let mut peer_subnets: HashMap<String, Vec<String>> = HashMap::new();\r\n        for (sub_name, peer_hex) in fan_targets(&ctx, registry.node_hex()) {\r\n            peer_subnets.entry(peer_hex).or_default().push(sub_name);\r\n        }\r\n        let round_start = Instant::now();\r\n        let mut pending: HashSet<String> = HashSet::new();\r\n\r\n        // Submit NON-BLOCKING dials for eligible unconnected peers; run the due\r\n        // legs NOW for already-connected ones. The live peer advertises without\r\n        // waiting on a dead one (no head-of-line block) — a dead peer is only a\r\n        // pending outcome, never a serial blocker.\r\n        for (peer_hex, subs) in &peer_subnets {\r\n            if let Some(&conn_id) = conns.get(peer_hex) {\r\n                run_peer_subnets(\r\n                    &mut brain, &mut ops, &mut workers, &due_flags, &mut conns, &mut sched,\r\n                    conn_id, subs, peer_hex, &ctx, round_start,\r\n                )?;\r\n            } else if peer_eligible(&sched, peer_hex, round_start) {\r\n                if let Some(addr) = resolve_submit_addr(&resolver, peer_hex, &paths.peer_addrs) {\r\n                    match brain.submit_dial(addr) {\r\n                        Ok(()) => {\r\n                            pending.insert(peer_hex.clone());\r\n                        }\r\n                        // A raw carrier-op TimedOut on the submit IPC itself is a\r\n                        // genuine broker-IPC desync → bubble → supervised restart.\r\n                        Err(e) if e.kind() == io::ErrorKind::TimedOut => return Err(e),\r\n                        // The broker refused the submit (net disabled / bad addr):\r\n                        // an ordinary per-peer failure — back off, round continues.\r\n                        Err(e) => {\r\n                            eprintln!(\"PUMP_PEER_FAIL:{peer_hex}:{e}\");\r\n                            let prev = sched.get(peer_hex).copied();\r\n                            sched.insert(peer_hex.clone(), next_peer_backoff(prev, round_start));\r\n                        }\r\n                    }\r\n                }\r\n            }\r\n        }\r\n\r\n        // Drain dial outcomes on the DEDICATED event carrier until the round\r\n        // deadline (concurrent dials all land within ~one W1 bound). A CONNECTED\r\n        // runs that peer's legs in THIS round; a DIAL_FAILED backs the peer off; a\r\n        // peer unresolved at the deadline simply reschedules — NEVER a whole-round\r\n        // poison. `TimedOut` = quiet (drain done); any other read error = the\r\n        // broker stopped answering the stream (dead carrier) → bubble → supervised\r\n        // restart (the re-pointed REQ-HAZARD-PUMP-IPC-DEADLINE: a dead BROKER still\r\n        // restarts the pump; a dead PEER never does).\r\n        // [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\n        let round_deadline = round_start + PEER_REPLY_READ_BUDGET + ROUND_DRAIN_MARGIN;\r\n        loop {\r\n            let read_deadline = if pending.is_empty() {\r\n                Instant::now() // no outstanding submits — sweep only what is queued\r\n            } else {\r\n                round_deadline\r\n            };\r\n            match classify_drain_read(events.read_event_until(Some(read_deadline))) {\r\n                DrainStep::Apply(ev) => handle_presence_event(\r\n                    ev, &mut brain, &mut ops, &mut workers, &due_flags, &mut conns, &mut sched,\r\n                    &mut pending, &peer_subnets, &ctx, &paths.peer_addrs, round_start,\r\n                )?,\r\n                DrainStep::Skip => continue, // the event carrier only carries presence\r\n                DrainStep::RoundDone => break, // quiet (TimedOut) — drain done\r\n                DrainStep::Restart(e) => return Err(e), // dead broker/carrier → restart\r\n            }\r\n        }\r\n\r\n        // Mark-after-round with a POST-round instant (ADR-0018 §V4: the\r\n        // stagger — ran = ATTEMPTED, not succeeded; the next due is measured\r\n        // from here, not from the round's start).\r\n        mark_ran(&mut last, &due_flags, Instant::now());\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// Compute each worker's due flag for this tick (the pure scheduler step):\r\n/// poll EVERY worker's wake first — even a not-otherwise-due leg, so a marker\r\n/// is never stranded — then the [`due`] kernel over its RAM-only last-ran\r\n/// instant. Returns the per-worker flags (parallel to `workers`) and whether\r\n/// ANY leg is due (an all-idle tick sleeps without loading a round).\r\nfn compute_due(\r\n    workers: &mut [&mut dyn PumpWorker],\r\n    last: &[Option<Instant>],\r\n    now: Instant,\r\n) -> (Vec<bool>, bool) {\r\n    let mut flags = vec![false; workers.len()];\r\n    let mut any = false;\r\n    for i in 0..workers.len() {\r\n        let wake = workers[i].poll_wake();\r\n        flags[i] = due(last[i], wake, now, workers[i].cadence());\r\n        any |= flags[i];\r\n    }\r\n    (flags, any)\r\n}\r\n\r\n/// Run each due worker's node-local `pre_round` ONCE for the round, before any\r\n/// peer_step (the registry sweep + advertise; the other legs default no-op).\r\nfn pre_rounds(workers: &mut [&mut dyn PumpWorker], due_flags: &[bool], ctx: &RoundCtx) {\r\n    for i in 0..workers.len() {\r\n        if due_flags[i] {\r\n            workers[i].pre_round(ctx);\r\n        }\r\n    }\r\n}\r\n\r\n/// Run `step` for each due worker index in fan-out order, aborting on the\r\n/// FIRST error (abort-on-first-fail — the caller drops the peer's conn and\r\n/// redials next tick). The peer-step IO itself lives in `step`; this is the\r\n/// pure ordering/abort kernel, so the choreography is a unit fact.\r\nfn run_due(due_flags: &[bool], mut step: impl FnMut(usize) -> io::Result<()>) -> io::Result<()> {\r\n    for (i, &is_due) in due_flags.iter().enumerate() {\r\n        if is_due {\r\n            step(i)?;\r\n        }\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// Per-peer fan-out outcome (PUMP-TRUTH W2, REQ-PUMP-PEER-ISOLATION) — SUPERSEDES\r\n/// W1's whole-round `peer_outcome` poison at the round level while KEEPING its\r\n/// carrier-desync→restart path. `Ok` keeps the conn. An ORDINARY error (including\r\n/// a connect-then-silent peer's reply-read `TimedOut`, already reclassified OUT of\r\n/// `TimedOut` by `Brain::read_peer_reply_until`) is a PER-PEER failure: drop THAT\r\n/// conn + back the peer off (Q3 — a mid-round `peer_step` fail isolates exactly\r\n/// like a `DIAL_FAILED`, never round-wide), the round continues, the heartbeat\r\n/// advances. A genuine broker-IPC-CARRIER desync — a raw `TimedOut` (the carrier\r\n/// ops `net_open_stream` / `subscribe` / `send` keep it) — STILL bubbles `Err` to\r\n/// a SUPERVISED RESTART: a dead BROKER conn restarts the pump; a dead PEER never\r\n/// does (the decouple W2 delivers).\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\nfn peer_leg_outcome(\r\n    result: io::Result<()>,\r\n    peer_hex: &str,\r\n    conns: &mut HashMap<String, u64>,\r\n    sched: &mut HashMap<String, PeerSched>,\r\n    now: Instant,\r\n) -> io::Result<()> {\r\n    match result {\r\n        Ok(()) => Ok(()),\r\n        Err(e) if e.kind() == io::ErrorKind::TimedOut => Err(e), // carrier desync → restart\r\n        Err(e) => {\r\n            eprintln!(\"PUMP_PEER_FAIL:{peer_hex}:{e}\");\r\n            conns.remove(peer_hex); // ordinary per-peer failure → drop conn\r\n            let prev = sched.get(peer_hex).copied();\r\n            sched.insert(peer_hex.to_string(), next_peer_backoff(prev, now)); // + back off (Q3)\r\n            Ok(())\r\n        }\r\n    }\r\n}\r\n\r\n/// Run every due worker's `peer_step` for a CONNECTED peer across all subnets it\r\n/// targets this round (one conn serves them all), applying [`peer_leg_outcome`]\r\n/// after each — an ordinary failure drops the conn + backs the peer off and stops\r\n/// this peer's remaining legs; a carrier desync bubbles to a supervised restart.\r\n/// Each worker mints its open-ops only through the shell-owned [`PeerIo`].\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\n#[allow(clippy::too_many_arguments)]\r\nfn run_peer_subnets(\r\n    brain: &mut Brain,\r\n    ops: &mut EpochSource,\r\n    workers: &mut [&mut dyn PumpWorker],\r\n    due_flags: &[bool],\r\n    conns: &mut HashMap<String, u64>,\r\n    sched: &mut HashMap<String, PeerSched>,\r\n    conn_id: u64,\r\n    subs: &[String],\r\n    peer_hex: &str,\r\n    ctx: &RoundCtx,\r\n    now: Instant,\r\n) -> io::Result<()> {\r\n    for sub_name in subs {\r\n        let outcome = run_due(due_flags, |i| {\r\n            let mut io = PeerIo {\r\n                brain: &mut *brain,\r\n                conn_id,\r\n                ops: &mut *ops,\r\n            };\r\n            workers[i].peer_step(&mut io, sub_name, peer_hex, ctx)\r\n        });\r\n        peer_leg_outcome(outcome, peer_hex, conns, sched, now)?;\r\n        if !conns.contains_key(peer_hex) {\r\n            break; // an ordinary failure dropped the conn — redial a later round\r\n        }\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// Apply one drained presence event to the pump's per-peer state (PUMP-TRUTH W2).\r\n/// `CONNECTED` → cache the conn, RESET the peer's backoff, seed the observed addr\r\n/// (REQ-CONV-1 write-back rides the async connect), and run the peer's due legs in\r\n/// THIS round (advertise the round it connects — no head-of-line block by the dead\r\n/// peers). `DIAL_FAILED` → back the peer off (G5), log the ordinary per-peer\r\n/// signal, and drop the stale seed (REQ-CONV-1 self-heal → next round re-resolves\r\n/// via discovery). `DISCONNECTED` → drop the cached conn, NO backoff (redial-\r\n/// eligible immediately, Q3). A future presence kind is tolerated (no-op).\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\n#[allow(clippy::too_many_arguments)]\r\nfn handle_presence_event(\r\n    ev: NetPresenceEvent,\r\n    brain: &mut Brain,\r\n    ops: &mut EpochSource,\r\n    workers: &mut [&mut dyn PumpWorker],\r\n    due_flags: &[bool],\r\n    conns: &mut HashMap<String, u64>,\r\n    sched: &mut HashMap<String, PeerSched>,\r\n    pending: &mut HashSet<String>,\r\n    peer_subnets: &HashMap<String, Vec<String>>,\r\n    ctx: &RoundCtx,\r\n    peer_addrs: &std::path::Path,\r\n    now: Instant,\r\n) -> io::Result<()> {\r\n    let is_target = peer_subnets.contains_key(&ev.remote_id_hex);\r\n    if presence_state_effect(&ev, conns, sched, pending, peer_addrs, is_target, now) {\r\n        // A CONNECTED peer that is a fan target this round → advertise NOW.\r\n        if let Some(subs) = peer_subnets.get(&ev.remote_id_hex) {\r\n            run_peer_subnets(\r\n                brain,\r\n                ops,\r\n                workers,\r\n                due_flags,\r\n                conns,\r\n                sched,\r\n                ev.conn_id,\r\n                subs,\r\n                &ev.remote_id_hex,\r\n                ctx,\r\n                now,\r\n            )?;\r\n        }\r\n    }\r\n    Ok(())\r\n}\r\n\r\n/// Apply a drained presence event's per-peer STATE effect — pure of the brain, so\r\n/// it is a UNIT fact (correlation by `remote_id_hex`, backoff on fail, reset on\r\n/// connect, disconnect drops the conn). Mutates conns / sched / pending + the seed\r\n/// store; returns `true` iff the peer's due legs should now run (a CONNECTED that\r\n/// is a fan target this round — `is_target`). See [`handle_presence_event`] for\r\n/// the per-kind rationale.\r\n// [impl->REQ-PUMP-PEER-ISOLATION]\r\nfn presence_state_effect(\r\n    ev: &NetPresenceEvent,\r\n    conns: &mut HashMap<String, u64>,\r\n    sched: &mut HashMap<String, PeerSched>,\r\n    pending: &mut HashSet<String>,\r\n    peer_addrs: &std::path::Path,\r\n    is_target: bool,\r\n    now: Instant,\r\n) -> bool {\r\n    match ev.kind.as_str() {\r\n        PRESENCE_CONNECTED => {\r\n            conns.insert(ev.remote_id_hex.clone(), ev.conn_id);\r\n            sched.remove(&ev.remote_id_hex); // live peer → reset backoff\r\n            pending.remove(&ev.remote_id_hex);\r\n            // REQ-CONV-1 write-back: seed the OBSERVED addr from the async connect.\r\n            if !ev.remote_addr.is_null() {\r\n                let _ =\r\n                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\r\n            }\r\n            is_target\r\n        }\r\n        PRESENCE_DIAL_FAILED => {\r\n            eprintln!(\r\n                \"PUMP_PEER_FAIL:{}:{}\",\r\n                ev.remote_id_hex,\r\n                ev.reason.as_deref().unwrap_or(\"dial failed\")\r\n            );\r\n            pending.remove(&ev.remote_id_hex);\r\n            let prev = sched.get(&ev.remote_id_hex).copied();\r\n            sched.insert(ev.remote_id_hex.clone(), next_peer_backoff(prev, now));\r\n            // Stale-seed self-heal (REQ-CONV-1): forget the seed so the next\r\n            // eligible round re-resolves via id-only discovery.\r\n            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\r\n            false\r\n        }\r\n        PRESENCE_DISCONNECTED => {\r\n            // Drop the cached conn — redial-eligible immediately, NO backoff (Q3).\r\n            conns.retain(|_, cid| *cid != ev.conn_id);\r\n            false\r\n        }\r\n        _ => false, // a future presence kind an older pump tolerates\r\n    }\r\n}\r\n\r\n/// Mark every due worker ran (ADR-0018 §V4: a POST-round `now`, ran =\r\n/// ATTEMPTED not succeeded). Non-due slots are untouched, so the stagger holds.\r\nfn mark_ran(last: &mut [Option<Instant>], due_flags: &[bool], now: Instant) {\r\n    for i in 0..last.len() {\r\n        if due_flags[i] {\r\n            last[i] = Some(now);\r\n        }\r\n    }\r\n}\r\n\r\n/// The round's fan-out targets: every `(subnet, peer)` this node pushes to —\r\n/// every member subnet that is NOT detached (REQ-SUBNET-5), crossed with that\r\n/// subnet's full roster minus self (REQ-MESH-3). One owned list so the order\r\n/// and the detached-skip are pure unit facts.\r\n// [impl->REQ-SUBNET-5]\r\nfn fan_targets(ctx: &RoundCtx, self_hex: &str) -> Vec<(String, String)> {\r\n    let mut out = Vec::new();\r\n    for sub in &ctx.subnets.subnets {\r\n        if ctx.attachment.is_detached(&sub.name) {\r\n            continue; // detached: neither advertise into nor connect to\r\n        }\r\n        for peer in push_targets(&ctx.policy.roster, &sub.name, self_hex) {\r\n            out.push((sub.name.clone(), peer));\r\n        }\r\n    }\r\n    out\r\n}\r\n\r\n/// The widened push target (Mesh-D6, REQ-MESH-3): every roster member of\r\n/// `subnet` except this node itself. Tombstoned members are already excluded by\r\n/// [`RosterStore::members_in`]. This is THE fan-out change — the push target is\r\n/// the full roster, not the directly-paired set — kept a pure function so the\r\n/// \"rows reach all members, never relayed\" widen is a unit fact, not just an\r\n/// integration property.\r\n// [impl->REQ-MESH-3]\r\nfn push_targets(\r\n    roster: &spt_store::roster::RosterStore,\r\n    subnet: &str,\r\n    self_hex: &str,\r\n) -> Vec<String> {\r\n    roster\r\n        .members_in(subnet)\r\n        .filter(|m| m.pubkey_hex != self_hex)\r\n        .map(|m| m.pubkey_hex.clone())\r\n        .collect()\r\n}\r\n\r\n/// Resolve the ONE address to submit a non-blocking dial to (M8 decisions 14/20,\r\n/// REQ-CONV-1 seeded order): the durable last-known address (`peer-addrs.json`)\r\n/// FIRST — the cold-start fast path that skips the id-only discovery round-trip —\r\n/// else the injected resolver (production: id-only discovery). A stale seed costs\r\n/// one failed dial and is then dropped (`PeerAddrStore::drop_seed` on the\r\n/// resulting `DIAL_FAILED`) so the next eligible round re-resolves via discovery:\r\n/// a stale addr never strands a peer. The OBSERVED-addr write-back the old\r\n/// blocking dial carried now rides the `PRESENCE_CONNECTED` event\r\n/// ([`handle_presence_event`]). `None` = unresolvable right now — the peer\r\n/// reschedules on its own cadence, never a round failure.\r\n// [impl->REQ-CONV-1]\r\nfn resolve_submit_addr(\r\n    resolver: &PeerResolver,\r\n    peer_hex: &str,\r\n    peer_addrs: &std::path::Path,\r\n) -> Option<serde_json::Value> {\r\n    if let Some(seeded) = PeerAddrStore::load_from(peer_addrs).get(peer_hex).cloned() {\r\n        return Some(seeded); // seeded FIRST (cold-start fast path)\r\n    }\r\n    resolver(peer_hex) // miss → id-only discovery\r\n}\r\n\r\n/// Open a fresh stream on `conn_id`, write one whole feed fire-and-forget,\r\n/// and finish it (the receiver's dispatcher classifies + applies). One\r\n/// stream per feed: streams are single-purpose by the demux contract.\r\nfn push_feed(brain: &mut Brain, conn_id: u64, feed: &[u8]) -> io::Result<()> {\r\n    let opened = brain.net_open_stream(conn_id, None)?;\r\n    brain.net_stream_send(opened.stream_id, feed, None, true)?;\r\n    Ok(())\r\n}\r\n\r\n/// Connect a fresh brain IPC client in PUMP mode (retrying through broker\r\n/// startup): the carrier is split at construction with the per-call deadline\r\n/// armed ([`Brain::cold_start_pump`]), so the pump's reads are bounded from the\r\n/// first tick (REQ-HAZARD-PUMP-IPC-DEADLINE).\r\n// [impl->REQ-HAZARD-PUMP-IPC-DEADLINE]\r\nfn connect(broker_name: &str) -> io::Result<Brain> {\r\n    let mut last = io::Error::other(\"broker never answered\");\r\n    for _ in 0..300 {\r\n        match Brain::cold_start_pump(broker_name, now_ms(), PUMP_PEER_IO_TIMEOUT) {\r\n            Ok(b) => return Ok(b),\r\n            Err(e) => last = e,\r\n        }\r\n        thread::sleep(Duration::from_millis(10));\r\n    }\r\n    Err(last)\r\n}\r\n\r\nfn now_ms() -> u64 {\r\n    std::time::SystemTime::now()\r\n        .duration_since(std::time::UNIX_EPOCH)\r\n        .map(|d| d.as_millis() as u64)\r\n        .unwrap_or(0)\r\n}\r\n\r","startLine":368,"lineNumbers":[368,null,379,380,381,382,383,384,385,386,387,388,389,390,391,392,393,394,395,396,397,398,399,400,401,402,403,404,405,406,407,408,409,410,411,412,413,414,415,416,417,418,419,420,421,422,423,424,425,426,427,428,429,430,431,432,433,434,435,436,437,438,439,440,441,442,443,444,445,446,447,448,449,450,451,452,453,454,455,456,457,458,459,460,461,462,463,464,465,466,467,468,469,470,471,472,473,474,475,476,477,478,479,480,481,482,483,484,485,486,487,488,489,490,491,492,493,494,495,496,497,498,499,500,501,502,503,504,505,506,507,508,509,510,511,512,513,514,515,516,517,518,519,520,521,522,523,524,525,526,527,528,529,530,531,532,533,534,535,536,537,538,539,540,541,542,543,544,545,546,547,548,549,550,551,552,553,554,555,556,557,558,559,560,561,562,563,564,565,566,567,568,569,570,571,572,573,574,575,576,577,578,579,580,581,582,583,584,585,586,587,588,589,590,591,592,593,594,595,596,597,598,599,600,601,602,603,604,605,606,607,608,609,610,611,612,613,614,615,616,617,618,619,620,621,622,623,624,625,626,627,628,629,630,631,632,633,634,635,636,637,638,639,640,641,642,643,644,645,646,647,648,649,650,651,652,653,654,655,656,657,658,659,660,661,662,663,664,665,666,667,668,669,670,671,672,673,674,675,676,677,678,679,680,681,682,683,684,685,686,687,688,689,690,691,692,693,694,695,696,697,698,699,700,701,702,703,704,705,706,707,708,709,710,711,712,713,714,715,716,717,718,719,720,721,722,723,724,725,726,727,728,729,730,731,732,733,734,735,736,737,738,739,740,741,742,743,744,745,746,747,748,749,750,751,752,753,754,755,756,757,758,759,760,761,762,763,764,765,766,767,768,769,770,771,772,773,774,775,776,777,778,779,780,781,782,783,784,785,786,787,788,789,790,791,792,793,794,795,796,797,798,799,800,801,802,803,804,805,806,807,808,809,810,811,812,813,814,815,816,817,818,819,820,821,822,823,824,825,826,827,828,829,830,831,832,833,834,835,836,837,838,839,840,841,842,843,844,845,846,847,848,849,850,851,852,853,854,855,856,857,858,859,860,861,862,863,864,865,866,867,868,869,870,871,872,873,874,875,876,877,878,879,880,881,882,883,884,885,886,887,888,889,890,891,892,893,894,895,896,897,898,899,900,901,902,903,904,905,906,907,908,909,910,911,912,913,914,915,916,917,918,919,920,921,922,923,924,925,926,927,928,929,930,931,932,933,934,935,936,937,938,939,940,941,942,943,944,945,946,947,948,949,950,951,952,953,954,955,956,957,958,959,960,961,962,963,964,965,966,967,968,969,970,971,972,973,974,975,976,977,978,979,980,981,982,983,984,985,986,987,988,989,990,991,992,993]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\pump\\mod.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1717,"totalBytes":28441,"outputLines":615,"outputBytes":28441,"shownRange":{"start":379,"end":993},"nextOffset":994}}},"isError":false,"timestamp":1784069069981}}
{"type":"message","id":"fb46b75e","parentId":"8189e807","timestamp":"2026-07-14T22:44:30.009Z","message":{"role":"toolResult","toolCallId":"call_TR6DZM5BG6cYyil2zJx91QzX|fc_0b084cf0b521ab15016a56bbcda7e881908436792eeba4a142","toolName":"read","content":[{"type":"text","text":"# Changelog\n\nAll notable **user-facing** changes to `spt` — what a person running the CLI\nnotices or does differently. The `## [<version>]` section of each release\nbecomes that release's GitHub Release notes verbatim (see\n`docs/RELEASE-RUNBOOK.md`). This project follows\n[Keep a Changelog](https://keepachangelog.com) and semantic versioning\n(pre-1.0: breaking changes bump the minor).\n\n## [Unreleased]\n\n## [0.31.0] - 2026-07-10\n\nA messaging and identity release: agent-to-agent messages now deliver exactly\nonce with the right sender on them, endpoints you save come back on their own\nafter a daemon restart, and several ways an agent's identity or saved context\ncould be lost are closed.\n\n> **Applying this update needs a daemon restart.** Parts of this release live\n> in the always-on daemon, so `spt update fetch --apply` lands it via a full\n> daemon restart rather than a live swap — your sessions restart as the daemon\n> comes back.\n\n### Added\n\n- `spt endpoint run --save` — make an endpoint a startup default. The daemon\n  relaunches every saved endpoint (as a fresh session) each time it starts, so\n  your always-on endpoints come back by themselves after a restart instead of\n  staying offline until someone re-runs them. Saving the same endpoint again\n  replaces its saved entry; `spt endpoint run` without `--save` leaves your\n  startup defaults alone.\n\n### Fixed\n\n- A message could be delivered twice — once to the agent and once typed into\n  its terminal as stray, never-submitted text. Delivery now takes exactly one\n  path: a session that reads its own messages receives each message there and\n  nowhere else, and when more than one carrier could deliver, exactly one now\n  claims it. Leftover terminal-echo settings from earlier sessions are also\n  cleared when the daemon starts, so they cannot quietly re-open the second\n  path.\n- `spt send` from inside an agent's shell went out as anonymous\n  `cli@<machine>` instead of the agent itself, so replies to it bounced with\n  `NO_PERCH`. Sends from an agent-bound shell are now stamped with the agent's\n  own id (only when that id really holds a bound perch), and replies route\n  back to the sender.\n- Bringing up a listener punished a refused first attempt: the one-time\n  startup seed was consumed even when the bind was refused, so the corrected\n  retry dead-ended with no seed. A refusal now puts the seed back — retrying\n  with corrected flags just works. Error hints also print a command form that\n  actually parses, and `spt listen --session-id` offers a fallback way to bind\n  when no seed is present.\n- A saved context update could silently lose its project-specific part: if it\n  arrived while the agent's project could not yet be resolved, that part was\n  parsed but never filed, and then deleted with the rest of the update. The\n  unfiled part is now preserved and filed as soon as the project resolves —\n  nothing is dropped.\n- A stale or leaked identity value inherited through the environment could let\n  a new session sit down in an agent seat that was not its own. The daemon now\n  scrubs inherited identity variables at startup and refuses seat takeovers\n  from sessions that do not hold the seat.\n- Connection logs blamed the wrong thing: routine dial noise from peers that\n  went offline was reported with the same message as a genuinely stuck\n  connection being cut off. The two cases now log distinctly, and connection\n  log lines carry which session and endpoint were involved, so a real stall is\n  recognizable at a glance instead of drowned in noise.\n\n## [0.30.6] - 2026-07-10\n\nA reliability patch closing the last update-wedge failure mode: a stuck session\nconsumer can no longer freeze the daemon under load.\n\n> **Applying this update needs a daemon restart.** Unlike the recent seamless\n> in-place updates, this fix lives in the always-on daemon, so `spt update fetch\n> --apply` lands it via a full daemon restart rather than a live swap — your\n> sessions restart as the daemon comes back. This is a one-time cost to install\n> the fix.\n\n### Fixed\n\n- Under load, if a session's controller consumer stopped reading (for example a\n  wedged `spt rc --take` that stalled without disconnecting), the daemon could\n  block indefinitely trying to write to it — freezing live terminal sessions with\n  no recovery short of restarting the box. Every write the daemon makes to a\n  session connection is now time-bounded and cancelable: a stuck consumer is cut\n  loose instead of taking the whole daemon down, so your other sessions keep\n  streaming and a fresh `spt rc` resumes cleanly.\n\n## [0.30.5] - 2026-07-09\n\nA reliability patch completing the in-place-update fix: applying an update no longer\nfreezes your live terminal sessions.\n\n### Fixed\n\n- Applying an update in place with `spt update fetch --apply` could still freeze all of\n  your live terminal sessions a few seconds after the swap — they stopped streaming and\n  `spt rc` could no longer attach, so the box had to be restarted to recover. (The\n  previous release narrowed this but did not fully close it.) Resuming across the update\n  no longer floods the daemon's internal channel, so your open sessions keep streaming and\n  `spt rc` keeps working straight through the swap — no freeze, no restart. (Because the\n  fix lives in the incoming version, updating *to* this release is what makes your next\n  in-place update seamless.)\n\n## [0.30.4] - 2026-07-09\n\nA follow-up reliability patch for in-place updates: resumed sessions are no longer\nseized during the update handoff.\n\n### Fixed\n\n- Applying an update in place with `spt update fetch --apply` could freeze or seize\n  control of your live terminal sessions as the daemon restarted — a resumed session\n  could be taken over so that your open session and `spt rc` stopped responding across\n  the swap. Resumed sessions now re-attach as observers instead of taking over the\n  session's controller, so your open sessions and `spt rc` keep working across the\n  brain swap. (Follow-up to the previous release's seamless-swap fix.)\n\n## [0.30.3] - 2026-07-09\n\nA reliability patch for in-place updates, plus two message- and endpoint-delivery\ncorrectness fixes.\n\n### Fixed\n\n- Applying an update in place with `spt update fetch --apply` could freeze every live\n  terminal session for about 30 seconds and then roll the update back instead of\n  completing the swap. The incoming version now drives the running daemon to clear a\n  hard-stopped prior session during the handoff, so the update completes seamlessly with\n  your sessions staying up — no freeze, no rollback. (Because the fix lives in the\n  incoming version's logic, updating *to* this release is what makes your next in-place\n  update seamless.)\n\n- A message sent active-only (`spt send --active-only` / `--deferred`, documented as\n  \"never wakes an idle target\") could still be delivered to a target the instant it went\n  idle. Active-only messages now stay held for the target's active window as documented\n  and no longer leak in on the active-to-idle edge.\n\n- `spt endpoint list --json` could report a locally-hosted endpoint that was actually\n  live as suspended or offline, even while the human-readable listing correctly showed it\n  online — which could cause an adapter to needlessly suspend itself. The JSON listing now\n  reflects the same local liveness truth the interactive view uses. Re-binding an endpoint\n  also no longer discards its pending wake/rest state.\n\n## [0.30.2] - 2026-07-09\n\nA follow-on reliability patch for subnets with several peers.\n\n### Fixed\n\n- On a subnet with several peers, one unreachable or slow-to-connect peer could\n  hold up connectivity to the others — the node contacted peers one at a time, so\n  a peer slow to answer delayed every peer behind it in the round. Peers are now\n  contacted concurrently and each peer's outcome is independent: a reachable peer\n  connects and appears right away even while another peer is still failing, and an\n  unreachable peer backs off on its own without affecting the rest. (Builds on the\n  0.30.1 fix, which stopped a single silent peer from stalling the whole round.)\n\n## [0.30.1] - 2026-07-09\n\nA reliability patch for peer connectivity on subnets with multiple peers.\n\n### Fixed\n\n- Nodes could stop seeing each other on a subnet when a single peer was reachable\n  but unresponsive — connected yet not replying (a peer mid-restart, suspended, or\n  running a version that doesn't answer the periodic update check). That one peer\n  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\n  members but showed an empty live-node list and warned that the peer pump had\n  stalled. An unresponsive peer is now dropped and retried on its own instead of\n  holding up the round, so the node keeps converging and peers reappear.\n\n## [0.30.0] - 2026-07-08\n\nAdds a statically-linked Linux build for hosts with an older system C library.\n\n### Added\n\n- A statically-linked musl Linux artifact (`spt-x86_64-linux-musl`) that runs on\n  Linux hosts whose system C library is too old for the default build (pre-glibc\n  2.39), where that build will not start. On such a host `spt update fetch` now\n  selects and verifies this artifact automatically. The default (glibc) Linux\n  build is unchanged and remains the standard Linux artifact.\n\n## [0.29.1] - 2026-07-08\n\nA reliability patch for message delivery into a live session.\n\n### Fixed\n\n- A long multi-line message delivered into a live session could arrive with its\n  opening lines cut off when the session had been cleared or checkpointed earlier\n  in its run — the message was typed before the freshly-cleared terminal was ready\n  to receive it. Such a message now arrives intact. (The earlier fix in 0.29.0\n  covered only the moment a session first starts; this extends it to every clear\n  during a session's life.)\n\n## [0.29.0] - 2026-07-07\n\nA lifecycle-reliability release: previously-online sessions are re-launched automatically after a daemon restart, an attached terminal no longer freezes behind a slow or suspended session, a long multi-line message typed into a live session arrives intact, and an in-place update finishes in a single command.\n\n### Added\n\n- **`spt update apply --finish` completes an update in one command.** It swaps in the new binary and restarts the daemon onto it; previously-online sessions are then re-launched automatically. `spt update apply` now also works while the daemon is stopped — it swaps in place, and the next `spt daemon start` runs the new version.\n- **The daemon now keeps a log on disk.** Its diagnostics are written to a rotating, size-capped file under the daemon's home directory, so a failure that happens in the background leaves a trace you can read after the fact.\n\n### Changed\n\n- **`spt daemon stop` now protects live sessions.** When hosted sessions are running it lists them and refuses to stop unless you pass `--force` (the sessions come back on the next start), so an accidental stop no longer tears down running agents.\n- **`spt rc` no longer starts a daemon by itself.** It attaches only to an already-running daemon; if the daemon is down it says so and exits instead of silently launching one — the cause of the old \"I had to stop it several times\" behavior. While reconnecting it now shows a live countdown.\n\n### Fixed\n\n- **Hosted sessions are re-launched after a daemon restart.** Previously-online sessions come back automatically once the daemon restarts (including as part of an update) instead of being left offline. The restart still interrupts them — this restores the session, it does not preserve its in-flight work.\n- **An attached terminal no longer freezes behind a stalled session.** If a session's underlying process hangs or is suspended, `spt rc` keeps updating and a stuck connection is dropped automatically so you never lose control; reattaching and taking control (`--take`) keep working. `spt daemon status` reports when such a drop happened.\n- **A long, multi-line message typed into a live agent's terminal arrives complete.** When a message is delivered by typing it into a live session, it is no longer truncated at the front. (Messages drained through the polling channel were never affected.)\n- **`spt endpoint digest --json` no longer repeats rows.** Activity replayed across a session checkpoint is collapsed to a single entry.\n- **Waking an agent starts exactly one session.** Two wake requests arriving at once no longer launch it twice.\n- **A dead owner no longer leaves an agent showing as online.** When the process that owns a listener exits, the listener stops promptly, so the agent shows offline and can be re-bound.\n- **Live agents save their context reliably.** Fixed a case where an agent's automatic context save could fail — silently writing to the wrong place, or repeatedly erroring — when its save directory was left to resolve from the daemon's own working directory; a mis-configured directory now produces a clear one-time warning instead.\n\n## [0.28.0] - 2026-07-06\n\nA join-truth release: joining a subnet now tolerates a skewed or stepped system clock so it finds members it used to silently miss, no longer raises the elevated-permission prompt before a member is actually found, and can show the exact ceremony clock it is using — plus a loud warning when no time server can be reached.\n\n### Added\n\n- **`spt subnet join --verbose` now shows the ceremony clock.** The verbose output prints the joiner's pairing time-step, its clock offset, and whether that clock is NTP-corrected or running uncorrected on the raw system clock — so a skew-related join problem is visible at a glance.\n- **A loud warning when no time server answers.** If every NTP server is unreachable during a join, `spt` prints `NTP_TOTP_UNCORRECTED: all NTP servers unreachable — ceremony clock = raw system clock`, instead of silently proceeding on a possibly-wrong clock.\n\n### Changed\n\n- **Joining no longer raises the elevated-permission prompt before a member is found.** `spt subnet join` now asks for OS elevation only once it has actually located a subnet member, rather than up front — so a join that can't find anyone no longer pops an elevation prompt for nothing. The `--code` path is unchanged.\n\n### Fixed\n\n- **Join now finds members it used to miss when the clock is off.** The pairing ceremony clock is corrected against NTP (and re-steps when the system clock jumps), so a joiner whose machine clock is skewed no longer silently fails to meet a subnet member.\n- **A failed join now reports the joiner's own clock in the failure detail.** The `spt subnet join --verbose` failure block now also carries the joiner's daemon-side ceremony clock (time-step, offset, and corrected/uncorrected state), so a met-then-refused join shows the clock state on both sides instead of leaving the joiner's half unexplained.\n\n## [0.27.0] - 2026-07-06\n\nA worker-truth release: the background \"worker\" endpoints an agent spawns now carry stable minted ids, stay out of your endpoint list and the run picker, get cleaned up when they leak, and inherit their parent's account; and harness adapters are validated more strictly when you add or update them. **Breaking for adapter authors: the worker control verbs changed shape — see Changed.**\n\n### Added\n\n- **Leaked or orphaned worker endpoints are now cleaned up automatically.** A finished worker whose results have been collected is removed immediately; an orphaned worker (parent gone) or one that leaked without a stop signal — even under a live parent — is reaped after a configurable time-to-live (`worker_reap_ttl_secs`, default 24h) instead of lingering as a dead offline row.\n\n### Changed\n…\n\n…\n\n…\nFirst public release of `spt`.\n\n[Showing lines 1-248 of 956. Use :249 to continue]"}],"details":{"truncation":{"content":"# Changelog\r\n\r\nAll notable **user-facing** changes to `spt` — what a person running the CLI\r\nnotices or does differently. The `## [<version>]` section of each release\r\nbecomes that release's GitHub Release notes verbatim (see\r\n`docs/RELEASE-RUNBOOK.md`). This project follows\r\n[Keep a Changelog](https://keepachangelog.com) and semantic versioning\r\n(pre-1.0: breaking changes bump the minor).\r\n\r\n## [Unreleased]\r\n\r\n## [0.31.0] - 2026-07-10\r\n\r\nA messaging and identity release: agent-to-agent messages now deliver exactly\r\nonce with the right sender on them, endpoints you save come back on their own\r\nafter a daemon restart, and several ways an agent's identity or saved context\r\ncould be lost are closed.\r\n\r\n> **Applying this update needs a daemon restart.** Parts of this release live\r\n> in the always-on daemon, so `spt update fetch --apply` lands it via a full\r\n> daemon restart rather than a live swap — your sessions restart as the daemon\r\n> comes back.\r\n\r\n### Added\r\n\r\n- `spt endpoint run --save` — make an endpoint a startup default. The daemon\r\n  relaunches every saved endpoint (as a fresh session) each time it starts, so\r\n  your always-on endpoints come back by themselves after a restart instead of\r\n  staying offline until someone re-runs them. Saving the same endpoint again\r\n  replaces its saved entry; `spt endpoint run` without `--save` leaves your\r\n  startup defaults alone.\r\n\r\n### Fixed\r\n\r\n- A message could be delivered twice — once to the agent and once typed into\r\n  its terminal as stray, never-submitted text. Delivery now takes exactly one\r\n  path: a session that reads its own messages receives each message there and\r\n  nowhere else, and when more than one carrier could deliver, exactly one now\r\n  claims it. Leftover terminal-echo settings from earlier sessions are also\r\n  cleared when the daemon starts, so they cannot quietly re-open the second\r\n  path.\r\n- `spt send` from inside an agent's shell went out as anonymous\r\n  `cli@<machine>` instead of the agent itself, so replies to it bounced with\r\n  `NO_PERCH`. Sends from an agent-bound shell are now stamped with the agent's\r\n  own id (only when that id really holds a bound perch), and replies route\r\n  back to the sender.\r\n- Bringing up a listener punished a refused first attempt: the one-time\r\n  startup seed was consumed even when the bind was refused, so the corrected\r\n  retry dead-ended with no seed. A refusal now puts the seed back — retrying\r\n  with corrected flags just works. Error hints also print a command form that\r\n  actually parses, and `spt listen --session-id` offers a fallback way to bind\r\n  when no seed is present.\r\n- A saved context update could silently lose its project-specific part: if it\r\n  arrived while the agent's project could not yet be resolved, that part was\r\n  parsed but never filed, and then deleted with the rest of the update. The\r\n  unfiled part is now preserved and filed as soon as the project resolves —\r\n  nothing is dropped.\r\n- A stale or leaked identity value inherited through the environment could let\r\n  a new session sit down in an agent seat that was not its own. The daemon now\r\n  scrubs inherited identity variables at startup and refuses seat takeovers\r\n  from sessions that do not hold the seat.\r\n- Connection logs blamed the wrong thing: routine dial noise from peers that\r\n  went offline was reported with the same message as a genuinely stuck\r\n  connection being cut off. The two cases now log distinctly, and connection\r\n  log lines carry which session and endpoint were involved, so a real stall is\r\n  recognizable at a glance instead of drowned in noise.\r\n\r\n## [0.30.6] - 2026-07-10\r\n\r\nA reliability patch closing the last update-wedge failure mode: a stuck session\r\nconsumer can no longer freeze the daemon under load.\r\n\r\n> **Applying this update needs a daemon restart.** Unlike the recent seamless\r\n> in-place updates, this fix lives in the always-on daemon, so `spt update fetch\r\n> --apply` lands it via a full daemon restart rather than a live swap — your\r\n> sessions restart as the daemon comes back. This is a one-time cost to install\r\n> the fix.\r\n\r\n### Fixed\r\n\r\n- Under load, if a session's controller consumer stopped reading (for example a\r\n  wedged `spt rc --take` that stalled without disconnecting), the daemon could\r\n  block indefinitely trying to write to it — freezing live terminal sessions with\r\n  no recovery short of restarting the box. Every write the daemon makes to a\r\n  session connection is now time-bounded and cancelable: a stuck consumer is cut\r\n  loose instead of taking the whole daemon down, so your other sessions keep\r\n  streaming and a fresh `spt rc` resumes cleanly.\r\n\r\n## [0.30.5] - 2026-07-09\r\n\r\nA reliability patch completing the in-place-update fix: applying an update no longer\r\nfreezes your live terminal sessions.\r\n\r\n### Fixed\r\n\r\n- Applying an update in place with `spt update fetch --apply` could still freeze all of\r\n  your live terminal sessions a few seconds after the swap — they stopped streaming and\r\n  `spt rc` could no longer attach, so the box had to be restarted to recover. (The\r\n  previous release narrowed this but did not fully close it.) Resuming across the update\r\n  no longer floods the daemon's internal channel, so your open sessions keep streaming and\r\n  `spt rc` keeps working straight through the swap — no freeze, no restart. (Because the\r\n  fix lives in the incoming version, updating *to* this release is what makes your next\r\n  in-place update seamless.)\r\n\r\n## [0.30.4] - 2026-07-09\r\n\r\nA follow-up reliability patch for in-place updates: resumed sessions are no longer\r\nseized during the update handoff.\r\n\r\n### Fixed\r\n\r\n- Applying an update in place with `spt update fetch --apply` could freeze or seize\r\n  control of your live terminal sessions as the daemon restarted — a resumed session\r\n  could be taken over so that your open session and `spt rc` stopped responding across\r\n  the swap. Resumed sessions now re-attach as observers instead of taking over the\r\n  session's controller, so your open sessions and `spt rc` keep working across the\r\n  brain swap. (Follow-up to the previous release's seamless-swap fix.)\r\n\r\n## [0.30.3] - 2026-07-09\r\n\r\nA reliability patch for in-place updates, plus two message- and endpoint-delivery\r\ncorrectness fixes.\r\n\r\n### Fixed\r\n\r\n- Applying an update in place with `spt update fetch --apply` could freeze every live\r\n  terminal session for about 30 seconds and then roll the update back instead of\r\n  completing the swap. The incoming version now drives the running daemon to clear a\r\n  hard-stopped prior session during the handoff, so the update completes seamlessly with\r\n  your sessions staying up — no freeze, no rollback. (Because the fix lives in the\r\n  incoming version's logic, updating *to* this release is what makes your next in-place\r\n  update seamless.)\r\n\r\n- A message sent active-only (`spt send --active-only` / `--deferred`, documented as\r\n  \"never wakes an idle target\") could still be delivered to a target the instant it went\r\n  idle. Active-only messages now stay held for the target's active window as documented\r\n  and no longer leak in on the active-to-idle edge.\r\n\r\n- `spt endpoint list --json` could report a locally-hosted endpoint that was actually\r\n  live as suspended or offline, even while the human-readable listing correctly showed it\r\n  online — which could cause an adapter to needlessly suspend itself. The JSON listing now\r\n  reflects the same local liveness truth the interactive view uses. Re-binding an endpoint\r\n  also no longer discards its pending wake/rest state.\r\n\r\n## [0.30.2] - 2026-07-09\r\n\r\nA follow-on reliability patch for subnets with several peers.\r\n\r\n### Fixed\r\n\r\n- On a subnet with several peers, one unreachable or slow-to-connect peer could\r\n  hold up connectivity to the others — the node contacted peers one at a time, so\r\n  a peer slow to answer delayed every peer behind it in the round. Peers are now\r\n  contacted concurrently and each peer's outcome is independent: a reachable peer\r\n  connects and appears right away even while another peer is still failing, and an\r\n  unreachable peer backs off on its own without affecting the rest. (Builds on the\r\n  0.30.1 fix, which stopped a single silent peer from stalling the whole round.)\r\n\r\n## [0.30.1] - 2026-07-09\r\n\r\nA reliability patch for peer connectivity on subnets with multiple peers.\r\n\r\n### Fixed\r\n\r\n- Nodes could stop seeing each other on a subnet when a single peer was reachable\r\n  but unresponsive — connected yet not replying (a peer mid-restart, suspended, or\r\n  running a version that doesn't answer the periodic update check). That one peer\r\n  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\r\n  members but showed an empty live-node list and warned that the peer pump had\r\n  stalled. An unresponsive peer is now dropped and retried on its own instead of\r\n  holding up the round, so the node keeps converging and peers reappear.\r\n\r\n## [0.30.0] - 2026-07-08\r\n\r\nAdds a statically-linked Linux build for hosts with an older system C library.\r\n\r\n### Added\r\n\r\n- A statically-linked musl Linux artifact (`spt-x86_64-linux-musl`) that runs on\r\n  Linux hosts whose system C library is too old for the default build (pre-glibc\r\n  2.39), where that build will not start. On such a host `spt update fetch` now\r\n  selects and verifies this artifact automatically. The default (glibc) Linux\r\n  build is unchanged and remains the standard Linux artifact.\r\n\r\n## [0.29.1] - 2026-07-08\r\n\r\nA reliability patch for message delivery into a live session.\r\n\r\n### Fixed\r\n\r\n- A long multi-line message delivered into a live session could arrive with its\r\n  opening lines cut off when the session had been cleared or checkpointed earlier\r\n  in its run — the message was typed before the freshly-cleared terminal was ready\r\n  to receive it. Such a message now arrives intact. (The earlier fix in 0.29.0\r\n  covered only the moment a session first starts; this extends it to every clear\r\n  during a session's life.)\r\n\r\n## [0.29.0] - 2026-07-07\r\n\r\nA lifecycle-reliability release: previously-online sessions are re-launched automatically after a daemon restart, an attached terminal no longer freezes behind a slow or suspended session, a long multi-line message typed into a live session arrives intact, and an in-place update finishes in a single command.\r\n\r\n### Added\r\n\r\n- **`spt update apply --finish` completes an update in one command.** It swaps in the new binary and restarts the daemon onto it; previously-online sessions are then re-launched automatically. `spt update apply` now also works while the daemon is stopped — it swaps in place, and the next `spt daemon start` runs the new version.\r\n- **The daemon now keeps a log on disk.** Its diagnostics are written to a rotating, size-capped file under the daemon's home directory, so a failure that happens in the background leaves a trace you can read after the fact.\r\n\r\n### Changed\r\n\r\n- **`spt daemon stop` now protects live sessions.** When hosted sessions are running it lists them and refuses to stop unless you pass `--force` (the sessions come back on the next start), so an accidental stop no longer tears down running agents.\r\n- **`spt rc` no longer starts a daemon by itself.** It attaches only to an already-running daemon; if the daemon is down it says so and exits instead of silently launching one — the cause of the old \"I had to stop it several times\" behavior. While reconnecting it now shows a live countdown.\r\n\r\n### Fixed\r\n\r\n- **Hosted sessions are re-launched after a daemon restart.** Previously-online sessions come back automatically once the daemon restarts (including as part of an update) instead of being left offline. The restart still interrupts them — this restores the session, it does not preserve its in-flight work.\r\n- **An attached terminal no longer freezes behind a stalled session.** If a session's underlying process hangs or is suspended, `spt rc` keeps updating and a stuck connection is dropped automatically so you never lose control; reattaching and taking control (`--take`) keep working. `spt daemon status` reports when such a drop happened.\r\n- **A long, multi-line message typed into a live agent's terminal arrives complete.** When a message is delivered by typing it into a live session, it is no longer truncated at the front. (Messages drained through the polling channel were never affected.)\r\n- **`spt endpoint digest --json` no longer repeats rows.** Activity replayed across a session checkpoint is collapsed to a single entry.\r\n- **Waking an agent starts exactly one session.** Two wake requests arriving at once no longer launch it twice.\r\n- **A dead owner no longer leaves an agent showing as online.** When the process that owns a listener exits, the listener stops promptly, so the agent shows offline and can be re-bound.\r\n- **Live agents save their context reliably.** Fixed a case where an agent's automatic context save could fail — silently writing to the wrong place, or repeatedly erroring — when its save directory was left to resolve from the daemon's own working directory; a mis-configured directory now produces a clear one-time warning instead.\r\n\r\n## [0.28.0] - 2026-07-06\r\n\r\nA join-truth release: joining a subnet now tolerates a skewed or stepped system clock so it finds members it used to silently miss, no longer raises the elevated-permission prompt before a member is actually found, and can show the exact ceremony clock it is using — plus a loud warning when no time server can be reached.\r\n\r\n### Added\r\n\r\n- **`spt subnet join --verbose` now shows the ceremony clock.** The verbose output prints the joiner's pairing time-step, its clock offset, and whether that clock is NTP-corrected or running uncorrected on the raw system clock — so a skew-related join problem is visible at a glance.\r\n- **A loud warning when no time server answers.** If every NTP server is unreachable during a join, `spt` prints `NTP_TOTP_UNCORRECTED: all NTP servers unreachable — ceremony clock = raw system clock`, instead of silently proceeding on a possibly-wrong clock.\r\n\r\n### Changed\r\n\r\n- **Joining no longer raises the elevated-permission prompt before a member is found.** `spt subnet join` now asks for OS elevation only once it has actually located a subnet member, rather than up front — so a join that can't find anyone no longer pops an elevation prompt for nothing. The `--code` path is unchanged.\r\n\r\n### Fixed\r\n\r\n- **Join now finds members it used to miss when the clock is off.** The pairing ceremony clock is corrected against NTP (and re-steps when the system clock jumps), so a joiner whose machine clock is skewed no longer silently fails to meet a subnet member.\r\n- **A failed join now reports the joiner's own clock in the failure detail.** The `spt subnet join --verbose` failure block now also carries the joiner's daemon-side ceremony clock (time-step, offset, and corrected/uncorrected state), so a met-then-refused join shows the clock state on both sides instead of leaving the joiner's half unexplained.\r\n\r\n## [0.27.0] - 2026-07-06\r\n\r\nA worker-truth release: the background \"worker\" endpoints an agent spawns now carry stable minted ids, stay out of your endpoint list and the run picker, get cleaned up when they leak, and inherit their parent's account; and harness adapters are validated more strictly when you add or update them. **Breaking for adapter authors: the worker control verbs changed shape — see Changed.**\r\n\r\n### Added\r\n\r\n- **Leaked or orphaned worker endpoints are now cleaned up automatically.** A finished worker whose results have been collected is removed immediately; an orphaned worker (parent gone) or one that leaked without a stop signal — even under a live parent — is reaped after a configurable time-to-live (`worker_reap_ttl_secs`, default 24h) instead of lingering as a dead offline row.\r\n\r\n### Changed\r","truncated":true,"truncatedBy":"lines","totalLines":956,"totalBytes":15923,"outputLines":248,"outputBytes":15923,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"# Changelog\r\n\r\nAll notable **user-facing** changes to `spt` — what a person running the CLI\r\nnotices or does differently. The `## [<version>]` section of each release\r\nbecomes that release's GitHub Release notes verbatim (see\r\n`docs/RELEASE-RUNBOOK.md`). This project follows\r\n[Keep a Changelog](https://keepachangelog.com) and semantic versioning\r\n(pre-1.0: breaking changes bump the minor).\r\n\r\n## [Unreleased]\r\n\r\n## [0.31.0] - 2026-07-10\r\n\r\nA messaging and identity release: agent-to-agent messages now deliver exactly\r\nonce with the right sender on them, endpoints you save come back on their own\r\nafter a daemon restart, and several ways an agent's identity or saved context\r\ncould be lost are closed.\r\n\r\n> **Applying this update needs a daemon restart.** Parts of this release live\r\n> in the always-on daemon, so `spt update fetch --apply` lands it via a full\r\n> daemon restart rather than a live swap — your sessions restart as the daemon\r\n> comes back.\r\n\r\n### Added\r\n\r\n- `spt endpoint run --save` — make an endpoint a startup default. The daemon\r\n  relaunches every saved endpoint (as a fresh session) each time it starts, so\r\n  your always-on endpoints come back by themselves after a restart instead of\r\n  staying offline until someone re-runs them. Saving the same endpoint again\r\n  replaces its saved entry; `spt endpoint run` without `--save` leaves your\r\n  startup defaults alone.\r\n\r\n### Fixed\r\n\r\n- A message could be delivered twice — once to the agent and once typed into\r\n  its terminal as stray, never-submitted text. Delivery now takes exactly one\r\n  path: a session that reads its own messages receives each message there and\r\n  nowhere else, and when more than one carrier could deliver, exactly one now\r\n  claims it. Leftover terminal-echo settings from earlier sessions are also\r\n  cleared when the daemon starts, so they cannot quietly re-open the second\r\n  path.\r\n- `spt send` from inside an agent's shell went out as anonymous\r\n  `cli@<machine>` instead of the agent itself, so replies to it bounced with\r\n  `NO_PERCH`. Sends from an agent-bound shell are now stamped with the agent's\r\n  own id (only when that id really holds a bound perch), and replies route\r\n  back to the sender.\r\n- Bringing up a listener punished a refused first attempt: the one-time\r\n  startup seed was consumed even when the bind was refused, so the corrected\r\n  retry dead-ended with no seed. A refusal now puts the seed back — retrying\r\n  with corrected flags just works. Error hints also print a command form that\r\n  actually parses, and `spt listen --session-id` offers a fallback way to bind\r\n  when no seed is present.\r\n- A saved context update could silently lose its project-specific part: if it\r\n  arrived while the agent's project could not yet be resolved, that part was\r\n  parsed but never filed, and then deleted with the rest of the update. The\r\n  unfiled part is now preserved and filed as soon as the project resolves —\r\n  nothing is dropped.\r\n- A stale or leaked identity value inherited through the environment could let\r\n  a new session sit down in an agent seat that was not its own. The daemon now\r\n  scrubs inherited identity variables at startup and refuses seat takeovers\r\n  from sessions that do not hold the seat.\r\n- Connection logs blamed the wrong thing: routine dial noise from peers that\r\n  went offline was reported with the same message as a genuinely stuck\r\n  connection being cut off. The two cases now log distinctly, and connection\r\n  log lines carry which session and endpoint were involved, so a real stall is\r\n  recognizable at a glance instead of drowned in noise.\r\n\r\n## [0.30.6] - 2026-07-10\r\n\r\nA reliability patch closing the last update-wedge failure mode: a stuck session\r\nconsumer can no longer freeze the daemon under load.\r\n\r\n> **Applying this update needs a daemon restart.** Unlike the recent seamless\r\n> in-place updates, this fix lives in the always-on daemon, so `spt update fetch\r\n> --apply` lands it via a full daemon restart rather than a live swap — your\r\n> sessions restart as the daemon comes back. This is a one-time cost to install\r\n> the fix.\r\n\r\n### Fixed\r\n\r\n- Under load, if a session's controller consumer stopped reading (for example a\r\n  wedged `spt rc --take` that stalled without disconnecting), the daemon could\r\n  block indefinitely trying to write to it — freezing live terminal sessions with\r\n  no recovery short of restarting the box. Every write the daemon makes to a\r\n  session connection is now time-bounded and cancelable: a stuck consumer is cut\r\n  loose instead of taking the whole daemon down, so your other sessions keep\r\n  streaming and a fresh `spt rc` resumes cleanly.\r\n\r\n## [0.30.5] - 2026-07-09\r\n\r\nA reliability patch completing the in-place-update fix: applying an update no longer\r\nfreezes your live terminal sessions.\r\n\r\n### Fixed\r\n\r\n- Applying an update in place with `spt update fetch --apply` could still freeze all of\r\n  your live terminal sessions a few seconds after the swap — they stopped streaming and\r\n  `spt rc` could no longer attach, so the box had to be restarted to recover. (The\r\n  previous release narrowed this but did not fully close it.) Resuming across the update\r\n  no longer floods the daemon's internal channel, so your open sessions keep streaming and\r\n  `spt rc` keeps working straight through the swap — no freeze, no restart. (Because the\r\n  fix lives in the incoming version, updating *to* this release is what makes your next\r\n  in-place update seamless.)\r\n\r\n## [0.30.4] - 2026-07-09\r\n\r\nA follow-up reliability patch for in-place updates: resumed sessions are no longer\r\nseized during the update handoff.\r\n\r\n### Fixed\r\n\r\n- Applying an update in place with `spt update fetch --apply` could freeze or seize\r\n  control of your live terminal sessions as the daemon restarted — a resumed session\r\n  could be taken over so that your open session and `spt rc` stopped responding across\r\n  the swap. Resumed sessions now re-attach as observers instead of taking over the\r\n  session's controller, so your open sessions and `spt rc` keep working across the\r\n  brain swap. (Follow-up to the previous release's seamless-swap fix.)\r\n\r\n## [0.30.3] - 2026-07-09\r\n\r\nA reliability patch for in-place updates, plus two message- and endpoint-delivery\r\ncorrectness fixes.\r\n\r\n### Fixed\r\n\r\n- Applying an update in place with `spt update fetch --apply` could freeze every live\r\n  terminal session for about 30 seconds and then roll the update back instead of\r\n  completing the swap. The incoming version now drives the running daemon to clear a\r\n  hard-stopped prior session during the handoff, so the update completes seamlessly with\r\n  your sessions staying up — no freeze, no rollback. (Because the fix lives in the\r\n  incoming version's logic, updating *to* this release is what makes your next in-place\r\n  update seamless.)\r\n\r\n- A message sent active-only (`spt send --active-only` / `--deferred`, documented as\r\n  \"never wakes an idle target\") could still be delivered to a target the instant it went\r\n  idle. Active-only messages now stay held for the target's active window as documented\r\n  and no longer leak in on the active-to-idle edge.\r\n\r\n- `spt endpoint list --json` could report a locally-hosted endpoint that was actually\r\n  live as suspended or offline, even while the human-readable listing correctly showed it\r\n  online — which could cause an adapter to needlessly suspend itself. The JSON listing now\r\n  reflects the same local liveness truth the interactive view uses. Re-binding an endpoint\r\n  also no longer discards its pending wake/rest state.\r\n\r\n## [0.30.2] - 2026-07-09\r\n\r\nA follow-on reliability patch for subnets with several peers.\r\n\r\n### Fixed\r\n\r\n- On a subnet with several peers, one unreachable or slow-to-connect peer could\r\n  hold up connectivity to the others — the node contacted peers one at a time, so\r\n  a peer slow to answer delayed every peer behind it in the round. Peers are now\r\n  contacted concurrently and each peer's outcome is independent: a reachable peer\r\n  connects and appears right away even while another peer is still failing, and an\r\n  unreachable peer backs off on its own without affecting the rest. (Builds on the\r\n  0.30.1 fix, which stopped a single silent peer from stalling the whole round.)\r\n\r\n## [0.30.1] - 2026-07-09\r\n\r\nA reliability patch for peer connectivity on subnets with multiple peers.\r\n\r\n### Fixed\r\n\r\n- Nodes could stop seeing each other on a subnet when a single peer was reachable\r\n  but unresponsive — connected yet not replying (a peer mid-restart, suspended, or\r\n  running a version that doesn't answer the periodic update check). That one peer\r\n  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\r\n  members but showed an empty live-node list and warned that the peer pump had\r\n  stalled. An unresponsive peer is now dropped and retried on its own instead of\r\n  holding up the round, so the node keeps converging and peers reappear.\r\n\r\n## [0.30.0] - 2026-07-08\r\n\r\nAdds a statically-linked Linux build for hosts with an older system C library.\r\n\r\n### Added\r\n\r\n- A statically-linked musl Linux artifact (`spt-x86_64-linux-musl`) that runs on\r\n  Linux hosts whose system C library is too old for the default build (pre-glibc\r\n  2.39), where that build will not start. On such a host `spt update fetch` now\r\n  selects and verifies this artifact automatically. The default (glibc) Linux\r\n  build is unchanged and remains the standard Linux artifact.\r\n\r\n## [0.29.1] - 2026-07-08\r\n\r\nA reliability patch for message delivery into a live session.\r\n\r\n### Fixed\r\n\r\n- A long multi-line message delivered into a live session could arrive with its\r\n  opening lines cut off when the session had been cleared or checkpointed earlier\r\n  in its run — the message was typed before the freshly-cleared terminal was ready\r\n  to receive it. Such a message now arrives intact. (The earlier fix in 0.29.0\r\n  covered only the moment a session first starts; this extends it to every clear\r\n  during a session's life.)\r\n\r\n## [0.29.0] - 2026-07-07\r\n\r\nA lifecycle-reliability release: previously-online sessions are re-launched automatically after a daemon restart, an attached terminal no longer freezes behind a slow or suspended session, a long multi-line message typed into a live session arrives intact, and an in-place update finishes in a single command.\r\n\r\n### Added\r\n\r\n- **`spt update apply --finish` completes an update in one command.** It swaps in the new binary and restarts the daemon onto it; previously-online sessions are then re-launched automatically. `spt update apply` now also works while the daemon is stopped — it swaps in place, and the next `spt daemon start` runs the new version.\r\n- **The daemon now keeps a log on disk.** Its diagnostics are written to a rotating, size-capped file under the daemon's home directory, so a failure that happens in the background leaves a trace you can read after the fact.\r\n\r\n### Changed\r\n\r\n- **`spt daemon stop` now protects live sessions.** When hosted sessions are running it lists them and refuses to stop unless you pass `--force` (the sessions come back on the next start), so an accidental stop no longer tears down running agents.\r\n- **`spt rc` no longer starts a daemon by itself.** It attaches only to an already-running daemon; if the daemon is down it says so and exits instead of silently launching one — the cause of the old \"I had to stop it several times\" behavior. While reconnecting it now shows a live countdown.\r\n\r\n### Fixed\r\n\r\n- **Hosted sessions are re-launched after a daemon restart.** Previously-online sessions come back automatically once the daemon restarts (including as part of an update) instead of being left offline. The restart still interrupts them — this restores the session, it does not preserve its in-flight work.\r\n- **An attached terminal no longer freezes behind a stalled session.** If a session's underlying process hangs or is suspended, `spt rc` keeps updating and a stuck connection is dropped automatically so you never lose control; reattaching and taking control (`--take`) keep working. `spt daemon status` reports when such a drop happened.\r\n- **A long, multi-line message typed into a live agent's terminal arrives complete.** When a message is delivered by typing it into a live session, it is no longer truncated at the front. (Messages drained through the polling channel were never affected.)\r\n- **`spt endpoint digest --json` no longer repeats rows.** Activity replayed across a session checkpoint is collapsed to a single entry.\r\n- **Waking an agent starts exactly one session.** Two wake requests arriving at once no longer launch it twice.\r\n- **A dead owner no longer leaves an agent showing as online.** When the process that owns a listener exits, the listener stops promptly, so the agent shows offline and can be re-bound.\r\n- **Live agents save their context reliably.** Fixed a case where an agent's automatic context save could fail — silently writing to the wrong place, or repeatedly erroring — when its save directory was left to resolve from the daemon's own working directory; a mis-configured directory now produces a clear one-time warning instead.\r\n\r\n## [0.28.0] - 2026-07-06\r\n\r\nA join-truth release: joining a subnet now tolerates a skewed or stepped system clock so it finds members it used to silently miss, no longer raises the elevated-permission prompt before a member is actually found, and can show the exact ceremony clock it is using — plus a loud warning when no time server can be reached.\r\n\r\n### Added\r\n\r\n- **`spt subnet join --verbose` now shows the ceremony clock.** The verbose output prints the joiner's pairing time-step, its clock offset, and whether that clock is NTP-corrected or running uncorrected on the raw system clock — so a skew-related join problem is visible at a glance.\r\n- **A loud warning when no time server answers.** If every NTP server is unreachable during a join, `spt` prints `NTP_TOTP_UNCORRECTED: all NTP servers unreachable — ceremony clock = raw system clock`, instead of silently proceeding on a possibly-wrong clock.\r\n\r\n### Changed\r\n\r\n- **Joining no longer raises the elevated-permission prompt before a member is found.** `spt subnet join` now asks for OS elevation only once it has actually located a subnet member, rather than up front — so a join that can't find anyone no longer pops an elevation prompt for nothing. The `--code` path is unchanged.\r\n\r\n### Fixed\r\n\r\n- **Join now finds members it used to miss when the clock is off.** The pairing ceremony clock is corrected against NTP (and re-steps when the system clock jumps), so a joiner whose machine clock is skewed no longer silently fails to meet a subnet member.\r\n- **A failed join now reports the joiner's own clock in the failure detail.** The `spt subnet join --verbose` failure block now also carries the joiner's daemon-side ceremony clock (time-step, offset, and corrected/uncorrected state), so a met-then-refused join shows the clock state on both sides instead of leaving the joiner's half unexplained.\r\n\r\n## [0.27.0] - 2026-07-06\r\n\r\nA worker-truth release: the background \"worker\" endpoints an agent spawns now carry stable minted ids, stay out of your endpoint list and the run picker, get cleaned up when they leak, and inherit their parent's account; and harness adapters are validated more strictly when you add or update them. **Breaking for adapter authors: the worker control verbs changed shape — see Changed.**\r\n\r\n### Added\r\n\r\n- **Leaked or orphaned worker endpoints are now cleaned up automatically.** A finished worker whose results have been collected is removed immediately; an orphaned worker (parent gone) or one that leaked without a stop signal — even under a live parent — is reaped after a configurable time-to-live (`worker_reap_ttl_secs`, default 24h) instead of lingering as a dead offline row.\r\n\r\n### Changed\r\n…\n\n…\n\n…\nFirst public release of `spt`.","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,null,253,null,258,null,955]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\CHANGELOG.md"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":956,"totalBytes":15923,"outputLines":248,"outputBytes":15923,"shownRange":{"start":1,"end":248},"nextOffset":249}}},"isError":false,"timestamp":1784069070009}}
{"type":"message","id":"dd15ca9d","parentId":"fb46b75e","timestamp":"2026-07-14T22:44:30.160Z","message":{"role":"toolResult","toolCallId":"call_H1oRECCuIIr2DYUjCiswj325|fc_0b084cf0b521ab15016a56bbcda83c8190a58358d5591799a0","toolName":"read","content":[{"type":"text","text":"struct EndpointRowJson {\n…\n    /// gossiped `recent_projects` head. Additive, `skip_serializing_if` keeps the JSON\n    /// byte-identical for a pre-field remote row (N-1 safe).\n    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    project: Option<String>,\n}\n\n/// One LOCAL perch row (a copy of `PerchEntry`).\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct LocalPerchJson {\n    id: String,\n    state: String,\n    address: Option<String>,\n    ready: bool,\n    alive: bool,\n    unbound: bool,\n    /// The endpoint's LATEST project ID (#8, REQ-ENDPOINT-LIST-PROJECT-COL) — the\n    /// #1-history head (sessions.log-derived, owlery-excluded). Additive, skip-if-none.\n    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    project: Option<String>,\n}\n\n/// A perch/endpoint whose advertised type is a worker: process-local machinery\n/// under a parent agent, hidden from the default `endpoint list` (revealed by\n/// `--workers`). A leaked-or-live worker rendering as a standalone OFFLINE\n/// endpoint is the operator-visible symptom this filter removes.\n// [impl->REQ-WORKER-LIST-VISIBILITY]\nconst WORKER_TYPE_TAG: &str = \"worker\";\n\nfn cmd_endpoint_list(\n    subnet: Option<String>,\n    detail: bool,\n    show_all: bool,\n    show_workers: bool,\n    json: bool,\n) -> i32 {\n    use spt_net::net::registry::{resource_projection, Status};\n    use spt_store::visibility::VisibilityStore;\n    // Default view hides worker perches; `--workers` reveals them. Applied at\n    // every source leg — local roster (human + json) AND the gossip projection\n    // (a FLAT leaked worker is top-level, so `list_self_perch_ids` advertises it).\n    // [impl->REQ-WORKER-LIST-VISIBILITY]\n    let keep_local = |state: &str| show_workers || state != WORKER_TYPE_TAG;\n    let keep_remote =\n        |ep_type: &Option<String>| show_workers || ep_type.as_deref() != Some(WORKER_TYPE_TAG);\n\n    let subnets = SubnetStore::load();\n    if let Some(n) = &subnet {\n        if subnets.find(n).is_none() {\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\n            return 2;\n        }\n    }\n\n    // [impl->REQ-CLI-JSON] The machine-readable view: gather the SAME facts the\n    // human path renders (SELF pin from roster, per-subnet endpoints from the\n    // resource projection, LOCAL perches from the roster) into committed DTOs.\n    // The NO_SUCH_SUBNET refusal above already ran, so a bad filter never\n    // reaches here.\n    if json {\n        let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n        let vis = VisibilityStore::load();\n        let self_pin = roster::detect_self_id().map(|self_id| {\n            let entry = roster::enumerate().into_iter().find(|p| p.id == self_id);\n            let info =\n                spt_store::info::read_info(&perch::resolve_perch_path(&self_id, ParentHint::Infer));\n            SelfPinJson {\n                id: self_id,\n                status: entry.as_ref().map(|p| p.state.clone()),\n                ready: entry.as_ref().map(|p| p.ready),\n                alive: entry.as_ref().map(|p| p.alive),\n                unbound: entry.as_ref().map(|p| p.unbound).unwrap_or(false),\n                description: info.as_ref().and_then(|rec| rec.resources.clone()),\n                psyche_host_error: info\n                    .as_ref()\n                    .and_then(|rec| rec.psyche_host_error.as_ref())\n                    .map(|e| {\n                        format!(\n                            \"{} ({} attempt{}; {})\",\n                            e.reason,\n                            e.attempts,\n                            if e.attempts == 1 { \"\" } else { \"s\" },\n                            e.ts,\n                        )\n                    }),\n                translation_fault: info.as_ref().and_then(|rec| rec.translation_fault.clone()),\n            }\n        });\n        let names: Vec<String> = match &subnet {\n            Some(one) => vec![one.clone()],\n            None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\n        };\n        // [impl->REQ-LIST-JSON-LIVENESS-PARITY] Reader parity: the `--json` subnet\n        // projection is the persisted WAN snapshot (a lagged gossip), which can\n        // paint a SELF-OWNED endpoint stale — e.g. a pid-alive status-absent\n        // gateway as Suspended — while the human `endpoint list` / picker path\n        // reconciles it to LOCAL perch truth (`reconcile_self_owned`,\n        // picker/data.rs). Apply the SAME self-owned reconcile HERE (the same\n        // spt/picker consumer layer, no spt-net→perch coupling) so a locally-hosted\n        // endpoint reads identically on `--json` and the human surface. Local truth\n        // mirrors the picker's `local_rows`: ONLINE (Active) when alive OR unbound\n        // (the roster wins over the lagged snapshot), else Offline.\n        let all_local = roster::enumerate();\n        let local_status: std::collections::HashMap<String, Status> = all_local\n            .iter()\n            .map(|p| {\n                let s = if p.alive || p.unbound {\n                    Status::Active\n                } else {\n                    Status::Offline\n                };\n                (p.id.clone(), s)\n            })\n            .collect();\n        let mut subnet_groups: Vec<SubnetGroupJson> = Vec::new();\n        for name in names {\n            let Some(reg) = regs.get(&name) else {\n                subnet_groups.push(SubnetGroupJson {\n                    name,\n                    endpoints: Vec::new(),\n                });\n                continue;\n            };\n            let hide_new = subnets\n                .find(&name)\n                .map(|s| s.hide_new_endpoints)\n                .unwrap_or(false);\n            let rows = resource_projection(reg, |id| vis.hidden(id, &name, hide_new));\n            let endpoints = rows\n                .iter()\n                .filter(|r| keep_remote(&r.endpoint_type))\n                .map(|r| EndpointRowJson {\n                    id: r.endpoint_id.clone(),\n                    node: r.node.clone(),\n                    node_label: r.node_label.clone(),\n                    // Self-owned reconcile (REQ-LIST-JSON-LIVENESS-PARITY): the\n                    // LOCAL perch truth wins over the lagged snapshot for an\n                    // endpoint THIS node hosts (id in the local roster), matching\n                    // the human/picker surface; else the gossiped projection status.\n                    status: format!(\n                        \"{:?}\",\n                        local_status\n                            .get(r.endpoint_id.as_str())\n                            .copied()\n                            .unwrap_or(r.status)\n                    ),\n                    resources: r.resources.clone(),\n                    // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] additive type field.\n                    endpoint_type: r.endpoint_type.clone(),\n                    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL] additive project field:\n                    // the gossiped recent_projects head (IDs only).\n                    project: r.recent_projects.first().cloned(),\n                })\n                .collect();\n            subnet_groups.push(SubnetGroupJson { name, endpoints });\n        }\n        let local = all_local\n            .into_iter()\n            .filter(|p| keep_local(&p.state))\n            .map(|p| {\n                // #8: the LATEST project ID (sessions.log history head) for the local\n                // perch — the same source the human column uses.\n                // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\n                let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\n                let rec = spt_store::info::read_info(&perch_path);\n                let project = crate::picker::data::latest_project_ref(\n                    &p.id,\n                    &perch_path,\n                    rec.as_ref().and_then(|r| r.cwd.as_deref()),\n                )\n                .map(|pr| pr.id);\n                LocalPerchJson {\n                    id: p.id,\n                    state: p.state,\n                    address: p.address,\n                    ready: p.ready,\n                    alive: p.alive,\n                    unbound: p.unbound,\n                    project,\n                }\n            })\n            .collect();\n        return print_json(&EndpointListJson {\n            self_pin,\n            subnets: subnet_groups,\n            local,\n        });\n    }\n\n    // SELF pin (decision 2): the session's own endpoint renders first and\n    // distinctly, whatever subnet groups follow. `spt whoami` is a thin alias for\n    // this command (REQ-WHOAMI-1), so the SELF pin additionally carries the Self\n    // endpoint's authored description — the \"who am I\" answer.\n    // The canonical `LABEL (keyprefix…)` for THIS node — reused by the SELF-pin\n    // `(self @ <node>)` marker and the \"This node:\" group header below.\n    // [impl->REQ-ENDPOINT-LIST-NODE-IDENT]\n    let self_node_ident = node_ident_display();\n    if let Some(self_id) = roster::detect_self_id() {\n        let state = roster::enumerate()\n            .into_iter()\n            .find(|p| p.id == self_id)\n            .map(|p| {\n                // UNBOUND surfaces here too (REQ-ENDPOINT-UNBOUND-ATTACH): the Self\n                // pin must not read a live pre-bind session as plain alive=false.\n                let unbound = if p.unbound { \"  UNBOUND\" } else { \"\" };\n                format!(\"{}  ready={} alive={}{}\", p.state, p.ready, p.alive, unbound)\n            })\n            .unwrap_or_else(|| \"(no local perch)\".to_string());\n        let info = spt_store::info::read_info(&perch::resolve_perch_path(&self_id, ParentHint::Infer));\n        let desc = info.as_ref().and_then(|rec| rec.resources.clone());\n        // The harness-reachable psyche-host-failure annotation (v0.8.1,\n        // REQ-HAZARD-LIVEHOST-BOOT-RACE): an online live agent whose Psyche failed\n        // to host shows status authoritatively AND this extra line, surfacing the\n        // boot-race that was otherwise silent on the brain's stderr.\n        // [impl->REQ-HAZARD-LIVEHOST-BOOT-RACE]\n        let phe = info.as_ref().and_then(|rec| rec.psyche_host_error.clone());\n        // The input-translation fault annotation (F-1, REQ-PUBLIC-ERROR-SURFACES).\n        let tf = info.as_ref().and_then(|rec| rec.translation_fault.clone());\n        // The pin carries a `(self @ <node>)` marker naming THIS node — the\n        // node-grouped view pins SELF first and names its home node inline\n        // (REQ-ENDPOINT-LIST-NODE-GROUPED).\n        println!(\n            \"{}\",\n            render_self_pin(\n                &self_id,\n                &state,\n                desc.as_deref(),\n                Some(self_node_ident.as_str()),\n                phe.as_ref(),\n                tf.as_deref(),\n            )\n        );\n    }\n\n    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n    let vis = VisibilityStore::load();\n    let names: Vec<String> = match subnet {\n        Some(one) => vec![one],\n        None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\n    };\n\n    // This node's own instance rows come from the LOCAL ROSTER (status truth),\n    // NOT gossip (REQ-ENDPOINT-LIST-NODE-GROUPED / REQ-ENDPOINT-LIST-MERGE-LOCAL):\n    // a just-bound perch lags the WAN snapshot by a pump cadence, so the roster is\n    // the authoritative view of what THIS node hosts. Each row derives the SAME\n    // EpDisplay vocabulary a picker row would (advertised-status), its type read\n    // from info.json. [impl->REQ-ENDPOINT-LIST-MERGE-LOCAL]\n    let this_cells: Vec<InstanceCell> = roster::enumerate()\n        .into_iter()\n        .filter(|p| keep_local(&p.state))\n        .map(|p| {\n            let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\n            let rec = spt_store::info::read_info(&perch_path);\n            // #8: the LATEST project (sessions.log history head, owlery-excluded) —\n            // derived here where the perch path + info.cwd are in hand, then passed in\n            // (this_node_cell stays pure over its inputs).\n            // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\n            let project_ref = crate::picker::data::latest_project_ref(\n                &p.id,\n                &perch_path,\n                rec.as_ref().and_then(|r| r.cwd.as_deref()),\n            );\n            this_node_cell(&p, rec.as_ref(), project_ref)\n        })\n        .collect();\n\n    // Remote instances come from the WAN registry projection, one (id, node) row\n    // per subnet; group_remote_nodes collapses the subnet duplication (freshest\n    // epoch wins a cross-subnet status disagreement) and unions the subnet names\n    // per node. This node's OWN gossip rows are discarded — the roster above is\n    // its status truth. [impl->REQ-ENDPOINT-LIST-NODE-GROUPED]\n    let self_node_hex = spt_store::nodeid::load_or_create()\n        .ok()\n        .map(|i| i.public_key().to_hex())\n        .unwrap_or_default();\n    let mut tagged: Vec<(String, spt_net::net::registry::ResourceRow)> = Vec::new();\n    for name in &names {\n        let Some(reg) = regs.get(name) else {\n            continue;\n        };\n        let hide_new = subnets\n            .find(name)\n            .map(|s| s.hide_new_endpoints)\n            .unwrap_or(false);\n        for row in resource_projection(reg, |id| vis.hidden(id, name, hide_new)) {\n            if keep_remote(&row.endpoint_type) {\n                tagged.push((name.clone(), row));\n            }\n        }\n    }\n    let remote = group_remote_nodes(&self_node_hex, tagged);\n\n    // The stderr `ENDPOINTS:<n>` line and the grand total are REMOVED\n    // (REQ-ENDPOINT-LIST-NODE-GROUPED): each node group carries its own `Total:`.\n    print!(\n        \"{}\",\n        render_node_grouped(\n            &self_node_ident,\n            &names,\n            &this_cells,\n            &remote,\n            detail,\n            show_all,\n            crate::helpfmt::stdout_color(),\n        )\n    );\n    0\n}\n\n/// One instance row rendered under a node group in `endpoint list`: the\n/// `(id, endpoint_type, EpDisplay, resources)` cell a single `(id, node)`\n/// instance contributes. The node itself is the group header (node-grouped view,\n/// REQ-ENDPOINT-LIST-NODE-GROUPED), so the row carries no node column — the\n\n[Showing lines 2779-3093 of 17537. Use :3094 to continue]"}],"details":{"truncation":{"content":"    /// gossiped `recent_projects` head. Additive, `skip_serializing_if` keeps the JSON\r\n    /// byte-identical for a pre-field remote row (N-1 safe).\r\n    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    project: Option<String>,\r\n}\r\n\r\n/// One LOCAL perch row (a copy of `PerchEntry`).\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct LocalPerchJson {\r\n    id: String,\r\n    state: String,\r\n    address: Option<String>,\r\n    ready: bool,\r\n    alive: bool,\r\n    unbound: bool,\r\n    /// The endpoint's LATEST project ID (#8, REQ-ENDPOINT-LIST-PROJECT-COL) — the\r\n    /// #1-history head (sessions.log-derived, owlery-excluded). Additive, skip-if-none.\r\n    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    project: Option<String>,\r\n}\r\n\r\n/// A perch/endpoint whose advertised type is a worker: process-local machinery\r\n/// under a parent agent, hidden from the default `endpoint list` (revealed by\r\n/// `--workers`). A leaked-or-live worker rendering as a standalone OFFLINE\r\n/// endpoint is the operator-visible symptom this filter removes.\r\n// [impl->REQ-WORKER-LIST-VISIBILITY]\r\nconst WORKER_TYPE_TAG: &str = \"worker\";\r\n\r\nfn cmd_endpoint_list(\r\n    subnet: Option<String>,\r\n    detail: bool,\r\n    show_all: bool,\r\n    show_workers: bool,\r\n    json: bool,\r\n) -> i32 {\r\n    use spt_net::net::registry::{resource_projection, Status};\r\n    use spt_store::visibility::VisibilityStore;\r\n    // Default view hides worker perches; `--workers` reveals them. Applied at\r\n    // every source leg — local roster (human + json) AND the gossip projection\r\n    // (a FLAT leaked worker is top-level, so `list_self_perch_ids` advertises it).\r\n    // [impl->REQ-WORKER-LIST-VISIBILITY]\r\n    let keep_local = |state: &str| show_workers || state != WORKER_TYPE_TAG;\r\n    let keep_remote =\r\n        |ep_type: &Option<String>| show_workers || ep_type.as_deref() != Some(WORKER_TYPE_TAG);\r\n\r\n    let subnets = SubnetStore::load();\r\n    if let Some(n) = &subnet {\r\n        if subnets.find(n).is_none() {\r\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\r\n            return 2;\r\n        }\r\n    }\r\n\r\n    // [impl->REQ-CLI-JSON] The machine-readable view: gather the SAME facts the\r\n    // human path renders (SELF pin from roster, per-subnet endpoints from the\r\n    // resource projection, LOCAL perches from the roster) into committed DTOs.\r\n    // The NO_SUCH_SUBNET refusal above already ran, so a bad filter never\r\n    // reaches here.\r\n    if json {\r\n        let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n        let vis = VisibilityStore::load();\r\n        let self_pin = roster::detect_self_id().map(|self_id| {\r\n            let entry = roster::enumerate().into_iter().find(|p| p.id == self_id);\r\n            let info =\r\n                spt_store::info::read_info(&perch::resolve_perch_path(&self_id, ParentHint::Infer));\r\n            SelfPinJson {\r\n                id: self_id,\r\n                status: entry.as_ref().map(|p| p.state.clone()),\r\n                ready: entry.as_ref().map(|p| p.ready),\r\n                alive: entry.as_ref().map(|p| p.alive),\r\n                unbound: entry.as_ref().map(|p| p.unbound).unwrap_or(false),\r\n                description: info.as_ref().and_then(|rec| rec.resources.clone()),\r\n                psyche_host_error: info\r\n                    .as_ref()\r\n                    .and_then(|rec| rec.psyche_host_error.as_ref())\r\n                    .map(|e| {\r\n                        format!(\r\n                            \"{} ({} attempt{}; {})\",\r\n                            e.reason,\r\n                            e.attempts,\r\n                            if e.attempts == 1 { \"\" } else { \"s\" },\r\n                            e.ts,\r\n                        )\r\n                    }),\r\n                translation_fault: info.as_ref().and_then(|rec| rec.translation_fault.clone()),\r\n            }\r\n        });\r\n        let names: Vec<String> = match &subnet {\r\n            Some(one) => vec![one.clone()],\r\n            None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\r\n        };\r\n        // [impl->REQ-LIST-JSON-LIVENESS-PARITY] Reader parity: the `--json` subnet\r\n        // projection is the persisted WAN snapshot (a lagged gossip), which can\r\n        // paint a SELF-OWNED endpoint stale — e.g. a pid-alive status-absent\r\n        // gateway as Suspended — while the human `endpoint list` / picker path\r\n        // reconciles it to LOCAL perch truth (`reconcile_self_owned`,\r\n        // picker/data.rs). Apply the SAME self-owned reconcile HERE (the same\r\n        // spt/picker consumer layer, no spt-net→perch coupling) so a locally-hosted\r\n        // endpoint reads identically on `--json` and the human surface. Local truth\r\n        // mirrors the picker's `local_rows`: ONLINE (Active) when alive OR unbound\r\n        // (the roster wins over the lagged snapshot), else Offline.\r\n        let all_local = roster::enumerate();\r\n        let local_status: std::collections::HashMap<String, Status> = all_local\r\n            .iter()\r\n            .map(|p| {\r\n                let s = if p.alive || p.unbound {\r\n                    Status::Active\r\n                } else {\r\n                    Status::Offline\r\n                };\r\n                (p.id.clone(), s)\r\n            })\r\n            .collect();\r\n        let mut subnet_groups: Vec<SubnetGroupJson> = Vec::new();\r\n        for name in names {\r\n            let Some(reg) = regs.get(&name) else {\r\n                subnet_groups.push(SubnetGroupJson {\r\n                    name,\r\n                    endpoints: Vec::new(),\r\n                });\r\n                continue;\r\n            };\r\n            let hide_new = subnets\r\n                .find(&name)\r\n                .map(|s| s.hide_new_endpoints)\r\n                .unwrap_or(false);\r\n            let rows = resource_projection(reg, |id| vis.hidden(id, &name, hide_new));\r\n            let endpoints = rows\r\n                .iter()\r\n                .filter(|r| keep_remote(&r.endpoint_type))\r\n                .map(|r| EndpointRowJson {\r\n                    id: r.endpoint_id.clone(),\r\n                    node: r.node.clone(),\r\n                    node_label: r.node_label.clone(),\r\n                    // Self-owned reconcile (REQ-LIST-JSON-LIVENESS-PARITY): the\r\n                    // LOCAL perch truth wins over the lagged snapshot for an\r\n                    // endpoint THIS node hosts (id in the local roster), matching\r\n                    // the human/picker surface; else the gossiped projection status.\r\n                    status: format!(\r\n                        \"{:?}\",\r\n                        local_status\r\n                            .get(r.endpoint_id.as_str())\r\n                            .copied()\r\n                            .unwrap_or(r.status)\r\n                    ),\r\n                    resources: r.resources.clone(),\r\n                    // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] additive type field.\r\n                    endpoint_type: r.endpoint_type.clone(),\r\n                    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL] additive project field:\r\n                    // the gossiped recent_projects head (IDs only).\r\n                    project: r.recent_projects.first().cloned(),\r\n                })\r\n                .collect();\r\n            subnet_groups.push(SubnetGroupJson { name, endpoints });\r\n        }\r\n        let local = all_local\r\n            .into_iter()\r\n            .filter(|p| keep_local(&p.state))\r\n            .map(|p| {\r\n                // #8: the LATEST project ID (sessions.log history head) for the local\r\n                // perch — the same source the human column uses.\r\n                // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n                let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\r\n                let rec = spt_store::info::read_info(&perch_path);\r\n                let project = crate::picker::data::latest_project_ref(\r\n                    &p.id,\r\n                    &perch_path,\r\n                    rec.as_ref().and_then(|r| r.cwd.as_deref()),\r\n                )\r\n                .map(|pr| pr.id);\r\n                LocalPerchJson {\r\n                    id: p.id,\r\n                    state: p.state,\r\n                    address: p.address,\r\n                    ready: p.ready,\r\n                    alive: p.alive,\r\n                    unbound: p.unbound,\r\n                    project,\r\n                }\r\n            })\r\n            .collect();\r\n        return print_json(&EndpointListJson {\r\n            self_pin,\r\n            subnets: subnet_groups,\r\n            local,\r\n        });\r\n    }\r\n\r\n    // SELF pin (decision 2): the session's own endpoint renders first and\r\n    // distinctly, whatever subnet groups follow. `spt whoami` is a thin alias for\r\n    // this command (REQ-WHOAMI-1), so the SELF pin additionally carries the Self\r\n    // endpoint's authored description — the \"who am I\" answer.\r\n    // The canonical `LABEL (keyprefix…)` for THIS node — reused by the SELF-pin\r\n    // `(self @ <node>)` marker and the \"This node:\" group header below.\r\n    // [impl->REQ-ENDPOINT-LIST-NODE-IDENT]\r\n    let self_node_ident = node_ident_display();\r\n    if let Some(self_id) = roster::detect_self_id() {\r\n        let state = roster::enumerate()\r\n            .into_iter()\r\n            .find(|p| p.id == self_id)\r\n            .map(|p| {\r\n                // UNBOUND surfaces here too (REQ-ENDPOINT-UNBOUND-ATTACH): the Self\r\n                // pin must not read a live pre-bind session as plain alive=false.\r\n                let unbound = if p.unbound { \"  UNBOUND\" } else { \"\" };\r\n                format!(\"{}  ready={} alive={}{}\", p.state, p.ready, p.alive, unbound)\r\n            })\r\n            .unwrap_or_else(|| \"(no local perch)\".to_string());\r\n        let info = spt_store::info::read_info(&perch::resolve_perch_path(&self_id, ParentHint::Infer));\r\n        let desc = info.as_ref().and_then(|rec| rec.resources.clone());\r\n        // The harness-reachable psyche-host-failure annotation (v0.8.1,\r\n        // REQ-HAZARD-LIVEHOST-BOOT-RACE): an online live agent whose Psyche failed\r\n        // to host shows status authoritatively AND this extra line, surfacing the\r\n        // boot-race that was otherwise silent on the brain's stderr.\r\n        // [impl->REQ-HAZARD-LIVEHOST-BOOT-RACE]\r\n        let phe = info.as_ref().and_then(|rec| rec.psyche_host_error.clone());\r\n        // The input-translation fault annotation (F-1, REQ-PUBLIC-ERROR-SURFACES).\r\n        let tf = info.as_ref().and_then(|rec| rec.translation_fault.clone());\r\n        // The pin carries a `(self @ <node>)` marker naming THIS node — the\r\n        // node-grouped view pins SELF first and names its home node inline\r\n        // (REQ-ENDPOINT-LIST-NODE-GROUPED).\r\n        println!(\r\n            \"{}\",\r\n            render_self_pin(\r\n                &self_id,\r\n                &state,\r\n                desc.as_deref(),\r\n                Some(self_node_ident.as_str()),\r\n                phe.as_ref(),\r\n                tf.as_deref(),\r\n            )\r\n        );\r\n    }\r\n\r\n    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n    let vis = VisibilityStore::load();\r\n    let names: Vec<String> = match subnet {\r\n        Some(one) => vec![one],\r\n        None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\r\n    };\r\n\r\n    // This node's own instance rows come from the LOCAL ROSTER (status truth),\r\n    // NOT gossip (REQ-ENDPOINT-LIST-NODE-GROUPED / REQ-ENDPOINT-LIST-MERGE-LOCAL):\r\n    // a just-bound perch lags the WAN snapshot by a pump cadence, so the roster is\r\n    // the authoritative view of what THIS node hosts. Each row derives the SAME\r\n    // EpDisplay vocabulary a picker row would (advertised-status), its type read\r\n    // from info.json. [impl->REQ-ENDPOINT-LIST-MERGE-LOCAL]\r\n    let this_cells: Vec<InstanceCell> = roster::enumerate()\r\n        .into_iter()\r\n        .filter(|p| keep_local(&p.state))\r\n        .map(|p| {\r\n            let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\r\n            let rec = spt_store::info::read_info(&perch_path);\r\n            // #8: the LATEST project (sessions.log history head, owlery-excluded) —\r\n            // derived here where the perch path + info.cwd are in hand, then passed in\r\n            // (this_node_cell stays pure over its inputs).\r\n            // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n            let project_ref = crate::picker::data::latest_project_ref(\r\n                &p.id,\r\n                &perch_path,\r\n                rec.as_ref().and_then(|r| r.cwd.as_deref()),\r\n            );\r\n            this_node_cell(&p, rec.as_ref(), project_ref)\r\n        })\r\n        .collect();\r\n\r\n    // Remote instances come from the WAN registry projection, one (id, node) row\r\n    // per subnet; group_remote_nodes collapses the subnet duplication (freshest\r\n    // epoch wins a cross-subnet status disagreement) and unions the subnet names\r\n    // per node. This node's OWN gossip rows are discarded — the roster above is\r\n    // its status truth. [impl->REQ-ENDPOINT-LIST-NODE-GROUPED]\r\n    let self_node_hex = spt_store::nodeid::load_or_create()\r\n        .ok()\r\n        .map(|i| i.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    let mut tagged: Vec<(String, spt_net::net::registry::ResourceRow)> = Vec::new();\r\n    for name in &names {\r\n        let Some(reg) = regs.get(name) else {\r\n            continue;\r\n        };\r\n        let hide_new = subnets\r\n            .find(name)\r\n            .map(|s| s.hide_new_endpoints)\r\n            .unwrap_or(false);\r\n        for row in resource_projection(reg, |id| vis.hidden(id, name, hide_new)) {\r\n            if keep_remote(&row.endpoint_type) {\r\n                tagged.push((name.clone(), row));\r\n            }\r\n        }\r\n    }\r\n    let remote = group_remote_nodes(&self_node_hex, tagged);\r\n\r\n    // The stderr `ENDPOINTS:<n>` line and the grand total are REMOVED\r\n    // (REQ-ENDPOINT-LIST-NODE-GROUPED): each node group carries its own `Total:`.\r\n    print!(\r\n        \"{}\",\r\n        render_node_grouped(\r\n            &self_node_ident,\r\n            &names,\r\n            &this_cells,\r\n            &remote,\r\n            detail,\r\n            show_all,\r\n            crate::helpfmt::stdout_color(),\r\n        )\r\n    );\r\n    0\r\n}\r\n\r\n/// One instance row rendered under a node group in `endpoint list`: the\r\n/// `(id, endpoint_type, EpDisplay, resources)` cell a single `(id, node)`\r\n/// instance contributes. The node itself is the group header (node-grouped view,\r\n/// REQ-ENDPOINT-LIST-NODE-GROUPED), so the row carries no node column — the\r","truncated":true,"truncatedBy":"lines","totalLines":14759,"totalBytes":14716,"outputLines":315,"outputBytes":14716,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"struct EndpointRowJson {\n…\n    /// gossiped `recent_projects` head. Additive, `skip_serializing_if` keeps the JSON\r\n    /// byte-identical for a pre-field remote row (N-1 safe).\r\n    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    project: Option<String>,\r\n}\r\n\r\n/// One LOCAL perch row (a copy of `PerchEntry`).\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct LocalPerchJson {\r\n    id: String,\r\n    state: String,\r\n    address: Option<String>,\r\n    ready: bool,\r\n    alive: bool,\r\n    unbound: bool,\r\n    /// The endpoint's LATEST project ID (#8, REQ-ENDPOINT-LIST-PROJECT-COL) — the\r\n    /// #1-history head (sessions.log-derived, owlery-excluded). Additive, skip-if-none.\r\n    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    project: Option<String>,\r\n}\r\n\r\n/// A perch/endpoint whose advertised type is a worker: process-local machinery\r\n/// under a parent agent, hidden from the default `endpoint list` (revealed by\r\n/// `--workers`). A leaked-or-live worker rendering as a standalone OFFLINE\r\n/// endpoint is the operator-visible symptom this filter removes.\r\n// [impl->REQ-WORKER-LIST-VISIBILITY]\r\nconst WORKER_TYPE_TAG: &str = \"worker\";\r\n\r\nfn cmd_endpoint_list(\r\n    subnet: Option<String>,\r\n    detail: bool,\r\n    show_all: bool,\r\n    show_workers: bool,\r\n    json: bool,\r\n) -> i32 {\r\n    use spt_net::net::registry::{resource_projection, Status};\r\n    use spt_store::visibility::VisibilityStore;\r\n    // Default view hides worker perches; `--workers` reveals them. Applied at\r\n    // every source leg — local roster (human + json) AND the gossip projection\r\n    // (a FLAT leaked worker is top-level, so `list_self_perch_ids` advertises it).\r\n    // [impl->REQ-WORKER-LIST-VISIBILITY]\r\n    let keep_local = |state: &str| show_workers || state != WORKER_TYPE_TAG;\r\n    let keep_remote =\r\n        |ep_type: &Option<String>| show_workers || ep_type.as_deref() != Some(WORKER_TYPE_TAG);\r\n\r\n    let subnets = SubnetStore::load();\r\n    if let Some(n) = &subnet {\r\n        if subnets.find(n).is_none() {\r\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\r\n            return 2;\r\n        }\r\n    }\r\n\r\n    // [impl->REQ-CLI-JSON] The machine-readable view: gather the SAME facts the\r\n    // human path renders (SELF pin from roster, per-subnet endpoints from the\r\n    // resource projection, LOCAL perches from the roster) into committed DTOs.\r\n    // The NO_SUCH_SUBNET refusal above already ran, so a bad filter never\r\n    // reaches here.\r\n    if json {\r\n        let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n        let vis = VisibilityStore::load();\r\n        let self_pin = roster::detect_self_id().map(|self_id| {\r\n            let entry = roster::enumerate().into_iter().find(|p| p.id == self_id);\r\n            let info =\r\n                spt_store::info::read_info(&perch::resolve_perch_path(&self_id, ParentHint::Infer));\r\n            SelfPinJson {\r\n                id: self_id,\r\n                status: entry.as_ref().map(|p| p.state.clone()),\r\n                ready: entry.as_ref().map(|p| p.ready),\r\n                alive: entry.as_ref().map(|p| p.alive),\r\n                unbound: entry.as_ref().map(|p| p.unbound).unwrap_or(false),\r\n                description: info.as_ref().and_then(|rec| rec.resources.clone()),\r\n                psyche_host_error: info\r\n                    .as_ref()\r\n                    .and_then(|rec| rec.psyche_host_error.as_ref())\r\n                    .map(|e| {\r\n                        format!(\r\n                            \"{} ({} attempt{}; {})\",\r\n                            e.reason,\r\n                            e.attempts,\r\n                            if e.attempts == 1 { \"\" } else { \"s\" },\r\n                            e.ts,\r\n                        )\r\n                    }),\r\n                translation_fault: info.as_ref().and_then(|rec| rec.translation_fault.clone()),\r\n            }\r\n        });\r\n        let names: Vec<String> = match &subnet {\r\n            Some(one) => vec![one.clone()],\r\n            None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\r\n        };\r\n        // [impl->REQ-LIST-JSON-LIVENESS-PARITY] Reader parity: the `--json` subnet\r\n        // projection is the persisted WAN snapshot (a lagged gossip), which can\r\n        // paint a SELF-OWNED endpoint stale — e.g. a pid-alive status-absent\r\n        // gateway as Suspended — while the human `endpoint list` / picker path\r\n        // reconciles it to LOCAL perch truth (`reconcile_self_owned`,\r\n        // picker/data.rs). Apply the SAME self-owned reconcile HERE (the same\r\n        // spt/picker consumer layer, no spt-net→perch coupling) so a locally-hosted\r\n        // endpoint reads identically on `--json` and the human surface. Local truth\r\n        // mirrors the picker's `local_rows`: ONLINE (Active) when alive OR unbound\r\n        // (the roster wins over the lagged snapshot), else Offline.\r\n        let all_local = roster::enumerate();\r\n        let local_status: std::collections::HashMap<String, Status> = all_local\r\n            .iter()\r\n            .map(|p| {\r\n                let s = if p.alive || p.unbound {\r\n                    Status::Active\r\n                } else {\r\n                    Status::Offline\r\n                };\r\n                (p.id.clone(), s)\r\n            })\r\n            .collect();\r\n        let mut subnet_groups: Vec<SubnetGroupJson> = Vec::new();\r\n        for name in names {\r\n            let Some(reg) = regs.get(&name) else {\r\n                subnet_groups.push(SubnetGroupJson {\r\n                    name,\r\n                    endpoints: Vec::new(),\r\n                });\r\n                continue;\r\n            };\r\n            let hide_new = subnets\r\n                .find(&name)\r\n                .map(|s| s.hide_new_endpoints)\r\n                .unwrap_or(false);\r\n            let rows = resource_projection(reg, |id| vis.hidden(id, &name, hide_new));\r\n            let endpoints = rows\r\n                .iter()\r\n                .filter(|r| keep_remote(&r.endpoint_type))\r\n                .map(|r| EndpointRowJson {\r\n                    id: r.endpoint_id.clone(),\r\n                    node: r.node.clone(),\r\n                    node_label: r.node_label.clone(),\r\n                    // Self-owned reconcile (REQ-LIST-JSON-LIVENESS-PARITY): the\r\n                    // LOCAL perch truth wins over the lagged snapshot for an\r\n                    // endpoint THIS node hosts (id in the local roster), matching\r\n                    // the human/picker surface; else the gossiped projection status.\r\n                    status: format!(\r\n                        \"{:?}\",\r\n                        local_status\r\n                            .get(r.endpoint_id.as_str())\r\n                            .copied()\r\n                            .unwrap_or(r.status)\r\n                    ),\r\n                    resources: r.resources.clone(),\r\n                    // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] additive type field.\r\n                    endpoint_type: r.endpoint_type.clone(),\r\n                    // [impl->REQ-ENDPOINT-LIST-PROJECT-COL] additive project field:\r\n                    // the gossiped recent_projects head (IDs only).\r\n                    project: r.recent_projects.first().cloned(),\r\n                })\r\n                .collect();\r\n            subnet_groups.push(SubnetGroupJson { name, endpoints });\r\n        }\r\n        let local = all_local\r\n            .into_iter()\r\n            .filter(|p| keep_local(&p.state))\r\n            .map(|p| {\r\n                // #8: the LATEST project ID (sessions.log history head) for the local\r\n                // perch — the same source the human column uses.\r\n                // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n                let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\r\n                let rec = spt_store::info::read_info(&perch_path);\r\n                let project = crate::picker::data::latest_project_ref(\r\n                    &p.id,\r\n                    &perch_path,\r\n                    rec.as_ref().and_then(|r| r.cwd.as_deref()),\r\n                )\r\n                .map(|pr| pr.id);\r\n                LocalPerchJson {\r\n                    id: p.id,\r\n                    state: p.state,\r\n                    address: p.address,\r\n                    ready: p.ready,\r\n                    alive: p.alive,\r\n                    unbound: p.unbound,\r\n                    project,\r\n                }\r\n            })\r\n            .collect();\r\n        return print_json(&EndpointListJson {\r\n            self_pin,\r\n            subnets: subnet_groups,\r\n            local,\r\n        });\r\n    }\r\n\r\n    // SELF pin (decision 2): the session's own endpoint renders first and\r\n    // distinctly, whatever subnet groups follow. `spt whoami` is a thin alias for\r\n    // this command (REQ-WHOAMI-1), so the SELF pin additionally carries the Self\r\n    // endpoint's authored description — the \"who am I\" answer.\r\n    // The canonical `LABEL (keyprefix…)` for THIS node — reused by the SELF-pin\r\n    // `(self @ <node>)` marker and the \"This node:\" group header below.\r\n    // [impl->REQ-ENDPOINT-LIST-NODE-IDENT]\r\n    let self_node_ident = node_ident_display();\r\n    if let Some(self_id) = roster::detect_self_id() {\r\n        let state = roster::enumerate()\r\n            .into_iter()\r\n            .find(|p| p.id == self_id)\r\n            .map(|p| {\r\n                // UNBOUND surfaces here too (REQ-ENDPOINT-UNBOUND-ATTACH): the Self\r\n                // pin must not read a live pre-bind session as plain alive=false.\r\n                let unbound = if p.unbound { \"  UNBOUND\" } else { \"\" };\r\n                format!(\"{}  ready={} alive={}{}\", p.state, p.ready, p.alive, unbound)\r\n            })\r\n            .unwrap_or_else(|| \"(no local perch)\".to_string());\r\n        let info = spt_store::info::read_info(&perch::resolve_perch_path(&self_id, ParentHint::Infer));\r\n        let desc = info.as_ref().and_then(|rec| rec.resources.clone());\r\n        // The harness-reachable psyche-host-failure annotation (v0.8.1,\r\n        // REQ-HAZARD-LIVEHOST-BOOT-RACE): an online live agent whose Psyche failed\r\n        // to host shows status authoritatively AND this extra line, surfacing the\r\n        // boot-race that was otherwise silent on the brain's stderr.\r\n        // [impl->REQ-HAZARD-LIVEHOST-BOOT-RACE]\r\n        let phe = info.as_ref().and_then(|rec| rec.psyche_host_error.clone());\r\n        // The input-translation fault annotation (F-1, REQ-PUBLIC-ERROR-SURFACES).\r\n        let tf = info.as_ref().and_then(|rec| rec.translation_fault.clone());\r\n        // The pin carries a `(self @ <node>)` marker naming THIS node — the\r\n        // node-grouped view pins SELF first and names its home node inline\r\n        // (REQ-ENDPOINT-LIST-NODE-GROUPED).\r\n        println!(\r\n            \"{}\",\r\n            render_self_pin(\r\n                &self_id,\r\n                &state,\r\n                desc.as_deref(),\r\n                Some(self_node_ident.as_str()),\r\n                phe.as_ref(),\r\n                tf.as_deref(),\r\n            )\r\n        );\r\n    }\r\n\r\n    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n    let vis = VisibilityStore::load();\r\n    let names: Vec<String> = match subnet {\r\n        Some(one) => vec![one],\r\n        None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\r\n    };\r\n\r\n    // This node's own instance rows come from the LOCAL ROSTER (status truth),\r\n    // NOT gossip (REQ-ENDPOINT-LIST-NODE-GROUPED / REQ-ENDPOINT-LIST-MERGE-LOCAL):\r\n    // a just-bound perch lags the WAN snapshot by a pump cadence, so the roster is\r\n    // the authoritative view of what THIS node hosts. Each row derives the SAME\r\n    // EpDisplay vocabulary a picker row would (advertised-status), its type read\r\n    // from info.json. [impl->REQ-ENDPOINT-LIST-MERGE-LOCAL]\r\n    let this_cells: Vec<InstanceCell> = roster::enumerate()\r\n        .into_iter()\r\n        .filter(|p| keep_local(&p.state))\r\n        .map(|p| {\r\n            let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\r\n            let rec = spt_store::info::read_info(&perch_path);\r\n            // #8: the LATEST project (sessions.log history head, owlery-excluded) —\r\n            // derived here where the perch path + info.cwd are in hand, then passed in\r\n            // (this_node_cell stays pure over its inputs).\r\n            // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n            let project_ref = crate::picker::data::latest_project_ref(\r\n                &p.id,\r\n                &perch_path,\r\n                rec.as_ref().and_then(|r| r.cwd.as_deref()),\r\n            );\r\n            this_node_cell(&p, rec.as_ref(), project_ref)\r\n        })\r\n        .collect();\r\n\r\n    // Remote instances come from the WAN registry projection, one (id, node) row\r\n    // per subnet; group_remote_nodes collapses the subnet duplication (freshest\r\n    // epoch wins a cross-subnet status disagreement) and unions the subnet names\r\n    // per node. This node's OWN gossip rows are discarded — the roster above is\r\n    // its status truth. [impl->REQ-ENDPOINT-LIST-NODE-GROUPED]\r\n    let self_node_hex = spt_store::nodeid::load_or_create()\r\n        .ok()\r\n        .map(|i| i.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    let mut tagged: Vec<(String, spt_net::net::registry::ResourceRow)> = Vec::new();\r\n    for name in &names {\r\n        let Some(reg) = regs.get(name) else {\r\n            continue;\r\n        };\r\n        let hide_new = subnets\r\n            .find(name)\r\n            .map(|s| s.hide_new_endpoints)\r\n            .unwrap_or(false);\r\n        for row in resource_projection(reg, |id| vis.hidden(id, name, hide_new)) {\r\n            if keep_remote(&row.endpoint_type) {\r\n                tagged.push((name.clone(), row));\r\n            }\r\n        }\r\n    }\r\n    let remote = group_remote_nodes(&self_node_hex, tagged);\r\n\r\n    // The stderr `ENDPOINTS:<n>` line and the grand total are REMOVED\r\n    // (REQ-ENDPOINT-LIST-NODE-GROUPED): each node group carries its own `Total:`.\r\n    print!(\r\n        \"{}\",\r\n        render_node_grouped(\r\n            &self_node_ident,\r\n            &names,\r\n            &this_cells,\r\n            &remote,\r\n            detail,\r\n            show_all,\r\n            crate::helpfmt::stdout_color(),\r\n        )\r\n    );\r\n    0\r\n}\r\n\r\n/// One instance row rendered under a node group in `endpoint list`: the\r\n/// `(id, endpoint_type, EpDisplay, resources)` cell a single `(id, node)`\r\n/// instance contributes. The node itself is the group header (node-grouped view,\r\n/// REQ-ENDPOINT-LIST-NODE-GROUPED), so the row carries no node column — the\r","startLine":2765,"lineNumbers":[2765,null,2779,2780,2781,2782,2783,2784,2785,2786,2787,2788,2789,2790,2791,2792,2793,2794,2795,2796,2797,2798,2799,2800,2801,2802,2803,2804,2805,2806,2807,2808,2809,2810,2811,2812,2813,2814,2815,2816,2817,2818,2819,2820,2821,2822,2823,2824,2825,2826,2827,2828,2829,2830,2831,2832,2833,2834,2835,2836,2837,2838,2839,2840,2841,2842,2843,2844,2845,2846,2847,2848,2849,2850,2851,2852,2853,2854,2855,2856,2857,2858,2859,2860,2861,2862,2863,2864,2865,2866,2867,2868,2869,2870,2871,2872,2873,2874,2875,2876,2877,2878,2879,2880,2881,2882,2883,2884,2885,2886,2887,2888,2889,2890,2891,2892,2893,2894,2895,2896,2897,2898,2899,2900,2901,2902,2903,2904,2905,2906,2907,2908,2909,2910,2911,2912,2913,2914,2915,2916,2917,2918,2919,2920,2921,2922,2923,2924,2925,2926,2927,2928,2929,2930,2931,2932,2933,2934,2935,2936,2937,2938,2939,2940,2941,2942,2943,2944,2945,2946,2947,2948,2949,2950,2951,2952,2953,2954,2955,2956,2957,2958,2959,2960,2961,2962,2963,2964,2965,2966,2967,2968,2969,2970,2971,2972,2973,2974,2975,2976,2977,2978,2979,2980,2981,2982,2983,2984,2985,2986,2987,2988,2989,2990,2991,2992,2993,2994,2995,2996,2997,2998,2999,3000,3001,3002,3003,3004,3005,3006,3007,3008,3009,3010,3011,3012,3013,3014,3015,3016,3017,3018,3019,3020,3021,3022,3023,3024,3025,3026,3027,3028,3029,3030,3031,3032,3033,3034,3035,3036,3037,3038,3039,3040,3041,3042,3043,3044,3045,3046,3047,3048,3049,3050,3051,3052,3053,3054,3055,3056,3057,3058,3059,3060,3061,3062,3063,3064,3065,3066,3067,3068,3069,3070,3071,3072,3073,3074,3075,3076,3077,3078,3079,3080,3081,3082,3083,3084,3085,3086,3087,3088,3089,3090,3091,3092,3093]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt\\src\\cli.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":17537,"totalBytes":14716,"outputLines":315,"outputBytes":14716,"shownRange":{"start":2779,"end":3093},"nextOffset":3094}}},"isError":false,"timestamp":1784069070160}}
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{"type":"message","id":"22a0e429","parentId":"d8a92c5d","timestamp":"2026-07-14T22:44:48.892Z","message":{"role":"toolResult","toolCallId":"call_NDrJF2ZlK4YggXrc01QoOidj|fc_0b084cf0b521ab15016a56bbe08534819094c6d2a15379ced3","toolName":"glob","content":[{"type":"text","text":"# C:/Users/decid/AppData/Local/spt-core/logs/\ndaemon.stderr.log\ndaemon.stderr.log.1"}],"details":{"scopePath":"C:/Users/decid/AppData/Local/spt-core/logs","fileCount":2,"files":["C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log","C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log.1"],"truncated":false,"cwd":"C:\\Users\\decid\\Documents\\projects"},"isError":false,"timestamp":1784069088892}}
{"type":"message","id":"e58d4f22","parentId":"22a0e429","timestamp":"2026-07-14T22:44:48.903Z","message":{"role":"toolResult","toolCallId":"call_ZXlLVN1DM2mgaySsCQeap8k2|fc_0b084cf0b521ab15016a56bbe0857c8190bcd1f0ad475e28ee","toolName":"grep","content":[{"type":"text","text":"# C:/Users/decid/AppData/Local/spt-core/logs/\n## daemon.stderr.log\n 1|=== spt brain stderr — generation 1 — pid 37736 ===\n*2|BRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 37736, generation 1, start-reason update)\n*3|BRAIN_RESUMED: re-established 7 session cursor(s): [7, 1, 6, 3, 8, 5, 4]\n*4|BRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\n*5|PUMP_IPC_READER: spawned\n*6|PUMP_IPC_READER: spawned\n*7|PUMP_PEER_FAIL:aea099f8f77ca00351d3809638b95f63d23464f500f6611ca104c780fe634138:submit-dial exceeded the 10s bound (peer unresponsive)\n*8|PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*9|PUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\n*10|PUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:submit-dial exceeded the 10s bound (peer unresponsive)\n*11|PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*12|DISPATCH:2110:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\n*13|DISPATCH:3885:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\n*14|DISPATCH:595:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\n*15|DISPATCH:3268:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\n*16|DISPATCH:3967:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9772: database is locked\")\n*17|DISPATCH:5927:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\n*18|DISPATCH:3579:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:17148: database is locked\")\n*19|DISPATCH:3443:Failed(\"No process is on the other end of the pipe. (os error 233)\")\n*20|DISPATCH:76:Failed(\"No process is on the other end of the pipe. (os error 233)\")\n*21|DISPATCH:4195:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\n## daemon.stderr.log.1\n 1|=== spt brain stderr — generation 1 — pid 43932 ===\n*2|BRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 43932, generation 1, start-reason update)\n*3|BRAIN_RESUMED: re-attached 4 session(s): [1, 2, 4, 3]\n*4|BRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\n*5|PUMP_IPC_READER: spawned\n*6|PUMP_IPC_READER: spawned\n*7|PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*8|PUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:peer reply-read: no progress within budget — dropping peer (brain IPC read deadline elapsed)\n*9|PEER_PUMP_FAIL: brain IPC read deadline elapsed\n*10|PEER_PUMP_RESTART: supervised restart in 10s\n*11|PUMP_IPC_READER: spawned\n*12|PUMP_IPC_READER: spawned\n 13|=== spt broker stderr — generation 0 — pid 50220 ===\n 14|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 15|=== spt brain stderr — generation 0 — pid 9476 ===\n*16|BRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 9476, generation 0, start-reason cold)\n 17|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 18|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 19|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n...\n 26|DAEMON_RESTART_RESUME:todlando: resuming session c86c5100-c27b-41ff-a2c0-3f42102676ef under claude-spt:ccs (pid 59756) — online at bind\n*27|BRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\n*28|PUMP_IPC_READER: spawned\n*29|PUMP_IPC_READER: spawned\n 30|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 31|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 32|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n...\n 35|PAIR_MEET_UP:BIGNET step=59454595 id=ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a addr=EndpointAddr { id: PublicKey(ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a), addrs: {Ip(100.68.35.65:52958), Ip(192.168.1.81:52958)} }\n*36|PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*37|PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*38|PUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\n 39|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 40|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 41|NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n...\n 44|PAIR_MEET_UP:SPT_DEV step=59454596 id=e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5 addr=EndpointAddr { id: PublicKey(e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5), addrs: {Ip(100.68.35.65:55115), Ip(192.168.1.81:55115)} }\n*45|PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*46|PUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)"}],"details":{"scopePath":"C:/Users/decid/AppData/Local/spt-core/logs","searchPath":"C:/Users/decid/AppData/Local/spt-core/logs","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":40,"fileCount":2,"files":["C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log","C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log.1"],"fileMatches":[{"path":"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log","count":20},{"path":"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log.1","count":20}],"truncated":true,"perFileLimitReached":20,"displayContent":"# C:/Users/decid/AppData/Local/spt-core/logs/\n## daemon.stderr.log\n  1│=== spt brain stderr — generation 1 — pid 37736 ===\n *2│BRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 37736, generation 1, start-reason update)\n *3│BRAIN_RESUMED: re-established 7 session cursor(s): [7, 1, 6, 3, 8, 5, 4]\n *4│BRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\n *5│PUMP_IPC_READER: spawned\n *6│PUMP_IPC_READER: spawned\n *7│PUMP_PEER_FAIL:aea099f8f77ca00351d3809638b95f63d23464f500f6611ca104c780fe634138:submit-dial exceeded the 10s bound (peer unresponsive)\n *8│PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n *9│PUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\n*10│PUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:submit-dial exceeded the 10s bound (peer unresponsive)\n*11│PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*12│DISPATCH:2110:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\n*13│DISPATCH:3885:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\n*14│DISPATCH:595:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\n*15│DISPATCH:3268:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\n*16│DISPATCH:3967:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9772: database is locked\")\n*17│DISPATCH:5927:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\n*18│DISPATCH:3579:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:17148: database is locked\")\n*19│DISPATCH:3443:Failed(\"No process is on the other end of the pipe. (os error 233)\")\n*20│DISPATCH:76:Failed(\"No process is on the other end of the pipe. (os error 233)\")\n*21│DISPATCH:4195:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\n## daemon.stderr.log.1\n  1│=== spt brain stderr — generation 1 — pid 43932 ===\n *2│BRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 43932, generation 1, start-reason update)\n *3│BRAIN_RESUMED: re-attached 4 session(s): [1, 2, 4, 3]\n *4│BRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\n *5│PUMP_IPC_READER: spawned\n *6│PUMP_IPC_READER: spawned\n *7│PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n *8│PUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:peer reply-read: no progress within budget — dropping peer (brain IPC read deadline elapsed)\n *9│PEER_PUMP_FAIL: brain IPC read deadline elapsed\n*10│PEER_PUMP_RESTART: supervised restart in 10s\n*11│PUMP_IPC_READER: spawned\n*12│PUMP_IPC_READER: spawned\n 13│=== spt broker stderr — generation 0 — pid 50220 ===\n 14│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 15│=== spt brain stderr — generation 0 — pid 9476 ===\n*16│BRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 9476, generation 0, start-reason cold)\n 17│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 18│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 19│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n   │...\n 26│DAEMON_RESTART_RESUME:todlando: resuming session c86c5100-c27b-41ff-a2c0-3f42102676ef under claude-spt:ccs (pid 59756) — online at bind\n*27│BRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\n*28│PUMP_IPC_READER: spawned\n*29│PUMP_IPC_READER: spawned\n 30│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 31│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 32│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n   │...\n 35│PAIR_MEET_UP:BIGNET step=59454595 id=ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a addr=EndpointAddr { id: PublicKey(ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a), addrs: {Ip(100.68.35.65:52958), Ip(192.168.1.81:52958)} }\n*36│PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*37│PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*38│PUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\n 39│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 40│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n 41│NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n   │...\n 44│PAIR_MEET_UP:SPT_DEV step=59454596 id=e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5 addr=EndpointAddr { id: PublicKey(e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5), addrs: {Ip(100.68.35.65:55115), Ip(192.168.1.81:55115)} }\n*45│PUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\n*46│PUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)"},"isError":false,"timestamp":1784069088903}}
{"type":"message","id":"a58d4fc4","parentId":"e58d4f22","timestamp":"2026-07-14T22:44:48.957Z","message":{"role":"toolResult","toolCallId":"call_cln1htpQyPmvY2ELPh3JVLWl|fc_0b084cf0b521ab15016a56bbe085208190bc2ece6ef4a4976d","toolName":"glob","content":[{"type":"text","text":"# C:/Users/decid/AppData/Local/spt-core/\nbrain.ready\ndaemon-effects.log\n## owlery/\n### hertz/\n### mobile-gw/\n### todlando/\n### lia/\ninfo.json\n### doyle/\ninfo.json\ndigest.log\n.idle\n## identity/\nepoch\npump-heartbeat.json\npump-ops.json\npeer-addrs.json\nroster.json\n### registry/\nSPT_DEV.json\nheard.meta\nBIGNET.json\nBS-Resources.json\n## logs/\ndaemon.stderr.log\n## adapters/_github/SaberMage-claude-spt/\nhook-trace.log\n### state/digest/\ndoyle.pos\n## tracked/\n### .seed.git/\n#### objects/\n##### e1/\nf1531628b44ce6be172972c28a8d70deab07db\n##### e8/\n1884421140a5d840e7059844d9ee5971bd601c\nde6269894ae2a2290dc95f96c0b784a0604eb1\n##### e2/\n88effdbf1d1ec85f3d189180d32f3a03dd2a35\n##### a7/\nd519790660be33b7cc9a93fd636f93f2ccd1b7\n##### 9f/\nc93d27e80fa119a405911d6388072e5a032dd1\n2423b4c1074fd9b27539a4ed67d6ba63f3c9e3\n##### 61/\na3b521ca2fe662e8daf4bbdeb51d5930e8ea2c\n2e6743262379d694c6739889ae386de85e44fe\n##### 89/\n06f02c12c41d9a3976552501405a0d126d56bc\n##### 5c/\n631d983a44ffdadc42b3a6f61ca49d093fe8e4\n##### 6b/\n60b871bc4ee3467669d1a8d433586835d745a7\n##### 76/\ncc7c43a22d5f2e6b1aa22bbd56a4d5edcc865d\n30b1527e10e1c7fc14a1ac6227dff5814907b0\n##### de/\nd9d734f04d98cd4e2147ae995613c50b2d918a\n1e2b847c9989ecf394def92bef773bb9f202ae\na6ec5d32138dfeed289f9a25e577f4a419d492\n##### ec/\na7d4961576ffdeaae4074348910ccce8cf7c66\n500171719da0929c4e8821b076d68e096948d2\n##### c9/\n315c8c32196c9f882926c19e3d9360b3f89df2\n##### 05/\n421426385053e6d6fc34d8844ad4d9f8bf43d3\n##### a2/\n328155391b41b68fd15da618a7b7da434cf3e6\ne73188718c461446dc270f4daaa1b855ecc3be\n##### 96/\n75f0bdf4f6e149861c277507698ca17abab9fc\n##### fe/\n6f44661d00327718e668ca20fc72a03bef95cb\ndf986526f433b74439784e2e7904422f73b0ff\n##### 87/\nfbaf0896a3d6c3d26df50dcddcf4dafa8e60eb\n##### 4c/\n50841e4982fc849537b667c632623e13031848\n##### 8c/\ne5259cdd44b28a3ff4b17ec647ceea278314f1\n81b9b67cd2d23ea070553c157e36f1ec642ab5\n##### f6/\ne0668b22c2e3ee02866b9201ccf604b6963262\n##### 8b/\n3b1ee2ddbeb5e20b7dacf6a23b8c0ff10696e9\na64482da962b9097ab71166875cbd0dc3ede0e\n##### bd/\n40f337ed8a838de77650ecca142d827bf8916c\n##### b0/\nae5661d06dc6f51fcd6a73af9d19433360bb25\n##### f4/\n35cd8b8742ae190c20ed85d519a986d2fc720e\n##### 2b/\n41d76b6d6e3879aeef133d08078f2cf57a2b28\nd30cc51d05130fe16faaee56c498f6641cadc5\n##### 14/\n85a7b6875f9bd8e13f3965f40293c0ea71718e\n##### d5/\nc2793350d77e2b842df23452f0edba85c80693\n##### 73/\na4fb59c96d96fddb9629bd8be24628dba4da39\n##### 6e/\naaf717a12fb3a4e627e8ac6341893175c16a2f\ndb6510cc1ae2a5186168b0b8d812838a126099\n##### 0c/\nc580d4136f053d4e3960dfaa87fab743f8dad9\n##### 00/\nd21dfb034d2ad6e59abf3ca87e2b13adb6d9bf\n##### 75/\n9b3b711a50e52bfd62cb039d1bcfe2ce017a33\n##### 6a/\nb7b9b508932ac3b766f63ad924cba321b5d386\n##### 51/\n5a54d3c126cf8d373ef79460d36d63831520e3\n1fbb9c8356d0d8ddaae08a4993dfcff36c27c8\n##### 18/\nec21b6d1cce7ab7161b5684fff6d85ab6d52b1\n##### 37/\na0736b023d190c5073ace0bcd7d102925717ba\n##### 78/\n237cdcd960ad9f4b949967f3a90fa88cfe7852\nbf768406a059c45ab2cbd0abb294658dc51eff\n##### 86/\n80b39ca098037664f69e2c3a0a215c0b54a517\n##### 1e/\n171946fbb1a516f701a8eb4aba8ebed7d7cb68\n##### 41/\n5240b208ded58b2befb9593712d341c81911ac\n##### 2a/\n41b5d520ab34051893301ae9c6b3b57a233ab3\n3797c33c097a96b331fd7d7bb8e762d23b1232\n##### 5f/\nb24549b7437b4f9bd021cb85de28440141d3a5\n##### 55/\n85594d44aa6cd0f612732139cb826df7cf24e1\n##### b1/\n52801593b4dc9c0752cf7f14eda13c52983e6e\n##### b8/\n14ff649133fa2243e63bbccd56b7363e6cd7d6\n##### 58/\nf8ff8dfe4df9e7a967431d5dcef7631b70b3dc\n##### f3/\n1c9d245c71b4df9fae42da5aef820955627e7f\n##### 90/\nc46f633d73bacec63cd0d0f793d57be24e1dda\n##### e9/\n89d001678924afbb6f1d04ff25f4d64dd01d25\n##### e4/\nd6c935d15cf5fb9d31a56835070a2d0dd617b8\n##### c1/\n93fdfd0b2ee86bbbbfd1b549de15c312e05cba\n##### 0d/\ned9c6b4e926739af7245b614de92101c1fa6ab\neb2366bfdb4b3ec344c45052c5034a1a967cfd\n##### bf/\nd2a6d8e05f736e2d7c56bc48413d6d518e7589\n##### 54/\n4327c905bccdf7a65deba26068e63ab15c2c2f\n##### 6f/\n2ef89afeef51e5a9c268021049b431a03c9c75\n##### b3/\n5aed9ebc439341fe106c7a0ff7bccbaa4e7b76\n##### ce/\nf1af26ba38ff4ee84bd06636794599a6367a09\n##### 93/\n6c566a4202b109c1e5cd330c84726072e60fba\n##### 7b/\n3507895019c0b53ac19a3406e6d4477454d08c\n##### d9/\n83aab8235abf5210485bef46b780fbe088537d\n##### c0/\n756775b73407af4b77c635c24b72ca8ad60830\n##### 2c/\n1472160f8ff55af4600d47869eb830bb058730\n##### 9d/\n6d55b97e60cd8ab9d0957232f5d149d34b2053\n##### d6/\na017b73ca49b8cfc3d7812abd47193d012e624\n##### 0a/\n7d7c73a2400ccb010c822cfe292d35d63f22c2\n##### 12/\nda36d2696edac7004fb228a90802fc624c0f97\nb0fd29897bb9096fa3ea27c6e170e90d5adb62\n##### a1/\nf5a93dbd4853245e072b102b5316f0f000f606\n##### e3/\n#### refs/heads/\np-github-com-sabermage-spt-core\na-doyle\n#### worktrees/\n##### github-com-sabermage-spt-core/\nCOMMIT_EDITMSG\nindex\n###### logs/\nHEAD\n##### doyle/\nCOMMIT_EDITMSG\nindex\n###### logs/\nHEAD\n#### logs/refs/heads/\np-github-com-sabermage-spt-core\na-doyle\n### projects/github-com-sabermage-spt-core/doyle/\nproject-context.md\n### agents/doyle/\nlive-context.md\n## scratch/pump/\n\n[200 results limit reached. 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{"type":"message","id":"3b8d2ea3","parentId":"a58d4fc4","timestamp":"2026-07-14T22:44:54.228Z","message":{"role":"toolResult","toolCallId":"call_f4hdUqtDmQof9ggKIbVfyKYi|fc_0b084cf0b521ab15016a56bbe085708190ad816effd8ab0af3","toolName":"glob","content":[{"type":"text","text":"No files found matching pattern\nglob timed out after 5s; returning 0 partial matches — narrow the pattern instead of retrying blindly"}],"details":{"scopePath":"C:/Users/decid/AppData/Local","fileCount":0,"files":[],"truncated":true,"cwd":"C:\\Users\\decid\\Documents\\projects"},"isError":false,"useless":true,"timestamp":1784069094228}}
{"type":"message","id":"583495c8","parentId":"3b8d2ea3","timestamp":"2026-07-14T22:45:07.307Z","message":{"role":"toolResult","toolCallId":"call_tXWd7vgdw9LnouD4H2RZ5Uuz|fc_0b084cf0b521ab15016a56bbe085888190b451fbe45a4794ee","toolName":"grep","content":[{"type":"text","text":"# C:/Users/decid/AppData/Local/spt-core/adapters/_github/\n\n## BigscreenVR-omp-spt/\n### manifest.toml\n 81|# \"replies arrive automatically; never arm a Monitor\" wording was spt-hosted-only; for a HARNESS-hosted\n*82|# live agent the agent's OWN `spt api listen` relay IS the delivery pipe. messaging-perch.md now\n*83|# distinguishes the hosting modes and says \"do not arm an EXTRA Monitor\" (preserving the primary relay).\n 84|# 0.10.0 (2026-07-01): the DIGEST-FETCHER cut — consumes spt-core v0.19.0 (counter 38, #17). [digest]\n 85|# flips to strategy=\"fetcher\": the extractor now LOCATES + reads + emits itself (spt-core runs it\n 86|# bounded, no pre-read, no `source` pre-resolve), fed only harness-NEUTRAL fills ({session_id} + the\n...\n 92|# self_id took the FIRST LINE of `spt whoami` HUMAN output; the current human view is a grouped\n*93|# roster (\"SUBNET <name>\" header first on any subnet-member node, \"SELF: <id> …\" when perched), so\n*94|# SessionStart crowned an agent \"SUBNET SPT_DEV\" and the brief's don't-run-whoami instruction made\n 95|# the wrong identity self-reinforce. Fix: `spt whoami --json` → .self.id (null ⇒ no-perch; parse\n 96|# failure ⇒ empty, NEVER a roster line). --json is a v0.16.0 global flag, under the 0.19.0 floor —\n 97|# no new seam, floor unchanged.\n...\n 163|# 0.13.4 (2026-07-04): PSYCHE POLL LOUD-FAIL (KH §2.6 second leg, doyle GO). The resident runner's\n*164|# per-pulse `spt ready <id> --once` misread a CONFIG refusal (canonically the multi-subnet home\n*165|# guard's READY_FAIL — the daemon fills carry no subnet, core seam/F-017 sibling, folds into F-030)\n 166|# as \"perch gone\" and exited 0 SILENTLY → the daemon rehosted it ~every 5s forever (hall-bf field\n 167|# case, ordinal 6491, invisible). A READY_FAIL-marked poll failure now dies LOUD + NONZERO\n 168|# (PSYCHE_POLL_FAIL, exit 4) so psyche_host_error stamps a real fault; normal perch-close stays the\n*169|# quiet lifecycle exit. Residency on multi-subnet homes stays broken until the core seam — this\n 170|# makes it VISIBLE, not fixed. Binary-only; floor stays 0.23.0.\n 171|# 0.14.0 (2026-07-04): the PSYCHE EPHEMERAL redesign — adapter half of the joint F-030 wave\n 172|# (PSYCHE-EPHEMERAL-PLAN.md; doyle W1/W2 psyche-turn contract FREEZE 944a74b0 + evidence answers).\n...\n 182|# retires the resident poll (v0.13.4's PSYCHE_POLL_FAIL leg is subsumed — no loop to guard) and\n*183|# dissolves the multi-subnet residency-churn class BY DESIGN. [session.psyche_init] survives ONLY as\n 184|# the live-capability GATE (never spawned). FLOOR BUMPS to the F-030 core release (min_spt_core\n 185|# below): no current core drives per-event psyche_resume, so this release TRAILS F-030 — PUBLISH\n 186|# HOLDS until that core lands + a live-verify window (do NOT tag from a HEAD carrying this until the\n...\n 202|# catalog never included psyche_dir (freeze fills {id, session_id, parent_session_id,\n*203|# psyche_context_file, node, subnet}; core runtime.rs:65 \"a catalog key must have a real fill\") —\n 204|# so EVERY psyche turn on a 0.25.0 driver faulted at substitution before spawn (flynn: psyche dead,\n 205|# \"no value for substitution key {psyche_dir}\", 3x consecutive, psyche_host_error stamped). Fix:\n 206|# cwd templates + psyche_dir keys REMOVED from psyche_init + psyche_resume; the SHIM now chdirs to\n...\n 619|# never carried (doyle P-1 verdict 2026-07-06, runtime.rs:65 \"a catalog key must have a real fill\";\n*620|# the freeze fills exactly {id, session_id, parent_session_id, psyche_context_file, node, subnet}).\n 621|# Referencing it faulted EVERY per-event turn at substitution (flynn's dead psyche). The psyche cwd\n 622|# is now the SHIM's job: it chdirs to the {psyche_context_file} parent dir (the psyche's nested\n 623|# perch dir — the same location the retired fill pointed at) before spawning claude, keeping the\n...\n 953|force-stop = { file = \"skills/force-stop.md\" } # -> spt endpoint shutdown (graceful, tears down Psyche)\n*954|subnet = { file = \"skills/subnet.md\" }         # -> spt subnet {status,create,show-code,join} (cross-machine); REQ-SKILL-SUBNET\n 955|# `send` / `commune` / `signoff` are NOT injected here — but NOT because their prose lives in the\n 956|# plugin SKILL.md (it no longer does; U4/REQ-DIST-SKELETON-THIN thinned those to stubs, 2026-06-25,\n 957|# superseding the 2026-06-19 full-fat-SKILL.md decision). The reason they aren't UPS skills stands: a\n...\n 965|# ([session.psyche_init] in base), so going live is just the COMMAND — bare `spt api listen <id>` under\n*966|# a Monitor relay. The live listen path stamps the perch state=live_agent → the daemon livehost hosts\n 967|# the Psyche (livehost.rs:282 gates on live_agent state, doyle). No `:live` composite, no --adapter.\n*968|live = { file = \"skills/live.md\" }             # -> bare `spt api listen <id>` + Monitor relay (LiveAgent)\n 969|# `new-alarm` -> EXPLICIT OUT OF SCOPE for v1: no core `spt` alarm/timed-pulse primitive exists\n 970|# (legacy $LIVE TIMED PULSE is owl/Psyche-layer, not lifted into core; adapters don't add core\n 971|# features). doyle carries a parity-gap finding to mint a core deferred-pulse primitive; the skill\n...\n 1004|[[hints]]\n*1005|keywords = [\"another machine\", \"pair machine\", \"across machines\", \"subnet\", \"join my network\"]\n*1006|text = \"Tip: /omps:subnet pairs machines into a private network so agents reach each other across nodes.\"\n 1007|\n 1008|[[hints]]\n 1009|keywords = [\"checkpoint\", \"compact my context\", \"context is getting long\", \"clear and continue\", \"self clear\"]\n\n### strings/\n\n#### briefs/\n##### messaging-no-perch.md\n*1|You can reach other spt agents on this node's subnet without readying a perch (the body is read from stdin):\n 2|\n 3|- Send and wait for a reply: `printf '%s' \"<body>\" | spt ring <target> --timeout 60` (the reply prints to stdout; `TIMEOUT` is exit 0 — the message still landed).\n 4|- To RECEIVE messages yourself, run /omps:ready (or /omps:live for a live session).\n##### messaging-perch.md\n 4|- Reply: `printf '%s' \"<body>\" | spt send <sender>` (sender = the `from` on the EVENT you received).\n*5|- After you send, just continue. The reply (if any) arrives the SAME way every inbound message reaches you — through the delivery channel you already have (your existing live relay if you are a live agent, or the broker if this session is spt-hosted, or your next turn's inbound drain). You do NOT need to set up anything NEW: do not arm an EXTRA Monitor/poll/tail just to wait for this one reply (and do not tear down the relay you are already running).\n 6|\n 7|Shortform (no shell tool) — embed a tag in your OWN reply text and the adapter sends it for you:\n 8|\n\n#### skills/\n##### list-agents.md\n 4|\n*5|1. `spt endpoint list` (or bare `spt endpoint`) — every member subnet's endpoints, grouped, with this\n 6|   session's own pinned at the top.\n 7|2. Summarize who's online and which is this session. Message one with `/omps:send <id>`.\n 8|\n##### live.md\n 21|- **Normal session** (you launched this CC yourself, no pre-bound perch). Do the full bringup below,\n*22|  **including step 2** — the resident Monitor relay IS your one delivery pipe.\n 23|\n 24|1. **Pick the perch id.** Use a short lowercase id from the user, or the id you already know for this\n 25|   session (from your SessionStart identity brief, if present). Call it `<id>`. Only fall back to\n...\n 28|2. **(Normal sessions only — an spt-hosted session skips this; see the substrate branch above.)**\n*29|   **Run the relay as a single PERSISTENT background task** via the **Monitor** tool. One resident\n 30|   process IS the live delivery pipe. The body is one bare command:\n 31|\n 32|   ### Invocation (Monitor)\n...\n 41|   - It **blocks for the session's life**: backlog drains first, then each delivery streams to stdout.\n*42|3. **Readiness.** The relay output will show `BOUND:<id>`, then `READY:<id>`. Check it only if\n 43|   connectivity complications are encountered.\n 44|4. **Reply.** Inbound messages — including replies to messages YOU send — arrive as\n 45|   `<EVENT type=\"msg\" from=\"<sender>\">body</EVENT>` (body HTML-escaped, newlines `<br>`) on THIS ONE\n*46|   relay you started in step 2. To reply, pipe the message body as stdin to `spt send <sender-id>`,\n*47|   then continue. Do NOT arm a SECOND Monitor/poll to wait for a reply — your relay already delivers it.\n 48|5. **Across boundaries — commune + signoff (you are live now, so these apply to you).** Going live in\n 49|   this session does NOT re-fire your SessionStart brief, so here are the mechanics:\n 50|   - **Commune** after a significant body of work, before a `/clear`/`/compact`: write\n...\n 61|\n*62|The relay emits machine markers (`BOUND:<id>`, `READY:<id>`, raw tokens). **Read them to drive\n 63|bringup; never echo them to the user.** The only user-facing surface is the LIVE block below — emit\n 64|it verbatim (substituting `<id>`), and nothing else from bringup:\n 65|\n##### setup.md\n 48|\n*49|5. **Subnet onboarding (optional).** A subnet is the private group of paired machines that makes\n 50|   `/omps:send`, `/omps:ready`, and live agents work cross-machine (local use needs none). Check\n*51|   `spt subnet status`:\n*52|   - In a subnet → invite a machine with `spt subnet show-code`; on the joiner, `spt subnet join`.\n*53|   - Not in one → offer **create** (`spt subnet create` — this node becomes seed-holder) or **join**\n*54|     (`spt subnet join`). Full verb guidance → **/omps:subnet**.\n 55|   - **Elevation:** create/join/show-code are OS-elevation-gated — Windows: elevated (UAC) shell;\n 56|     Linux desktop: pkexec/polkit or sudo terminal; Linux TTY: inline sudo; headless: print the exact\n 57|     command for the user to run elevated.\n*58|   <!-- [doc->REQ-SETUP-SUBNET] -->\n 59|\n 60|Idempotent and safe to re-run — the same bootstrap + activation the SessionStart hook performs.\n##### subnet.md\n*1|# /omps:subnet — operative instructions\n 2|\n*3|Manage this machine's **subnet** — the private group of paired machines whose agents reach each other\n 4|across nodes. Cross-machine `/omps:send` and live agents depend on it.\n 5|\n*6|Match the user's intent to a verb (full guidance: `spt how-to subnet`, or `spt subnet --help`):\n 7|\n*8|- **Where I stand:** `spt subnet status` (or bare `spt subnet`).\n*9|- **Start a new subnet** (this machine = first node): `spt subnet create` — prints the 6-digit code\n 10|  + URI + QR.\n*11|- **Invite a machine:** `spt subnet show-code` — re-displays the current code.\n*12|- **Join an existing one:** `spt subnet join` — needs the code from a current member.\n 13|\n*14|Pairing: on A run `create` (or `show-code`) → read the code → on B run `join` with it → `spt subnet\n 15|status` on both to confirm. Pairing codes are sensitive — share only with machines that should join.\n*16|<!-- [doc->REQ-SKILL-SUBNET] -->\n\n## SaberMage-claude-spt/\n### manifest.toml\n 75|# \"replies arrive automatically; never arm a Monitor\" wording was spt-hosted-only; for a HARNESS-hosted\n*76|# live agent the agent's OWN `spt api listen` relay IS the delivery pipe. messaging-perch.md now\n*77|# distinguishes the hosting modes and says \"do not arm an EXTRA Monitor\" (preserving the primary relay).\n 78|# 0.10.0 (2026-07-01): the DIGEST-FETCHER cut — consumes spt-core v0.19.0 (counter 38, #17). [digest]\n 79|# flips to strategy=\"fetcher\": the extractor now LOCATES + reads + emits itself (spt-core runs it\n 80|# bounded, no pre-read, no `source` pre-resolve), fed only harness-NEUTRAL fills ({session_id} + the\n...\n 86|# self_id took the FIRST LINE of `spt whoami` HUMAN output; the current human view is a grouped\n*87|# roster (\"SUBNET <name>\" header first on any subnet-member node, \"SELF: <id> …\" when perched), so\n*88|# SessionStart crowned an agent \"SUBNET SPT_DEV\" and the brief's don't-run-whoami instruction made\n 89|# the wrong identity self-reinforce. Fix: `spt whoami --json` → .self.id (null ⇒ no-perch; parse\n 90|# failure ⇒ empty, NEVER a roster line). --json is a v0.16.0 global flag, under the 0.19.0 floor —\n 91|# no new seam, floor unchanged.\n...\n 157|# 0.13.4 (2026-07-04): PSYCHE POLL LOUD-FAIL (KH §2.6 second leg, doyle GO). The resident runner's\n*158|# per-pulse `spt ready <id> --once` misread a CONFIG refusal (canonically the multi-subnet home\n*159|# guard's READY_FAIL — the daemon fills carry no subnet, core seam/F-017 sibling, folds into F-030)\n 160|# as \"perch gone\" and exited 0 SILENTLY → the daemon rehosted it ~every 5s forever (hall-bf field\n 161|# case, ordinal 6491, invisible). A READY_FAIL-marked poll failure now dies LOUD + NONZERO\n 162|# (PSYCHE_POLL_FAIL, exit 4) so psyche_host_error stamps a real fault; normal perch-close stays the\n*163|# quiet lifecycle exit. Residency on multi-subnet homes stays broken until the core seam — this\n 164|# makes it VISIBLE, not fixed. Binary-only; floor stays 0.23.0.\n 165|# 0.14.0 (2026-07-04): the PSYCHE EPHEMERAL redesign — adapter half of the joint F-030 wave\n 166|# (PSYCHE-EPHEMERAL-PLAN.md; doyle W1/W2 psyche-turn contract FREEZE 944a74b0 + evidence answers).\n...\n 176|# retires the resident poll (v0.13.4's PSYCHE_POLL_FAIL leg is subsumed — no loop to guard) and\n*177|# dissolves the multi-subnet residency-churn class BY DESIGN. [session.psyche_init] survives ONLY as\n 178|# the live-capability GATE (never spawned). FLOOR BUMPS to the F-030 core release (min_spt_core\n 179|# below): no current core drives per-event psyche_resume, so this release TRAILS F-030 — PUBLISH\n 180|# HOLDS until that core lands + a live-verify window (do NOT tag from a HEAD carrying this until the\n...\n 196|# catalog never included psyche_dir (freeze fills {id, session_id, parent_session_id,\n*197|# psyche_context_file, node, subnet}; core runtime.rs:65 \"a catalog key must have a real fill\") —\n 198|# so EVERY psyche turn on a 0.25.0 driver faulted at substitution before spawn (flynn: psyche dead,\n 199|# \"no value for substitution key {psyche_dir}\", 3x consecutive, psyche_host_error stamped). Fix:\n 200|# cwd templates + psyche_dir keys REMOVED from psyche_init + psyche_resume; the SHIM now chdirs to\n...\n 408|# --pid $SPT_HOST_PID --session-id $OWL_SESSION_ID && spt api --adapter claude-spt listen <id>\n*409|# --parent-pid $SPT_HOST_PID` (+ --subnet guidance for multi-subnet nodes) — and SessionStart now\n 410|# exports SPT_HOST_PID (the claude.exe anchor = dispatch's --host-pid) into the session env (inherited\n 411|# by Monitor children). All prescribed CLI verified against published harness-contract/api.md (seed\n*412|# --pid/--session-id, group --adapter, listen --parent-pid/--subnet all documented). Three CORE legs\n 413|# (CLI hint, seed-consumed-on-refusal, seed-liveness) + a seed-contract DOC GAP filed to doyle (F-034);\n 414|# adapter fix is the immediate mitigation (always re-seeds atomically). REQ-SKILL-LIVE. Floor 0.27.0.\n 415|# 0.18.3 (2026-07-09): follow-up to v0.18.2 from hertz's re-verify (PASS, one bug). SPT_HOST_PID was\n...\n 419|# it (loud log) so the skill fallback engages; (2) harden live.md's fallback to distrust a bogus `1`,\n*420|# not just empty; (3) hertz polish — pre-empt HOME_REFUSED by checking `spt subnet status` first on a\n*421|# multi-subnet node. Deep follow-up TRACKED (mine, not core): resolve the real claude WINPID for\n 422|# host_pid (also heals the SessionStart seed anchor, which the same $PPID=1 mis-anchors). REQ-SKILL-LIVE.\n 423|# 0.18.4 (2026-07-09): /sptc:live bringup ergonomics (operator ask). (1) UPS now injects a\n*424|# `<sptc_live_bringup>` block — `spt endpoint list --show-all` (SELF status + \"Shared subnets: …\" +\n 425|# every endpoint's state) — on any `/sptc:live` or bare `/live` turn, so the agent reads the bringup\n 426|# condition at a glance (id exists / already-ONLINE / absent). (2) live.md step 1 branches on that\n*427|# roster and, for a first-time bringup on a MULTI-SUBNET node, asks the user which subnet (--subnet;\n 428|# core does not guess). (3) live.md step 3 now loads the resume context post-READY —\n 429|# `psyche-download <id> --session-id $OWL_SESSION_ID` — because a harness-hosted go-live does NOT\n 430|# auto-run the SessionStart resume download (a returning live agent otherwise got no durable context);\n...\n 469|# bodies park adapter-side and inject on the stub turn; msg park drains on EVERY UPS + PreToolUse\n*470|# (busy-race no-stall); digest surfaces relay frames + collapses stub turns + filters transcript\n 471|# noise. Binary-only behavior; no new spt-core seam → floor unchanged (0.27.0).\n 472|# REQ-STUB-MSG-DELIVERY / REQ-STUB-WAKE / REQ-STUB-PARK-NO-STALL / REQ-STUB-FULL-INJECT-OVERRIDE /\n*473|# REQ-DIGEST-RELAY-SURFACE / REQ-DIGEST-NOISE-FILTER. Field-verified live pre-cut (plan gate).\n 474|#\n 475|# 0.20.1 (2026-07-10): [update] transport=\"gh\" (repo went private — published Transport contract,\n 476|# REQ-ADAPTER-GH-TRANSPORT; nodes need gh installed+authed with repo read access) + env-file lines\n...\n 713|# never carried (doyle P-1 verdict 2026-07-06, runtime.rs:65 \"a catalog key must have a real fill\";\n*714|# the freeze fills exactly {id, session_id, parent_session_id, psyche_context_file, node, subnet}).\n 715|# Referencing it faulted EVERY per-event turn at substitution (flynn's dead psyche). The psyche cwd\n 716|# is now the SHIM's job: it chdirs to the {psyche_context_file} parent dir (the psyche's nested\n 717|# perch dir — the same location the retired fill pointed at) before spawning claude, keeping the\n...\n 1068|force-stop = { file = \"skills/force-stop.md\" } # -> spt endpoint shutdown (graceful, tears down Psyche)\n*1069|subnet = { file = \"skills/subnet.md\" }         # -> spt subnet {status,create,show-code,join} (cross-machine); REQ-SKILL-SUBNET\n 1070|role = { file = \"skills/role.md\" }             # -> spt endpoint role [--overwrite] + description (agent-mediated edit; mode-A round-trip is hook/translate-driven); REQ-ROLE-EDIT-ROUNDTRIP\n 1071|# `send` / `commune` / `signoff` are NOT injected here — but NOT because their prose lives in the\n 1072|# plugin SKILL.md (it no longer does; U4/REQ-DIST-SKELETON-THIN thinned those to stubs, 2026-06-25,\n...\n 1081|# ([session.psyche_init] in base), so going live is just the COMMAND — bare `spt api listen <id>` under\n*1082|# a Monitor relay. The live listen path stamps the perch state=live_agent → the daemon livehost hosts\n 1083|# the Psyche (livehost.rs:282 gates on live_agent state, doyle). No `:live` composite, no --adapter.\n\n### strings/\n\n#### briefs/\n##### messaging-no-perch.md\n*1|You can reach other spt agents on this node's subnet without readying a perch (the body is read from stdin):\n 2|\n 3|- Send and wait for a reply: `printf '%s' \"<body>\" | spt ring <target> --timeout 60` (the reply prints to stdout; `TIMEOUT` is exit 0 — the message still landed).\n 4|- To RECEIVE messages yourself, run /sptc:ready (or /sptc:live for a live session).\n##### messaging-perch.md\n 4|- Reply: `printf '%s' \"<body>\" | spt send <sender>` (sender = the `from` on the EVENT you received).\n*5|- After you send, just continue. The reply (if any) arrives the SAME way every inbound message reaches you — through the delivery channel you already have (your existing live relay if you are a live agent, or the broker if this session is spt-hosted, or your next turn's inbound drain). You do NOT need to set up anything NEW: do not arm an EXTRA Monitor/poll/tail just to wait for this one reply (and do not tear down the relay you are already running).\n 6|\n 7|Shortform — embed a tag in your OWN reply text and the adapter sends it for you (no shell tool needed):\n 8|\n\n#### skills/\n##### list-agents.md\n 4|\n*5|1. `spt endpoint list` (or bare `spt endpoint`) — every member subnet's endpoints, grouped, with this\n 6|   session's own pinned at the top.\n 7|2. Summarize who's online and which is this session. Message one with `/sptc:send <id>`.\n 8|\n##### live.md\n 21|- **Normal session** (you launched this CC yourself, no pre-bound perch). Do the full bringup below,\n*22|  **including step 2** — the resident Monitor relay IS your one delivery pipe.\n 23|\n 24|1. **Pick the perch id + read the bringup conditions.** Use a short lowercase id from the user, or the\n 25|   id you already know for this session (from your SessionStart identity brief, if present). Call it\n...\n 28|   **This turn the adapter injected a `<sptc_live_bringup>` block** — the node's `spt endpoint list\n*29|   --show-all` (SELF, `Shared subnets: …`, and every endpoint's state). Read it to branch:\n 30|   - **`<id>` already listed + `ONLINE`** → it is already live; do NOT re-bring-up. Confirm and stop.\n 31|   - **`<id>` listed but `OFFLINE`** → you are reviving an existing endpoint; proceed to step 2.\n*32|   - **`<id>` ABSENT** → first-time bringup. If `Shared subnets:` lists **more than one** subnet, the\n*33|     new endpoint's home must be chosen — **ASK the user which subnet** (core does not guess) and pass\n*34|     it as `--subnet <name>` in step 2. A single-subnet node needs no `--subnet`.\n 35|2. **(Normal sessions only — an spt-hosted session skips this; see the substrate branch above.)**\n*36|   **Run the relay as a single PERSISTENT background task** via the **Monitor** tool. One resident\n 37|   process IS the live delivery pipe.\n 38|\n 39|   ### Invocation (Monitor)\n 40|\n*41|   The Monitor tool launches the relay under a `bash.exe` child whose pid breaks two by-pid\n 42|   resolutions, so the bare `spt api listen <id>` FAILS on a normal session. Use the robust chained\n 43|   form — every delta is load-bearing:\n 44|\n...\n 64|\n*65|   **Multi-subnet node:** `listen` refuses `HOME_REFUSED: this node holds N subnets (…)` without a\n*66|   `--subnet` (core does not guess the home). To skip that retry, run `spt subnet status` FIRST and put\n*67|   `--subnet <name>` in the initial command. If you do hit `HOME_REFUSED`, append `--subnet <name>` and\n 68|   re-run the WHOLE chained command (the refusal burns the seed, so the chain's re-seed is required).\n*69|   Single-subnet nodes need no `--subnet`.\n 70|\n 71|   - `spt api listen` enters the poll loop inline; the stream stays alive across messages and emits\n 72|   one `<EVENT type=\"msg|alarm|echo_commune|init_signoff\" ...>body</EVENT>` line per delivery.\n 73|   - It **blocks for the session's life**: backlog drains first, then each delivery streams to stdout.\n*74|3. **Readiness, then load your resume context.** The relay output will show `SEEDED:<pid>`, then\n 75|   `BOUND:<id>`, then `READY:<id>` (check it only if connectivity complications arise). **Once `READY`,\n 76|   pull your durable resume context** — going live in a harness-hosted session does NOT auto-run the\n 77|   SessionStart resume download, so load it yourself now:\n...\n 87|   `<EVENT type=\"msg\" from=\"<sender>\">body</EVENT>` (body HTML-escaped, newlines `<br>`) on THIS ONE\n*88|   relay you started in step 2. To reply, pipe the message body as stdin to `spt send <sender-id>`,\n*89|   then continue. Do NOT arm a SECOND Monitor/poll to wait for a reply — your relay already delivers it.\n 90|5. **Across boundaries — commune + signoff (you are live now, so these apply to you).** Going live in\n 91|   this session does NOT re-fire your SessionStart brief, so here are the mechanics:\n 92|   - **Commune** after a significant body of work, before a `/clear`/`/compact`: write\n...\n 108|\n*109|The relay emits machine markers (`BOUND:<id>`, `READY:<id>`, raw tokens). **Read them to drive\n 110|bringup; never echo them to the user.** The only user-facing surface is the LIVE block below — emit\n 111|it verbatim (substituting `<id>`), and nothing else from bringup:\n 112|\n##### setup.md\n 48|\n*49|5. **Subnet onboarding (optional).** A subnet is the private group of paired machines that makes\n 50|   `/sptc:send`, `/sptc:ready`, and live agents work cross-machine (local use needs none). Check\n*51|   `spt subnet status`:\n*52|   - In a subnet → invite a machine with `spt subnet show-code`; on the joiner, `spt subnet join`.\n*53|   - Not in one → offer **create** (`spt subnet create` — this node becomes seed-holder) or **join**\n*54|     (`spt subnet join`). Full verb guidance → **/sptc:subnet**.\n 55|   - **Elevation:** create/join/show-code are OS-elevation-gated — Windows: elevated (UAC) shell;\n 56|     Linux desktop: pkexec/polkit or sudo terminal; Linux TTY: inline sudo; headless: print the exact\n 57|     command for the user to run elevated.\n*58|   <!-- [doc->REQ-SETUP-SUBNET] -->\n 59|\n 60|Idempotent and safe to re-run — the same bootstrap + activation the SessionStart hook performs.\n##### subnet.md\n*1|# /sptc:subnet — operative instructions\n 2|\n*3|Manage this machine's **subnet** — the private group of paired machines whose agents reach each other\n 4|across nodes. Cross-machine `/sptc:send` and live agents depend on it.\n 5|\n*6|Match the user's intent to a verb (full guidance: `spt how-to subnet`, or `spt subnet --help`):\n 7|\n*8|- **Where I stand:** `spt subnet status` (or bare `spt subnet`).\n*9|- **Start a new subnet** (this machine = first node): `spt subnet create` — prints the 6-digit code\n 10|  + URI + QR.\n*11|- **Invite a machine:** `spt subnet show-code` — re-displays the current code.\n*12|- **Join an existing one:** `spt subnet join` — needs the code from a current member.\n 13|\n*14|Pairing: on A run `create` (or `show-code`) → read the code → on B run `join` with it → `spt subnet\n 15|status` on both to confirm. Pairing codes are sensitive — share only with machines that should join.\n*16|<!-- [doc->REQ-SKILL-SUBNET] -->\n\n## SaberMage-spt-claude-code/\n### manifest.toml\n 471|force-stop = { file = \"skills/force-stop.md\" } # -> spt endpoint shutdown (graceful, tears down Psyche)\n*472|subnet = { file = \"skills/subnet.md\" }         # -> spt subnet {status,create,show-code,join} (cross-machine); REQ-SKILL-SUBNET\n 473|# `send` / `commune` / `signoff` are NOT injected here — but NOT because their prose lives in the\n 474|# plugin SKILL.md (it no longer does; U4/REQ-DIST-SKELETON-THIN thinned those to stubs, 2026-06-25,\n 475|# superseding the 2026-06-19 full-fat-SKILL.md decision). The reason they aren't UPS skills stands: a\n...\n 483|# ([session.psyche_init] in base), so going live is just the COMMAND — bare `spt api listen <id>` under\n*484|# a Monitor relay. The live listen path stamps the perch state=live_agent → the daemon livehost hosts\n 485|# the Psyche (livehost.rs:282 gates on live_agent state, doyle). No `:live` composite, no --adapter.\n*486|live = { file = \"skills/live.md\" }             # -> bare `spt api listen <id>` + Monitor relay (LiveAgent)\n 487|# `new-alarm` -> EXPLICIT OUT OF SCOPE for v1: no core `spt` alarm/timed-pulse primitive exists\n 488|# (legacy $LIVE TIMED PULSE is owl/Psyche-layer, not lifted into core; adapters don't add core\n 489|# features). doyle carries a parity-gap finding to mint a core deferred-pulse primitive; the skill\n...\n 522|[[hints]]\n*523|keywords = [\"another machine\", \"pair machine\", \"across machines\", \"subnet\", \"join my network\"]\n*524|text = \"Tip: /sptc:subnet pairs machines into a private network so agents reach each other across nodes.\"\n 525|\n 526|[[hints]]\n 527|keywords = [\"checkpoint\", \"compact my context\", \"context is getting long\", \"clear and continue\", \"self clear\"]\n\n### strings/\n\n#### briefs/\n##### messaging-no-perch.md\n*1|You can reach other spt agents on this node's subnet without readying a perch (the body is read from stdin):\n 2|\n 3|- Send and wait for a reply: `printf '%s' \"<body>\" | spt ring <target> --timeout 60` (the reply prints to stdout; `TIMEOUT` is exit 0 — the message still landed).\n 4|- To RECEIVE messages yourself, run /sptc:ready (or /sptc:live for a live session).\n\n#### skills/\n##### list-agents.md\n 4|\n*5|1. `spt endpoint list` (or bare `spt endpoint`) — every member subnet's endpoints, grouped, with this\n 6|   session's own pinned at the top.\n 7|2. Summarize who's online and which is this session. Message one with `/sptc:send <id>`.\n 8|\n##### live.md\n 10|   `spt whoami`. Call it `<id>`. SessionStart already seeded this session's perch — do not re-seed.\n*11|2. **Run the relay as a single PERSISTENT background task** via the **Monitor** tool. One resident\n 12|   process IS the live delivery pipe. The body is one bare command:\n 13|\n 14|   ### Invocation (Monitor)\n...\n 23|   - It **blocks for the session's life**: backlog drains first, then each delivery streams to stdout.\n*24|3. **Readiness.** The relay output will show `BOUND:<id>`, then `READY:<id>`. Check it only if\n 25|   connectivity complications are encountered.\n 26|4. **Reply.** Inbound messages arrive as `<EVENT type=\"msg\" from=\"<sender>\">body</EVENT>` (body\n 27|   HTML-escaped, newlines `<br>`). To reply, pipe the message body as stdin to `spt send <sender-id>`.\n...\n 41|\n*42|The relay emits machine markers (`BOUND:<id>`, `READY:<id>`, raw tokens). **Read them to drive\n 43|bringup; never echo them to the user.** The only user-facing surface is the LIVE block below — emit\n 44|it verbatim (substituting `<id>`), and nothing else from bringup:\n 45|\n##### setup.md\n 48|\n*49|5. **Subnet onboarding (optional).** A subnet is the private group of paired machines that makes\n 50|   `/sptc:send`, `/sptc:ready`, and live agents work cross-machine (local use needs none). Check\n*51|   `spt subnet status`:\n*52|   - In a subnet → invite a machine with `spt subnet show-code`; on the joiner, `spt subnet join`.\n*53|   - Not in one → offer **create** (`spt subnet create` — this node becomes seed-holder) or **join**\n*54|     (`spt subnet join`). Full verb guidance → **/sptc:subnet**.\n 55|   - **Elevation:** create/join/show-code are OS-elevation-gated — Windows: elevated (UAC) shell;\n 56|     Linux desktop: pkexec/polkit or sudo terminal; Linux TTY: inline sudo; headless: print the exact\n 57|     command for the user to run elevated.\n*58|   <!-- [doc->REQ-SETUP-SUBNET] -->\n 59|\n 60|Idempotent and safe to re-run — the same bootstrap + activation the SessionStart hook performs.\n##### subnet.md\n*1|# /sptc:subnet — operative instructions\n 2|\n*3|Manage this machine's **subnet** — the private group of paired machines whose agents reach each other\n 4|across nodes. Cross-machine `/sptc:send` and live agents depend on it.\n 5|\n*6|Match the user's intent to a verb (full guidance: `spt how-to subnet`, or `spt subnet --help`):\n 7|\n*8|- **Where I stand:** `spt subnet status` (or bare `spt subnet`).\n*9|- **Start a new subnet** (this machine = first node): `spt subnet create` — prints the 6-digit code\n 10|  + URI + QR.\n*11|- **Invite a machine:** `spt subnet show-code` — re-displays the current code.\n*12|- **Join an existing one:** `spt subnet join` — needs the code from a current member.\n 13|\n*14|Pairing: on A run `create` (or `show-code`) → read the code → on B run `join` with it → `spt subnet\n 15|status` on both to confirm. Pairing codes are sensitive — share only with machines that should join.\n*16|<!-- [doc->REQ-SKILL-SUBNET] -->\n\nShowing files 1-20 of 70+. Use skip=20 for the next page, or narrow 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C:/Users/decid/AppData/Local/spt-core/adapters/_github/\n\n## BigscreenVR-omp-spt/\n### manifest.toml\n   81│# \"replies arrive automatically; never arm a Monitor\" wording was spt-hosted-only; for a HARNESS-hosted\n  *82│# live agent the agent's OWN `spt api listen` relay IS the delivery pipe. messaging-perch.md now\n  *83│# distinguishes the hosting modes and says \"do not arm an EXTRA Monitor\" (preserving the primary relay).\n   84│# 0.10.0 (2026-07-01): the DIGEST-FETCHER cut — consumes spt-core v0.19.0 (counter 38, #17). [digest]\n   85│# flips to strategy=\"fetcher\": the extractor now LOCATES + reads + emits itself (spt-core runs it\n   86│# bounded, no pre-read, no `source` pre-resolve), fed only harness-NEUTRAL fills ({session_id} + the\n     │...\n   92│# self_id took the FIRST LINE of `spt whoami` HUMAN output; the current human view is a grouped\n  *93│# roster (\"SUBNET <name>\" header first on any subnet-member node, \"SELF: <id> …\" when perched), so\n  *94│# SessionStart crowned an agent \"SUBNET SPT_DEV\" and the brief's don't-run-whoami instruction made\n   95│# the wrong identity self-reinforce. Fix: `spt whoami --json` → .self.id (null ⇒ no-perch; parse\n   96│# failure ⇒ empty, NEVER a roster line). --json is a v0.16.0 global flag, under the 0.19.0 floor —\n   97│# no new seam, floor unchanged.\n     │...\n  163│# 0.13.4 (2026-07-04): PSYCHE POLL LOUD-FAIL (KH §2.6 second leg, doyle GO). The resident runner's\n *164│# per-pulse `spt ready <id> --once` misread a CONFIG refusal (canonically the multi-subnet home\n *165│# guard's READY_FAIL — the daemon fills carry no subnet, core seam/F-017 sibling, folds into F-030)\n  166│# as \"perch gone\" and exited 0 SILENTLY → the daemon rehosted it ~every 5s forever (hall-bf field\n  167│# case, ordinal 6491, invisible). A READY_FAIL-marked poll failure now dies LOUD + NONZERO\n  168│# (PSYCHE_POLL_FAIL, exit 4) so psyche_host_error stamps a real fault; normal perch-close stays the\n *169│# quiet lifecycle exit. Residency on multi-subnet homes stays broken until the core seam — this\n  170│# makes it VISIBLE, not fixed. Binary-only; floor stays 0.23.0.\n  171│# 0.14.0 (2026-07-04): the PSYCHE EPHEMERAL redesign — adapter half of the joint F-030 wave\n  172│# (PSYCHE-EPHEMERAL-PLAN.md; doyle W1/W2 psyche-turn contract FREEZE 944a74b0 + evidence answers).\n     │...\n  182│# retires the resident poll (v0.13.4's PSYCHE_POLL_FAIL leg is subsumed — no loop to guard) and\n *183│# dissolves the multi-subnet residency-churn class BY DESIGN. [session.psyche_init] survives ONLY as\n  184│# the live-capability GATE (never spawned). FLOOR BUMPS to the F-030 core release (min_spt_core\n  185│# below): no current core drives per-event psyche_resume, so this release TRAILS F-030 — PUBLISH\n  186│# HOLDS until that core lands + a live-verify window (do NOT tag from a HEAD carrying this until the\n     │...\n  202│# catalog never included psyche_dir (freeze fills {id, session_id, parent_session_id,\n *203│# psyche_context_file, node, subnet}; core runtime.rs:65 \"a catalog key must have a real fill\") —\n  204│# so EVERY psyche turn on a 0.25.0 driver faulted at substitution before spawn (flynn: psyche dead,\n  205│# \"no value for substitution key {psyche_dir}\", 3x consecutive, psyche_host_error stamped). Fix:\n  206│# cwd templates + psyche_dir keys REMOVED from psyche_init + psyche_resume; the SHIM now chdirs to\n     │...\n  619│# never carried (doyle P-1 verdict 2026-07-06, runtime.rs:65 \"a catalog key must have a real fill\";\n *620│# the freeze fills exactly {id, session_id, parent_session_id, psyche_context_file, node, subnet}).\n  621│# Referencing it faulted EVERY per-event turn at substitution (flynn's dead psyche). The psyche cwd\n  622│# is now the SHIM's job: it chdirs to the {psyche_context_file} parent dir (the psyche's nested\n  623│# perch dir — the same location the retired fill pointed at) before spawning claude, keeping the\n     │...\n  953│force-stop = { file = \"skills/force-stop.md\" } # -> spt endpoint shutdown (graceful, tears down Psyche)\n *954│subnet = { file = \"skills/subnet.md\" }         # -> spt subnet {status,create,show-code,join} (cross-machine); REQ-SKILL-SUBNET\n  955│# `send` / `commune` / `signoff` are NOT injected here — but NOT because their prose lives in the\n  956│# plugin SKILL.md (it no longer does; U4/REQ-DIST-SKELETON-THIN thinned those to stubs, 2026-06-25,\n  957│# superseding the 2026-06-19 full-fat-SKILL.md decision). The reason they aren't UPS skills stands: a\n     │...\n  965│# ([session.psyche_init] in base), so going live is just the COMMAND — bare `spt api listen <id>` under\n *966│# a Monitor relay. The live listen path stamps the perch state=live_agent → the daemon livehost hosts\n  967│# the Psyche (livehost.rs:282 gates on live_agent state, doyle). No `:live` composite, no --adapter.\n *968│live = { file = \"skills/live.md\" }             # -> bare `spt api listen <id>` + Monitor relay (LiveAgent)\n  969│# `new-alarm` -> EXPLICIT OUT OF SCOPE for v1: no core `spt` alarm/timed-pulse primitive exists\n  970│# (legacy $LIVE TIMED PULSE is owl/Psyche-layer, not lifted into core; adapters don't add core\n  971│# features). doyle carries a parity-gap finding to mint a core deferred-pulse primitive; the skill\n     │...\n 1004│[[hints]]\n*1005│keywords = [\"another machine\", \"pair machine\", \"across machines\", \"subnet\", \"join my network\"]\n*1006│text = \"Tip: /omps:subnet pairs machines into a private network so agents reach each other across nodes.\"\n 1007│\n 1008│[[hints]]\n 1009│keywords = [\"checkpoint\", \"compact my context\", \"context is getting long\", \"clear and continue\", \"self clear\"]\n\n### strings/\n\n#### briefs/\n##### messaging-no-perch.md\n*1│You can reach other spt agents on this node's subnet without readying a perch (the body is read from stdin):\n 2│\n 3│- Send and wait for a reply: `printf '%s' \"<body>\" | spt ring <target> --timeout 60` (the reply prints to stdout; `TIMEOUT` is exit 0 — the message still landed).\n 4│- To RECEIVE messages yourself, run /omps:ready (or /omps:live for a live session).\n##### messaging-perch.md\n 4│- Reply: `printf '%s' \"<body>\" | spt send <sender>` (sender = the `from` on the EVENT you received).\n*5│- After you send, just continue. The reply (if any) arrives the SAME way every inbound message reaches you — through the delivery channel you already have (your existing live relay if you are a live agent, or the broker if this session is spt-hosted, or your next turn's inbound drain). You do NOT need to set up anything NEW: do not arm an EXTRA Monitor/poll/tail just to wait for this one reply (and do not tear down the relay you are already running).\n 6│\n 7│Shortform (no shell tool) — embed a tag in your OWN reply text and the adapter sends it for you:\n 8│\n\n#### skills/\n##### list-agents.md\n 4│\n*5│1. `spt endpoint list` (or bare `spt endpoint`) — every member subnet's endpoints, grouped, with this\n 6│   session's own pinned at the top.\n 7│2. Summarize who's online and which is this session. Message one with `/omps:send <id>`.\n 8│\n##### live.md\n 21│- **Normal session** (you launched this CC yourself, no pre-bound perch). Do the full bringup below,\n*22│  **including step 2** — the resident Monitor relay IS your one delivery pipe.\n 23│\n 24│1. **Pick the perch id.** Use a short lowercase id from the user, or the id you already know for this\n 25│   session (from your SessionStart identity brief, if present). Call it `<id>`. Only fall back to\n   │...\n 28│2. **(Normal sessions only — an spt-hosted session skips this; see the substrate branch above.)**\n*29│   **Run the relay as a single PERSISTENT background task** via the **Monitor** tool. One resident\n 30│   process IS the live delivery pipe. The body is one bare command:\n 31│\n 32│   ### Invocation (Monitor)\n   │...\n 41│   - It **blocks for the session's life**: backlog drains first, then each delivery streams to stdout.\n*42│3. **Readiness.** The relay output will show `BOUND:<id>`, then `READY:<id>`. Check it only if\n 43│   connectivity complications are encountered.\n 44│4. **Reply.** Inbound messages — including replies to messages YOU send — arrive as\n 45│   `<EVENT type=\"msg\" from=\"<sender>\">body</EVENT>` (body HTML-escaped, newlines `<br>`) on THIS ONE\n*46│   relay you started in step 2. To reply, pipe the message body as stdin to `spt send <sender-id>`,\n*47│   then continue. Do NOT arm a SECOND Monitor/poll to wait for a reply — your relay already delivers it.\n 48│5. **Across boundaries — commune + signoff (you are live now, so these apply to you).** Going live in\n 49│   this session does NOT re-fire your SessionStart brief, so here are the mechanics:\n 50│   - **Commune** after a significant body of work, before a `/clear`/`/compact`: write\n   │...\n 61│\n*62│The relay emits machine markers (`BOUND:<id>`, `READY:<id>`, raw tokens). **Read them to drive\n 63│bringup; never echo them to the user.** The only user-facing surface is the LIVE block below — emit\n 64│it verbatim (substituting `<id>`), and nothing else from bringup:\n 65│\n##### setup.md\n 48│\n*49│5. **Subnet onboarding (optional).** A subnet is the private group of paired machines that makes\n 50│   `/omps:send`, `/omps:ready`, and live agents work cross-machine (local use needs none). Check\n*51│   `spt subnet status`:\n*52│   - In a subnet → invite a machine with `spt subnet show-code`; on the joiner, `spt subnet join`.\n*53│   - Not in one → offer **create** (`spt subnet create` — this node becomes seed-holder) or **join**\n*54│     (`spt subnet join`). Full verb guidance → **/omps:subnet**.\n 55│   - **Elevation:** create/join/show-code are OS-elevation-gated — Windows: elevated (UAC) shell;\n 56│     Linux desktop: pkexec/polkit or sudo terminal; Linux TTY: inline sudo; headless: print the exact\n 57│     command for the user to run elevated.\n*58│   <!-- [doc->REQ-SETUP-SUBNET] -->\n 59│\n 60│Idempotent and safe to re-run — the same bootstrap + activation the SessionStart hook performs.\n##### subnet.md\n *1│# /omps:subnet — operative instructions\n  2│\n *3│Manage this machine's **subnet** — the private group of paired machines whose agents reach each other\n  4│across nodes. Cross-machine `/omps:send` and live agents depend on it.\n  5│\n *6│Match the user's intent to a verb (full guidance: `spt how-to subnet`, or `spt subnet --help`):\n  7│\n *8│- **Where I stand:** `spt subnet status` (or bare `spt subnet`).\n *9│- **Start a new subnet** (this machine = first node): `spt subnet create` — prints the 6-digit code\n 10│  + URI + QR.\n*11│- **Invite a machine:** `spt subnet show-code` — re-displays the current code.\n*12│- **Join an existing one:** `spt subnet join` — needs the code from a current member.\n 13│\n*14│Pairing: on A run `create` (or `show-code`) → read the code → on B run `join` with it → `spt subnet\n 15│status` on both to confirm. Pairing codes are sensitive — share only with machines that should join.\n*16│<!-- [doc->REQ-SKILL-SUBNET] -->\n\n## SaberMage-claude-spt/\n### manifest.toml\n   75│# \"replies arrive automatically; never arm a Monitor\" wording was spt-hosted-only; for a HARNESS-hosted\n  *76│# live agent the agent's OWN `spt api listen` relay IS the delivery pipe. messaging-perch.md now\n  *77│# distinguishes the hosting modes and says \"do not arm an EXTRA Monitor\" (preserving the primary relay).\n   78│# 0.10.0 (2026-07-01): the DIGEST-FETCHER cut — consumes spt-core v0.19.0 (counter 38, #17). [digest]\n   79│# flips to strategy=\"fetcher\": the extractor now LOCATES + reads + emits itself (spt-core runs it\n   80│# bounded, no pre-read, no `source` pre-resolve), fed only harness-NEUTRAL fills ({session_id} + the\n     │...\n   86│# self_id took the FIRST LINE of `spt whoami` HUMAN output; the current human view is a grouped\n  *87│# roster (\"SUBNET <name>\" header first on any subnet-member node, \"SELF: <id> …\" when perched), so\n  *88│# SessionStart crowned an agent \"SUBNET SPT_DEV\" and the brief's don't-run-whoami instruction made\n   89│# the wrong identity self-reinforce. Fix: `spt whoami --json` → .self.id (null ⇒ no-perch; parse\n   90│# failure ⇒ empty, NEVER a roster line). --json is a v0.16.0 global flag, under the 0.19.0 floor —\n   91│# no new seam, floor unchanged.\n     │...\n  157│# 0.13.4 (2026-07-04): PSYCHE POLL LOUD-FAIL (KH §2.6 second leg, doyle GO). The resident runner's\n *158│# per-pulse `spt ready <id> --once` misread a CONFIG refusal (canonically the multi-subnet home\n *159│# guard's READY_FAIL — the daemon fills carry no subnet, core seam/F-017 sibling, folds into F-030)\n  160│# as \"perch gone\" and exited 0 SILENTLY → the daemon rehosted it ~every 5s forever (hall-bf field\n  161│# case, ordinal 6491, invisible). A READY_FAIL-marked poll failure now dies LOUD + NONZERO\n  162│# (PSYCHE_POLL_FAIL, exit 4) so psyche_host_error stamps a real fault; normal perch-close stays the\n *163│# quiet lifecycle exit. Residency on multi-subnet homes stays broken until the core seam — this\n  164│# makes it VISIBLE, not fixed. Binary-only; floor stays 0.23.0.\n  165│# 0.14.0 (2026-07-04): the PSYCHE EPHEMERAL redesign — adapter half of the joint F-030 wave\n  166│# (PSYCHE-EPHEMERAL-PLAN.md; doyle W1/W2 psyche-turn contract FREEZE 944a74b0 + evidence answers).\n     │...\n  176│# retires the resident poll (v0.13.4's PSYCHE_POLL_FAIL leg is subsumed — no loop to guard) and\n *177│# dissolves the multi-subnet residency-churn class BY DESIGN. [session.psyche_init] survives ONLY as\n  178│# the live-capability GATE (never spawned). FLOOR BUMPS to the F-030 core release (min_spt_core\n  179│# below): no current core drives per-event psyche_resume, so this release TRAILS F-030 — PUBLISH\n  180│# HOLDS until that core lands + a live-verify window (do NOT tag from a HEAD carrying this until the\n     │...\n  196│# catalog never included psyche_dir (freeze fills {id, session_id, parent_session_id,\n *197│# psyche_context_file, node, subnet}; core runtime.rs:65 \"a catalog key must have a real fill\") —\n  198│# so EVERY psyche turn on a 0.25.0 driver faulted at substitution before spawn (flynn: psyche dead,\n  199│# \"no value for substitution key {psyche_dir}\", 3x consecutive, psyche_host_error stamped). Fix:\n  200│# cwd templates + psyche_dir keys REMOVED from psyche_init + psyche_resume; the SHIM now chdirs to\n     │...\n  408│# --pid $SPT_HOST_PID --session-id $OWL_SESSION_ID && spt api --adapter claude-spt listen <id>\n *409│# --parent-pid $SPT_HOST_PID` (+ --subnet guidance for multi-subnet nodes) — and SessionStart now\n  410│# exports SPT_HOST_PID (the claude.exe anchor = dispatch's --host-pid) into the session env (inherited\n  411│# by Monitor children). All prescribed CLI verified against published harness-contract/api.md (seed\n *412│# --pid/--session-id, group --adapter, listen --parent-pid/--subnet all documented). Three CORE legs\n  413│# (CLI hint, seed-consumed-on-refusal, seed-liveness) + a seed-contract DOC GAP filed to doyle (F-034);\n  414│# adapter fix is the immediate mitigation (always re-seeds atomically). REQ-SKILL-LIVE. Floor 0.27.0.\n  415│# 0.18.3 (2026-07-09): follow-up to v0.18.2 from hertz's re-verify (PASS, one bug). SPT_HOST_PID was\n     │...\n  419│# it (loud log) so the skill fallback engages; (2) harden live.md's fallback to distrust a bogus `1`,\n *420│# not just empty; (3) hertz polish — pre-empt HOME_REFUSED by checking `spt subnet status` first on a\n *421│# multi-subnet node. Deep follow-up TRACKED (mine, not core): resolve the real claude WINPID for\n  422│# host_pid (also heals the SessionStart seed anchor, which the same $PPID=1 mis-anchors). REQ-SKILL-LIVE.\n  423│# 0.18.4 (2026-07-09): /sptc:live bringup ergonomics (operator ask). (1) UPS now injects a\n *424│# `<sptc_live_bringup>` block — `spt endpoint list --show-all` (SELF status + \"Shared subnets: …\" +\n  425│# every endpoint's state) — on any `/sptc:live` or bare `/live` turn, so the agent reads the bringup\n  426│# condition at a glance (id exists / already-ONLINE / absent). (2) live.md step 1 branches on that\n *427│# roster and, for a first-time bringup on a MULTI-SUBNET node, asks the user which subnet (--subnet;\n  428│# core does not guess). (3) live.md step 3 now loads the resume context post-READY —\n  429│# `psyche-download <id> --session-id $OWL_SESSION_ID` — because a harness-hosted go-live does NOT\n  430│# auto-run the SessionStart resume download (a returning live agent otherwise got no durable context);\n     │...\n  469│# bodies park adapter-side and inject on the stub turn; msg park drains on EVERY UPS + PreToolUse\n *470│# (busy-race no-stall); digest surfaces relay frames + collapses stub turns + filters transcript\n  471│# noise. Binary-only behavior; no new spt-core seam → floor unchanged (0.27.0).\n  472│# REQ-STUB-MSG-DELIVERY / REQ-STUB-WAKE / REQ-STUB-PARK-NO-STALL / REQ-STUB-FULL-INJECT-OVERRIDE /\n *473│# REQ-DIGEST-RELAY-SURFACE / REQ-DIGEST-NOISE-FILTER. Field-verified live pre-cut (plan gate).\n  474│#\n  475│# 0.20.1 (2026-07-10): [update] transport=\"gh\" (repo went private — published Transport contract,\n  476│# REQ-ADAPTER-GH-TRANSPORT; nodes need gh installed+authed with repo read access) + env-file lines\n     │...\n  713│# never carried (doyle P-1 verdict 2026-07-06, runtime.rs:65 \"a catalog key must have a real fill\";\n *714│# the freeze fills exactly {id, session_id, parent_session_id, psyche_context_file, node, subnet}).\n  715│# Referencing it faulted EVERY per-event turn at substitution (flynn's dead psyche). The psyche cwd\n  716│# is now the SHIM's job: it chdirs to the {psyche_context_file} parent dir (the psyche's nested\n  717│# perch dir — the same location the retired fill pointed at) before spawning claude, keeping the\n     │...\n 1068│force-stop = { file = \"skills/force-stop.md\" } # -> spt endpoint shutdown (graceful, tears down Psyche)\n*1069│subnet = { file = \"skills/subnet.md\" }         # -> spt subnet {status,create,show-code,join} (cross-machine); REQ-SKILL-SUBNET\n 1070│role = { file = \"skills/role.md\" }             # -> spt endpoint role [--overwrite] + description (agent-mediated edit; mode-A round-trip is hook/translate-driven); REQ-ROLE-EDIT-ROUNDTRIP\n 1071│# `send` / `commune` / `signoff` are NOT injected here — but NOT because their prose lives in the\n 1072│# plugin SKILL.md (it no longer does; U4/REQ-DIST-SKELETON-THIN thinned those to stubs, 2026-06-25,\n     │...\n 1081│# ([session.psyche_init] in base), so going live is just the COMMAND — bare `spt api listen <id>` under\n*1082│# a Monitor relay. The live listen path stamps the perch state=live_agent → the daemon livehost hosts\n 1083│# the Psyche (livehost.rs:282 gates on live_agent state, doyle). No `:live` composite, no --adapter.\n\n### strings/\n\n#### briefs/\n##### messaging-no-perch.md\n*1│You can reach other spt agents on this node's subnet without readying a perch (the body is read from stdin):\n 2│\n 3│- Send and wait for a reply: `printf '%s' \"<body>\" | spt ring <target> --timeout 60` (the reply prints to stdout; `TIMEOUT` is exit 0 — the message still landed).\n 4│- To RECEIVE messages yourself, run /sptc:ready (or /sptc:live for a live session).\n##### messaging-perch.md\n 4│- Reply: `printf '%s' \"<body>\" | spt send <sender>` (sender = the `from` on the EVENT you received).\n*5│- After you send, just continue. The reply (if any) arrives the SAME way every inbound message reaches you — through the delivery channel you already have (your existing live relay if you are a live agent, or the broker if this session is spt-hosted, or your next turn's inbound drain). You do NOT need to set up anything NEW: do not arm an EXTRA Monitor/poll/tail just to wait for this one reply (and do not tear down the relay you are already running).\n 6│\n 7│Shortform — embed a tag in your OWN reply text and the adapter sends it for you (no shell tool needed):\n 8│\n\n#### skills/\n##### list-agents.md\n 4│\n*5│1. `spt endpoint list` (or bare `spt endpoint`) — every member subnet's endpoints, grouped, with this\n 6│   session's own pinned at the top.\n 7│2. Summarize who's online and which is this session. Message one with `/sptc:send <id>`.\n 8│\n##### live.md\n  21│- **Normal session** (you launched this CC yourself, no pre-bound perch). Do the full bringup below,\n *22│  **including step 2** — the resident Monitor relay IS your one delivery pipe.\n  23│\n  24│1. **Pick the perch id + read the bringup conditions.** Use a short lowercase id from the user, or the\n  25│   id you already know for this session (from your SessionStart identity brief, if present). Call it\n    │...\n  28│   **This turn the adapter injected a `<sptc_live_bringup>` block** — the node's `spt endpoint list\n *29│   --show-all` (SELF, `Shared subnets: …`, and every endpoint's state). Read it to branch:\n  30│   - **`<id>` already listed + `ONLINE`** → it is already live; do NOT re-bring-up. Confirm and stop.\n  31│   - **`<id>` listed but `OFFLINE`** → you are reviving an existing endpoint; proceed to step 2.\n *32│   - **`<id>` ABSENT** → first-time bringup. If `Shared subnets:` lists **more than one** subnet, the\n *33│     new endpoint's home must be chosen — **ASK the user which subnet** (core does not guess) and pass\n *34│     it as `--subnet <name>` in step 2. A single-subnet node needs no `--subnet`.\n  35│2. **(Normal sessions only — an spt-hosted session skips this; see the substrate branch above.)**\n *36│   **Run the relay as a single PERSISTENT background task** via the **Monitor** tool. One resident\n  37│   process IS the live delivery pipe.\n  38│\n  39│   ### Invocation (Monitor)\n  40│\n *41│   The Monitor tool launches the relay under a `bash.exe` child whose pid breaks two by-pid\n  42│   resolutions, so the bare `spt api listen <id>` FAILS on a normal session. Use the robust chained\n  43│   form — every delta is load-bearing:\n  44│\n    │...\n  64│\n *65│   **Multi-subnet node:** `listen` refuses `HOME_REFUSED: this node holds N subnets (…)` without a\n *66│   `--subnet` (core does not guess the home). To skip that retry, run `spt subnet status` FIRST and put\n *67│   `--subnet <name>` in the initial command. If you do hit `HOME_REFUSED`, append `--subnet <name>` and\n  68│   re-run the WHOLE chained command (the refusal burns the seed, so the chain's re-seed is required).\n *69│   Single-subnet nodes need no `--subnet`.\n  70│\n  71│   - `spt api listen` enters the poll loop inline; the stream stays alive across messages and emits\n  72│   one `<EVENT type=\"msg|alarm|echo_commune|init_signoff\" ...>body</EVENT>` line per delivery.\n  73│   - It **blocks for the session's life**: backlog drains first, then each delivery streams to stdout.\n *74│3. **Readiness, then load your resume context.** The relay output will show `SEEDED:<pid>`, then\n  75│   `BOUND:<id>`, then `READY:<id>` (check it only if connectivity complications arise). **Once `READY`,\n  76│   pull your durable resume context** — going live in a harness-hosted session does NOT auto-run the\n  77│   SessionStart resume download, so load it yourself now:\n    │...\n  87│   `<EVENT type=\"msg\" from=\"<sender>\">body</EVENT>` (body HTML-escaped, newlines `<br>`) on THIS ONE\n *88│   relay you started in step 2. To reply, pipe the message body as stdin to `spt send <sender-id>`,\n *89│   then continue. Do NOT arm a SECOND Monitor/poll to wait for a reply — your relay already delivers it.\n  90│5. **Across boundaries — commune + signoff (you are live now, so these apply to you).** Going live in\n  91│   this session does NOT re-fire your SessionStart brief, so here are the mechanics:\n  92│   - **Commune** after a significant body of work, before a `/clear`/`/compact`: write\n    │...\n 108│\n*109│The relay emits machine markers (`BOUND:<id>`, `READY:<id>`, raw tokens). **Read them to drive\n 110│bringup; never echo them to the user.** The only user-facing surface is the LIVE block below — emit\n 111│it verbatim (substituting `<id>`), and nothing else from bringup:\n 112│\n##### setup.md\n 48│\n*49│5. **Subnet onboarding (optional).** A subnet is the private group of paired machines that makes\n 50│   `/sptc:send`, `/sptc:ready`, and live agents work cross-machine (local use needs none). Check\n*51│   `spt subnet status`:\n*52│   - In a subnet → invite a machine with `spt subnet show-code`; on the joiner, `spt subnet join`.\n*53│   - Not in one → offer **create** (`spt subnet create` — this node becomes seed-holder) or **join**\n*54│     (`spt subnet join`). Full verb guidance → **/sptc:subnet**.\n 55│   - **Elevation:** create/join/show-code are OS-elevation-gated — Windows: elevated (UAC) shell;\n 56│     Linux desktop: pkexec/polkit or sudo terminal; Linux TTY: inline sudo; headless: print the exact\n 57│     command for the user to run elevated.\n*58│   <!-- [doc->REQ-SETUP-SUBNET] -->\n 59│\n 60│Idempotent and safe to re-run — the same bootstrap + activation the SessionStart hook performs.\n##### subnet.md\n *1│# /sptc:subnet — operative instructions\n  2│\n *3│Manage this machine's **subnet** — the private group of paired machines whose agents reach each other\n  4│across nodes. Cross-machine `/sptc:send` and live agents depend on it.\n  5│\n *6│Match the user's intent to a verb (full guidance: `spt how-to subnet`, or `spt subnet --help`):\n  7│\n *8│- **Where I stand:** `spt subnet status` (or bare `spt subnet`).\n *9│- **Start a new subnet** (this machine = first node): `spt subnet create` — prints the 6-digit code\n 10│  + URI + QR.\n*11│- **Invite a machine:** `spt subnet show-code` — re-displays the current code.\n*12│- **Join an existing one:** `spt subnet join` — needs the code from a current member.\n 13│\n*14│Pairing: on A run `create` (or `show-code`) → read the code → on B run `join` with it → `spt subnet\n 15│status` on both to confirm. Pairing codes are sensitive — share only with machines that should join.\n*16│<!-- [doc->REQ-SKILL-SUBNET] -->\n\n## SaberMage-spt-claude-code/\n### manifest.toml\n 471│force-stop = { file = \"skills/force-stop.md\" } # -> spt endpoint shutdown (graceful, tears down Psyche)\n*472│subnet = { file = \"skills/subnet.md\" }         # -> spt subnet {status,create,show-code,join} (cross-machine); REQ-SKILL-SUBNET\n 473│# `send` / `commune` / `signoff` are NOT injected here — but NOT because their prose lives in the\n 474│# plugin SKILL.md (it no longer does; U4/REQ-DIST-SKELETON-THIN thinned those to stubs, 2026-06-25,\n 475│# superseding the 2026-06-19 full-fat-SKILL.md decision). The reason they aren't UPS skills stands: a\n    │...\n 483│# ([session.psyche_init] in base), so going live is just the COMMAND — bare `spt api listen <id>` under\n*484│# a Monitor relay. The live listen path stamps the perch state=live_agent → the daemon livehost hosts\n 485│# the Psyche (livehost.rs:282 gates on live_agent state, doyle). No `:live` composite, no --adapter.\n*486│live = { file = \"skills/live.md\" }             # -> bare `spt api listen <id>` + Monitor relay (LiveAgent)\n 487│# `new-alarm` -> EXPLICIT OUT OF SCOPE for v1: no core `spt` alarm/timed-pulse primitive exists\n 488│# (legacy $LIVE TIMED PULSE is owl/Psyche-layer, not lifted into core; adapters don't add core\n 489│# features). doyle carries a parity-gap finding to mint a core deferred-pulse primitive; the skill\n    │...\n 522│[[hints]]\n*523│keywords = [\"another machine\", \"pair machine\", \"across machines\", \"subnet\", \"join my network\"]\n*524│text = \"Tip: /sptc:subnet pairs machines into a private network so agents reach each other across nodes.\"\n 525│\n 526│[[hints]]\n 527│keywords = [\"checkpoint\", \"compact my context\", \"context is getting long\", \"clear and continue\", \"self clear\"]\n\n### strings/\n\n#### briefs/\n##### messaging-no-perch.md\n*1│You can reach other spt agents on this node's subnet without readying a perch (the body is read from stdin):\n 2│\n 3│- Send and wait for a reply: `printf '%s' \"<body>\" | spt ring <target> --timeout 60` (the reply prints to stdout; `TIMEOUT` is exit 0 — the message still landed).\n 4│- To RECEIVE messages yourself, run /sptc:ready (or /sptc:live for a live session).\n\n#### skills/\n##### list-agents.md\n 4│\n*5│1. `spt endpoint list` (or bare `spt endpoint`) — every member subnet's endpoints, grouped, with this\n 6│   session's own pinned at the top.\n 7│2. Summarize who's online and which is this session. Message one with `/sptc:send <id>`.\n 8│\n##### live.md\n 10│   `spt whoami`. Call it `<id>`. SessionStart already seeded this session's perch — do not re-seed.\n*11│2. **Run the relay as a single PERSISTENT background task** via the **Monitor** tool. One resident\n 12│   process IS the live delivery pipe. The body is one bare command:\n 13│\n 14│   ### Invocation (Monitor)\n   │...\n 23│   - It **blocks for the session's life**: backlog drains first, then each delivery streams to stdout.\n*24│3. **Readiness.** The relay output will show `BOUND:<id>`, then `READY:<id>`. Check it only if\n 25│   connectivity complications are encountered.\n 26│4. **Reply.** Inbound messages arrive as `<EVENT type=\"msg\" from=\"<sender>\">body</EVENT>` (body\n 27│   HTML-escaped, newlines `<br>`). To reply, pipe the message body as stdin to `spt send <sender-id>`.\n   │...\n 41│\n*42│The relay emits machine markers (`BOUND:<id>`, `READY:<id>`, raw tokens). **Read them to drive\n 43│bringup; never echo them to the user.** The only user-facing surface is the LIVE block below — emit\n 44│it verbatim (substituting `<id>`), and nothing else from bringup:\n 45│\n##### setup.md\n 48│\n*49│5. **Subnet onboarding (optional).** A subnet is the private group of paired machines that makes\n 50│   `/sptc:send`, `/sptc:ready`, and live agents work cross-machine (local use needs none). Check\n*51│   `spt subnet status`:\n*52│   - In a subnet → invite a machine with `spt subnet show-code`; on the joiner, `spt subnet join`.\n*53│   - Not in one → offer **create** (`spt subnet create` — this node becomes seed-holder) or **join**\n*54│     (`spt subnet join`). Full verb guidance → **/sptc:subnet**.\n 55│   - **Elevation:** create/join/show-code are OS-elevation-gated — Windows: elevated (UAC) shell;\n 56│     Linux desktop: pkexec/polkit or sudo terminal; Linux TTY: inline sudo; headless: print the exact\n 57│     command for the user to run elevated.\n*58│   <!-- [doc->REQ-SETUP-SUBNET] -->\n 59│\n 60│Idempotent and safe to re-run — the same bootstrap + activation the SessionStart hook performs.\n##### subnet.md\n *1│# /sptc:subnet — operative instructions\n  2│\n *3│Manage this machine's **subnet** — the private group of paired machines whose agents reach each other\n  4│across nodes. Cross-machine `/sptc:send` and live agents depend on it.\n  5│\n *6│Match the user's intent to a verb (full guidance: `spt how-to subnet`, or `spt subnet --help`):\n  7│\n *8│- **Where I stand:** `spt subnet status` (or bare `spt subnet`).\n *9│- **Start a new subnet** (this machine = first node): `spt subnet create` — prints the 6-digit code\n 10│  + URI + QR.\n*11│- **Invite a machine:** `spt subnet show-code` — re-displays the current code.\n*12│- **Join an existing one:** `spt subnet join` — needs the code from a current member.\n 13│\n*14│Pairing: on A run `create` (or `show-code`) → read the code → on B run `join` with it → `spt subnet\n 15│status` on both to confirm. Pairing codes are sensitive — share only with machines that should join.\n*16│<!-- [doc->REQ-SKILL-SUBNET] -->"},"isError":false,"timestamp":1784069107307}}
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   \"Ip\": \"192.168.1.12:61803\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857::6df]:61805\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857:bda6:5412:65fa:1322]:61805\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857:f862:2f27:bac2:2337]:61805\"\n          }\n        ]\n      },\n      \"last_seen\": \"1784012096\",\n      \"lease_epoch\": 446337\n    },\n    {\n      \"pubkey_hex\": \"39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1\",\n      \"subnet\": \"BIGNET\",\n      \"label\": \"ENLYZEAM\",\n      \"machine_id\": \"7db2d2d30778850d1fbe740d68d1f31d6fec69a11c1c19d47e26742bbce11574\",\n      \"address\": {\n        \"id\": \"39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1\",\n        \"addrs\": [\n          {\n            \"Relay\": \"https://usw1-1.relay.n0.iroh-canary.iroh.link./\"\n          },\n          {\n            \"Ip\": \"76.80.65.5:57900\"\n          },\n          {\n            \"Ip\": \"100.125.242.88:57900\"\n          },\n          {\n            \"Ip\": \"172.28.240.1:57900\"\n          },\n          {\n            \"Ip\": \"192.168.1.12:57900\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857::6df]:57902\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857:21fa:537d:863e:9b16]:57902\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857:f862:2f27:bac2:2337]:57902\"\n          }\n        ]\n      },\n      \"last_seen\": \"1783572729\",\n      \"lease_epoch\": 371215\n    },\n    {\n      \"pubkey_hex\": \"39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1\",\n      \"subnet\": \"SPT_DEV\",\n      \"label\": \"ENLYZEAM\",\n      \"machine_id\": \"7db2d2d30778850d1fbe740d68d1f31d6fec69a11c1c19d47e26742bbce11574\",\n      \"address\": {\n        \"id\": \"39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1\",\n        \"addrs\": [\n          {\n            \"Relay\": \"https://usw1-1.relay.n0.iroh-canary.iroh.link./\"\n          },\n          {\n            \"Ip\": \"76.80.65.5:57900\"\n          },\n          {\n            \"Ip\": \"100.125.242.88:57900\"\n          },\n          {\n            \"Ip\": \"172.28.240.1:57900\"\n          },\n          {\n            \"Ip\": \"192.168.1.12:57900\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857::6df]:57902\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857:21fa:537d:863e:9b16]:57902\"\n          },\n          {\n            \"Ip\": \"[2603:8000:a800:7857:f862:2f27:bac2:2337]:57902\"\n          }\n        ]\n      },\n      \"last_seen\": \"1783572729\",\n      \"lease_epoch\": 371215\n    },\n    {\n      \"pubkey_hex\": \"c8939d2f12b7488cf658a694b500f2da3ab32fa478dfe078557a862534baa573\",\n      \"subnet\": \"BIGNET\",\n      \"label\": \"GRAVITY-RUNNER\",\n      \"machine_id\": \"c507fc3b0804c21897e392d056d41694a6b2122e2ed3ad9b79f6b88bbf04d144\",\n      \"address\": {\n        \"id\": \"c8939d2f12b7488cf658a694b500f2da3ab32fa478dfe078557a862534baa573\",\n        \"addrs\": [\n          {\n            \"Relay\": \"https://usw1-1.relay.n0.iroh-canary.iroh.link./\"\n          },\n          {\n            \"Ip\": \"100.65.194.82:55908\"\n          },\n          {\n            \"Ip\": \"192.168.1.8:55908\"\n          }\n        ]\n      },\n      \"last_seen\": \"1784007760\",\n      \"lease_epoch\": 1130\n    }\n  ],\n  \"tombstones\": [\n    {\n      \"pubkey_hex\": \"39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1\",\n      \"subnet\": \"BIGNET\",\n      \"stamp\": \"1783983420\"\n    },\n    {\n      \"pubkey_hex\": \"39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1\",\n      \"subnet\": \"SPT_DEV\",\n      \"stamp\": \"1783983420\"\n    }\n  ]\n}","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295]},"meta":{"source":{"type":"path","value":"C:/Users/decid/AppData/Local/spt-core/identity/roster.json"}}},"isError":false,"timestamp":1784069121111}}
{"type":"message","id":"83beca42","parentId":"1d715370","timestamp":"2026-07-14T22:45:21.112Z","message":{"role":"toolResult","toolCallId":"call_EaloqFtrfwws2x8Zh8cdfGbl|fc_0b084cf0b521ab15016a56bc00ab1881908bcb2b579c410ff8","toolName":"read","content":[{"type":"text","text":"{\n  \"detached\": []\n}"}],"details":{"displayContent":{"text":"{\n  \"detached\": []\n}","startLine":1,"lineNumbers":[1,2,3]},"meta":{"source":{"type":"path","value":"C:/Users/decid/AppData/Local/spt-core/identity/attachment.json"}}},"isError":false,"timestamp":1784069121111}}
{"type":"message","id":"3fd1b86c","parentId":"83beca42","timestamp":"2026-07-14T22:45:21.112Z","message":{"role":"toolResult","toolCallId":"call_47RTH4XibOZRBa4wVp0i1vtu|fc_0b084cf0b521ab15016a56bc00ab5c8190993347c7eb31903f","toolName":"read","content":[{"type":"text","text":"1784069117875"}],"details":{"displayContent":{"text":"1784069117875","startLine":1,"lineNumbers":[1]},"meta":{"source":{"type":"path","value":"C:/Users/decid/AppData/Local/spt-core/identity/pump-heartbeat.json"}}},"isError":false,"timestamp":1784069121111}}
{"type":"message","id":"27574553","parentId":"3fd1b86c","timestamp":"2026-07-14T22:45:21.112Z","message":{"role":"toolResult","toolCallId":"call_O96dxBCnFSWhQsai0tvOxUbR|fc_0b084cf0b521ab15016a56bc00ab488190b67e4f37ff22a964","toolName":"read","content":[{"type":"text","text":"{\n  \"678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba\": 1783982614700,\n  \"c675b8980721ba50072009feaf87b3e1db0788669f48ab9141b85ce4ea95f886\": 1783982626855,\n  \"c8939d2f12b7488cf658a694b500f2da3ab32fa478dfe078557a862534baa573\": 1784008286121,\n  \"ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657\": 1784008794517,\n  \"f7afcc8292cbc441e8fe2002299cd37cde2a315e4073b47cee61c66f1473eda4\": 1783982654398\n}"}],"details":{"displayContent":{"text":"{\n  \"678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba\": 1783982614700,\n  \"c675b8980721ba50072009feaf87b3e1db0788669f48ab9141b85ce4ea95f886\": 1783982626855,\n  \"c8939d2f12b7488cf658a694b500f2da3ab32fa478dfe078557a862534baa573\": 1784008286121,\n  \"ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657\": 1784008794517,\n  \"f7afcc8292cbc441e8fe2002299cd37cde2a315e4073b47cee61c66f1473eda4\": 1783982654398\n}","startLine":1,"lineNumbers":[1,2,3,4,5,6,7]},"meta":{"source":{"type":"path","value":"C:/Users/decid/AppData/Local/spt-core/identity/registry/heard.meta"}}},"isError":false,"timestamp":1784069121112}}
{"type":"custom_message","customType":"irc:incoming","content":"<irc>\nIncoming IRC message from agent `IsolationLogRCA`:\n\nHF live anchors: logs/daemon.stderr.log.1 lines 1-10 generation1 brain up/net consumers then EN key ecb39... dial timeout, KITSUBITO cfd9... peer reply-read stalls entire pump -> PEER_PUMP_FAIL + supervised restart 10s. Lines 20-22 PAIR_MEET_UP for all 3 subnets uses fresh ephemeral meet keys, only HF IPs 100.68.35.65/192.168.1.81; lines 36-38 immediately EN current ecb39... + old 39c018... dial timeouts, recurring. line78 old EN key has 'No addressing information available'. Current log lines 1-11 starts update generation1 and immediately fails aea099..., EN current+old, KITSUBITO. identity/subnet.json has SPT_DEV seed 04d75f... and BIGNET f66208..., detached=[] in attachment.json. pump-heartbeat.json=1784069033136 (~2026-07-14 22:43:53Z current); pump-ops=25307. registry members last_seen HF 1784012120, EN current 1784012096; peer-addrs current EN ecb is stored under WRONG MAP KEY 5ff50e... and relay-only; old EN 39c has full addresses, tombstoned both subnets at 1783983420. visibility last observed ecb=1784008794517. Strongest state candidate: peer-addrs key/id mismatch causes current EN lookup miss/relay-only while status remains process/pump heartbeat green. No auth/key/signature errors found first 4MiB.\n\nAn agent sent this while you were waiting or working. Any active interruptible wait was stopped early so you can read it now.\n\nIf a response is expected, reply with the `irc` tool (`op: \"send\"`, `to: \"IsolationLogRCA\"`) — you may finish your current step first. Nobody replies on your behalf.\n</irc>","display":true,"details":{"id":"153000e218ee3651","from":"IsolationLogRCA","message":"HF live anchors: logs/daemon.stderr.log.1 lines 1-10 generation1 brain up/net consumers then EN key ecb39... dial timeout, KITSUBITO cfd9... peer reply-read stalls entire pump -> PEER_PUMP_FAIL + supervised restart 10s. Lines 20-22 PAIR_MEET_UP for all 3 subnets uses fresh ephemeral meet keys, only HF IPs 100.68.35.65/192.168.1.81; lines 36-38 immediately EN current ecb39... + old 39c018... dial timeouts, recurring. line78 old EN key has 'No addressing information available'. Current log lines 1-11 starts update generation1 and immediately fails aea099..., EN current+old, KITSUBITO. identity/subnet.json has SPT_DEV seed 04d75f... and BIGNET f66208..., detached=[] in attachment.json. pump-heartbeat.json=1784069033136 (~2026-07-14 22:43:53Z current); pump-ops=25307. registry members last_seen HF 1784012120, EN current 1784012096; peer-addrs current EN ecb is stored under WRONG MAP KEY 5ff50e... and relay-only; old EN 39c has full addresses, tombstoned both subnets at 1783983420. visibility last observed ecb=1784008794517. Strongest state candidate: peer-addrs key/id mismatch causes current EN lookup miss/relay-only while status remains process/pump heartbeat green. No auth/key/signature errors found first 4MiB."},"attribution":"agent","id":"c99d54cf","parentId":"27574553","timestamp":"2026-07-14T22:45:21.112Z"}
{"type":"message","id":"6f3bb8d4","parentId":"c99d54cf","timestamp":"2026-07-14T22:46:06.808Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Identifying peer-addrs mapping bug**\n\n**Analyzing inbound connection and seed-proof issues**\n\n**Confirming transport discovery and address mapping failure**"},{"type":"thinking","thinking":"**Assessing net_dial side effects**\n\n**Evaluating probe command side effects**\n\n**Analyzing seed-proof failure logs**"},{"type":"thinking","thinking":"**Analyzing node eviction and snapshot visibility**\n\n**Evaluating peer connectivity and version effects**"},{"type":"toolCall","id":"call_M89PiWdyJIqdGarTPZuCVdsL|fc_0b084cf0b521ab15016a56bc2de63081909d360c7c7678c2ff","name":"grep","arguments":{"i":"Locating pump start condition","pattern":"BRAIN_NET_CONSUMERS_UP|peer_pump|run_peer_pump_supervised|spawn.*pump|net enabled","path":"spt-core/crates/spt-daemon/src/brainproc.rs; 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peer-addrs mapping bug**"},{"type":"summary_text","text":"**Analyzing inbound connection and seed-proof issues**"},{"type":"summary_text","text":"**Confirming transport discovery and address mapping 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net_dial side effects**"},{"type":"summary_text","text":"**Evaluating probe command side effects**"},{"type":"summary_text","text":"**Analyzing seed-proof failure 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{"type":"message","id":"d094ea58","parentId":"3d6931aa","timestamp":"2026-07-14T22:46:06.813Z","message":{"role":"toolResult","toolCallId":"call_WmO0Z1M4fftU5vwgNyfzGysz|fc_0b084cf0b521ab15016a56bc2de9d88190a251f21c2183d5ee","toolName":"grep","content":[{"type":"text","text":" 107|    machine_id: Option<String>,\n*108|    /// When each peer node was last *heard* (an admitted inbound feed,\n 109|    /// wall-clock ms) — the gossip-recency half of the M7 D2 hybrid\n*110|    /// liveness (REQ-SUBNET-1): a recently-heard node renders online without\n 111|    /// a probe; only stale rows get dialed. Local-only (never on the wire);\n*112|    /// mirrored to `heard.meta` beside the snapshots for the CLI reader.\n*113|    heard: Mutex<BTreeMap<String, u64>>,\n 114|    regs: Mutex<BTreeMap<String, SubnetRegistry>>,\n 115|    /// The node's one durable monotonic counter (the D3b lease source) — the\n 116|    /// epoch on every locally-authored instance row.\n...\n 143|            machine_id: None,\n*144|            heard: Mutex::new(BTreeMap::new()),\n 145|            regs: Mutex::new(BTreeMap::new()),\n 146|            epoch: Mutex::new(epoch),\n 147|            snapshot_dir,\n...\n 282|        if admitted_any {\n*283|            self.heard\n 284|                .lock()\n 285|                .unwrap()\n 286|                .insert(origin_node.to_string(), wall_ms());\n 287|        }\n*288|        self.write_snapshots();\n 289|        (verdicts, flips)\n 290|    }\n 291|\n...\n 328|        if admitted_any {\n*329|            self.heard\n 330|                .lock()\n 331|                .unwrap()\n 332|                .insert(origin_node.to_string(), wall_ms());\n 333|        }\n*334|        self.write_snapshots();\n 335|        verdicts\n 336|    }\n 337|\n...\n 603|        drop(regs);\n*604|        self.write_snapshots();\n 605|        out\n 606|    }\n 607|\n 608|    /// Evict every registry row authored by a **silent** peer node\n*609|    /// (KNOWN-HAZARDS 4.10): a node not heard — no admitted inbound feed —\n 610|    /// within `ttl` has its rows removed from every subnet registry and the\n 611|    /// snapshots rewritten, so a dead node identity can no longer poison\n 612|    /// bare-id resolution with phantom ambiguity. Own rows never decay (this\n*613|    /// node authors them fresh each pump tick and is never in its own heard\n*614|    /// map). A row whose author has NO heard stamp is treated as silent —\n 615|    /// rows only enter via admitted feeds (which stamp) or `advertise_local`\n 616|    /// (own rows, excluded), so an unstamped foreign row is already an\n 617|    /// anomaly and fails toward eviction. A merely-offline peer reconverges\n...\n 620|    // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n*621|    pub fn evict_silent_peers(&self, ttl: std::time::Duration) -> usize {\n 622|        self.evict_silent_peers_at(ttl, wall_ms())\n 623|    }\n 624|\n...\n 627|    // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n*628|    pub fn evict_silent_peers_at(&self, ttl: std::time::Duration, now_ms: u64) -> usize {\n 629|        let ttl_ms = ttl.as_millis() as u64;\n*630|        let heard = self.heard.lock().unwrap();\n 631|        let silent = |node: &str| {\n 632|            node != self.node_hex\n*633|                && heard\n 634|                    .get(node)\n 635|                    .is_none_or(|&t| now_ms.saturating_sub(t) > ttl_ms)\n 636|        };\n...\n 639|        for (subnet, reg) in regs.iter_mut() {\n*640|            let n = reg.evict_nodes(silent);\n 641|            if n > 0 {\n 642|                eprintln!(\"REGISTRY_EVICT:{subnet}: {n} row(s) from silent node(s)\");\n 643|            }\n...\n 646|        drop(regs);\n*647|        drop(heard);\n 648|        if evicted > 0 {\n*649|            self.write_snapshots();\n 650|        }\n 651|        evicted\n 652|    }\n...\n 684|        if evicted > 0 {\n*685|            self.write_snapshots();\n 686|        }\n 687|        evicted\n 688|    }\n...\n 709|    /// that triggered it (readers tolerate staleness by contract).\n*710|    fn write_snapshots(&self) {\n 711|        let regs = self.regs.lock().unwrap();\n 712|        if regs.is_empty() {\n 713|            return;\n...\n 724|        drop(regs);\n*725|        // The heard-map mirror (M7 D2 hybrid liveness). `.meta`, not `.json`:\n 726|        // the snapshot reader globs `<subnet>.json`, so this can never shadow\n*727|        // a subnet (even one literally named \"heard\").\n*728|        let heard = self.heard.lock().unwrap();\n*729|        if !heard.is_empty() {\n*730|            if let Ok(json) = serde_json::to_vec_pretty(&*heard) {\n*731|                let _ = atomic_write(&Self::heard_path(&self.snapshot_dir), &json);\n 732|            }\n 733|        }\n 734|    }\n...\n 740|\n*741|    /// The heard-map mirror's path (the CLI reader's contract): `node hex →\n 742|    /// last admitted-feed wall ms`.\n 743|    // [impl->REQ-SUBNET-1]\n*744|    pub fn heard_path(dir: &Path) -> PathBuf {\n*745|        dir.join(\"heard.meta\")\n 746|    }\n 747|\n 748|    /// The re-pair eviction marker's path (M8 decision 13, REQ-SUBNET-7):\n...\n 752|    /// mirror). `.meta` for the same can't-shadow-a-subnet reason as the\n*753|    /// heard map.\n 754|    pub fn repair_evict_path(dir: &Path) -> PathBuf {\n 755|        dir.join(\"repair-evict.meta\")\n 756|    }\n...\n 759|    /// pattern — take is the remove): evict every noted identity's rows\n*760|    /// from the in-memory registries + the heard map, and rewrite the\n 761|    /// snapshots. No marker = no-op. Returns evicted row count.\n 762|    // [impl->REQ-SUBNET-7]\n 763|    pub fn consume_repair_evictions(&self) -> usize {\n...\n 774|        {\n*775|            let mut heard = self.heard.lock().unwrap();\n 776|            for hex in &dead {\n*777|                heard.remove(hex);\n 778|            }\n 779|        }\n 780|        let mut regs = self.regs.lock().unwrap();\n...\n 782|        for (subnet, reg) in regs.iter_mut() {\n*783|            let n = reg.evict_nodes(|node| dead.contains(node));\n 784|            if n > 0 {\n 785|                eprintln!(\"REPAIR_EVICT:{subnet}: {n} superseded row(s)\");\n 786|            }\n...\n 790|        if evicted > 0 {\n*791|            self.write_snapshots();\n 792|        }\n 793|        evicted\n 794|    }\n...\n 991|    }\n*992|    reg.evict_nodes(|node| dead.iter().any(|d| d == node));\n 993|    if let Ok(json) = serde_json::to_vec_pretty(&reg) {\n 994|        let _ = atomic_write(&snap_path, &json);\n 995|    }\n...\n 1039|\n*1040|/// Wall-clock ms (the heard-map stamp; display/recency only — never a merge\n 1041|/// key, the epoch lease owns ordering).\n 1042|fn wall_ms() -> u64 {\n 1043|    std::time::SystemTime::now()\n...\n 1276|    // without its rows, notes it in the marker; the host's consume then clears\n*1277|    // the in-memory rows + the heard entry. A no-match intro (and an intro\n 1278|    // with no machine id) evicts nothing and raises no notice.\n 1279|    #[test]\n 1280|    fn repair_evict_tombstones_roster_snapshot_and_notices() {\n...\n 1965|    // [unit->REQ-SUBNET-1] the gossip-recency half of hybrid liveness: an\n*1966|    // ADMITTED feed stamps the origin's heard-ms (even when the lease drops\n 1967|    // the row Stale — the sender still proved alive); a REFUSED feed stamps\n*1968|    // nothing; the mirror lands at heard.meta and parses back.\n 1969|    #[test]\n*1970|    fn admitted_feeds_stamp_the_heard_map() {\n 1971|        let dir = tempfile::tempdir().unwrap();\n 1972|        let h = host(dir.path());\n 1973|        let p = policy(\"home\", \"bb22\");\n...\n 1976|        h.apply_feed(\"cc33\", &[upd(\"home\", \"ling\", \"cc33\", 5)], &p);\n*1977|        assert!(!RegistryHost::heard_path(&dir.path().join(\"registry\")).exists());\n 1978|\n 1979|        // Admitted: stamped + mirrored.\n 1980|        h.apply_feed(\"bb22\", &[upd(\"home\", \"ling\", \"bb22\", 5)], &p);\n*1981|        let heard_file = RegistryHost::heard_path(&dir.path().join(\"registry\"));\n*1982|        let heard: BTreeMap<String, u64> =\n*1983|            serde_json::from_slice(&std::fs::read(&heard_file).expect(\"mirror written\")).unwrap();\n*1984|        let first = *heard.get(\"bb22\").expect(\"origin stamped\");\n 1985|        assert!(first > 0);\n 1986|        assert!(\n*1987|            !heard.contains_key(\"cc33\"),\n 1988|            \"refused origin earns no liveness credit\"\n 1989|        );\n 1990|\n...\n 1994|        assert_eq!(v, vec![RegistryApplyVerdict::Merged(MergeOutcome::Stale)]);\n*1995|        let heard: BTreeMap<String, u64> =\n*1996|            serde_json::from_slice(&std::fs::read(&heard_file).unwrap()).unwrap();\n 1997|        assert!(\n*1998|            *heard.get(\"bb22\").unwrap() > first,\n 1999|            \"stale merge still refreshes recency\"\n 2000|        );\n 2001|    }\n...\n 2003|    // [unit->REQ-HAZARD-REGISTRY-GHOST-ROWS] silent-peer eviction (4.10): a\n*2004|    // peer's rows survive while its heard stamp is inside the window\n*2005|    // (recently-heard = alive, no eviction) and evict once it falls silent\n 2006|    // past it — snapshots rewritten so the CLI reader (spt send's WAN\n 2007|    // resolution) stops seeing the ghost. Idempotent.\n 2008|    #[test]\n*2009|    fn evict_silent_peers_drops_unheard_rows_and_rewrites_snapshots() {\n 2010|        let dir = tempfile::tempdir().unwrap();\n 2011|        let h = host(dir.path()); // node_hex = \"aa11\"\n 2012|        let p = policy(\"home\", \"bb22\");\n 2013|\n*2014|        // The peer feeds (heard stamped at ~now)…\n 2015|        h.apply_feed(\"bb22\", &[upd(\"home\", \"sergey\", \"bb22\", 5)], &p);\n 2016|        let stamped = {\n*2017|            let heard: BTreeMap<String, u64> = serde_json::from_slice(\n*2018|                &std::fs::read(RegistryHost::heard_path(&dir.path().join(\"registry\"))).unwrap(),\n 2019|            )\n 2020|            .unwrap();\n*2021|            *heard.get(\"bb22\").unwrap()\n 2022|        };\n 2023|\n*2024|        // …and survives every sweep inside its window (a recently-heard peer\n 2025|        // is alive — eviction must not race a healthy node).\n 2026|        assert_eq!(\n 2027|            h.evict_silent_peers_at(std::time::Duration::from_secs(60), stamped),\n...\n 2068|    // [unit->REQ-HAZARD-REGISTRY-GHOST-ROWS] per-row Offline-TTL (trigger (b),\n*2069|    // #2-secondary): a peer that STAYS ALIVE (its heard stamp never lapses, so\n 2070|    // node-silence eviction never fires) but leaves an Offline ghost row (purge +\n 2071|    // ghost-heal re-advertise) has that row decay once it has been non-routable\n 2072|    // past the grace — snapshots rewritten so the remote viewer's count stops\n...\n 2107|    // [unit->REQ-HAZARD-REGISTRY-GHOST-ROWS] own rows NEVER decay: this node\n*2108|    // is not in its own heard map (it never feeds itself), yet its\n 2109|    // advertisements must survive every sweep — only PEER silence evicts.\n 2110|    #[test]\n*2111|    fn evict_silent_peers_never_touches_own_rows() {\n 2112|        with_home(|home| {\n 2113|            let owlery = home.join(\"owlery\");\n 2114|            let p = perch::resolve_perch_path_in(&owlery, \"mine\", ParentHint::Infer);\n...\n 2121|\n*2122|            let h = host(home); // node_hex = \"aa11\", never in heard\n 2123|            h.advertise_local(&owlery);\n 2124|            assert_eq!(h.rows(\"home\", \"mine\").len(), 1);\n 2125|"}],"details":{"scopePath":"spt-core/crates/spt-daemon/src/registryhost.rs","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\registryhost.rs","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":64,"fileCount":1,"files":["spt-core/crates/spt-daemon/src/registryhost.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/registryhost.rs","count":64}],"truncated":false,"displayContent":"  107│    machine_id: Option<String>,\n *108│    /// When each peer node was last *heard* (an admitted inbound feed,\n  109│    /// wall-clock ms) — the gossip-recency half of the M7 D2 hybrid\n *110│    /// liveness (REQ-SUBNET-1): a recently-heard node renders online without\n  111│    /// a probe; only stale rows get dialed. Local-only (never on the wire);\n *112│    /// mirrored to `heard.meta` beside the snapshots for the CLI reader.\n *113│    heard: Mutex<BTreeMap<String, u64>>,\n  114│    regs: Mutex<BTreeMap<String, SubnetRegistry>>,\n  115│    /// The node's one durable monotonic counter (the D3b lease source) — the\n  116│    /// epoch on every locally-authored instance row.\n     │...\n  143│            machine_id: None,\n *144│            heard: Mutex::new(BTreeMap::new()),\n  145│            regs: Mutex::new(BTreeMap::new()),\n  146│            epoch: Mutex::new(epoch),\n  147│            snapshot_dir,\n     │...\n  282│        if admitted_any {\n *283│            self.heard\n  284│                .lock()\n  285│                .unwrap()\n  286│                .insert(origin_node.to_string(), wall_ms());\n  287│        }\n *288│        self.write_snapshots();\n  289│        (verdicts, flips)\n  290│    }\n  291│\n     │...\n  328│        if admitted_any {\n *329│            self.heard\n  330│                .lock()\n  331│                .unwrap()\n  332│                .insert(origin_node.to_string(), wall_ms());\n  333│        }\n *334│        self.write_snapshots();\n  335│        verdicts\n  336│    }\n  337│\n     │...\n  603│        drop(regs);\n *604│        self.write_snapshots();\n  605│        out\n  606│    }\n  607│\n  608│    /// Evict every registry row authored by a **silent** peer node\n *609│    /// (KNOWN-HAZARDS 4.10): a node not heard — no admitted inbound feed —\n  610│    /// within `ttl` has its rows removed from every subnet registry and the\n  611│    /// snapshots rewritten, so a dead node identity can no longer poison\n  612│    /// bare-id resolution with phantom ambiguity. Own rows never decay (this\n *613│    /// node authors them fresh each pump tick and is never in its own heard\n *614│    /// map). A row whose author has NO heard stamp is treated as silent —\n  615│    /// rows only enter via admitted feeds (which stamp) or `advertise_local`\n  616│    /// (own rows, excluded), so an unstamped foreign row is already an\n  617│    /// anomaly and fails toward eviction. A merely-offline peer reconverges\n     │...\n  620│    // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n *621│    pub fn evict_silent_peers(&self, ttl: std::time::Duration) -> usize {\n  622│        self.evict_silent_peers_at(ttl, wall_ms())\n  623│    }\n  624│\n     │...\n  627│    // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n *628│    pub fn evict_silent_peers_at(&self, ttl: std::time::Duration, now_ms: u64) -> usize {\n  629│        let ttl_ms = ttl.as_millis() as u64;\n *630│        let heard = self.heard.lock().unwrap();\n  631│        let silent = |node: &str| {\n  632│            node != self.node_hex\n *633│                && heard\n  634│                    .get(node)\n  635│                    .is_none_or(|&t| now_ms.saturating_sub(t) > ttl_ms)\n  636│        };\n     │...\n  639│        for (subnet, reg) in regs.iter_mut() {\n *640│            let n = reg.evict_nodes(silent);\n  641│            if n > 0 {\n  642│                eprintln!(\"REGISTRY_EVICT:{subnet}: {n} row(s) from silent node(s)\");\n  643│            }\n     │...\n  646│        drop(regs);\n *647│        drop(heard);\n  648│        if evicted > 0 {\n *649│            self.write_snapshots();\n  650│        }\n  651│        evicted\n  652│    }\n     │...\n  684│        if evicted > 0 {\n *685│            self.write_snapshots();\n  686│        }\n  687│        evicted\n  688│    }\n     │...\n  709│    /// that triggered it (readers tolerate staleness by contract).\n *710│    fn write_snapshots(&self) {\n  711│        let regs = self.regs.lock().unwrap();\n  712│        if regs.is_empty() {\n  713│            return;\n     │...\n  724│        drop(regs);\n *725│        // The heard-map mirror (M7 D2 hybrid liveness). `.meta`, not `.json`:\n  726│        // the snapshot reader globs `<subnet>.json`, so this can never shadow\n *727│        // a subnet (even one literally named \"heard\").\n *728│        let heard = self.heard.lock().unwrap();\n *729│        if !heard.is_empty() {\n *730│            if let Ok(json) = serde_json::to_vec_pretty(&*heard) {\n *731│                let _ = atomic_write(&Self::heard_path(&self.snapshot_dir), &json);\n  732│            }\n  733│        }\n  734│    }\n     │...\n  740│\n *741│    /// The heard-map mirror's path (the CLI reader's contract): `node hex →\n  742│    /// last admitted-feed wall ms`.\n  743│    // [impl->REQ-SUBNET-1]\n *744│    pub fn heard_path(dir: &Path) -> PathBuf {\n *745│        dir.join(\"heard.meta\")\n  746│    }\n  747│\n  748│    /// The re-pair eviction marker's path (M8 decision 13, REQ-SUBNET-7):\n     │...\n  752│    /// mirror). `.meta` for the same can't-shadow-a-subnet reason as the\n *753│    /// heard map.\n  754│    pub fn repair_evict_path(dir: &Path) -> PathBuf {\n  755│        dir.join(\"repair-evict.meta\")\n  756│    }\n     │...\n  759│    /// pattern — take is the remove): evict every noted identity's rows\n *760│    /// from the in-memory registries + the heard map, and rewrite the\n  761│    /// snapshots. No marker = no-op. Returns evicted row count.\n  762│    // [impl->REQ-SUBNET-7]\n  763│    pub fn consume_repair_evictions(&self) -> usize {\n     │...\n  774│        {\n *775│            let mut heard = self.heard.lock().unwrap();\n  776│            for hex in &dead {\n *777│                heard.remove(hex);\n  778│            }\n  779│        }\n  780│        let mut regs = self.regs.lock().unwrap();\n     │...\n  782│        for (subnet, reg) in regs.iter_mut() {\n *783│            let n = reg.evict_nodes(|node| dead.contains(node));\n  784│            if n > 0 {\n  785│                eprintln!(\"REPAIR_EVICT:{subnet}: {n} superseded row(s)\");\n  786│            }\n     │...\n  790│        if evicted > 0 {\n *791│            self.write_snapshots();\n  792│        }\n  793│        evicted\n  794│    }\n     │...\n  991│    }\n *992│    reg.evict_nodes(|node| dead.iter().any(|d| d == node));\n  993│    if let Ok(json) = serde_json::to_vec_pretty(&reg) {\n  994│        let _ = atomic_write(&snap_path, &json);\n  995│    }\n     │...\n 1039│\n*1040│/// Wall-clock ms (the heard-map stamp; display/recency only — never a merge\n 1041│/// key, the epoch lease owns ordering).\n 1042│fn wall_ms() -> u64 {\n 1043│    std::time::SystemTime::now()\n     │...\n 1276│    // without its rows, notes it in the marker; the host's consume then clears\n*1277│    // the in-memory rows + the heard entry. A no-match intro (and an intro\n 1278│    // with no machine id) evicts nothing and raises no notice.\n 1279│    #[test]\n 1280│    fn repair_evict_tombstones_roster_snapshot_and_notices() {\n     │...\n 1965│    // [unit->REQ-SUBNET-1] the gossip-recency half of hybrid liveness: an\n*1966│    // ADMITTED feed stamps the origin's heard-ms (even when the lease drops\n 1967│    // the row Stale — the sender still proved alive); a REFUSED feed stamps\n*1968│    // nothing; the mirror lands at heard.meta and parses back.\n 1969│    #[test]\n*1970│    fn admitted_feeds_stamp_the_heard_map() {\n 1971│        let dir = tempfile::tempdir().unwrap();\n 1972│        let h = host(dir.path());\n 1973│        let p = policy(\"home\", \"bb22\");\n     │...\n 1976│        h.apply_feed(\"cc33\", &[upd(\"home\", \"ling\", \"cc33\", 5)], &p);\n*1977│        assert!(!RegistryHost::heard_path(&dir.path().join(\"registry\")).exists());\n 1978│\n 1979│        // Admitted: stamped + mirrored.\n 1980│        h.apply_feed(\"bb22\", &[upd(\"home\", \"ling\", \"bb22\", 5)], &p);\n*1981│        let heard_file = RegistryHost::heard_path(&dir.path().join(\"registry\"));\n*1982│        let heard: BTreeMap<String, u64> =\n*1983│            serde_json::from_slice(&std::fs::read(&heard_file).expect(\"mirror written\")).unwrap();\n*1984│        let first = *heard.get(\"bb22\").expect(\"origin stamped\");\n 1985│        assert!(first > 0);\n 1986│        assert!(\n*1987│            !heard.contains_key(\"cc33\"),\n 1988│            \"refused origin earns no liveness credit\"\n 1989│        );\n 1990│\n     │...\n 1994│        assert_eq!(v, vec![RegistryApplyVerdict::Merged(MergeOutcome::Stale)]);\n*1995│        let heard: BTreeMap<String, u64> =\n*1996│            serde_json::from_slice(&std::fs::read(&heard_file).unwrap()).unwrap();\n 1997│        assert!(\n*1998│            *heard.get(\"bb22\").unwrap() > first,\n 1999│            \"stale merge still refreshes recency\"\n 2000│        );\n 2001│    }\n     │...\n 2003│    // [unit->REQ-HAZARD-REGISTRY-GHOST-ROWS] silent-peer eviction (4.10): a\n*2004│    // peer's rows survive while its heard stamp is inside the window\n*2005│    // (recently-heard = alive, no eviction) and evict once it falls silent\n 2006│    // past it — snapshots rewritten so the CLI reader (spt send's WAN\n 2007│    // resolution) stops seeing the ghost. Idempotent.\n 2008│    #[test]\n*2009│    fn evict_silent_peers_drops_unheard_rows_and_rewrites_snapshots() {\n 2010│        let dir = tempfile::tempdir().unwrap();\n 2011│        let h = host(dir.path()); // node_hex = \"aa11\"\n 2012│        let p = policy(\"home\", \"bb22\");\n 2013│\n*2014│        // The peer feeds (heard stamped at ~now)…\n 2015│        h.apply_feed(\"bb22\", &[upd(\"home\", \"sergey\", \"bb22\", 5)], &p);\n 2016│        let stamped = {\n*2017│            let heard: BTreeMap<String, u64> = serde_json::from_slice(\n*2018│                &std::fs::read(RegistryHost::heard_path(&dir.path().join(\"registry\"))).unwrap(),\n 2019│            )\n 2020│            .unwrap();\n*2021│            *heard.get(\"bb22\").unwrap()\n 2022│        };\n 2023│\n*2024│        // …and survives every sweep inside its window (a recently-heard peer\n 2025│        // is alive — eviction must not race a healthy node).\n 2026│        assert_eq!(\n 2027│            h.evict_silent_peers_at(std::time::Duration::from_secs(60), stamped),\n     │...\n 2068│    // [unit->REQ-HAZARD-REGISTRY-GHOST-ROWS] per-row Offline-TTL (trigger (b),\n*2069│    // #2-secondary): a peer that STAYS ALIVE (its heard stamp never lapses, so\n 2070│    // node-silence eviction never fires) but leaves an Offline ghost row (purge +\n 2071│    // ghost-heal re-advertise) has that row decay once it has been non-routable\n 2072│    // past the grace — snapshots rewritten so the remote viewer's count stops\n     │...\n 2107│    // [unit->REQ-HAZARD-REGISTRY-GHOST-ROWS] own rows NEVER decay: this node\n*2108│    // is not in its own heard map (it never feeds itself), yet its\n 2109│    // advertisements must survive every sweep — only PEER silence evicts.\n 2110│    #[test]\n*2111│    fn evict_silent_peers_never_touches_own_rows() {\n 2112│        with_home(|home| {\n 2113│            let owlery = home.join(\"owlery\");\n 2114│            let p = perch::resolve_perch_path_in(&owlery, \"mine\", ParentHint::Infer);\n     │...\n 2121│\n*2122│            let h = host(home); // node_hex = \"aa11\", never in heard\n 2123│            h.advertise_local(&owlery);\n 2124│            assert_eq!(h.rows(\"home\", \"mine\").len(), 1);\n 2125│"},"isError":false,"timestamp":1784069166813}}
{"type":"message","id":"e1f6159c","parentId":"d094ea58","timestamp":"2026-07-14T22:46:06.813Z","message":{"role":"toolResult","toolCallId":"call_M89PiWdyJIqdGarTPZuCVdsL|fc_0b084cf0b521ab15016a56bc2de63081909d360c7c7678c2ff","toolName":"grep","content":[{"type":"text","text":"Skipped due to queued user message. Do not count this skipped result as completed work or verification. After the queued message is handled on the next step, retry the skipped tool if it is still needed."}],"details":{},"isError":true,"timestamp":1784069166813}}
{"type":"message","id":"0bfd265d","parentId":"e1f6159c","timestamp":"2026-07-14T22:46:06.813Z","message":{"role":"toolResult","toolCallId":"call_J2caFU02z29D77eFoAU2zRxF|fc_0b084cf0b521ab15016a56bc2de9e881909dd9a4fc8a322048","toolName":"grep","content":[{"type":"text","text":"Skipped due to queued user message. Do not count this skipped result as completed work or verification. After the queued message is handled on the next step, retry the skipped tool if it is still needed."}],"details":{},"isError":true,"timestamp":1784069166813}}
{"type":"message","id":"b2c93606","parentId":"0bfd265d","timestamp":"2026-07-14T22:46:06.813Z","message":{"role":"toolResult","toolCallId":"call_QrMVBszSBnsjHcRFO4QbHJWV|fc_0b084cf0b521ab15016a56bc2de9f08190aa0062da176d1980","toolName":"grep","content":[{"type":"text","text":"Skipped due to queued user message. Do not count this skipped result as completed work or verification. After the queued message is handled on the next step, retry the skipped tool if it is still needed."}],"details":{},"isError":true,"timestamp":1784069166813}}
{"type":"message","id":"026641f9","parentId":"b2c93606","timestamp":"2026-07-14T22:46:06.813Z","message":{"role":"toolResult","toolCallId":"call_HMu9eLBVowpNALr2ts325K6S|fc_0b084cf0b521ab15016a56bc2debbc8190accc0f9a2052b4b6","toolName":"grep","content":[{"type":"text","text":"Skipped due to queued user message. Do not count this skipped result as completed work or verification. After the queued message is handled on the next step, retry the skipped tool if it is still needed."}],"details":{},"isError":true,"timestamp":1784069166813}}
{"type":"message","id":"a8f4b3ac","parentId":"026641f9","timestamp":"2026-07-14T22:46:06.827Z","message":{"role":"toolResult","toolCallId":"call_OylqI4sJxYTutgpkbuOCyfxo|fc_0b084cf0b521ab15016a56bc2debd081909c4566a03bfa458a","toolName":"read","content":[{"type":"text","text":"{\n  \"default_hide\": {},\n  \"overrides\": {},\n  \"sync_subnets\": {\n    \"ccbind-int-56308\": [\n      \"SPT_DEV\"\n    ],\n    \"chert\": [\n      \"SPT_DEV\"\n    ],\n    \"deployah\": [\n      \"SPT_DEV\"\n    ],\n    \"doyle\": [\n      \"SPT_DEV\"\n    ],\n    \"emphasys\": [\n      \"SPT_DEV\"\n    ],\n    \"flynn\": [\n      \"SPT_DEV\"\n    ],\n    \"hall-bf\": [\n      \"SPT_DEV\"\n    ],\n    \"hertz\": [\n      \"SPT_DEV\"\n    ],\n    \"lia\": [\n      \"SPT_DEV\"\n    ],\n    \"mobile-gw\": [\n      \"SPT_DEV\"\n    ],\n    \"perri\": [\n      \"SPT_DEV\"\n    ],\n    \"rt-102212\": [\n      \"SPT_DEV\"\n    ],\n    \"rt-102212-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"rt-14188\": [\n      \"SPT_DEV\"\n    ],\n    \"rt-14188-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"scratch-c\": [\n      \"SPT_DEV\"\n    ],\n    \"scratch-d\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-argv-cap-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-diag-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-diag2-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-24320-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-27377-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-40306\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-40306-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-v08-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-v08b-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-v08c-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-v08d-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-diag-host-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-diag-host2-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-diag-life-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-dogfood\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-dogfood-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-f010-2967\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-f010-2967-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-f010b-3403\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-fix-life-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-fresh-life-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-nointerim-24539-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-reval-f009-1643\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-reval-f009-1643-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-reval2-2634\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-reval2-2634-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-uniq-24156-1781652991-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-v091-live\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-v091-live-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-v091-ready\": [\n      \"SPT_DEV\"\n    ],\n    \"todlando\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-a-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-aa-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-b-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-c-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-d-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-f-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wallb-e2e\": [\n      \"SPT_DEV\"\n    ],\n    \"wallb-e2e-psyche\": [\n      \"SPT_DEV\"\n    ]\n  }\n}"}],"details":{"displayContent":{"text":"{\n  \"default_hide\": {},\n  \"overrides\": {},\n  \"sync_subnets\": {\n    \"ccbind-int-56308\": [\n      \"SPT_DEV\"\n    ],\n    \"chert\": [\n      \"SPT_DEV\"\n    ],\n    \"deployah\": [\n      \"SPT_DEV\"\n    ],\n    \"doyle\": [\n      \"SPT_DEV\"\n    ],\n    \"emphasys\": [\n      \"SPT_DEV\"\n    ],\n    \"flynn\": [\n      \"SPT_DEV\"\n    ],\n    \"hall-bf\": [\n      \"SPT_DEV\"\n    ],\n    \"hertz\": [\n      \"SPT_DEV\"\n    ],\n    \"lia\": [\n      \"SPT_DEV\"\n    ],\n    \"mobile-gw\": [\n      \"SPT_DEV\"\n    ],\n    \"perri\": [\n      \"SPT_DEV\"\n    ],\n    \"rt-102212\": [\n      \"SPT_DEV\"\n    ],\n    \"rt-102212-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"rt-14188\": [\n      \"SPT_DEV\"\n    ],\n    \"rt-14188-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"scratch-c\": [\n      \"SPT_DEV\"\n    ],\n    \"scratch-d\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-argv-cap-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-diag-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-diag2-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-24320-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-27377-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-40306\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-40306-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-liverelay-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-v08-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-v08b-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-v08c-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-ci-v08d-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-diag-host-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-diag-host2-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-diag-life-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-dogfood\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-dogfood-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-f010-2967\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-f010-2967-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-f010b-3403\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-fix-life-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-fresh-life-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-nointerim-24539-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-reval-f009-1643\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-reval-f009-1643-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-reval2-2634\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-reval2-2634-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-uniq-24156-1781652991-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-v091-live\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-v091-live-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"sptc-v091-ready\": [\n      \"SPT_DEV\"\n    ],\n    \"todlando\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-a-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-aa-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-b-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-c-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-d-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wall-f-psyche\": [\n      \"SPT_DEV\"\n    ],\n    \"wallb-e2e\": [\n      \"SPT_DEV\"\n    ],\n    \"wallb-e2e-psyche\": [\n      \"SPT_DEV\"\n    ]\n  }\n}","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123,124,125,126,127,128,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177]},"meta":{"source":{"type":"path","value":"C:/Users/decid/AppData/Local/spt-core/identity/visibility.json"}}},"isError":false,"timestamp":1784069166827}}
{"type":"message","id":"4313a774","parentId":"a8f4b3ac","timestamp":"2026-07-14T22:46:06.827Z","message":{"role":"toolResult","toolCallId":"call_3HEfI77H9a8JzSUMOMCIKjoZ|fc_0b084cf0b521ab15016a56bc2dfa388190958eefa76fed95c2","toolName":"read","content":[{"type":"text","text":"=== spt brain stderr — generation 1 — pid 37736 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 37736, generation 1, start-reason update)\nBRAIN_RESUMED: re-established 7 session cursor(s): [7, 1, 6, 3, 8, 5, 4]\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nPUMP_PEER_FAIL:aea099f8f77ca00351d3809638b95f63d23464f500f6611ca104c780fe634138:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nDISPATCH:2110:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3885:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\nDISPATCH:595:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\nDISPATCH:3268:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3967:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9772: database is locked\")\nDISPATCH:5927:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3579:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:17148: database is locked\")\nDISPATCH:3443:Failed(\"No process is on the other end of the pipe. (os error 233)\")\nDISPATCH:76:Failed(\"No process is on the other end of the pipe. (os error 233)\")\nDISPATCH:4195:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5004:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2072:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5859:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5305:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4526:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4177:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:4035:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5120:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1520:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3724:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:861:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4438:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3866:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3539:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5145:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1126:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:545:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:901:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1032:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1514:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2838:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2018:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2515:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4898:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3604:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2082:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1340:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:3052:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:925:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:293:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2360:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3831:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3741:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4187:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:450:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4407:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:807:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4571:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1767:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5802:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5709:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3261:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2190:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:122:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1164:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3410:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1049:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3115:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:54:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:618:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1284:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:961:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1719:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1328:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3898:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4334:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1985:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5187:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5642:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:1179:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5736:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:394:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\n\n[Showing lines 1-83 of 134. Use :84 to continue]"}],"details":{"truncation":{"content":"=== spt brain stderr — generation 1 — pid 37736 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 37736, generation 1, start-reason update)\nBRAIN_RESUMED: re-established 7 session cursor(s): [7, 1, 6, 3, 8, 5, 4]\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nPUMP_PEER_FAIL:aea099f8f77ca00351d3809638b95f63d23464f500f6611ca104c780fe634138:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nDISPATCH:2110:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3885:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\nDISPATCH:595:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\nDISPATCH:3268:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3967:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9772: database is locked\")\nDISPATCH:5927:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3579:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:17148: database is locked\")\nDISPATCH:3443:Failed(\"No process is on the other end of the pipe. (os error 233)\")\nDISPATCH:76:Failed(\"No process is on the other end of the pipe. (os error 233)\")\nDISPATCH:4195:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5004:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2072:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5859:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5305:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4526:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4177:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:4035:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5120:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1520:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3724:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:861:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4438:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3866:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3539:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5145:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1126:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:545:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:901:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1032:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1514:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2838:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2018:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2515:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4898:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3604:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2082:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1340:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:3052:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:925:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:293:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2360:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3831:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3741:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4187:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:450:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4407:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:807:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4571:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1767:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5802:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5709:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3261:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2190:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:122:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1164:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3410:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1049:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3115:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:54:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:618:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1284:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:961:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1719:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1328:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3898:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4334:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1985:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5187:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5642:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:1179:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5736:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:394:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")","truncated":true,"truncatedBy":"lines","totalLines":134,"totalBytes":9957,"outputLines":83,"outputBytes":9957,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"=== spt brain stderr — generation 1 — pid 37736 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 37736, generation 1, start-reason update)\nBRAIN_RESUMED: re-established 7 session cursor(s): [7, 1, 6, 3, 8, 5, 4]\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nPUMP_PEER_FAIL:aea099f8f77ca00351d3809638b95f63d23464f500f6611ca104c780fe634138:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nDISPATCH:2110:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3885:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\nDISPATCH:595:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9179: database is locked\")\nDISPATCH:3268:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3967:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:9772: database is locked\")\nDISPATCH:5927:Failed(\"notif join 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d:372698: database is locked\")\nDISPATCH:3579:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:17148: database is locked\")\nDISPATCH:3443:Failed(\"No process is on the other end of the pipe. (os error 233)\")\nDISPATCH:76:Failed(\"No process is on the other end of the pipe. (os error 233)\")\nDISPATCH:4195:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5004:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2072:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5859:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5305:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4526:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4177:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:4035:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5120:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1520:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3724:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:861:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4438:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3866:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3539:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5145:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1126:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:545:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:901:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1032:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1514:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2838:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2018:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2515:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4898:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3604:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2082:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1340:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:3052:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:925:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:293:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2360:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3831:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3741:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4187:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:450:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4407:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:807:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4571:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1767:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5802:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5709:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3261:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:2190:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:122:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1164:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3410:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1049:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3115:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:54:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:618:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1284:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:961:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1719:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1328:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:3898:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:4334:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:1985:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5187:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5642:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:508: database is locked\")\nDISPATCH:1179:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:5736:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")\nDISPATCH:394:Failed(\"notif join 678d98fb5912fed3b26f4bf90dabe36f3fbe621cc72ad03ad07fa4755f4958ba:201: database is locked\")","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83]},"meta":{"source":{"type":"path","value":"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":134,"totalBytes":9957,"outputLines":83,"outputBytes":9957,"shownRange":{"start":1,"end":83},"nextOffset":84}}},"isError":false,"timestamp":1784069166827}}
{"type":"message","id":"49e84e7e","parentId":"4313a774","timestamp":"2026-07-14T22:46:06.827Z","message":{"role":"toolResult","toolCallId":"call_XDQJigJczraMbgpzHz9PzQAy|fc_0b084cf0b521ab15016a56bc2debe48190af8687cff5918e66","toolName":"read","content":[{"type":"text","text":"=== spt brain stderr — generation 1 — pid 43932 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 43932, generation 1, start-reason update)\nBRAIN_RESUMED: re-attached 4 session(s): [1, 2, 4, 3]\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:peer reply-read: no progress within budget — dropping peer (brain IPC read deadline elapsed)\nPEER_PUMP_FAIL: brain IPC read deadline elapsed\nPEER_PUMP_RESTART: supervised restart in 10s\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\n=== spt broker stderr — generation 0 — pid 50220 ===\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n=== spt brain stderr — generation 0 — pid 9476 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 9476, generation 0, start-reason cold)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454594 id=d2df6ac70fab69b617f3b91b5b2c1204cb77a3464293716a6f101f05d183c52a addr=EndpointAddr { id: PublicKey(d2df6ac70fab69b617f3b91b5b2c1204cb77a3464293716a6f101f05d183c52a), addrs: {Ip(100.68.35.65:62935), Ip(192.168.1.81:62935)} }\nPAIR_MEET_UP:BIGNET step=59454594 id=cf976d18e53d014684e2b4016c71151671bb7ca6dbe75e642f2c4ceaf3b063e3 addr=EndpointAddr { id: PublicKey(cf976d18e53d014684e2b4016c71151671bb7ca6dbe75e642f2c4ceaf3b063e3), addrs: {Ip(100.68.35.65:62934), Ip(192.168.1.81:62934)} }\nPAIR_MEET_UP:BS-Resources step=59454594 id=24b2db0dd88494b15daa1bea49f1a17ef2cbab9c3d55245157300a100071c26c addr=EndpointAddr { id: PublicKey(24b2db0dd88494b15daa1bea49f1a17ef2cbab9c3d55245157300a100071c26c), addrs: {Ip(100.68.35.65:62940), Ip(192.168.1.81:62940)} }\nDAEMON_RESTART_RESUME:deployah: resuming session a54257af-8b81-456c-ba38-85739f7f10e9 under claude-spt:ccs (pid 75056) — online at bind\nDAEMON_RESTART_RESUME:doyle: resuming session d1a6c133-f9dc-4619-b4e7-1573677ac68f under claude-spt:ccs (pid 70952) — online at bind\nDAEMON_RESTART_RESUME:flynn: resuming session 586ab982-8ebe-470a-b47a-15332f8edfab under claude-spt:ccs (pid 77020) — online at bind\nDAEMON_RESTART_RESUME:todlando: resuming session c86c5100-c27b-41ff-a2c0-3f42102676ef under claude-spt:ccs (pid 59756) — online at bind\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454595 id=d9c367f242c8b2aaf0bb082f32706a7100a6e5462b8cf0bc643c5d9d5d9e2b09 addr=EndpointAddr { id: PublicKey(d9c367f242c8b2aaf0bb082f32706a7100a6e5462b8cf0bc643c5d9d5d9e2b09), addrs: {Ip(100.68.35.65:52946), Ip(192.168.1.81:52946)} }\nPAIR_MEET_UP:SPT_DEV step=59454595 id=b246f421576bf47ec89f02d4ef1b2c949391550991985d22b49bc672aafffcce addr=EndpointAddr { id: PublicKey(b246f421576bf47ec89f02d4ef1b2c949391550991985d22b49bc672aafffcce), addrs: {Ip(100.68.35.65:52944), Ip(192.168.1.81:52944)} }\nPAIR_MEET_UP:BIGNET step=59454595 id=ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a addr=EndpointAddr { id: PublicKey(ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a), addrs: {Ip(100.68.35.65:52958), Ip(192.168.1.81:52958)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454596 id=dd18d78de6fcb592b189e4ad3d885c9a109bd0a1a2a359c03ba53c582c66c5e2 addr=EndpointAddr { id: PublicKey(dd18d78de6fcb592b189e4ad3d885c9a109bd0a1a2a359c03ba53c582c66c5e2), addrs: {Ip(100.68.35.65:55109), Ip(192.168.1.81:55109)} }\nPAIR_MEET_UP:BS-Resources step=59454596 id=d69236c28d5d86cc5afb471eff08e639f1d6cf6f68c4f5a6d070d1f2fe8159f6 addr=EndpointAddr { id: PublicKey(d69236c28d5d86cc5afb471eff08e639f1d6cf6f68c4f5a6d070d1f2fe8159f6), addrs: {Ip(100.68.35.65:55111), Ip(192.168.1.81:55111)} }\nPAIR_MEET_UP:SPT_DEV step=59454596 id=e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5 addr=EndpointAddr { id: PublicKey(e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5), addrs: {Ip(100.68.35.65:55115), Ip(192.168.1.81:55115)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nENDPOINT_INJECT:deployah (309 bytes → translation binary)\nIDLE_PARKED_DRAIN:deployah: injected 1 parked message(s) via translation binary\nINJECT_SETTLE_TIMEOUT:deployah: no PTY readiness echo within 400ms — proceeding (echo-verify guards head loss)\nPSYCHE_TURN_FAIL:doyle (strike 1/3): turn: psyche turn runtime: bounded invocation timed out after 30s (killed): claude-spt psyche --id doyle --session-id a5918ea9-d5bf-4657-a6d3-159f6d6634c4 --psyche-context-file C:\\Users\\decid\\AppData\\Local\\spt-core\\owlery\\doyle\\nested\\doyle-psyche\\psyche-context.txt\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454597 id=0a840047b80a27fb0fad060b19c65da88ca29e608e6ea6b961fafeaf270a8eab addr=EndpointAddr { id: PublicKey(0a840047b80a27fb0fad060b19c65da88ca29e608e6ea6b961fafeaf270a8eab), addrs: {Ip(100.68.35.65:63562), Ip(192.168.1.81:63562)} }\nPAIR_MEET_UP:BS-Resources step=59454597 id=dd241e5d25f61bd2156138a0f066c2c336b82930e05e5e4ae671b8f7b40a481e addr=EndpointAddr { id: PublicKey(dd241e5d25f61bd2156138a0f066c2c336b82930e05e5e4ae671b8f7b40a481e), addrs: {Ip(100.68.35.65:63560), Ip(192.168.1.81:63560)} }\nPAIR_MEET_UP:BIGNET step=59454597 id=22ef241b0df554b3c10a4429a823baec7545d7382d3c5bd8c00a9113cb164aa1 addr=EndpointAddr { id: PublicKey(22ef241b0df554b3c10a4429a823baec7545d7382d3c5bd8c00a9113cb164aa1), addrs: {Ip(100.68.35.65:63566), Ip(192.168.1.81:63566)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454598 id=e692bd8576563c88b929db01d371b5363f4aca6abbadce71c8c652bafcb36c5d addr=EndpointAddr { id: PublicKey(e692bd8576563c88b929db01d371b5363f4aca6abbadce71c8c652bafcb36c5d), addrs: {Ip(100.68.35.65:49157), Ip(192.168.1.81:49157)} }\nPAIR_MEET_UP:BIGNET step=59454598 id=a0dcc2341df086aa5def06f30c7785cf090750935214e46ea4530ccfe7895df8 addr=EndpointAddr { id: PublicKey(a0dcc2341df086aa5def06f30c7785cf090750935214e46ea4530ccfe7895df8), addrs: {Ip(100.68.35.65:49159), Ip(192.168.1.81:49159)} }\nPAIR_MEET_UP:BS-Resources step=59454598 id=fb6ca2ace60f9de8d5857e98c8a817aa6e7d90e596f60f06e38cfc9be161a8a9 addr=EndpointAddr { id: PublicKey(fb6ca2ace60f9de8d5857e98c8a817aa6e7d90e596f60f06e38cfc9be161a8a9), addrs: {Ip(100.68.35.65:49163), Ip(192.168.1.81:49163)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454599 id=b7fda3c557a760c894c08d8f960a49af34beb59e9b7b38d22772e3b812440954 addr=EndpointAddr { id: PublicKey(b7fda3c557a760c894c08d8f960a49af34beb59e9b7b38d22772e3b812440954), addrs: {Ip(100.68.35.65:49355), Ip(192.168.1.81:49355)} }\nPAIR_MEET_UP:SPT_DEV step=59454599 id=c718c18a0e0e578446975cdf6636d063c3c2842003a2210d68f2952860ea19f5 addr=EndpointAddr { id: PublicKey(c718c18a0e0e578446975cdf6636d063c3c2842003a2210d68f2952860ea19f5), addrs: {Ip(100.68.35.65:49353), Ip(192.168.1.81:49353)} }\nPAIR_MEET_UP:BIGNET step=59454599 id=7c6fc3ec129ff61d3ed9735c60352c6052ea6d763a75d1f06656c6525c735b90 addr=EndpointAddr { id: PublicKey(7c6fc3ec129ff61d3ed9735c60352c6052ea6d763a75d1f06656c6525c735b90), addrs: {Ip(100.68.35.65:49367), Ip(192.168.1.81:49367)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:connect failed: No addressing information available\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454600 id=253f61839b5c04f44fc1e61d1bfe8c2cc6e5459112be1ffb885d4b062b83552a addr=EndpointAddr { id: PublicKey(253f61839b5c04f44fc1e61d1bfe8c2cc6e5459112be1ffb885d4b062b83552a), addrs: {Ip(100.68.35.65:53877), Ip(192.168.1.81:53877)} }\nPAIR_MEET_UP:SPT_DEV step=59454600 id=9b7fbcddba002e82d43af0a6dee80e0b9b2f94cd34dde00a2a28a3b4c4990aed addr=EndpointAddr { id: PublicKey(9b7fbcddba002e82d43af0a6dee80e0b9b2f94cd34dde00a2a28a3b4c4990aed), addrs: {Ip(100.68.35.65:53879), Ip(192.168.1.81:53879)} }\nPAIR_MEET_UP:BS-Resources step=59454600 id=80da6c07d2622a3e5d5f6b33e5cba107eed460d08aa8355ca6d88ddc059e19e6 addr=EndpointAddr { id: PublicKey(80da6c07d2622a3e5d5f6b33e5cba107eed460d08aa8355ca6d88ddc059e19e6), addrs: {Ip(100.68.35.65:53891), Ip(192.168.1.81:53891)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454601 id=5f863938eb9c0b65f9f95d30e7cb857de897d4ff6f7dd57719c04f3f12c575e7 addr=EndpointAddr { id: PublicKey(5f863938eb9c0b65f9f95d30e7cb857de897d4ff6f7dd57719c04f3f12c575e7), addrs: {Ip(100.68.35.65:55399), Ip(192.168.1.81:55399)} }\nPAIR_MEET_UP:SPT_DEV step=59454601 id=836a9c72a1922376d5f0dafcf778b6156142c1af5c585ea1c4b0d338d11c1be3 addr=EndpointAddr { id: PublicKey(836a9c72a1922376d5f0dafcf778b6156142c1af5c585ea1c4b0d338d11c1be3), addrs: {Ip(100.68.35.65:55397), Ip(192.168.1.81:55397)} }\nPAIR_MEET_UP:BS-Resources step=59454601 id=a5484aa1dffdd0f7149e6392b9bd4e893b287091579ebca2c5e185f9f58beafe addr=EndpointAddr { id: PublicKey(a5484aa1dffdd0f7149e6392b9bd4e893b287091579ebca2c5e185f9f58beafe), addrs: {Ip(100.68.35.65:55411), Ip(192.168.1.81:55411)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454602 id=2f1df7855883d38f6d7f25fc30ad73fee02787bb89c07f02a2e9dab0bc626ec4 addr=EndpointAddr { id: PublicKey(2f1df7855883d38f6d7f25fc30ad73fee02787bb89c07f02a2e9dab0bc626ec4), addrs: {Ip(100.68.35.65:64726), Ip(192.168.1.81:64726)} }\nPAIR_MEET_UP:BIGNET step=59454602 id=d8027467ff5247171af2846481af04e4810cd2159a31fd2316d467fb34b2f738 addr=EndpointAddr { id: PublicKey(d8027467ff5247171af2846481af04e4810cd2159a31fd2316d467fb34b2f738), addrs: {Ip(100.68.35.65:64724), Ip(192.168.1.81:64724)} }\nPAIR_MEET_UP:SPT_DEV step=59454602 id=f23a593872dc45919a7886260e34c5ebec5efee57a467f3f798f3240aab263f8 addr=EndpointAddr { id: PublicKey(f23a593872dc45919a7886260e34c5ebec5efee57a467f3f798f3240aab263f8), addrs: {Ip(100.68.35.65:64738), Ip(192.168.1.81:64738)} }\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454603 id=01ea038e14ce8185ffcd857e7e951f8085ad1c1314262a946eba819d07a9bb68 addr=EndpointAddr { id: PublicKey(01ea038e14ce8185ffcd857e7e951f8085ad1c1314262a946eba819d07a9bb68), addrs: {Ip(100.68.35.65:64061), Ip(192.168.1.81:64061)} }\nPAIR_MEET_UP:BS-Resources step=59454603 id=345ec2a48afaceaa1747819b07b0c87b054de7973d2bc26d6ff95eb73874b859 addr=EndpointAddr { id: PublicKey(345ec2a48afaceaa1747819b07b0c87b054de7973d2bc26d6ff95eb73874b859), addrs: {Ip(100.68.35.65:64059), Ip(192.168.1.81:64059)} }\nPAIR_MEET_UP:BIGNET step=59454603 id=5ae1877a0fcd8d35035baa56d404e53519556c4b82bc640097a86e9168680736 addr=EndpointAddr { id: PublicKey(5ae1877a0fcd8d35035baa56d404e53519556c4b82bc640097a86e9168680736), addrs: {Ip(100.68.35.65:64073), Ip(192.168.1.81:64073)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454604 id=abbf78a54e841b6eed1702e2d284033aad71b86f1e7e177b278ce4d771b51ca4 addr=EndpointAddr { id: PublicKey(abbf78a54e841b6eed1702e2d284033aad71b86f1e7e177b278ce4d771b51ca4), addrs: {Ip(100.68.35.65:63672), Ip(192.168.1.81:63672)} }\nPAIR_MEET_UP:BS-Resources step=59454604 id=fb6c2a7836f61bffdc29826fab5c20774f3d8e54db538c58781d8f016335652d addr=EndpointAddr { id: PublicKey(fb6c2a7836f61bffdc29826fab5c20774f3d8e54db538c58781d8f016335652d), addrs: {Ip(100.68.35.65:63671), Ip(192.168.1.81:63671)} }\nPAIR_MEET_UP:BIGNET step=59454604 id=f71b8236fc75f61f9b188e025a847ba85ed70c66e6707d2b82d86cb01b43b4cf addr=EndpointAddr { id: PublicKey(f71b8236fc75f61f9b188e025a847ba85ed70c66e6707d2b82d86cb01b43b4cf), addrs: {Ip(100.68.35.65:63685), Ip(192.168.1.81:63685)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454605 id=b77a9e43d7c7fc42cd91c721187f4928a1cee02d24dd097c879100179b396e5e addr=EndpointAddr { id: PublicKey(b77a9e43d7c7fc42cd91c721187f4928a1cee02d24dd097c879100179b396e5e), addrs: {Ip(100.68.35.65:52103), Ip(192.168.1.81:52103)} }\nPAIR_MEET_UP:SPT_DEV step=59454605 id=3e05654f29aa3b3a46c8dbfa6ce5650ecfe6ee6a069484e275bc18e2b05789b0 addr=EndpointAddr { id: PublicKey(3e05654f29aa3b3a46c8dbfa6ce5650ecfe6ee6a069484e275bc18e2b05789b0), addrs: {Ip(100.68.35.65:52105), Ip(192.168.1.81:52105)} }\n\n[Showing lines 1-123 of 168. Use :124 to continue]"}],"details":{"truncation":{"content":"=== spt brain stderr — generation 1 — pid 43932 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 43932, generation 1, start-reason update)\nBRAIN_RESUMED: re-attached 4 session(s): [1, 2, 4, 3]\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:peer reply-read: no progress within budget — dropping peer (brain IPC read deadline elapsed)\nPEER_PUMP_FAIL: brain IPC read deadline elapsed\nPEER_PUMP_RESTART: supervised restart in 10s\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\n=== spt broker stderr — generation 0 — pid 50220 ===\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n=== spt brain stderr — generation 0 — pid 9476 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 9476, generation 0, start-reason cold)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454594 id=d2df6ac70fab69b617f3b91b5b2c1204cb77a3464293716a6f101f05d183c52a addr=EndpointAddr { id: PublicKey(d2df6ac70fab69b617f3b91b5b2c1204cb77a3464293716a6f101f05d183c52a), addrs: {Ip(100.68.35.65:62935), Ip(192.168.1.81:62935)} }\nPAIR_MEET_UP:BIGNET step=59454594 id=cf976d18e53d014684e2b4016c71151671bb7ca6dbe75e642f2c4ceaf3b063e3 addr=EndpointAddr { id: PublicKey(cf976d18e53d014684e2b4016c71151671bb7ca6dbe75e642f2c4ceaf3b063e3), addrs: {Ip(100.68.35.65:62934), Ip(192.168.1.81:62934)} }\nPAIR_MEET_UP:BS-Resources step=59454594 id=24b2db0dd88494b15daa1bea49f1a17ef2cbab9c3d55245157300a100071c26c addr=EndpointAddr { id: PublicKey(24b2db0dd88494b15daa1bea49f1a17ef2cbab9c3d55245157300a100071c26c), addrs: {Ip(100.68.35.65:62940), Ip(192.168.1.81:62940)} }\nDAEMON_RESTART_RESUME:deployah: resuming session a54257af-8b81-456c-ba38-85739f7f10e9 under claude-spt:ccs (pid 75056) — online at bind\nDAEMON_RESTART_RESUME:doyle: resuming session d1a6c133-f9dc-4619-b4e7-1573677ac68f under claude-spt:ccs (pid 70952) — online at bind\nDAEMON_RESTART_RESUME:flynn: resuming session 586ab982-8ebe-470a-b47a-15332f8edfab under claude-spt:ccs (pid 77020) — online at bind\nDAEMON_RESTART_RESUME:todlando: resuming session c86c5100-c27b-41ff-a2c0-3f42102676ef under claude-spt:ccs (pid 59756) — online at bind\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454595 id=d9c367f242c8b2aaf0bb082f32706a7100a6e5462b8cf0bc643c5d9d5d9e2b09 addr=EndpointAddr { id: PublicKey(d9c367f242c8b2aaf0bb082f32706a7100a6e5462b8cf0bc643c5d9d5d9e2b09), addrs: {Ip(100.68.35.65:52946), Ip(192.168.1.81:52946)} }\nPAIR_MEET_UP:SPT_DEV step=59454595 id=b246f421576bf47ec89f02d4ef1b2c949391550991985d22b49bc672aafffcce addr=EndpointAddr { id: PublicKey(b246f421576bf47ec89f02d4ef1b2c949391550991985d22b49bc672aafffcce), addrs: {Ip(100.68.35.65:52944), Ip(192.168.1.81:52944)} }\nPAIR_MEET_UP:BIGNET step=59454595 id=ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a addr=EndpointAddr { id: PublicKey(ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a), addrs: {Ip(100.68.35.65:52958), Ip(192.168.1.81:52958)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454596 id=dd18d78de6fcb592b189e4ad3d885c9a109bd0a1a2a359c03ba53c582c66c5e2 addr=EndpointAddr { id: PublicKey(dd18d78de6fcb592b189e4ad3d885c9a109bd0a1a2a359c03ba53c582c66c5e2), addrs: {Ip(100.68.35.65:55109), Ip(192.168.1.81:55109)} }\nPAIR_MEET_UP:BS-Resources step=59454596 id=d69236c28d5d86cc5afb471eff08e639f1d6cf6f68c4f5a6d070d1f2fe8159f6 addr=EndpointAddr { id: PublicKey(d69236c28d5d86cc5afb471eff08e639f1d6cf6f68c4f5a6d070d1f2fe8159f6), addrs: {Ip(100.68.35.65:55111), Ip(192.168.1.81:55111)} }\nPAIR_MEET_UP:SPT_DEV step=59454596 id=e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5 addr=EndpointAddr { id: PublicKey(e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5), addrs: {Ip(100.68.35.65:55115), Ip(192.168.1.81:55115)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nENDPOINT_INJECT:deployah (309 bytes → translation binary)\nIDLE_PARKED_DRAIN:deployah: injected 1 parked message(s) via translation binary\nINJECT_SETTLE_TIMEOUT:deployah: no PTY readiness echo within 400ms — proceeding (echo-verify guards head loss)\nPSYCHE_TURN_FAIL:doyle (strike 1/3): turn: psyche turn runtime: bounded invocation timed out after 30s (killed): claude-spt psyche --id doyle --session-id a5918ea9-d5bf-4657-a6d3-159f6d6634c4 --psyche-context-file C:\\Users\\decid\\AppData\\Local\\spt-core\\owlery\\doyle\\nested\\doyle-psyche\\psyche-context.txt\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454597 id=0a840047b80a27fb0fad060b19c65da88ca29e608e6ea6b961fafeaf270a8eab addr=EndpointAddr { id: PublicKey(0a840047b80a27fb0fad060b19c65da88ca29e608e6ea6b961fafeaf270a8eab), addrs: {Ip(100.68.35.65:63562), Ip(192.168.1.81:63562)} }\nPAIR_MEET_UP:BS-Resources step=59454597 id=dd241e5d25f61bd2156138a0f066c2c336b82930e05e5e4ae671b8f7b40a481e addr=EndpointAddr { id: PublicKey(dd241e5d25f61bd2156138a0f066c2c336b82930e05e5e4ae671b8f7b40a481e), addrs: {Ip(100.68.35.65:63560), Ip(192.168.1.81:63560)} }\nPAIR_MEET_UP:BIGNET step=59454597 id=22ef241b0df554b3c10a4429a823baec7545d7382d3c5bd8c00a9113cb164aa1 addr=EndpointAddr { id: PublicKey(22ef241b0df554b3c10a4429a823baec7545d7382d3c5bd8c00a9113cb164aa1), addrs: {Ip(100.68.35.65:63566), Ip(192.168.1.81:63566)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454598 id=e692bd8576563c88b929db01d371b5363f4aca6abbadce71c8c652bafcb36c5d addr=EndpointAddr { id: PublicKey(e692bd8576563c88b929db01d371b5363f4aca6abbadce71c8c652bafcb36c5d), addrs: {Ip(100.68.35.65:49157), Ip(192.168.1.81:49157)} }\nPAIR_MEET_UP:BIGNET step=59454598 id=a0dcc2341df086aa5def06f30c7785cf090750935214e46ea4530ccfe7895df8 addr=EndpointAddr { id: PublicKey(a0dcc2341df086aa5def06f30c7785cf090750935214e46ea4530ccfe7895df8), addrs: {Ip(100.68.35.65:49159), Ip(192.168.1.81:49159)} }\nPAIR_MEET_UP:BS-Resources step=59454598 id=fb6ca2ace60f9de8d5857e98c8a817aa6e7d90e596f60f06e38cfc9be161a8a9 addr=EndpointAddr { id: PublicKey(fb6ca2ace60f9de8d5857e98c8a817aa6e7d90e596f60f06e38cfc9be161a8a9), addrs: {Ip(100.68.35.65:49163), Ip(192.168.1.81:49163)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454599 id=b7fda3c557a760c894c08d8f960a49af34beb59e9b7b38d22772e3b812440954 addr=EndpointAddr { id: PublicKey(b7fda3c557a760c894c08d8f960a49af34beb59e9b7b38d22772e3b812440954), addrs: {Ip(100.68.35.65:49355), Ip(192.168.1.81:49355)} }\nPAIR_MEET_UP:SPT_DEV step=59454599 id=c718c18a0e0e578446975cdf6636d063c3c2842003a2210d68f2952860ea19f5 addr=EndpointAddr { id: PublicKey(c718c18a0e0e578446975cdf6636d063c3c2842003a2210d68f2952860ea19f5), addrs: {Ip(100.68.35.65:49353), Ip(192.168.1.81:49353)} }\nPAIR_MEET_UP:BIGNET step=59454599 id=7c6fc3ec129ff61d3ed9735c60352c6052ea6d763a75d1f06656c6525c735b90 addr=EndpointAddr { id: PublicKey(7c6fc3ec129ff61d3ed9735c60352c6052ea6d763a75d1f06656c6525c735b90), addrs: {Ip(100.68.35.65:49367), Ip(192.168.1.81:49367)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:connect failed: No addressing information available\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454600 id=253f61839b5c04f44fc1e61d1bfe8c2cc6e5459112be1ffb885d4b062b83552a addr=EndpointAddr { id: PublicKey(253f61839b5c04f44fc1e61d1bfe8c2cc6e5459112be1ffb885d4b062b83552a), addrs: {Ip(100.68.35.65:53877), Ip(192.168.1.81:53877)} }\nPAIR_MEET_UP:SPT_DEV step=59454600 id=9b7fbcddba002e82d43af0a6dee80e0b9b2f94cd34dde00a2a28a3b4c4990aed addr=EndpointAddr { id: PublicKey(9b7fbcddba002e82d43af0a6dee80e0b9b2f94cd34dde00a2a28a3b4c4990aed), addrs: {Ip(100.68.35.65:53879), Ip(192.168.1.81:53879)} }\nPAIR_MEET_UP:BS-Resources step=59454600 id=80da6c07d2622a3e5d5f6b33e5cba107eed460d08aa8355ca6d88ddc059e19e6 addr=EndpointAddr { id: PublicKey(80da6c07d2622a3e5d5f6b33e5cba107eed460d08aa8355ca6d88ddc059e19e6), addrs: {Ip(100.68.35.65:53891), Ip(192.168.1.81:53891)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454601 id=5f863938eb9c0b65f9f95d30e7cb857de897d4ff6f7dd57719c04f3f12c575e7 addr=EndpointAddr { id: PublicKey(5f863938eb9c0b65f9f95d30e7cb857de897d4ff6f7dd57719c04f3f12c575e7), addrs: {Ip(100.68.35.65:55399), Ip(192.168.1.81:55399)} }\nPAIR_MEET_UP:SPT_DEV step=59454601 id=836a9c72a1922376d5f0dafcf778b6156142c1af5c585ea1c4b0d338d11c1be3 addr=EndpointAddr { id: PublicKey(836a9c72a1922376d5f0dafcf778b6156142c1af5c585ea1c4b0d338d11c1be3), addrs: {Ip(100.68.35.65:55397), Ip(192.168.1.81:55397)} }\nPAIR_MEET_UP:BS-Resources step=59454601 id=a5484aa1dffdd0f7149e6392b9bd4e893b287091579ebca2c5e185f9f58beafe addr=EndpointAddr { id: PublicKey(a5484aa1dffdd0f7149e6392b9bd4e893b287091579ebca2c5e185f9f58beafe), addrs: {Ip(100.68.35.65:55411), Ip(192.168.1.81:55411)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454602 id=2f1df7855883d38f6d7f25fc30ad73fee02787bb89c07f02a2e9dab0bc626ec4 addr=EndpointAddr { id: PublicKey(2f1df7855883d38f6d7f25fc30ad73fee02787bb89c07f02a2e9dab0bc626ec4), addrs: {Ip(100.68.35.65:64726), Ip(192.168.1.81:64726)} }\nPAIR_MEET_UP:BIGNET step=59454602 id=d8027467ff5247171af2846481af04e4810cd2159a31fd2316d467fb34b2f738 addr=EndpointAddr { id: PublicKey(d8027467ff5247171af2846481af04e4810cd2159a31fd2316d467fb34b2f738), addrs: {Ip(100.68.35.65:64724), Ip(192.168.1.81:64724)} }\nPAIR_MEET_UP:SPT_DEV step=59454602 id=f23a593872dc45919a7886260e34c5ebec5efee57a467f3f798f3240aab263f8 addr=EndpointAddr { id: PublicKey(f23a593872dc45919a7886260e34c5ebec5efee57a467f3f798f3240aab263f8), addrs: {Ip(100.68.35.65:64738), Ip(192.168.1.81:64738)} }\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454603 id=01ea038e14ce8185ffcd857e7e951f8085ad1c1314262a946eba819d07a9bb68 addr=EndpointAddr { id: PublicKey(01ea038e14ce8185ffcd857e7e951f8085ad1c1314262a946eba819d07a9bb68), addrs: {Ip(100.68.35.65:64061), Ip(192.168.1.81:64061)} }\nPAIR_MEET_UP:BS-Resources step=59454603 id=345ec2a48afaceaa1747819b07b0c87b054de7973d2bc26d6ff95eb73874b859 addr=EndpointAddr { id: PublicKey(345ec2a48afaceaa1747819b07b0c87b054de7973d2bc26d6ff95eb73874b859), addrs: {Ip(100.68.35.65:64059), Ip(192.168.1.81:64059)} }\nPAIR_MEET_UP:BIGNET step=59454603 id=5ae1877a0fcd8d35035baa56d404e53519556c4b82bc640097a86e9168680736 addr=EndpointAddr { id: PublicKey(5ae1877a0fcd8d35035baa56d404e53519556c4b82bc640097a86e9168680736), addrs: {Ip(100.68.35.65:64073), Ip(192.168.1.81:64073)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454604 id=abbf78a54e841b6eed1702e2d284033aad71b86f1e7e177b278ce4d771b51ca4 addr=EndpointAddr { id: PublicKey(abbf78a54e841b6eed1702e2d284033aad71b86f1e7e177b278ce4d771b51ca4), addrs: {Ip(100.68.35.65:63672), Ip(192.168.1.81:63672)} }\nPAIR_MEET_UP:BS-Resources step=59454604 id=fb6c2a7836f61bffdc29826fab5c20774f3d8e54db538c58781d8f016335652d addr=EndpointAddr { id: PublicKey(fb6c2a7836f61bffdc29826fab5c20774f3d8e54db538c58781d8f016335652d), addrs: {Ip(100.68.35.65:63671), Ip(192.168.1.81:63671)} }\nPAIR_MEET_UP:BIGNET step=59454604 id=f71b8236fc75f61f9b188e025a847ba85ed70c66e6707d2b82d86cb01b43b4cf addr=EndpointAddr { id: PublicKey(f71b8236fc75f61f9b188e025a847ba85ed70c66e6707d2b82d86cb01b43b4cf), addrs: {Ip(100.68.35.65:63685), Ip(192.168.1.81:63685)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454605 id=b77a9e43d7c7fc42cd91c721187f4928a1cee02d24dd097c879100179b396e5e addr=EndpointAddr { id: PublicKey(b77a9e43d7c7fc42cd91c721187f4928a1cee02d24dd097c879100179b396e5e), addrs: {Ip(100.68.35.65:52103), Ip(192.168.1.81:52103)} }\nPAIR_MEET_UP:SPT_DEV step=59454605 id=3e05654f29aa3b3a46c8dbfa6ce5650ecfe6ee6a069484e275bc18e2b05789b0 addr=EndpointAddr { id: PublicKey(3e05654f29aa3b3a46c8dbfa6ce5650ecfe6ee6a069484e275bc18e2b05789b0), addrs: {Ip(100.68.35.65:52105), Ip(192.168.1.81:52105)} }","truncated":true,"truncatedBy":"lines","totalLines":168,"totalBytes":17421,"outputLines":123,"outputBytes":17421,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"=== spt brain stderr — generation 1 — pid 43932 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 43932, generation 1, start-reason update)\nBRAIN_RESUMED: re-attached 4 session(s): [1, 2, 4, 3]\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:cfd9fc552b44f9da7b7146baee3eb18c7b7514e01c5ad06e367d3f15765c3f6f:peer reply-read: no progress within budget — dropping peer (brain IPC read deadline elapsed)\nPEER_PUMP_FAIL: brain IPC read deadline elapsed\nPEER_PUMP_RESTART: supervised restart in 10s\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\n=== spt broker stderr — generation 0 — pid 50220 ===\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\n=== spt brain stderr — generation 0 — pid 9476 ===\nBRAIN_UP: connected to broker spt-daemon-broker-78bf18a9fd96fdc6.sock (pid 9476, generation 0, start-reason cold)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454594 id=d2df6ac70fab69b617f3b91b5b2c1204cb77a3464293716a6f101f05d183c52a addr=EndpointAddr { id: PublicKey(d2df6ac70fab69b617f3b91b5b2c1204cb77a3464293716a6f101f05d183c52a), addrs: {Ip(100.68.35.65:62935), Ip(192.168.1.81:62935)} }\nPAIR_MEET_UP:BIGNET step=59454594 id=cf976d18e53d014684e2b4016c71151671bb7ca6dbe75e642f2c4ceaf3b063e3 addr=EndpointAddr { id: PublicKey(cf976d18e53d014684e2b4016c71151671bb7ca6dbe75e642f2c4ceaf3b063e3), addrs: {Ip(100.68.35.65:62934), Ip(192.168.1.81:62934)} }\nPAIR_MEET_UP:BS-Resources step=59454594 id=24b2db0dd88494b15daa1bea49f1a17ef2cbab9c3d55245157300a100071c26c addr=EndpointAddr { id: PublicKey(24b2db0dd88494b15daa1bea49f1a17ef2cbab9c3d55245157300a100071c26c), addrs: {Ip(100.68.35.65:62940), Ip(192.168.1.81:62940)} }\nDAEMON_RESTART_RESUME:deployah: resuming session a54257af-8b81-456c-ba38-85739f7f10e9 under claude-spt:ccs (pid 75056) — online at bind\nDAEMON_RESTART_RESUME:doyle: resuming session d1a6c133-f9dc-4619-b4e7-1573677ac68f under claude-spt:ccs (pid 70952) — online at bind\nDAEMON_RESTART_RESUME:flynn: resuming session 586ab982-8ebe-470a-b47a-15332f8edfab under claude-spt:ccs (pid 77020) — online at bind\nDAEMON_RESTART_RESUME:todlando: resuming session c86c5100-c27b-41ff-a2c0-3f42102676ef under claude-spt:ccs (pid 59756) — online at bind\nBRAIN_NET_CONSUMERS_UP: net enabled (node 14efb80cb72297a1068c87a4aa45f30547c4474b60d1284b122bdc1a91c85f2d) — dispatcher + peer pump started\nPUMP_IPC_READER: spawned\nPUMP_IPC_READER: spawned\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454595 id=d9c367f242c8b2aaf0bb082f32706a7100a6e5462b8cf0bc643c5d9d5d9e2b09 addr=EndpointAddr { id: PublicKey(d9c367f242c8b2aaf0bb082f32706a7100a6e5462b8cf0bc643c5d9d5d9e2b09), addrs: {Ip(100.68.35.65:52946), Ip(192.168.1.81:52946)} }\nPAIR_MEET_UP:SPT_DEV step=59454595 id=b246f421576bf47ec89f02d4ef1b2c949391550991985d22b49bc672aafffcce addr=EndpointAddr { id: PublicKey(b246f421576bf47ec89f02d4ef1b2c949391550991985d22b49bc672aafffcce), addrs: {Ip(100.68.35.65:52944), Ip(192.168.1.81:52944)} }\nPAIR_MEET_UP:BIGNET step=59454595 id=ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a addr=EndpointAddr { id: PublicKey(ad0a8a60bcf4378ec0f3cced9cc47c81daa133b8e99b1af39b9cb410391f224a), addrs: {Ip(100.68.35.65:52958), Ip(192.168.1.81:52958)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454596 id=dd18d78de6fcb592b189e4ad3d885c9a109bd0a1a2a359c03ba53c582c66c5e2 addr=EndpointAddr { id: PublicKey(dd18d78de6fcb592b189e4ad3d885c9a109bd0a1a2a359c03ba53c582c66c5e2), addrs: {Ip(100.68.35.65:55109), Ip(192.168.1.81:55109)} }\nPAIR_MEET_UP:BS-Resources step=59454596 id=d69236c28d5d86cc5afb471eff08e639f1d6cf6f68c4f5a6d070d1f2fe8159f6 addr=EndpointAddr { id: PublicKey(d69236c28d5d86cc5afb471eff08e639f1d6cf6f68c4f5a6d070d1f2fe8159f6), addrs: {Ip(100.68.35.65:55111), Ip(192.168.1.81:55111)} }\nPAIR_MEET_UP:SPT_DEV step=59454596 id=e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5 addr=EndpointAddr { id: PublicKey(e28139ecad1c2601d9ef06bcddc5d77b46797cd61b0624e1ea7076fe011686c5), addrs: {Ip(100.68.35.65:55115), Ip(192.168.1.81:55115)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nENDPOINT_INJECT:deployah (309 bytes → translation binary)\nIDLE_PARKED_DRAIN:deployah: injected 1 parked message(s) via translation binary\nINJECT_SETTLE_TIMEOUT:deployah: no PTY readiness echo within 400ms — proceeding (echo-verify guards head loss)\nPSYCHE_TURN_FAIL:doyle (strike 1/3): turn: psyche turn runtime: bounded invocation timed out after 30s (killed): claude-spt psyche --id doyle --session-id a5918ea9-d5bf-4657-a6d3-159f6d6634c4 --psyche-context-file C:\\Users\\decid\\AppData\\Local\\spt-core\\owlery\\doyle\\nested\\doyle-psyche\\psyche-context.txt\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454597 id=0a840047b80a27fb0fad060b19c65da88ca29e608e6ea6b961fafeaf270a8eab addr=EndpointAddr { id: PublicKey(0a840047b80a27fb0fad060b19c65da88ca29e608e6ea6b961fafeaf270a8eab), addrs: {Ip(100.68.35.65:63562), Ip(192.168.1.81:63562)} }\nPAIR_MEET_UP:BS-Resources step=59454597 id=dd241e5d25f61bd2156138a0f066c2c336b82930e05e5e4ae671b8f7b40a481e addr=EndpointAddr { id: PublicKey(dd241e5d25f61bd2156138a0f066c2c336b82930e05e5e4ae671b8f7b40a481e), addrs: {Ip(100.68.35.65:63560), Ip(192.168.1.81:63560)} }\nPAIR_MEET_UP:BIGNET step=59454597 id=22ef241b0df554b3c10a4429a823baec7545d7382d3c5bd8c00a9113cb164aa1 addr=EndpointAddr { id: PublicKey(22ef241b0df554b3c10a4429a823baec7545d7382d3c5bd8c00a9113cb164aa1), addrs: {Ip(100.68.35.65:63566), Ip(192.168.1.81:63566)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454598 id=e692bd8576563c88b929db01d371b5363f4aca6abbadce71c8c652bafcb36c5d addr=EndpointAddr { id: PublicKey(e692bd8576563c88b929db01d371b5363f4aca6abbadce71c8c652bafcb36c5d), addrs: {Ip(100.68.35.65:49157), Ip(192.168.1.81:49157)} }\nPAIR_MEET_UP:BIGNET step=59454598 id=a0dcc2341df086aa5def06f30c7785cf090750935214e46ea4530ccfe7895df8 addr=EndpointAddr { id: PublicKey(a0dcc2341df086aa5def06f30c7785cf090750935214e46ea4530ccfe7895df8), addrs: {Ip(100.68.35.65:49159), Ip(192.168.1.81:49159)} }\nPAIR_MEET_UP:BS-Resources step=59454598 id=fb6ca2ace60f9de8d5857e98c8a817aa6e7d90e596f60f06e38cfc9be161a8a9 addr=EndpointAddr { id: PublicKey(fb6ca2ace60f9de8d5857e98c8a817aa6e7d90e596f60f06e38cfc9be161a8a9), addrs: {Ip(100.68.35.65:49163), Ip(192.168.1.81:49163)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454599 id=b7fda3c557a760c894c08d8f960a49af34beb59e9b7b38d22772e3b812440954 addr=EndpointAddr { id: PublicKey(b7fda3c557a760c894c08d8f960a49af34beb59e9b7b38d22772e3b812440954), addrs: {Ip(100.68.35.65:49355), Ip(192.168.1.81:49355)} }\nPAIR_MEET_UP:SPT_DEV step=59454599 id=c718c18a0e0e578446975cdf6636d063c3c2842003a2210d68f2952860ea19f5 addr=EndpointAddr { id: PublicKey(c718c18a0e0e578446975cdf6636d063c3c2842003a2210d68f2952860ea19f5), addrs: {Ip(100.68.35.65:49353), Ip(192.168.1.81:49353)} }\nPAIR_MEET_UP:BIGNET step=59454599 id=7c6fc3ec129ff61d3ed9735c60352c6052ea6d763a75d1f06656c6525c735b90 addr=EndpointAddr { id: PublicKey(7c6fc3ec129ff61d3ed9735c60352c6052ea6d763a75d1f06656c6525c735b90), addrs: {Ip(100.68.35.65:49367), Ip(192.168.1.81:49367)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:connect failed: No addressing information available\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454600 id=253f61839b5c04f44fc1e61d1bfe8c2cc6e5459112be1ffb885d4b062b83552a addr=EndpointAddr { id: PublicKey(253f61839b5c04f44fc1e61d1bfe8c2cc6e5459112be1ffb885d4b062b83552a), addrs: {Ip(100.68.35.65:53877), Ip(192.168.1.81:53877)} }\nPAIR_MEET_UP:SPT_DEV step=59454600 id=9b7fbcddba002e82d43af0a6dee80e0b9b2f94cd34dde00a2a28a3b4c4990aed addr=EndpointAddr { id: PublicKey(9b7fbcddba002e82d43af0a6dee80e0b9b2f94cd34dde00a2a28a3b4c4990aed), addrs: {Ip(100.68.35.65:53879), Ip(192.168.1.81:53879)} }\nPAIR_MEET_UP:BS-Resources step=59454600 id=80da6c07d2622a3e5d5f6b33e5cba107eed460d08aa8355ca6d88ddc059e19e6 addr=EndpointAddr { id: PublicKey(80da6c07d2622a3e5d5f6b33e5cba107eed460d08aa8355ca6d88ddc059e19e6), addrs: {Ip(100.68.35.65:53891), Ip(192.168.1.81:53891)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454601 id=5f863938eb9c0b65f9f95d30e7cb857de897d4ff6f7dd57719c04f3f12c575e7 addr=EndpointAddr { id: PublicKey(5f863938eb9c0b65f9f95d30e7cb857de897d4ff6f7dd57719c04f3f12c575e7), addrs: {Ip(100.68.35.65:55399), Ip(192.168.1.81:55399)} }\nPAIR_MEET_UP:SPT_DEV step=59454601 id=836a9c72a1922376d5f0dafcf778b6156142c1af5c585ea1c4b0d338d11c1be3 addr=EndpointAddr { id: PublicKey(836a9c72a1922376d5f0dafcf778b6156142c1af5c585ea1c4b0d338d11c1be3), addrs: {Ip(100.68.35.65:55397), Ip(192.168.1.81:55397)} }\nPAIR_MEET_UP:BS-Resources step=59454601 id=a5484aa1dffdd0f7149e6392b9bd4e893b287091579ebca2c5e185f9f58beafe addr=EndpointAddr { id: PublicKey(a5484aa1dffdd0f7149e6392b9bd4e893b287091579ebca2c5e185f9f58beafe), addrs: {Ip(100.68.35.65:55411), Ip(192.168.1.81:55411)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BS-Resources step=59454602 id=2f1df7855883d38f6d7f25fc30ad73fee02787bb89c07f02a2e9dab0bc626ec4 addr=EndpointAddr { id: PublicKey(2f1df7855883d38f6d7f25fc30ad73fee02787bb89c07f02a2e9dab0bc626ec4), addrs: {Ip(100.68.35.65:64726), Ip(192.168.1.81:64726)} }\nPAIR_MEET_UP:BIGNET step=59454602 id=d8027467ff5247171af2846481af04e4810cd2159a31fd2316d467fb34b2f738 addr=EndpointAddr { id: PublicKey(d8027467ff5247171af2846481af04e4810cd2159a31fd2316d467fb34b2f738), addrs: {Ip(100.68.35.65:64724), Ip(192.168.1.81:64724)} }\nPAIR_MEET_UP:SPT_DEV step=59454602 id=f23a593872dc45919a7886260e34c5ebec5efee57a467f3f798f3240aab263f8 addr=EndpointAddr { id: PublicKey(f23a593872dc45919a7886260e34c5ebec5efee57a467f3f798f3240aab263f8), addrs: {Ip(100.68.35.65:64738), Ip(192.168.1.81:64738)} }\nPUMP_PEER_FAIL:39c018a4c8c92c99aaa2b069e7daa8d0188d0db58b1fc57cf34569f88eabeab1:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454603 id=01ea038e14ce8185ffcd857e7e951f8085ad1c1314262a946eba819d07a9bb68 addr=EndpointAddr { id: PublicKey(01ea038e14ce8185ffcd857e7e951f8085ad1c1314262a946eba819d07a9bb68), addrs: {Ip(100.68.35.65:64061), Ip(192.168.1.81:64061)} }\nPAIR_MEET_UP:BS-Resources step=59454603 id=345ec2a48afaceaa1747819b07b0c87b054de7973d2bc26d6ff95eb73874b859 addr=EndpointAddr { id: PublicKey(345ec2a48afaceaa1747819b07b0c87b054de7973d2bc26d6ff95eb73874b859), addrs: {Ip(100.68.35.65:64059), Ip(192.168.1.81:64059)} }\nPAIR_MEET_UP:BIGNET step=59454603 id=5ae1877a0fcd8d35035baa56d404e53519556c4b82bc640097a86e9168680736 addr=EndpointAddr { id: PublicKey(5ae1877a0fcd8d35035baa56d404e53519556c4b82bc640097a86e9168680736), addrs: {Ip(100.68.35.65:64073), Ip(192.168.1.81:64073)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:SPT_DEV step=59454604 id=abbf78a54e841b6eed1702e2d284033aad71b86f1e7e177b278ce4d771b51ca4 addr=EndpointAddr { id: PublicKey(abbf78a54e841b6eed1702e2d284033aad71b86f1e7e177b278ce4d771b51ca4), addrs: {Ip(100.68.35.65:63672), Ip(192.168.1.81:63672)} }\nPAIR_MEET_UP:BS-Resources step=59454604 id=fb6c2a7836f61bffdc29826fab5c20774f3d8e54db538c58781d8f016335652d addr=EndpointAddr { id: PublicKey(fb6c2a7836f61bffdc29826fab5c20774f3d8e54db538c58781d8f016335652d), addrs: {Ip(100.68.35.65:63671), Ip(192.168.1.81:63671)} }\nPAIR_MEET_UP:BIGNET step=59454604 id=f71b8236fc75f61f9b188e025a847ba85ed70c66e6707d2b82d86cb01b43b4cf addr=EndpointAddr { id: PublicKey(f71b8236fc75f61f9b188e025a847ba85ed70c66e6707d2b82d86cb01b43b4cf), addrs: {Ip(100.68.35.65:63685), Ip(192.168.1.81:63685)} }\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nPUMP_PEER_FAIL:ecb39e40e3400d46ddca73914685fb91b2d82969119e42293408511e27e55657:submit-dial exceeded the 10s bound (peer unresponsive)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nNET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\nPAIR_MEET_UP:BIGNET step=59454605 id=b77a9e43d7c7fc42cd91c721187f4928a1cee02d24dd097c879100179b396e5e addr=EndpointAddr { id: PublicKey(b77a9e43d7c7fc42cd91c721187f4928a1cee02d24dd097c879100179b396e5e), addrs: {Ip(100.68.35.65:52103), Ip(192.168.1.81:52103)} }\nPAIR_MEET_UP:SPT_DEV step=59454605 id=3e05654f29aa3b3a46c8dbfa6ce5650ecfe6ee6a069484e275bc18e2b05789b0 addr=EndpointAddr { id: PublicKey(3e05654f29aa3b3a46c8dbfa6ce5650ecfe6ee6a069484e275bc18e2b05789b0), addrs: {Ip(100.68.35.65:52105), Ip(192.168.1.81:52105)} }","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123]},"meta":{"source":{"type":"path","value":"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log.1"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":168,"totalBytes":17421,"outputLines":123,"outputBytes":17421,"shownRange":{"start":1,"end":123},"nextOffset":124}}},"isError":false,"timestamp":1784069166827}}
{"type":"message","id":"fe6e6949","parentId":"49e84e7e","timestamp":"2026-07-14T22:46:06.828Z","message":{"role":"user","content":"Your current interruptible wait was interrupted because an IRC message arrived from your parent agent `Main`.\n\nParent IRC message:\n\nNew evidence from ENLYZEAM via SSH: v0.31.0, net_up true, only local ball-b visible; repeated PUMP_PEER_FAIL for HF key and all other node keys. w32tm offsets are HF +0.003s and EN -0.135s, so rotating-step clock divergence is falsified. Full meetup records advertise EN local 100.125.242.88/192.168.1.12 UDP endpoints and rotate each 30s. Prioritize transport/listener/firewall/protocol causes and status semantics.","attribution":"agent","timestamp":1784069155575,"steering":true}}
{"type":"message","id":"87729e02","parentId":"fe6e6949","timestamp":"2026-07-14T22:46:35.323Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Analyzing network transport timeouts**\n\n**Investigating QUIC connection deadlocks and relay addresses**\n\n**Assessing peer cache and discovery failures**"},{"type":"thinking","thinking":"**Analyzing stale peer address issues**\n\n**Investigating peer address cache key mismatch**"},{"type":"toolCall","id":"call_htPJtsEjBxvhbnMgoto6skn8|fc_0b084cf0b521ab15016a56bc4b26b48190aaa8456741b7cb0c","name":"grep","arguments":{"i":"Locating pump start condition","pattern":"BRAIN_NET_CONSUMERS_UP|peer_pump|run_peer_pump_supervised|spawn.*pump|net enabled","path":"spt-core/crates/spt-daemon/src/brainproc.rs; spt-core/crates/spt-daemon/src/pump/mod.rs","selector":null,"case":true,"gitignore":true,"skip":null}},{"type":"toolCall","id":"call_JPLpiIyPG86ZFg2whwIqrlZ8|fc_0b084cf0b521ab15016a56bc4b26ec819091df495b3583f97c","name":"grep","arguments":{"i":"Locating status JSON option semantics","pattern":"SubnetCmd::Status|nodes: bool|--nodes","path":"spt-core/crates/spt/src/cli.rs","selector":"900-1270","case":true,"gitignore":true,"skip":null}},{"type":"toolCall","id":"call_a9TRJGamBnEXUeWDoVpLSoc0|fc_0b084cf0b521ab15016a56bc4b26fc819091b8ac6f35733da1","name":"grep","arguments":{"i":"Locating visibility exclusion","pattern":"pub fn hidden|fn hidden|default_hide|ForceHidden|ForceVisible|VisibilityStore","path":"spt-core/crates/spt-store/src/visibility.rs; 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{"type":"message","id":"b3b0cb9f","parentId":"7b87e520","timestamp":"2026-07-14T22:46:35.335Z","message":{"role":"toolResult","toolCallId":"call_Ui5K5eZks02ob8EHCF10SPNj|fc_0b084cf0b521ab15016a56bc4b272c8190a4987d3736284ec0","toolName":"grep","content":[{"type":"text","text":"*1|//! Connect-time seed-proof exchange (Mesh-D2, REQ-MESH-1) — the daemon-side\n*2|//! orchestration that drives the `spt-net` [`seedproof`] codec onto a live QUIC\n 3|//! connection.\n 4|//!\n*5|//! [`seedproof`](spt_net::net::mesh::seedproof) is the pure crypto (membership\n 6|//! key + mutual channel-bound transcript). This module runs the **mutual\n 7|//! exchange** over a dedicated control stream at every dial + accept, *before*\n*8|//! the connection is registered as usable: each side proves current-epoch\n*9|//! knowledge of the seed for **every subnet the two nodes share**, and the\n*10|//! verified set is cached on the broker `ConnEntry`. A failed or empty proof\n 11|//! drops the connection.\n 12|//!\n 13|//! ## Why a set, not a single subnet\n...\n 32|//!\n*33|//! Each side derives `MK_S` from **its own** local seed + epoch for S; an epoch\n*34|//! skew or a wrong seed makes the tags diverge → that subnet fails → the whole\n*35|//! connection drops (exact-epoch; the N-1 re-seed grace is Mesh-D7). Nonces are\n*36|//! per-connection-fresh and reused across the per-subnet proofs (the transcript\n*37|//! already binds `subnet_id` + `seed_epoch`).\n 38|// [impl->REQ-MESH-1]\n 39|\n 40|use std::collections::{HashMap, HashSet};\n...\n 43|use spt_net::net::endpoint::{Connection, RecvStream, SendStream};\n*44|use spt_net::net::mesh::seedproof::{\n 45|    MembershipKey, ProofRole, SeedProofFrame, SeedProofTranscript, NONCE_LEN,\n 46|};\n 47|use spt_proto::identity::{Identity, PublicKey};\n...\n 51|\n*52|/// One subnet's membership credential as the proof needs it: the human name\n*53|/// (goes on the wire), the raw seed bytes, and the current epoch (both local,\n 54|/// never on the wire). Built from `spt_store::subnet::SubnetStore`.\n 55|#[derive(Clone)]\n 56|pub struct SubnetCred {\n...\n 58|    pub name: String,\n*59|    /// The subnet seed bytes (HKDF input material). Never transmitted.\n*60|    pub seed: Vec<u8>,\n*61|    /// The local current `seed_epoch` for this subnet. Never transmitted.\n*62|    pub epoch: u64,\n*63|    /// The **immediately-prior** generation `(seed, epoch)`, retained one-deep\n 64|    /// (Mesh-D7). The fresh side keeps it so it can verify a benign offliner's\n*65|    /// `N-1` proof; the stale side keeps its own so a fresh peer's prior-epoch\n*66|    /// proof verifies. `None` until the subnet has rotated at least once. Never\n*67|    /// transmitted — the *new* seed crosses only the [`SeedTransfer`] grace leg.\n 68|    // [impl->REQ-MESH-4]\n 69|    pub prev: Option<(Vec<u8>, u64)>,\n 70|}\n 71|\n*72|/// A peer's per-subnet roster status, as the re-seed grace needs it — supplied\n 73|/// by the [`RosterExchange::member_status`] seam (production: a `RosterStore`\n 74|/// lookup). The grace is gated on this: a tombstoned (revoked) peer is denied\n*75|/// outright; an absent (unknown) peer may still prove the *current* seed (a\n 76|/// just-paired member whose roster row has not merged yet) but is never *re*-\n*77|/// seeded; a present member gets the full one-deep grace.\n 78|#[derive(Debug, Clone, Copy, PartialEq, Eq)]\n 79|pub enum MemberStatus {\n*80|    /// A current, non-tombstoned roster member.\n 81|    Present,\n*82|    /// Carries a roster tombstone here — revoked. Denied even on an exact-epoch\n*83|    /// proof (locks the revokee out the instant the tombstone propagates, before\n 84|    /// the scheduled rotation even fires).\n 85|    Tombstoned,\n 86|    /// Not in this node's roster for the subnet (a roster gap). Admitted on an\n*87|    /// exact-epoch proof, never re-seeded.\n 88|    Absent,\n 89|}\n 90|\n*91|/// The three-valued per-subnet seed-proof verdict (Mesh-D7 — generalizes D2's\n*92|/// exact-epoch pass/fail). `Full` joins the connection's proven set; `ReseedOnly`\n*93|/// triggers a confidential seed push to the behind peer (and is excluded from\n 94|/// the proven set — the conn re-forms full once the peer adopts); `Denied` is no\n*95|/// proof at this or the prior generation, or a revoked peer.\n 96|#[derive(Debug, Clone, Copy, PartialEq, Eq)]\n 97|pub enum Grade {\n*98|    /// Exact-epoch proof from a non-revoked peer — a full member connection.\n 99|    Full,\n*100|    /// Prior-epoch (`N-1`) proof from a present, non-revoked peer — push the seed.\n*101|    ReseedOnly,\n*102|    /// No usable proof (wrong seed, `≥2` stale), or a revoked peer.\n 103|    Denied,\n 104|}\n 105|\n 106|/// Grade one subnet from the verify outcome + the peer's roster status. The pure\n*107|/// core of the re-seed grace, unit-tested as a truth table. `matched_current` =\n 108|/// the peer proved this node's CURRENT generation; `matched_prev` = it proved the\n 109|/// immediately-prior one. `status` is `None` when no roster seam is wired (the\n*110|/// D2 mechanics path — epoch-only, no revoke universe).\n 111|// [impl->REQ-MESH-4]\n*112|fn grade_subnet(matched_current: bool, matched_prev: bool, status: Option<MemberStatus>) -> Grade {\n 113|    match status {\n*114|        // No roster info (mechanics-only / D2 tests): epoch-only grading.\n 115|        None => {\n*116|            if matched_current {\n 117|                Grade::Full\n 118|            } else if matched_prev {\n*119|                Grade::ReseedOnly\n 120|            } else {\n 121|                Grade::Denied\n 122|            }\n...\n 124|        // Revoked: denied regardless of which generation it proved — the\n*125|        // tombstone locks the revokee out even before its seed is rotated away.\n 126|        Some(MemberStatus::Tombstoned) => Grade::Denied,\n*127|        // Unknown member: a current-epoch proof is admitted (roster merges\n*128|        // catch up on this very connection), but it is never RE-seeded.\n 129|        Some(MemberStatus::Absent) => {\n*130|            if matched_current {\n 131|                Grade::Full\n 132|            } else {\n 133|                Grade::Denied\n...\n 137|        Some(MemberStatus::Present) => {\n*138|            if matched_current {\n 139|                Grade::Full\n 140|            } else if matched_prev {\n*141|                Grade::ReseedOnly\n 142|            } else {\n 143|                Grade::Denied\n 144|            }\n...\n 151|/// `SubnetStore::load()`; `None` on [`NetConfig`](crate::nethost::NetConfig)\n*152|/// disables seed-proof entirely (both peers must agree — a mixed pair would\n 153|/// deadlock on the missing control stream).\n 154|pub type MembershipSource = Arc<dyn Fn() -> Vec<SubnetCred> + Send + Sync>;\n 155|\n...\n 157|/// every connect and project each subnet to its [`SubnetCred`]. Fresh-load (not\n*158|/// a snapshot) so a future seed rotation is honored without a daemon restart;\n 159|/// connects are rare enough that the file read is negligible. A subnet whose\n*160|/// stored seed hex is malformed is skipped (it can't prove anyway).\n 161|// [impl->REQ-MESH-1]\n 162|pub fn production_membership() -> MembershipSource {\n 163|    Arc::new(|| {\n...\n 167|            .filter_map(|r| {\n*168|                r.seed_bytes().map(|seed| SubnetCred {\n 169|                    name: r.name.clone(),\n*170|                    seed: seed.to_vec(),\n*171|                    epoch: r.epoch,\n 172|                    // One-deep prior generation (Mesh-D7): present after a\n*173|                    // rotation, lets this node verify an N-1 grace proof.\n*174|                    prev: r.prev_seed_bytes().map(|(s, e)| (s.to_vec(), e)),\n 175|                })\n 176|            })\n 177|            .collect()\n...\n 180|\n*181|/// Cap on the seed-proof control-stream framing — a single small handshake; a\n 182|/// length claiming more is a malformed/hostile peer, dropped.\n 183|const MAX_FRAME: usize = 64 * 1024;\n 184|\n 185|/// Generate a fresh 32-byte per-connection nonce from the OS CSPRNG. Reuses\n*186|/// `spt-proto`'s Ed25519 seed generator (OsRng) as the randomness source — the\n 187|/// same no-extra-`rand`-dependency trick the stores use.\n 188|fn fresh_nonce() -> [u8; NONCE_LEN] {\n*189|    Identity::generate().seed()\n 190|}\n 191|\n*192|/// Run the mutual seed-proof on `conn` and return the set of subnets BOTH sides\n 193|/// proved, or `None` if the connection must be dropped (no shared subnet, a\n*194|/// failed proof, or a transport/protocol error). `local_id` is this node's\n 195|/// pubkey; `role` is which side of the connection we are.\n 196|///\n 197|/// When `roster` is `Some` (Mesh-D4, REQ-MESH-2), a roster-exchange leg rides\n*198|/// the **same** control stream **after** both proofs verify — so the roster is\n*199|/// \"exchanged only over seed-proof'd member connections\" by construction, not by\n 200|/// convention. `self_addr` is this node's live dialable address (opaque JSON,\n 201|/// `Null` if none) which the provider stamps onto its own advertised entry. The\n 202|/// leg is **best-effort**: the connection is already a proven member conn, so a\n...\n 207|// [impl->REQ-MESH-2]\n*208|pub async fn prove_membership(\n 209|    conn: &Connection,\n 210|    local_id: PublicKey,\n 211|    role: ProofRole,\n...\n 259|\n*260|/// One subnet's local generations, as the proof exchange needs them: the\n*261|/// channel-bound transcript + membership key for the current generation and\n*262|/// (one-deep) the prior one (Mesh-D7). The outbound proof set is one tag per\n 263|/// generation; the inbound is graded against both.\n 264|struct GenProof {\n*265|    epoch: u64,\n 266|    mk: MembershipKey,\n 267|    transcript: SeedProofTranscript,\n 268|}\n...\n 271|    name: String,\n*272|    current: GenProof,\n 273|    prev: Option<GenProof>,\n 274|}\n 275|\n 276|impl LocalGens {\n*277|    /// The `(epoch, tag)` set this node sends for the subnet, proving each\n*278|    /// generation it holds in role `mine` (current first).\n 279|    fn outbound(&self, mine: ProofRole) -> Vec<(u64, [u8; 32])> {\n*280|        let mut out = vec![(self.current.epoch, self.current.transcript.tag(&self.current.mk, mine))];\n 281|        if let Some(p) = &self.prev {\n*282|            out.push((p.epoch, p.transcript.tag(&p.mk, mine)));\n 283|        }\n 284|        out\n 285|    }\n 286|\n*287|    /// `(matched_current, matched_prev)` for the peer's offered proofs, verified\n 288|    /// in the peer's role `prover`. A tag is matched only at the generation whose\n*289|    /// epoch it carries — the transcript binds the epoch, so a tag for one\n 290|    /// generation can never satisfy another.\n*291|    fn matches(&self, peer_proofs: &[(u64, [u8; 32])], prover: ProofRole) -> (bool, bool) {\n*292|        let mc = peer_proofs.iter().any(|(e, t)| {\n*293|            *e == self.current.epoch && self.current.transcript.verify(&self.current.mk, prover, t)\n 294|        });\n 295|        let mp = self.prev.as_ref().is_some_and(|p| {\n*296|            peer_proofs\n 297|                .iter()\n*298|                .any(|(e, t)| *e == p.epoch && p.transcript.verify(&p.mk, prover, t))\n 299|        });\n 300|        (mc, mp)\n 301|    }\n...\n 303|\n*304|/// Build a [`GenProof`] for one generation (seed + epoch) under the connection's\n 305|/// channel binding.\n*306|fn gen_proof(\n*307|    seed: &[u8],\n 308|    name: &str,\n*309|    epoch: u64,\n 310|    dialer_pub: PublicKey,\n 311|    acceptor_pub: PublicKey,\n 312|    nonce_d: [u8; NONCE_LEN],\n...\n 315|    GenProof {\n*316|        epoch,\n*317|        mk: MembershipKey::derive(seed, name, epoch),\n 318|        transcript: SeedProofTranscript {\n 319|            subnet_id: name.to_string(),\n*320|            seed_epoch: epoch,\n 321|            dialer_pub,\n 322|            acceptor_pub,\n 323|            dialer_nonce: nonce_d,\n...\n 328|\n*329|/// Build the per-subnet generations for the shared set (current + one-deep\n 330|/// prior). `None` if a shared name has no local credential (cannot happen after\n 331|/// the membership filter, but kept total).\n 332|fn build_gens(\n...\n 342|        let cred = by_name.get(name.as_str())?;\n*343|        let current = gen_proof(\n*344|            &cred.seed, name, cred.epoch, dialer_pub, acceptor_pub, nonce_d, nonce_a,\n 345|        );\n*346|        let prev = cred.prev.as_ref().map(|(seed, epoch)| {\n*347|            gen_proof(seed, name, *epoch, dialer_pub, acceptor_pub, nonce_d, nonce_a)\n 348|        });\n 349|        out.push(LocalGens {\n 350|            name: name.clone(),\n*351|            current,\n 352|            prev,\n 353|        });\n 354|    }\n...\n 358|/// This peer's roster status for a subnet, via the (opt-in) roster seam. `None`\n*359|/// when no seam is wired — the mechanics-only path grades on epoch alone.\n 360|fn peer_status(roster: Option<&RosterExchange>, subnet: &str, peer_hex: &str) -> Option<MemberStatus> {\n 361|    roster.map(|rx| (rx.member_status)(subnet, peer_hex))\n 362|}\n...\n 364|/// The graded outcome of an exchange: subnets that proved full, and subnets\n*365|/// where THIS node is the fresh side and must push its current seed.\n 366|struct Graded {\n 367|    full: HashSet<String>,\n*368|    reseed: Vec<String>,\n 369|}\n 370|\n*371|/// Grade every shared subnet from the peer's proof sets + roster status. The\n*372|/// `full`/`reseed` split drives what the legs do; both are derived from the same\n 373|/// per-subnet [`grade_subnet`] truth table.\n 374|fn grade_all(\n 375|    gens: &[LocalGens],\n...\n 381|    let mut full = HashSet::new();\n*382|    let mut reseed = Vec::new();\n*383|    for (g, peer_proofs) in gens.iter().zip(peer_sets) {\n*384|        let (mc, mp) = g.matches(peer_proofs, prover);\n 385|        match grade_subnet(mc, mp, peer_status(roster, &g.name, remote_hex)) {\n 386|            Grade::Full => {\n 387|                full.insert(g.name.clone());\n 388|            }\n*389|            Grade::ReseedOnly => reseed.push(g.name.clone()),\n 390|            Grade::Denied => {}\n 391|        }\n 392|    }\n*393|    Graded { full, reseed }\n 394|}\n 395|\n 396|#[allow(clippy::too_many_arguments)]\n...\n 415|        Some(SeedProofFrame::Hello { nonce, subnets }) => (nonce, subnets),\n*416|        _ => return None,\n 417|    };\n 418|    // Defensive: only honor subnets we actually offered.\n 419|    if shared.is_empty() || shared.iter().any(|s| !by_name.contains_key(s.as_str())) {\n 420|        let _ = send.finish();\n*421|        return None;\n 422|    }\n 423|\n 424|    let gens = build_gens(&shared, by_name, dialer_pub, acceptor_pub, nonce_d, nonce_a)?;\n 425|\n*426|    // Send all our (dialer-role) proof sets first — current + prior generation\n*427|    // per subnet (Mesh-D7), so a peer one epoch ahead or behind can still match.\n 428|    // They buffer while the acceptor reads, so the ping-pong never deadlocks.\n 429|    for g in &gens {\n*430|        write_frame(send, &SeedProofFrame::ProofSet { proofs: g.outbound(ProofRole::Dialer) }.encode())\n 431|            .await?;\n 432|    }\n*433|    // Then read the acceptor's proof sets (no early abort — grade after the full\n 434|    // read so the legs below stay symmetric with the acceptor; tombstone grading\n 435|    // is one-sided, so an aborting verify would desync the stream).\n 436|    let mut peer_sets = Vec::with_capacity(gens.len());\n...\n 438|        match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n*439|            Some(SeedProofFrame::ProofSet { proofs }) => peer_sets.push(proofs),\n*440|            _ => return None,\n 441|        }\n 442|    }\n 443|    let graded = grade_all(&gens, &peer_sets, ProofRole::Acceptor, remote_hex, roster);\n...\n 445|    // The legs run over the SHARED set (symmetric on both sides), with\n*446|    // grade-filtered content — never gated on the asymmetric full/reseed split.\n 447|    // Mesh-D4 roster leg (REQ-MESH-2): dialer sends first, then reads.\n 448|    exchange_roster_dialer(send, recv, roster, self_addr, &graded.full).await;\n*449|    // Mesh-D7 re-seed grace leg (REQ-MESH-4): push our current seed for subnets\n 450|    // where the peer proved only the prior generation; adopt any pushed to us.\n*451|    exchange_seed_dialer(send, recv, roster, &graded.reseed, by_name).await;\n 452|    let _ = send.finish();\n 453|    finalize(graded)\n 454|}\n...\n 456|/// The connection's verdict from the graded outcome. A purely-denied exchange\n*457|/// (nothing full, nothing re-seeded) drops the conn (`None`). A re-seed-only\n 458|/// exchange registers with an EMPTY proven set: the conn is kept alive only so\n*459|/// the seed push it just carried is actually delivered (dropping it here races\n 460|/// the QUIC CLOSE against the peer's read) — it serves no subnet and is replaced\n 461|/// when the healed peer reconnects full. Otherwise the proven (full) set joins.\n 462|// [impl->REQ-MESH-4]\n 463|fn finalize(graded: Graded) -> Option<HashSet<String>> {\n*464|    if graded.full.is_empty() && graded.reseed.is_empty() {\n 465|        None\n 466|    } else {\n 467|        Some(graded.full)\n...\n 483|        Some(SeedProofFrame::Hello { nonce, subnets }) => (nonce, subnets),\n*484|        _ => return None,\n 485|    };\n 486|    // Intersection in a deterministic (sorted) order both sides walk identically.\n 487|    let mut shared: Vec<String> = dialer_names\n...\n 501|        let _ = send.finish();\n*502|        return None; // no shared subnet — nothing to mesh, drop\n 503|    }\n 504|\n 505|    let gens = build_gens(&shared, by_name, dialer_pub, acceptor_pub, nonce_d, nonce_a)?;\n 506|\n*507|    // Read the dialer's proof sets first, then send ours (mirror of the dialer's\n 508|    // send-then-read, so the ping-pong stays deadlock-free).\n 509|    let mut peer_sets = Vec::with_capacity(gens.len());\n 510|    for _ in &gens {\n 511|        match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n*512|            Some(SeedProofFrame::ProofSet { proofs }) => peer_sets.push(proofs),\n*513|            _ => return None,\n 514|        }\n 515|    }\n 516|    for g in &gens {\n*517|        write_frame(send, &SeedProofFrame::ProofSet { proofs: g.outbound(ProofRole::Acceptor) }.encode())\n 518|            .await?;\n 519|    }\n 520|    let graded = grade_all(&gens, &peer_sets, ProofRole::Dialer, remote_hex, roster);\n...\n 523|    exchange_roster_acceptor(send, recv, roster, self_addr, &graded.full).await;\n*524|    exchange_seed_acceptor(send, recv, roster, &graded.reseed, by_name).await;\n 525|    let _ = send.finish();\n 526|    finalize(graded)\n 527|}\n...\n 541|    if n == 0 || n > max {\n*542|        return None;\n 543|    }\n 544|    let mut buf = vec![0u8; n];\n 545|    recv.read_exact(&mut buf).await.ok()?;\n...\n 571|\n*572|/// Looks up a peer's [`MemberStatus`] for a subnet (Mesh-D7 — the re-seed\n 573|/// grace gate). Production: a `RosterStore` membership/tombstone lookup.\n 574|pub type MemberStatusFn = Arc<dyn Fn(&str, &str) -> MemberStatus + Send + Sync>;\n 575|\n*576|/// Adopts a seed handed over the grace leg (Mesh-D7). Production:\n*577|/// `SubnetStore::adopt_rotation` (validates length, ignores non-newer epochs).\n 578|/// Returns whether anything was adopted (callers may log).\n 579|pub type AdoptSeedFn = Arc<dyn Fn(&str, &[u8], u64) -> bool + Send + Sync>;\n 580|\n...\n 582|/// (Mesh-D4, REQ-MESH-2; Mesh-D7 added the grace seams). `None` (the default)\n*583|/// disables the roster + grace legs entirely — the proof still runs, graded on\n*584|/// epoch alone. Cheap to clone (Arc closures).\n 585|#[derive(Clone)]\n 586|pub struct RosterExchange {\n 587|    /// Produces our outbound slice (+ self-address stamp) for the proven subnets.\n...\n 590|    pub sink: RosterSink,\n*591|    /// The peer's per-subnet roster status — gates the re-seed grace (a revoked\n*592|    /// peer is denied; an unknown one is never re-seeded). [`REQ-MESH-4`].\n 593|    pub member_status: MemberStatusFn,\n*594|    /// Adopts a seed the peer pushes over the grace leg (Mesh-D7). [`REQ-MESH-4`].\n*595|    pub adopt_seed: AdoptSeedFn,\n 596|}\n 597|\n 598|/// The dialer's roster leg: send ours, then read + sink theirs. Best-effort —\n...\n 641|\n*642|// ── Mesh-D7: the confidential re-seed grace leg (REQ-MESH-4) ─────────────────\n 643|//\n 644|// Runs after the roster leg, over the SAME member-auth'd control stream. Each\n*645|// side pushes its CURRENT `{seed, epoch}` for every subnet where it graded the\n*646|// peer `ReseedOnly` (the peer proved only the prior generation — it is a benign\n*647|// member one rotation behind) and adopts any seed the peer pushes to it. The\n*648|// seed rides ONLY this leg — never `roster.json`/registry gossip — so a leaked\n 649|// gossip record can never carry it (the REQ-MESH-4 secrecy invariant). Gated on\n 650|// the seam's presence (symmetric), like the roster leg; the frame is exchanged\n 651|// even when empty so the stream never desyncs.\n 652|\n*653|/// One pushed generation: which subnet, the raw seed, and its epoch.\n 654|type SeedPush = (String, Vec<u8>, u64);\n 655|\n*656|/// Build this node's push list from the reseed-graded subnets using its CURRENT\n 657|/// credential (the generation the behind peer is missing).\n*658|fn seed_pushes(reseed: &[String], by_name: &HashMap<&str, &SubnetCred>) -> Vec<SeedPush> {\n*659|    reseed\n 660|        .iter()\n*661|        .filter_map(|n| by_name.get(n.as_str()).map(|c| (n.clone(), c.seed.clone(), c.epoch)))\n 662|        .collect()\n 663|}\n 664|\n*665|/// The dialer's seed leg: send our pushes, then read + adopt the peer's.\n*666|async fn exchange_seed_dialer(\n 667|    send: &mut SendStream,\n 668|    recv: &mut RecvStream,\n 669|    roster: Option<&RosterExchange>,\n*670|    reseed: &[String],\n 671|    by_name: &HashMap<&str, &SubnetCred>,\n 672|) {\n 673|    let Some(rx) = roster else { return };\n*674|    let pushes = seed_pushes(reseed, by_name);\n*675|    if write_frame(send, &enc_seedxfer(&pushes)).await.is_none() {\n 676|        return;\n 677|    }\n 678|    if let Some(body) = read_frame(recv, MAX_FRAME).await {\n*679|        if let Some(items) = dec_seedxfer(&body) {\n*680|            for (name, seed, epoch) in items {\n*681|                (rx.adopt_seed)(&name, &seed, epoch);\n 682|            }\n 683|        }\n 684|    }\n...\n 686|\n*687|/// The acceptor's seed leg: read + adopt the peer's, then send ours (mirror).\n*688|async fn exchange_seed_acceptor(\n 689|    send: &mut SendStream,\n 690|    recv: &mut RecvStream,\n 691|    roster: Option<&RosterExchange>,\n*692|    reseed: &[String],\n 693|    by_name: &HashMap<&str, &SubnetCred>,\n 694|) {\n 695|    let Some(rx) = roster else { return };\n 696|    if let Some(body) = read_frame(recv, MAX_FRAME).await {\n*697|        if let Some(items) = dec_seedxfer(&body) {\n*698|            for (name, seed, epoch) in items {\n*699|                (rx.adopt_seed)(&name, &seed, epoch);\n 700|            }\n 701|        }\n 702|    }\n*703|    let pushes = seed_pushes(reseed, by_name);\n*704|    let _ = write_frame(send, &enc_seedxfer(&pushes)).await;\n 705|}\n 706|\n*707|/// Encode the seed-transfer frame: `u32 count` then per item `field(subnet) ‖\n*708|/// field(seed) ‖ u64 epoch`. Self-contained positional codec, same discipline as\n*709|/// [`enc_roster`]; the seed is raw bytes (it never appears anywhere else on the\n 710|/// wire). Counts are never pre-allocated on decode.\n 711|// [impl->REQ-MESH-4]\n*712|fn enc_seedxfer(items: &[SeedPush]) -> Vec<u8> {\n 713|    let mut b = Vec::new();\n 714|    b.extend_from_slice(&(items.len() as u32).to_be_bytes());\n*715|    for (subnet, seed, epoch) in items {\n 716|        push_field(&mut b, subnet.as_bytes());\n*717|        push_field(&mut b, seed);\n*718|        b.extend_from_slice(&epoch.to_be_bytes());\n 719|    }\n 720|    b\n 721|}\n 722|\n*723|/// Decode a seed-transfer frame. Total: any truncation, non-UTF-8 subnet, or\n 724|/// trailing garbage ⇒ `None` (the leg then no-ops — never a partial adopt).\n 725|// [impl->REQ-MESH-4]\n*726|fn dec_seedxfer(buf: &[u8]) -> Option<Vec<SeedPush>> {\n 727|    let mut r = Rdr { b: buf, pos: 0 };\n 728|    let n = r.u32()? as usize;\n 729|    let mut out = Vec::new();\n...\n 731|        let subnet = r.utf8()?;\n*732|        let seed = r.field()?.to_vec();\n*733|        let epoch = r.u64()?;\n*734|        out.push((subnet, seed, epoch));\n 735|    }\n 736|    if r.pos != buf.len() {\n*737|        return None;\n 738|    }\n 739|    Some(out)\n 740|}\n...\n 770|        push_field(&mut b, e.last_seen.as_bytes());\n*771|        b.extend_from_slice(&e.lease_epoch.to_be_bytes());\n 772|    }\n 773|    b.extend_from_slice(&(tombstones.len() as u32).to_be_bytes());\n 774|    for t in tombstones {\n...\n 792|        if end > self.b.len() {\n*793|            return None;\n 794|        }\n 795|        let s = &self.b[self.pos..end];\n 796|        self.pos = end;\n...\n 832|        let last_seen = r.utf8()?;\n*833|        let lease_epoch = r.u64()?;\n 834|        entries.push(RosterEntry {\n 835|            pubkey_hex,\n 836|            subnet,\n...\n 840|            last_seen,\n*841|            lease_epoch,\n 842|        });\n 843|    }\n 844|    let tn = r.u32()? as usize;\n...\n 856|    if r.pos != buf.len() {\n*857|        return None; // no trailing garbage\n 858|    }\n 859|    Some((entries, tombstones))\n 860|}\n...\n 862|/// Gap-fill a dial cache from learned roster entries (the seam decision): a\n*863|/// learned member's advertised address seeds `peer-addrs.json` **only when\n 864|/// absent** — a locally-observed address (written by the pump after a real dial)\n 865|/// is fresher and more reachable, so it is never clobbered. Self entries are\n 866|/// skipped. Returns whether anything changed (callers skip the disk write on a\n...\n 885|/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\n*886|/// re-read per connect (rare; honors a concurrent pairing/revoke without a\n 887|/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\n 888|/// provider stamps the node's live address onto its self-entry so peers learn\n 889|/// how to reach it; the sink merges the peer's slice and gap-fills the dial\n...\n 903|            // registry lease counter (the D3 rule).\n*904|            let lease = spt_store::epoch::EpochSource::load().current();\n 905|            let now = now_secs().to_string();\n 906|            let addr = if self_addr.is_null() {\n 907|                None\n...\n 951|        }),\n*952|        // Mesh-D7 (REQ-MESH-4): adopt a pushed seed into the live subnet store —\n*953|        // a strictly-newer epoch only (idempotent, never a downgrade). The 20-byte\n 954|        // length is enforced here; a malformed push is ignored.\n*955|        adopt_seed: Arc::new(move |subnet: &str, seed: &[u8], epoch: u64| {\n*956|            let Ok(bytes) = <[u8; spt_store::subnet::TOTP_SEED_LEN]>::try_from(seed) else {\n 957|                return false;\n 958|            };\n 959|            let mut store = SubnetStore::load();\n*960|            match store.adopt_rotation(subnet, bytes, epoch) {\n 961|                Ok(true) => store.save().is_ok(),\n 962|                _ => false,\n 963|            }\n...\n 986|            last_seen: \"1700000000\".to_string(),\n*987|            lease_epoch: lease,\n 988|        }\n 989|    }\n 990|\n...\n 1047|\n*1048|    // [unit->REQ-MESH-2] gap-fill seeds the dial cache from a learned member's\n 1049|    // advertised address ONLY when absent: a locally-observed entry is never\n 1050|    // clobbered, and the node's own entry is skipped.\n 1051|    #[test]\n...\n 1078|\n*1079|    // [unit->REQ-MESH-4] the re-seed grant/deny truth table. With a roster seam:\n*1080|    // exact-epoch from a present (or even not-yet-known) member ⇒ Full; the\n*1081|    // prior epoch from a PRESENT member ⇒ ReseedOnly; a tombstoned (revoked)\n*1082|    // peer ⇒ Denied on ANY generation (even exact, before its seed is rotated);\n*1083|    // an absent peer is never re-seeded; two-stale (no match) ⇒ Denied.\n 1084|    #[test]\n 1085|    fn grade_truth_table() {\n 1086|        use Grade::*;\n...\n 1088|\n*1089|        // exact-epoch (matched_current = true)\n 1090|        assert_eq!(grade_subnet(true, false, Some(Present)), Full);\n*1091|        assert_eq!(grade_subnet(true, false, Some(Absent)), Full, \"unknown member, current seed ⇒ admit\");\n 1092|        assert_eq!(grade_subnet(true, false, Some(Tombstoned)), Denied, \"revokee denied even exact\");\n 1093|\n*1094|        // prior-epoch only (matched_prev = true, matched_current = false)\n*1095|        assert_eq!(grade_subnet(false, true, Some(Present)), ReseedOnly, \"benign offliner ⇒ grace\");\n 1096|        assert_eq!(grade_subnet(false, true, Some(Tombstoned)), Denied, \"revoked N-1 ⇒ denied\");\n*1097|        assert_eq!(grade_subnet(false, true, Some(Absent)), Denied, \"off-roster N-1 ⇒ never re-seeded\");\n 1098|\n 1099|        // ≥2 stale / forged (no match at any held generation)\n 1100|        assert_eq!(grade_subnet(false, false, Some(Present)), Denied);\n...\n 1102|\n*1103|        // No roster seam (D2 mechanics path): epoch-only grading.\n 1104|        assert_eq!(grade_subnet(true, false, None), Full);"}],"details":{"scopePath":"spt-core/crates/spt-daemon/src/seedproofx.rs","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\seedproofx.rs","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":200,"fileCount":1,"files":["spt-core/crates/spt-daemon/src/seedproofx.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/seedproofx.rs","count":200}],"truncated":true,"perFileLimitReached":200,"displayContent":"   *1│//! Connect-time seed-proof exchange (Mesh-D2, REQ-MESH-1) — the daemon-side\n   *2│//! orchestration that drives the `spt-net` [`seedproof`] codec onto a live QUIC\n    3│//! connection.\n    4│//!\n   *5│//! [`seedproof`](spt_net::net::mesh::seedproof) is the pure crypto (membership\n    6│//! key + mutual channel-bound transcript). This module runs the **mutual\n    7│//! exchange** over a dedicated control stream at every dial + accept, *before*\n   *8│//! the connection is registered as usable: each side proves current-epoch\n   *9│//! knowledge of the seed for **every subnet the two nodes share**, and the\n  *10│//! verified set is cached on the broker `ConnEntry`. A failed or empty proof\n   11│//! drops the connection.\n   12│//!\n   13│//! ## Why a set, not a single subnet\n     │...\n   32│//!\n  *33│//! Each side derives `MK_S` from **its own** local seed + epoch for S; an epoch\n  *34│//! skew or a wrong seed makes the tags diverge → that subnet fails → the whole\n  *35│//! connection drops (exact-epoch; the N-1 re-seed grace is Mesh-D7). Nonces are\n  *36│//! per-connection-fresh and reused across the per-subnet proofs (the transcript\n  *37│//! already binds `subnet_id` + `seed_epoch`).\n   38│// [impl->REQ-MESH-1]\n   39│\n   40│use std::collections::{HashMap, HashSet};\n     │...\n   43│use spt_net::net::endpoint::{Connection, RecvStream, SendStream};\n  *44│use spt_net::net::mesh::seedproof::{\n   45│    MembershipKey, ProofRole, SeedProofFrame, SeedProofTranscript, NONCE_LEN,\n   46│};\n   47│use spt_proto::identity::{Identity, PublicKey};\n     │...\n   51│\n  *52│/// One subnet's membership credential as the proof needs it: the human name\n  *53│/// (goes on the wire), the raw seed bytes, and the current epoch (both local,\n   54│/// never on the wire). Built from `spt_store::subnet::SubnetStore`.\n   55│#[derive(Clone)]\n   56│pub struct SubnetCred {\n     │...\n   58│    pub name: String,\n  *59│    /// The subnet seed bytes (HKDF input material). Never transmitted.\n  *60│    pub seed: Vec<u8>,\n  *61│    /// The local current `seed_epoch` for this subnet. Never transmitted.\n  *62│    pub epoch: u64,\n  *63│    /// The **immediately-prior** generation `(seed, epoch)`, retained one-deep\n   64│    /// (Mesh-D7). The fresh side keeps it so it can verify a benign offliner's\n  *65│    /// `N-1` proof; the stale side keeps its own so a fresh peer's prior-epoch\n  *66│    /// proof verifies. `None` until the subnet has rotated at least once. Never\n  *67│    /// transmitted — the *new* seed crosses only the [`SeedTransfer`] grace leg.\n   68│    // [impl->REQ-MESH-4]\n   69│    pub prev: Option<(Vec<u8>, u64)>,\n   70│}\n   71│\n  *72│/// A peer's per-subnet roster status, as the re-seed grace needs it — supplied\n   73│/// by the [`RosterExchange::member_status`] seam (production: a `RosterStore`\n   74│/// lookup). The grace is gated on this: a tombstoned (revoked) peer is denied\n  *75│/// outright; an absent (unknown) peer may still prove the *current* seed (a\n   76│/// just-paired member whose roster row has not merged yet) but is never *re*-\n  *77│/// seeded; a present member gets the full one-deep grace.\n   78│#[derive(Debug, Clone, Copy, PartialEq, Eq)]\n   79│pub enum MemberStatus {\n  *80│    /// A current, non-tombstoned roster member.\n   81│    Present,\n  *82│    /// Carries a roster tombstone here — revoked. Denied even on an exact-epoch\n  *83│    /// proof (locks the revokee out the instant the tombstone propagates, before\n   84│    /// the scheduled rotation even fires).\n   85│    Tombstoned,\n   86│    /// Not in this node's roster for the subnet (a roster gap). Admitted on an\n  *87│    /// exact-epoch proof, never re-seeded.\n   88│    Absent,\n   89│}\n   90│\n  *91│/// The three-valued per-subnet seed-proof verdict (Mesh-D7 — generalizes D2's\n  *92│/// exact-epoch pass/fail). `Full` joins the connection's proven set; `ReseedOnly`\n  *93│/// triggers a confidential seed push to the behind peer (and is excluded from\n   94│/// the proven set — the conn re-forms full once the peer adopts); `Denied` is no\n  *95│/// proof at this or the prior generation, or a revoked peer.\n   96│#[derive(Debug, Clone, Copy, PartialEq, Eq)]\n   97│pub enum Grade {\n  *98│    /// Exact-epoch proof from a non-revoked peer — a full member connection.\n   99│    Full,\n *100│    /// Prior-epoch (`N-1`) proof from a present, non-revoked peer — push the seed.\n *101│    ReseedOnly,\n *102│    /// No usable proof (wrong seed, `≥2` stale), or a revoked peer.\n  103│    Denied,\n  104│}\n  105│\n  106│/// Grade one subnet from the verify outcome + the peer's roster status. The pure\n *107│/// core of the re-seed grace, unit-tested as a truth table. `matched_current` =\n  108│/// the peer proved this node's CURRENT generation; `matched_prev` = it proved the\n  109│/// immediately-prior one. `status` is `None` when no roster seam is wired (the\n *110│/// D2 mechanics path — epoch-only, no revoke universe).\n  111│// [impl->REQ-MESH-4]\n *112│fn grade_subnet(matched_current: bool, matched_prev: bool, status: Option<MemberStatus>) -> Grade {\n  113│    match status {\n *114│        // No roster info (mechanics-only / D2 tests): epoch-only grading.\n  115│        None => {\n *116│            if matched_current {\n  117│                Grade::Full\n  118│            } else if matched_prev {\n *119│                Grade::ReseedOnly\n  120│            } else {\n  121│                Grade::Denied\n  122│            }\n     │...\n  124│        // Revoked: denied regardless of which generation it proved — the\n *125│        // tombstone locks the revokee out even before its seed is rotated away.\n  126│        Some(MemberStatus::Tombstoned) => Grade::Denied,\n *127│        // Unknown member: a current-epoch proof is admitted (roster merges\n *128│        // catch up on this very connection), but it is never RE-seeded.\n  129│        Some(MemberStatus::Absent) => {\n *130│            if matched_current {\n  131│                Grade::Full\n  132│            } else {\n  133│                Grade::Denied\n     │...\n  137│        Some(MemberStatus::Present) => {\n *138│            if matched_current {\n  139│                Grade::Full\n  140│            } else if matched_prev {\n *141│                Grade::ReseedOnly\n  142│            } else {\n  143│                Grade::Denied\n  144│            }\n     │...\n  151│/// `SubnetStore::load()`; `None` on [`NetConfig`](crate::nethost::NetConfig)\n *152│/// disables seed-proof entirely (both peers must agree — a mixed pair would\n  153│/// deadlock on the missing control stream).\n  154│pub type MembershipSource = Arc<dyn Fn() -> Vec<SubnetCred> + Send + Sync>;\n  155│\n     │...\n  157│/// every connect and project each subnet to its [`SubnetCred`]. Fresh-load (not\n *158│/// a snapshot) so a future seed rotation is honored without a daemon restart;\n  159│/// connects are rare enough that the file read is negligible. A subnet whose\n *160│/// stored seed hex is malformed is skipped (it can't prove anyway).\n  161│// [impl->REQ-MESH-1]\n  162│pub fn production_membership() -> MembershipSource {\n  163│    Arc::new(|| {\n     │...\n  167│            .filter_map(|r| {\n *168│                r.seed_bytes().map(|seed| SubnetCred {\n  169│                    name: r.name.clone(),\n *170│                    seed: seed.to_vec(),\n *171│                    epoch: r.epoch,\n  172│                    // One-deep prior generation (Mesh-D7): present after a\n *173│                    // rotation, lets this node verify an N-1 grace proof.\n *174│                    prev: r.prev_seed_bytes().map(|(s, e)| (s.to_vec(), e)),\n  175│                })\n  176│            })\n  177│            .collect()\n     │...\n  180│\n *181│/// Cap on the seed-proof control-stream framing — a single small handshake; a\n  182│/// length claiming more is a malformed/hostile peer, dropped.\n  183│const MAX_FRAME: usize = 64 * 1024;\n  184│\n  185│/// Generate a fresh 32-byte per-connection nonce from the OS CSPRNG. Reuses\n *186│/// `spt-proto`'s Ed25519 seed generator (OsRng) as the randomness source — the\n  187│/// same no-extra-`rand`-dependency trick the stores use.\n  188│fn fresh_nonce() -> [u8; NONCE_LEN] {\n *189│    Identity::generate().seed()\n  190│}\n  191│\n *192│/// Run the mutual seed-proof on `conn` and return the set of subnets BOTH sides\n  193│/// proved, or `None` if the connection must be dropped (no shared subnet, a\n *194│/// failed proof, or a transport/protocol error). `local_id` is this node's\n  195│/// pubkey; `role` is which side of the connection we are.\n  196│///\n  197│/// When `roster` is `Some` (Mesh-D4, REQ-MESH-2), a roster-exchange leg rides\n *198│/// the **same** control stream **after** both proofs verify — so the roster is\n *199│/// \"exchanged only over seed-proof'd member connections\" by construction, not by\n  200│/// convention. `self_addr` is this node's live dialable address (opaque JSON,\n  201│/// `Null` if none) which the provider stamps onto its own advertised entry. The\n  202│/// leg is **best-effort**: the connection is already a proven member conn, so a\n     │...\n  207│// [impl->REQ-MESH-2]\n *208│pub async fn prove_membership(\n  209│    conn: &Connection,\n  210│    local_id: PublicKey,\n  211│    role: ProofRole,\n     │...\n  259│\n *260│/// One subnet's local generations, as the proof exchange needs them: the\n *261│/// channel-bound transcript + membership key for the current generation and\n *262│/// (one-deep) the prior one (Mesh-D7). The outbound proof set is one tag per\n  263│/// generation; the inbound is graded against both.\n  264│struct GenProof {\n *265│    epoch: u64,\n  266│    mk: MembershipKey,\n  267│    transcript: SeedProofTranscript,\n  268│}\n     │...\n  271│    name: String,\n *272│    current: GenProof,\n  273│    prev: Option<GenProof>,\n  274│}\n  275│\n  276│impl LocalGens {\n *277│    /// The `(epoch, tag)` set this node sends for the subnet, proving each\n *278│    /// generation it holds in role `mine` (current first).\n  279│    fn outbound(&self, mine: ProofRole) -> Vec<(u64, [u8; 32])> {\n *280│        let mut out = vec![(self.current.epoch, self.current.transcript.tag(&self.current.mk, mine))];\n  281│        if let Some(p) = &self.prev {\n *282│            out.push((p.epoch, p.transcript.tag(&p.mk, mine)));\n  283│        }\n  284│        out\n  285│    }\n  286│\n *287│    /// `(matched_current, matched_prev)` for the peer's offered proofs, verified\n  288│    /// in the peer's role `prover`. A tag is matched only at the generation whose\n *289│    /// epoch it carries — the transcript binds the epoch, so a tag for one\n  290│    /// generation can never satisfy another.\n *291│    fn matches(&self, peer_proofs: &[(u64, [u8; 32])], prover: ProofRole) -> (bool, bool) {\n *292│        let mc = peer_proofs.iter().any(|(e, t)| {\n *293│            *e == self.current.epoch && self.current.transcript.verify(&self.current.mk, prover, t)\n  294│        });\n  295│        let mp = self.prev.as_ref().is_some_and(|p| {\n *296│            peer_proofs\n  297│                .iter()\n *298│                .any(|(e, t)| *e == p.epoch && p.transcript.verify(&p.mk, prover, t))\n  299│        });\n  300│        (mc, mp)\n  301│    }\n     │...\n  303│\n *304│/// Build a [`GenProof`] for one generation (seed + epoch) under the connection's\n  305│/// channel binding.\n *306│fn gen_proof(\n *307│    seed: &[u8],\n  308│    name: &str,\n *309│    epoch: u64,\n  310│    dialer_pub: PublicKey,\n  311│    acceptor_pub: PublicKey,\n  312│    nonce_d: [u8; NONCE_LEN],\n     │...\n  315│    GenProof {\n *316│        epoch,\n *317│        mk: MembershipKey::derive(seed, name, epoch),\n  318│        transcript: SeedProofTranscript {\n  319│            subnet_id: name.to_string(),\n *320│            seed_epoch: epoch,\n  321│            dialer_pub,\n  322│            acceptor_pub,\n  323│            dialer_nonce: nonce_d,\n     │...\n  328│\n *329│/// Build the per-subnet generations for the shared set (current + one-deep\n  330│/// prior). `None` if a shared name has no local credential (cannot happen after\n  331│/// the membership filter, but kept total).\n  332│fn build_gens(\n     │...\n  342│        let cred = by_name.get(name.as_str())?;\n *343│        let current = gen_proof(\n *344│            &cred.seed, name, cred.epoch, dialer_pub, acceptor_pub, nonce_d, nonce_a,\n  345│        );\n *346│        let prev = cred.prev.as_ref().map(|(seed, epoch)| {\n *347│            gen_proof(seed, name, *epoch, dialer_pub, acceptor_pub, nonce_d, nonce_a)\n  348│        });\n  349│        out.push(LocalGens {\n  350│            name: name.clone(),\n *351│            current,\n  352│            prev,\n  353│        });\n  354│    }\n     │...\n  358│/// This peer's roster status for a subnet, via the (opt-in) roster seam. `None`\n *359│/// when no seam is wired — the mechanics-only path grades on epoch alone.\n  360│fn peer_status(roster: Option<&RosterExchange>, subnet: &str, peer_hex: &str) -> Option<MemberStatus> {\n  361│    roster.map(|rx| (rx.member_status)(subnet, peer_hex))\n  362│}\n     │...\n  364│/// The graded outcome of an exchange: subnets that proved full, and subnets\n *365│/// where THIS node is the fresh side and must push its current seed.\n  366│struct Graded {\n  367│    full: HashSet<String>,\n *368│    reseed: Vec<String>,\n  369│}\n  370│\n *371│/// Grade every shared subnet from the peer's proof sets + roster status. The\n *372│/// `full`/`reseed` split drives what the legs do; both are derived from the same\n  373│/// per-subnet [`grade_subnet`] truth table.\n  374│fn grade_all(\n  375│    gens: &[LocalGens],\n     │...\n  381│    let mut full = HashSet::new();\n *382│    let mut reseed = Vec::new();\n *383│    for (g, peer_proofs) in gens.iter().zip(peer_sets) {\n *384│        let (mc, mp) = g.matches(peer_proofs, prover);\n  385│        match grade_subnet(mc, mp, peer_status(roster, &g.name, remote_hex)) {\n  386│            Grade::Full => {\n  387│                full.insert(g.name.clone());\n  388│            }\n *389│            Grade::ReseedOnly => reseed.push(g.name.clone()),\n  390│            Grade::Denied => {}\n  391│        }\n  392│    }\n *393│    Graded { full, reseed }\n  394│}\n  395│\n  396│#[allow(clippy::too_many_arguments)]\n     │...\n  415│        Some(SeedProofFrame::Hello { nonce, subnets }) => (nonce, subnets),\n *416│        _ => return None,\n  417│    };\n  418│    // Defensive: only honor subnets we actually offered.\n  419│    if shared.is_empty() || shared.iter().any(|s| !by_name.contains_key(s.as_str())) {\n  420│        let _ = send.finish();\n *421│        return None;\n  422│    }\n  423│\n  424│    let gens = build_gens(&shared, by_name, dialer_pub, acceptor_pub, nonce_d, nonce_a)?;\n  425│\n *426│    // Send all our (dialer-role) proof sets first — current + prior generation\n *427│    // per subnet (Mesh-D7), so a peer one epoch ahead or behind can still match.\n  428│    // They buffer while the acceptor reads, so the ping-pong never deadlocks.\n  429│    for g in &gens {\n *430│        write_frame(send, &SeedProofFrame::ProofSet { proofs: g.outbound(ProofRole::Dialer) }.encode())\n  431│            .await?;\n  432│    }\n *433│    // Then read the acceptor's proof sets (no early abort — grade after the full\n  434│    // read so the legs below stay symmetric with the acceptor; tombstone grading\n  435│    // is one-sided, so an aborting verify would desync the stream).\n  436│    let mut peer_sets = Vec::with_capacity(gens.len());\n     │...\n  438│        match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n *439│            Some(SeedProofFrame::ProofSet { proofs }) => peer_sets.push(proofs),\n *440│            _ => return None,\n  441│        }\n  442│    }\n  443│    let graded = grade_all(&gens, &peer_sets, ProofRole::Acceptor, remote_hex, roster);\n     │...\n  445│    // The legs run over the SHARED set (symmetric on both sides), with\n *446│    // grade-filtered content — never gated on the asymmetric full/reseed split.\n  447│    // Mesh-D4 roster leg (REQ-MESH-2): dialer sends first, then reads.\n  448│    exchange_roster_dialer(send, recv, roster, self_addr, &graded.full).await;\n *449│    // Mesh-D7 re-seed grace leg (REQ-MESH-4): push our current seed for subnets\n  450│    // where the peer proved only the prior generation; adopt any pushed to us.\n *451│    exchange_seed_dialer(send, recv, roster, &graded.reseed, by_name).await;\n  452│    let _ = send.finish();\n  453│    finalize(graded)\n  454│}\n     │...\n  456│/// The connection's verdict from the graded outcome. A purely-denied exchange\n *457│/// (nothing full, nothing re-seeded) drops the conn (`None`). A re-seed-only\n  458│/// exchange registers with an EMPTY proven set: the conn is kept alive only so\n *459│/// the seed push it just carried is actually delivered (dropping it here races\n  460│/// the QUIC CLOSE against the peer's read) — it serves no subnet and is replaced\n  461│/// when the healed peer reconnects full. Otherwise the proven (full) set joins.\n  462│// [impl->REQ-MESH-4]\n  463│fn finalize(graded: Graded) -> Option<HashSet<String>> {\n *464│    if graded.full.is_empty() && graded.reseed.is_empty() {\n  465│        None\n  466│    } else {\n  467│        Some(graded.full)\n     │...\n  483│        Some(SeedProofFrame::Hello { nonce, subnets }) => (nonce, subnets),\n *484│        _ => return None,\n  485│    };\n  486│    // Intersection in a deterministic (sorted) order both sides walk identically.\n  487│    let mut shared: Vec<String> = dialer_names\n     │...\n  501│        let _ = send.finish();\n *502│        return None; // no shared subnet — nothing to mesh, drop\n  503│    }\n  504│\n  505│    let gens = build_gens(&shared, by_name, dialer_pub, acceptor_pub, nonce_d, nonce_a)?;\n  506│\n *507│    // Read the dialer's proof sets first, then send ours (mirror of the dialer's\n  508│    // send-then-read, so the ping-pong stays deadlock-free).\n  509│    let mut peer_sets = Vec::with_capacity(gens.len());\n  510│    for _ in &gens {\n  511│        match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n *512│            Some(SeedProofFrame::ProofSet { proofs }) => peer_sets.push(proofs),\n *513│            _ => return None,\n  514│        }\n  515│    }\n  516│    for g in &gens {\n *517│        write_frame(send, &SeedProofFrame::ProofSet { proofs: g.outbound(ProofRole::Acceptor) }.encode())\n  518│            .await?;\n  519│    }\n  520│    let graded = grade_all(&gens, &peer_sets, ProofRole::Dialer, remote_hex, roster);\n     │...\n  523│    exchange_roster_acceptor(send, recv, roster, self_addr, &graded.full).await;\n *524│    exchange_seed_acceptor(send, recv, roster, &graded.reseed, by_name).await;\n  525│    let _ = send.finish();\n  526│    finalize(graded)\n  527│}\n     │...\n  541│    if n == 0 || n > max {\n *542│        return None;\n  543│    }\n  544│    let mut buf = vec![0u8; n];\n  545│    recv.read_exact(&mut buf).await.ok()?;\n     │...\n  571│\n *572│/// Looks up a peer's [`MemberStatus`] for a subnet (Mesh-D7 — the re-seed\n  573│/// grace gate). Production: a `RosterStore` membership/tombstone lookup.\n  574│pub type MemberStatusFn = Arc<dyn Fn(&str, &str) -> MemberStatus + Send + Sync>;\n  575│\n *576│/// Adopts a seed handed over the grace leg (Mesh-D7). Production:\n *577│/// `SubnetStore::adopt_rotation` (validates length, ignores non-newer epochs).\n  578│/// Returns whether anything was adopted (callers may log).\n  579│pub type AdoptSeedFn = Arc<dyn Fn(&str, &[u8], u64) -> bool + Send + Sync>;\n  580│\n     │...\n  582│/// (Mesh-D4, REQ-MESH-2; Mesh-D7 added the grace seams). `None` (the default)\n *583│/// disables the roster + grace legs entirely — the proof still runs, graded on\n *584│/// epoch alone. Cheap to clone (Arc closures).\n  585│#[derive(Clone)]\n  586│pub struct RosterExchange {\n  587│    /// Produces our outbound slice (+ self-address stamp) for the proven subnets.\n     │...\n  590│    pub sink: RosterSink,\n *591│    /// The peer's per-subnet roster status — gates the re-seed grace (a revoked\n *592│    /// peer is denied; an unknown one is never re-seeded). [`REQ-MESH-4`].\n  593│    pub member_status: MemberStatusFn,\n *594│    /// Adopts a seed the peer pushes over the grace leg (Mesh-D7). [`REQ-MESH-4`].\n *595│    pub adopt_seed: AdoptSeedFn,\n  596│}\n  597│\n  598│/// The dialer's roster leg: send ours, then read + sink theirs. Best-effort —\n     │...\n  641│\n *642│// ── Mesh-D7: the confidential re-seed grace leg (REQ-MESH-4) ─────────────────\n  643│//\n  644│// Runs after the roster leg, over the SAME member-auth'd control stream. Each\n *645│// side pushes its CURRENT `{seed, epoch}` for every subnet where it graded the\n *646│// peer `ReseedOnly` (the peer proved only the prior generation — it is a benign\n *647│// member one rotation behind) and adopts any seed the peer pushes to it. The\n *648│// seed rides ONLY this leg — never `roster.json`/registry gossip — so a leaked\n  649│// gossip record can never carry it (the REQ-MESH-4 secrecy invariant). Gated on\n  650│// the seam's presence (symmetric), like the roster leg; the frame is exchanged\n  651│// even when empty so the stream never desyncs.\n  652│\n *653│/// One pushed generation: which subnet, the raw seed, and its epoch.\n  654│type SeedPush = (String, Vec<u8>, u64);\n  655│\n *656│/// Build this node's push list from the reseed-graded subnets using its CURRENT\n  657│/// credential (the generation the behind peer is missing).\n *658│fn seed_pushes(reseed: &[String], by_name: &HashMap<&str, &SubnetCred>) -> Vec<SeedPush> {\n *659│    reseed\n  660│        .iter()\n *661│        .filter_map(|n| by_name.get(n.as_str()).map(|c| (n.clone(), c.seed.clone(), c.epoch)))\n  662│        .collect()\n  663│}\n  664│\n *665│/// The dialer's seed leg: send our pushes, then read + adopt the peer's.\n *666│async fn exchange_seed_dialer(\n  667│    send: &mut SendStream,\n  668│    recv: &mut RecvStream,\n  669│    roster: Option<&RosterExchange>,\n *670│    reseed: &[String],\n  671│    by_name: &HashMap<&str, &SubnetCred>,\n  672│) {\n  673│    let Some(rx) = roster else { return };\n *674│    let pushes = seed_pushes(reseed, by_name);\n *675│    if write_frame(send, &enc_seedxfer(&pushes)).await.is_none() {\n  676│        return;\n  677│    }\n  678│    if let Some(body) = read_frame(recv, MAX_FRAME).await {\n *679│        if let Some(items) = dec_seedxfer(&body) {\n *680│            for (name, seed, epoch) in items {\n *681│                (rx.adopt_seed)(&name, &seed, epoch);\n  682│            }\n  683│        }\n  684│    }\n     │...\n  686│\n *687│/// The acceptor's seed leg: read + adopt the peer's, then send ours (mirror).\n *688│async fn exchange_seed_acceptor(\n  689│    send: &mut SendStream,\n  690│    recv: &mut RecvStream,\n  691│    roster: Option<&RosterExchange>,\n *692│    reseed: &[String],\n  693│    by_name: &HashMap<&str, &SubnetCred>,\n  694│) {\n  695│    let Some(rx) = roster else { return };\n  696│    if let Some(body) = read_frame(recv, MAX_FRAME).await {\n *697│        if let Some(items) = dec_seedxfer(&body) {\n *698│            for (name, seed, epoch) in items {\n *699│                (rx.adopt_seed)(&name, &seed, epoch);\n  700│            }\n  701│        }\n  702│    }\n *703│    let pushes = seed_pushes(reseed, by_name);\n *704│    let _ = write_frame(send, &enc_seedxfer(&pushes)).await;\n  705│}\n  706│\n *707│/// Encode the seed-transfer frame: `u32 count` then per item `field(subnet) ‖\n *708│/// field(seed) ‖ u64 epoch`. Self-contained positional codec, same discipline as\n *709│/// [`enc_roster`]; the seed is raw bytes (it never appears anywhere else on the\n  710│/// wire). Counts are never pre-allocated on decode.\n  711│// [impl->REQ-MESH-4]\n *712│fn enc_seedxfer(items: &[SeedPush]) -> Vec<u8> {\n  713│    let mut b = Vec::new();\n  714│    b.extend_from_slice(&(items.len() as u32).to_be_bytes());\n *715│    for (subnet, seed, epoch) in items {\n  716│        push_field(&mut b, subnet.as_bytes());\n *717│        push_field(&mut b, seed);\n *718│        b.extend_from_slice(&epoch.to_be_bytes());\n  719│    }\n  720│    b\n  721│}\n  722│\n *723│/// Decode a seed-transfer frame. Total: any truncation, non-UTF-8 subnet, or\n  724│/// trailing garbage ⇒ `None` (the leg then no-ops — never a partial adopt).\n  725│// [impl->REQ-MESH-4]\n *726│fn dec_seedxfer(buf: &[u8]) -> Option<Vec<SeedPush>> {\n  727│    let mut r = Rdr { b: buf, pos: 0 };\n  728│    let n = r.u32()? as usize;\n  729│    let mut out = Vec::new();\n     │...\n  731│        let subnet = r.utf8()?;\n *732│        let seed = r.field()?.to_vec();\n *733│        let epoch = r.u64()?;\n *734│        out.push((subnet, seed, epoch));\n  735│    }\n  736│    if r.pos != buf.len() {\n *737│        return None;\n  738│    }\n  739│    Some(out)\n  740│}\n     │...\n  770│        push_field(&mut b, e.last_seen.as_bytes());\n *771│        b.extend_from_slice(&e.lease_epoch.to_be_bytes());\n  772│    }\n  773│    b.extend_from_slice(&(tombstones.len() as u32).to_be_bytes());\n  774│    for t in tombstones {\n     │...\n  792│        if end > self.b.len() {\n *793│            return None;\n  794│        }\n  795│        let s = &self.b[self.pos..end];\n  796│        self.pos = end;\n     │...\n  832│        let last_seen = r.utf8()?;\n *833│        let lease_epoch = r.u64()?;\n  834│        entries.push(RosterEntry {\n  835│            pubkey_hex,\n  836│            subnet,\n     │...\n  840│            last_seen,\n *841│            lease_epoch,\n  842│        });\n  843│    }\n  844│    let tn = r.u32()? as usize;\n     │...\n  856│    if r.pos != buf.len() {\n *857│        return None; // no trailing garbage\n  858│    }\n  859│    Some((entries, tombstones))\n  860│}\n     │...\n  862│/// Gap-fill a dial cache from learned roster entries (the seam decision): a\n *863│/// learned member's advertised address seeds `peer-addrs.json` **only when\n  864│/// absent** — a locally-observed address (written by the pump after a real dial)\n  865│/// is fresher and more reachable, so it is never clobbered. Self entries are\n  866│/// skipped. Returns whether anything changed (callers skip the disk write on a\n     │...\n  885│/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\n *886│/// re-read per connect (rare; honors a concurrent pairing/revoke without a\n  887│/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\n  888│/// provider stamps the node's live address onto its self-entry so peers learn\n  889│/// how to reach it; the sink merges the peer's slice and gap-fills the dial\n     │...\n  903│            // registry lease counter (the D3 rule).\n *904│            let lease = spt_store::epoch::EpochSource::load().current();\n  905│            let now = now_secs().to_string();\n  906│            let addr = if self_addr.is_null() {\n  907│                None\n     │...\n  951│        }),\n *952│        // Mesh-D7 (REQ-MESH-4): adopt a pushed seed into the live subnet store —\n *953│        // a strictly-newer epoch only (idempotent, never a downgrade). The 20-byte\n  954│        // length is enforced here; a malformed push is ignored.\n *955│        adopt_seed: Arc::new(move |subnet: &str, seed: &[u8], epoch: u64| {\n *956│            let Ok(bytes) = <[u8; spt_store::subnet::TOTP_SEED_LEN]>::try_from(seed) else {\n  957│                return false;\n  958│            };\n  959│            let mut store = SubnetStore::load();\n *960│            match store.adopt_rotation(subnet, bytes, epoch) {\n  961│                Ok(true) => store.save().is_ok(),\n  962│                _ => false,\n  963│            }\n     │...\n  986│            last_seen: \"1700000000\".to_string(),\n *987│            lease_epoch: lease,\n  988│        }\n  989│    }\n  990│\n     │...\n 1047│\n*1048│    // [unit->REQ-MESH-2] gap-fill seeds the dial cache from a learned member's\n 1049│    // advertised address ONLY when absent: a locally-observed entry is never\n 1050│    // clobbered, and the node's own entry is skipped.\n 1051│    #[test]\n     │...\n 1078│\n*1079│    // [unit->REQ-MESH-4] the re-seed grant/deny truth table. With a roster seam:\n*1080│    // exact-epoch from a present (or even not-yet-known) member ⇒ Full; the\n*1081│    // prior epoch from a PRESENT member ⇒ ReseedOnly; a tombstoned (revoked)\n*1082│    // peer ⇒ Denied on ANY generation (even exact, before its seed is rotated);\n*1083│    // an absent peer is never re-seeded; two-stale (no match) ⇒ Denied.\n 1084│    #[test]\n 1085│    fn grade_truth_table() {\n 1086│        use Grade::*;\n     │...\n 1088│\n*1089│        // exact-epoch (matched_current = true)\n 1090│        assert_eq!(grade_subnet(true, false, Some(Present)), Full);\n*1091│        assert_eq!(grade_subnet(true, false, Some(Absent)), Full, \"unknown member, current seed ⇒ admit\");\n 1092│        assert_eq!(grade_subnet(true, false, Some(Tombstoned)), Denied, \"revokee denied even exact\");\n 1093│\n*1094│        // prior-epoch only (matched_prev = true, matched_current = false)\n*1095│        assert_eq!(grade_subnet(false, true, Some(Present)), ReseedOnly, \"benign offliner ⇒ grace\");\n 1096│        assert_eq!(grade_subnet(false, true, Some(Tombstoned)), Denied, \"revoked N-1 ⇒ denied\");\n*1097│        assert_eq!(grade_subnet(false, true, Some(Absent)), Denied, \"off-roster N-1 ⇒ never re-seeded\");\n 1098│\n 1099│        // ≥2 stale / forged (no match at any held generation)\n 1100│        assert_eq!(grade_subnet(false, false, Some(Present)), Denied);\n     │...\n 1102│\n*1103│        // No roster seam (D2 mechanics path): epoch-only grading.\n 1104│        assert_eq!(grade_subnet(true, false, None), Full);"},"isError":false,"timestamp":1784069195334}}
{"type":"message","id":"8342e5ff","parentId":"b3b0cb9f","timestamp":"2026-07-14T22:46:35.336Z","message":{"role":"toolResult","toolCallId":"call_JPLpiIyPG86ZFg2whwIqrlZ8|fc_0b084cf0b521ab15016a56bc4b26ec819091df495b3583f97c","toolName":"grep","content":[{"type":"text","text":" 972|        #[arg(long)]\n*973|        nodes: bool,\n 974|    },\n 975|    /// Mint a fresh subnet and print its joining material.\n 976|    ///\n...\n 1253|                None => cmd_subnet_status(None, false, true, json),\n*1254|                Some(SubnetCmd::Status { name, nodes }) => cmd_subnet_status(name, nodes, false, json),\n 1255|                Some(SubnetCmd::Create { name }) => cmd_subnet_create(name),\n 1256|                Some(SubnetCmd::ShowCode { name }) => cmd_subnet_show_code(name, json),\n 1257|                Some(SubnetCmd::Join {"}],"details":{"scopePath":"spt-core/crates/spt/src/cli.rs","searchPath":"C:/Users/decid/Documents/projects/spt-core/crates/spt/src/cli.rs","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":2,"fileCount":1,"files":["spt-core/crates/spt/src/cli.rs"],"fileMatches":[{"path":"spt-core/crates/spt/src/cli.rs","count":2}],"truncated":false,"displayContent":"  972│        #[arg(long)]\n *973│        nodes: bool,\n  974│    },\n  975│    /// Mint a fresh subnet and print its joining material.\n  976│    ///\n     │...\n 1253│                None => cmd_subnet_status(None, false, true, json),\n*1254│                Some(SubnetCmd::Status { name, nodes }) => cmd_subnet_status(name, nodes, false, json),\n 1255│                Some(SubnetCmd::Create { name }) => cmd_subnet_create(name),\n 1256│                Some(SubnetCmd::ShowCode { name }) => cmd_subnet_show_code(name, json),\n 1257│                Some(SubnetCmd::Join {"},"isError":false,"timestamp":1784069195335}}
{"type":"message","id":"577c2134","parentId":"8342e5ff","timestamp":"2026-07-14T22:46:35.343Z","message":{"role":"toolResult","toolCallId":"call_a9TRJGamBnEXUeWDoVpLSoc0|fc_0b084cf0b521ab15016a56bc4b26fc819091b8ac6f35733da1","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt-store/src/\n### visibility.rs\n 10|//!              = S.hide_new_endpoints      (per-subnet, captured at join time)\n*11|//!                OR E.default_hide         (per-endpoint default_hide_from_new_subnets)\n 12|//! ```\n 13|//!\n 14|//! Both defaults ship OFF (visible). Enforcement points: the registry's\n...\n 20|//! subnets on its **per-endpoint subnet-membership list** ([`sync_subnets`]\n*21|//! (VisibilityStore::sync_subnets)). An endpoint with **no list configured syncs\n 22|//! nowhere** — exclusive-by-default, fail-closed; the endpoint-creation flow seeds the\n 23|//! list with the home subnet (ADR-0010: home is the default sync anchor), and D6's\n*24|//! replication consumes [`synced`](VisibilityStore::synced) as its gate.\n 25|//!\n 26|//! Node-local config under [`identity/`](crate::perch::identity_dir) — this is the\n 27|//! *owning node's* advertisement policy, not registry data; what other nodes see is\n...\n 41|#[derive(Debug, Clone, Default, PartialEq, Eq, Serialize, Deserialize)]\n*42|pub struct VisibilityStore {\n*43|    /// Per-endpoint `default_hide_from_new_subnets` (ADR-0006 §6). Absent = `false`.\n 44|    #[serde(default)]\n*45|    default_hide: BTreeMap<String, bool>,\n 46|    /// Explicit per-`(endpoint, subnet)` overrides: `endpoint → subnet → hidden`.\n 47|    /// An override **wins over the OR-of-defaults in both directions** (it can force\n 48|    /// an endpoint visible in a hide-by-default subnet, or hide it in a visible one).\n...\n 57|\n*58|impl VisibilityStore {\n 59|    /// Load from the canonical [`visibility_file`]. Missing file = all-defaults\n 60|    /// (every endpoint visible, no sync lists) — never an error.\n*61|    pub fn load() -> VisibilityStore {\n 62|        Self::load_from(&visibility_file())\n 63|    }\n 64|\n...\n 67|    /// (crate::subnet::SubnetStore) ethos — damaged config must not brick the node).\n*68|    pub fn load_from(path: &Path) -> VisibilityStore {\n 69|        match std::fs::read_to_string(path) {\n 70|            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n*71|            Err(_) => VisibilityStore::default(),\n 72|        }\n 73|    }\n 74|\n...\n 89|\n*90|    /// The endpoint's `default_hide_from_new_subnets` flag (absent = `false`).\n*91|    pub fn default_hide(&self, endpoint: &str) -> bool {\n*92|        self.default_hide.get(endpoint).copied().unwrap_or(false)\n 93|    }\n 94|\n*95|    /// Set the endpoint's `default_hide_from_new_subnets` flag.\n*96|    pub fn set_default_hide(&mut self, endpoint: &str, hide: bool) {\n*97|        self.default_hide.insert(endpoint.to_string(), hide);\n 98|    }\n 99|\n 100|    /// Remove ALL of `endpoint`'s rows — its per-endpoint default-hide flag, every\n...\n 106|    pub fn remove_endpoint(&mut self, endpoint: &str) -> bool {\n*107|        let had_default = self.default_hide.remove(endpoint).is_some();\n 108|        let had_overrides = self.overrides.remove(endpoint).is_some();\n 109|        let had_sync = self.sync_subnets.remove(endpoint).is_some();\n 110|        had_default || had_overrides || had_sync\n...\n 145|    /// (crate::subnet::SubnetRecord::hide_new_endpoints)) **OR** the endpoint's\n*146|    /// [`default_hide`](Self::default_hide). Hidden means *not advertised and not\n 147|    /// routable* — the registry's advertise/resolve enforcement consumes this.\n 148|    // [impl->REQ-INST-12]\n*149|    pub fn hidden(&self, endpoint: &str, subnet: &str, subnet_hide_new: bool) -> bool {\n 150|        match self.override_for(endpoint, subnet) {\n 151|            Some(explicit) => explicit,\n*152|            None => subnet_hide_new || self.default_hide(endpoint),\n 153|        }\n 154|    }\n 155|\n\n## spt-net/src/net/\n### registry.rs\n 34|//! Excluded = **not advertised AND not routable** (ADR-0006 §6). The policy lives in\n*35|//! [`spt_store::visibility::VisibilityStore`]; this module enforces it at both\n 36|//! registry boundaries: [`advertise_if_visible`] keeps hidden endpoints out of the\n 37|//! registry entirely, and [`resolve_visible`](SubnetRegistry::resolve_visible) /\n 38|//! [`resolve_across_visible`] refuse to route to them (even via an explicit `@node`\n...\n 46|use spt_proto::addr::Address;\n*47|use spt_store::visibility::VisibilityStore;\n 48|\n 49|/// An endpoint instance's liveness within a subnet. Ordering carries no precedence —\n 50|/// precedence is the epoch's job; status is just the advertised state.\n...\n 780|/// `hide_new_endpoints` flag ([`spt_store::subnet::SubnetRecord`]); the policy is\n*781|/// [`VisibilityStore::hidden`].\n 782|// [impl->REQ-INST-12]\n 783|pub fn advertise_if_visible(\n 784|    registry: &mut SubnetRegistry,\n*785|    visibility: &VisibilityStore,\n 786|    subnet_name: &str,\n 787|    subnet_hide_new: bool,\n 788|    endpoint_id: &str,\n...\n 874|    /// pin (excluded is a real boundary, not a listing cosmetic). Callers build the\n*875|    /// closure from [`spt_store::visibility::VisibilityStore::hidden`] with this\n 876|    /// subnet's `hide_new_endpoints` flag.\n 877|    // [impl->REQ-INST-12]\n 878|    pub fn resolve_visible(\n...\n 2376|    fn advertise_if_visible_gates_before_join() {\n*2377|        let mut vis = VisibilityStore::default();\n*2378|        vis.set_default_hide(\"ling\", true);\n 2379|\n 2380|        let mut reg = SubnetRegistry::new();\n 2381|        // Hidden ⇒ not advertised, no collision claim."}],"details":{"scopePath":"spt-core/crates/spt-store/src/visibility.rs, spt-core/crates/spt-net/src/net/registry.rs","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":27,"fileCount":2,"files":["spt-core/crates/spt-store/src/visibility.rs","spt-core/crates/spt-net/src/net/registry.rs"],"fileMatches":[{"path":"spt-core/crates/spt-store/src/visibility.rs","count":20},{"path":"spt-core/crates/spt-net/src/net/registry.rs","count":7}],"truncated":true,"perFileLimitReached":20,"displayContent":"# spt-core/crates/\n\n## spt-store/src/\n### visibility.rs\n  10│//!              = S.hide_new_endpoints      (per-subnet, captured at join time)\n *11│//!                OR E.default_hide         (per-endpoint default_hide_from_new_subnets)\n  12│//! ```\n  13│//!\n  14│//! Both defaults ship OFF (visible). Enforcement points: the registry's\n    │...\n  20│//! subnets on its **per-endpoint subnet-membership list** ([`sync_subnets`]\n *21│//! (VisibilityStore::sync_subnets)). An endpoint with **no list configured syncs\n  22│//! nowhere** — exclusive-by-default, fail-closed; the endpoint-creation flow seeds the\n  23│//! list with the home subnet (ADR-0010: home is the default sync anchor), and D6's\n *24│//! replication consumes [`synced`](VisibilityStore::synced) as its gate.\n  25│//!\n  26│//! Node-local config under [`identity/`](crate::perch::identity_dir) — this is the\n  27│//! *owning node's* advertisement policy, not registry data; what other nodes see is\n    │...\n  41│#[derive(Debug, Clone, Default, PartialEq, Eq, Serialize, Deserialize)]\n *42│pub struct VisibilityStore {\n *43│    /// Per-endpoint `default_hide_from_new_subnets` (ADR-0006 §6). Absent = `false`.\n  44│    #[serde(default)]\n *45│    default_hide: BTreeMap<String, bool>,\n  46│    /// Explicit per-`(endpoint, subnet)` overrides: `endpoint → subnet → hidden`.\n  47│    /// An override **wins over the OR-of-defaults in both directions** (it can force\n  48│    /// an endpoint visible in a hide-by-default subnet, or hide it in a visible one).\n    │...\n  57│\n *58│impl VisibilityStore {\n  59│    /// Load from the canonical [`visibility_file`]. Missing file = all-defaults\n  60│    /// (every endpoint visible, no sync lists) — never an error.\n *61│    pub fn load() -> VisibilityStore {\n  62│        Self::load_from(&visibility_file())\n  63│    }\n  64│\n    │...\n  67│    /// (crate::subnet::SubnetStore) ethos — damaged config must not brick the node).\n *68│    pub fn load_from(path: &Path) -> VisibilityStore {\n  69│        match std::fs::read_to_string(path) {\n  70│            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n *71│            Err(_) => VisibilityStore::default(),\n  72│        }\n  73│    }\n  74│\n    │...\n  89│\n *90│    /// The endpoint's `default_hide_from_new_subnets` flag (absent = `false`).\n *91│    pub fn default_hide(&self, endpoint: &str) -> bool {\n *92│        self.default_hide.get(endpoint).copied().unwrap_or(false)\n  93│    }\n  94│\n *95│    /// Set the endpoint's `default_hide_from_new_subnets` flag.\n *96│    pub fn set_default_hide(&mut self, endpoint: &str, hide: bool) {\n *97│        self.default_hide.insert(endpoint.to_string(), hide);\n  98│    }\n  99│\n 100│    /// Remove ALL of `endpoint`'s rows — its per-endpoint default-hide flag, every\n    │...\n 106│    pub fn remove_endpoint(&mut self, endpoint: &str) -> bool {\n*107│        let had_default = self.default_hide.remove(endpoint).is_some();\n 108│        let had_overrides = self.overrides.remove(endpoint).is_some();\n 109│        let had_sync = self.sync_subnets.remove(endpoint).is_some();\n 110│        had_default || had_overrides || had_sync\n    │...\n 145│    /// (crate::subnet::SubnetRecord::hide_new_endpoints)) **OR** the endpoint's\n*146│    /// [`default_hide`](Self::default_hide). Hidden means *not advertised and not\n 147│    /// routable* — the registry's advertise/resolve enforcement consumes this.\n 148│    // [impl->REQ-INST-12]\n*149│    pub fn hidden(&self, endpoint: &str, subnet: &str, subnet_hide_new: bool) -> bool {\n 150│        match self.override_for(endpoint, subnet) {\n 151│            Some(explicit) => explicit,\n*152│            None => subnet_hide_new || self.default_hide(endpoint),\n 153│        }\n 154│    }\n 155│\n\n## spt-net/src/net/\n### registry.rs\n   34│//! Excluded = **not advertised AND not routable** (ADR-0006 §6). The policy lives in\n  *35│//! [`spt_store::visibility::VisibilityStore`]; this module enforces it at both\n   36│//! registry boundaries: [`advertise_if_visible`] keeps hidden endpoints out of the\n   37│//! registry entirely, and [`resolve_visible`](SubnetRegistry::resolve_visible) /\n   38│//! [`resolve_across_visible`] refuse to route to them (even via an explicit `@node`\n     │...\n   46│use spt_proto::addr::Address;\n  *47│use spt_store::visibility::VisibilityStore;\n   48│\n   49│/// An endpoint instance's liveness within a subnet. Ordering carries no precedence —\n   50│/// precedence is the epoch's job; status is just the advertised state.\n     │...\n  780│/// `hide_new_endpoints` flag ([`spt_store::subnet::SubnetRecord`]); the policy is\n *781│/// [`VisibilityStore::hidden`].\n  782│// [impl->REQ-INST-12]\n  783│pub fn advertise_if_visible(\n  784│    registry: &mut SubnetRegistry,\n *785│    visibility: &VisibilityStore,\n  786│    subnet_name: &str,\n  787│    subnet_hide_new: bool,\n  788│    endpoint_id: &str,\n     │...\n  874│    /// pin (excluded is a real boundary, not a listing cosmetic). Callers build the\n *875│    /// closure from [`spt_store::visibility::VisibilityStore::hidden`] with this\n  876│    /// subnet's `hide_new_endpoints` flag.\n  877│    // [impl->REQ-INST-12]\n  878│    pub fn resolve_visible(\n     │...\n 2376│    fn advertise_if_visible_gates_before_join() {\n*2377│        let mut vis = VisibilityStore::default();\n*2378│        vis.set_default_hide(\"ling\", true);\n 2379│\n 2380│        let mut reg = SubnetRegistry::new();\n 2381│        // Hidden ⇒ not advertised, no collision claim."},"isError":false,"timestamp":1784069195343}}
{"type":"message","id":"03a2f3ed","parentId":"577c2134","timestamp":"2026-07-14T22:46:35.343Z","message":{"role":"toolResult","toolCallId":"call_htPJtsEjBxvhbnMgoto6skn8|fc_0b084cf0b521ab15016a56bc4b26b48190aaa8456741b7cb0c","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/spt-daemon/src/\n## brainproc.rs\n 265|            eprintln!(\n*266|                \"BRAIN_NET_CONSUMERS_UP: net enabled (node {hex}) — dispatcher + peer pump started\"\n 267|            );\n 268|        }\n 269|        // DRIVE the broker's controller-liveness reap every heartbeat (UPDATE-WEDGE\n...\n 319|    let cfg = crate::config::DaemonConfig::load();\n*320|    if cfg.peer_pump {\n*321|        let _ = crate::pump::spawn_peer_pump(broker_socket_name(), registry, cfg, stop);\n 322|    }\n 323|}\n 324|\n...\n 1308|\n*1309|    /// The net-consumer gate (D2-1): the brain spawns the dispatcher + peer pump\n 1310|    /// exactly once, only after the broker reports net `enabled`. A net-less\n 1311|    /// broker (`enabled=false`) never spawns them; once started they are never\n 1312|    /// re-spawned (the `already_started` latch) — so a single consumer set runs,\n\n## pump/\n### mod.rs\n 515|/// logic lives here — the shell owns only *when* and *toward whom*.\n*516|pub fn run_peer_pump(\n 517|    broker_name: &str,\n 518|    registry: Arc<RegistryHost>,\n 519|    paths: &PumpPaths,\n...\n 1046|/// stop request lands promptly. Generic over the body for the unit\n*1047|/// harness; production binds [`run_peer_pump`].\n 1048|// [impl->REQ-DAEMON-5]\n 1049|pub fn supervise_pump(stop: &AtomicBool, base: Duration, mut body: impl FnMut() -> io::Result<()>) {\n 1050|    let mut backoff = base;\n...\n 1089|// [impl->REQ-DAEMON-5]\n*1090|pub fn spawn_peer_pump(\n 1091|    broker_name: String,\n 1092|    registry: Arc<RegistryHost>,\n 1093|    cfg: DaemonConfig,\n...\n 1098|        supervise_pump(&stop, SUPERVISE_BACKOFF_BASE, || {\n*1099|            run_peer_pump(\n 1100|                &broker_name,\n 1101|                Arc::clone(&registry),\n 1102|                &paths,\n...\n 1196|    // scheduler kernels — `compute_due` / `pre_rounds` / `run_due` / `mark_ran`\n*1197|    // / `fan_targets`, the exact fns `run_peer_pump` drives — with scripted\n 1198|    // workers and no real time, no broker, no loopback E2E. The peer-step IO\n 1199|    // (PeerIo → brain) is exercised by `tests/pump.rs`; here `run_due` takes a\n 1200|    // recording closure so the ordering/abort choreography is a unit fact."}],"details":{"scopePath":"spt-core/crates/spt-daemon/src/brainproc.rs, spt-core/crates/spt-daemon/src/pump/mod.rs","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":9,"fileCount":2,"files":["spt-core/crates/spt-daemon/src/brainproc.rs","spt-core/crates/spt-daemon/src/pump/mod.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/brainproc.rs","count":4},{"path":"spt-core/crates/spt-daemon/src/pump/mod.rs","count":5}],"truncated":false,"displayContent":"# spt-core/crates/spt-daemon/src/\n## brainproc.rs\n  265│            eprintln!(\n *266│                \"BRAIN_NET_CONSUMERS_UP: net enabled (node {hex}) — dispatcher + peer pump started\"\n  267│            );\n  268│        }\n  269│        // DRIVE the broker's controller-liveness reap every heartbeat (UPDATE-WEDGE\n     │...\n  319│    let cfg = crate::config::DaemonConfig::load();\n *320│    if cfg.peer_pump {\n *321│        let _ = crate::pump::spawn_peer_pump(broker_socket_name(), registry, cfg, stop);\n  322│    }\n  323│}\n  324│\n     │...\n 1308│\n*1309│    /// The net-consumer gate (D2-1): the brain spawns the dispatcher + peer pump\n 1310│    /// exactly once, only after the broker reports net `enabled`. A net-less\n 1311│    /// broker (`enabled=false`) never spawns them; once started they are never\n 1312│    /// re-spawned (the `already_started` latch) — so a single consumer set runs,\n\n## pump/\n### mod.rs\n  515│/// logic lives here — the shell owns only *when* and *toward whom*.\n *516│pub fn run_peer_pump(\n  517│    broker_name: &str,\n  518│    registry: Arc<RegistryHost>,\n  519│    paths: &PumpPaths,\n     │...\n 1046│/// stop request lands promptly. Generic over the body for the unit\n*1047│/// harness; production binds [`run_peer_pump`].\n 1048│// [impl->REQ-DAEMON-5]\n 1049│pub fn supervise_pump(stop: &AtomicBool, base: Duration, mut body: impl FnMut() -> io::Result<()>) {\n 1050│    let mut backoff = base;\n     │...\n 1089│// [impl->REQ-DAEMON-5]\n*1090│pub fn spawn_peer_pump(\n 1091│    broker_name: String,\n 1092│    registry: Arc<RegistryHost>,\n 1093│    cfg: DaemonConfig,\n     │...\n 1098│        supervise_pump(&stop, SUPERVISE_BACKOFF_BASE, || {\n*1099│            run_peer_pump(\n 1100│                &broker_name,\n 1101│                Arc::clone(&registry),\n 1102│                &paths,\n     │...\n 1196│    // scheduler kernels — `compute_due` / `pre_rounds` / `run_due` / `mark_ran`\n*1197│    // / `fan_targets`, the exact fns `run_peer_pump` drives — with scripted\n 1198│    // workers and no real time, no broker, no loopback E2E. The peer-step IO\n 1199│    // (PeerIo → brain) is exercised by `tests/pump.rs`; here `run_due` takes a\n 1200│    // recording closure so the ordering/abort choreography is a unit fact."},"isError":false,"timestamp":1784069195343}}
{"type":"message","id":"0eabc422","parentId":"03a2f3ed","timestamp":"2026-07-14T22:46:35.352Z","message":{"role":"toolResult","toolCallId":"call_Frp77vk3w6bzaviQSM5aCPNY|fc_0b084cf0b521ab15016a56bc4b278c8190abbd1c64fa50a6ac","toolName":"read","content":[{"type":"text","text":"impl std::fmt::Display for NetError {\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\n        match self {\n            NetError::Bind(e) => write!(f, \"endpoint bind failed: {e}\"),\n            NetError::Connect(e) => write!(f, \"connect failed: {e}\"),\n        }\n    }\n}\n\nimpl std::error::Error for NetError {}\n\n/// Which IP families a production-scope endpoint actually binds\n/// (REQ-NET-FAMILY-GATE). iroh binds dual-stack by default; a half-broken family\n/// (e.g. IPv6 whose AAAA resolves but whose path is dead) silently burns\n/// discovery/connect time on every attempt. We probe each family once at bind and\n/// drop the *dead* one — never a fixed \"prefer IPv4\" (an IPv6-only network must\n/// still work).\n#[derive(Debug, Clone, Copy, PartialEq, Eq)]\nenum BindFamilies {\n    /// Both families bind (the iroh default — both healthy, or the probe was\n    /// inconclusive and we must not strand the node).\n    Dual,\n    /// IPv4 only — IPv6 is dead or force-disabled.\n    V4Only,\n    /// IPv6 only — IPv4 is dead or force-disabled.\n    V6Only,\n}\n\n/// WAN reachability probe targets — Cloudflare's public anycast resolver on each\n/// family (no DNS step; a literal address per family). A bounded TCP connect to\n/// `:443` is the same discriminator the field incident used by hand\n/// (`Test-NetConnection dns.iroh.link -Port 443`): it catches a half-broken family\n/// whose route exists but whose path is dead, which a mere route-table check\n/// (UDP connect) would miss.\nconst PROBE_V4: &str = \"1.1.1.1:443\";\nconst PROBE_V6: &str = \"[2606:4700:4700::1111]:443\";\n\n/// Per-family reachability probe timeout. Short so a healthy bind is not slowed\n/// (a reachable family answers in tens of ms; only a DEAD family waits this out,\n/// and that wait replaces a 75 s silent rendezvous failure).\nconst FAMILY_PROBE_TIMEOUT: Duration = Duration::from_millis(1500);\n\n/// Parse a force-off env flag (`SPT_DISABLE_IPV6` / `SPT_DISABLE_IPV4`): present\n/// and \"truthy\" ⇒ force the family off. Empty / `0` / `false` / `no` read as off\n/// (the flag is not set), mirroring a conventional boolean env knob. Factored from\n/// [`env_flag`] so the parse is unit-testable without touching the environment.\nfn flag_is_on(val: Option<&str>) -> bool {\n    match val {\n        Some(v) => {\n            let v = v.trim();\n            !v.is_empty()\n                && !v.eq_ignore_ascii_case(\"0\")\n                && !v.eq_ignore_ascii_case(\"false\")\n                && !v.eq_ignore_ascii_case(\"no\")\n        }\n        None => false,\n    }\n}\n\n/// Whether the named env var is a set boolean flag (see [`flag_is_on`]).\nfn env_flag(var: &str) -> bool {\n    flag_is_on(std::env::var(var).ok().as_deref())\n}\n\n/// Pure family selection from per-family reachability + the force-off overrides\n/// (REQ-NET-FAMILY-GATE). No sockets — this is the unit-testable core.\n///\n/// - A **force-off** override is absolute: the family is never bound regardless of\n///   its probe. Both forced off is an error (nothing to bind).\n/// - With neither forced, a family is dropped ONLY when it probes dead AND the\n///   other works. **Both-dead (or both-healthy) falls back to dual-stack** — an\n///   inconclusive probe (locked-down egress, fully offline host) must not strand\n///   the node by binding nothing; dual-stack is exactly today's behavior.\n// [impl->REQ-NET-FAMILY-GATE]\nfn select_families(\n    v4_reachable: bool,\n    v6_reachable: bool,\n    disable_v4: bool,\n    disable_v6: bool,\n) -> Result<BindFamilies, NetError> {\n    match (disable_v4, disable_v6) {\n        (true, true) => Err(NetError::Bind(\n            \"both IPv4 and IPv6 force-disabled (SPT_DISABLE_IPV4 + SPT_DISABLE_IPV6) \\\n             — no family left to bind\"\n                .into(),\n        )),\n        // A forced family is dropped regardless of probe; the survivor is the only\n        // option (so its own probe is irrelevant — honor the explicit choice).\n        (true, false) => Ok(BindFamilies::V6Only),\n        (false, true) => Ok(BindFamilies::V4Only),\n        (false, false) => Ok(match (v4_reachable, v6_reachable) {\n            (true, false) => BindFamilies::V4Only,\n            (false, true) => BindFamilies::V6Only,\n            // both healthy OR both inconclusive → don't strand: bind dual-stack.\n            _ => BindFamilies::Dual,\n        }),\n    }\n}\n\n/// One family's WAN reachability: a bounded blocking TCP connect (tokio's `net`\n/// feature is off in this crate, so `std::net` on a blocking thread), `true` iff\n/// the handshake completes within [`FAMILY_PROBE_TIMEOUT`].\nasync fn probe_family(target: &str) -> bool {\n    let Ok(addr) = target.parse::<std::net::SocketAddr>() else {\n        return false;\n    };\n    tokio::task::spawn_blocking(move || {\n        std::net::TcpStream::connect_timeout(&addr, FAMILY_PROBE_TIMEOUT).is_ok()\n    })\n    .await\n    .unwrap_or(false)\n}\n\n/// Decide which families a production-scope (`BindScope::All`) endpoint binds:\n/// the force-off overrides first (no probe needed — a forced choice is\n/// deterministic), otherwise probe both families concurrently and drop a dead one.\n/// Relay-disabled (LAN/air-gapped) binds skip the WAN probe and keep dual-stack —\n/// there is no WAN to reach, so the probe would only ever read both-dead.\n// [impl->REQ-NET-FAMILY-GATE]\nasync fn decide_bind_families(relay: &RelayPolicy) -> Result<BindFamilies, NetError> {\n    let disable_v4 = env_flag(\"SPT_DISABLE_IPV4\");\n    let disable_v6 = env_flag(\"SPT_DISABLE_IPV6\");\n    if disable_v4 || disable_v6 {\n        // A forced choice needs no probe.\n        return select_families(true, true, disable_v4, disable_v6);\n    }\n    if matches!(relay, RelayPolicy::Disabled) {\n        return Ok(BindFamilies::Dual);\n    }\n    let (v4, v6) = tokio::join!(probe_family(PROBE_V4), probe_family(PROBE_V6));\n    select_families(v4, v6, false, false)\n}\n\n/// A bound spt-core network endpoint: the node's reachable presence on the subnet.\npub struct NetEndpoint {\n    inner: Endpoint,\n}\n\nimpl NetEndpoint {\n    /// Bind an endpoint to this node's identity under the given relay policy.\n    ///\n    /// The iroh secret key is derived from the identity's 32-byte ed25519 seed, so\n    /// the resulting `EndpointId` equals the node's [`PublicKey`] — the address and\n    /// the name are the same value.\n    // [impl->REQ-NET-1] [impl->REQ-NET-2]\n    pub async fn bind(\n        identity: &Identity,\n        relay: RelayPolicy,\n        discovery: LocalDiscovery,\n    ) -> Result<NetEndpoint, NetError> {\n        Self::bind_with_alpns(identity, relay, discovery, vec![SPT_NET_ALPN.to_vec()]).await\n    }\n\n    /// Bind on an explicit ALPN set instead of the default trusted [`SPT_NET_ALPN`].\n    ///\n    /// The pairing driver uses this to stand up a **dedicated pre-trust endpoint** bound\n    /// only to the pairing ALPN (`super::pairing::wire::SPT_PAIR_ALPN`) — the pre-trust\n    /// accept loop must not share the trusted message surface (ADR-0005; `pairing.rs`\n    /// \"Why a dedicated pre-trust ALPN\"). All relay/discovery handling is identical to\n    /// [`bind`](Self::bind).\n    // [impl->REQ-NET-1] [impl->REQ-NET-2]\n    pub async fn bind_with_alpns(\n        identity: &Identity,\n        relay: RelayPolicy,\n        discovery: LocalDiscovery,\n        alpns: Vec<Vec<u8>>,\n    ) -> Result<NetEndpoint, NetError> {\n        Self::bind_scoped(identity, relay, discovery, alpns, BindScope::All).await\n    }\n\n    /// The full bind form: [`bind_with_alpns`](Self::bind_with_alpns) plus an\n    /// explicit [`BindScope`]. Hermetic tests pass [`BindScope::Loopback`] so the\n    /// endpoint never listens on a real interface (and never triggers a Windows\n    /// firewall prompt per test binary); everything else delegates here with\n    /// [`BindScope::All`].\n    // [impl->REQ-NET-1] [impl->REQ-NET-2]\n    pub async fn bind_scoped(\n        identity: &Identity,\n        relay: RelayPolicy,\n        discovery: LocalDiscovery,\n        alpns: Vec<Vec<u8>>,\n        scope: BindScope,\n    ) -> Result<NetEndpoint, NetError> {\n        // iroh and spt-proto both build the ed25519 keypair from the same 32-byte\n        // seed, so this preserves the node's stable public-key name on the wire.\n        let secret = SecretKey::from_bytes(&identity.seed());\n        let builder = Endpoint::builder(presets::N0)\n            .secret_key(secret)\n            .alpns(alpns)\n            // Keep meshed member connections warm (REQ-MESH-1): seed-proof runs\n            // once at connect, so a quiet connection must not idle out and force\n            // a re-handshake. Transport-only, orthogonal to BindScope.\n            .transport_config(spt_transport_config());\n        // Loopback scope replaces the builder's pre-configured unspecified binds\n        // (0.0.0.0 / [::]) with loopback-only sockets, AND disables iroh's\n        // portmapper (UPnP/PCP/NAT-PMP — on by default), which would otherwise\n        // bind real-interface UDP sockets for its SSDP/NAT-PMP probes: useless\n        // on loopback, and the other source of per-test-binary Windows firewall\n        // prompts.\n        // Per-family bind gate (REQ-NET-FAMILY-GATE): production-scope binds drop a\n        // dead/force-disabled IP family so a half-broken family never silently\n        // burns discovery/connect time. Hermetic scopes (Loopback/Port) keep\n        // dual-stack untouched — they reach no WAN and must stay deterministic\n        // (no probe, no Windows-firewall surprise).\n        let families = match scope {\n            BindScope::All => decide_bind_families(&relay).await?,\n            BindScope::Loopback | BindScope::Port(_) => BindFamilies::Dual,\n        };\n        match families {\n            BindFamilies::Dual => {}\n            BindFamilies::V4Only => {\n                eprintln!(\"NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\")\n            }\n            BindFamilies::V6Only => {\n                eprintln!(\"NET_FAMILY_GATE: binding IPv6-only (IPv4 unreachable or disabled)\")\n            }\n        }\n        let builder = match scope {\n            // Dual-stack keeps the iroh default binds; a single-family gate clears\n            // the default IP transports and re-adds only the surviving family's\n            // unspecified socket (same clear+bind_addr mechanism BindScope uses).\n            BindScope::All => match families {\n                BindFamilies::Dual => builder,\n                BindFamilies::V4Only => builder\n                    .clear_ip_transports()\n                    .bind_addr(std::net::SocketAddr::from((\n                        std::net::Ipv4Addr::UNSPECIFIED,\n                        0,\n                    )))\n                    .map_err(|e| NetError::Bind(e.to_string()))?,\n                BindFamilies::V6Only => builder\n                    .clear_ip_transports()\n                    .bind_addr(std::net::SocketAddr::from((\n                        std::net::Ipv6Addr::UNSPECIFIED,\n                        0,\n                    )))\n                    .map_err(|e| NetError::Bind(e.to_string()))?,\n            },\n            BindScope::Loopback => builder\n                .clear_ip_transports()\n                .bind_addr(\"127.0.0.1:0\")\n                .map_err(|e| NetError::Bind(e.to_string()))?\n                .bind_addr(\"[::1]:0\")\n                .map_err(|e| NetError::Bind(e.to_string()))?\n                .portmapper_config(PortmapperConfig::Disabled),\n            // All-interfaces like the production scope, but on a caller-fixed\n            // port so the node is dialable by a static ip:port ticket.\n            BindScope::Port(p) => builder\n                .clear_ip_transports()\n                .bind_addr(std::net::SocketAddr::from((\n                    std::net::Ipv4Addr::UNSPECIFIED,\n                    p,\n                )))\n                .map_err(|e| NetError::Bind(e.to_string()))?\n                .bind_addr(std::net::SocketAddr::from((\n                    std::net::Ipv6Addr::UNSPECIFIED,\n                    p,\n                )))\n                .map_err(|e| NetError::Bind(e.to_string()))?,\n        };\n        // The N0 preset already wires the n0 relay default; only override it when the\n        // policy asks for self-host or disabled.\n        let builder = match relay {\n            RelayPolicy::N0Default => builder,\n            RelayPolicy::SelfHosted(map) => builder.relay_mode(RelayMode::Custom(map)),\n            RelayPolicy::Disabled => builder.relay_mode(RelayMode::Disabled),\n        };\n        // mDNS rides alongside the preset's n0 DNS discovery as an extra address\n        // lookup, giving LAN-local advertise + resolve-by-id.\n        let builder = match discovery {\n            LocalDiscovery::Mdns => {\n                builder.address_lookup(MdnsAddressLookup::builder().advertise(true))\n            }\n            LocalDiscovery::Off => builder,\n        };\n        let inner = builder\n            .bind()\n            .await\n            .map_err(|e| NetError::Bind(e.to_string()))?;\n        Ok(NetEndpoint { inner })\n    }\n\n    /// A cheap handle clone (iroh endpoints are internally reference-counted):\n    /// the SAME bound endpoint — same sockets, same id — usable from\n    /// concurrent tasks (the meet-probe race spawns one per window token).\n    pub fn clone_handle(&self) -> NetEndpoint {\n        NetEndpoint {\n            inner: self.inner.clone(),\n        }\n    }\n\n    /// This node's public key — its stable subnet name, derived from the live\n    /// endpoint id. Always a valid ed25519 point (iroh guarantees it).\n    // [impl->REQ-NET-1]\n…\n    /// Dial a peer over an explicit ALPN (the pairing driver dials `SPT_PAIR_ALPN`).\n    // [impl->REQ-NET-1]\n    pub async fn connect_with_alpn(\n        &self,\n        addr: EndpointAddr,\n        alpn: &[u8],\n    ) -> Result<Connection, NetError> {\n        self.inner\n            .connect(addr, alpn)\n            .await\n            .map_err(|e| NetError::Connect(e.to_string()))\n    }\n\n    /// Dial a peer by its node id (public key) alone, letting discovery (mDNS on the\n    /// LAN, n0 DNS on the WAN) resolve the address. This is the \"no ticket needed\"\n    /// path: with [`LocalDiscovery::Mdns`] enabled, two machines on one LAN connect\n    /// knowing only each other's stable name.\n    // [impl->REQ-NET-1]\n    pub async fn connect_by_id(&self, peer: PublicKey) -> Result<Connection, NetError> {\n        let id = EndpointId::from_bytes(&peer.to_bytes())\n            .map_err(|e| NetError::Connect(format!(\"invalid peer id: {e}\")))?;\n        self.connect(EndpointAddr::new(id)).await\n    }\n\n    /// Borrow the underlying iroh endpoint — the seam the D4 broker uses to own the\n    /// endpoint + its live QUIC streams across brain restarts (ADR-0004 §B).\n    pub fn iroh(&self) -> &Endpoint {\n        &self.inner\n    }\n}\n\n/// An id-only dialable [`EndpointAddr`] for a node named by its lowercase-hex\n/// pubkey (the trust store's identity column), letting discovery (mDNS on the\n/// LAN, n0 DNS on the WAN) resolve the transport address. The peer pump's\n/// production resolver (D9-1): dial trusted peers knowing only their stable\n/// name. `None` on a malformed hex — a corrupt trust row must not panic the\n/// pump.\n// [impl->REQ-NET-1]\npub fn addr_for_node_hex(hex: &str) -> Option<EndpointAddr> {\n    let pk = spt_proto::identity::PublicKey::from_hex(hex).ok()?;\n    let id = EndpointId::from_bytes(&pk.to_bytes()).ok()?;\n    Some(EndpointAddr::new(id))\n}\n\n/// The peer's dialable address as OBSERVED from a live connection: the\n/// handshake-proven remote id + the transport addresses of the connection's\n/// current (non-closed) network paths. This is what the address-seeding\n/// writers persist (M8 decisions 14/20, REQ-CONV-1): an address that just\n/// carried a real connection is the best possible cold-start seed — unlike\n/// the id-only `addr_for_node_hex`, it dials without a discovery round-trip.\n/// May be path-less (id-only) when no path is readable; callers skip\n/// persisting those (they would add nothing over id-only discovery).\n// [impl->REQ-CONV-1]\npub fn conn_remote_addr(conn: &Connection) -> EndpointAddr {\n    let addrs: Vec<_> = conn\n        .paths()\n        .into_iter()\n        .filter(|p| !p.is_closed())\n        .map(|p| p.remote_addr().clone())\n        .collect();\n    EndpointAddr::from_parts(conn.remote_id(), addrs)\n}\n\n#[cfg(test)]\nmod tests {\n    use super::*;\n\n    /// Bind a fully hermetic endpoint: relays disabled, no discovery, loopback\n    /// sockets only (no real interface touched, no Windows firewall prompt).\n    async fn bind_hermetic(id: &Identity) -> NetEndpoint {\n        NetEndpoint::bind_scoped(\n            id,\n            RelayPolicy::Disabled,\n            LocalDiscovery::Off,\n            vec![SPT_NET_ALPN.to_vec()],\n            BindScope::Loopback,\n        )\n        .await\n        .expect(\"hermetic bind\")\n    }\n\n    /// Accept exactly one connection on `server` and echo a single bidi request as\n    /// `echo:<req>`. Shared by the loopback + mDNS tests.\n    fn spawn_echo_once(server: NetEndpoint) -> tokio::task::JoinHandle<()> {\n        tokio::spawn(async move {\n            let incoming = server.accept().await.expect(\"incoming\");\n            let conn = incoming\n                .accept()\n                .expect(\"accept\")\n                .await\n                .expect(\"connecting\");\n…\n        })\n    }\n…\n}"}],"details":{"displayContent":{"text":"impl std::fmt::Display for NetError {\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\n        match self {\n            NetError::Bind(e) => write!(f, \"endpoint bind failed: {e}\"),\n            NetError::Connect(e) => write!(f, \"connect failed: {e}\"),\n        }\n    }\n}\n\nimpl std::error::Error for NetError {}\n\n/// Which IP families a production-scope endpoint actually binds\n/// (REQ-NET-FAMILY-GATE). iroh binds dual-stack by default; a half-broken family\n/// (e.g. IPv6 whose AAAA resolves but whose path is dead) silently burns\n/// discovery/connect time on every attempt. We probe each family once at bind and\n/// drop the *dead* one — never a fixed \"prefer IPv4\" (an IPv6-only network must\n/// still work).\n#[derive(Debug, Clone, Copy, PartialEq, Eq)]\nenum BindFamilies {\n    /// Both families bind (the iroh default — both healthy, or the probe was\n    /// inconclusive and we must not strand the node).\n    Dual,\n    /// IPv4 only — IPv6 is dead or force-disabled.\n    V4Only,\n    /// IPv6 only — IPv4 is dead or force-disabled.\n    V6Only,\n}\n\n/// WAN reachability probe targets — Cloudflare's public anycast resolver on each\n/// family (no DNS step; a literal address per family). A bounded TCP connect to\n/// `:443` is the same discriminator the field incident used by hand\n/// (`Test-NetConnection dns.iroh.link -Port 443`): it catches a half-broken family\n/// whose route exists but whose path is dead, which a mere route-table check\n/// (UDP connect) would miss.\nconst PROBE_V4: &str = \"1.1.1.1:443\";\nconst PROBE_V6: &str = \"[2606:4700:4700::1111]:443\";\n\n/// Per-family reachability probe timeout. Short so a healthy bind is not slowed\n/// (a reachable family answers in tens of ms; only a DEAD family waits this out,\n/// and that wait replaces a 75 s silent rendezvous failure).\nconst FAMILY_PROBE_TIMEOUT: Duration = Duration::from_millis(1500);\n\n/// Parse a force-off env flag (`SPT_DISABLE_IPV6` / `SPT_DISABLE_IPV4`): present\n/// and \"truthy\" ⇒ force the family off. Empty / `0` / `false` / `no` read as off\n/// (the flag is not set), mirroring a conventional boolean env knob. Factored from\n/// [`env_flag`] so the parse is unit-testable without touching the environment.\nfn flag_is_on(val: Option<&str>) -> bool {\n    match val {\n        Some(v) => {\n            let v = v.trim();\n            !v.is_empty()\n                && !v.eq_ignore_ascii_case(\"0\")\n                && !v.eq_ignore_ascii_case(\"false\")\n                && !v.eq_ignore_ascii_case(\"no\")\n        }\n        None => false,\n    }\n}\n\n/// Whether the named env var is a set boolean flag (see [`flag_is_on`]).\nfn env_flag(var: &str) -> bool {\n    flag_is_on(std::env::var(var).ok().as_deref())\n}\n\n/// Pure family selection from per-family reachability + the force-off overrides\n/// (REQ-NET-FAMILY-GATE). No sockets — this is the unit-testable core.\n///\n/// - A **force-off** override is absolute: the family is never bound regardless of\n///   its probe. Both forced off is an error (nothing to bind).\n/// - With neither forced, a family is dropped ONLY when it probes dead AND the\n///   other works. **Both-dead (or both-healthy) falls back to dual-stack** — an\n///   inconclusive probe (locked-down egress, fully offline host) must not strand\n///   the node by binding nothing; dual-stack is exactly today's behavior.\n// [impl->REQ-NET-FAMILY-GATE]\nfn select_families(\n    v4_reachable: bool,\n    v6_reachable: bool,\n    disable_v4: bool,\n    disable_v6: bool,\n) -> Result<BindFamilies, NetError> {\n    match (disable_v4, disable_v6) {\n        (true, true) => Err(NetError::Bind(\n            \"both IPv4 and IPv6 force-disabled (SPT_DISABLE_IPV4 + SPT_DISABLE_IPV6) \\\n             — no family left to bind\"\n                .into(),\n        )),\n        // A forced family is dropped regardless of probe; the survivor is the only\n        // option (so its own probe is irrelevant — honor the explicit choice).\n        (true, false) => Ok(BindFamilies::V6Only),\n        (false, true) => Ok(BindFamilies::V4Only),\n        (false, false) => Ok(match (v4_reachable, v6_reachable) {\n            (true, false) => BindFamilies::V4Only,\n            (false, true) => BindFamilies::V6Only,\n            // both healthy OR both inconclusive → don't strand: bind dual-stack.\n            _ => BindFamilies::Dual,\n        }),\n    }\n}\n\n/// One family's WAN reachability: a bounded blocking TCP connect (tokio's `net`\n/// feature is off in this crate, so `std::net` on a blocking thread), `true` iff\n/// the handshake completes within [`FAMILY_PROBE_TIMEOUT`].\nasync fn probe_family(target: &str) -> bool {\n    let Ok(addr) = target.parse::<std::net::SocketAddr>() else {\n        return false;\n    };\n    tokio::task::spawn_blocking(move || {\n        std::net::TcpStream::connect_timeout(&addr, FAMILY_PROBE_TIMEOUT).is_ok()\n    })\n    .await\n    .unwrap_or(false)\n}\n\n/// Decide which families a production-scope (`BindScope::All`) endpoint binds:\n/// the force-off overrides first (no probe needed — a forced choice is\n/// deterministic), otherwise probe both families concurrently and drop a dead one.\n/// Relay-disabled (LAN/air-gapped) binds skip the WAN probe and keep dual-stack —\n/// there is no WAN to reach, so the probe would only ever read both-dead.\n// [impl->REQ-NET-FAMILY-GATE]\nasync fn decide_bind_families(relay: &RelayPolicy) -> Result<BindFamilies, NetError> {\n    let disable_v4 = env_flag(\"SPT_DISABLE_IPV4\");\n    let disable_v6 = env_flag(\"SPT_DISABLE_IPV6\");\n    if disable_v4 || disable_v6 {\n        // A forced choice needs no probe.\n        return select_families(true, true, disable_v4, disable_v6);\n    }\n    if matches!(relay, RelayPolicy::Disabled) {\n        return Ok(BindFamilies::Dual);\n    }\n    let (v4, v6) = tokio::join!(probe_family(PROBE_V4), probe_family(PROBE_V6));\n    select_families(v4, v6, false, false)\n}\n\n/// A bound spt-core network endpoint: the node's reachable presence on the subnet.\npub struct NetEndpoint {\n    inner: Endpoint,\n}\n\nimpl NetEndpoint {\n    /// Bind an endpoint to this node's identity under the given relay policy.\n    ///\n    /// The iroh secret key is derived from the identity's 32-byte ed25519 seed, so\n    /// the resulting `EndpointId` equals the node's [`PublicKey`] — the address and\n    /// the name are the same value.\n    // [impl->REQ-NET-1] [impl->REQ-NET-2]\n    pub async fn bind(\n        identity: &Identity,\n        relay: RelayPolicy,\n        discovery: LocalDiscovery,\n    ) -> Result<NetEndpoint, NetError> {\n        Self::bind_with_alpns(identity, relay, discovery, vec![SPT_NET_ALPN.to_vec()]).await\n    }\n\n    /// Bind on an explicit ALPN set instead of the default trusted [`SPT_NET_ALPN`].\n    ///\n    /// The pairing driver uses this to stand up a **dedicated pre-trust endpoint** bound\n    /// only to the pairing ALPN (`super::pairing::wire::SPT_PAIR_ALPN`) — the pre-trust\n    /// accept loop must not share the trusted message surface (ADR-0005; `pairing.rs`\n    /// \"Why a dedicated pre-trust ALPN\"). All relay/discovery handling is identical to\n    /// [`bind`](Self::bind).\n    // [impl->REQ-NET-1] [impl->REQ-NET-2]\n    pub async fn bind_with_alpns(\n        identity: &Identity,\n        relay: RelayPolicy,\n        discovery: LocalDiscovery,\n        alpns: Vec<Vec<u8>>,\n    ) -> Result<NetEndpoint, NetError> {\n        Self::bind_scoped(identity, relay, discovery, alpns, BindScope::All).await\n    }\n\n    /// The full bind form: [`bind_with_alpns`](Self::bind_with_alpns) plus an\n    /// explicit [`BindScope`]. Hermetic tests pass [`BindScope::Loopback`] so the\n    /// endpoint never listens on a real interface (and never triggers a Windows\n    /// firewall prompt per test binary); everything else delegates here with\n    /// [`BindScope::All`].\n    // [impl->REQ-NET-1] [impl->REQ-NET-2]\n    pub async fn bind_scoped(\n        identity: &Identity,\n        relay: RelayPolicy,\n        discovery: LocalDiscovery,\n        alpns: Vec<Vec<u8>>,\n        scope: BindScope,\n    ) -> Result<NetEndpoint, NetError> {\n        // iroh and spt-proto both build the ed25519 keypair from the same 32-byte\n        // seed, so this preserves the node's stable public-key name on the wire.\n        let secret = SecretKey::from_bytes(&identity.seed());\n        let builder = Endpoint::builder(presets::N0)\n            .secret_key(secret)\n            .alpns(alpns)\n            // Keep meshed member connections warm (REQ-MESH-1): seed-proof runs\n            // once at connect, so a quiet connection must not idle out and force\n            // a re-handshake. Transport-only, orthogonal to BindScope.\n            .transport_config(spt_transport_config());\n        // Loopback scope replaces the builder's pre-configured unspecified binds\n        // (0.0.0.0 / [::]) with loopback-only sockets, AND disables iroh's\n        // portmapper (UPnP/PCP/NAT-PMP — on by default), which would otherwise\n        // bind real-interface UDP sockets for its SSDP/NAT-PMP probes: useless\n        // on loopback, and the other source of per-test-binary Windows firewall\n        // prompts.\n        // Per-family bind gate (REQ-NET-FAMILY-GATE): production-scope binds drop a\n        // dead/force-disabled IP family so a half-broken family never silently\n        // burns discovery/connect time. Hermetic scopes (Loopback/Port) keep\n        // dual-stack untouched — they reach no WAN and must stay deterministic\n        // (no probe, no Windows-firewall surprise).\n        let families = match scope {\n            BindScope::All => decide_bind_families(&relay).await?,\n            BindScope::Loopback | BindScope::Port(_) => BindFamilies::Dual,\n        };\n        match families {\n            BindFamilies::Dual => {}\n            BindFamilies::V4Only => {\n                eprintln!(\"NET_FAMILY_GATE: binding IPv4-only (IPv6 unreachable or disabled)\")\n            }\n            BindFamilies::V6Only => {\n                eprintln!(\"NET_FAMILY_GATE: binding IPv6-only (IPv4 unreachable or disabled)\")\n            }\n        }\n        let builder = match scope {\n            // Dual-stack keeps the iroh default binds; a single-family gate clears\n            // the default IP transports and re-adds only the surviving family's\n            // unspecified socket (same clear+bind_addr mechanism BindScope uses).\n            BindScope::All => match families {\n                BindFamilies::Dual => builder,\n                BindFamilies::V4Only => builder\n                    .clear_ip_transports()\n                    .bind_addr(std::net::SocketAddr::from((\n                        std::net::Ipv4Addr::UNSPECIFIED,\n                        0,\n                    )))\n                    .map_err(|e| NetError::Bind(e.to_string()))?,\n                BindFamilies::V6Only => builder\n                    .clear_ip_transports()\n                    .bind_addr(std::net::SocketAddr::from((\n                        std::net::Ipv6Addr::UNSPECIFIED,\n                        0,\n                    )))\n                    .map_err(|e| NetError::Bind(e.to_string()))?,\n            },\n            BindScope::Loopback => builder\n                .clear_ip_transports()\n                .bind_addr(\"127.0.0.1:0\")\n                .map_err(|e| NetError::Bind(e.to_string()))?\n                .bind_addr(\"[::1]:0\")\n                .map_err(|e| NetError::Bind(e.to_string()))?\n                .portmapper_config(PortmapperConfig::Disabled),\n            // All-interfaces like the production scope, but on a caller-fixed\n            // port so the node is dialable by a static ip:port ticket.\n            BindScope::Port(p) => builder\n                .clear_ip_transports()\n                .bind_addr(std::net::SocketAddr::from((\n                    std::net::Ipv4Addr::UNSPECIFIED,\n                    p,\n                )))\n                .map_err(|e| NetError::Bind(e.to_string()))?\n                .bind_addr(std::net::SocketAddr::from((\n                    std::net::Ipv6Addr::UNSPECIFIED,\n                    p,\n                )))\n                .map_err(|e| NetError::Bind(e.to_string()))?,\n        };\n        // The N0 preset already wires the n0 relay default; only override it when the\n        // policy asks for self-host or disabled.\n        let builder = match relay {\n            RelayPolicy::N0Default => builder,\n            RelayPolicy::SelfHosted(map) => builder.relay_mode(RelayMode::Custom(map)),\n            RelayPolicy::Disabled => builder.relay_mode(RelayMode::Disabled),\n        };\n        // mDNS rides alongside the preset's n0 DNS discovery as an extra address\n        // lookup, giving LAN-local advertise + resolve-by-id.\n        let builder = match discovery {\n            LocalDiscovery::Mdns => {\n                builder.address_lookup(MdnsAddressLookup::builder().advertise(true))\n            }\n            LocalDiscovery::Off => builder,\n        };\n        let inner = builder\n            .bind()\n            .await\n            .map_err(|e| NetError::Bind(e.to_string()))?;\n        Ok(NetEndpoint { inner })\n    }\n\n    /// A cheap handle clone (iroh endpoints are internally reference-counted):\n    /// the SAME bound endpoint — same sockets, same id — usable from\n    /// concurrent tasks (the meet-probe race spawns one per window token).\n    pub fn clone_handle(&self) -> NetEndpoint {\n        NetEndpoint {\n            inner: self.inner.clone(),\n        }\n    }\n\n    /// This node's public key — its stable subnet name, derived from the live\n    /// endpoint id. Always a valid ed25519 point (iroh guarantees it).\n    // [impl->REQ-NET-1]\n…\n    /// Dial a peer over an explicit ALPN (the pairing driver dials `SPT_PAIR_ALPN`).\n    // [impl->REQ-NET-1]\n    pub async fn connect_with_alpn(\n        &self,\n        addr: EndpointAddr,\n        alpn: &[u8],\n    ) -> Result<Connection, NetError> {\n        self.inner\n            .connect(addr, alpn)\n            .await\n            .map_err(|e| NetError::Connect(e.to_string()))\n    }\n\n    /// Dial a peer by its node id (public key) alone, letting discovery (mDNS on the\n    /// LAN, n0 DNS on the WAN) resolve the address. This is the \"no ticket needed\"\n    /// path: with [`LocalDiscovery::Mdns`] enabled, two machines on one LAN connect\n    /// knowing only each other's stable name.\n    // [impl->REQ-NET-1]\n    pub async fn connect_by_id(&self, peer: PublicKey) -> Result<Connection, NetError> {\n        let id = EndpointId::from_bytes(&peer.to_bytes())\n            .map_err(|e| NetError::Connect(format!(\"invalid peer id: {e}\")))?;\n        self.connect(EndpointAddr::new(id)).await\n    }\n\n    /// Borrow the underlying iroh endpoint — the seam the D4 broker uses to own the\n    /// endpoint + its live QUIC streams across brain restarts (ADR-0004 §B).\n    pub fn iroh(&self) -> &Endpoint {\n        &self.inner\n    }\n}\n\n/// An id-only dialable [`EndpointAddr`] for a node named by its lowercase-hex\n/// pubkey (the trust store's identity column), letting discovery (mDNS on the\n/// LAN, n0 DNS on the WAN) resolve the transport address. The peer pump's\n/// production resolver (D9-1): dial trusted peers knowing only their stable\n/// name. `None` on a malformed hex — a corrupt trust row must not panic the\n/// pump.\n// [impl->REQ-NET-1]\npub fn addr_for_node_hex(hex: &str) -> Option<EndpointAddr> {\n    let pk = spt_proto::identity::PublicKey::from_hex(hex).ok()?;\n    let id = EndpointId::from_bytes(&pk.to_bytes()).ok()?;\n    Some(EndpointAddr::new(id))\n}\n\n/// The peer's dialable address as OBSERVED from a live connection: the\n/// handshake-proven remote id + the transport addresses of the connection's\n/// current (non-closed) network paths. This is what the address-seeding\n/// writers persist (M8 decisions 14/20, REQ-CONV-1): an address that just\n/// carried a real connection is the best possible cold-start seed — unlike\n/// the id-only `addr_for_node_hex`, it dials without a discovery round-trip.\n/// May be path-less (id-only) when no path is readable; callers skip\n/// persisting those (they would add nothing over id-only discovery).\n// [impl->REQ-CONV-1]\npub fn conn_remote_addr(conn: &Connection) -> EndpointAddr {\n    let addrs: Vec<_> = conn\n        .paths()\n        .into_iter()\n        .filter(|p| !p.is_closed())\n        .map(|p| p.remote_addr().clone())\n        .collect();\n    EndpointAddr::from_parts(conn.remote_id(), addrs)\n}\n\n#[cfg(test)]\nmod tests {\n    use super::*;\n\n    /// Bind a fully hermetic endpoint: relays disabled, no discovery, loopback\n    /// sockets only (no real interface touched, no Windows firewall prompt).\n    async fn bind_hermetic(id: &Identity) -> NetEndpoint {\n        NetEndpoint::bind_scoped(\n            id,\n            RelayPolicy::Disabled,\n            LocalDiscovery::Off,\n            vec![SPT_NET_ALPN.to_vec()],\n            BindScope::Loopback,\n        )\n        .await\n        .expect(\"hermetic bind\")\n    }\n\n    /// Accept exactly one connection on `server` and echo a single bidi request as\n    /// `echo:<req>`. Shared by the loopback + mDNS tests.\n    fn spawn_echo_once(server: NetEndpoint) -> tokio::task::JoinHandle<()> {\n        tokio::spawn(async move {\n            let incoming = server.accept().await.expect(\"incoming\");\n            let conn = incoming\n                .accept()\n                .expect(\"accept\")\n                .await\n                .expect(\"connecting\");\n…\n        })\n    }\n…\n}","startLine":137,"lineNumbers":[137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300,301,302,303,304,305,306,307,308,309,310,311,312,313,314,315,316,317,318,319,320,321,322,323,324,325,326,327,328,329,330,331,332,333,334,335,336,337,338,339,340,341,342,343,344,345,346,347,348,349,350,351,352,353,354,355,356,357,358,359,360,361,362,363,364,365,366,367,368,369,370,371,372,373,374,375,376,377,378,379,380,381,382,383,384,385,386,387,388,389,390,391,392,393,394,395,396,397,398,399,400,401,402,403,404,405,406,407,408,409,410,411,412,413,414,415,416,417,418,419,420,421,422,423,424,425,426,427,428,429,430,null,500,501,502,503,504,505,506,507,508,509,510,511,512,513,514,515,516,517,518,519,520,521,522,523,524,525,526,527,528,529,530,531,532,533,534,535,536,537,538,539,540,541,542,543,544,545,546,547,548,549,550,551,552,553,554,555,556,557,558,559,560,561,562,563,564,565,566,567,568,569,570,571,572,573,574,575,576,577,578,579,580,581,582,583,584,585,586,587,588,589,590,null,598,599,null,760]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-net\\src\\net\\endpoint.rs"}}},"isError":false,"timestamp":1784069195352}}
{"type":"message","id":"f549201e","parentId":"0eabc422","timestamp":"2026-07-14T22:46:35.363Z","message":{"role":"toolResult","toolCallId":"call_ipOTYgYFesFbZIiM0zxmfwsc|fc_0b084cf0b521ab15016a56bc4b273c8190a0ccd92a94d40f74","toolName":"read","content":[{"type":"text","text":"fn dec_roster(buf: &[u8]) -> Option<(Vec<RosterEntry>, Vec<Tombstone>)> {\n…\n    for _ in 0..n {\n…\n        entries.push(RosterEntry {\n…\n            address,\n            last_seen,\n            lease_epoch,\n        });\n    }\n    let tn = r.u32()? as usize;\n    let mut tombstones = Vec::new();\n    for _ in 0..tn {\n        let pubkey_hex = r.utf8()?;\n        let subnet = r.utf8()?;\n        let stamp = r.utf8()?;\n        tombstones.push(Tombstone {\n            pubkey_hex,\n            subnet,\n            stamp,\n        });\n    }\n    if r.pos != buf.len() {\n        return None; // no trailing garbage\n    }\n    Some((entries, tombstones))\n}\n\n/// Gap-fill a dial cache from learned roster entries (the seam decision): a\n/// learned member's advertised address seeds `peer-addrs.json` **only when\n/// absent** — a locally-observed address (written by the pump after a real dial)\n/// is fresher and more reachable, so it is never clobbered. Self entries are\n/// skipped. Returns whether anything changed (callers skip the disk write on a\n/// no-op). This is what lets a node that learned C's entry from B's roster later\n/// dial C directly — the Mesh-D6 reach precondition.\n// [impl->REQ-MESH-2]\npub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\n    let mut changed = false;\n    for e in entries {\n        if e.pubkey_hex == self_hex {\n            continue;\n        }\n        if let Some(addr) = &e.address {\n            if pa.get(&e.pubkey_hex).is_none() {\n                changed |= pa.put(&e.pubkey_hex, addr.clone());\n            }\n        }\n    }\n    changed\n}\n\n/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\n/// re-read per connect (rare; honors a concurrent pairing/revoke without a\n/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\n/// provider stamps the node's live address onto its self-entry so peers learn\n/// how to reach it; the sink merges the peer's slice and gap-fills the dial\n/// cache. Used by the real daemon only — tests inject their own exchange.\n// [impl->REQ-MESH-2]\npub fn production_roster_exchange() -> RosterExchange {\n    let self_hex = spt_store::nodeid::load_or_create()\n        .map(|id| id.public_key().to_hex())\n        .unwrap_or_default();\n    let provider_hex = self_hex.clone();\n    RosterExchange {\n        provider: Arc::new(move |proven: &HashSet<String>, self_addr: &serde_json::Value| {\n            let mut store = RosterStore::load();\n            let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\n            let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\n            // Peek, never consume: roster propagation must not disturb the\n            // registry lease counter (the D3 rule).\n            let lease = spt_store::epoch::EpochSource::load().current();\n            let now = now_secs().to_string();\n            let addr = if self_addr.is_null() {\n                None\n            } else {\n                Some(self_addr.clone())\n            };\n            for s in proven {\n                store.upsert_self(s, &provider_hex, &label, &machine_id, addr.clone(), &now, lease);\n            }\n            let _ = store.save();\n            let mut entries = Vec::new();\n            let mut tombstones = Vec::new();\n            for s in proven {\n                let (m, t) = store.roster_for(s);\n                entries.extend(m);\n                tombstones.extend(t);\n            }\n            (entries, tombstones)\n        }),\n        sink: Arc::new(move |entries: Vec<RosterEntry>, tombstones: Vec<Tombstone>| {\n            let mut store = RosterStore::load();\n            for e in &entries {\n                store.merge_entry(e.clone());\n            }\n            for t in &tombstones {\n                store.tombstone(&t.subnet, &t.pubkey_hex, &t.stamp);\n            }\n            let _ = store.save();\n            let path = spt_store::peeraddrs::peer_addrs_file();\n            let mut pa = PeerAddrStore::load_from(&path);\n            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\n                let _ = pa.save_to(&path);\n            }\n        }),\n        // Mesh-D7 (REQ-MESH-4): the peer's roster status gates the grace —\n        // tombstoned ⇒ revoked ⇒ denied; listed ⇒ present; otherwise absent.\n        // Re-read per call so a just-propagated tombstone takes effect at once.\n        member_status: Arc::new(move |subnet: &str, peer_hex: &str| {\n            let store = RosterStore::load();\n            if store.is_tombstoned(subnet, peer_hex) {\n                MemberStatus::Tombstoned\n            } else if store.find(subnet, peer_hex).is_some() {\n                MemberStatus::Present\n            } else {\n                MemberStatus::Absent\n            }\n        }),\n        // Mesh-D7 (REQ-MESH-4): adopt a pushed seed into the live subnet store —\n        // a strictly-newer epoch only (idempotent, never a downgrade). The 20-byte\n        // length is enforced here; a malformed push is ignored.\n        adopt_seed: Arc::new(move |subnet: &str, seed: &[u8], epoch: u64| {\n            let Ok(bytes) = <[u8; spt_store::subnet::TOTP_SEED_LEN]>::try_from(seed) else {\n                return false;\n            };\n…\n        }),\n    }\n}\n\n[Showing lines 839-958 of 1160. Use :959 to continue]"}],"details":{"truncation":{"content":"            address,\r\n            last_seen,\r\n            lease_epoch,\r\n        });\r\n    }\r\n    let tn = r.u32()? as usize;\r\n    let mut tombstones = Vec::new();\r\n    for _ in 0..tn {\r\n        let pubkey_hex = r.utf8()?;\r\n        let subnet = r.utf8()?;\r\n        let stamp = r.utf8()?;\r\n        tombstones.push(Tombstone {\r\n            pubkey_hex,\r\n            subnet,\r\n            stamp,\r\n        });\r\n    }\r\n    if r.pos != buf.len() {\r\n        return None; // no trailing garbage\r\n    }\r\n    Some((entries, tombstones))\r\n}\r\n\r\n/// Gap-fill a dial cache from learned roster entries (the seam decision): a\r\n/// learned member's advertised address seeds `peer-addrs.json` **only when\r\n/// absent** — a locally-observed address (written by the pump after a real dial)\r\n/// is fresher and more reachable, so it is never clobbered. Self entries are\r\n/// skipped. Returns whether anything changed (callers skip the disk write on a\r\n/// no-op). This is what lets a node that learned C's entry from B's roster later\r\n/// dial C directly — the Mesh-D6 reach precondition.\r\n// [impl->REQ-MESH-2]\r\npub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\r\n    let mut changed = false;\r\n    for e in entries {\r\n        if e.pubkey_hex == self_hex {\r\n            continue;\r\n        }\r\n        if let Some(addr) = &e.address {\r\n            if pa.get(&e.pubkey_hex).is_none() {\r\n                changed |= pa.put(&e.pubkey_hex, addr.clone());\r\n            }\r\n        }\r\n    }\r\n    changed\r\n}\r\n\r\n/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\r\n/// re-read per connect (rare; honors a concurrent pairing/revoke without a\r\n/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\r\n/// provider stamps the node's live address onto its self-entry so peers learn\r\n/// how to reach it; the sink merges the peer's slice and gap-fills the dial\r\n/// cache. Used by the real daemon only — tests inject their own exchange.\r\n// [impl->REQ-MESH-2]\r\npub fn production_roster_exchange() -> RosterExchange {\r\n    let self_hex = spt_store::nodeid::load_or_create()\r\n        .map(|id| id.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    let provider_hex = self_hex.clone();\r\n    RosterExchange {\r\n        provider: Arc::new(move |proven: &HashSet<String>, self_addr: &serde_json::Value| {\r\n            let mut store = RosterStore::load();\r\n            let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\r\n            let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\r\n            // Peek, never consume: roster propagation must not disturb the\r\n            // registry lease counter (the D3 rule).\r\n            let lease = spt_store::epoch::EpochSource::load().current();\r\n            let now = now_secs().to_string();\r\n            let addr = if self_addr.is_null() {\r\n                None\r\n            } else {\r\n                Some(self_addr.clone())\r\n            };\r\n            for s in proven {\r\n                store.upsert_self(s, &provider_hex, &label, &machine_id, addr.clone(), &now, lease);\r\n            }\r\n            let _ = store.save();\r\n            let mut entries = Vec::new();\r\n            let mut tombstones = Vec::new();\r\n            for s in proven {\r\n                let (m, t) = store.roster_for(s);\r\n                entries.extend(m);\r\n                tombstones.extend(t);\r\n            }\r\n            (entries, tombstones)\r\n        }),\r\n        sink: Arc::new(move |entries: Vec<RosterEntry>, tombstones: Vec<Tombstone>| {\r\n            let mut store = RosterStore::load();\r\n            for e in &entries {\r\n                store.merge_entry(e.clone());\r\n            }\r\n            for t in &tombstones {\r\n                store.tombstone(&t.subnet, &t.pubkey_hex, &t.stamp);\r\n            }\r\n            let _ = store.save();\r\n            let path = spt_store::peeraddrs::peer_addrs_file();\r\n            let mut pa = PeerAddrStore::load_from(&path);\r\n            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\r\n                let _ = pa.save_to(&path);\r\n            }\r\n        }),\r\n        // Mesh-D7 (REQ-MESH-4): the peer's roster status gates the grace —\r\n        // tombstoned ⇒ revoked ⇒ denied; listed ⇒ present; otherwise absent.\r\n        // Re-read per call so a just-propagated tombstone takes effect at once.\r\n        member_status: Arc::new(move |subnet: &str, peer_hex: &str| {\r\n            let store = RosterStore::load();\r\n            if store.is_tombstoned(subnet, peer_hex) {\r\n                MemberStatus::Tombstoned\r\n            } else if store.find(subnet, peer_hex).is_some() {\r\n                MemberStatus::Present\r\n            } else {\r\n                MemberStatus::Absent\r\n            }\r\n        }),\r\n        // Mesh-D7 (REQ-MESH-4): adopt a pushed seed into the live subnet store —\r\n        // a strictly-newer epoch only (idempotent, never a downgrade). The 20-byte\r\n        // length is enforced here; a malformed push is ignored.\r\n        adopt_seed: Arc::new(move |subnet: &str, seed: &[u8], epoch: u64| {\r\n            let Ok(bytes) = <[u8; spt_store::subnet::TOTP_SEED_LEN]>::try_from(seed) else {\r\n                return false;\r\n            };\r","truncated":true,"truncatedBy":"lines","totalLines":322,"totalBytes":5241,"outputLines":120,"outputBytes":5241,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn dec_roster(buf: &[u8]) -> Option<(Vec<RosterEntry>, Vec<Tombstone>)> {\n…\n    for _ in 0..n {\n…\n        entries.push(RosterEntry {\n…\n            address,\r\n            last_seen,\r\n            lease_epoch,\r\n        });\r\n    }\r\n    let tn = r.u32()? as usize;\r\n    let mut tombstones = Vec::new();\r\n    for _ in 0..tn {\r\n        let pubkey_hex = r.utf8()?;\r\n        let subnet = r.utf8()?;\r\n        let stamp = r.utf8()?;\r\n        tombstones.push(Tombstone {\r\n            pubkey_hex,\r\n            subnet,\r\n            stamp,\r\n        });\r\n    }\r\n    if r.pos != buf.len() {\r\n        return None; // no trailing garbage\r\n    }\r\n    Some((entries, tombstones))\r\n}\r\n\r\n/// Gap-fill a dial cache from learned roster entries (the seam decision): a\r\n/// learned member's advertised address seeds `peer-addrs.json` **only when\r\n/// absent** — a locally-observed address (written by the pump after a real dial)\r\n/// is fresher and more reachable, so it is never clobbered. Self entries are\r\n/// skipped. Returns whether anything changed (callers skip the disk write on a\r\n/// no-op). This is what lets a node that learned C's entry from B's roster later\r\n/// dial C directly — the Mesh-D6 reach precondition.\r\n// [impl->REQ-MESH-2]\r\npub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\r\n    let mut changed = false;\r\n    for e in entries {\r\n        if e.pubkey_hex == self_hex {\r\n            continue;\r\n        }\r\n        if let Some(addr) = &e.address {\r\n            if pa.get(&e.pubkey_hex).is_none() {\r\n                changed |= pa.put(&e.pubkey_hex, addr.clone());\r\n            }\r\n        }\r\n    }\r\n    changed\r\n}\r\n\r\n/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\r\n/// re-read per connect (rare; honors a concurrent pairing/revoke without a\r\n/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\r\n/// provider stamps the node's live address onto its self-entry so peers learn\r\n/// how to reach it; the sink merges the peer's slice and gap-fills the dial\r\n/// cache. Used by the real daemon only — tests inject their own exchange.\r\n// [impl->REQ-MESH-2]\r\npub fn production_roster_exchange() -> RosterExchange {\r\n    let self_hex = spt_store::nodeid::load_or_create()\r\n        .map(|id| id.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    let provider_hex = self_hex.clone();\r\n    RosterExchange {\r\n        provider: Arc::new(move |proven: &HashSet<String>, self_addr: &serde_json::Value| {\r\n            let mut store = RosterStore::load();\r\n            let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\r\n            let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\r\n            // Peek, never consume: roster propagation must not disturb the\r\n            // registry lease counter (the D3 rule).\r\n            let lease = spt_store::epoch::EpochSource::load().current();\r\n            let now = now_secs().to_string();\r\n            let addr = if self_addr.is_null() {\r\n                None\r\n            } else {\r\n                Some(self_addr.clone())\r\n            };\r\n            for s in proven {\r\n                store.upsert_self(s, &provider_hex, &label, &machine_id, addr.clone(), &now, lease);\r\n            }\r\n            let _ = store.save();\r\n            let mut entries = Vec::new();\r\n            let mut tombstones = Vec::new();\r\n            for s in proven {\r\n                let (m, t) = store.roster_for(s);\r\n                entries.extend(m);\r\n                tombstones.extend(t);\r\n            }\r\n            (entries, tombstones)\r\n        }),\r\n        sink: Arc::new(move |entries: Vec<RosterEntry>, tombstones: Vec<Tombstone>| {\r\n            let mut store = RosterStore::load();\r\n            for e in &entries {\r\n                store.merge_entry(e.clone());\r\n            }\r\n            for t in &tombstones {\r\n                store.tombstone(&t.subnet, &t.pubkey_hex, &t.stamp);\r\n            }\r\n            let _ = store.save();\r\n            let path = spt_store::peeraddrs::peer_addrs_file();\r\n            let mut pa = PeerAddrStore::load_from(&path);\r\n            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\r\n                let _ = pa.save_to(&path);\r\n            }\r\n        }),\r\n        // Mesh-D7 (REQ-MESH-4): the peer's roster status gates the grace —\r\n        // tombstoned ⇒ revoked ⇒ denied; listed ⇒ present; otherwise absent.\r\n        // Re-read per call so a just-propagated tombstone takes effect at once.\r\n        member_status: Arc::new(move |subnet: &str, peer_hex: &str| {\r\n            let store = RosterStore::load();\r\n            if store.is_tombstoned(subnet, peer_hex) {\r\n                MemberStatus::Tombstoned\r\n            } else if store.find(subnet, peer_hex).is_some() {\r\n                MemberStatus::Present\r\n            } else {\r\n                MemberStatus::Absent\r\n            }\r\n        }),\r\n        // Mesh-D7 (REQ-MESH-4): adopt a pushed seed into the live subnet store —\r\n        // a strictly-newer epoch only (idempotent, never a downgrade). The 20-byte\r\n        // length is enforced here; a malformed push is ignored.\r\n        adopt_seed: Arc::new(move |subnet: &str, seed: &[u8], epoch: u64| {\r\n            let Ok(bytes) = <[u8; spt_store::subnet::TOTP_SEED_LEN]>::try_from(seed) else {\r\n                return false;\r\n            };\r\n…\n        }),\n    }\n}","startLine":817,"lineNumbers":[817,null,821,null,834,null,839,840,841,842,843,844,845,846,847,848,849,850,851,852,853,854,855,856,857,858,859,860,861,862,863,864,865,866,867,868,869,870,871,872,873,874,875,876,877,878,879,880,881,882,883,884,885,886,887,888,889,890,891,892,893,894,895,896,897,898,899,900,901,902,903,904,905,906,907,908,909,910,911,912,913,914,915,916,917,918,919,920,921,922,923,924,925,926,927,928,929,930,931,932,933,934,935,936,937,938,939,940,941,942,943,944,945,946,947,948,949,950,951,952,953,954,955,956,957,958,null,964,965,966]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\seedproofx.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1160,"totalBytes":5241,"outputLines":120,"outputBytes":5241,"shownRange":{"start":839,"end":958},"nextOffset":959}}},"isError":false,"timestamp":1784069195363}}
{"type":"message","id":"a0e26527","parentId":"f549201e","timestamp":"2026-07-14T22:46:35.372Z","message":{"role":"toolResult","toolCallId":"call_sO3uX2WAbeUr3nj05fCcrptG|fc_0b084cf0b521ab15016a56bc4b28ac8190988acdc59f419e5c","toolName":"read","content":[{"type":"text","text":"pub fn wan_shell_link_with(\n…\n) -> WanShellLinkOutcome {\n…\n    match round_trip() {\n…\n        Ok(spt_daemon::ShellLinkRequestOutcome::NoReply) => WanShellLinkOutcome::NoReply { node },\n        Ok(spt_daemon::ShellLinkRequestOutcome::Failed(detail)) => {\n            WanShellLinkOutcome::RemoteFail { node, detail }\n        }\n        Err(e) => WanShellLinkOutcome::Failed(e.to_string()),\n    }\n}\n\n/// Subnet-scoped liveness probe for a node (M7 D2 / M8, REQ-SUBNET-1 +\n/// REQ-SUBNET-5 — the hybrid liveness's expensive half, spent only on rows\n/// gossip-recency could not settle): true iff the peer is reachable RIGHT NOW\n/// **and still serving `subnet`**. The raw dial alone is subnet-blind (one\n/// ALPN serves every subnet, so it only proves the box is up — a peer that\n/// `subnet detach`ed would keep reading online); so after the dial proves\n/// reachability we ask the peer \"serving `subnet`?\" over the serve-probe\n/// record, which it answers from its own `AttachmentStore` (REQ-SUBNET-5).\n/// Every failure mode (daemon down, no dialable address, refused/timed-out\n/// dial, peer answers not-serving / no reply) reads `false` — the caller\n/// renders offline, never errors a status view.\n// [impl->REQ-SUBNET-1]\n// [impl->REQ-SUBNET-5]\npub fn probe_node_serving(node_hex: &str, subnet: &str) -> bool {\n    if spt_daemon::daemon::ensure_running().is_err() {\n        return false;\n    }\n    let Ok(mut brain) = Brain::cold_start(&broker_socket_name(), now_ms()) else {\n        return false;\n    };\n    let Some(addr) = addr_for_node_hex(node_hex).and_then(|a| serde_json::to_value(a).ok()) else {\n        return false;\n    };\n    // Dial proves the box is reachable; the serve-probe refines it to \"still\n    // serving THIS subnet\" (a detached peer dials fine but answers false).\n    let Ok(dialed) = brain.net_dial(addr, None) else {\n        return false;\n    };\n    spt_daemon::request_subnet_probe(&mut brain, dialed.conn_id, subnet).unwrap_or(false)\n}\n\n/// Render a resolution refusal as VALID, COPY-PASTE-ABLE qualified targets\n/// (REQ-INST-10's refuse-and-qualify, made actionable): the user reads the\n/// exact strings that disambiguate, never a debug dump of node hex. Labels\n/// are preferred for `@node` qualifiers (REQ-SUBNET-3 made them addressable);\n/// a label shared between candidates falls back to the paste-able key prefix\n/// — the same never-guess-between-twins rule resolution itself enforces.\n// [impl->REQ-INST-10]\n// [impl->REQ-SUBNET-3]\npub fn render_refusal(\n    id: &str,\n    why: &Ambiguity,\n    regs: &BTreeMap<String, SubnetRegistry>,\n) -> String {\n    match why {\n        Ambiguity::AcrossNodes(nodes) => {\n            let targets: Vec<String> = nodes\n                .iter()\n                .map(|n| format!(\"{id}@{}\", node_qualifier(n, nodes, regs)))\n                .collect();\n…\n        }\n…\n    }\n}\n\n[Showing lines 574-628 of 1429. Use :629 to continue]"}],"details":{"truncation":{"content":"        Ok(spt_daemon::ShellLinkRequestOutcome::NoReply) => WanShellLinkOutcome::NoReply { node },\r\n        Ok(spt_daemon::ShellLinkRequestOutcome::Failed(detail)) => {\r\n            WanShellLinkOutcome::RemoteFail { node, detail }\r\n        }\r\n        Err(e) => WanShellLinkOutcome::Failed(e.to_string()),\r\n    }\r\n}\r\n\r\n/// Subnet-scoped liveness probe for a node (M7 D2 / M8, REQ-SUBNET-1 +\r\n/// REQ-SUBNET-5 — the hybrid liveness's expensive half, spent only on rows\r\n/// gossip-recency could not settle): true iff the peer is reachable RIGHT NOW\r\n/// **and still serving `subnet`**. The raw dial alone is subnet-blind (one\r\n/// ALPN serves every subnet, so it only proves the box is up — a peer that\r\n/// `subnet detach`ed would keep reading online); so after the dial proves\r\n/// reachability we ask the peer \"serving `subnet`?\" over the serve-probe\r\n/// record, which it answers from its own `AttachmentStore` (REQ-SUBNET-5).\r\n/// Every failure mode (daemon down, no dialable address, refused/timed-out\r\n/// dial, peer answers not-serving / no reply) reads `false` — the caller\r\n/// renders offline, never errors a status view.\r\n// [impl->REQ-SUBNET-1]\r\n// [impl->REQ-SUBNET-5]\r\npub fn probe_node_serving(node_hex: &str, subnet: &str) -> bool {\r\n    if spt_daemon::daemon::ensure_running().is_err() {\r\n        return false;\r\n    }\r\n    let Ok(mut brain) = Brain::cold_start(&broker_socket_name(), now_ms()) else {\r\n        return false;\r\n    };\r\n    let Some(addr) = addr_for_node_hex(node_hex).and_then(|a| serde_json::to_value(a).ok()) else {\r\n        return false;\r\n    };\r\n    // Dial proves the box is reachable; the serve-probe refines it to \"still\r\n    // serving THIS subnet\" (a detached peer dials fine but answers false).\r\n    let Ok(dialed) = brain.net_dial(addr, None) else {\r\n        return false;\r\n    };\r\n    spt_daemon::request_subnet_probe(&mut brain, dialed.conn_id, subnet).unwrap_or(false)\r\n}\r\n\r\n/// Render a resolution refusal as VALID, COPY-PASTE-ABLE qualified targets\r\n/// (REQ-INST-10's refuse-and-qualify, made actionable): the user reads the\r\n/// exact strings that disambiguate, never a debug dump of node hex. Labels\r\n/// are preferred for `@node` qualifiers (REQ-SUBNET-3 made them addressable);\r\n/// a label shared between candidates falls back to the paste-able key prefix\r\n/// — the same never-guess-between-twins rule resolution itself enforces.\r\n// [impl->REQ-INST-10]\r\n// [impl->REQ-SUBNET-3]\r\npub fn render_refusal(\r\n    id: &str,\r\n    why: &Ambiguity,\r\n    regs: &BTreeMap<String, SubnetRegistry>,\r\n) -> String {\r\n    match why {\r\n        Ambiguity::AcrossNodes(nodes) => {\r\n            let targets: Vec<String> = nodes\r","truncated":true,"truncatedBy":"lines","totalLines":856,"totalBytes":2669,"outputLines":55,"outputBytes":2669,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"pub fn wan_shell_link_with(\n…\n) -> WanShellLinkOutcome {\n…\n    match round_trip() {\n…\n        Ok(spt_daemon::ShellLinkRequestOutcome::NoReply) => WanShellLinkOutcome::NoReply { node },\r\n        Ok(spt_daemon::ShellLinkRequestOutcome::Failed(detail)) => {\r\n            WanShellLinkOutcome::RemoteFail { node, detail }\r\n        }\r\n        Err(e) => WanShellLinkOutcome::Failed(e.to_string()),\r\n    }\r\n}\r\n\r\n/// Subnet-scoped liveness probe for a node (M7 D2 / M8, REQ-SUBNET-1 +\r\n/// REQ-SUBNET-5 — the hybrid liveness's expensive half, spent only on rows\r\n/// gossip-recency could not settle): true iff the peer is reachable RIGHT NOW\r\n/// **and still serving `subnet`**. The raw dial alone is subnet-blind (one\r\n/// ALPN serves every subnet, so it only proves the box is up — a peer that\r\n/// `subnet detach`ed would keep reading online); so after the dial proves\r\n/// reachability we ask the peer \"serving `subnet`?\" over the serve-probe\r\n/// record, which it answers from its own `AttachmentStore` (REQ-SUBNET-5).\r\n/// Every failure mode (daemon down, no dialable address, refused/timed-out\r\n/// dial, peer answers not-serving / no reply) reads `false` — the caller\r\n/// renders offline, never errors a status view.\r\n// [impl->REQ-SUBNET-1]\r\n// [impl->REQ-SUBNET-5]\r\npub fn probe_node_serving(node_hex: &str, subnet: &str) -> bool {\r\n    if spt_daemon::daemon::ensure_running().is_err() {\r\n        return false;\r\n    }\r\n    let Ok(mut brain) = Brain::cold_start(&broker_socket_name(), now_ms()) else {\r\n        return false;\r\n    };\r\n    let Some(addr) = addr_for_node_hex(node_hex).and_then(|a| serde_json::to_value(a).ok()) else {\r\n        return false;\r\n    };\r\n    // Dial proves the box is reachable; the serve-probe refines it to \"still\r\n    // serving THIS subnet\" (a detached peer dials fine but answers false).\r\n    let Ok(dialed) = brain.net_dial(addr, None) else {\r\n        return false;\r\n    };\r\n    spt_daemon::request_subnet_probe(&mut brain, dialed.conn_id, subnet).unwrap_or(false)\r\n}\r\n\r\n/// Render a resolution refusal as VALID, COPY-PASTE-ABLE qualified targets\r\n/// (REQ-INST-10's refuse-and-qualify, made actionable): the user reads the\r\n/// exact strings that disambiguate, never a debug dump of node hex. Labels\r\n/// are preferred for `@node` qualifiers (REQ-SUBNET-3 made them addressable);\r\n/// a label shared between candidates falls back to the paste-able key prefix\r\n/// — the same never-guess-between-twins rule resolution itself enforces.\r\n// [impl->REQ-INST-10]\r\n// [impl->REQ-SUBNET-3]\r\npub fn render_refusal(\r\n    id: &str,\r\n    why: &Ambiguity,\r\n    regs: &BTreeMap<String, SubnetRegistry>,\r\n) -> String {\r\n    match why {\r\n        Ambiguity::AcrossNodes(nodes) => {\r\n            let targets: Vec<String> = nodes\r\n                .iter()\n                .map(|n| format!(\"{id}@{}\", node_qualifier(n, nodes, regs)))\n                .collect();\n…\n        }\n…\n    }\n}","startLine":516,"lineNumbers":[516,null,527,null,569,null,574,575,576,577,578,579,580,581,582,583,584,585,586,587,588,589,590,591,592,593,594,595,596,597,598,599,600,601,602,603,604,605,606,607,608,609,610,611,612,613,614,615,616,617,618,619,620,621,622,623,624,625,626,627,628,629,630,631,null,636,null,647,648]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt\\src\\wansend.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1429,"totalBytes":2669,"outputLines":55,"outputBytes":2669,"shownRange":{"start":574,"end":628},"nextOffset":629}}},"isError":false,"timestamp":1784069195372}}
{"type":"message","id":"e0a18776","parentId":"a0e26527","timestamp":"2026-07-14T22:46:35.382Z","message":{"role":"toolResult","toolCallId":"call_ET7rApfN0r8MpXBcdSAf4FeE|fc_0b084cf0b521ab15016a56bc4b27988190ab5b823d8acd3d8f","toolName":"read","content":[{"type":"text","text":"impl Daemon {\n…\n    pub fn run_brain(generation: u64, start_reason: &str) -> io::Result<()> {\n…\n        // Anchor the monotonic half of the stderr correlation stamps at\n        // process start (F-039 leg c). [impl->REQ-CONN-POISON-ATTRIBUTION]\n        crate::conn::init_log_anchor();\n        crate::brainproc::run_brain(\n            generation,\n            crate::brainproc::StartReason::from_arg(start_reason),\n        )\n    }\n}\n\n/// Try to bring up the broker's network host once: build the production\n/// `NetConfig` (durable node.key + relay/discovery/membership) and start the\n/// endpoint, wiring on-connect roster propagation (REQ-MESH-2). `None` on a\n/// `NET_BIND_FAIL` (e.g. the network/DNS stack not ready yet) or a missing\n/// identity — the caller binds net-less and (REQ-DAEMON-9) retries.\n// [impl->REQ-DAEMON-2]\n// [impl->REQ-DAEMON-9]\nfn try_start_net() -> Option<NetHost> {\n    let cfg = DaemonConfig::load();\n    let relay = match cfg.relay {\n        RelayChoice::N0 => RelayPolicy::N0Default,\n        RelayChoice::Disabled => RelayPolicy::Disabled,\n    };\n    let identity = spt_store::nodeid::load_or_create().ok()?;\n    let net_cfg = NetConfig {\n        identity,\n        relay,\n        discovery: LocalDiscovery::Mdns,\n        scope: BindScope::All, // production: real interfaces\n        // Mesh-D2: enforce seed-proof on every dial + accept, reading the live\n        // subnet store each connect.\n        membership: Some(crate::seedproofx::production_membership()),\n    };\n    match NetHost::start(net_cfg) {\n        Ok(host) => {\n            host.set_roster_exchange(crate::seedproofx::production_roster_exchange());\n            Some(host)\n        }\n        Err(e) => {\n            eprintln!(\"NET_BIND_FAIL: {e} — broker runs net-less\");\n            None\n        }\n    }\n}\n\n/// Background net self-heal supervisor (REQ-DAEMON-9): a daemon that came up\n/// net-less (NET_BIND_FAIL at boot — typically the autostart racing the network\n/// up) keeps retrying `try_start_net` with capped backoff and, on success,\n/// ATTACHES the host to the live broker (`OnceLock`, so exactly once). The node\n/// becomes reachable without a manual restart. Runs until net binds — the\n/// network always arrives eventually after boot. The net consumers are no longer\n/// spawned here (restoration D2-1: they moved to the brain child, which starts\n/// them when `net-status` reports the just-attached endpoint enabled).\n// [impl->REQ-DAEMON-9]\nfn net_retry_attach(broker: Arc<Broker>) {\n    let mut backoff = NET_RETRY_FIRST;\n    loop {\n        thread::sleep(backoff);\n        if let Some(host) = try_start_net() {\n            if broker.attach_net(host) {\n                eprintln!(\"NET_ATTACHED: net endpoint bound on retry — brain starts the consumers\");\n            }\n            return;\n        }\n        backoff = net_retry_backoff(backoff);\n        eprintln!(\"NET_BIND_RETRY: net still unavailable, retrying in {}s\", backoff.as_secs());\n    }\n}\n\nconst NET_RETRY_FIRST: Duration = Duration::from_secs(1);\nconst NET_RETRY_CAP: Duration = Duration::from_secs(30);\n\n/// The net self-heal backoff ladder (REQ-DAEMON-9): double each retry, capped\n/// at [`NET_RETRY_CAP`]. Pure for tests.\nfn net_retry_backoff(cur: Duration) -> Duration {\n    (cur * 2).min(NET_RETRY_CAP)\n}\n\n/// Whether a daemon is already serving the seed-control channel for this home.\npub fn is_running() -> bool {\n…\n}\n\n[Showing lines 364-443 of 1703. Use :444 to continue]"}],"details":{"truncation":{"content":"        // Anchor the monotonic half of the stderr correlation stamps at\r\n        // process start (F-039 leg c). [impl->REQ-CONN-POISON-ATTRIBUTION]\r\n        crate::conn::init_log_anchor();\r\n        crate::brainproc::run_brain(\r\n            generation,\r\n            crate::brainproc::StartReason::from_arg(start_reason),\r\n        )\r\n    }\r\n}\r\n\r\n/// Try to bring up the broker's network host once: build the production\r\n/// `NetConfig` (durable node.key + relay/discovery/membership) and start the\r\n/// endpoint, wiring on-connect roster propagation (REQ-MESH-2). `None` on a\r\n/// `NET_BIND_FAIL` (e.g. the network/DNS stack not ready yet) or a missing\r\n/// identity — the caller binds net-less and (REQ-DAEMON-9) retries.\r\n// [impl->REQ-DAEMON-2]\r\n// [impl->REQ-DAEMON-9]\r\nfn try_start_net() -> Option<NetHost> {\r\n    let cfg = DaemonConfig::load();\r\n    let relay = match cfg.relay {\r\n        RelayChoice::N0 => RelayPolicy::N0Default,\r\n        RelayChoice::Disabled => RelayPolicy::Disabled,\r\n    };\r\n    let identity = spt_store::nodeid::load_or_create().ok()?;\r\n    let net_cfg = NetConfig {\r\n        identity,\r\n        relay,\r\n        discovery: LocalDiscovery::Mdns,\r\n        scope: BindScope::All, // production: real interfaces\r\n        // Mesh-D2: enforce seed-proof on every dial + accept, reading the live\r\n        // subnet store each connect.\r\n        membership: Some(crate::seedproofx::production_membership()),\r\n    };\r\n    match NetHost::start(net_cfg) {\r\n        Ok(host) => {\r\n            host.set_roster_exchange(crate::seedproofx::production_roster_exchange());\r\n            Some(host)\r\n        }\r\n        Err(e) => {\r\n            eprintln!(\"NET_BIND_FAIL: {e} — broker runs net-less\");\r\n            None\r\n        }\r\n    }\r\n}\r\n\r\n/// Background net self-heal supervisor (REQ-DAEMON-9): a daemon that came up\r\n/// net-less (NET_BIND_FAIL at boot — typically the autostart racing the network\r\n/// up) keeps retrying `try_start_net` with capped backoff and, on success,\r\n/// ATTACHES the host to the live broker (`OnceLock`, so exactly once). The node\r\n/// becomes reachable without a manual restart. Runs until net binds — the\r\n/// network always arrives eventually after boot. The net consumers are no longer\r\n/// spawned here (restoration D2-1: they moved to the brain child, which starts\r\n/// them when `net-status` reports the just-attached endpoint enabled).\r\n// [impl->REQ-DAEMON-9]\r\nfn net_retry_attach(broker: Arc<Broker>) {\r\n    let mut backoff = NET_RETRY_FIRST;\r\n    loop {\r\n        thread::sleep(backoff);\r\n        if let Some(host) = try_start_net() {\r\n            if broker.attach_net(host) {\r\n                eprintln!(\"NET_ATTACHED: net endpoint bound on retry — brain starts the consumers\");\r\n            }\r\n            return;\r\n        }\r\n        backoff = net_retry_backoff(backoff);\r\n        eprintln!(\"NET_BIND_RETRY: net still unavailable, retrying in {}s\", backoff.as_secs());\r\n    }\r\n}\r\n\r\nconst NET_RETRY_FIRST: Duration = Duration::from_secs(1);\r\nconst NET_RETRY_CAP: Duration = Duration::from_secs(30);\r\n\r\n/// The net self-heal backoff ladder (REQ-DAEMON-9): double each retry, capped\r\n/// at [`NET_RETRY_CAP`]. Pure for tests.\r\nfn net_retry_backoff(cur: Duration) -> Duration {\r\n    (cur * 2).min(NET_RETRY_CAP)\r\n}\r\n\r\n/// Whether a daemon is already serving the seed-control channel for this home.\r\npub fn is_running() -> bool {\r","truncated":true,"truncatedBy":"lines","totalLines":1340,"totalBytes":3385,"outputLines":80,"outputBytes":3385,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"impl Daemon {\n…\n    pub fn run_brain(generation: u64, start_reason: &str) -> io::Result<()> {\n…\n        // Anchor the monotonic half of the stderr correlation stamps at\r\n        // process start (F-039 leg c). [impl->REQ-CONN-POISON-ATTRIBUTION]\r\n        crate::conn::init_log_anchor();\r\n        crate::brainproc::run_brain(\r\n            generation,\r\n            crate::brainproc::StartReason::from_arg(start_reason),\r\n        )\r\n    }\r\n}\r\n\r\n/// Try to bring up the broker's network host once: build the production\r\n/// `NetConfig` (durable node.key + relay/discovery/membership) and start the\r\n/// endpoint, wiring on-connect roster propagation (REQ-MESH-2). `None` on a\r\n/// `NET_BIND_FAIL` (e.g. the network/DNS stack not ready yet) or a missing\r\n/// identity — the caller binds net-less and (REQ-DAEMON-9) retries.\r\n// [impl->REQ-DAEMON-2]\r\n// [impl->REQ-DAEMON-9]\r\nfn try_start_net() -> Option<NetHost> {\r\n    let cfg = DaemonConfig::load();\r\n    let relay = match cfg.relay {\r\n        RelayChoice::N0 => RelayPolicy::N0Default,\r\n        RelayChoice::Disabled => RelayPolicy::Disabled,\r\n    };\r\n    let identity = spt_store::nodeid::load_or_create().ok()?;\r\n    let net_cfg = NetConfig {\r\n        identity,\r\n        relay,\r\n        discovery: LocalDiscovery::Mdns,\r\n        scope: BindScope::All, // production: real interfaces\r\n        // Mesh-D2: enforce seed-proof on every dial + accept, reading the live\r\n        // subnet store each connect.\r\n        membership: Some(crate::seedproofx::production_membership()),\r\n    };\r\n    match NetHost::start(net_cfg) {\r\n        Ok(host) => {\r\n            host.set_roster_exchange(crate::seedproofx::production_roster_exchange());\r\n            Some(host)\r\n        }\r\n        Err(e) => {\r\n            eprintln!(\"NET_BIND_FAIL: {e} — broker runs net-less\");\r\n            None\r\n        }\r\n    }\r\n}\r\n\r\n/// Background net self-heal supervisor (REQ-DAEMON-9): a daemon that came up\r\n/// net-less (NET_BIND_FAIL at boot — typically the autostart racing the network\r\n/// up) keeps retrying `try_start_net` with capped backoff and, on success,\r\n/// ATTACHES the host to the live broker (`OnceLock`, so exactly once). The node\r\n/// becomes reachable without a manual restart. Runs until net binds — the\r\n/// network always arrives eventually after boot. The net consumers are no longer\r\n/// spawned here (restoration D2-1: they moved to the brain child, which starts\r\n/// them when `net-status` reports the just-attached endpoint enabled).\r\n// [impl->REQ-DAEMON-9]\r\nfn net_retry_attach(broker: Arc<Broker>) {\r\n    let mut backoff = NET_RETRY_FIRST;\r\n    loop {\r\n        thread::sleep(backoff);\r\n        if let Some(host) = try_start_net() {\r\n            if broker.attach_net(host) {\r\n                eprintln!(\"NET_ATTACHED: net endpoint bound on retry — brain starts the consumers\");\r\n            }\r\n            return;\r\n        }\r\n        backoff = net_retry_backoff(backoff);\r\n        eprintln!(\"NET_BIND_RETRY: net still unavailable, retrying in {}s\", backoff.as_secs());\r\n    }\r\n}\r\n\r\nconst NET_RETRY_FIRST: Duration = Duration::from_secs(1);\r\nconst NET_RETRY_CAP: Duration = Duration::from_secs(30);\r\n\r\n/// The net self-heal backoff ladder (REQ-DAEMON-9): double each retry, capped\r\n/// at [`NET_RETRY_CAP`]. Pure for tests.\r\nfn net_retry_backoff(cur: Duration) -> Duration {\r\n    (cur * 2).min(NET_RETRY_CAP)\r\n}\r\n\r\n/// Whether a daemon is already serving the seed-control channel for this home.\r\npub fn is_running() -> bool {\r\n…\n}","startLine":42,"lineNumbers":[42,null,357,null,364,365,366,367,368,369,370,371,372,373,374,375,376,377,378,379,380,381,382,383,384,385,386,387,388,389,390,391,392,393,394,395,396,397,398,399,400,401,402,403,404,405,406,407,408,409,410,411,412,413,414,415,416,417,418,419,420,421,422,423,424,425,426,427,428,429,430,431,432,433,434,435,436,437,438,439,440,441,442,443,null,445]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\daemon.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1703,"totalBytes":3385,"outputLines":80,"outputBytes":3385,"shownRange":{"start":364,"end":443},"nextOffset":444}}},"isError":false,"timestamp":1784069195382}}
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peer address key mismatch bug**"},{"type":"summary_text","text":"**Analyzing epoch timestamp discrepancies in peer data**"},{"type":"summary_text","text":"**Comparing roster and transport node counts**"}]},{"id":"rs_0b084cf0b521ab15016a56bc58b1dc8190aa06814b71d342f1","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVrxhdsxLd5sQFEM8QhcIp9dH4aNutXRctupGFnBe5hzidWXuGgnuU8j8HTKxSUU_FTtQ35YBMcwZECjq-PqMBpeTpV11Cj5zSj8O0lUghYP3NDfGCkWlN7A2cyvkc5gG9s0oSaGutcCLj0edgvMM_pvvy08A6wehZ1uhWX0vu6BmL5_WqGNbkyU5OGQKivifhnmpNRagJ5RgqclvVRVKsid1WhW55UEENWii-8gdv6f5vL13XxL1KUvRD5RNRcarBO9T0l21WqB-36ii9K69b_zNkvxyyiF4ku-tezIb1nKkntPvjup5yXHHnNAoxbbjdiToMj_5Xc8924NzvN76tTpcJVFbSOOX-jZgvJJoGIDaTb3snQIw17QaEasLc_Mw95kzE5Mt2Gd50cjU2I-CpiMIbqZGOs9CexSTuHrHmgmOkuYiKnqlbhWsLuaHD8QrMsX1G4bxcTrIzh5K-ZQe7b6Pk_5xGdMnGyx-mjHTPzP4YIwPjJptfMW4-CmCWLm7Lyl6taOAO5CTTox3Rtdb_eVnjiShzK8M94y_2QfmSTPIEqQpIHpSelZbLrWfvRJ0Wyf75dU281t9SWvMne0jSKxydUV4ZN5YfF_UUuZHn0AqXHu7SlEzqOeQMkMtoBe2RRiuDtn5hPSf1vZ0Xl4-lNh3-ebZNOY_GtLNZcqIhv5GZD1KvPkSx939l2DW1W63Z4Pk4T4L0h8uxLwV3Fo7hPSm1qVTP3QEc-HAc17l8U5jdrUjg1lJcWM9-bgqgfnCGxF3amfxJw1zo8iUR1X0ZYiO61am_oP8WF3q8l9uyOXokfDYQC32wVLw6QlEgOrRivBOSGoeJ_Wn72r87kRil_GP9hXWc-o1tPD10cJamHdp3FjBkcDzsJvtazWpZ6yZTdvv_uvo__-SFP_KCnChGciUOIbJO9m7eipe99arPyy2LFa_W8MTYfjsp07bWf6xEQzEe2rsTevhDmjK-00g4cleDkMYOgOhTim-eyhRrEvuKWtdyKDPWgiIcV8JYpY8u70tyEsCg8ZXRpj7FcZLI-fe2-08kc0k5ELVjA5hafuxmr9KP4ggazpmhC6tQ4XxhVgNZQztBVgQvBDniNwm53kweNumA08B0gZLtn0m92_JjYKoIkeAI8fzpwXU7wWL8VYBzXx7l0EApnCGe_b2sHGK3XdhlW1KEtdFfVPg9jp1x6aiZ5MA7kut6nsCeWIDzEUZkP-ftRFD4MsxcPwy_ygQaoyontrtLFFG8UBB4CkHpcXVQdGD8viGCOpNHq0n7vDzLUQteK-2mC6asH4GoBKkuKaAKPFHMMBI8C74mos_AjdYsPQ1ch1gIsGhag5XVUQmw9vdLsIDQz75b1K_JrNKq9Vxx-fZqQIhXgDc6BXoQBCz0Sv5k2LFZGnIgBjHGfDCmOFT8Pjkx9Pvko41umeC2MxL_nn13BgI7p2zME3JWhpvzQYTZMUGPQCksAldJhm62sWjMFJfvZaCTtmPKUaSiuAZaDjTXT5X77N5pAmbparqEdToBNVYWVC2xMg9Okezzg2LcM-oZVUlLgZBo-a0kQRussfjtdcK2OB9J04KVhIerjLGbSVy9Q4UY294FMo1mb1KhCYBBb7L2efdprhJCZ8fqQyw_B5jBRsrVHvEYMul4Tv5p2X9XCmU6WVItsBdeRXb5IctjFbRPS2gK_GS206Ax4lcsx6tIvzjwwpcYYnQkVICbqdakzpC1ZXdsJrUkJxLHhk4X6dS38cnVdljZa-RWtLzVG1SDytzkoEsSJp6Gxan724PQKhUClNYUDWwEYRvSiAHGLLZGk5IIhM1J9yQHGQYsIYYSxKUYO_Tr2uwQrAZEPz2W-xVHSTpSmn6K1KVwUG-fVBU0nJ2cFomK0onDfypPaS8ZKCj5YBXtPrmk_G54NVNp175u8-Jt_Sp6I_BqYopi5YX4tpAviurtUAk-cKSHWe7eHU5v9iVS3XNJ1PFhxF7YHQUYMj92nLMVY7Myzh_TVMDb3xBsn6mS3RRdmr1eA_n9OpemFlJvxP6wxgJAW7ZUOPD02o2NJVcAFPR7j1amseWmuO7gUUmkxapkzaqSI-OR9kvPMhzRnYcT4sbXXqhPtSixZDiLE0Y54S5OQQ3MZ3NKUd58QUQqn7_Y6gmBtnYmGES0EnKBpqEr2GjrdSUyg_PSX0bDaYunXtqV4YIlRrZjVrlPOLeQ3KFIowwx6TEV7YpEcCpGEfNJaj0HL_gQngFWMsPAkBW_TUzYTyYa3DqGeZLwSiCReGbbHv3TjIcA41JnNSKr9pH5Q4XmFHo5HHrBvYB-qCmJ4N_BxsHn4p94An6jkzGxucDJIDEqd4mQtWA5f_lW_2FdBL_bbFzlq7oR2oIm2nyR6w5GgR1g4cj-LzWHTpmXVaPPM6kNZXvMDi6NLi5lDGUPfeN-SPmfo9YkuXXY-JIt7KwLclmqAOMy1tWLj4QM2WJBcfFQoYcSR-qc799KU6m2aUMs0qg8w73sNN9T-eDMQQ_aSfmKWbC6iR3f6dmC559Vm6UQYeC-RfZTOzLFG023SelLVJlGxhIrwU9cxvg1719xwmjM9UeNf1HtPY0ALp3R_mRI0pYgZOZzepm4ejYZz747-6vb0f7CdbqRfqT1U_yowutJt2HL3dj4o1WcVwtgD0yzWDj9siQ8m9tqml-dbMzFLPCE0eb8SDYmxMCk33SEgtoqV2mA0C6pRB8HP-7MyEsXPTD2Q2PC4XQHnUyEYCpeiq2_e3AUn0Q4uL_NCR0yEZLTJpQhIbTkQ0BW3TimBVQOlbIeLQHvKKKFqozS4ipPHrUP8SDdDjcv2lXAgSG6hyANO448R58DKwqMscQFWq0X-jMUrUMn9bYMLlp2x38LA_depZisBJhSVkfrlm_BKJ4U2KQYNEbwMzRVY3JjYf5yFtqOwb7sbNg2xpF6mW9qk5h-hOBmkBu_iHah3IDGc9ehRn8EMsUY0XTUca81z4wJcU3vRCDC3TX-bMSa1CFz22yJIlz3sGNVbvwJUu6ke84LSRNRhIizBXrDkDEooL8BBTvxbzoZWStQ40MRqnxoRPrS2Ra0lxJzvbMlaVLGPZiPOuWnoIu_xOHb8wzobuwE-Lp3WgENt3isKsXhdEE4FSEbbx-8kGc2xj-ku4TBMV3SY-UkaJt_hqVs6yRW845rUdyC6o7C25EU6pwi80Wt9i5LfdVw077sLGMwtidHO-jOavykVRtDpTqhvimS_hqv2g81jSCMoQ3ZSPT6pqir2pPCDIJAJpX0zGYSDDk6sm8Lqo8BNatQ_aJLJmT4qCsEDUTdpjeJqZODRGv5VdStD212-2YTBQZ-A5E1c0I3e3pREGhlL6lDB_ahtXVWyqdghTo8rG03QrSqKqG4CBrDp8KRirA2OwXzcemYJaRXaAjGSFoD_t3xGI6dO-t-_bCV6qUtY7r4zu-raMvIsLh1T4MVjY7xg-3S85JG6XSRyw1eKPdBShm9Ja20WH1v2i_IkI7sSA7ZoB1JTVbxOynJ_ngqkGHy-oJ4IkxgV06KbMdwaXkY8gQHvxLrewJ38h2ZzVrQyZQw98psAkSw9r1NxBdzeDb9WoXo2GRQVBGt_oN0Xv2k3S8uHK3G9laywW2mimLq_4aa98SdCW91HmKxG-E3dg3emSMRaHSmVIlPSJ7tEvkLXVLY74sYyYUgnm_8ychNl6us8ArIx8yx6K-61unZARCjeMmwKzS4xlIGbUyuNWRyiA0zwxYAwGd1IUcL6pK0Z0TyKYLDBMifeGl0L1pjnEeDLvUjQMFH5LAs1idSDiJuvLBOBUeJwlTMf1l-SBPkQVTkq77FC3r1ZY0rcJFMSg75qnIEXCJ7MB6IukOnpkucDVOl2rajpGIwDUki8Oyu6Y-NMZ7lYCAT5k60yeuOLPDKz3tWNyJYmEGM-92cp7S1jRLADtdBpbbfVyL6gJVTjnDVVgHniGrn6DTlpOV-1Qh3jgpDPkG","summary":[{"type":"summary_text","text":"**Confirming durable roster consistency**"},{"type":"summary_text","text":"**Analyzing daemon net_up fallback behavior**"},{"type":"summary_text","text":"**Planning peer-addrs and address comparison**"}]},{"id":"rs_0b084cf0b521ab15016a56bc618d5c81908e0dee9ba023616e","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVrxusfQl4wS9nWZMQI0W70BiUBTy1oxm21EY3q3-OKgBTYqNGLr0KcxqX0tL_nBkc3TqQKeCDX55uDO_UHO-23L-YtSfur3oDHI4C4SbH8jqjGdJaFjIph6NTPUfZX1YFeqnMo-R96x-TJG8BVLkDcMviR2yqEX8FMkHuNFwRkupvyBoqhCpQtzCzfzg1jeK6yjq70olJhZBMgQfox5EgDjdFKc1xJKy3Oi1xkdoSJcEbkti1lL3bwqutL0wE_gJHGDxvU3_TQprEXhSVVAdviD_SvoJJSSvql0hopqWgpUoLGC73yyOXQUX3meSJ1tTmQ_9FxI8uR2_iw9dDtipI-aT1BGPqhw75Oxo0WV_uKb6ZMd3Rmm91qzX-c3LOfhhK78OgiPzaYvMOqr645krdKGwvTXOQaoEaQQ50r0-Tlt6Ikjz5HaPshlEGaJrBxIZ907wdoqm7_qLkIZcRfPi8OtwM5uW3PvtYtqSDItUEFyHC1hkQmjh7XqjWebPt_gUBAX1eKbM1i-3EhOMeCUFYm6kcqwr2Z6Mq-CQTpzcxyPZwPATQkajJ7T3eTAwfGEzf_ZyIZW8C8WKMgrqSMJJ-I8SjVHgVASxM3THpHAXJ-jRwKbzd5EaBCIgkdFq3Pcc1SqGbo151mxTeAX9J2Ly2dXsmvr0UrmqSE8Y_xp40ZwmzopfACS12AcbLr8gXGPs2_6ddr6Bngch7vfhI8igpOxNIcDPES82shJ0tUgKnUY75FUVDZULdb_d02jAqX_uU7EtbciRJiLyvrpQ2gs0-zFDhb6jRN7wPVnsiDfjcAVtQiKXtRVnIlkcjfTLsTY245pIPGAbA05ticGuC-aiov9pWwvM0-6FZqbtzu_2vOglfme4_VvDtbbOmQ9yleVbRAd58ict6Dlz5lqJZkrMmT3bKDeKRF9inB3VLXGRdcLtXHBZTAq3rgfOI3KkrjDCJ7MOSOBfhVyEQA9zJvDQ2D62-RoGrEcRgWw2SAO6m6EBf4_UCy8nuGpBXDSgRv_yBiPE-GLghtppzbK3DkBF5RecklLjL2xQQw3h9c6HthxpSrmo-SyASjhTkbvZeqLTkgE1FVkRUQWS5t15IVh-wma1yVzhCebEkj0aVUklwM8MkVo60474vdgPi5m6oLeptFz5BaDz160koNFKUCj-c67NZLtNLCYoycdHezV0AvM_7mOD6G8etmV-inTfgaP9AUumn0DTCrUeQoScqjOYukU8kbgN3TIZYh4CTgpERM1dkw8X0U1zp0TgpPK-31g9PUGxGZrj4jfgSluzH4ypO6klmKKjjzW5kGyesAu_syTz1A7xsNYI6OrKwuAAmxV1hWULUiX_Id44U5842XCzfZLpp_MTM8FduBPv4xx3AtwxVQi0lv9hFiOTKfwG4wTGtZ9Q_szuV0wBiMT0nF1oV0nDAoojWpWXriHC-43g3KtQu4I88o809zR_xwFjmt3NYFikr9I0EOylHy8MLGJOpU707JUBWRoMsX-2pq7cCl43loIEO7mMwSUFsdUGgUj22dcWJkhtAvtX5veFaFj2aDB21qCETAWBtQz8H5HgDd7KjsxROcqPA2zVN8SljrqjMb-rnXZcNvgdK1pYbB2fU0HuXBlBZHlvu0hYJSXkrrS-MfN5Dbt9ZIkpCCBeDh4iLuSc5wZrkvpJD1n4i5RDO7OijUSSjmiXcCBD1UUDkcaojhTxm4qBDlK6HKpbNEFT82Pt9bDSkrv_7vTGnNN9ky8TYO8kVPTX9rP67hSdQ-Kh3MHkSFm86QUacMWJzvGWIHRa65DDXnqcydzTCo6J-Dcq1At7aO8tOYXuH9ohXBETQsEFXkO5GXQ7yqX_rVHXWUzgI1Ex2ABPKzK658ztDEZBgB3nzheECWLTOHrilUA5XUo1M8FfWFuRTerVPUgz5jt2NeKp7XgMPVBDjshkSn60PIfoGFzLGrV8atQyIgBgQ-Sfpnousgde-1l5pzl1grbfkZBzfrDMYaKEoiHxLwG4wIS1wwlGL8SNKSMpsFQnqLsqIN4T8BdZ1LoCdNZvFpB1HL351dc_8X5z7ukK4BNx_m1sjZIb6OZ2SdlC6MnYvuIyYI-SwQvimFsXXJLffUFwkbxJSPDOHniNCdHuMyInp2Ba1m5n6WfJtKLpiy2D4DhbgsSpQfAFonfMxXbIR-bcaP9BrOg1oFrAF1gBGb45S6DxDAmGvtvNiB0nkmCZMhyKGXeDV2WlIGf_6Yqn2fwq8HJ9uZaNGT33XBW0qKEEp6paNM3s0YcaZkm1Lz7m3F9mYQFQjAYHAhqHoLi8l18InL25NNXM4wYnmik6-GwkBSjhc6MrCq3rnOS_eirYWO4XNWcmyOX8pW_C6QIVArI2DdZJqRj5Ga1tY7xmzyTa1hfcg6TnRdAVtEfgCdkHwPW5UNsAQBFk1xRvMiY0XzP2wSsSTVFa6TWuA-uHGUxwIcq80g8ncwqUVdQi8EUCbeFcYUrQGeFb1DWKZMgdOjufgxfaGdPPEdjfRv9cWib67QWcn1gcNyfG8zRXCfg0dHSPf1IVKkY5UneM62qcytvhvcBpfz-jUocZXRyTY9MCvYFH9qwaOIyZQ3_ieuRTR3cfmNXolQJ39adGvFBYNXVw_O7ubK0yG4EQachf0cbwRDmYC_ZVL4pITypoODE7tJBWDsv2Ki9-ukiywW5wUvj8ST_JVL8wazg4vwZTnI5M50t1iQtejyvG3aASfo9DLmWUTJQBg6KVMVI21U0IfM8_UGjy4-LIDtIkYW9CuTKcEPIeL4kbgZ2EhYBx1nk8IryjRn0Kw3Hqz9aPMPzHlcwc118vNQUPFm70r7W-UJyYyXmibVL47Fg4gEl-3EdQP2C35uZiarPVouhuFGHHnAcdC-NMCS-bQ_oR5c82t4YHvlTP1FGzkrpEYWwfP3MtHWk=","summary":[{"type":"summary_text","text":"**Ranking network failure hypotheses**"},{"type":"summary_text","text":"**Identifying firewall rule detection issues**"}]},{"id":"fc_0b084cf0b521ab15016a56bc6e2eac8190a4198a05c107a29b","type":"function_call","status":"completed","arguments":"{\"i\":\"Locating firewall installation\",\"pattern\":\"spt-core inbound UDP|advfirewall|firewall add|New-NetFirewallRule|protocol=UDP\",\"path\":\"spt-core\",\"selector\":null,\"case\":false,\"gitignore\":true,\"skip\":null}","call_id":"call_RL0CXFqatvT1r27SbUzonF3g","name":"grep"},{"id":"fc_0b084cf0b521ab15016a56bc6e2f70819099b1377b9ab47de6","type":"function_call","status":"completed","arguments":"{\"i\":\"Reading brain consumer gate\",\"path\":\"spt-core/crates/spt-daemon/src/brainproc.rs\",\"selector\":\"235-330\"}","call_id":"call_A4BGzXixyUn4X0dlkDLgNVj8","name":"read"},{"id":"fc_0b084cf0b521ab15016a56bc6e2fb081908723a25d4fc96494","type":"function_call","status":"completed","arguments":"{\"i\":\"Reading pump supervisor 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{"type":"custom","customType":"tool_execution_start","data":{"toolCallId":"call_YEhpngmJaZkzehA95VXBERuJ|fc_0b084cf0b521ab15016a56bc6e30b881909d114558fe63c20a","toolName":"read","startedAt":"2026-07-14T22:47:10.598Z","args":{"path":"spt-core/crates/spt-daemon/src/config.rs"},"intent":"Reading config network defaults"},"id":"55c98156","parentId":"2057cbea","timestamp":"2026-07-14T22:47:10.598Z"}
{"type":"custom","customType":"tool_execution_start","data":{"toolCallId":"call_Wn4gPJkBRU5s2a39qHiePmrZ|fc_0b084cf0b521ab15016a56bc6e31988190ad6793de5da03676","toolName":"read","startedAt":"2026-07-14T22:47:10.598Z","args":{"path":"spt-core/crates/spt-store/src/peeraddrs.rs"},"intent":"Reading peer address cache implementation"},"id":"8f95fba7","parentId":"55c98156","timestamp":"2026-07-14T22:47:10.598Z"}
{"type":"message","id":"8899429f","parentId":"8f95fba7","timestamp":"2026-07-14T22:47:10.613Z","message":{"role":"toolResult","toolCallId":"call_IRzMGbMzH1y9okfOWOOXnF8A|fc_0b084cf0b521ab15016a56bc6e2fe4819093c1a43c3e530e32","toolName":"read","content":[{"type":"text","text":"/// Run the mutual seed-proof on `conn` and return the set of subnets BOTH sides\n/// proved, or `None` if the connection must be dropped (no shared subnet, a\n/// failed proof, or a transport/protocol error). `local_id` is this node's\n/// pubkey; `role` is which side of the connection we are.\n///\n/// When `roster` is `Some` (Mesh-D4, REQ-MESH-2), a roster-exchange leg rides\n/// the **same** control stream **after** both proofs verify — so the roster is\n/// \"exchanged only over seed-proof'd member connections\" by construction, not by\n/// convention. `self_addr` is this node's live dialable address (opaque JSON,\n/// `Null` if none) which the provider stamps onto its own advertised entry. The\n/// leg is **best-effort**: the connection is already a proven member conn, so a\n/// missing/short/garbled roster frame is swallowed (it never drops the conn) —\n/// which also lets a D4 peer interoperate with a not-yet-upgraded one that sends\n/// no roster.\n// [impl->REQ-MESH-1]\n// [impl->REQ-MESH-2]\npub async fn prove_membership(\n    conn: &Connection,\n    local_id: PublicKey,\n    role: ProofRole,\n    creds: &[SubnetCred],\n    roster: Option<&RosterExchange>,\n    self_addr: &serde_json::Value,\n) -> Option<HashSet<String>> {\n    let remote = PublicKey::from_bytes(conn.remote_id().as_bytes()).ok()?;\n    let remote_hex = remote.to_hex();\n    // Channel binding: the transcript pins both handshake-proven pubkeys in a\n    // role-fixed order (dialer first), so a tag is valid on exactly this conn.\n    let (dialer_pub, acceptor_pub) = match role {\n        ProofRole::Dialer => (local_id, remote),\n        ProofRole::Acceptor => (remote, local_id),\n    };\n    let by_name: HashMap<&str, &SubnetCred> =\n        creds.iter().map(|c| (c.name.as_str(), c)).collect();\n\n    match role {\n        ProofRole::Dialer => {\n            let (mut send, mut recv) = conn.open_bi().await.ok()?;\n            prove_as_dialer(\n                &mut send,\n                &mut recv,\n                creds,\n                &by_name,\n                dialer_pub,\n                acceptor_pub,\n                &remote_hex,\n                roster,\n                self_addr,\n            )\n            .await\n        }\n        ProofRole::Acceptor => {\n            let (mut send, mut recv) = conn.accept_bi().await.ok()?;\n            prove_as_acceptor(\n                &mut send,\n                &mut recv,\n                &by_name,\n                dialer_pub,\n                acceptor_pub,\n                &remote_hex,\n                roster,\n                self_addr,\n            )\n            .await\n        }\n    }\n}\n\n/// One subnet's local generations, as the proof exchange needs them: the\n…\n#[allow(clippy::too_many_arguments)]\nasync fn prove_as_dialer(\n    send: &mut SendStream,\n    recv: &mut RecvStream,\n    creds: &[SubnetCred],\n    by_name: &HashMap<&str, &SubnetCred>,\n    dialer_pub: PublicKey,\n    acceptor_pub: PublicKey,\n    remote_hex: &str,\n    roster: Option<&RosterExchange>,\n    self_addr: &serde_json::Value,\n) -> Option<HashSet<String>> {\n    let nonce_d = fresh_nonce();\n    let my_names: Vec<String> = creds.iter().map(|c| c.name.clone()).collect();\n    write_frame(send, &SeedProofFrame::Hello { nonce: nonce_d, subnets: my_names }.encode())\n        .await?;\n\n    // Acceptor replies with the intersection (in its order) + its nonce.\n    let (nonce_a, shared) = match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n        Some(SeedProofFrame::Hello { nonce, subnets }) => (nonce, subnets),\n        _ => return None,\n    };\n    // Defensive: only honor subnets we actually offered.\n    if shared.is_empty() || shared.iter().any(|s| !by_name.contains_key(s.as_str())) {\n        let _ = send.finish();\n        return None;\n    }\n\n    let gens = build_gens(&shared, by_name, dialer_pub, acceptor_pub, nonce_d, nonce_a)?;\n\n    // Send all our (dialer-role) proof sets first — current + prior generation\n    // per subnet (Mesh-D7), so a peer one epoch ahead or behind can still match.\n    // They buffer while the acceptor reads, so the ping-pong never deadlocks.\n    for g in &gens {\n        write_frame(send, &SeedProofFrame::ProofSet { proofs: g.outbound(ProofRole::Dialer) }.encode())\n            .await?;\n    }\n    // Then read the acceptor's proof sets (no early abort — grade after the full\n    // read so the legs below stay symmetric with the acceptor; tombstone grading\n    // is one-sided, so an aborting verify would desync the stream).\n    let mut peer_sets = Vec::with_capacity(gens.len());\n    for _ in &gens {\n        match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n            Some(SeedProofFrame::ProofSet { proofs }) => peer_sets.push(proofs),\n            _ => return None,\n        }\n    }\n    let graded = grade_all(&gens, &peer_sets, ProofRole::Acceptor, remote_hex, roster);\n\n    // The legs run over the SHARED set (symmetric on both sides), with\n    // grade-filtered content — never gated on the asymmetric full/reseed split.\n    // Mesh-D4 roster leg (REQ-MESH-2): dialer sends first, then reads.\n    exchange_roster_dialer(send, recv, roster, self_addr, &graded.full).await;\n    // Mesh-D7 re-seed grace leg (REQ-MESH-4): push our current seed for subnets\n    // where the peer proved only the prior generation; adopt any pushed to us.\n    exchange_seed_dialer(send, recv, roster, &graded.reseed, by_name).await;\n    let _ = send.finish();\n    finalize(graded)\n}\n\n/// The connection's verdict from the graded outcome. A purely-denied exchange\n/// (nothing full, nothing re-seeded) drops the conn (`None`). A re-seed-only\n/// exchange registers with an EMPTY proven set: the conn is kept alive only so\n/// the seed push it just carried is actually delivered (dropping it here races\n/// the QUIC CLOSE against the peer's read) — it serves no subnet and is replaced\n/// when the healed peer reconnects full. Otherwise the proven (full) set joins.\n// [impl->REQ-MESH-4]\nfn finalize(graded: Graded) -> Option<HashSet<String>> {\n    if graded.full.is_empty() && graded.reseed.is_empty() {\n        None\n    } else {\n        Some(graded.full)\n    }\n}\n\n#[allow(clippy::too_many_arguments)]\nasync fn prove_as_acceptor(\n    send: &mut SendStream,\n    recv: &mut RecvStream,\n    by_name: &HashMap<&str, &SubnetCred>,\n    dialer_pub: PublicKey,\n    acceptor_pub: PublicKey,\n    remote_hex: &str,\n    roster: Option<&RosterExchange>,\n    self_addr: &serde_json::Value,\n) -> Option<HashSet<String>> {\n    let (nonce_d, dialer_names) = match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n        Some(SeedProofFrame::Hello { nonce, subnets }) => (nonce, subnets),\n        _ => return None,\n    };\n    // Intersection in a deterministic (sorted) order both sides walk identically.\n    let mut shared: Vec<String> = dialer_names\n        .into_iter()\n        .filter(|s| by_name.contains_key(s.as_str()))\n        .collect();\n    shared.sort();\n    shared.dedup();\n\n    let nonce_a = fresh_nonce();\n    write_frame(\n        send,\n        &SeedProofFrame::Hello { nonce: nonce_a, subnets: shared.clone() }.encode(),\n    )\n    .await?;\n    if shared.is_empty() {\n        let _ = send.finish();\n        return None; // no shared subnet — nothing to mesh, drop\n    }\n\n    let gens = build_gens(&shared, by_name, dialer_pub, acceptor_pub, nonce_d, nonce_a)?;\n\n    // Read the dialer's proof sets first, then send ours (mirror of the dialer's\n    // send-then-read, so the ping-pong stays deadlock-free).\n    let mut peer_sets = Vec::with_capacity(gens.len());\n    for _ in &gens {\n        match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n            Some(SeedProofFrame::ProofSet { proofs }) => peer_sets.push(proofs),\n            _ => return None,\n        }\n    }\n    for g in &gens {\n        write_frame(send, &SeedProofFrame::ProofSet { proofs: g.outbound(ProofRole::Acceptor) }.encode())\n            .await?;\n    }\n    let graded = grade_all(&gens, &peer_sets, ProofRole::Dialer, remote_hex, roster);\n\n    // Mirror of the dialer: read-then-send on each leg (over the shared set).\n    exchange_roster_acceptor(send, recv, roster, self_addr, &graded.full).await;\n    exchange_seed_acceptor(send, recv, roster, &graded.reseed, by_name).await;\n    let _ = send.finish();\n    finalize(graded)\n}\n\n/// Write a length-delimited frame (`u32` BE length prefix + body).\nasync fn write_frame(send: &mut SendStream, body: &[u8]) -> Option<()> {\n…\n}"}],"details":{"displayContent":{"text":"/// Run the mutual seed-proof on `conn` and return the set of subnets BOTH sides\n/// proved, or `None` if the connection must be dropped (no shared subnet, a\n/// failed proof, or a transport/protocol error). `local_id` is this node's\n/// pubkey; `role` is which side of the connection we are.\n///\n/// When `roster` is `Some` (Mesh-D4, REQ-MESH-2), a roster-exchange leg rides\n/// the **same** control stream **after** both proofs verify — so the roster is\n/// \"exchanged only over seed-proof'd member connections\" by construction, not by\n/// convention. `self_addr` is this node's live dialable address (opaque JSON,\n/// `Null` if none) which the provider stamps onto its own advertised entry. The\n/// leg is **best-effort**: the connection is already a proven member conn, so a\n/// missing/short/garbled roster frame is swallowed (it never drops the conn) —\n/// which also lets a D4 peer interoperate with a not-yet-upgraded one that sends\n/// no roster.\n// [impl->REQ-MESH-1]\n// [impl->REQ-MESH-2]\npub async fn prove_membership(\n    conn: &Connection,\n    local_id: PublicKey,\n    role: ProofRole,\n    creds: &[SubnetCred],\n    roster: Option<&RosterExchange>,\n    self_addr: &serde_json::Value,\n) -> Option<HashSet<String>> {\n    let remote = PublicKey::from_bytes(conn.remote_id().as_bytes()).ok()?;\n    let remote_hex = remote.to_hex();\n    // Channel binding: the transcript pins both handshake-proven pubkeys in a\n    // role-fixed order (dialer first), so a tag is valid on exactly this conn.\n    let (dialer_pub, acceptor_pub) = match role {\n        ProofRole::Dialer => (local_id, remote),\n        ProofRole::Acceptor => (remote, local_id),\n    };\n    let by_name: HashMap<&str, &SubnetCred> =\n        creds.iter().map(|c| (c.name.as_str(), c)).collect();\n\n    match role {\n        ProofRole::Dialer => {\n            let (mut send, mut recv) = conn.open_bi().await.ok()?;\n            prove_as_dialer(\n                &mut send,\n                &mut recv,\n                creds,\n                &by_name,\n                dialer_pub,\n                acceptor_pub,\n                &remote_hex,\n                roster,\n                self_addr,\n            )\n            .await\n        }\n        ProofRole::Acceptor => {\n            let (mut send, mut recv) = conn.accept_bi().await.ok()?;\n            prove_as_acceptor(\n                &mut send,\n                &mut recv,\n                &by_name,\n                dialer_pub,\n                acceptor_pub,\n                &remote_hex,\n                roster,\n                self_addr,\n            )\n            .await\n        }\n    }\n}\n\n/// One subnet's local generations, as the proof exchange needs them: the\n…\n#[allow(clippy::too_many_arguments)]\nasync fn prove_as_dialer(\n    send: &mut SendStream,\n    recv: &mut RecvStream,\n    creds: &[SubnetCred],\n    by_name: &HashMap<&str, &SubnetCred>,\n    dialer_pub: PublicKey,\n    acceptor_pub: PublicKey,\n    remote_hex: &str,\n    roster: Option<&RosterExchange>,\n    self_addr: &serde_json::Value,\n) -> Option<HashSet<String>> {\n    let nonce_d = fresh_nonce();\n    let my_names: Vec<String> = creds.iter().map(|c| c.name.clone()).collect();\n    write_frame(send, &SeedProofFrame::Hello { nonce: nonce_d, subnets: my_names }.encode())\n        .await?;\n\n    // Acceptor replies with the intersection (in its order) + its nonce.\n    let (nonce_a, shared) = match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n        Some(SeedProofFrame::Hello { nonce, subnets }) => (nonce, subnets),\n        _ => return None,\n    };\n    // Defensive: only honor subnets we actually offered.\n    if shared.is_empty() || shared.iter().any(|s| !by_name.contains_key(s.as_str())) {\n        let _ = send.finish();\n        return None;\n    }\n\n    let gens = build_gens(&shared, by_name, dialer_pub, acceptor_pub, nonce_d, nonce_a)?;\n\n    // Send all our (dialer-role) proof sets first — current + prior generation\n    // per subnet (Mesh-D7), so a peer one epoch ahead or behind can still match.\n    // They buffer while the acceptor reads, so the ping-pong never deadlocks.\n    for g in &gens {\n        write_frame(send, &SeedProofFrame::ProofSet { proofs: g.outbound(ProofRole::Dialer) }.encode())\n            .await?;\n    }\n    // Then read the acceptor's proof sets (no early abort — grade after the full\n    // read so the legs below stay symmetric with the acceptor; tombstone grading\n    // is one-sided, so an aborting verify would desync the stream).\n    let mut peer_sets = Vec::with_capacity(gens.len());\n    for _ in &gens {\n        match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n            Some(SeedProofFrame::ProofSet { proofs }) => peer_sets.push(proofs),\n            _ => return None,\n        }\n    }\n    let graded = grade_all(&gens, &peer_sets, ProofRole::Acceptor, remote_hex, roster);\n\n    // The legs run over the SHARED set (symmetric on both sides), with\n    // grade-filtered content — never gated on the asymmetric full/reseed split.\n    // Mesh-D4 roster leg (REQ-MESH-2): dialer sends first, then reads.\n    exchange_roster_dialer(send, recv, roster, self_addr, &graded.full).await;\n    // Mesh-D7 re-seed grace leg (REQ-MESH-4): push our current seed for subnets\n    // where the peer proved only the prior generation; adopt any pushed to us.\n    exchange_seed_dialer(send, recv, roster, &graded.reseed, by_name).await;\n    let _ = send.finish();\n    finalize(graded)\n}\n\n/// The connection's verdict from the graded outcome. A purely-denied exchange\n/// (nothing full, nothing re-seeded) drops the conn (`None`). A re-seed-only\n/// exchange registers with an EMPTY proven set: the conn is kept alive only so\n/// the seed push it just carried is actually delivered (dropping it here races\n/// the QUIC CLOSE against the peer's read) — it serves no subnet and is replaced\n/// when the healed peer reconnects full. Otherwise the proven (full) set joins.\n// [impl->REQ-MESH-4]\nfn finalize(graded: Graded) -> Option<HashSet<String>> {\n    if graded.full.is_empty() && graded.reseed.is_empty() {\n        None\n    } else {\n        Some(graded.full)\n    }\n}\n\n#[allow(clippy::too_many_arguments)]\nasync fn prove_as_acceptor(\n    send: &mut SendStream,\n    recv: &mut RecvStream,\n    by_name: &HashMap<&str, &SubnetCred>,\n    dialer_pub: PublicKey,\n    acceptor_pub: PublicKey,\n    remote_hex: &str,\n    roster: Option<&RosterExchange>,\n    self_addr: &serde_json::Value,\n) -> Option<HashSet<String>> {\n    let (nonce_d, dialer_names) = match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n        Some(SeedProofFrame::Hello { nonce, subnets }) => (nonce, subnets),\n        _ => return None,\n    };\n    // Intersection in a deterministic (sorted) order both sides walk identically.\n    let mut shared: Vec<String> = dialer_names\n        .into_iter()\n        .filter(|s| by_name.contains_key(s.as_str()))\n        .collect();\n    shared.sort();\n    shared.dedup();\n\n    let nonce_a = fresh_nonce();\n    write_frame(\n        send,\n        &SeedProofFrame::Hello { nonce: nonce_a, subnets: shared.clone() }.encode(),\n    )\n    .await?;\n    if shared.is_empty() {\n        let _ = send.finish();\n        return None; // no shared subnet — nothing to mesh, drop\n    }\n\n    let gens = build_gens(&shared, by_name, dialer_pub, acceptor_pub, nonce_d, nonce_a)?;\n\n    // Read the dialer's proof sets first, then send ours (mirror of the dialer's\n    // send-then-read, so the ping-pong stays deadlock-free).\n    let mut peer_sets = Vec::with_capacity(gens.len());\n    for _ in &gens {\n        match read_frame(recv, MAX_FRAME).await.and_then(|b| SeedProofFrame::decode(&b)) {\n            Some(SeedProofFrame::ProofSet { proofs }) => peer_sets.push(proofs),\n            _ => return None,\n        }\n    }\n    for g in &gens {\n        write_frame(send, &SeedProofFrame::ProofSet { proofs: g.outbound(ProofRole::Acceptor) }.encode())\n            .await?;\n    }\n    let graded = grade_all(&gens, &peer_sets, ProofRole::Dialer, remote_hex, roster);\n\n    // Mirror of the dialer: read-then-send on each leg (over the shared set).\n    exchange_roster_acceptor(send, recv, roster, self_addr, &graded.full).await;\n    exchange_seed_acceptor(send, recv, roster, &graded.reseed, by_name).await;\n    let _ = send.finish();\n    finalize(graded)\n}\n\n/// Write a length-delimited frame (`u32` BE length prefix + body).\nasync fn write_frame(send: &mut SendStream, body: &[u8]) -> Option<()> {\n…\n}","startLine":192,"lineNumbers":[192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,221,222,223,224,225,226,227,228,229,230,231,232,233,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,null,396,397,398,399,400,401,402,403,404,405,406,407,408,409,410,411,412,413,414,415,416,417,418,419,420,421,422,423,424,425,426,427,428,429,430,431,432,433,434,435,436,437,438,439,440,441,442,443,444,445,446,447,448,449,450,451,452,453,454,455,456,457,458,459,460,461,462,463,464,465,466,467,468,469,470,471,472,473,474,475,476,477,478,479,480,481,482,483,484,485,486,487,488,489,490,491,492,493,494,495,496,497,498,499,500,501,502,503,504,505,506,507,508,509,510,511,512,513,514,515,516,517,518,519,520,521,522,523,524,525,526,527,528,529,530,null,534]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\seedproofx.rs"}}},"isError":false,"timestamp":1784069230613}}
{"type":"message","id":"d28943c9","parentId":"8899429f","timestamp":"2026-07-14T22:47:10.617Z","message":{"role":"toolResult","toolCallId":"call_YEhpngmJaZkzehA95VXBERuJ|fc_0b084cf0b521ab15016a56bc6e30b881909d114558fe63c20a","toolName":"read","content":[{"type":"text","text":"/// interim `spt_live` guard. Surfaced here so the one config source owns it.\npub const DEFAULT_PROTECTION_WINDOW_MS: u64 = 2_000;\n\n/// Default orphan-watch grace window (B7): how long the supervised-crash teardown\n/// waits after observing a hosted Self's harness owner gone before it rechecks\n/// liveness and signs off (KNOWN-HAZARDS 1.1). Sized to cover a transient recovery\n/// — a binary handoff relaunch or a brief stale poll — without delaying a real\n/// teardown for long. Configurable per machine via `crash_grace_ms`.\npub const DEFAULT_CRASH_GRACE: Duration = Duration::from_secs(2);\n\n/// Default peer-pump cadences (D9-1): how often the daemon pushes its\n/// registry/notif feeds to trusted peers and pulls context syncs from them.\n/// Conservative defaults — every loop is a thin call over an idempotent\n/// driver, so a missed tick costs only latency, never correctness.\npub const DEFAULT_REGISTRY_PUMP_PERIOD: Duration = Duration::from_secs(30);\npub const DEFAULT_NOTIF_PUMP_PERIOD: Duration = Duration::from_secs(15);\npub const DEFAULT_SYNC_PULL_PERIOD: Duration = Duration::from_secs(60);\npub const DEFAULT_UPDATE_CHECK_PERIOD: Duration = Duration::from_secs(3_600);\n\n/// Default silent-peer registry eviction window (KNOWN-HAZARDS 4.10): rows\n/// authored by a node not heard within this window are evicted on the next\n/// registry pump tick. Sized to ~10 default pump cadences — generous against\n/// transient drops (a peer re-advertises every cadence, so one admitted feed\n/// inside the window keeps its rows), short enough that a dead node identity\n/// stops poisoning bare-id resolution within minutes.\npub const DEFAULT_REGISTRY_EVICT_AFTER: Duration = Duration::from_secs(300);\n…\npub struct DaemonConfig {\n…\n    /// Context sync pull cadence — the anti-entropy loop (D9-1).\n    pub sync_pull_period: Duration,\n    /// Update check cadence (D9-1; the pull rides the same trusted conns).\n    pub update_check_period: Duration,\n    /// The NODE leg of the auto-suspend knob chain (D9-2, REQ-INST-3):\n    /// dormant → suspended after this many ms counted from dormancy onset.\n    /// **`None` = the global default, OFF** — auto-suspend is opt-in\n    /// (CONTEXT §dormant/suspended); a constrained node sets it here, and a\n    /// per-endpoint `info.json` override wins over this value\n    /// ([`crate::resting::effective_auto_suspend`]).\n    pub auto_suspend_after_ms: Option<u64>,\n    /// The node-level resource-advertisement seed (D9-4, REQ-INST-14): the\n    /// default blurb advertised for an endpoint that has not authored its\n    /// own (`info.json` `resources` wins when present — config seeds, the\n    /// agent refines; CONTEXT §resource advertisement). `None` = endpoints\n    /// without their own blurb advertise none.\n    pub resources_blurb: Option<String>,\n    /// Subnets whose serve-state STARTS detached (M8 decision 6,\n    /// REQ-SUBNET-5): the daemon's boot reset seeds the live\n    /// `attachment.json` from this list — `spt subnet detach/attach --save`\n    /// writes it. Default empty = every held subnet starts attached.\n    pub detached_subnets: Vec<String>,\n    /// The worker-reap TTL floor (seconds since a worker's `started`), W-3\n    /// (REQ-WORKER-REAP): the reconcile GC reaps any worker older than this even\n    /// under a live parent with a stale `ready` marker (the `SubagentStop`-never-fired\n    /// leak class). Default [`spt_store::worker_reap::DEFAULT_REAP_TTL_SECS`] (24h),\n    /// clamped at the reap site to a ≥1h floor (a fat-fingered tiny value can never\n    /// mass-kill in-flight workers); `0` disables the TTL leg.\n    pub worker_reap_ttl_secs: u64,\n    /// Endpoints replayed as startup defaults at daemon start (F-038 W5,\n    /// REQ-ENDPOINT-AUTOSTART) — `spt endpoint run --save` writes this list.\n    /// Default empty = nothing auto-starts. A replay failure logs loud and\n    /// never blocks daemon start or the other replays.\n    pub startup_endpoints: Vec<StartupEndpoint>,\n}\n\nimpl Default for DaemonConfig {\n    fn default() -> Self {\n        DaemonConfig {\n            pulse_period: DEFAULT_PULSE_PERIOD,\n            protection_window_ms: DEFAULT_PROTECTION_WINDOW_MS,\n            crash_grace: DEFAULT_CRASH_GRACE,\n            full_auto_update: false, // gated by default (REQ-UPD-4)\n            relay: RelayChoice::N0,  // zero-config default (ADR-0002)\n            peer_pump: true,         // the subnet self-drives (D9-1)\n            registry_pump_period: DEFAULT_REGISTRY_PUMP_PERIOD,\n            registry_evict_after: DEFAULT_REGISTRY_EVICT_AFTER,\n            notif_pump_period: DEFAULT_NOTIF_PUMP_PERIOD,\n            sync_pull_period: DEFAULT_SYNC_PULL_PERIOD,\n            update_check_period: DEFAULT_UPDATE_CHECK_PERIOD,\n            auto_suspend_after_ms: None, // opt-in, default OFF (REQ-INST-3)\n            resources_blurb: None,       // endpoints author their own (REQ-INST-14)\n            detached_subnets: Vec::new(), // every held subnet starts attached (REQ-SUBNET-5)\n            worker_reap_ttl_secs: spt_store::worker_reap::DEFAULT_REAP_TTL_SECS, // 24h (W-3)\n            startup_endpoints: Vec::new(), // nothing auto-starts by default (REQ-ENDPOINT-AUTOSTART)\n        }\n    }\n}\n\nimpl DaemonConfig {\n    /// The canonical config path: `<spt_home>/daemon.json`.\n…\n    fn from_file(file: DaemonConfigFile) -> Self {\n…\n        DaemonConfig {\n…\n            registry_pump_period: file\n                .registry_pump_period_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.registry_pump_period),\n            registry_evict_after: file\n                .registry_evict_after_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.registry_evict_after),\n            notif_pump_period: file\n                .notif_pump_period_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.notif_pump_period),\n            sync_pull_period: file\n                .sync_pull_period_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.sync_pull_period),\n            update_check_period: file\n                .update_check_period_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.update_check_period),\n            auto_suspend_after_ms: file.auto_suspend_after_ms,\n            resources_blurb: file.resources_blurb,\n            detached_subnets: file.detached_subnets.unwrap_or_default(),\n            worker_reap_ttl_secs: file.worker_reap_ttl_secs.unwrap_or(d.worker_reap_ttl_secs),\n            startup_endpoints: file.startup_endpoints.unwrap_or_default(),\n        }\n    }\n…\n}"}],"details":{"displayContent":{"text":"/// interim `spt_live` guard. Surfaced here so the one config source owns it.\npub const DEFAULT_PROTECTION_WINDOW_MS: u64 = 2_000;\n\n/// Default orphan-watch grace window (B7): how long the supervised-crash teardown\n/// waits after observing a hosted Self's harness owner gone before it rechecks\n/// liveness and signs off (KNOWN-HAZARDS 1.1). Sized to cover a transient recovery\n/// — a binary handoff relaunch or a brief stale poll — without delaying a real\n/// teardown for long. Configurable per machine via `crash_grace_ms`.\npub const DEFAULT_CRASH_GRACE: Duration = Duration::from_secs(2);\n\n/// Default peer-pump cadences (D9-1): how often the daemon pushes its\n/// registry/notif feeds to trusted peers and pulls context syncs from them.\n/// Conservative defaults — every loop is a thin call over an idempotent\n/// driver, so a missed tick costs only latency, never correctness.\npub const DEFAULT_REGISTRY_PUMP_PERIOD: Duration = Duration::from_secs(30);\npub const DEFAULT_NOTIF_PUMP_PERIOD: Duration = Duration::from_secs(15);\npub const DEFAULT_SYNC_PULL_PERIOD: Duration = Duration::from_secs(60);\npub const DEFAULT_UPDATE_CHECK_PERIOD: Duration = Duration::from_secs(3_600);\n\n/// Default silent-peer registry eviction window (KNOWN-HAZARDS 4.10): rows\n/// authored by a node not heard within this window are evicted on the next\n/// registry pump tick. Sized to ~10 default pump cadences — generous against\n/// transient drops (a peer re-advertises every cadence, so one admitted feed\n/// inside the window keeps its rows), short enough that a dead node identity\n/// stops poisoning bare-id resolution within minutes.\npub const DEFAULT_REGISTRY_EVICT_AFTER: Duration = Duration::from_secs(300);\n…\npub struct DaemonConfig {\n…\n    /// Context sync pull cadence — the anti-entropy loop (D9-1).\n    pub sync_pull_period: Duration,\n    /// Update check cadence (D9-1; the pull rides the same trusted conns).\n    pub update_check_period: Duration,\n    /// The NODE leg of the auto-suspend knob chain (D9-2, REQ-INST-3):\n    /// dormant → suspended after this many ms counted from dormancy onset.\n    /// **`None` = the global default, OFF** — auto-suspend is opt-in\n    /// (CONTEXT §dormant/suspended); a constrained node sets it here, and a\n    /// per-endpoint `info.json` override wins over this value\n    /// ([`crate::resting::effective_auto_suspend`]).\n    pub auto_suspend_after_ms: Option<u64>,\n    /// The node-level resource-advertisement seed (D9-4, REQ-INST-14): the\n    /// default blurb advertised for an endpoint that has not authored its\n    /// own (`info.json` `resources` wins when present — config seeds, the\n    /// agent refines; CONTEXT §resource advertisement). `None` = endpoints\n    /// without their own blurb advertise none.\n    pub resources_blurb: Option<String>,\n    /// Subnets whose serve-state STARTS detached (M8 decision 6,\n    /// REQ-SUBNET-5): the daemon's boot reset seeds the live\n    /// `attachment.json` from this list — `spt subnet detach/attach --save`\n    /// writes it. Default empty = every held subnet starts attached.\n    pub detached_subnets: Vec<String>,\n    /// The worker-reap TTL floor (seconds since a worker's `started`), W-3\n    /// (REQ-WORKER-REAP): the reconcile GC reaps any worker older than this even\n    /// under a live parent with a stale `ready` marker (the `SubagentStop`-never-fired\n    /// leak class). Default [`spt_store::worker_reap::DEFAULT_REAP_TTL_SECS`] (24h),\n    /// clamped at the reap site to a ≥1h floor (a fat-fingered tiny value can never\n    /// mass-kill in-flight workers); `0` disables the TTL leg.\n    pub worker_reap_ttl_secs: u64,\n    /// Endpoints replayed as startup defaults at daemon start (F-038 W5,\n    /// REQ-ENDPOINT-AUTOSTART) — `spt endpoint run --save` writes this list.\n    /// Default empty = nothing auto-starts. A replay failure logs loud and\n    /// never blocks daemon start or the other replays.\n    pub startup_endpoints: Vec<StartupEndpoint>,\n}\n\nimpl Default for DaemonConfig {\n    fn default() -> Self {\n        DaemonConfig {\n            pulse_period: DEFAULT_PULSE_PERIOD,\n            protection_window_ms: DEFAULT_PROTECTION_WINDOW_MS,\n            crash_grace: DEFAULT_CRASH_GRACE,\n            full_auto_update: false, // gated by default (REQ-UPD-4)\n            relay: RelayChoice::N0,  // zero-config default (ADR-0002)\n            peer_pump: true,         // the subnet self-drives (D9-1)\n            registry_pump_period: DEFAULT_REGISTRY_PUMP_PERIOD,\n            registry_evict_after: DEFAULT_REGISTRY_EVICT_AFTER,\n            notif_pump_period: DEFAULT_NOTIF_PUMP_PERIOD,\n            sync_pull_period: DEFAULT_SYNC_PULL_PERIOD,\n            update_check_period: DEFAULT_UPDATE_CHECK_PERIOD,\n            auto_suspend_after_ms: None, // opt-in, default OFF (REQ-INST-3)\n            resources_blurb: None,       // endpoints author their own (REQ-INST-14)\n            detached_subnets: Vec::new(), // every held subnet starts attached (REQ-SUBNET-5)\n            worker_reap_ttl_secs: spt_store::worker_reap::DEFAULT_REAP_TTL_SECS, // 24h (W-3)\n            startup_endpoints: Vec::new(), // nothing auto-starts by default (REQ-ENDPOINT-AUTOSTART)\n        }\n    }\n}\n\nimpl DaemonConfig {\n    /// The canonical config path: `<spt_home>/daemon.json`.\n…\n    fn from_file(file: DaemonConfigFile) -> Self {\n…\n        DaemonConfig {\n…\n            registry_pump_period: file\n                .registry_pump_period_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.registry_pump_period),\n            registry_evict_after: file\n                .registry_evict_after_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.registry_evict_after),\n            notif_pump_period: file\n                .notif_pump_period_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.notif_pump_period),\n            sync_pull_period: file\n                .sync_pull_period_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.sync_pull_period),\n            update_check_period: file\n                .update_check_period_ms\n                .map(Duration::from_millis)\n                .unwrap_or(d.update_check_period),\n            auto_suspend_after_ms: file.auto_suspend_after_ms,\n            resources_blurb: file.resources_blurb,\n            detached_subnets: file.detached_subnets.unwrap_or_default(),\n            worker_reap_ttl_secs: file.worker_reap_ttl_secs.unwrap_or(d.worker_reap_ttl_secs),\n            startup_endpoints: file.startup_endpoints.unwrap_or_default(),\n        }\n    }\n…\n}","startLine":25,"lineNumbers":[25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,null,130,null,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188,189,190,191,192,193,194,195,196,197,198,199,200,201,202,203,204,205,206,207,208,209,210,211,212,213,214,215,216,217,218,219,220,null,245,null,247,null,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,null,343]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\config.rs"}}},"isError":false,"timestamp":1784069230617}}
{"type":"message","id":"64881256","parentId":"d28943c9","timestamp":"2026-07-14T22:47:10.623Z","message":{"role":"toolResult","toolCallId":"call_QpahTvOquke49veVlw3d0bOf|fc_0b084cf0b521ab15016a56bc6e30408190a1bae3c8f4230fca","toolName":"read","content":[{"type":"text","text":"    pub fn set_override(&mut self, endpoint: &str, subnet: &str, hidden: Option<bool>) {\n        match hidden {\n            Some(h) => {\n…\n            }\n            None => {\n                if let Some(m) = self.overrides.get_mut(endpoint) {\n                    m.remove(subnet);\n                    if m.is_empty() {\n                        self.overrides.remove(endpoint);\n                    }\n                }\n            }\n        }\n    }\n\n    /// Whether the endpoint is **hidden (= excluded)** in the named subnet, per the\n    /// ADR-0006 §6 policy: an explicit per-`(endpoint, subnet)` override wins in both\n    /// directions; otherwise `subnet_hide_new` (the subnet's `hide_new_endpoints`,\n    /// captured at join time — [`SubnetRecord::hide_new_endpoints`]\n    /// (crate::subnet::SubnetRecord::hide_new_endpoints)) **OR** the endpoint's\n    /// [`default_hide`](Self::default_hide). Hidden means *not advertised and not\n    /// routable* — the registry's advertise/resolve enforcement consumes this.\n    // [impl->REQ-INST-12]\n    pub fn hidden(&self, endpoint: &str, subnet: &str, subnet_hide_new: bool) -> bool {\n        match self.override_for(endpoint, subnet) {\n            Some(explicit) => explicit,\n            None => subnet_hide_new || self.default_hide(endpoint),\n        }\n    }\n\n    /// The endpoint's sync-membership list (`None` = not configured = sync nowhere).\n    pub fn sync_subnets(&self, endpoint: &str) -> Option<&[String]> {\n        self.sync_subnets.get(endpoint).map(Vec::as_slice)\n    }\n\n    /// Set the endpoint's sync-membership list (the creation flow seeds `[home]`).\n    pub fn set_sync_subnets(&mut self, endpoint: &str, subnets: Vec<String>) {\n        self.sync_subnets.insert(endpoint.to_string(), subnets);\n    }\n\n[Showing lines 129-163 of 297. Use :164 to continue]"}],"details":{"truncation":{"content":"            }\r\n            None => {\r\n                if let Some(m) = self.overrides.get_mut(endpoint) {\r\n                    m.remove(subnet);\r\n                    if m.is_empty() {\r\n                        self.overrides.remove(endpoint);\r\n                    }\r\n                }\r\n            }\r\n        }\r\n    }\r\n\r\n    /// Whether the endpoint is **hidden (= excluded)** in the named subnet, per the\r\n    /// ADR-0006 §6 policy: an explicit per-`(endpoint, subnet)` override wins in both\r\n    /// directions; otherwise `subnet_hide_new` (the subnet's `hide_new_endpoints`,\r\n    /// captured at join time — [`SubnetRecord::hide_new_endpoints`]\r\n    /// (crate::subnet::SubnetRecord::hide_new_endpoints)) **OR** the endpoint's\r\n    /// [`default_hide`](Self::default_hide). Hidden means *not advertised and not\r\n    /// routable* — the registry's advertise/resolve enforcement consumes this.\r\n    // [impl->REQ-INST-12]\r\n    pub fn hidden(&self, endpoint: &str, subnet: &str, subnet_hide_new: bool) -> bool {\r\n        match self.override_for(endpoint, subnet) {\r\n            Some(explicit) => explicit,\r\n            None => subnet_hide_new || self.default_hide(endpoint),\r\n        }\r\n    }\r\n\r\n    /// The endpoint's sync-membership list (`None` = not configured = sync nowhere).\r\n    pub fn sync_subnets(&self, endpoint: &str) -> Option<&[String]> {\r\n        self.sync_subnets.get(endpoint).map(Vec::as_slice)\r\n    }\r\n\r\n    /// Set the endpoint's sync-membership list (the creation flow seeds `[home]`).\r\n    pub fn set_sync_subnets(&mut self, endpoint: &str, subnets: Vec<String>) {\r\n        self.sync_subnets.insert(endpoint.to_string(), subnets);\r","truncated":true,"truncatedBy":"lines","totalLines":169,"totalBytes":1658,"outputLines":35,"outputBytes":1658,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"    pub fn set_override(&mut self, endpoint: &str, subnet: &str, hidden: Option<bool>) {\n        match hidden {\n            Some(h) => {\n…\n            }\r\n            None => {\r\n                if let Some(m) = self.overrides.get_mut(endpoint) {\r\n                    m.remove(subnet);\r\n                    if m.is_empty() {\r\n                        self.overrides.remove(endpoint);\r\n                    }\r\n                }\r\n            }\r\n        }\r\n    }\r\n\r\n    /// Whether the endpoint is **hidden (= excluded)** in the named subnet, per the\r\n    /// ADR-0006 §6 policy: an explicit per-`(endpoint, subnet)` override wins in both\r\n    /// directions; otherwise `subnet_hide_new` (the subnet's `hide_new_endpoints`,\r\n    /// captured at join time — [`SubnetRecord::hide_new_endpoints`]\r\n    /// (crate::subnet::SubnetRecord::hide_new_endpoints)) **OR** the endpoint's\r\n    /// [`default_hide`](Self::default_hide). Hidden means *not advertised and not\r\n    /// routable* — the registry's advertise/resolve enforcement consumes this.\r\n    // [impl->REQ-INST-12]\r\n    pub fn hidden(&self, endpoint: &str, subnet: &str, subnet_hide_new: bool) -> bool {\r\n        match self.override_for(endpoint, subnet) {\r\n            Some(explicit) => explicit,\r\n            None => subnet_hide_new || self.default_hide(endpoint),\r\n        }\r\n    }\r\n\r\n    /// The endpoint's sync-membership list (`None` = not configured = sync nowhere).\r\n    pub fn sync_subnets(&self, endpoint: &str) -> Option<&[String]> {\r\n        self.sync_subnets.get(endpoint).map(Vec::as_slice)\r\n    }\r\n\r\n    /// Set the endpoint's sync-membership list (the creation flow seeds `[home]`).\r\n    pub fn set_sync_subnets(&mut self, endpoint: &str, subnets: Vec<String>) {\r\n        self.sync_subnets.insert(endpoint.to_string(), subnets);\r\n    }","startLine":122,"lineNumbers":[122,123,124,null,129,130,131,132,133,134,135,136,137,138,139,140,141,142,143,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-store\\src\\visibility.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":297,"totalBytes":1658,"outputLines":35,"outputBytes":1658,"shownRange":{"start":129,"end":163},"nextOffset":164}}},"isError":false,"timestamp":1784069230623}}
{"type":"message","id":"905f39c0","parentId":"64881256","timestamp":"2026-07-14T22:47:10.623Z","message":{"role":"toolResult","toolCallId":"call_Wn4gPJkBRU5s2a39qHiePmrZ|fc_0b084cf0b521ab15016a56bc6e31988190ad6793de5da03676","toolName":"read","content":[{"type":"text","text":"//! Durable last-known peer addresses (M8 decisions 14/20, REQ-CONV-1).\n//!\n//! `identity/peer-addrs.json` maps a trusted peer's stable name\n//! (lowercase-hex pubkey) to its **last-known dialable address** — an opaque,\n//! serde-serialized iroh `EndpointAddr` (this crate never grows an iroh\n//! dependency edge; the value's shape belongs to the net layer, same posture\n//! as the broker IPC's `net-dial` payload).\n//!\n//! Why it exists: production peer resolution is id-only discovery (mDNS on\n//! the LAN, n0 DNS on the WAN) — both cold starts pay it in full (~1 min\n//! observed). Two writers keep this file warm: the pairing ceremony (both\n//! sides, from the live ceremony connection) and the peer pump on every\n//! successful connect. The pump's resolver consults it FIRST and falls back\n//! to id-only discovery on a miss **or a dial failure** — a stale address\n//! can cost one failed dial, never strand a peer.\n//!\n//! Absent/corrupt degrades to empty (seeding is an optimization; the id-only\n//! path is always behind it).\n// [impl->REQ-CONV-1]\n\nuse std::collections::BTreeMap;\nuse std::path::{Path, PathBuf};\n\nuse serde::{Deserialize, Serialize};\n\nuse crate::atomic::atomic_write_string;\n\n/// The canonical path: `<spt_home>/identity/peer-addrs.json` (sibling of\n/// `pump-ops.json` — M8 decision 20).\npub fn peer_addrs_file() -> PathBuf {\n    crate::perch::spt_home()\n        .join(\"identity\")\n        .join(\"peer-addrs.json\")\n}\n\n/// The on-disk + in-memory shape: peer pubkey-hex → last-known address.\n#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\npub struct PeerAddrStore {\n    /// Last-known dialable address per peer (opaque `EndpointAddr` JSON).\n    #[serde(default)]\n    pub addrs: BTreeMap<String, serde_json::Value>,\n}\n\nimpl PeerAddrStore {\n    /// Load from the canonical [`peer_addrs_file`]. Absent ⇒ empty.\n    pub fn load() -> PeerAddrStore {\n        Self::load_from(&peer_addrs_file())\n    }\n\n    /// Load from an explicit path. Absent/corrupt degrades to empty — a\n    /// broken seed file must never break peer resolution (the id-only\n    /// discovery path is always behind it).\n    pub fn load_from(path: &Path) -> PeerAddrStore {\n        match std::fs::read_to_string(path) {\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n            Err(_) => PeerAddrStore::default(),\n        }\n    }\n\n    /// Persist to the canonical path.\n    pub fn save(&self) -> std::io::Result<()> {\n        self.save_to(&peer_addrs_file())\n    }\n\n    /// Persist to an explicit path (atomic; creates the parent dir).\n    pub fn save_to(&self, path: &Path) -> std::io::Result<()> {\n        if let Some(parent) = path.parent() {\n            std::fs::create_dir_all(parent)?;\n        }\n        let json =\n            serde_json::to_string_pretty(self).map_err(|e| std::io::Error::other(e.to_string()))?;\n        atomic_write_string(path, &json)\n    }\n\n    /// The last-known address for a peer, if one was ever recorded.\n    pub fn get(&self, peer_hex: &str) -> Option<&serde_json::Value> {\n        self.addrs.get(peer_hex)\n    }\n\n    /// Record a peer's freshly-observed address. Returns `true` when the\n    /// stored value changed (callers skip the disk write on a no-op).\n    pub fn put(&mut self, peer_hex: &str, addr: serde_json::Value) -> bool {\n        match self.addrs.get(peer_hex) {\n            Some(prev) if *prev == addr => false,\n            _ => {\n                self.addrs.insert(peer_hex.to_string(), addr);\n                true\n            }\n        }\n    }\n\n    /// Drop a peer's stored address. Returns `true` when a value was removed\n    /// (callers skip the disk write on a no-op). The stale-seed self-heal\n    /// (REQ-CONV-1, PUMP-TRUTH W2): when a non-blocking submit-dial to the seeded\n    /// address FAILS, the pump forgets the stale seed so the next round\n    /// re-resolves via id-only discovery — a stale addr never strands a peer.\n    // [impl->REQ-CONV-1]\n    pub fn forget(&mut self, peer_hex: &str) -> bool {\n        self.addrs.remove(peer_hex).is_some()\n    }\n\n    /// Load → put → save against `path` in one step — the shared writer the\n    /// ceremony legs and the pump use (each write re-reads, so concurrent\n    /// writers lose at most their own update, never tear the file).\n    pub fn record(path: &Path, peer_hex: &str, addr: serde_json::Value) -> std::io::Result<()> {\n        let mut store = Self::load_from(path);\n        if store.put(peer_hex, addr) {\n            store.save_to(path)?;\n        }\n        Ok(())\n    }\n\n    /// Load → forget → save against `path` in one step (the stale-seed drop\n    /// sibling of [`Self::record`]).\n    // [impl->REQ-CONV-1]\n    pub fn drop_seed(path: &Path, peer_hex: &str) -> std::io::Result<()> {\n        let mut store = Self::load_from(path);\n        if store.forget(peer_hex) {\n            store.save_to(path)?;\n        }\n        Ok(())\n    }\n}\n\n[Showing lines 1-123 of 181. Use :124 to continue]"}],"details":{"truncation":{"content":"//! Durable last-known peer addresses (M8 decisions 14/20, REQ-CONV-1).\r\n//!\r\n//! `identity/peer-addrs.json` maps a trusted peer's stable name\r\n//! (lowercase-hex pubkey) to its **last-known dialable address** — an opaque,\r\n//! serde-serialized iroh `EndpointAddr` (this crate never grows an iroh\r\n//! dependency edge; the value's shape belongs to the net layer, same posture\r\n//! as the broker IPC's `net-dial` payload).\r\n//!\r\n//! Why it exists: production peer resolution is id-only discovery (mDNS on\r\n//! the LAN, n0 DNS on the WAN) — both cold starts pay it in full (~1 min\r\n//! observed). Two writers keep this file warm: the pairing ceremony (both\r\n//! sides, from the live ceremony connection) and the peer pump on every\r\n//! successful connect. The pump's resolver consults it FIRST and falls back\r\n//! to id-only discovery on a miss **or a dial failure** — a stale address\r\n//! can cost one failed dial, never strand a peer.\r\n//!\r\n//! Absent/corrupt degrades to empty (seeding is an optimization; the id-only\r\n//! path is always behind it).\r\n// [impl->REQ-CONV-1]\r\n\r\nuse std::collections::BTreeMap;\r\nuse std::path::{Path, PathBuf};\r\n\r\nuse serde::{Deserialize, Serialize};\r\n\r\nuse crate::atomic::atomic_write_string;\r\n\r\n/// The canonical path: `<spt_home>/identity/peer-addrs.json` (sibling of\r\n/// `pump-ops.json` — M8 decision 20).\r\npub fn peer_addrs_file() -> PathBuf {\r\n    crate::perch::spt_home()\r\n        .join(\"identity\")\r\n        .join(\"peer-addrs.json\")\r\n}\r\n\r\n/// The on-disk + in-memory shape: peer pubkey-hex → last-known address.\r\n#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\r\npub struct PeerAddrStore {\r\n    /// Last-known dialable address per peer (opaque `EndpointAddr` JSON).\r\n    #[serde(default)]\r\n    pub addrs: BTreeMap<String, serde_json::Value>,\r\n}\r\n\r\nimpl PeerAddrStore {\r\n    /// Load from the canonical [`peer_addrs_file`]. Absent ⇒ empty.\r\n    pub fn load() -> PeerAddrStore {\r\n        Self::load_from(&peer_addrs_file())\r\n    }\r\n\r\n    /// Load from an explicit path. Absent/corrupt degrades to empty — a\r\n    /// broken seed file must never break peer resolution (the id-only\r\n    /// discovery path is always behind it).\r\n    pub fn load_from(path: &Path) -> PeerAddrStore {\r\n        match std::fs::read_to_string(path) {\r\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\r\n            Err(_) => PeerAddrStore::default(),\r\n        }\r\n    }\r\n\r\n    /// Persist to the canonical path.\r\n    pub fn save(&self) -> std::io::Result<()> {\r\n        self.save_to(&peer_addrs_file())\r\n    }\r\n\r\n    /// Persist to an explicit path (atomic; creates the parent dir).\r\n    pub fn save_to(&self, path: &Path) -> std::io::Result<()> {\r\n        if let Some(parent) = path.parent() {\r\n            std::fs::create_dir_all(parent)?;\r\n        }\r\n        let json =\r\n            serde_json::to_string_pretty(self).map_err(|e| std::io::Error::other(e.to_string()))?;\r\n        atomic_write_string(path, &json)\r\n    }\r\n\r\n    /// The last-known address for a peer, if one was ever recorded.\r\n    pub fn get(&self, peer_hex: &str) -> Option<&serde_json::Value> {\r\n        self.addrs.get(peer_hex)\r\n    }\r\n\r\n    /// Record a peer's freshly-observed address. Returns `true` when the\r\n    /// stored value changed (callers skip the disk write on a no-op).\r\n    pub fn put(&mut self, peer_hex: &str, addr: serde_json::Value) -> bool {\r\n        match self.addrs.get(peer_hex) {\r\n            Some(prev) if *prev == addr => false,\r\n            _ => {\r\n                self.addrs.insert(peer_hex.to_string(), addr);\r\n                true\r\n            }\r\n        }\r\n    }\r\n\r\n    /// Drop a peer's stored address. Returns `true` when a value was removed\r\n    /// (callers skip the disk write on a no-op). The stale-seed self-heal\r\n    /// (REQ-CONV-1, PUMP-TRUTH W2): when a non-blocking submit-dial to the seeded\r\n    /// address FAILS, the pump forgets the stale seed so the next round\r\n    /// re-resolves via id-only discovery — a stale addr never strands a peer.\r\n    // [impl->REQ-CONV-1]\r\n    pub fn forget(&mut self, peer_hex: &str) -> bool {\r\n        self.addrs.remove(peer_hex).is_some()\r\n    }\r\n\r\n    /// Load → put → save against `path` in one step — the shared writer the\r\n    /// ceremony legs and the pump use (each write re-reads, so concurrent\r\n    /// writers lose at most their own update, never tear the file).\r\n    pub fn record(path: &Path, peer_hex: &str, addr: serde_json::Value) -> std::io::Result<()> {\r\n        let mut store = Self::load_from(path);\r\n        if store.put(peer_hex, addr) {\r\n            store.save_to(path)?;\r\n        }\r\n        Ok(())\r\n    }\r\n\r\n    /// Load → forget → save against `path` in one step (the stale-seed drop\r\n    /// sibling of [`Self::record`]).\r\n    // [impl->REQ-CONV-1]\r\n    pub fn drop_seed(path: &Path, peer_hex: &str) -> std::io::Result<()> {\r\n        let mut store = Self::load_from(path);\r\n        if store.forget(peer_hex) {\r\n            store.save_to(path)?;\r\n        }\r\n        Ok(())\r\n    }\r\n}\r","truncated":true,"truncatedBy":"lines","totalLines":181,"totalBytes":5034,"outputLines":123,"outputBytes":5034,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"//! Durable last-known peer addresses (M8 decisions 14/20, REQ-CONV-1).\r\n//!\r\n//! `identity/peer-addrs.json` maps a trusted peer's stable name\r\n//! (lowercase-hex pubkey) to its **last-known dialable address** — an opaque,\r\n//! serde-serialized iroh `EndpointAddr` (this crate never grows an iroh\r\n//! dependency edge; the value's shape belongs to the net layer, same posture\r\n//! as the broker IPC's `net-dial` payload).\r\n//!\r\n//! Why it exists: production peer resolution is id-only discovery (mDNS on\r\n//! the LAN, n0 DNS on the WAN) — both cold starts pay it in full (~1 min\r\n//! observed). Two writers keep this file warm: the pairing ceremony (both\r\n//! sides, from the live ceremony connection) and the peer pump on every\r\n//! successful connect. The pump's resolver consults it FIRST and falls back\r\n//! to id-only discovery on a miss **or a dial failure** — a stale address\r\n//! can cost one failed dial, never strand a peer.\r\n//!\r\n//! Absent/corrupt degrades to empty (seeding is an optimization; the id-only\r\n//! path is always behind it).\r\n// [impl->REQ-CONV-1]\r\n\r\nuse std::collections::BTreeMap;\r\nuse std::path::{Path, PathBuf};\r\n\r\nuse serde::{Deserialize, Serialize};\r\n\r\nuse crate::atomic::atomic_write_string;\r\n\r\n/// The canonical path: `<spt_home>/identity/peer-addrs.json` (sibling of\r\n/// `pump-ops.json` — M8 decision 20).\r\npub fn peer_addrs_file() -> PathBuf {\r\n    crate::perch::spt_home()\r\n        .join(\"identity\")\r\n        .join(\"peer-addrs.json\")\r\n}\r\n\r\n/// The on-disk + in-memory shape: peer pubkey-hex → last-known address.\r\n#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\r\npub struct PeerAddrStore {\r\n    /// Last-known dialable address per peer (opaque `EndpointAddr` JSON).\r\n    #[serde(default)]\r\n    pub addrs: BTreeMap<String, serde_json::Value>,\r\n}\r\n\r\nimpl PeerAddrStore {\r\n    /// Load from the canonical [`peer_addrs_file`]. Absent ⇒ empty.\r\n    pub fn load() -> PeerAddrStore {\r\n        Self::load_from(&peer_addrs_file())\r\n    }\r\n\r\n    /// Load from an explicit path. Absent/corrupt degrades to empty — a\r\n    /// broken seed file must never break peer resolution (the id-only\r\n    /// discovery path is always behind it).\r\n    pub fn load_from(path: &Path) -> PeerAddrStore {\r\n        match std::fs::read_to_string(path) {\r\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\r\n            Err(_) => PeerAddrStore::default(),\r\n        }\r\n    }\r\n\r\n    /// Persist to the canonical path.\r\n    pub fn save(&self) -> std::io::Result<()> {\r\n        self.save_to(&peer_addrs_file())\r\n    }\r\n\r\n    /// Persist to an explicit path (atomic; creates the parent dir).\r\n    pub fn save_to(&self, path: &Path) -> std::io::Result<()> {\r\n        if let Some(parent) = path.parent() {\r\n            std::fs::create_dir_all(parent)?;\r\n        }\r\n        let json =\r\n            serde_json::to_string_pretty(self).map_err(|e| std::io::Error::other(e.to_string()))?;\r\n        atomic_write_string(path, &json)\r\n    }\r\n\r\n    /// The last-known address for a peer, if one was ever recorded.\r\n    pub fn get(&self, peer_hex: &str) -> Option<&serde_json::Value> {\r\n        self.addrs.get(peer_hex)\r\n    }\r\n\r\n    /// Record a peer's freshly-observed address. Returns `true` when the\r\n    /// stored value changed (callers skip the disk write on a no-op).\r\n    pub fn put(&mut self, peer_hex: &str, addr: serde_json::Value) -> bool {\r\n        match self.addrs.get(peer_hex) {\r\n            Some(prev) if *prev == addr => false,\r\n            _ => {\r\n                self.addrs.insert(peer_hex.to_string(), addr);\r\n                true\r\n            }\r\n        }\r\n    }\r\n\r\n    /// Drop a peer's stored address. Returns `true` when a value was removed\r\n    /// (callers skip the disk write on a no-op). The stale-seed self-heal\r\n    /// (REQ-CONV-1, PUMP-TRUTH W2): when a non-blocking submit-dial to the seeded\r\n    /// address FAILS, the pump forgets the stale seed so the next round\r\n    /// re-resolves via id-only discovery — a stale addr never strands a peer.\r\n    // [impl->REQ-CONV-1]\r\n    pub fn forget(&mut self, peer_hex: &str) -> bool {\r\n        self.addrs.remove(peer_hex).is_some()\r\n    }\r\n\r\n    /// Load → put → save against `path` in one step — the shared writer the\r\n    /// ceremony legs and the pump use (each write re-reads, so concurrent\r\n    /// writers lose at most their own update, never tear the file).\r\n    pub fn record(path: &Path, peer_hex: &str, addr: serde_json::Value) -> std::io::Result<()> {\r\n        let mut store = Self::load_from(path);\r\n        if store.put(peer_hex, addr) {\r\n            store.save_to(path)?;\r\n        }\r\n        Ok(())\r\n    }\r\n\r\n    /// Load → forget → save against `path` in one step (the stale-seed drop\r\n    /// sibling of [`Self::record`]).\r\n    // [impl->REQ-CONV-1]\r\n    pub fn drop_seed(path: &Path, peer_hex: &str) -> std::io::Result<()> {\r\n        let mut store = Self::load_from(path);\r\n        if store.forget(peer_hex) {\r\n            store.save_to(path)?;\r\n        }\r\n        Ok(())\r\n    }\r\n}\r","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-store\\src\\peeraddrs.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":181,"totalBytes":5034,"outputLines":123,"outputBytes":5034,"shownRange":{"start":1,"end":123},"nextOffset":124}}},"isError":false,"timestamp":1784069230623}}
{"type":"message","id":"126a3b48","parentId":"905f39c0","timestamp":"2026-07-14T22:47:10.634Z","message":{"role":"toolResult","toolCallId":"call_eTiXmTX7CO8B5DouNWg1NML3|fc_0b084cf0b521ab15016a56bc6e2fb081908723a25d4fc96494","toolName":"read","content":[{"type":"text","text":"fn next_backoff(prev: Duration, ran_for: Duration, base: Duration) -> Duration {\n    if ran_for >= SUPERVISE_HEALTHY_RUN {\n…\n    } else {\n        prev.saturating_mul(2).min(SUPERVISE_BACKOFF_CAP)\n    }\n}\n\n/// Supervise repeated runs of a pump body until `stop` is raised (M8\n/// decision 23, REQ-DAEMON-5): a panic is CAUGHT and logged loud\n/// (`PEER_PUMP_PANIC`), an error return logged (`PEER_PUMP_FAIL`), and the\n/// body restarts after a capped, doubling backoff — a 5.9-class pump death\n/// self-heals visibly instead of silently halving the daemon for 24 h.\n/// `base` is the backoff floor (production: [`SUPERVISE_BACKOFF_BASE`];\n/// the unit harness shrinks it). Backoff sleeps in [`TICK`] slices so a\n/// stop request lands promptly. Generic over the body for the unit\n/// harness; production binds [`run_peer_pump`].\n// [impl->REQ-DAEMON-5]\npub fn supervise_pump(stop: &AtomicBool, base: Duration, mut body: impl FnMut() -> io::Result<()>) {\n    let mut backoff = base;\n    while !stop.load(Ordering::Relaxed) {\n        let started = Instant::now();\n        let outcome = std::panic::catch_unwind(std::panic::AssertUnwindSafe(&mut body));\n        if stop.load(Ordering::Relaxed) {\n            return; // a clean stop — whatever the body returned\n        }\n        let ran_for = started.elapsed();\n        match outcome {\n            // The body only returns Ok when stop is raised; reaching here\n            // without it is a died-loop fact — same restart as an error.\n            Ok(Ok(())) => eprintln!(\"PEER_PUMP_EXIT: loop returned without stop — restarting\"),\n            Ok(Err(e)) => eprintln!(\"PEER_PUMP_FAIL: {e}\"),\n            Err(panic) => {\n                let msg = panic\n                    .downcast_ref::<&str>()\n                    .map(|s| s.to_string())\n                    .or_else(|| panic.downcast_ref::<String>().cloned())\n                    .unwrap_or_else(|| \"<non-string panic>\".to_string());\n                eprintln!(\"PEER_PUMP_PANIC: {msg}\");\n            }\n        }\n        backoff = next_backoff(backoff, ran_for, base);\n        eprintln!(\n            \"PEER_PUMP_RESTART: supervised restart in {}s\",\n            backoff.as_secs()\n        );\n        let mut slept = Duration::ZERO;\n        while slept < backoff && !stop.load(Ordering::Relaxed) {\n            thread::sleep(TICK.min(backoff - slept));\n            slept += TICK;\n        }\n    }\n}\n\n/// Spawn the pump on its own thread with the production wiring — the\n/// daemon-boot entry ([`crate::daemon::Daemon::run`]). The thread body is\n/// the SUPERVISOR ([`supervise_pump`]), not the bare loop: the pump\n/// restarts after a panic or error with capped backoff (M8 decision 23).\n// [impl->REQ-DAEMON-5]\npub fn spawn_peer_pump(\n    broker_name: String,\n    registry: Arc<RegistryHost>,\n    cfg: DaemonConfig,\n    stop: Arc<AtomicBool>,\n) -> thread::JoinHandle<()> {\n    thread::spawn(move || {\n        let paths = PumpPaths::production();\n        supervise_pump(&stop, SUPERVISE_BACKOFF_BASE, || {\n            run_peer_pump(\n                &broker_name,\n                Arc::clone(&registry),\n                &paths,\n                production_resolver(),\n                PumpConfig::from_config(&cfg),\n                PumpHooks::default(),\n                &stop,\n            )\n        });\n    })\n}\n\n#[cfg(test)]\nmod tests {\n    use super::*;\n\n    // The pump's cadence gate must prime on the first tick AND never compute\n    // an instant before now (the underflow panic that killed the peer pump on\n    // a sub-24h-uptime Windows host). `due` takes an Option and only ever runs\n…\n}\n\n[Showing lines 1034-1118 of 1717. Use :1119 to continue]"}],"details":{"truncation":{"content":"    } else {\r\n        prev.saturating_mul(2).min(SUPERVISE_BACKOFF_CAP)\r\n    }\r\n}\r\n\r\n/// Supervise repeated runs of a pump body until `stop` is raised (M8\r\n/// decision 23, REQ-DAEMON-5): a panic is CAUGHT and logged loud\r\n/// (`PEER_PUMP_PANIC`), an error return logged (`PEER_PUMP_FAIL`), and the\r\n/// body restarts after a capped, doubling backoff — a 5.9-class pump death\r\n/// self-heals visibly instead of silently halving the daemon for 24 h.\r\n/// `base` is the backoff floor (production: [`SUPERVISE_BACKOFF_BASE`];\r\n/// the unit harness shrinks it). Backoff sleeps in [`TICK`] slices so a\r\n/// stop request lands promptly. Generic over the body for the unit\r\n/// harness; production binds [`run_peer_pump`].\r\n// [impl->REQ-DAEMON-5]\r\npub fn supervise_pump(stop: &AtomicBool, base: Duration, mut body: impl FnMut() -> io::Result<()>) {\r\n    let mut backoff = base;\r\n    while !stop.load(Ordering::Relaxed) {\r\n        let started = Instant::now();\r\n        let outcome = std::panic::catch_unwind(std::panic::AssertUnwindSafe(&mut body));\r\n        if stop.load(Ordering::Relaxed) {\r\n            return; // a clean stop — whatever the body returned\r\n        }\r\n        let ran_for = started.elapsed();\r\n        match outcome {\r\n            // The body only returns Ok when stop is raised; reaching here\r\n            // without it is a died-loop fact — same restart as an error.\r\n            Ok(Ok(())) => eprintln!(\"PEER_PUMP_EXIT: loop returned without stop — restarting\"),\r\n            Ok(Err(e)) => eprintln!(\"PEER_PUMP_FAIL: {e}\"),\r\n            Err(panic) => {\r\n                let msg = panic\r\n                    .downcast_ref::<&str>()\r\n                    .map(|s| s.to_string())\r\n                    .or_else(|| panic.downcast_ref::<String>().cloned())\r\n                    .unwrap_or_else(|| \"<non-string panic>\".to_string());\r\n                eprintln!(\"PEER_PUMP_PANIC: {msg}\");\r\n            }\r\n        }\r\n        backoff = next_backoff(backoff, ran_for, base);\r\n        eprintln!(\r\n            \"PEER_PUMP_RESTART: supervised restart in {}s\",\r\n            backoff.as_secs()\r\n        );\r\n        let mut slept = Duration::ZERO;\r\n        while slept < backoff && !stop.load(Ordering::Relaxed) {\r\n            thread::sleep(TICK.min(backoff - slept));\r\n            slept += TICK;\r\n        }\r\n    }\r\n}\r\n\r\n/// Spawn the pump on its own thread with the production wiring — the\r\n/// daemon-boot entry ([`crate::daemon::Daemon::run`]). The thread body is\r\n/// the SUPERVISOR ([`supervise_pump`]), not the bare loop: the pump\r\n/// restarts after a panic or error with capped backoff (M8 decision 23).\r\n// [impl->REQ-DAEMON-5]\r\npub fn spawn_peer_pump(\r\n    broker_name: String,\r\n    registry: Arc<RegistryHost>,\r\n    cfg: DaemonConfig,\r\n    stop: Arc<AtomicBool>,\r\n) -> thread::JoinHandle<()> {\r\n    thread::spawn(move || {\r\n        let paths = PumpPaths::production();\r\n        supervise_pump(&stop, SUPERVISE_BACKOFF_BASE, || {\r\n            run_peer_pump(\r\n                &broker_name,\r\n                Arc::clone(&registry),\r\n                &paths,\r\n                production_resolver(),\r\n                PumpConfig::from_config(&cfg),\r\n                PumpHooks::default(),\r\n                &stop,\r\n            )\r\n        });\r\n    })\r\n}\r\n\r\n#[cfg(test)]\r\nmod tests {\r\n    use super::*;\r\n\r\n    // The pump's cadence gate must prime on the first tick AND never compute\r\n    // an instant before now (the underflow panic that killed the peer pump on\r\n    // a sub-24h-uptime Windows host). `due` takes an Option and only ever runs\r","truncated":true,"truncatedBy":"lines","totalLines":684,"totalBytes":3549,"outputLines":85,"outputBytes":3549,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn next_backoff(prev: Duration, ran_for: Duration, base: Duration) -> Duration {\n    if ran_for >= SUPERVISE_HEALTHY_RUN {\n…\n    } else {\r\n        prev.saturating_mul(2).min(SUPERVISE_BACKOFF_CAP)\r\n    }\r\n}\r\n\r\n/// Supervise repeated runs of a pump body until `stop` is raised (M8\r\n/// decision 23, REQ-DAEMON-5): a panic is CAUGHT and logged loud\r\n/// (`PEER_PUMP_PANIC`), an error return logged (`PEER_PUMP_FAIL`), and the\r\n/// body restarts after a capped, doubling backoff — a 5.9-class pump death\r\n/// self-heals visibly instead of silently halving the daemon for 24 h.\r\n/// `base` is the backoff floor (production: [`SUPERVISE_BACKOFF_BASE`];\r\n/// the unit harness shrinks it). Backoff sleeps in [`TICK`] slices so a\r\n/// stop request lands promptly. Generic over the body for the unit\r\n/// harness; production binds [`run_peer_pump`].\r\n// [impl->REQ-DAEMON-5]\r\npub fn supervise_pump(stop: &AtomicBool, base: Duration, mut body: impl FnMut() -> io::Result<()>) {\r\n    let mut backoff = base;\r\n    while !stop.load(Ordering::Relaxed) {\r\n        let started = Instant::now();\r\n        let outcome = std::panic::catch_unwind(std::panic::AssertUnwindSafe(&mut body));\r\n        if stop.load(Ordering::Relaxed) {\r\n            return; // a clean stop — whatever the body returned\r\n        }\r\n        let ran_for = started.elapsed();\r\n        match outcome {\r\n            // The body only returns Ok when stop is raised; reaching here\r\n            // without it is a died-loop fact — same restart as an error.\r\n            Ok(Ok(())) => eprintln!(\"PEER_PUMP_EXIT: loop returned without stop — restarting\"),\r\n            Ok(Err(e)) => eprintln!(\"PEER_PUMP_FAIL: {e}\"),\r\n            Err(panic) => {\r\n                let msg = panic\r\n                    .downcast_ref::<&str>()\r\n                    .map(|s| s.to_string())\r\n                    .or_else(|| panic.downcast_ref::<String>().cloned())\r\n                    .unwrap_or_else(|| \"<non-string panic>\".to_string());\r\n                eprintln!(\"PEER_PUMP_PANIC: {msg}\");\r\n            }\r\n        }\r\n        backoff = next_backoff(backoff, ran_for, base);\r\n        eprintln!(\r\n            \"PEER_PUMP_RESTART: supervised restart in {}s\",\r\n            backoff.as_secs()\r\n        );\r\n        let mut slept = Duration::ZERO;\r\n        while slept < backoff && !stop.load(Ordering::Relaxed) {\r\n            thread::sleep(TICK.min(backoff - slept));\r\n            slept += TICK;\r\n        }\r\n    }\r\n}\r\n\r\n/// Spawn the pump on its own thread with the production wiring — the\r\n/// daemon-boot entry ([`crate::daemon::Daemon::run`]). The thread body is\r\n/// the SUPERVISOR ([`supervise_pump`]), not the bare loop: the pump\r\n/// restarts after a panic or error with capped backoff (M8 decision 23).\r\n// [impl->REQ-DAEMON-5]\r\npub fn spawn_peer_pump(\r\n    broker_name: String,\r\n    registry: Arc<RegistryHost>,\r\n    cfg: DaemonConfig,\r\n    stop: Arc<AtomicBool>,\r\n) -> thread::JoinHandle<()> {\r\n    thread::spawn(move || {\r\n        let paths = PumpPaths::production();\r\n        supervise_pump(&stop, SUPERVISE_BACKOFF_BASE, || {\r\n            run_peer_pump(\r\n                &broker_name,\r\n                Arc::clone(&registry),\r\n                &paths,\r\n                production_resolver(),\r\n                PumpConfig::from_config(&cfg),\r\n                PumpHooks::default(),\r\n                &stop,\r\n            )\r\n        });\r\n    })\r\n}\r\n\r\n#[cfg(test)]\r\nmod tests {\r\n    use super::*;\r\n\r\n    // The pump's cadence gate must prime on the first tick AND never compute\r\n    // an instant before now (the underflow panic that killed the peer pump on\r\n    // a sub-24h-uptime Windows host). `due` takes an Option and only ever runs\r\n…\n}","startLine":1031,"lineNumbers":[1031,1032,null,1034,1035,1036,1037,1038,1039,1040,1041,1042,1043,1044,1045,1046,1047,1048,1049,1050,1051,1052,1053,1054,1055,1056,1057,1058,1059,1060,1061,1062,1063,1064,1065,1066,1067,1068,1069,1070,1071,1072,1073,1074,1075,1076,1077,1078,1079,1080,1081,1082,1083,1084,1085,1086,1087,1088,1089,1090,1091,1092,1093,1094,1095,1096,1097,1098,1099,1100,1101,1102,1103,1104,1105,1106,1107,1108,1109,1110,1111,1112,1113,1114,1115,1116,1117,1118,null,1716]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\pump\\mod.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1717,"totalBytes":3549,"outputLines":85,"outputBytes":3549,"shownRange":{"start":1034,"end":1118},"nextOffset":1119}}},"isError":false,"timestamp":1784069230634}}
{"type":"message","id":"4f5a2d4b","parentId":"126a3b48","timestamp":"2026-07-14T22:47:10.635Z","message":{"role":"toolResult","toolCallId":"call_RL0CXFqatvT1r27SbUzonF3g|fc_0b084cf0b521ab15016a56bc6e2eac8190a4198a05c107a29b","toolName":"grep","content":[{"type":"text","text":"# spt-core/\n## M8-PLAN.md\n 127|account, never root). Windows: elevated install leg registers the firewall\n*128|rule (`New-NetFirewallRule`, inbound UDP) **and** the daemon self-detects\n 129|blocked inbound → rendered as the \"no connection\" state in `subnet status` +\n 130|coming-online banner (covers user-scope installs that skip the elevated leg).\n 131|Both OSes: OS-service registration per decision 17 — Linux systemd user\n## traceable-reqs.toml\n 1101|id = \"REQ-INSTALL-7\"\n*1102|title = \"Windows inbound reachability: the elevated install leg registers the inbound-UDP firewall rule (New-NetFirewallRule); the daemon self-detects blocked inbound and renders it as the no-connection state in subnet status + the coming-online banner (covers user-scope installs that skip the elevated leg — never a silent NO_SEED_HOLDER dead-end) (M8 root cause 3)\"\n*1103|required_stages = [\"impl\"]  # activated M8-D3: install.ps1 firewall leg (elevated = netsh add rule [delete-first idempotence; netsh not New-NetFirewallRule for PS5.1 hardened boxes]; unelevated = prints the exact elevated command; SPT_INSTALL_NO_FIREWALL gates CI) + the render half: cli inbound_block_hint — a BOUNDED netsh probe (KH 5.3, 3s) for the named rule, rendered in subnet status + the coming-online banner only when the rule is ABSENT (a failed probe says nothing, never alarms). Probe + live joi...\n 1104|[[requirements]]\n 1105|id = \"REQ-INSTALL-8\"\n 1106|title = \"OS-service registration (REQ-INSTALL-1's deferred third leg): Linux systemd USER service + loginctl enable-linger (linger rides the elevated install leg; daemon starts at boot pre-login, user universe per KH 5.7, systemctl --user managed); Windows scheduled task at-logon (interactive session, no stored credentials); a node is reachable after reboot without any manual spt invocation (M8 decision 17)\"\n\n## crates/spt/src/\n### cli.rs\n 6868|                 this node may be silently blocked (the NO_SEED_HOLDER shape). Run the \\\n*6869|                 installer elevated, or add the rule:\\n  netsh advfirewall firewall add \\\n*6870|                 rule name=\\\"spt-core inbound UDP\\\" dir=in action=allow protocol=UDP \\\n 6871|                 program=\\\"{exe}\\\"\\n\"\n 6872|            ));\n 6873|        }\n...\n 6892|            .args([\n*6893|                \"advfirewall\",\n 6894|                \"firewall\",\n 6895|                \"show\",\n 6896|                \"rule\",\n*6897|                \"name=spt-core inbound UDP\",\n 6898|            ])\n 6899|            .output();\n 6900|        let _ = tx.send(out);\n\n## docs/\n### DEFERRED.md\n 22|| Linux elevation model (user-ratified direction 2026-06-06): (1) install symlinks the binary into a sudo-reachable path (e.g. `/usr/local/bin`) so `sudo spt` resolves; (2) first `sudo spt` detects elevation and prompts once for the DEFAULT USER ACCOUNT — thereafter any `sudo spt` daemon launch always runs the daemon (and state) under that account, never root (kills the `sudo HOME=$HOME` dance and the root-owned-state hazard) | M7 acceptance run (gravity: `sudo: spt: command not found`, then the HOME-u...\n*23|| Windows firewall registration for the installed binary: a DETACHED daemon never shows the first-bind firewall prompt, so inbound UDP (mDNS + QUIC meet/pairing) is silently dropped — found as the M7 acceptance NO_SEED_HOLDER (dev/test paths had accumulated allow rules; the install path had none). Options: an elevated install leg adds the rule (`New-NetFirewallRule`), and/or the daemon self-detects blocked inbound and renders it as the \"no connection\" state in `subnet status` + the coming-online banner...\n 24|| ~~**Non-admin daemon spawn (both OSes)**~~ **SHIPPED 2026-06-06** (KNOWN-HAZARDS 5.7, REQ-HAZARD-ELEVATED-DAEMON-SPAWN): de-elevated spawn at `spawn_detached` (Windows: UAC linked token via `CreateProcessWithTokenW`; Linux: drop child to SUDO_UID/GID) + `Daemon::run` entry guard + the unix `spt` main-entry sudo drop (whole process re-anchored to the invoker's universe, elevation kept PROVEN for the gated commands). Remaining Linux follow-up = the install-symlink + default-account election row below (M8...\n 25|| ~~**Ghost registry row eviction**~~ **SHIPPED 2026-06-06** (KNOWN-HAZARDS 4.10, REQ-HAZARD-REGISTRY-GHOST-ROWS): silent-peer decay — rows from a node unheard for `registry_evict_after_ms` (default 300s ≈ 10 pump cadences) evict on the registry pump tick, snapshots rewritten; own rows never decay. STALE trust rows for a dead identity still need a manual prune verb (below) | M7 acceptance run (2026-06-06) | Needs a decay/eviction policy (e.g. drop rows unrefreshed for N pump cadences; trust-row pruni...\n 26|| Trust-row prune verb (`spt subnet prune <node>` or similar): registry GHOST rows now decay (4.10), but the dead identity's TRUST rows persist by design (trust is a user decision) — they cost dead dials every pump tick and clutter status views. BIGNET carries two such rows (09ef831e, both sides) | Ghost-eviction fix (2026-06-06) | Trust mutation = security surface; wants the elevation gate + the M8 noun shapes | M8 CLI nounification |\n### TWO-HOST-RUNBOOK.md\n 63|  one-time inbound allow (run elevated):\n*64|  `netsh advfirewall firewall add rule name=\"spt twohost rig\" dir=in action=allow protocol=UDP localport=7460-7462`\n 65|  In practice A's pump dials B first and B's replies ride the same UDP 4-tuple, so\n 66|  a stateful default usually passes — add the rule if role B logs\n 67|  `PUMP_PEER_FAIL`/dial timeouts against A.\n\n## installer/\n### install.ps1\n 161|    # an unelevated run prints the exact command instead of prompting.\n*162|    $fwRuleName = 'spt-core inbound UDP'\n 163|    if ($env:SPT_INSTALL_NO_FIREWALL -ne '1') {\n 164|        $isElevated = ([Security.Principal.WindowsPrincipal][Security.Principal.WindowsIdentity]::GetCurrent()\n 165|                      ).IsInRole([Security.Principal.WindowsBuiltInRole]::Administrator)\n...\n 168|                # Idempotent: replace any prior rule (the binary path may have\n*169|                # moved); netsh, not New-NetFirewallRule - works on PS 5.1\n 170|                # hardened boxes without the NetSecurity module.\n*171|                netsh advfirewall firewall delete rule name=\"$fwRuleName\" | Out-Null\n*172|                netsh advfirewall firewall add rule name=\"$fwRuleName\" dir=in action=allow protocol=UDP program=\"$target\" | Out-Null\n 173|                Write-Output \"spt-install: registered inbound UDP firewall rule for $target\"\n 174|            } catch {\n 175|                Write-Output \"spt-install: warning: firewall rule registration failed: $_\"\n...\n 178|            Write-Output \"spt-install: NOT elevated - inbound UDP may be blocked (joins toward this node can fail).\"\n*179|            Write-Output \"spt-install: to fix, run elevated:  netsh advfirewall firewall add rule name=`\"$fwRuleName`\" dir=in action=allow protocol=UDP program=`\"$target`\"\"\n 180|        }\n 181|    }\n 182|\n\n[Some lines truncated to 512 chars]"}],"details":{"scopePath":"spt-core","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":14,"fileCount":6,"files":["spt-core/M8-PLAN.md","spt-core/crates/spt/src/cli.rs","spt-core/docs/DEFERRED.md","spt-core/docs/TWO-HOST-RUNBOOK.md","spt-core/installer/install.ps1","spt-core/traceable-reqs.toml"],"fileMatches":[{"path":"spt-core/M8-PLAN.md","count":1},{"path":"spt-core/crates/spt/src/cli.rs","count":4},{"path":"spt-core/docs/DEFERRED.md","count":1},{"path":"spt-core/docs/TWO-HOST-RUNBOOK.md","count":1},{"path":"spt-core/installer/install.ps1","count":5},{"path":"spt-core/traceable-reqs.toml","count":2}],"truncated":true,"displayContent":"# spt-core/\n## M8-PLAN.md\n 127│account, never root). Windows: elevated install leg registers the firewall\n*128│rule (`New-NetFirewallRule`, inbound UDP) **and** the daemon self-detects\n 129│blocked inbound → rendered as the \"no connection\" state in `subnet status` +\n 130│coming-online banner (covers user-scope installs that skip the elevated leg).\n 131│Both OSes: OS-service registration per decision 17 — Linux systemd user\n## traceable-reqs.toml\n 1101│id = \"REQ-INSTALL-7\"\n*1102│title = \"Windows inbound reachability: the elevated install leg registers the inbound-UDP firewall rule (New-NetFirewallRule); the daemon self-detects blocked inbound and renders it as the no-connection state in subnet status + the coming-online banner (covers user-scope installs that skip the elevated leg — never a silent NO_SEED_HOLDER dead-end) (M8 root cause 3)\"\n*1103│required_stages = [\"impl\"]  # activated M8-D3: install.ps1 firewall leg (elevated = netsh add rule [delete-first idempotence; netsh not New-NetFirewallRule for PS5.1 hardened boxes]; unelevated = prints the exact elevated command; SPT_INSTALL_NO_FIREWALL gates CI) + the render half: cli inbound_block_hint — a BOUNDED netsh probe (KH 5.3, 3s) for the named rule, rendered in subnet status + the coming-online banner only when the rule is ABSENT (a failed probe says nothing, never alarms). Probe + live joi...\n 1104│[[requirements]]\n 1105│id = \"REQ-INSTALL-8\"\n 1106│title = \"OS-service registration (REQ-INSTALL-1's deferred third leg): Linux systemd USER service + loginctl enable-linger (linger rides the elevated install leg; daemon starts at boot pre-login, user universe per KH 5.7, systemctl --user managed); Windows scheduled task at-logon (interactive session, no stored credentials); a node is reachable after reboot without any manual spt invocation (M8 decision 17)\"\n\n## crates/spt/src/\n### cli.rs\n 6868│                 this node may be silently blocked (the NO_SEED_HOLDER shape). Run the \\\n*6869│                 installer elevated, or add the rule:\\n  netsh advfirewall firewall add \\\n*6870│                 rule name=\\\"spt-core inbound UDP\\\" dir=in action=allow protocol=UDP \\\n 6871│                 program=\\\"{exe}\\\"\\n\"\n 6872│            ));\n 6873│        }\n     │...\n 6892│            .args([\n*6893│                \"advfirewall\",\n 6894│                \"firewall\",\n 6895│                \"show\",\n 6896│                \"rule\",\n*6897│                \"name=spt-core inbound UDP\",\n 6898│            ])\n 6899│            .output();\n 6900│        let _ = tx.send(out);\n\n## docs/\n### DEFERRED.md\n 22│| Linux elevation model (user-ratified direction 2026-06-06): (1) install symlinks the binary into a sudo-reachable path (e.g. `/usr/local/bin`) so `sudo spt` resolves; (2) first `sudo spt` detects elevation and prompts once for the DEFAULT USER ACCOUNT — thereafter any `sudo spt` daemon launch always runs the daemon (and state) under that account, never root (kills the `sudo HOME=$HOME` dance and the root-owned-state hazard) | M7 acceptance run (gravity: `sudo: spt: command not found`, then the HOME-u...\n*23│| Windows firewall registration for the installed binary: a DETACHED daemon never shows the first-bind firewall prompt, so inbound UDP (mDNS + QUIC meet/pairing) is silently dropped — found as the M7 acceptance NO_SEED_HOLDER (dev/test paths had accumulated allow rules; the install path had none). Options: an elevated install leg adds the rule (`New-NetFirewallRule`), and/or the daemon self-detects blocked inbound and renders it as the \"no connection\" state in `subnet status` + the coming-online banner...\n 24│| ~~**Non-admin daemon spawn (both OSes)**~~ **SHIPPED 2026-06-06** (KNOWN-HAZARDS 5.7, REQ-HAZARD-ELEVATED-DAEMON-SPAWN): de-elevated spawn at `spawn_detached` (Windows: UAC linked token via `CreateProcessWithTokenW`; Linux: drop child to SUDO_UID/GID) + `Daemon::run` entry guard + the unix `spt` main-entry sudo drop (whole process re-anchored to the invoker's universe, elevation kept PROVEN for the gated commands). Remaining Linux follow-up = the install-symlink + default-account election row below (M8...\n 25│| ~~**Ghost registry row eviction**~~ **SHIPPED 2026-06-06** (KNOWN-HAZARDS 4.10, REQ-HAZARD-REGISTRY-GHOST-ROWS): silent-peer decay — rows from a node unheard for `registry_evict_after_ms` (default 300s ≈ 10 pump cadences) evict on the registry pump tick, snapshots rewritten; own rows never decay. STALE trust rows for a dead identity still need a manual prune verb (below) | M7 acceptance run (2026-06-06) | Needs a decay/eviction policy (e.g. drop rows unrefreshed for N pump cadences; trust-row pruni...\n 26│| Trust-row prune verb (`spt subnet prune <node>` or similar): registry GHOST rows now decay (4.10), but the dead identity's TRUST rows persist by design (trust is a user decision) — they cost dead dials every pump tick and clutter status views. BIGNET carries two such rows (09ef831e, both sides) | Ghost-eviction fix (2026-06-06) | Trust mutation = security surface; wants the elevation gate + the M8 noun shapes | M8 CLI nounification |\n### TWO-HOST-RUNBOOK.md\n 63│  one-time inbound allow (run elevated):\n*64│  `netsh advfirewall firewall add rule name=\"spt twohost rig\" dir=in action=allow protocol=UDP localport=7460-7462`\n 65│  In practice A's pump dials B first and B's replies ride the same UDP 4-tuple, so\n 66│  a stateful default usually passes — add the rule if role B logs\n 67│  `PUMP_PEER_FAIL`/dial timeouts against A.\n\n## installer/\n### install.ps1\n 161│    # an unelevated run prints the exact command instead of prompting.\n*162│    $fwRuleName = 'spt-core inbound UDP'\n 163│    if ($env:SPT_INSTALL_NO_FIREWALL -ne '1') {\n 164│        $isElevated = ([Security.Principal.WindowsPrincipal][Security.Principal.WindowsIdentity]::GetCurrent()\n 165│                      ).IsInRole([Security.Principal.WindowsBuiltInRole]::Administrator)\n    │...\n 168│                # Idempotent: replace any prior rule (the binary path may have\n*169│                # moved); netsh, not New-NetFirewallRule - works on PS 5.1\n 170│                # hardened boxes without the NetSecurity module.\n*171│                netsh advfirewall firewall delete rule name=\"$fwRuleName\" | Out-Null\n*172│                netsh advfirewall firewall add rule name=\"$fwRuleName\" dir=in action=allow protocol=UDP program=\"$target\" | Out-Null\n 173│                Write-Output \"spt-install: registered inbound UDP firewall rule for $target\"\n 174│            } catch {\n 175│                Write-Output \"spt-install: warning: firewall rule registration failed: $_\"\n    │...\n 178│            Write-Output \"spt-install: NOT elevated - inbound UDP may be blocked (joins toward this node can fail).\"\n*179│            Write-Output \"spt-install: to fix, run elevated:  netsh advfirewall firewall add rule name=`\"$fwRuleName`\" dir=in action=allow protocol=UDP program=`\"$target`\"\"\n 180│        }\n 181│    }\n 182│","linesTruncated":true,"meta":{"limits":{"columnTruncated":{"maxColumn":512}}}},"isError":false,"timestamp":1784069230635}}
{"type":"message","id":"51a245fc","parentId":"4f5a2d4b","timestamp":"2026-07-14T22:47:10.649Z","message":{"role":"toolResult","toolCallId":"call_A4BGzXixyUn4X0dlkDLgNVj8|fc_0b084cf0b521ab15016a56bc6e2f70819099b1377b9ab47de6","toolName":"read","content":[{"type":"text","text":"pub fn run_brain(generation: u64, reason: StartReason) -> io::Result<()> {\n…\n    // [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\n    let _ = crate::shellwake::spawn_wake_host(Arc::new(AtomicBool::new(false)));\n\n    // Live-agent Psyche host (M11-W0.1, REQ-DAEMON-1): the production caller\n    // `run_pulse_loop` lacked. One thread sweeps `livehost::reconcile_once` at\n    // boot (the rehydrate the no-op above can't do) and every tick — re-hosting\n    // every ONLINE live endpoint from disk (the harness-endpoint mirror of the\n    // shell waker). Online-only is staged behind the interim `api listen`\n    // (status-absent perches are skipped — no double-host) until W0.2 makes the\n    // brain the first-host. The stop flag is held for symmetry; the threads die\n    // with the brain and the next brain rehydrates from disk (CONTEXT:194).\n    // [impl->REQ-DAEMON-1]\n    let _ = crate::livehost::spawn_live_host(Arc::new(AtomicBool::new(false)), reason);\n\n    let mut consumers_started = false;\n    loop {\n        thread::sleep(BRAIN_HEARTBEAT);\n        // `net-status` is both the net-capability probe and the broker-liveness\n        // probe: an `Err` is the broker gone (or a future planned\n        // snapshot+self-exit, Q3) — exit for a supervised respawn.\n        let status = match brain.net_status() {\n            Ok(s) => s,\n            Err(e) => {\n                eprintln!(\"BRAIN_BROKER_LOST: {e} — exiting for supervised respawn\");\n                return Err(e);\n            }\n        };\n        if consumer_gate(status.enabled, consumers_started) {\n            let hex = status.node_id_hex.clone().unwrap_or_default();\n            spawn_net_consumers(&hex);\n            consumers_started = true;\n            eprintln!(\n                \"BRAIN_NET_CONSUMERS_UP: net enabled (node {hex}) — dispatcher + peer pump started\"\n            );\n        }\n        // DRIVE the broker's controller-liveness reap every heartbeat (UPDATE-WEDGE\n        // fix, counter-54). A `KIND_SESSIONS` poll is what runs the broker's\n        // `reap_dead_controller` sweep (broker.rs), which stall-evicts a black-holed\n        // LOCAL controller conn a HARD-KILLED prior brain generation left behind (its\n        // hosted PTYs keep writing to a dead pipe → the broker-side writer BLOCKS, never\n        // EOFs). Nothing else polls `KIND_SESSIONS` during an isolated brain-trial\n        // window, so without this the wedge never drains: the promotion DRAINED gate\n        // (`old_gen_drained()` = `!any_local_controller_wedged()`, a PURE READ that never\n        // drives the evict) stays false for the full trial → \"alive but never ready\"\n        // rollback (the 2026-07-09 field freeze), AND the same wedge black-holes recovery\n        // (the late `BRAIN_SUBSCRIBER_STALL_EVICT`). Driven on the FIRST heartbeat and on\n        // BOTH the trial candidate AND the rollback/recovery brain (one loop covers both);\n        // best-effort — a transient sessions error must never fell the heartbeat (the\n        // net_status probe above already owns broker-liveness). Self-applies: it drives\n        // the CURRENT (older) broker's already-shipped reap verb, so a new brain un-strands\n        // its own trial against a live older broker — no coordinated broker restart.\n        // [impl->REQ-UPDATE-TRIAL-DRAIN-DRIVE]\n        let _ = brain.sessions();\n        write_ready(generation);\n    }\n}\n\n/// Whether to spawn the net consumers this heartbeat: only once the broker\n/// reports a net endpoint up (`net_enabled`) AND we have not already started\n/// them. Pure for the unit table — the spawn-exactly-once + net-gating\n/// semantics that keep a single dispatcher/peer-pump set running.\n// [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\nfn consumer_gate(net_enabled: bool, already_started: bool) -> bool {\n    net_enabled && !already_started\n}\n\n/// Spawn the net consumers — the inbound dispatcher + the outbound peer pump\n/// (D9-1) — against the broker's socket. **Relocated from the broker process to\n/// the brain child (restoration D2-1):** both are standalone IPC clients\n/// (`Brain::cold_start`, no shared `Arc<Broker>`), so they belong with the\n/// restartable brain. Each mints its own registry + stop flag and connects\n/// independently; when the brain process exits these in-process threads die with\n/// it, and the respawned brain re-spawns them from the current binary. Mirrors\n/// the wiring the broker boot used to do, `node_hex` now sourced from the\n/// `net-status` reply rather than the broker's identity load.\n// [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\n// [impl->REQ-DAEMON-9]\nfn spawn_net_consumers(node_hex: &str) {\n    let registry = Arc::new(crate::registryhost::RegistryHost::new(node_hex));\n    let stop = Arc::new(AtomicBool::new(false));\n    let _ = crate::dispatch::spawn_dispatcher(\n        broker_socket_name(),\n        Arc::clone(&registry),\n        Arc::clone(&stop),\n    );\n    let cfg = crate::config::DaemonConfig::load();\n    if cfg.peer_pump {\n        let _ = crate::pump::spawn_peer_pump(broker_socket_name(), registry, cfg, stop);\n    }\n}\n\n/// Connect to the broker, retrying briefly while it finishes binding.\nfn connect_retry(name: &str, tries: u32) -> io::Result<Brain> {\n    let mut last: Option<io::Error> = None;\n    for _ in 0..tries {\n        match Brain::cold_start(name, now_ms()) {\n            Ok(b) => return Ok(b),\n            Err(e) => {\n                last = Some(e);\n                thread::sleep(Duration::from_millis(10));\n            }\n        }\n    }\n…\n}\n\n[Showing lines 234-333 of 2106. Use :334 to continue]"}],"details":{"truncation":{"content":"    // [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\r\n    let _ = crate::shellwake::spawn_wake_host(Arc::new(AtomicBool::new(false)));\r\n\r\n    // Live-agent Psyche host (M11-W0.1, REQ-DAEMON-1): the production caller\r\n    // `run_pulse_loop` lacked. One thread sweeps `livehost::reconcile_once` at\r\n    // boot (the rehydrate the no-op above can't do) and every tick — re-hosting\r\n    // every ONLINE live endpoint from disk (the harness-endpoint mirror of the\r\n    // shell waker). Online-only is staged behind the interim `api listen`\r\n    // (status-absent perches are skipped — no double-host) until W0.2 makes the\r\n    // brain the first-host. The stop flag is held for symmetry; the threads die\r\n    // with the brain and the next brain rehydrates from disk (CONTEXT:194).\r\n    // [impl->REQ-DAEMON-1]\r\n    let _ = crate::livehost::spawn_live_host(Arc::new(AtomicBool::new(false)), reason);\r\n\r\n    let mut consumers_started = false;\r\n    loop {\r\n        thread::sleep(BRAIN_HEARTBEAT);\r\n        // `net-status` is both the net-capability probe and the broker-liveness\r\n        // probe: an `Err` is the broker gone (or a future planned\r\n        // snapshot+self-exit, Q3) — exit for a supervised respawn.\r\n        let status = match brain.net_status() {\r\n            Ok(s) => s,\r\n            Err(e) => {\r\n                eprintln!(\"BRAIN_BROKER_LOST: {e} — exiting for supervised respawn\");\r\n                return Err(e);\r\n            }\r\n        };\r\n        if consumer_gate(status.enabled, consumers_started) {\r\n            let hex = status.node_id_hex.clone().unwrap_or_default();\r\n            spawn_net_consumers(&hex);\r\n            consumers_started = true;\r\n            eprintln!(\r\n                \"BRAIN_NET_CONSUMERS_UP: net enabled (node {hex}) — dispatcher + peer pump started\"\r\n            );\r\n        }\r\n        // DRIVE the broker's controller-liveness reap every heartbeat (UPDATE-WEDGE\r\n        // fix, counter-54). A `KIND_SESSIONS` poll is what runs the broker's\r\n        // `reap_dead_controller` sweep (broker.rs), which stall-evicts a black-holed\r\n        // LOCAL controller conn a HARD-KILLED prior brain generation left behind (its\r\n        // hosted PTYs keep writing to a dead pipe → the broker-side writer BLOCKS, never\r\n        // EOFs). Nothing else polls `KIND_SESSIONS` during an isolated brain-trial\r\n        // window, so without this the wedge never drains: the promotion DRAINED gate\r\n        // (`old_gen_drained()` = `!any_local_controller_wedged()`, a PURE READ that never\r\n        // drives the evict) stays false for the full trial → \"alive but never ready\"\r\n        // rollback (the 2026-07-09 field freeze), AND the same wedge black-holes recovery\r\n        // (the late `BRAIN_SUBSCRIBER_STALL_EVICT`). Driven on the FIRST heartbeat and on\r\n        // BOTH the trial candidate AND the rollback/recovery brain (one loop covers both);\r\n        // best-effort — a transient sessions error must never fell the heartbeat (the\r\n        // net_status probe above already owns broker-liveness). Self-applies: it drives\r\n        // the CURRENT (older) broker's already-shipped reap verb, so a new brain un-strands\r\n        // its own trial against a live older broker — no coordinated broker restart.\r\n        // [impl->REQ-UPDATE-TRIAL-DRAIN-DRIVE]\r\n        let _ = brain.sessions();\r\n        write_ready(generation);\r\n    }\r\n}\r\n\r\n/// Whether to spawn the net consumers this heartbeat: only once the broker\r\n/// reports a net endpoint up (`net_enabled`) AND we have not already started\r\n/// them. Pure for the unit table — the spawn-exactly-once + net-gating\r\n/// semantics that keep a single dispatcher/peer-pump set running.\r\n// [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\r\nfn consumer_gate(net_enabled: bool, already_started: bool) -> bool {\r\n    net_enabled && !already_started\r\n}\r\n\r\n/// Spawn the net consumers — the inbound dispatcher + the outbound peer pump\r\n/// (D9-1) — against the broker's socket. **Relocated from the broker process to\r\n/// the brain child (restoration D2-1):** both are standalone IPC clients\r\n/// (`Brain::cold_start`, no shared `Arc<Broker>`), so they belong with the\r\n/// restartable brain. Each mints its own registry + stop flag and connects\r\n/// independently; when the brain process exits these in-process threads die with\r\n/// it, and the respawned brain re-spawns them from the current binary. Mirrors\r\n/// the wiring the broker boot used to do, `node_hex` now sourced from the\r\n/// `net-status` reply rather than the broker's identity load.\r\n// [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\r\n// [impl->REQ-DAEMON-9]\r\nfn spawn_net_consumers(node_hex: &str) {\r\n    let registry = Arc::new(crate::registryhost::RegistryHost::new(node_hex));\r\n    let stop = Arc::new(AtomicBool::new(false));\r\n    let _ = crate::dispatch::spawn_dispatcher(\r\n        broker_socket_name(),\r\n        Arc::clone(&registry),\r\n        Arc::clone(&stop),\r\n    );\r\n    let cfg = crate::config::DaemonConfig::load();\r\n    if cfg.peer_pump {\r\n        let _ = crate::pump::spawn_peer_pump(broker_socket_name(), registry, cfg, stop);\r\n    }\r\n}\r\n\r\n/// Connect to the broker, retrying briefly while it finishes binding.\r\nfn connect_retry(name: &str, tries: u32) -> io::Result<Brain> {\r\n    let mut last: Option<io::Error> = None;\r\n    for _ in 0..tries {\r\n        match Brain::cold_start(name, now_ms()) {\r\n            Ok(b) => return Ok(b),\r\n            Err(e) => {\r\n                last = Some(e);\r\n                thread::sleep(Duration::from_millis(10));\r","truncated":true,"truncatedBy":"lines","totalLines":1873,"totalBytes":5522,"outputLines":100,"outputBytes":5522,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"pub fn run_brain(generation: u64, reason: StartReason) -> io::Result<()> {\n…\n    // [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\r\n    let _ = crate::shellwake::spawn_wake_host(Arc::new(AtomicBool::new(false)));\r\n\r\n    // Live-agent Psyche host (M11-W0.1, REQ-DAEMON-1): the production caller\r\n    // `run_pulse_loop` lacked. One thread sweeps `livehost::reconcile_once` at\r\n    // boot (the rehydrate the no-op above can't do) and every tick — re-hosting\r\n    // every ONLINE live endpoint from disk (the harness-endpoint mirror of the\r\n    // shell waker). Online-only is staged behind the interim `api listen`\r\n    // (status-absent perches are skipped — no double-host) until W0.2 makes the\r\n    // brain the first-host. The stop flag is held for symmetry; the threads die\r\n    // with the brain and the next brain rehydrates from disk (CONTEXT:194).\r\n    // [impl->REQ-DAEMON-1]\r\n    let _ = crate::livehost::spawn_live_host(Arc::new(AtomicBool::new(false)), reason);\r\n\r\n    let mut consumers_started = false;\r\n    loop {\r\n        thread::sleep(BRAIN_HEARTBEAT);\r\n        // `net-status` is both the net-capability probe and the broker-liveness\r\n        // probe: an `Err` is the broker gone (or a future planned\r\n        // snapshot+self-exit, Q3) — exit for a supervised respawn.\r\n        let status = match brain.net_status() {\r\n            Ok(s) => s,\r\n            Err(e) => {\r\n                eprintln!(\"BRAIN_BROKER_LOST: {e} — exiting for supervised respawn\");\r\n                return Err(e);\r\n            }\r\n        };\r\n        if consumer_gate(status.enabled, consumers_started) {\r\n            let hex = status.node_id_hex.clone().unwrap_or_default();\r\n            spawn_net_consumers(&hex);\r\n            consumers_started = true;\r\n            eprintln!(\r\n                \"BRAIN_NET_CONSUMERS_UP: net enabled (node {hex}) — dispatcher + peer pump started\"\r\n            );\r\n        }\r\n        // DRIVE the broker's controller-liveness reap every heartbeat (UPDATE-WEDGE\r\n        // fix, counter-54). A `KIND_SESSIONS` poll is what runs the broker's\r\n        // `reap_dead_controller` sweep (broker.rs), which stall-evicts a black-holed\r\n        // LOCAL controller conn a HARD-KILLED prior brain generation left behind (its\r\n        // hosted PTYs keep writing to a dead pipe → the broker-side writer BLOCKS, never\r\n        // EOFs). Nothing else polls `KIND_SESSIONS` during an isolated brain-trial\r\n        // window, so without this the wedge never drains: the promotion DRAINED gate\r\n        // (`old_gen_drained()` = `!any_local_controller_wedged()`, a PURE READ that never\r\n        // drives the evict) stays false for the full trial → \"alive but never ready\"\r\n        // rollback (the 2026-07-09 field freeze), AND the same wedge black-holes recovery\r\n        // (the late `BRAIN_SUBSCRIBER_STALL_EVICT`). Driven on the FIRST heartbeat and on\r\n        // BOTH the trial candidate AND the rollback/recovery brain (one loop covers both);\r\n        // best-effort — a transient sessions error must never fell the heartbeat (the\r\n        // net_status probe above already owns broker-liveness). Self-applies: it drives\r\n        // the CURRENT (older) broker's already-shipped reap verb, so a new brain un-strands\r\n        // its own trial against a live older broker — no coordinated broker restart.\r\n        // [impl->REQ-UPDATE-TRIAL-DRAIN-DRIVE]\r\n        let _ = brain.sessions();\r\n        write_ready(generation);\r\n    }\r\n}\r\n\r\n/// Whether to spawn the net consumers this heartbeat: only once the broker\r\n/// reports a net endpoint up (`net_enabled`) AND we have not already started\r\n/// them. Pure for the unit table — the spawn-exactly-once + net-gating\r\n/// semantics that keep a single dispatcher/peer-pump set running.\r\n// [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\r\nfn consumer_gate(net_enabled: bool, already_started: bool) -> bool {\r\n    net_enabled && !already_started\r\n}\r\n\r\n/// Spawn the net consumers — the inbound dispatcher + the outbound peer pump\r\n/// (D9-1) — against the broker's socket. **Relocated from the broker process to\r\n/// the brain child (restoration D2-1):** both are standalone IPC clients\r\n/// (`Brain::cold_start`, no shared `Arc<Broker>`), so they belong with the\r\n/// restartable brain. Each mints its own registry + stop flag and connects\r\n/// independently; when the brain process exits these in-process threads die with\r\n/// it, and the respawned brain re-spawns them from the current binary. Mirrors\r\n/// the wiring the broker boot used to do, `node_hex` now sourced from the\r\n/// `net-status` reply rather than the broker's identity load.\r\n// [impl->REQ-HAZARD-BROKER-PROCESS-ISOLATION]\r\n// [impl->REQ-DAEMON-9]\r\nfn spawn_net_consumers(node_hex: &str) {\r\n    let registry = Arc::new(crate::registryhost::RegistryHost::new(node_hex));\r\n    let stop = Arc::new(AtomicBool::new(false));\r\n    let _ = crate::dispatch::spawn_dispatcher(\r\n        broker_socket_name(),\r\n        Arc::clone(&registry),\r\n        Arc::clone(&stop),\r\n    );\r\n    let cfg = crate::config::DaemonConfig::load();\r\n    if cfg.peer_pump {\r\n        let _ = crate::pump::spawn_peer_pump(broker_socket_name(), registry, cfg, stop);\r\n    }\r\n}\r\n\r\n/// Connect to the broker, retrying briefly while it finishes binding.\r\nfn connect_retry(name: &str, tries: u32) -> io::Result<Brain> {\r\n    let mut last: Option<io::Error> = None;\r\n    for _ in 0..tries {\r\n        match Brain::cold_start(name, now_ms()) {\r\n            Ok(b) => return Ok(b),\r\n            Err(e) => {\r\n                last = Some(e);\r\n                thread::sleep(Duration::from_millis(10));\r\n            }\n        }\n    }\n…\n}","startLine":159,"lineNumbers":[159,null,234,235,236,237,238,239,240,241,242,243,244,245,246,247,248,249,250,251,252,253,254,255,256,257,258,259,260,261,262,263,264,265,266,267,268,269,270,271,272,273,274,275,276,277,278,279,280,281,282,283,284,285,286,287,288,289,290,291,292,293,294,295,296,297,298,299,300,301,302,303,304,305,306,307,308,309,310,311,312,313,314,315,316,317,318,319,320,321,322,323,324,325,326,327,328,329,330,331,332,333,334,335,336,null,338]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\brainproc.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":2106,"totalBytes":5522,"outputLines":100,"outputBytes":5522,"shownRange":{"start":234,"end":333},"nextOffset":334}}},"isError":false,"timestamp":1784069230648}}
{"type":"message","id":"df17ae99","parentId":"51a245fc","timestamp":"2026-07-14T22:47:10.664Z","message":{"role":"toolResult","toolCallId":"call_74Tm2kKOHUJVi8l7fTwVmfMI|fc_0b084cf0b521ab15016a56bc6e30ac8190a86c619b614f3c79","toolName":"read","content":[{"type":"text","text":"pub fn node_label_display(node: &str, label: Option<&str>) -> String {\n    match label {\n        Some(l) if !l.trim().is_empty() => format!(\"{l} ({}…)\", key_prefix(node)),\n        _ => format!(\"{}…\", key_prefix(node)),\n    }\n}\n\n/// Project one subnet's registry into its resource-registry view, over\n/// **visible** rows only: `excluded(id)` is the same visibility closure the\n/// resolver uses ([`SubnetRegistry::resolve_visible`]), so a hidden endpoint\n/// never appears — discovery leaks nothing a viewer couldn't reach\n/// (ADR-0006 §6, exclusion by construction). Unroutable (`Offline`) rows are\n/// skipped too: a dead instance serves nothing, so it is not a resource.\n// [impl->REQ-INST-14]\npub fn resource_projection(\n    reg: &SubnetRegistry,\n    excluded: impl Fn(&str) -> bool,\n) -> Vec<ResourceRow> {\n    // Node-level label fill: an instance row carries its authoring node's label\n    // ([`Instance::node_label`]), but a row authored before the host stamped one\n    // (or by an endpoint-less node) may lack it — fall back to the dedicated\n    // node-label map so the canonical \"LABEL (keyprefix…)\" render never degrades\n    // to bare hex when the label IS known (REQ-PICKER-4).\n    let node_labels: std::collections::BTreeMap<&str, &str> = reg.node_labels().collect();\n    let mut out = Vec::new();\n    for id in reg.endpoint_ids() {\n        if excluded(id) {\n            continue;\n        }\n        for instance in reg.instances(id) {\n            if !instance.status.routable() {\n                continue;\n            }\n            let node_label = instance\n                .node_label\n                .clone()\n                .or_else(|| node_labels.get(instance.node.as_str()).map(|l| l.to_string()));\n            out.push(ResourceRow {\n                endpoint_id: id.to_string(),\n                node: instance.node.clone(),\n                status: instance.status,\n                resources: instance.resources.clone(),\n                node_label,\n                // The unified-display parity fields ride the projection so a\n                // remote picker row derives the SAME EpDisplay as a local one\n                // (REQ-SUBNET-DISPLAY-PARITY).\n                // [impl->REQ-SUBNET-DISPLAY-PARITY]\n                bound: instance.bound,\n                controller_node: instance.controller_node.clone(),\n                harness_only: instance.harness_only,\n                // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] additive type column.\n                endpoint_type: instance.endpoint_type.clone(),\n                // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] freshest-epoch merge key.\n                epoch: instance.epoch,\n                // The #4 de-faking datums (REQ-GOSSIP-ADAPTER-PROJECTS): the real\n                // adapter + recent projects + explicit any-controller truth ride the\n                // projection so `from_resource_row` stops faking remote rows.\n                // [impl->REQ-GOSSIP-ADAPTER-PROJECTS]\n                adapter: instance.adapter.clone(),\n                recent_projects: instance.recent_projects.clone(),\n                controlled: instance.controlled,\n            });\n        }\n    }\n…\n}\n\n[Showing lines 554-613 of 2572. Use :614 to continue]"}],"details":{"truncation":{"content":"        Some(l) if !l.trim().is_empty() => format!(\"{l} ({}…)\", key_prefix(node)),\r\n        _ => format!(\"{}…\", key_prefix(node)),\r\n    }\r\n}\r\n\r\n/// Project one subnet's registry into its resource-registry view, over\r\n/// **visible** rows only: `excluded(id)` is the same visibility closure the\r\n/// resolver uses ([`SubnetRegistry::resolve_visible`]), so a hidden endpoint\r\n/// never appears — discovery leaks nothing a viewer couldn't reach\r\n/// (ADR-0006 §6, exclusion by construction). Unroutable (`Offline`) rows are\r\n/// skipped too: a dead instance serves nothing, so it is not a resource.\r\n// [impl->REQ-INST-14]\r\npub fn resource_projection(\r\n    reg: &SubnetRegistry,\r\n    excluded: impl Fn(&str) -> bool,\r\n) -> Vec<ResourceRow> {\r\n    // Node-level label fill: an instance row carries its authoring node's label\r\n    // ([`Instance::node_label`]), but a row authored before the host stamped one\r\n    // (or by an endpoint-less node) may lack it — fall back to the dedicated\r\n    // node-label map so the canonical \"LABEL (keyprefix…)\" render never degrades\r\n    // to bare hex when the label IS known (REQ-PICKER-4).\r\n    let node_labels: std::collections::BTreeMap<&str, &str> = reg.node_labels().collect();\r\n    let mut out = Vec::new();\r\n    for id in reg.endpoint_ids() {\r\n        if excluded(id) {\r\n            continue;\r\n        }\r\n        for instance in reg.instances(id) {\r\n            if !instance.status.routable() {\r\n                continue;\r\n            }\r\n            let node_label = instance\r\n                .node_label\r\n                .clone()\r\n                .or_else(|| node_labels.get(instance.node.as_str()).map(|l| l.to_string()));\r\n            out.push(ResourceRow {\r\n                endpoint_id: id.to_string(),\r\n                node: instance.node.clone(),\r\n                status: instance.status,\r\n                resources: instance.resources.clone(),\r\n                node_label,\r\n                // The unified-display parity fields ride the projection so a\r\n                // remote picker row derives the SAME EpDisplay as a local one\r\n                // (REQ-SUBNET-DISPLAY-PARITY).\r\n                // [impl->REQ-SUBNET-DISPLAY-PARITY]\r\n                bound: instance.bound,\r\n                controller_node: instance.controller_node.clone(),\r\n                harness_only: instance.harness_only,\r\n                // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] additive type column.\r\n                endpoint_type: instance.endpoint_type.clone(),\r\n                // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] freshest-epoch merge key.\r\n                epoch: instance.epoch,\r\n                // The #4 de-faking datums (REQ-GOSSIP-ADAPTER-PROJECTS): the real\r\n                // adapter + recent projects + explicit any-controller truth ride the\r\n                // projection so `from_resource_row` stops faking remote rows.\r\n                // [impl->REQ-GOSSIP-ADAPTER-PROJECTS]\r\n                adapter: instance.adapter.clone(),\r\n                recent_projects: instance.recent_projects.clone(),\r\n                controlled: instance.controlled,\r\n            });\r","truncated":true,"truncatedBy":"lines","totalLines":2019,"totalBytes":3121,"outputLines":60,"outputBytes":3121,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"pub fn node_label_display(node: &str, label: Option<&str>) -> String {\n    match label {\n        Some(l) if !l.trim().is_empty() => format!(\"{l} ({}…)\", key_prefix(node)),\r\n        _ => format!(\"{}…\", key_prefix(node)),\r\n    }\r\n}\r\n\r\n/// Project one subnet's registry into its resource-registry view, over\r\n/// **visible** rows only: `excluded(id)` is the same visibility closure the\r\n/// resolver uses ([`SubnetRegistry::resolve_visible`]), so a hidden endpoint\r\n/// never appears — discovery leaks nothing a viewer couldn't reach\r\n/// (ADR-0006 §6, exclusion by construction). Unroutable (`Offline`) rows are\r\n/// skipped too: a dead instance serves nothing, so it is not a resource.\r\n// [impl->REQ-INST-14]\r\npub fn resource_projection(\r\n    reg: &SubnetRegistry,\r\n    excluded: impl Fn(&str) -> bool,\r\n) -> Vec<ResourceRow> {\r\n    // Node-level label fill: an instance row carries its authoring node's label\r\n    // ([`Instance::node_label`]), but a row authored before the host stamped one\r\n    // (or by an endpoint-less node) may lack it — fall back to the dedicated\r\n    // node-label map so the canonical \"LABEL (keyprefix…)\" render never degrades\r\n    // to bare hex when the label IS known (REQ-PICKER-4).\r\n    let node_labels: std::collections::BTreeMap<&str, &str> = reg.node_labels().collect();\r\n    let mut out = Vec::new();\r\n    for id in reg.endpoint_ids() {\r\n        if excluded(id) {\r\n            continue;\r\n        }\r\n        for instance in reg.instances(id) {\r\n            if !instance.status.routable() {\r\n                continue;\r\n            }\r\n            let node_label = instance\r\n                .node_label\r\n                .clone()\r\n                .or_else(|| node_labels.get(instance.node.as_str()).map(|l| l.to_string()));\r\n            out.push(ResourceRow {\r\n                endpoint_id: id.to_string(),\r\n                node: instance.node.clone(),\r\n                status: instance.status,\r\n                resources: instance.resources.clone(),\r\n                node_label,\r\n                // The unified-display parity fields ride the projection so a\r\n                // remote picker row derives the SAME EpDisplay as a local one\r\n                // (REQ-SUBNET-DISPLAY-PARITY).\r\n                // [impl->REQ-SUBNET-DISPLAY-PARITY]\r\n                bound: instance.bound,\r\n                controller_node: instance.controller_node.clone(),\r\n                harness_only: instance.harness_only,\r\n                // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] additive type column.\r\n                endpoint_type: instance.endpoint_type.clone(),\r\n                // [impl->REQ-ENDPOINT-LIST-NODE-GROUPED] freshest-epoch merge key.\r\n                epoch: instance.epoch,\r\n                // The #4 de-faking datums (REQ-GOSSIP-ADAPTER-PROJECTS): the real\r\n                // adapter + recent projects + explicit any-controller truth ride the\r\n                // projection so `from_resource_row` stops faking remote rows.\r\n                // [impl->REQ-GOSSIP-ADAPTER-PROJECTS]\r\n                adapter: instance.adapter.clone(),\r\n                recent_projects: instance.recent_projects.clone(),\r\n                controlled: instance.controlled,\r\n            });\r\n        }\n    }\n…\n}","startLine":552,"lineNumbers":[552,553,554,555,556,557,558,559,560,561,562,563,564,565,566,567,568,569,570,571,572,573,574,575,576,577,578,579,580,581,582,583,584,585,586,587,588,589,590,591,592,593,594,595,596,597,598,599,600,601,602,603,604,605,606,607,608,609,610,611,612,613,614,615,null,617]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-net\\src\\net\\registry.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":2572,"totalBytes":3121,"outputLines":60,"outputBytes":3121,"shownRange":{"start":554,"end":613},"nextOffset":614}}},"isError":false,"timestamp":1784069230664}}
{"type":"message","id":"35f65e26","parentId":"df17ae99","timestamp":"2026-07-14T22:47:16.896Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Assessing seedproof protocol deadlock**"},{"type":"toolCall","id":"call_nby5XSUAf3fRsdFzMfVD92Ev|fc_0b084cf0b521ab15016a56bc72a8a48190b04f663a77e03006","name":"irc","arguments":{"i":"Requesting EN credential comparison","op":"send","to":"Main","message":"Can you provide EN subnet.json seed_hex/epoch, attachment+daemon peer_pump/relay, and peer-addrs entries for HF? This distinguishes seed-proof/protocol from address/bootstrap and detach. HF has SPT_DEV 04d75f… epoch1, BIGNET f66208… epoch1; attachment/config detached=[], relay n0, pump true.","replyTo":null,"await":false,"from":null,"timeoutMs":null,"peek":null}}],"api":"openai-codex-responses","provider":"openai-codex","model":"gpt-5.6-sol","usage":{"input":12993,"output":189,"cacheRead":226816,"cacheWrite":0,"totalTokens":239998,"reasoningTokens":58,"cost":{"input":0.06496500000000001,"output":0.0056700000000000006,"cacheRead":0.113408,"cacheWrite":0,"total":0.184043}},"stopReason":"toolUse","timestamp":1784069230709,"responseId":"resp_0b084cf0b521ab15016a56bc6ef2888190bf3f9bc504586251","providerPayload":{"type":"openaiResponsesHistory","provider":"openai-codex","dt":true,"items":[{"id":"rs_0b084cf0b521ab15016a56bc7105ec8190a0786d6339962f2f","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVrxy4Y0nOxZ_NuYas6ji6uQzojCGsi_-zDEuUMzYVQjPEdmgr8RhbFVoMUJ03NBe133EnV1kBi2Ms062QUVR2QIq9h6Sfyrex6_9W6CVPqae5wKB5jgWzC9Pg13t7lSEOkCCuNrRGLWZKTURlogqnKzqyECjVvOeIsgKTfxlWkeyE2ggYdItD2uJ76llXlz-s0gQvKI03nZvGnfHspR2RUld2m_oabLcXh3S6YNQRgye1tlITLVLmAOme1y4atG5aqg4TtfssEm-IlX-AGwwnUqCtA_eGBEumR40Bl9-B4hsePb65P9gh7VNb_yMHcM6LuAEsZT9N-kE9MROqjN7sWqUFEVoZSnH4B2rEvgx5IafMhcAwEsSRLmped-HGCUy1khm9xe8zTngZuaYYMRXZlNrajpmI0_A9ji0r3cIqc5b4GpdEL43_Xfsxnb3Vib5M4DrTAOWDXDnHyxkSuKi0EqtsbO5p9dZIBNpG9ZdT7XP-6e-Smcvz2Gs1m-nRaIqxcuIChRoPqnN7HTlgHqtSI4mj167VpnYRICtS_RWGTCmKyMwtvdB_-GcTaanpkGZ3sII3-A2emtkk0oJQKvL5sCZY7jFuvWyZROttZ2QHXXrTF_0T3tKut2KO-XbpE5pNDE4JZl3MTtXsg6lK98lrT_EVa0MYexvQ43sdtfKn9Pq0JF0KHRDXUn_PbulKHSTeWJ_OxIGGwsuPe9jaJF1yYaRrHQnRzggmhVoOyLnzUC44vMkAE0TJycrdryblDkkcvrTE13e3BXBg-OYDhYJZkF6xddJkgS3S1dFER550PKFuHHP-yC6orFe26ATir13Nzk_RsyU0487VlYf1oUDHCYhbQmho4XATPIQBm-tjtPwUqDMH9keSRlwPhJFd6nHlbDuNwZvilv6_muouiIi-lQM85-jx85kGBZlMAbx5J1RzlksnpRvFw02I7ryP8yfe5AjSHko4VmsUTAqOVfDLJW7jbod1qB0j177NejmO6X5GZW8gMXnv-q152WXR_ff69l0GLeIsvxXqVDCurZPuP3J94kgTAoycsfo6j9Y5Mb_bQzCz_8Qy7d6wPiF6ZDWqgUBkS76LZifNuY2DGa0eKj3egfixxT4nBOoeIApODYWzElWZzM63BVL4-dKt7yRDD7yeg9B6WM1eZWo_FCwcQDPq1q1sBeZNeciu62PWQHmfKJVGyabJ29-bEdUMLpwlY4mEkOftShKkGB2BY1oHXs3KVQiNrWpcxikcMsNFGmdsq8=","summary":[{"type":"summary_text","text":"**Assessing seedproof protocol deadlock**"}]},{"id":"fc_0b084cf0b521ab15016a56bc72a8a48190b04f663a77e03006","type":"function_call","status":"completed","arguments":"{\"i\":\"Requesting EN credential comparison\",\"op\":\"send\",\"to\":\"Main\",\"message\":\"Can you provide EN subnet.json seed_hex/epoch, attachment+daemon peer_pump/relay, and peer-addrs entries for HF? This distinguishes seed-proof/protocol from address/bootstrap and detach. HF has SPT_DEV 04d75f… epoch1, BIGNET f66208… epoch1; attachment/config detached=[], relay n0, pump true.\",\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_nby5XSUAf3fRsdFzMfVD92Ev","name":"irc"}]},"duration":6185.390900015831,"ttft":2353.8454999923706,"contextSnapshot":{"promptTokens":239809,"nonMessageTokens":17981}}}
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{"type":"custom","customType":"tool_execution_start","data":{"toolCallId":"call_L6J607qmdIZanMGIY6mdk0Ji|fc_0b084cf0b521ab15016a56bc8dbd1c8190bde8a6a0135fb397","toolName":"read","startedAt":"2026-07-14T22:47:41.945Z","args":{"path":"spt-core/crates/spt-store/src/attachment.rs"},"intent":"Reading attachment persistence"},"id":"923f450b","parentId":"c0aa54d3","timestamp":"2026-07-14T22:47:41.945Z"}
{"type":"message","id":"5fd13b30","parentId":"923f450b","timestamp":"2026-07-14T22:47:41.950Z","message":{"role":"toolResult","toolCallId":"call_L6J607qmdIZanMGIY6mdk0Ji|fc_0b084cf0b521ab15016a56bc8dbd1c8190bde8a6a0135fb397","toolName":"read","content":[{"type":"text","text":"//! Per-subnet **serve-state** — attached / detached (M8 decision 6,\n//! REQ-SUBNET-5; CONTEXT §subnet attachment).\n//!\n//! A held membership (the seed in `subnet.json`) and whether the daemon is\n//! **actively serving** it are different facts. Detached = the membership\n//! record stays on disk, but the daemon neither advertises into nor connects\n//! to that subnet — pairing responder refuses it, the rendezvous meet skips\n//! it, the registry gossip pump skips it. Attached is the default.\n//!\n//! Two layers:\n//! - **Live state** = this file (`identity/attachment.json`), re-read by the\n//!   pump/responder per round (the config-freshness stance — a flip takes\n//!   effect without a daemon restart).\n//! - **Startup default** = `daemon.json` `detached_subnets` (the `--save`\n//!   flag writes it); the daemon RESETS this file from the config at boot,\n//!   so an unsaved flip deliberately does not survive a restart.\n// [impl->REQ-SUBNET-5]\n\nuse std::collections::BTreeSet;\nuse std::path::{Path, PathBuf};\n\nuse serde::{Deserialize, Serialize};\n\nuse crate::atomic::atomic_write_string;\nuse crate::subnet::SubnetStore;\n\n/// The canonical live-state path: `<spt_home>/identity/attachment.json`.\npub fn attachment_file() -> PathBuf {\n    crate::perch::spt_home()\n        .join(\"identity\")\n        .join(\"attachment.json\")\n}\n\n/// The on-disk + in-memory shape: the DETACHED set (attached is the default,\n/// so an absent file — or an absent name — means attached).\n#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\npub struct AttachmentStore {\n    /// Subnets deliberately not served right now.\n    #[serde(default)]\n    pub detached: BTreeSet<String>,\n}\n\nimpl AttachmentStore {\n    /// Load from the canonical [`attachment_file`]. Absent ⇒ everything\n    /// attached (the default state) — never an error.\n    pub fn load() -> AttachmentStore {\n        Self::load_from(&attachment_file())\n    }\n\n    /// Load from an explicit path. Absent/corrupt degrades to all-attached\n    /// (a broken state file must not silently detach a node's subnets).\n    pub fn load_from(path: &Path) -> AttachmentStore {\n        match std::fs::read_to_string(path) {\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\n            Err(_) => AttachmentStore::default(),\n        }\n    }\n\n    /// Persist to the canonical path.\n    pub fn save(&self) -> std::io::Result<()> {\n        self.save_to(&attachment_file())\n    }\n\n    /// Persist to an explicit path (atomic; creates the parent dir).\n    pub fn save_to(&self, path: &Path) -> std::io::Result<()> {\n        if let Some(parent) = path.parent() {\n            std::fs::create_dir_all(parent)?;\n        }\n        let json =\n            serde_json::to_string_pretty(self).map_err(|e| std::io::Error::other(e.to_string()))?;\n        atomic_write_string(path, &json)\n    }\n\n    /// Whether `name` is deliberately not served right now.\n    pub fn is_detached(&self, name: &str) -> bool {\n        self.detached.contains(name)\n    }\n\n    /// Flip one subnet's serve-state. Returns `true` when the state changed\n    /// (idempotent UX: re-attaching an attached subnet is a no-edge).\n    pub fn set_detached(&mut self, name: &str, detached: bool) -> bool {\n        if detached {\n            self.detached.insert(name.to_string())\n        } else {\n            self.detached.remove(name)\n        }\n    }\n\n    /// The daemon-boot reset (M8 decision 6): live state starts from the\n    /// config's startup defaults — an unsaved flip does not survive a\n    /// restart by design (`--save` is the persistence).\n    pub fn reset_to(defaults: &[String]) -> AttachmentStore {\n        AttachmentStore {\n            detached: defaults.iter().cloned().collect(),\n        }\n    }\n\n    /// Drop detached subnets from a [`SubnetStore`] view — the serving\n    /// filter the pairing responder applies (a detached subnet answers like\n    /// one this node does not hold; the membership record itself is\n    /// untouched on disk).\n    pub fn filter_serving(&self, store: &mut SubnetStore) {\n        store.subnets.retain(|s| !self.is_detached(&s.name));\n    }\n}\n\n#[cfg(test)]\nmod tests {\n    use super::*;\n\n    // [unit->REQ-SUBNET-5] attached is the default: an absent file detaches\n    // nothing; set/unset flips are idempotent and round-trip through disk.\n    #[test]\n…\n}\n\n[Showing lines 1-113 of 167. Use :114 to continue]"}],"details":{"truncation":{"content":"//! Per-subnet **serve-state** — attached / detached (M8 decision 6,\r\n//! REQ-SUBNET-5; CONTEXT §subnet attachment).\r\n//!\r\n//! A held membership (the seed in `subnet.json`) and whether the daemon is\r\n//! **actively serving** it are different facts. Detached = the membership\r\n//! record stays on disk, but the daemon neither advertises into nor connects\r\n//! to that subnet — pairing responder refuses it, the rendezvous meet skips\r\n//! it, the registry gossip pump skips it. Attached is the default.\r\n//!\r\n//! Two layers:\r\n//! - **Live state** = this file (`identity/attachment.json`), re-read by the\r\n//!   pump/responder per round (the config-freshness stance — a flip takes\r\n//!   effect without a daemon restart).\r\n//! - **Startup default** = `daemon.json` `detached_subnets` (the `--save`\r\n//!   flag writes it); the daemon RESETS this file from the config at boot,\r\n//!   so an unsaved flip deliberately does not survive a restart.\r\n// [impl->REQ-SUBNET-5]\r\n\r\nuse std::collections::BTreeSet;\r\nuse std::path::{Path, PathBuf};\r\n\r\nuse serde::{Deserialize, Serialize};\r\n\r\nuse crate::atomic::atomic_write_string;\r\nuse crate::subnet::SubnetStore;\r\n\r\n/// The canonical live-state path: `<spt_home>/identity/attachment.json`.\r\npub fn attachment_file() -> PathBuf {\r\n    crate::perch::spt_home()\r\n        .join(\"identity\")\r\n        .join(\"attachment.json\")\r\n}\r\n\r\n/// The on-disk + in-memory shape: the DETACHED set (attached is the default,\r\n/// so an absent file — or an absent name — means attached).\r\n#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\r\npub struct AttachmentStore {\r\n    /// Subnets deliberately not served right now.\r\n    #[serde(default)]\r\n    pub detached: BTreeSet<String>,\r\n}\r\n\r\nimpl AttachmentStore {\r\n    /// Load from the canonical [`attachment_file`]. Absent ⇒ everything\r\n    /// attached (the default state) — never an error.\r\n    pub fn load() -> AttachmentStore {\r\n        Self::load_from(&attachment_file())\r\n    }\r\n\r\n    /// Load from an explicit path. Absent/corrupt degrades to all-attached\r\n    /// (a broken state file must not silently detach a node's subnets).\r\n    pub fn load_from(path: &Path) -> AttachmentStore {\r\n        match std::fs::read_to_string(path) {\r\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\r\n            Err(_) => AttachmentStore::default(),\r\n        }\r\n    }\r\n\r\n    /// Persist to the canonical path.\r\n    pub fn save(&self) -> std::io::Result<()> {\r\n        self.save_to(&attachment_file())\r\n    }\r\n\r\n    /// Persist to an explicit path (atomic; creates the parent dir).\r\n    pub fn save_to(&self, path: &Path) -> std::io::Result<()> {\r\n        if let Some(parent) = path.parent() {\r\n            std::fs::create_dir_all(parent)?;\r\n        }\r\n        let json =\r\n            serde_json::to_string_pretty(self).map_err(|e| std::io::Error::other(e.to_string()))?;\r\n        atomic_write_string(path, &json)\r\n    }\r\n\r\n    /// Whether `name` is deliberately not served right now.\r\n    pub fn is_detached(&self, name: &str) -> bool {\r\n        self.detached.contains(name)\r\n    }\r\n\r\n    /// Flip one subnet's serve-state. Returns `true` when the state changed\r\n    /// (idempotent UX: re-attaching an attached subnet is a no-edge).\r\n    pub fn set_detached(&mut self, name: &str, detached: bool) -> bool {\r\n        if detached {\r\n            self.detached.insert(name.to_string())\r\n        } else {\r\n            self.detached.remove(name)\r\n        }\r\n    }\r\n\r\n    /// The daemon-boot reset (M8 decision 6): live state starts from the\r\n    /// config's startup defaults — an unsaved flip does not survive a\r\n    /// restart by design (`--save` is the persistence).\r\n    pub fn reset_to(defaults: &[String]) -> AttachmentStore {\r\n        AttachmentStore {\r\n            detached: defaults.iter().cloned().collect(),\r\n        }\r\n    }\r\n\r\n    /// Drop detached subnets from a [`SubnetStore`] view — the serving\r\n    /// filter the pairing responder applies (a detached subnet answers like\r\n    /// one this node does not hold; the membership record itself is\r\n    /// untouched on disk).\r\n    pub fn filter_serving(&self, store: &mut SubnetStore) {\r\n        store.subnets.retain(|s| !self.is_detached(&s.name));\r\n    }\r\n}\r\n\r\n#[cfg(test)]\r\nmod tests {\r\n    use super::*;\r\n\r\n    // [unit->REQ-SUBNET-5] attached is the default: an absent file detaches\r\n    // nothing; set/unset flips are idempotent and round-trip through disk.\r\n    #[test]\r","truncated":true,"truncatedBy":"lines","totalLines":167,"totalBytes":4448,"outputLines":113,"outputBytes":4448,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"//! Per-subnet **serve-state** — attached / detached (M8 decision 6,\r\n//! REQ-SUBNET-5; CONTEXT §subnet attachment).\r\n//!\r\n//! A held membership (the seed in `subnet.json`) and whether the daemon is\r\n//! **actively serving** it are different facts. Detached = the membership\r\n//! record stays on disk, but the daemon neither advertises into nor connects\r\n//! to that subnet — pairing responder refuses it, the rendezvous meet skips\r\n//! it, the registry gossip pump skips it. Attached is the default.\r\n//!\r\n//! Two layers:\r\n//! - **Live state** = this file (`identity/attachment.json`), re-read by the\r\n//!   pump/responder per round (the config-freshness stance — a flip takes\r\n//!   effect without a daemon restart).\r\n//! - **Startup default** = `daemon.json` `detached_subnets` (the `--save`\r\n//!   flag writes it); the daemon RESETS this file from the config at boot,\r\n//!   so an unsaved flip deliberately does not survive a restart.\r\n// [impl->REQ-SUBNET-5]\r\n\r\nuse std::collections::BTreeSet;\r\nuse std::path::{Path, PathBuf};\r\n\r\nuse serde::{Deserialize, Serialize};\r\n\r\nuse crate::atomic::atomic_write_string;\r\nuse crate::subnet::SubnetStore;\r\n\r\n/// The canonical live-state path: `<spt_home>/identity/attachment.json`.\r\npub fn attachment_file() -> PathBuf {\r\n    crate::perch::spt_home()\r\n        .join(\"identity\")\r\n        .join(\"attachment.json\")\r\n}\r\n\r\n/// The on-disk + in-memory shape: the DETACHED set (attached is the default,\r\n/// so an absent file — or an absent name — means attached).\r\n#[derive(Debug, Clone, Default, Serialize, Deserialize, PartialEq, Eq)]\r\npub struct AttachmentStore {\r\n    /// Subnets deliberately not served right now.\r\n    #[serde(default)]\r\n    pub detached: BTreeSet<String>,\r\n}\r\n\r\nimpl AttachmentStore {\r\n    /// Load from the canonical [`attachment_file`]. Absent ⇒ everything\r\n    /// attached (the default state) — never an error.\r\n    pub fn load() -> AttachmentStore {\r\n        Self::load_from(&attachment_file())\r\n    }\r\n\r\n    /// Load from an explicit path. Absent/corrupt degrades to all-attached\r\n    /// (a broken state file must not silently detach a node's subnets).\r\n    pub fn load_from(path: &Path) -> AttachmentStore {\r\n        match std::fs::read_to_string(path) {\r\n            Ok(s) => serde_json::from_str(&s).unwrap_or_default(),\r\n            Err(_) => AttachmentStore::default(),\r\n        }\r\n    }\r\n\r\n    /// Persist to the canonical path.\r\n    pub fn save(&self) -> std::io::Result<()> {\r\n        self.save_to(&attachment_file())\r\n    }\r\n\r\n    /// Persist to an explicit path (atomic; creates the parent dir).\r\n    pub fn save_to(&self, path: &Path) -> std::io::Result<()> {\r\n        if let Some(parent) = path.parent() {\r\n            std::fs::create_dir_all(parent)?;\r\n        }\r\n        let json =\r\n            serde_json::to_string_pretty(self).map_err(|e| std::io::Error::other(e.to_string()))?;\r\n        atomic_write_string(path, &json)\r\n    }\r\n\r\n    /// Whether `name` is deliberately not served right now.\r\n    pub fn is_detached(&self, name: &str) -> bool {\r\n        self.detached.contains(name)\r\n    }\r\n\r\n    /// Flip one subnet's serve-state. Returns `true` when the state changed\r\n    /// (idempotent UX: re-attaching an attached subnet is a no-edge).\r\n    pub fn set_detached(&mut self, name: &str, detached: bool) -> bool {\r\n        if detached {\r\n            self.detached.insert(name.to_string())\r\n        } else {\r\n            self.detached.remove(name)\r\n        }\r\n    }\r\n\r\n    /// The daemon-boot reset (M8 decision 6): live state starts from the\r\n    /// config's startup defaults — an unsaved flip does not survive a\r\n    /// restart by design (`--save` is the persistence).\r\n    pub fn reset_to(defaults: &[String]) -> AttachmentStore {\r\n        AttachmentStore {\r\n            detached: defaults.iter().cloned().collect(),\r\n        }\r\n    }\r\n\r\n    /// Drop detached subnets from a [`SubnetStore`] view — the serving\r\n    /// filter the pairing responder applies (a detached subnet answers like\r\n    /// one this node does not hold; the membership record itself is\r\n    /// untouched on disk).\r\n    pub fn filter_serving(&self, store: &mut SubnetStore) {\r\n        store.subnets.retain(|s| !self.is_detached(&s.name));\r\n    }\r\n}\r\n\r\n#[cfg(test)]\r\nmod tests {\r\n    use super::*;\r\n\r\n    // [unit->REQ-SUBNET-5] attached is the default: an absent file detaches\r\n    // nothing; set/unset flips are idempotent and round-trip through disk.\r\n    #[test]\r\n…\n}","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,null,166]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-store\\src\\attachment.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":167,"totalBytes":4448,"outputLines":113,"outputBytes":4448,"shownRange":{"start":1,"end":113},"nextOffset":114}}},"isError":false,"timestamp":1784069261950}}
{"type":"message","id":"9d8fb1d5","parentId":"5fd13b30","timestamp":"2026-07-14T22:47:41.950Z","message":{"role":"toolResult","toolCallId":"call_YpW7L11oDxkNkMu6dlS00pSv|fc_0b084cf0b521ab15016a56bc8dbc488190b1fe1d866f043dab","toolName":"grep","content":[{"type":"text","text":"Skipped due to queued user message. Do not count this skipped result as completed work or verification. After the queued message is handled on the next step, retry the skipped tool if it is still needed."}],"details":{},"isError":true,"timestamp":1784069261950}}
{"type":"message","id":"059ebb2d","parentId":"9d8fb1d5","timestamp":"2026-07-14T22:47:41.950Z","message":{"role":"toolResult","toolCallId":"call_SwBzYz4WGdWic62uywcDZOka|fc_0b084cf0b521ab15016a56bc8dbc5c8190aec817d05a4d7ad7","toolName":"grep","content":[{"type":"text","text":"Skipped due to queued user message. Do not count this skipped result as completed work or verification. After the queued message is handled on the next step, retry the skipped tool if it is still needed."}],"details":{},"isError":true,"timestamp":1784069261950}}
{"type":"message","id":"e700a4a0","parentId":"059ebb2d","timestamp":"2026-07-14T22:47:41.950Z","message":{"role":"toolResult","toolCallId":"call_IEJ2dMKrlPbataFJoNc12gXq|fc_0b084cf0b521ab15016a56bc8dbc6881908d890f281cc21212","toolName":"grep","content":[{"type":"text","text":"Skipped due to queued user message. Do not count this skipped result as completed work or verification. After the queued message is handled on the next step, retry the skipped tool if it is still needed."}],"details":{},"isError":true,"timestamp":1784069261950}}
{"type":"message","id":"b27f6add","parentId":"e700a4a0","timestamp":"2026-07-14T22:47:41.964Z","message":{"role":"toolResult","toolCallId":"call_ikTFMp8ISj1wt3gGj6yKsmrc|fc_0b084cf0b521ab15016a56bc8dbd0c81908ff55539bc4ded94","toolName":"read","content":[{"type":"text","text":"    if ($env:SPT_INSTALL_NO_PATH -ne '1') {\n        $userPath = [Environment]::GetEnvironmentVariable('Path', 'User')\n…\n        if ($entries -notcontains $installDir.TrimEnd('\\')) {\n            $newPath = if ($userPath -and -not $userPath.EndsWith(';')) { \"$userPath;$installDir\" } else { \"$userPath$installDir\" }\n            [Environment]::SetEnvironmentVariable('Path', $newPath, 'User')\n            $pathNote = \"Registered $installDir on your user PATH (takes effect in NEW terminals only).\"\n        }\n    }\n\n    # ---- inbound firewall rule (M8 root cause 3, REQ-INSTALL-7) ---------------\n    # [impl->REQ-INSTALL-7] a detached daemon never triggers the first-bind\n    # firewall prompt, so a fresh Windows install is silently unreachable\n    # inbound (mDNS + QUIC meet/pairing UDP drop with no rendered cause -\n    # the M7 NO_SEED_HOLDER). The elevated install leg registers the rule;\n    # an unelevated run prints the exact command instead of prompting.\n    $fwRuleName = 'spt-core inbound UDP'\n    if ($env:SPT_INSTALL_NO_FIREWALL -ne '1') {\n        $isElevated = ([Security.Principal.WindowsPrincipal][Security.Principal.WindowsIdentity]::GetCurrent()\n                      ).IsInRole([Security.Principal.WindowsBuiltInRole]::Administrator)\n        if ($isElevated) {\n            try {\n                # Idempotent: replace any prior rule (the binary path may have\n                # moved); netsh, not New-NetFirewallRule - works on PS 5.1\n                # hardened boxes without the NetSecurity module.\n                netsh advfirewall firewall delete rule name=\"$fwRuleName\" | Out-Null\n                netsh advfirewall firewall add rule name=\"$fwRuleName\" dir=in action=allow protocol=UDP program=\"$target\" | Out-Null\n                Write-Output \"spt-install: registered inbound UDP firewall rule for $target\"\n            } catch {\n                Write-Output \"spt-install: warning: firewall rule registration failed: $_\"\n            }\n        } else {\n            Write-Output \"spt-install: NOT elevated - inbound UDP may be blocked (joins toward this node can fail).\"\n            Write-Output \"spt-install: to fix, run elevated:  netsh advfirewall firewall add rule name=`\"$fwRuleName`\" dir=in action=allow protocol=UDP program=`\"$target`\"\"\n        }\n    }\n\n    # ---- at-logon scheduled task (M8 decision 17, REQ-INSTALL-8) --------------\n    # [impl->REQ-INSTALL-8] reboot-survivable daemon: an at-logon scheduled\n    # task in the user's interactive session - no stored credentials, no\n    # session-0 isolation (the daemon hosts terminals), registrable for the\n    # OWN account without elevation. schtasks, not Register-ScheduledTask,\n    # for the same PS 5.1 hardened-box reason as netsh above.\n\n[Showing lines 149-188 of 220. Use :189 to continue]"}],"details":{"truncation":{"content":"        if ($entries -notcontains $installDir.TrimEnd('\\')) {\n            $newPath = if ($userPath -and -not $userPath.EndsWith(';')) { \"$userPath;$installDir\" } else { \"$userPath$installDir\" }\n            [Environment]::SetEnvironmentVariable('Path', $newPath, 'User')\n            $pathNote = \"Registered $installDir on your user PATH (takes effect in NEW terminals only).\"\n        }\n    }\n\n    # ---- inbound firewall rule (M8 root cause 3, REQ-INSTALL-7) ---------------\n    # [impl->REQ-INSTALL-7] a detached daemon never triggers the first-bind\n    # firewall prompt, so a fresh Windows install is silently unreachable\n    # inbound (mDNS + QUIC meet/pairing UDP drop with no rendered cause -\n    # the M7 NO_SEED_HOLDER). The elevated install leg registers the rule;\n    # an unelevated run prints the exact command instead of prompting.\n    $fwRuleName = 'spt-core inbound UDP'\n    if ($env:SPT_INSTALL_NO_FIREWALL -ne '1') {\n        $isElevated = ([Security.Principal.WindowsPrincipal][Security.Principal.WindowsIdentity]::GetCurrent()\n                      ).IsInRole([Security.Principal.WindowsBuiltInRole]::Administrator)\n        if ($isElevated) {\n            try {\n                # Idempotent: replace any prior rule (the binary path may have\n                # moved); netsh, not New-NetFirewallRule - works on PS 5.1\n                # hardened boxes without the NetSecurity module.\n                netsh advfirewall firewall delete rule name=\"$fwRuleName\" | Out-Null\n                netsh advfirewall firewall add rule name=\"$fwRuleName\" dir=in action=allow protocol=UDP program=\"$target\" | Out-Null\n                Write-Output \"spt-install: registered inbound UDP firewall rule for $target\"\n            } catch {\n                Write-Output \"spt-install: warning: firewall rule registration failed: $_\"\n            }\n        } else {\n            Write-Output \"spt-install: NOT elevated - inbound UDP may be blocked (joins toward this node can fail).\"\n            Write-Output \"spt-install: to fix, run elevated:  netsh advfirewall firewall add rule name=`\"$fwRuleName`\" dir=in action=allow protocol=UDP program=`\"$target`\"\"\n        }\n    }\n\n    # ---- at-logon scheduled task (M8 decision 17, REQ-INSTALL-8) --------------\n    # [impl->REQ-INSTALL-8] reboot-survivable daemon: an at-logon scheduled\n    # task in the user's interactive session - no stored credentials, no\n    # session-0 isolation (the daemon hosts terminals), registrable for the\n    # OWN account without elevation. schtasks, not Register-ScheduledTask,\n    # for the same PS 5.1 hardened-box reason as netsh above.","truncated":true,"truncatedBy":"lines","totalLines":72,"totalBytes":2602,"outputLines":40,"outputBytes":2602,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"    if ($env:SPT_INSTALL_NO_PATH -ne '1') {\n        $userPath = [Environment]::GetEnvironmentVariable('Path', 'User')\n…\n        if ($entries -notcontains $installDir.TrimEnd('\\')) {\n            $newPath = if ($userPath -and -not $userPath.EndsWith(';')) { \"$userPath;$installDir\" } else { \"$userPath$installDir\" }\n            [Environment]::SetEnvironmentVariable('Path', $newPath, 'User')\n            $pathNote = \"Registered $installDir on your user PATH (takes effect in NEW terminals only).\"\n        }\n    }\n\n    # ---- inbound firewall rule (M8 root cause 3, REQ-INSTALL-7) ---------------\n    # [impl->REQ-INSTALL-7] a detached daemon never triggers the first-bind\n    # firewall prompt, so a fresh Windows install is silently unreachable\n    # inbound (mDNS + QUIC meet/pairing UDP drop with no rendered cause -\n    # the M7 NO_SEED_HOLDER). The elevated install leg registers the rule;\n    # an unelevated run prints the exact command instead of prompting.\n    $fwRuleName = 'spt-core inbound UDP'\n    if ($env:SPT_INSTALL_NO_FIREWALL -ne '1') {\n        $isElevated = ([Security.Principal.WindowsPrincipal][Security.Principal.WindowsIdentity]::GetCurrent()\n                      ).IsInRole([Security.Principal.WindowsBuiltInRole]::Administrator)\n        if ($isElevated) {\n            try {\n                # Idempotent: replace any prior rule (the binary path may have\n                # moved); netsh, not New-NetFirewallRule - works on PS 5.1\n                # hardened boxes without the NetSecurity module.\n                netsh advfirewall firewall delete rule name=\"$fwRuleName\" | Out-Null\n                netsh advfirewall firewall add rule name=\"$fwRuleName\" dir=in action=allow protocol=UDP program=\"$target\" | Out-Null\n                Write-Output \"spt-install: registered inbound UDP firewall rule for $target\"\n            } catch {\n                Write-Output \"spt-install: warning: firewall rule registration failed: $_\"\n            }\n        } else {\n            Write-Output \"spt-install: NOT elevated - inbound UDP may be blocked (joins toward this node can fail).\"\n            Write-Output \"spt-install: to fix, run elevated:  netsh advfirewall firewall add rule name=`\"$fwRuleName`\" dir=in action=allow protocol=UDP program=`\"$target`\"\"\n        }\n    }\n\n    # ---- at-logon scheduled task (M8 decision 17, REQ-INSTALL-8) --------------\n    # [impl->REQ-INSTALL-8] reboot-survivable daemon: an at-logon scheduled\n    # task in the user's interactive session - no stored credentials, no\n    # session-0 isolation (the daemon hosts terminals), registrable for the\n    # OWN account without elevation. schtasks, not Register-ScheduledTask,\n    # for the same PS 5.1 hardened-box reason as netsh above.","startLine":145,"lineNumbers":[145,146,null,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,179,180,181,182,183,184,185,186,187,188]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\installer\\install.ps1"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":220,"totalBytes":2602,"outputLines":40,"outputBytes":2602,"shownRange":{"start":149,"end":188},"nextOffset":189}}},"isError":false,"timestamp":1784069261964}}
{"type":"message","id":"b0fa94af","parentId":"b27f6add","timestamp":"2026-07-14T22:47:41.977Z","message":{"role":"toolResult","toolCallId":"call_O7YkmxuS6t5b31ViFXQAXKEk|fc_0b084cf0b521ab15016a56bc8dbd148190b51e73569cfd7f47","toolName":"read","content":[{"type":"text","text":"pub struct ErrorEvent {\n…\n    pub message: String,\n}\n\n/// `net-status-reply` — the broker-owned endpoint's status (D4a). All fields\n/// after `enabled` are defaulted so a broker bound without a network host (or an\n/// older broker) still produces/decodes a coherent reply (2.3 forward-compat).\n#[derive(Debug, Clone, Serialize, Deserialize)]\npub struct NetStatusReply {\n    /// Whether this broker hosts a net endpoint at all.\n    pub enabled: bool,\n    /// The node's stable name (lowercase-hex Ed25519 pubkey == iroh EndpointId).\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n    pub node_id_hex: Option<String>,\n    /// The endpoint's dialable address — a serde-serialized iroh `EndpointAddr`,\n    /// opaque to this catalog (the net host owns its shape). `null` when disabled.\n    #[serde(default)]\n    pub addr: serde_json::Value,\n    /// Live connections (accepted + dialed) in the broker's conn table.\n    #[serde(default)]\n    pub conn_count: u64,\n}\n\n/// `broker-image-reply` — the semver the RUNNING broker process was compiled with\n/// (its own `CARGO_PKG_VERSION`), the authoritative running-image version for the\n/// F-025 version surface (a surviving old broker honestly reports the pre-apply\n/// version). `version` is defaulted so a truncated/older reply still decodes\n/// (2.3 forward-compat).\n#[derive(Debug, Clone, Serialize, Deserialize)]\npub struct BrokerImageReply {\n    /// The broker's compiled image version (semver).\n…\n}\n\n[Showing lines 519-548 of 1478. Use :549 to continue]"}],"details":{"truncation":{"content":"    pub message: String,\r\n}\r\n\r\n/// `net-status-reply` — the broker-owned endpoint's status (D4a). All fields\r\n/// after `enabled` are defaulted so a broker bound without a network host (or an\r\n/// older broker) still produces/decodes a coherent reply (2.3 forward-compat).\r\n#[derive(Debug, Clone, Serialize, Deserialize)]\r\npub struct NetStatusReply {\r\n    /// Whether this broker hosts a net endpoint at all.\r\n    pub enabled: bool,\r\n    /// The node's stable name (lowercase-hex Ed25519 pubkey == iroh EndpointId).\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    pub node_id_hex: Option<String>,\r\n    /// The endpoint's dialable address — a serde-serialized iroh `EndpointAddr`,\r\n    /// opaque to this catalog (the net host owns its shape). `null` when disabled.\r\n    #[serde(default)]\r\n    pub addr: serde_json::Value,\r\n    /// Live connections (accepted + dialed) in the broker's conn table.\r\n    #[serde(default)]\r\n    pub conn_count: u64,\r\n}\r\n\r\n/// `broker-image-reply` — the semver the RUNNING broker process was compiled with\r\n/// (its own `CARGO_PKG_VERSION`), the authoritative running-image version for the\r\n/// F-025 version surface (a surviving old broker honestly reports the pre-apply\r\n/// version). `version` is defaulted so a truncated/older reply still decodes\r\n/// (2.3 forward-compat).\r\n#[derive(Debug, Clone, Serialize, Deserialize)]\r\npub struct BrokerImageReply {\r\n    /// The broker's compiled image version (semver).\r","truncated":true,"truncatedBy":"lines","totalLines":960,"totalBytes":1468,"outputLines":30,"outputBytes":1468,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"pub struct ErrorEvent {\n…\n    pub message: String,\r\n}\r\n\r\n/// `net-status-reply` — the broker-owned endpoint's status (D4a). All fields\r\n/// after `enabled` are defaulted so a broker bound without a network host (or an\r\n/// older broker) still produces/decodes a coherent reply (2.3 forward-compat).\r\n#[derive(Debug, Clone, Serialize, Deserialize)]\r\npub struct NetStatusReply {\r\n    /// Whether this broker hosts a net endpoint at all.\r\n    pub enabled: bool,\r\n    /// The node's stable name (lowercase-hex Ed25519 pubkey == iroh EndpointId).\r\n    #[serde(default, skip_serializing_if = \"Option::is_none\")]\r\n    pub node_id_hex: Option<String>,\r\n    /// The endpoint's dialable address — a serde-serialized iroh `EndpointAddr`,\r\n    /// opaque to this catalog (the net host owns its shape). `null` when disabled.\r\n    #[serde(default)]\r\n    pub addr: serde_json::Value,\r\n    /// Live connections (accepted + dialed) in the broker's conn table.\r\n    #[serde(default)]\r\n    pub conn_count: u64,\r\n}\r\n\r\n/// `broker-image-reply` — the semver the RUNNING broker process was compiled with\r\n/// (its own `CARGO_PKG_VERSION`), the authoritative running-image version for the\r\n/// F-025 version surface (a surviving old broker honestly reports the pre-apply\r\n/// version). `version` is defaulted so a truncated/older reply still decodes\r\n/// (2.3 forward-compat).\r\n#[derive(Debug, Clone, Serialize, Deserialize)]\r\npub struct BrokerImageReply {\r\n    /// The broker's compiled image version (semver).\r\n…\n}","startLine":517,"lineNumbers":[517,null,519,520,521,522,523,524,525,526,527,528,529,530,531,532,533,534,535,536,537,538,539,540,541,542,543,544,545,546,547,548,null,551]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\msg.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1478,"totalBytes":1468,"outputLines":30,"outputBytes":1468,"shownRange":{"start":519,"end":548},"nextOffset":549}}},"isError":false,"timestamp":1784069261977}}
{"type":"message","id":"63de2091","parentId":"b0fa94af","timestamp":"2026-07-14T22:47:41.978Z","message":{"role":"user","content":"Your current interruptible wait was interrupted because an IRC message arrived from your parent agent `Main`.\n\nParent IRC message:\n\nTailscale transport is healthy bidirectionally: HF↔EN direct 12ms; both reach DESKTOP-BNPVDJE. Tell me the exact relative state/config paths you used on HF, and I will read the matching EN files over SSH immediately.","attribution":"agent","timestamp":1784069248696,"steering":true}}
{"type":"message","id":"42c320ad","parentId":"63de2091","timestamp":"2026-07-14T22:47:50.526Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Clarifying response paths**"},{"type":"toolCall","id":"call_Ti49z5hWo9XZbjDNksTNuYSc|fc_0b084cf0b521ab15016a56bc930b7c81908cb8a9d311dcf284","name":"irc","arguments":{"i":"Sending matching state paths","op":"send","to":"Main","message":"HF paths under %LOCALAPPDATA%/spt-core: daemon.json; identity/subnet.json; identity/attachment.json; identity/roster.json; identity/peer-addrs.json; identity/visibility.json; identity/registry/SPT_DEV.json; identity/registry/BIGNET.json; identity/registry/heard.meta; identity/pump-heartbeat.json; identity/pump-ops.json; logs/daemon.stderr.log and .log.1. Highest-value EN reads: peer-addrs exact HF-key entry + nested id, subnet seed/epoch equality, detached/relay/pump, heard HF timestamp, registry rows.","replyTo":null,"await":false,"from":null,"timeoutMs":null,"peek":null}}],"api":"openai-codex-responses","provider":"openai-codex","model":"gpt-5.6-sol","usage":{"input":4461,"output":190,"cacheRead":239104,"cacheWrite":0,"totalTokens":243755,"reasoningTokens":7,"cost":{"input":0.022305000000000002,"output":0.0057,"cacheRead":0.11955199999999999,"cacheWrite":0,"total":0.147557}},"stopReason":"toolUse","timestamp":1784069261993,"responseId":"resp_0b084cf0b521ab15016a56bc8e46cc819098c7c34ab8cba686","providerPayload":{"type":"openaiResponsesHistory","provider":"openai-codex","dt":true,"items":[{"id":"rs_0b084cf0b521ab15016a56bc92001081908a7f5eb2fec2d12f","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVryTACKoU0IT7t5hyUIUCPQkz6HreyPgMiNC8CjE2vJo9FBKid3PGBKUJHoGYQ6oVpNrXXXWAl_rkxtYvjAIoEm2mN5ab9jglLri9XJAPnjoS9hXIQcpCMYNxFeftynFRKGaS6K--pjjG_wmDlnsiIyivQiPDCdiSVISWRWdukBCGozVLzFcCICrcuImek1vRxgJtde4LghdSYi65doi7Y-8j0IBqu3meRX3mRPkOZIAXlqAGcn_dm2sIonDLd-wzIItDbimhHw8HECFoXasq4hVqwQXG-K53sK0b9hRaaLOmSOAjJXxIfYCWcMb2W1fScDfZSjPKpED8Y9VJzj0FKRUFfQktJERC9BcSYV8pyDPGKIpEq83hwSQD99E47-_3MSoBE3mJTE77KArPQ3Iy7tqED3dkdyBHIKsb6ERYCxmEV17zD4zfMO3Ja3KPXLJsC_KIoWUbKMfmPlWYb_HH_3mAiholXuk6K_B7rBJLzGSuB5FwmpConsjYtZMYYJf4aBHh9VzKymJgwId2EX3fGXEGddeU8q8b_aEVgBI6fABAAdRhFCn_P19VHEzsT6GLYcfCJAXTVRB4EMtEFS_6uGxfXdhw03XI_rpq6duMcR33pGGrKyzUGEQLKx0ig9ayxJQ4H43SYAXio17alFiWNJ1eYk1BEk2WKQbjQQhMFgsTXwLz2RVHF3NYDKlt2dASn70HoMg_RS7FSL2dITkaCNnkHyBGDwpa90qITYMVJrIKorHfbnXIKtiC6iYrb5SjmfVEfv5BOly_9EPu42K83HbAMoPPqUMpAoEomYKwlTi-L-vbAbzESmgug9yszZ768i3CYWN50FNnZNN2eH57YayzrjoTPFUT3oSF7PCk7kcfzVWy5PS3Rjp0n11V0Zw-EBfd875iwrIHpsDn_e1r_wOpW3lQe4tmYC-tZnDncZRsGP3yEGOFtdQ26kH5tGPv0li","summary":[{"type":"summary_text","text":"**Clarifying response paths**"}]},{"id":"fc_0b084cf0b521ab15016a56bc930b7c81908cb8a9d311dcf284","type":"function_call","status":"completed","arguments":"{\"i\":\"Sending matching state paths\",\"op\":\"send\",\"to\":\"Main\",\"message\":\"HF paths under %LOCALAPPDATA%/spt-core: daemon.json; identity/subnet.json; identity/attachment.json; identity/roster.json; identity/peer-addrs.json; identity/visibility.json; identity/registry/SPT_DEV.json; identity/registry/BIGNET.json; identity/registry/heard.meta; identity/pump-heartbeat.json; identity/pump-ops.json; logs/daemon.stderr.log and .log.1. Highest-value EN reads: peer-addrs exact HF-key entry + nested id, subnet seed/epoch equality, detached/relay/pump, heard HF timestamp, registry rows.\" ,\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_Ti49z5hWo9XZbjDNksTNuYSc","name":"irc"}]},"duration":8531.579099953175,"ttft":4035.736499965191,"contextSnapshot":{"promptTokens":243565,"nonMessageTokens":17981}}}
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{"type":"message","id":"a384cedc","parentId":"f51d064f","timestamp":"2026-07-14T22:47:50.527Z","message":{"role":"toolResult","toolCallId":"call_Ti49z5hWo9XZbjDNksTNuYSc|fc_0b084cf0b521ab15016a56bc930b7c81908cb8a9d311dcf284","toolName":"irc","content":[{"type":"text","text":"Delivered to 1 peer(s):\n- Main: injected"}],"details":{"op":"send","from":"IsolationCodeRCA","to":"Main","receipts":[{"to":"Main","outcome":"injected"}]},"isError":false,"timestamp":1784069270526}}
{"type":"message","id":"20189520","parentId":"a384cedc","timestamp":"2026-07-14T22:48:05.300Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Analyzing UDP and firewall port behavior**\n\n**Investigating port changes and discovery issues**"},{"type":"toolCall","id":"call_G8IBNYIhRRh70EXjRDHLL8jS|fc_0b084cf0b521ab15016a56bca52a108190831aa6652bf1f065","name":"read","arguments":{"i":"Reading historical mesh changelog","path":"spt-core/CHANGELOG.md","selector":"860-955"}},{"type":"toolCall","id":"call_H0BMCpEfcNsGoPg7fsMrno9W|fc_0b084cf0b521ab15016a56bca52a388190bf87a093463a7783","name":"grep","arguments":{"i":"Finding read only network diagnostics","pattern":"debug.*converge|conn_count|net_status\\(\\)|NetStatusReply|net streams|net-status","path":"spt-core/crates/spt/src; spt-core/crates/xtask; 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{"type":"message","id":"b4707b5c","parentId":"9ed5b4b9","timestamp":"2026-07-14T22:48:05.306Z","message":{"role":"toolResult","toolCallId":"call_BQ9VskUhKxzjzqzqMO05my0X|fc_0b084cf0b521ab15016a56bca52a408190b7521fd7f8d5ca42","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/spt-daemon/src/\n## nethost.rs\n 533|    /// the dial before it registers; Mesh-D4 roster leg rides the same stream on\n*534|    /// success), then register the conn (which emits `PRESENCE_CONNECTED` with\n 535|    /// the observed addr). The caller bounds this await (the blocking dial via\n 536|    /// `bounded_block_on`; the submit via its own `timeout`).\n 537|    async fn connect(self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n...\n 609|            .unwrap()\n*610|            .append(PRESENCE_DISCONNECTED, id, &hex_close);\n 611|    });\n 612|\n 613|    // Inbound-stream acceptor: every peer-opened bidi stream joins the table\n...\n 1113|    /// The OUTCOME rides the presence stream — success already emits\n*1114|    /// `PRESENCE_CONNECTED` inside `register_conn`; failure appends\n*1115|    /// `PRESENCE_DIAL_FAILED` here (conn_id:0 sentinel, correlated by\n 1116|    /// `remote_id_hex`). Never a blocking reply, never a whole-round poison — one\n 1117|    /// dead peer's fate is isolated to its own event.\n 1118|    // [impl->REQ-PUMP-PEER-ISOLATION]"}],"details":{"scopePath":"spt-core/crates/spt-daemon/src/seedproofx.rs, spt-core/crates/spt-daemon/src/nethost.rs","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":4,"fileCount":1,"files":["spt-core/crates/spt-daemon/src/nethost.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/nethost.rs","count":4}],"truncated":false,"displayContent":"# spt-core/crates/spt-daemon/src/\n## nethost.rs\n  533│    /// the dial before it registers; Mesh-D4 roster leg rides the same stream on\n *534│    /// success), then register the conn (which emits `PRESENCE_CONNECTED` with\n  535│    /// the observed addr). The caller bounds this await (the blocking dial via\n  536│    /// `bounded_block_on`; the submit via its own `timeout`).\n  537│    async fn connect(self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n     │...\n  609│            .unwrap()\n *610│            .append(PRESENCE_DISCONNECTED, id, &hex_close);\n  611│    });\n  612│\n  613│    // Inbound-stream acceptor: every peer-opened bidi stream joins the table\n     │...\n 1113│    /// The OUTCOME rides the presence stream — success already emits\n*1114│    /// `PRESENCE_CONNECTED` inside `register_conn`; failure appends\n*1115│    /// `PRESENCE_DIAL_FAILED` here (conn_id:0 sentinel, correlated by\n 1116│    /// `remote_id_hex`). Never a blocking reply, never a whole-round poison — one\n 1117│    /// dead peer's fate is isolated to its own event.\n 1118│    // [impl->REQ-PUMP-PEER-ISOLATION]"},"isError":false,"timestamp":1784069285306}}
{"type":"message","id":"24aa2e33","parentId":"b4707b5c","timestamp":"2026-07-14T22:48:05.317Z","message":{"role":"toolResult","toolCallId":"call_56UWp0GuQv6IcfAmekMoeXKY|fc_0b084cf0b521ab15016a56bca52a508190b89b627d93debfd2","toolName":"read","content":[{"type":"text","text":"mod roster_tests {\n…\n    fn malformed_roster_frame_rejected() {\n…\n        // A non-JSON address field is rejected.\n        let mut b = Vec::new();\n        b.extend_from_slice(&1u32.to_be_bytes());\n        push_field(&mut b, b\"aa\");\n        push_field(&mut b, b\"home\");\n        push_field(&mut b, b\"lbl\");\n        push_field(&mut b, b\"mid\");\n        push_field(&mut b, b\"not json\"); // address field, non-empty + non-JSON\n        push_field(&mut b, b\"1700000000\");\n        b.extend_from_slice(&1u64.to_be_bytes());\n        b.extend_from_slice(&0u32.to_be_bytes());\n        assert_eq!(dec_roster(&b), None, \"non-json address\");\n    }\n\n    // [unit->REQ-MESH-2] gap-fill seeds the dial cache from a learned member's\n    // advertised address ONLY when absent: a locally-observed entry is never\n    // clobbered, and the node's own entry is skipped.\n    #[test]\n    fn gapfill_fills_absent_only_and_skips_self() {\n        let addr_c = serde_json::json!({\"id\": \"cc\", \"addrs\": [\"10.0.0.3:7\"]});\n        let observed_b = serde_json::json!({\"id\": \"bb\", \"addrs\": [\"192.168.0.9:7\"]});\n        let advertised_b = serde_json::json!({\"id\": \"bb\", \"addrs\": [\"10.0.0.2:7\"]});\n\n        let mut pa = PeerAddrStore::default();\n        pa.put(\"bb\", observed_b.clone()); // a fresher, locally-observed addr\n\n        let entries = vec![\n            entry(\"self\", \"home\", Some(serde_json::json!({\"id\": \"self\"})), 1), // skipped\n            entry(\"cc\", \"home\", Some(addr_c.clone()), 1),                      // absent ⇒ fill\n            entry(\"bb\", \"home\", Some(advertised_b), 1),                        // present ⇒ keep observed\n        ];\n        assert!(gapfill_peeraddrs(&mut pa, \"self\", &entries), \"C was filled\");\n        assert_eq!(pa.get(\"cc\"), Some(&addr_c), \"absent member filled from roster\");\n        assert_eq!(pa.get(\"bb\"), Some(&observed_b), \"observed addr not clobbered\");\n        assert_eq!(pa.get(\"self\"), None, \"own entry skipped\");\n\n        // Idempotent: a second pass with the same input changes nothing.\n        assert!(!gapfill_peeraddrs(&mut pa, \"self\", &entries), \"no further change\");\n    }\n}\n\n#[cfg(test)]\nmod grace_tests {\n    use super::*;\n\n…\n}\n\n[Showing lines 1034-1078 of 1160. Use :1079 to continue]"}],"details":{"truncation":{"content":"        // A non-JSON address field is rejected.\r\n        let mut b = Vec::new();\r\n        b.extend_from_slice(&1u32.to_be_bytes());\r\n        push_field(&mut b, b\"aa\");\r\n        push_field(&mut b, b\"home\");\r\n        push_field(&mut b, b\"lbl\");\r\n        push_field(&mut b, b\"mid\");\r\n        push_field(&mut b, b\"not json\"); // address field, non-empty + non-JSON\r\n        push_field(&mut b, b\"1700000000\");\r\n        b.extend_from_slice(&1u64.to_be_bytes());\r\n        b.extend_from_slice(&0u32.to_be_bytes());\r\n        assert_eq!(dec_roster(&b), None, \"non-json address\");\r\n    }\r\n\r\n    // [unit->REQ-MESH-2] gap-fill seeds the dial cache from a learned member's\r\n    // advertised address ONLY when absent: a locally-observed entry is never\r\n    // clobbered, and the node's own entry is skipped.\r\n    #[test]\r\n    fn gapfill_fills_absent_only_and_skips_self() {\r\n        let addr_c = serde_json::json!({\"id\": \"cc\", \"addrs\": [\"10.0.0.3:7\"]});\r\n        let observed_b = serde_json::json!({\"id\": \"bb\", \"addrs\": [\"192.168.0.9:7\"]});\r\n        let advertised_b = serde_json::json!({\"id\": \"bb\", \"addrs\": [\"10.0.0.2:7\"]});\r\n\r\n        let mut pa = PeerAddrStore::default();\r\n        pa.put(\"bb\", observed_b.clone()); // a fresher, locally-observed addr\r\n\r\n        let entries = vec![\r\n            entry(\"self\", \"home\", Some(serde_json::json!({\"id\": \"self\"})), 1), // skipped\r\n            entry(\"cc\", \"home\", Some(addr_c.clone()), 1),                      // absent ⇒ fill\r\n            entry(\"bb\", \"home\", Some(advertised_b), 1),                        // present ⇒ keep observed\r\n        ];\r\n        assert!(gapfill_peeraddrs(&mut pa, \"self\", &entries), \"C was filled\");\r\n        assert_eq!(pa.get(\"cc\"), Some(&addr_c), \"absent member filled from roster\");\r\n        assert_eq!(pa.get(\"bb\"), Some(&observed_b), \"observed addr not clobbered\");\r\n        assert_eq!(pa.get(\"self\"), None, \"own entry skipped\");\r\n\r\n        // Idempotent: a second pass with the same input changes nothing.\r\n        assert!(!gapfill_peeraddrs(&mut pa, \"self\", &entries), \"no further change\");\r\n    }\r\n}\r\n\r\n#[cfg(test)]\r\nmod grace_tests {\r\n    use super::*;\r\n\r","truncated":true,"truncatedBy":"lines","totalLines":127,"totalBytes":2130,"outputLines":45,"outputBytes":2130,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"mod roster_tests {\n…\n    fn malformed_roster_frame_rejected() {\n…\n        // A non-JSON address field is rejected.\r\n        let mut b = Vec::new();\r\n        b.extend_from_slice(&1u32.to_be_bytes());\r\n        push_field(&mut b, b\"aa\");\r\n        push_field(&mut b, b\"home\");\r\n        push_field(&mut b, b\"lbl\");\r\n        push_field(&mut b, b\"mid\");\r\n        push_field(&mut b, b\"not json\"); // address field, non-empty + non-JSON\r\n        push_field(&mut b, b\"1700000000\");\r\n        b.extend_from_slice(&1u64.to_be_bytes());\r\n        b.extend_from_slice(&0u32.to_be_bytes());\r\n        assert_eq!(dec_roster(&b), None, \"non-json address\");\r\n    }\r\n\r\n    // [unit->REQ-MESH-2] gap-fill seeds the dial cache from a learned member's\r\n    // advertised address ONLY when absent: a locally-observed entry is never\r\n    // clobbered, and the node's own entry is skipped.\r\n    #[test]\r\n    fn gapfill_fills_absent_only_and_skips_self() {\r\n        let addr_c = serde_json::json!({\"id\": \"cc\", \"addrs\": [\"10.0.0.3:7\"]});\r\n        let observed_b = serde_json::json!({\"id\": \"bb\", \"addrs\": [\"192.168.0.9:7\"]});\r\n        let advertised_b = serde_json::json!({\"id\": \"bb\", \"addrs\": [\"10.0.0.2:7\"]});\r\n\r\n        let mut pa = PeerAddrStore::default();\r\n        pa.put(\"bb\", observed_b.clone()); // a fresher, locally-observed addr\r\n\r\n        let entries = vec![\r\n            entry(\"self\", \"home\", Some(serde_json::json!({\"id\": \"self\"})), 1), // skipped\r\n            entry(\"cc\", \"home\", Some(addr_c.clone()), 1),                      // absent ⇒ fill\r\n            entry(\"bb\", \"home\", Some(advertised_b), 1),                        // present ⇒ keep observed\r\n        ];\r\n        assert!(gapfill_peeraddrs(&mut pa, \"self\", &entries), \"C was filled\");\r\n        assert_eq!(pa.get(\"cc\"), Some(&addr_c), \"absent member filled from roster\");\r\n        assert_eq!(pa.get(\"bb\"), Some(&observed_b), \"observed addr not clobbered\");\r\n        assert_eq!(pa.get(\"self\"), None, \"own entry skipped\");\r\n\r\n        // Idempotent: a second pass with the same input changes nothing.\r\n        assert!(!gapfill_peeraddrs(&mut pa, \"self\", &entries), \"no further change\");\r\n    }\r\n}\r\n\r\n#[cfg(test)]\r\nmod grace_tests {\r\n    use super::*;\r\n\r\n…\n}","startLine":976,"lineNumbers":[976,null,1027,null,1034,1035,1036,1037,1038,1039,1040,1041,1042,1043,1044,1045,1046,1047,1048,1049,1050,1051,1052,1053,1054,1055,1056,1057,1058,1059,1060,1061,1062,1063,1064,1065,1066,1067,1068,1069,1070,1071,1072,1073,1074,1075,1076,1077,1078,null,1159]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\seedproofx.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1160,"totalBytes":2130,"outputLines":45,"outputBytes":2130,"shownRange":{"start":1034,"end":1078},"nextOffset":1079}}},"isError":false,"timestamp":1784069285317}}
{"type":"message","id":"d9b54193","parentId":"24aa2e33","timestamp":"2026-07-14T22:48:05.345Z","message":{"role":"toolResult","toolCallId":"call_G8IBNYIhRRh70EXjRDHLL8jS|fc_0b084cf0b521ab15016a56bca52a108190831aa6652bf1f065","toolName":"read","content":[{"type":"text","text":"# Changelog\n…\n## [0.3.2] - 2026-06-09\n…\n### Changed\n\n- **`spt update apply` prints a friendly confirmation** — for example `Updated spt-core to v0.3.2.` followed by a link to the changelog — instead of a terse internal status line.\n\n## [0.3.1] - 2026-06-08\n\n### Added\n\n- **`spt update fetch`** — pull and stage the latest signed release straight from the project's GitHub releases, then `spt update apply` to install it. This bootstraps the first machine in a fleet (or any machine with no peer to update from), which previously could only receive an update from another machine that already had it. The download is verified against the same signed-release keys as peer-to-peer updates. Add `--tag vX.Y.Z` to fetch a specific version.\n\n### Fixed\n\n- **Messages sent from Windows no longer arrive garbled.** A message piped into `spt send` or `spt ring` from a Windows shell (whose text carries a carriage return) could corrupt how the message displayed on the receiving machine. The message codec now neutralizes carriage returns, and `send`/`ring` trim their input like `notify` already did.\n- **A node is no longer stranded offline after a reboot.** If the daemon started before the machine's network was ready (common immediately after boot), it used to come up with no connection and stay that way until you manually restarted it — `spt daemon` would just report the peer pump as \"STALLED\". Now the daemon keeps retrying the network in the background and brings itself online once the network is up, with no restart needed. While it's waiting, `spt daemon` reports \"no connection\" honestly instead of a misleading stalled-pump message. (On Linux the installed service now also waits for the network at boot.)\n\n## [0.3.0] - 2026-06-08\n\n### Added\n\n- **`spt subnet revoke <node>…`** — remove one or more machines from a subnet across the **whole fleet**, not just locally. It tells every member to drop the node within moments, then rotates the subnet's shared secret so the removed machine is locked out and must re-pair to come back. By default the rotation is batched at the end of a one-hour window — several revokes in that window share a single rotation, and any member that was briefly offline heals automatically across it. Pass `--force-rotate-seed` to rotate the secret immediately (the compromised-machine path; a member that's offline at that moment will have to re-pair rather than auto-heal). Name each target by hostname, key prefix, or full key. Requires running elevated. This is the fleet-wide count…\n- **`spt daemon start`** — bring the daemon up in the background, idempotently. When `spt` is installed as a service (the Linux per-user service, or the Windows logon task), `start` and `stop` now drive *that* service instead of a stray hand-started daemon — so the two never fight each other for the connection. `spt daemon start` on an already-running daemon just says so and does nothing.\n\n### Changed\n\n- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\n  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\n- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\n- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\n- **`spt daemon status` shows what manages the daemon** — whether a service owns it (and is active) or it was started by hand.\n\n### Performance\n\n- **`spt subnet status --nodes` is much faster when several nodes are offline.** It now checks all the quiet nodes at once, so the view comes back in about the time of a single check instead of stacking the wait up node by node. (This matters more now that a subnet is a full mesh and you see every member.)\n\n### Fixed\n\n- **A peer's name no longer disappears when it goes offline.** Once you've seen another node's hostname in `spt subnet status --nodes`, it now stays shown even after that node goes offline — previously the name reverted to a bare key after the node went quiet for a while. The name is only forgotten when you explicitly `spt subnet prune` that node.\n\n## [0.2.0] - 2026-06-08\n\n### Added\n\n- **`spt endpoint` command group.** A single home for everything you do to an endpoint: `spt endpoint fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, and `digest` all live here now. (See **Changed** — this is where these moved from.)\n- **`spt endpoint list`** — one combined view of every endpoint you can see, grouped by subnet, with your own endpoint pinned at the top.\n  - `spt endpoint list --local` shows just this machine's endpoints.\n  - `spt endpoint list --subnet <name>` filters to one subnet.\n  - `spt endpoint list --detail` adds each endpoint's description blurb.\n- **`spt endpoint description [set]`** — read or write an endpoint's description blurb (bare command shows it, `set` writes it).\n- **`spt endpoint access`** — per-endpoint access control (`allow` / `revoke` / `open` / `list`), scoped to the individual endpoint.\n- **`spt daemon` command group:**\n  - `spt daemon status` (or bare `spt daemon`) — a node status view: whether the daemon is running, its background-sync health, your subnets, and your local endpoints.\n  - `spt daemon stop` — cleanly stops the running daemon.\n  - `spt daemon run` — runs the daemon in the foreground (previously a hidden command).\n- **Pause and resume a subnet without stopping the daemon:**\n  - `spt subnet detach <name>` — stop advertising and connecting for that subnet (peers see you go offline for it) while everything else keeps running.\n  - `spt subnet attach <name>` — start serving it again.\n  - Add `--save` to either to make that choice the default the next time the daemon starts.\n  - `spt subnet status` now shows a per-subnet state for each subnet (serving / detached / no connection).\n- **Leave a subnet:** `spt subnet leave <name>` removes the subnet and its trust completely from this node.\n- **Clean up dead nodes:** `spt subnet prune <node>` removes a stale node's trust so this machine stops trying to reach it. You can name the node by its hostname label, a key prefix, or the full key; it refuses if the name is ambiguous or refers to yourself.\n- **Node names in `spt subnet status --nodes`.** Each node now shows its hostname label and can be addressed as `@<hostname>` in commands. Nodes that aren't running any endpoints still show their hostname instead of a bare key.\n- **Automatic re-pair cleanup.** If you reinstall or regenerate a node's identity and pair it again from the same machine under the same name, its old, now-dead identity is removed automatically during pairing — no manual prune needed.\n- **Firewall setup on Windows.** The installer (when run elevated) now adds the inbound network rule `spt` needs so other nodes can reach you. If it wasn't added, `spt subnet status` and the \"coming online\" banner now tell you the rule is missing and print the exact command to add it.\n- **Starts on boot.** The installer now registers `spt` to start automatically — at login on Windows, and as a per-user service on Linux — so your node is reachable after a reboot without running a command first.\n\n### Changed\n\n- **BREAKING — commands have been reorganized; old spellings no longer work (no aliases).** If a command isn't found, check its new home below. The agent-messaging commands you use most are unchanged: `spt send`, `spt ring`, `spt ready`, `spt whoami`, and `spt how-to` all stay where they are, as does top-level `spt notif`.\n  - These endpoint commands moved **under `spt endpoint`**: `fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, `digest`. For example, `spt fork …` is now `spt endpoint fork …`.\n  - The old `resources` view is gone; its listing is now `spt endpoint list --detail` and its per-endpoint blurb is now `spt endpoint description`.\n  - `spt notify …` moved to `spt subnet notify [message] [--target <subnet>]`. With no `--target`, it sends to your home subnet; if you have no home subnet and don't pass `--target`, it refuses rather than guessing.\n  - Stopping/checking the daemon moved under `spt daemon` (`spt daemon stop`, `spt daemon status`).\n- **`spt subnet status` tells the truth about a stopped daemon.** A node with no subnets now reads \"this node is standalone\" and no longer implies messaging works while the daemon is down. If the background sync has stalled, the status view says so instead of looking healthy.\n- **Cleaner node listing.** In `spt subnet status --nodes`, a normally-named node now shows just its hostname (e.g. `KITSUBITO`) instead of `KITSUBITO (43a51d9a…)`; the extra key prefix only appears when two nodes share the same hostname and need telling apart.\n- **`spt subnet` hints tidied.** The \"hint:\" lines now appear only on the bare `spt subnet` overview, not in `spt subnet status` (so the status view is clean to read).\n- **Pairing works on machines with a wrong clock.** Pairing now checks network time and tolerates a node whose system clock is off by more than a minute (which previously made pairing fail silently). If network time can't be reached, it falls back to the local clock as before; it never changes your system clock.\n- **Faster first sync after joining or restarting.** `spt` now remembers peers' last known addresses, so after a join — or after the daemon restarts — other nodes reappear in `spt subnet status --nodes` in seconds instead of taking up to a minute.\n- **Endpoints going online/offline show up almost immediately.** When an endpoint starts or stops, peers now see the change in `spt subnet status --nodes` within seconds instead of waiting for the next sync cycle.\n\n### Fixed\n\n- **`spt subnet status --nodes` no longer hangs on a dead peer.** Checking a node that has gone away used to stall the command for ~30 seconds; it's now bounded to a couple of seconds, and the command prints \"Checking remote nodes…\" so the brief wait is expected.\n- **Detached/unreachable peers now read as offline.** A peer you've detached from a subnet (or that has stopped serving it) is correctly shown offline in `spt subnet status --nodes`, instead of appearing online indefinitely just because its machine is up.\n- **Messages from other agents now arrive properly formatted.** Incoming messages on the listener stream now include the full envelope with the sender's name, instead of showing as a raw, unwrapped line.\n- **`sudo spt …` now works on Linux user installs.** When `spt` is installed to your user directory, elevation guidance that said to \"run as administrator/root\" used to dead-end with `sudo: spt: command not found`. The installer now also makes `spt` reachable under `sudo`, and on an interactive terminal `spt` re-runs itself with `sudo` automatically; otherwise it prints a command that actually works.\n- **Elevated `spt` on Linux runs under your account, not root.** The first time you run an elevated `spt`, it asks once which account should own the daemon and its data, remembers that choice, and every later `sudo spt` runs the daemon and stores state under that account — never as root.\n- **`spt daemon stop` on Windows now finds the daemon it started.** A daemon launched through Windows' elevation prompt could end up using the wrong home directory, so `spt daemon stop` reported \"daemon not running\" while a daemon kept running. It now keeps the right home directory across that elevation step.\n- **Removed a confusing internal status line.** `spt` no longer prints the internal \"DEELEVATED: running as uid …\" notice during normal use.\n- **Stale node rows clear out on their own.** Nodes that haven't been heard from in a while are now removed from the listing automatically, so old/dead entries stop cluttering `spt subnet status`.\n\n## [0.1.1] - 2026-06-07\n\nMaintenance fixes following the first public release. (This changelog was\nintroduced in 0.2.0; 0.1.1 and earlier are summarized here for completeness.)\n\n## [0.1.0] - 2026-06-06\n\nFirst public release of `spt`.\n\n\n[Some lines truncated to 768 chars]"}],"details":{"displayContent":{"text":"# Changelog\n…\n## [0.3.2] - 2026-06-09\n…\n### Changed\n\r\n- **`spt update apply` prints a friendly confirmation** — for example `Updated spt-core to v0.3.2.` followed by a link to the changelog — instead of a terse internal status line.\r\n\r\n## [0.3.1] - 2026-06-08\r\n\r\n### Added\r\n\r\n- **`spt update fetch`** — pull and stage the latest signed release straight from the project's GitHub releases, then `spt update apply` to install it. This bootstraps the first machine in a fleet (or any machine with no peer to update from), which previously could only receive an update from another machine that already had it. The download is verified against the same signed-release keys as peer-to-peer updates. Add `--tag vX.Y.Z` to fetch a specific version.\r\n\r\n### Fixed\r\n\r\n- **Messages sent from Windows no longer arrive garbled.** A message piped into `spt send` or `spt ring` from a Windows shell (whose text carries a carriage return) could corrupt how the message displayed on the receiving machine. The message codec now neutralizes carriage returns, and `send`/`ring` trim their input like `notify` already did.\r\n- **A node is no longer stranded offline after a reboot.** If the daemon started before the machine's network was ready (common immediately after boot), it used to come up with no connection and stay that way until you manually restarted it — `spt daemon` would just report the peer pump as \"STALLED\". Now the daemon keeps retrying the network in the background and brings itself online once the network is up, with no restart needed. While it's waiting, `spt daemon` reports \"no connection\" honestly instead of a misleading stalled-pump message. (On Linux the installed service now also waits for the network at boot.)\r\n\r\n## [0.3.0] - 2026-06-08\r\n\r\n### Added\r\n\r\n- **`spt subnet revoke <node>…`** — remove one or more machines from a subnet across the **whole fleet**, not just locally. It tells every member to drop the node within moments, then rotates the subnet's shared secret so the removed machine is locked out and must re-pair to come back. By default the rotation is batched at the end of a one-hour window — several revokes in that window share a single rotation, and any member that was briefly offline heals automatically across it. Pass `--force-rotate-seed` to rotate the secret immediately (the compromised-machine path; a member that's offline at that moment will have to re-pair rather than auto-heal). Name each target by hostname, key prefix, or full key. Requires running elevated. This is the fleet-wide count…\n- **`spt daemon start`** — bring the daemon up in the background, idempotently. When `spt` is installed as a service (the Linux per-user service, or the Windows logon task), `start` and `stop` now drive *that* service instead of a stray hand-started daemon — so the two never fight each other for the connection. `spt daemon start` on an already-running daemon just says so and does nothing.\r\n\r\n### Changed\r\n\r\n- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\r\n  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\r\n- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\r\n- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\r\n- **`spt daemon status` shows what manages the daemon** — whether a service owns it (and is active) or it was started by hand.\r\n\r\n### Performance\r\n\r\n- **`spt subnet status --nodes` is much faster when several nodes are offline.** It now checks all the quiet nodes at once, so the view comes back in about the time of a single check instead of stacking the wait up node by node. (This matters more now that a subnet is a full mesh and you see every member.)\r\n\r\n### Fixed\r\n\r\n- **A peer's name no longer disappears when it goes offline.** Once you've seen another node's hostname in `spt subnet status --nodes`, it now stays shown even after that node goes offline — previously the name reverted to a bare key after the node went quiet for a while. The name is only forgotten when you explicitly `spt subnet prune` that node.\r\n\r\n## [0.2.0] - 2026-06-08\r\n\r\n### Added\r\n\r\n- **`spt endpoint` command group.** A single home for everything you do to an endpoint: `spt endpoint fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, and `digest` all live here now. (See **Changed** — this is where these moved from.)\r\n- **`spt endpoint list`** — one combined view of every endpoint you can see, grouped by subnet, with your own endpoint pinned at the top.\r\n  - `spt endpoint list --local` shows just this machine's endpoints.\r\n  - `spt endpoint list --subnet <name>` filters to one subnet.\r\n  - `spt endpoint list --detail` adds each endpoint's description blurb.\r\n- **`spt endpoint description [set]`** — read or write an endpoint's description blurb (bare command shows it, `set` writes it).\r\n- **`spt endpoint access`** — per-endpoint access control (`allow` / `revoke` / `open` / `list`), scoped to the individual endpoint.\r\n- **`spt daemon` command group:**\r\n  - `spt daemon status` (or bare `spt daemon`) — a node status view: whether the daemon is running, its background-sync health, your subnets, and your local endpoints.\r\n  - `spt daemon stop` — cleanly stops the running daemon.\r\n  - `spt daemon run` — runs the daemon in the foreground (previously a hidden command).\r\n- **Pause and resume a subnet without stopping the daemon:**\r\n  - `spt subnet detach <name>` — stop advertising and connecting for that subnet (peers see you go offline for it) while everything else keeps running.\r\n  - `spt subnet attach <name>` — start serving it again.\r\n  - Add `--save` to either to make that choice the default the next time the daemon starts.\r\n  - `spt subnet status` now shows a per-subnet state for each subnet (serving / detached / no connection).\r\n- **Leave a subnet:** `spt subnet leave <name>` removes the subnet and its trust completely from this node.\r\n- **Clean up dead nodes:** `spt subnet prune <node>` removes a stale node's trust so this machine stops trying to reach it. You can name the node by its hostname label, a key prefix, or the full key; it refuses if the name is ambiguous or refers to yourself.\r\n- **Node names in `spt subnet status --nodes`.** Each node now shows its hostname label and can be addressed as `@<hostname>` in commands. Nodes that aren't running any endpoints still show their hostname instead of a bare key.\r\n- **Automatic re-pair cleanup.** If you reinstall or regenerate a node's identity and pair it again from the same machine under the same name, its old, now-dead identity is removed automatically during pairing — no manual prune needed.\r\n- **Firewall setup on Windows.** The installer (when run elevated) now adds the inbound network rule `spt` needs so other nodes can reach you. If it wasn't added, `spt subnet status` and the \"coming online\" banner now tell you the rule is missing and print the exact command to add it.\r\n- **Starts on boot.** The installer now registers `spt` to start automatically — at login on Windows, and as a per-user service on Linux — so your node is reachable after a reboot without running a command first.\r\n\r\n### Changed\r\n\r\n- **BREAKING — commands have been reorganized; old spellings no longer work (no aliases).** If a command isn't found, check its new home below. The agent-messaging commands you use most are unchanged: `spt send`, `spt ring`, `spt ready`, `spt whoami`, and `spt how-to` all stay where they are, as does top-level `spt notif`.\r\n  - These endpoint commands moved **under `spt endpoint`**: `fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, `digest`. For example, `spt fork …` is now `spt endpoint fork …`.\r\n  - The old `resources` view is gone; its listing is now `spt endpoint list --detail` and its per-endpoint blurb is now `spt endpoint description`.\r\n  - `spt notify …` moved to `spt subnet notify [message] [--target <subnet>]`. With no `--target`, it sends to your home subnet; if you have no home subnet and don't pass `--target`, it refuses rather than guessing.\r\n  - Stopping/checking the daemon moved under `spt daemon` (`spt daemon stop`, `spt daemon status`).\r\n- **`spt subnet status` tells the truth about a stopped daemon.** A node with no subnets now reads \"this node is standalone\" and no longer implies messaging works while the daemon is down. If the background sync has stalled, the status view says so instead of looking healthy.\r\n- **Cleaner node listing.** In `spt subnet status --nodes`, a normally-named node now shows just its hostname (e.g. `KITSUBITO`) instead of `KITSUBITO (43a51d9a…)`; the extra key prefix only appears when two nodes share the same hostname and need telling apart.\r\n- **`spt subnet` hints tidied.** The \"hint:\" lines now appear only on the bare `spt subnet` overview, not in `spt subnet status` (so the status view is clean to read).\r\n- **Pairing works on machines with a wrong clock.** Pairing now checks network time and tolerates a node whose system clock is off by more than a minute (which previously made pairing fail silently). If network time can't be reached, it falls back to the local clock as before; it never changes your system clock.\r\n- **Faster first sync after joining or restarting.** `spt` now remembers peers' last known addresses, so after a join — or after the daemon restarts — other nodes reappear in `spt subnet status --nodes` in seconds instead of taking up to a minute.\r\n- **Endpoints going online/offline show up almost immediately.** When an endpoint starts or stops, peers now see the change in `spt subnet status --nodes` within seconds instead of waiting for the next sync cycle.\r\n\r\n### Fixed\r\n\r\n- **`spt subnet status --nodes` no longer hangs on a dead peer.** Checking a node that has gone away used to stall the command for ~30 seconds; it's now bounded to a couple of seconds, and the command prints \"Checking remote nodes…\" so the brief wait is expected.\r\n- **Detached/unreachable peers now read as offline.** A peer you've detached from a subnet (or that has stopped serving it) is correctly shown offline in `spt subnet status --nodes`, instead of appearing online indefinitely just because its machine is up.\r\n- **Messages from other agents now arrive properly formatted.** Incoming messages on the listener stream now include the full envelope with the sender's name, instead of showing as a raw, unwrapped line.\r\n- **`sudo spt …` now works on Linux user installs.** When `spt` is installed to your user directory, elevation guidance that said to \"run as administrator/root\" used to dead-end with `sudo: spt: command not found`. The installer now also makes `spt` reachable under `sudo`, and on an interactive terminal `spt` re-runs itself with `sudo` automatically; otherwise it prints a command that actually works.\r\n- **Elevated `spt` on Linux runs under your account, not root.** The first time you run an elevated `spt`, it asks once which account should own the daemon and its data, remembers that choice, and every later `sudo spt` runs the daemon and stores state under that account — never as root.\r\n- **`spt daemon stop` on Windows now finds the daemon it started.** A daemon launched through Windows' elevation prompt could end up using the wrong home directory, so `spt daemon stop` reported \"daemon not running\" while a daemon kept running. It now keeps the right home directory across that elevation step.\r\n- **Removed a confusing internal status line.** `spt` no longer prints the internal \"DEELEVATED: running as uid …\" notice during normal use.\r\n- **Stale node rows clear out on their own.** Nodes that haven't been heard from in a while are now removed from the listing automatically, so old/dead entries stop cluttering `spt subnet status`.\r\n\r\n## [0.1.1] - 2026-06-07\r\n\r\nMaintenance fixes following the first public release. (This changelog was\r\nintroduced in 0.2.0; 0.1.1 and earlier are summarized here for completeness.)\r\n\r\n## [0.1.0] - 2026-06-06\r\n\r\nFirst public release of `spt`.\r\n","startLine":1,"lineNumbers":[1,null,852,null,858,859,860,861,862,863,864,865,866,867,868,869,870,871,872,873,874,875,876,877,878,879,880,881,882,883,884,885,886,887,888,889,890,891,892,893,894,895,896,897,898,899,900,901,902,903,904,905,906,907,908,909,910,911,912,913,914,915,916,917,918,919,920,921,922,923,924,925,926,927,928,929,930,931,932,933,934,935,936,937,938,939,940,941,942,943,944,945,946,947,948,949,950,951,952,953,954,955,956]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\CHANGELOG.md"},"limits":{"columnTruncated":{"maxColumn":768}}}},"isError":false,"timestamp":1784069285345}}
{"type":"message","id":"17493551","parentId":"d9b54193","timestamp":"2026-07-14T22:48:05.348Z","message":{"role":"toolResult","toolCallId":"call_H0BMCpEfcNsGoPg7fsMrno9W|fc_0b084cf0b521ab15016a56bca52a388190bf87a093463a7783","toolName":"grep","content":[{"type":"text","text":"# spt-core/\n\n## crates/\n\n### spt/src/\n#### cli.rs\n 4118|            .flatten();\n*4119|        // One broker handle answers net-status, the F-025 image query, and the W2\n 4120|        // stall-evict tally.\n 4121|        let (net_up, broker_image, broker_queried, stall_stats) = if running {\n 4122|            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\n 4123|                Ok(mut b) => {\n*4124|                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n 4125|                    let stall = b.stall_evicts().ok().flatten();\n 4126|                    // Ok(Some)=version / Ok(None)=old broker (both a successful\n 4127|                    // query) vs Err=couldn't query — keep them distinct so a\n...\n 4221|        // cause, not a STALLED alarm read off a stale pre-boot heartbeat.\n*4222|        // One broker handle answers both net-status and the F-025 image query.\n 4223|        let (net_up, broker_image, stall_stats) = match spt_daemon::brain::Brain::cold_start(\n 4224|            &spt_daemon::broker_socket_name(),\n 4225|            now_ms(),\n...\n 4227|            Ok(mut b) => {\n*4228|                let net_up = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n 4229|                let stall = b.stall_evicts().ok().flatten();\n 4230|                let image = b.broker_image_version().ok().flatten();\n 4231|                (net_up, image, stall)\n...\n 7224|        .ok()\n*7225|        .and_then(|mut b| b.net_status().ok())\n 7226|        .map(|s| s.enabled)\n 7227|        .unwrap_or(true); // can't ask ⇒ assume serving rather than alarm\n 7228|    let att = spt_store::attachment::AttachmentStore::load();\n#### wansend.rs\n 964|        let mut b_probe = connect_retry(&b_name);\n*965|        let a_hex = a.net_status().expect(\"status\").node_id_hex.expect(\"net\");\n 966|        let b_hex = b_probe\n*967|            .net_status()\n 968|            .expect(\"status\")\n 969|            .node_id_hex\n 970|            .expect(\"net\");\n*971|        let b_addr = b_probe.net_status().expect(\"status\").addr;\n 972|\n 973|        // Ambiguity refuses before any wire work: two DISTINCT nodes hold the id\n 974|        // across the subnets → AcrossNodes (counter-39 #1: subnet is not a\n...\n 1093|        let mut b_probe = connect_retry(&b_name);\n*1094|        let a_hex = a.net_status().expect(\"status\").node_id_hex.expect(\"net\");\n 1095|        let b_hex = b_probe\n*1096|            .net_status()\n 1097|            .expect(\"status\")\n 1098|            .node_id_hex\n 1099|            .expect(\"net\");\n*1100|        let b_addr = b_probe.net_status().expect(\"status\").addr;\n 1101|        let regs = reg_with(\"s1\", target, &b_hex);\n 1102|        let resolver = |hex: &str| {\n 1103|            if hex == b_hex {\n...\n 1409|        let b_hex = b_probe\n*1410|            .net_status()\n 1411|            .expect(\"status\")\n 1412|            .node_id_hex\n 1413|            .expect(\"net\");\n*1414|        let b_addr = b_probe.net_status().expect(\"status\").addr;\n 1415|\n 1416|        // The registry places the endpoint on B; B's direct addr is seeded so\n 1417|        // seed_first_addr resolves it (no cold discovery on the loopback rig).\n\n### xtask/src/\n#### main.rs\n 50|        \"debug-rollout\" => debug_rollout(&args[1..]),\n*51|        \"debug-converge\" => debug_converge(&args[1..]),\n 52|        _ => {\n 53|            eprintln!(\n*54|                \"usage: xtask <gen|check|site <outdir>|release-keygen <key-id>|release-sign …|release-publish …|debug-keygen <key-id>|debug-pin …|debug-rollout …|debug-converge --version <u64> …>\"\n 55|            );\n 56|            std::process::exit(2);\n 57|        }\n...\n 1086|\n*1087|/// `xtask debug-converge` (M8 decision 19, REQ-UPD-6,\n*1088|/// docs/DEBUG-CONVERGE-PLAN.md): after a coordinator stages a debug rollout,\n 1089|/// answer \"did every expected lab node converge on the target debug version,\n 1090|/// and if not, why not?\" without hand-walking nodes. Watches via the\n 1091|/// status-only update query (`spt_daemon::propagate::request_update_status`)\n...\n 1098|// [impl->REQ-UPD-6]\n*1099|fn debug_converge(args: &[String]) {\n 1100|    use spt_daemon::propagate::{classify_status, ConvergeState, UpdateStatusReport};\n 1101|\n 1102|    let mut version: Option<u64> = None;\n...\n 1131|    let Some(target) = version else {\n*1132|        eprintln!(\"usage: xtask debug-converge --version <u64> [--nodes <hex,…>] [--subnet <name>] [--timeout <secs>] [--poll <secs>] [--home <path>]\");\n 1133|        std::process::exit(2);\n 1134|    };\n 1135|\n...\n 1181|    println!(\n*1182|        \"DEBUG_CONVERGE target={target} channel=debug{} expected={}\",\n 1183|        subnet\n 1184|            .as_deref()\n 1185|            .map(|s| format!(\" subnet={s}\"))\n...\n 1246|/// Render the per-node convergence table (one row per expected node, the\n*1247|/// DEBUG-CONVERGE-PLAN output shape). Pure for the unit test.\n 1248|// [impl->REQ-UPD-6]\n 1249|fn render_converge_table(\n 1250|    states: &std::collections::BTreeMap<String, spt_daemon::propagate::ConvergeState>,\n...\n 1402|    // [unit->REQ-UPD-6] the convergence table renders one row per expected\n*1403|    // node with the typed state + actionable hint (the DEBUG-CONVERGE-PLAN\n 1404|    // output shape) — and the success predicate behind the exit-code policy\n 1405|    // (0 converged / 1 not) is exactly \"every node Applied\".\n 1406|    #[test]\n\n## docs/\n### DEBUG-CONVERGE-PLAN.md\n*1|# Build plan — `xtask debug-converge` (deferred follow-up)\n 2|\n 3|<!-- [doc->REQ-UPD-6] -->\n 4|\n...\n 8|`propagate::classify_status` as the pure classifier, the poll loop + table\n*9|in `xtask debug-converge`. Deviations from the spec below: the per-node\n 10|status carries `(channel, staged_version, applied_version, last_outcome)`\n 11|from durable records (`applied.json` / `last-outcome.json` in the release\n 12|cache — apply and pump record them), and expected-node derivation is the\n...\n 22|\n*23|`debug-converge` watches until every *expected* debug-pinned reachable node\n 24|reports the target version applied, or it returns a per-node timeout table.\n 25|This is what turns \"fast to stage\" into \"fast to *verify deployed*\" — the\n 26|actual deployment-speed win the rollout pipeline exists for.\n...\n 29|\n*30|- **In:** an `xtask debug-converge` subcommand (maintainer tooling only, never\n 31|  the public `spt` surface — ADR-0016), per-node state classification, a\n 32|  convergence table, exit codes, loopback + two-host tests.\n 33|- **Out (still deferred):** remote build orchestration, dashboards/TUI, adapter\n...\n 38|```\n*39|xtask debug-converge --version <u64> [flags]\n 40|```\n 41|\n 42|| Flag | Default | Meaning |\n 43||---|---|---|\n*44|| `--version <u64>` | required | target debug version to converge on |\n 45|| `--nodes <id,…>` | derived | explicit expected-node set; overrides derivation |\n 46|| `--subnet <name>` | the rollout's lab subnet | scope derivation to one subnet |\n 47|| `--timeout <secs>` | 120 | overall watch budget |\n...\n 102|```\n*103|DEBUG_CONVERGE target=7 channel=debug subnet=lab expected=3\n 104|  node-a   Applied                v7\n 105|  node-b   StagedAwaitingConsent  v6  (run: spt update apply)\n 106|  node-c   Rejected               NoArtifactForPlatform (x86_64-apple-darwin)\n...\n 121|2. **Node enumeration.** Factor the trust-derived subnet membership read out of\n*122|   the `subnet status` path (b9326f4) into something `debug-converge` can call\n 123|   for the expected set. Honor `--nodes` / `--subnet`.\n 124|3. **Poll loop + classifier.** In `xtask`: round-robin the expected set, map\n 125|   each response to the state model, stop early when all `Applied`, else until\n...\n 136|6. **Runbook.** Replace the manual \"Apply and observe\" steps in\n*137|   `DEBUG-ROLLOUT.md` with `xtask debug-converge`, keeping the manual path as\n 138|   the fallback.\n 139|\n 140|## Traceability\n### DEBUG-ROLLOUT.md\n 90|```powershell\n*91|cargo run -p xtask -- debug-converge --version <N> [--subnet <name>] [--timeout 120] [--poll 3]\n 92|```\n 93|\n 94|It polls every expected node (the coordinator's trust rows; `--nodes <hex,…>`\n...\n 97|`Offline` — exiting `0` only when every node applied the target (`1`\n*98|otherwise, `2` on usage). Spec + state model: `docs/DEBUG-CONVERGE-PLAN.md`.\n 99|The manual walk below remains the fallback.\n 100|\n 101|Useful outcomes:\n### DEFERRED.md\n 35|| **Subnet full-mesh visibility (PLANNED MILESTONE — `SUBNET-MESH-PLAN.md`)**: non-directly-paired members never see each other — a subnet is currently the PAIRING GRAPH, not a mesh (A↔B, C↔B; B offline → A and C invisible; even with B online, B doesn't relay). Root: pairwise TOFU trust (`trust.rs`) + own-rows-only gossip / no transitive relay (`peerloop.rs`, KH 4.10/7.5) + no member roster in the pairing seed transfer. FIX = member-AUTHENTICATED subnet data (seed-MAC and/or per-node signatures...\n*36|| `xtask debug-converge` — automated convergence watcher for debug rollout (the REQ-UPD-6 first-slice item ADR-0016 names): watch every expected debug-pinned reachable lab node until all report the target version applied, else a per-node timeout table (Offline / StagedAwaitingConsent / BlockedByBrokerResources / Rejected{reason}). Activates REQ-UPD-6's `int` stage. Full build plan: `docs/DEBUG-CONVERGE-PLAN.md` | REQ-UPD-6 first slice (2026-06-06) | The first slice ships manual \"Apply and observe\" (`DE...\n 37|| **Origin-source update bootstrap (`spt update fetch` — pull the latest signed release from GitHub into the existing verify→stage→apply pipeline)**: today update DISCOVERY is **peer-only** (REQ-UPD-1: a daemon pulls offers from roster peers via `request_update`; `propagate.rs`/`peerloop.rs`). There is NO origin fetch, so the **first node in a fleet — or any isolated/solo node — cannot get a new release without a peer that already staged it** (the fleet converges by gossip, but only *after* a m...\n 38|| **Test broker socket-bind hardening (CI-flake removal)**: `applyhost` tests' `served_broker` helper does `Broker::bind(name).expect(\"bind broker\")` (`crates/spt-daemon/src/applyhost.rs:293`) where `name` = `spt-daemon-d7b-{pid}-{seq}.sock`. Flakes intermittently on the **kitsubito** self-hosted Linux runner (likely AF_UNIX path collision / stale socket file under the runner's reused workspace — Windows named pipes don't hit it). Cost the v0.3.2 release a full red CI run + a `--failed` rerun (2026-06-...\n 39|| **`spt update fetch` single→set shape-upgrade at same version (REQ-UPD-8 transitional trap)**: `cmd_update_fetch` sets the rollback floor = `staged_version` (the monotonic counter), and the gate is a plain `candidate > floor`. A node that fetched+staged version N as a platform **single** (pre-0.3.2 fetch behavior) can never re-fetch version N as a multi-platform **set** — same counter → `Rollback{current:N, candidate:N}`. Bites the **seed-node bootstrap**: the first node to origin-`fetch` a relea...\n### UPDATE-WEDGE-2-ROUND3-CODEREAD.md\n 10|`run_brain`'s heartbeat loop (brainproc.rs:239-278) per tick: `thread::sleep(500ms)` →\n*11|`brain.net_status()` → spawn-consumers-once → `brain.sessions()` (the counter-54 reap-drive,\n 12|brainproc.rs:276) → `write_ready`. It hosts NO PTY sessions, so it does not itself drain PTY\n 13|output. Neither IPC call blocks on a dead peer:\n 14|\n*15|- **`net_status()` is a cheap field read.** `dispatch_net_status` (broker.rs:3573) returns\n*16|  `node_id_hex()` / `addr_json()` / `conn_count()` — no `bounded_block_on`, no peer wait.\n*17|  `conn_count` takes `shared.conns.lock()` only briefly; a dead-peer connect never reaches\n 18|  `register_conn`, so it never holds that lock.\n 19|- **`sessions()` reap takes each OutputLog lock only briefly.** The `KIND_SESSIONS` handler\n 20|  (broker.rs:2853-2926) snapshots each session under its OWN log lock, calls\n...\n 52|> `write_frame` while HOLDING `send.lock()` → the dispatch thread cannot acquire `send.lock()`\n*53|> to send the heartbeat reply → `net_status()`/`sessions()` never return → the heartbeat loop\n 54|> is stuck → the brain never drains its conn → the subscriber writer stays blocked. **A\n 55|> self-reinforcing deadlock on the brain conn's send mutex.**\n 56|\n\n### adr/\n#### 0016-platform-targeted-update-sets.md\n 12|\n*13|If a recipient's platform is missing from an offered set, the result is a typed rejection such as `NoArtifactForPlatform`, not an up-to-date/no-op answer. A malformed or incomplete debug rollout should be visible in convergence reporting.\n 14|\n 15|The receiver may support both the original single-artifact `SignedRelease` shape and the new platform-targeted set shape during migration. Debug rollout can be the first user of update sets; stable release publishing can move later without blocking the debugging workflow.\n 16|\n...\n 44|\n*45|The debug driver should verify convergence after staging. By default, \"expected\" means every reachable node in the selected lab subnet that is pinned to `debug`; maintainer tooling may accept an explicit node list for targeted tests. It watches until every expected debug-pinned reachable node reports the target debug version applied, or returns a timeout table with per-node state such as not pinned, offline, staged awaiting consent, blocked by live broker resources, applied, or rejected.\n 46|\n 47|The debug channel sequence is maintainer-tooling state, not project truth or node identity. It may live in an ignored source-repo local file such as under `target/`; losing it is recoverable by choosing a higher debug version. Deployed nodes only require that the next accepted debug metadata version is greater than the current debug version they have seen.\n 48|\n...\n 50|\n*51|The first implementation slice is intentionally narrow: update-set metadata and verification, daemon staging/read path with local platform selection, maintainer `xtask` helpers for debug pinning and debug rollout, and loopback/two-host proof of propagation plus convergence reporting. Remote build orchestration, rich dashboards, adapter inclusion, and stable-release publishing migration are later work.\n 52|\n 53|## Considered Options\n 54|\n\n[Some lines truncated to 512 chars]"}],"details":{"scopePath":"spt-core/crates/spt/src, spt-core/crates/xtask, spt-core/docs","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":42,"fileCount":8,"files":["spt-core/crates/spt/src/cli.rs","spt-core/crates/spt/src/wansend.rs","spt-core/crates/xtask/src/main.rs","spt-core/docs/DEBUG-CONVERGE-PLAN.md","spt-core/docs/DEBUG-ROLLOUT.md","spt-core/docs/DEFERRED.md","spt-core/docs/UPDATE-WEDGE-2-ROUND3-CODEREAD.md","spt-core/docs/adr/0016-platform-targeted-update-sets.md"],"fileMatches":[{"path":"spt-core/crates/spt/src/cli.rs","count":5},{"path":"spt-core/crates/spt/src/wansend.rs","count":8},{"path":"spt-core/crates/xtask/src/main.rs","count":9},{"path":"spt-core/docs/DEBUG-CONVERGE-PLAN.md","count":9},{"path":"spt-core/docs/DEBUG-ROLLOUT.md","count":2},{"path":"spt-core/docs/DEFERRED.md","count":1},{"path":"spt-core/docs/UPDATE-WEDGE-2-ROUND3-CODEREAD.md","count":5},{"path":"spt-core/docs/adr/0016-platform-targeted-update-sets.md","count":3}],"truncated":true,"displayContent":"# spt-core/\n\n## crates/\n\n### spt/src/\n#### cli.rs\n 4118│            .flatten();\n*4119│        // One broker handle answers net-status, the F-025 image query, and the W2\n 4120│        // stall-evict tally.\n 4121│        let (net_up, broker_image, broker_queried, stall_stats) = if running {\n 4122│            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\n 4123│                Ok(mut b) => {\n*4124│                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n 4125│                    let stall = b.stall_evicts().ok().flatten();\n 4126│                    // Ok(Some)=version / Ok(None)=old broker (both a successful\n 4127│                    // query) vs Err=couldn't query — keep them distinct so a\n     │...\n 4221│        // cause, not a STALLED alarm read off a stale pre-boot heartbeat.\n*4222│        // One broker handle answers both net-status and the F-025 image query.\n 4223│        let (net_up, broker_image, stall_stats) = match spt_daemon::brain::Brain::cold_start(\n 4224│            &spt_daemon::broker_socket_name(),\n 4225│            now_ms(),\n     │...\n 4227│            Ok(mut b) => {\n*4228│                let net_up = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n 4229│                let stall = b.stall_evicts().ok().flatten();\n 4230│                let image = b.broker_image_version().ok().flatten();\n 4231│                (net_up, image, stall)\n     │...\n 7224│        .ok()\n*7225│        .and_then(|mut b| b.net_status().ok())\n 7226│        .map(|s| s.enabled)\n 7227│        .unwrap_or(true); // can't ask ⇒ assume serving rather than alarm\n 7228│    let att = spt_store::attachment::AttachmentStore::load();\n#### wansend.rs\n  964│        let mut b_probe = connect_retry(&b_name);\n *965│        let a_hex = a.net_status().expect(\"status\").node_id_hex.expect(\"net\");\n  966│        let b_hex = b_probe\n *967│            .net_status()\n  968│            .expect(\"status\")\n  969│            .node_id_hex\n  970│            .expect(\"net\");\n *971│        let b_addr = b_probe.net_status().expect(\"status\").addr;\n  972│\n  973│        // Ambiguity refuses before any wire work: two DISTINCT nodes hold the id\n  974│        // across the subnets → AcrossNodes (counter-39 #1: subnet is not a\n     │...\n 1093│        let mut b_probe = connect_retry(&b_name);\n*1094│        let a_hex = a.net_status().expect(\"status\").node_id_hex.expect(\"net\");\n 1095│        let b_hex = b_probe\n*1096│            .net_status()\n 1097│            .expect(\"status\")\n 1098│            .node_id_hex\n 1099│            .expect(\"net\");\n*1100│        let b_addr = b_probe.net_status().expect(\"status\").addr;\n 1101│        let regs = reg_with(\"s1\", target, &b_hex);\n 1102│        let resolver = |hex: &str| {\n 1103│            if hex == b_hex {\n     │...\n 1409│        let b_hex = b_probe\n*1410│            .net_status()\n 1411│            .expect(\"status\")\n 1412│            .node_id_hex\n 1413│            .expect(\"net\");\n*1414│        let b_addr = b_probe.net_status().expect(\"status\").addr;\n 1415│\n 1416│        // The registry places the endpoint on B; B's direct addr is seeded so\n 1417│        // seed_first_addr resolves it (no cold discovery on the loopback rig).\n\n### xtask/src/\n#### main.rs\n   50│        \"debug-rollout\" => debug_rollout(&args[1..]),\n  *51│        \"debug-converge\" => debug_converge(&args[1..]),\n   52│        _ => {\n   53│            eprintln!(\n  *54│                \"usage: xtask <gen|check|site <outdir>|release-keygen <key-id>|release-sign …|release-publish …|debug-keygen <key-id>|debug-pin …|debug-rollout …|debug-converge --version <u64> …>\"\n   55│            );\n   56│            std::process::exit(2);\n   57│        }\n     │...\n 1086│\n*1087│/// `xtask debug-converge` (M8 decision 19, REQ-UPD-6,\n*1088│/// docs/DEBUG-CONVERGE-PLAN.md): after a coordinator stages a debug rollout,\n 1089│/// answer \"did every expected lab node converge on the target debug version,\n 1090│/// and if not, why not?\" without hand-walking nodes. Watches via the\n 1091│/// status-only update query (`spt_daemon::propagate::request_update_status`)\n     │...\n 1098│// [impl->REQ-UPD-6]\n*1099│fn debug_converge(args: &[String]) {\n 1100│    use spt_daemon::propagate::{classify_status, ConvergeState, UpdateStatusReport};\n 1101│\n 1102│    let mut version: Option<u64> = None;\n     │...\n 1131│    let Some(target) = version else {\n*1132│        eprintln!(\"usage: xtask debug-converge --version <u64> [--nodes <hex,…>] [--subnet <name>] [--timeout <secs>] [--poll <secs>] [--home <path>]\");\n 1133│        std::process::exit(2);\n 1134│    };\n 1135│\n     │...\n 1181│    println!(\n*1182│        \"DEBUG_CONVERGE target={target} channel=debug{} expected={}\",\n 1183│        subnet\n 1184│            .as_deref()\n 1185│            .map(|s| format!(\" subnet={s}\"))\n     │...\n 1246│/// Render the per-node convergence table (one row per expected node, the\n*1247│/// DEBUG-CONVERGE-PLAN output shape). Pure for the unit test.\n 1248│// [impl->REQ-UPD-6]\n 1249│fn render_converge_table(\n 1250│    states: &std::collections::BTreeMap<String, spt_daemon::propagate::ConvergeState>,\n     │...\n 1402│    // [unit->REQ-UPD-6] the convergence table renders one row per expected\n*1403│    // node with the typed state + actionable hint (the DEBUG-CONVERGE-PLAN\n 1404│    // output shape) — and the success predicate behind the exit-code policy\n 1405│    // (0 converged / 1 not) is exactly \"every node Applied\".\n 1406│    #[test]\n\n## docs/\n### DEBUG-CONVERGE-PLAN.md\n  *1│# Build plan — `xtask debug-converge` (deferred follow-up)\n   2│\n   3│<!-- [doc->REQ-UPD-6] -->\n   4│\n    │...\n   8│`propagate::classify_status` as the pure classifier, the poll loop + table\n  *9│in `xtask debug-converge`. Deviations from the spec below: the per-node\n  10│status carries `(channel, staged_version, applied_version, last_outcome)`\n  11│from durable records (`applied.json` / `last-outcome.json` in the release\n  12│cache — apply and pump record them), and expected-node derivation is the\n    │...\n  22│\n *23│`debug-converge` watches until every *expected* debug-pinned reachable node\n  24│reports the target version applied, or it returns a per-node timeout table.\n  25│This is what turns \"fast to stage\" into \"fast to *verify deployed*\" — the\n  26│actual deployment-speed win the rollout pipeline exists for.\n    │...\n  29│\n *30│- **In:** an `xtask debug-converge` subcommand (maintainer tooling only, never\n  31│  the public `spt` surface — ADR-0016), per-node state classification, a\n  32│  convergence table, exit codes, loopback + two-host tests.\n  33│- **Out (still deferred):** remote build orchestration, dashboards/TUI, adapter\n    │...\n  38│```\n *39│xtask debug-converge --version <u64> [flags]\n  40│```\n  41│\n  42│| Flag | Default | Meaning |\n  43│|---|---|---|\n *44│| `--version <u64>` | required | target debug version to converge on |\n  45│| `--nodes <id,…>` | derived | explicit expected-node set; overrides derivation |\n  46│| `--subnet <name>` | the rollout's lab subnet | scope derivation to one subnet |\n  47│| `--timeout <secs>` | 120 | overall watch budget |\n    │...\n 102│```\n*103│DEBUG_CONVERGE target=7 channel=debug subnet=lab expected=3\n 104│  node-a   Applied                v7\n 105│  node-b   StagedAwaitingConsent  v6  (run: spt update apply)\n 106│  node-c   Rejected               NoArtifactForPlatform (x86_64-apple-darwin)\n    │...\n 121│2. **Node enumeration.** Factor the trust-derived subnet membership read out of\n*122│   the `subnet status` path (b9326f4) into something `debug-converge` can call\n 123│   for the expected set. Honor `--nodes` / `--subnet`.\n 124│3. **Poll loop + classifier.** In `xtask`: round-robin the expected set, map\n 125│   each response to the state model, stop early when all `Applied`, else until\n    │...\n 136│6. **Runbook.** Replace the manual \"Apply and observe\" steps in\n*137│   `DEBUG-ROLLOUT.md` with `xtask debug-converge`, keeping the manual path as\n 138│   the fallback.\n 139│\n 140│## Traceability\n### DEBUG-ROLLOUT.md\n  90│```powershell\n *91│cargo run -p xtask -- debug-converge --version <N> [--subnet <name>] [--timeout 120] [--poll 3]\n  92│```\n  93│\n  94│It polls every expected node (the coordinator's trust rows; `--nodes <hex,…>`\n    │...\n  97│`Offline` — exiting `0` only when every node applied the target (`1`\n *98│otherwise, `2` on usage). Spec + state model: `docs/DEBUG-CONVERGE-PLAN.md`.\n  99│The manual walk below remains the fallback.\n 100│\n 101│Useful outcomes:\n### DEFERRED.md\n 35│| **Subnet full-mesh visibility (PLANNED MILESTONE — `SUBNET-MESH-PLAN.md`)**: non-directly-paired members never see each other — a subnet is currently the PAIRING GRAPH, not a mesh (A↔B, C↔B; B offline → A and C invisible; even with B online, B doesn't relay). Root: pairwise TOFU trust (`trust.rs`) + own-rows-only gossip / no transitive relay (`peerloop.rs`, KH 4.10/7.5) + no member roster in the pairing seed transfer. FIX = member-AUTHENTICATED subnet data (seed-MAC and/or per-node signatures...\n*36│| `xtask debug-converge` — automated convergence watcher for debug rollout (the REQ-UPD-6 first-slice item ADR-0016 names): watch every expected debug-pinned reachable lab node until all report the target version applied, else a per-node timeout table (Offline / StagedAwaitingConsent / BlockedByBrokerResources / Rejected{reason}). Activates REQ-UPD-6's `int` stage. Full build plan: `docs/DEBUG-CONVERGE-PLAN.md` | REQ-UPD-6 first slice (2026-06-06) | The first slice ships manual \"Apply and observe\" (`DE...\n 37│| **Origin-source update bootstrap (`spt update fetch` — pull the latest signed release from GitHub into the existing verify→stage→apply pipeline)**: today update DISCOVERY is **peer-only** (REQ-UPD-1: a daemon pulls offers from roster peers via `request_update`; `propagate.rs`/`peerloop.rs`). There is NO origin fetch, so the **first node in a fleet — or any isolated/solo node — cannot get a new release without a peer that already staged it** (the fleet converges by gossip, but only *after* a m...\n 38│| **Test broker socket-bind hardening (CI-flake removal)**: `applyhost` tests' `served_broker` helper does `Broker::bind(name).expect(\"bind broker\")` (`crates/spt-daemon/src/applyhost.rs:293`) where `name` = `spt-daemon-d7b-{pid}-{seq}.sock`. Flakes intermittently on the **kitsubito** self-hosted Linux runner (likely AF_UNIX path collision / stale socket file under the runner's reused workspace — Windows named pipes don't hit it). Cost the v0.3.2 release a full red CI run + a `--failed` rerun (2026-06-...\n 39│| **`spt update fetch` single→set shape-upgrade at same version (REQ-UPD-8 transitional trap)**: `cmd_update_fetch` sets the rollback floor = `staged_version` (the monotonic counter), and the gate is a plain `candidate > floor`. A node that fetched+staged version N as a platform **single** (pre-0.3.2 fetch behavior) can never re-fetch version N as a multi-platform **set** — same counter → `Rollback{current:N, candidate:N}`. Bites the **seed-node bootstrap**: the first node to origin-`fetch` a relea...\n### UPDATE-WEDGE-2-ROUND3-CODEREAD.md\n 10│`run_brain`'s heartbeat loop (brainproc.rs:239-278) per tick: `thread::sleep(500ms)` →\n*11│`brain.net_status()` → spawn-consumers-once → `brain.sessions()` (the counter-54 reap-drive,\n 12│brainproc.rs:276) → `write_ready`. It hosts NO PTY sessions, so it does not itself drain PTY\n 13│output. Neither IPC call blocks on a dead peer:\n 14│\n*15│- **`net_status()` is a cheap field read.** `dispatch_net_status` (broker.rs:3573) returns\n*16│  `node_id_hex()` / `addr_json()` / `conn_count()` — no `bounded_block_on`, no peer wait.\n*17│  `conn_count` takes `shared.conns.lock()` only briefly; a dead-peer connect never reaches\n 18│  `register_conn`, so it never holds that lock.\n 19│- **`sessions()` reap takes each OutputLog lock only briefly.** The `KIND_SESSIONS` handler\n 20│  (broker.rs:2853-2926) snapshots each session under its OWN log lock, calls\n   │...\n 52│> `write_frame` while HOLDING `send.lock()` → the dispatch thread cannot acquire `send.lock()`\n*53│> to send the heartbeat reply → `net_status()`/`sessions()` never return → the heartbeat loop\n 54│> is stuck → the brain never drains its conn → the subscriber writer stays blocked. **A\n 55│> self-reinforcing deadlock on the brain conn's send mutex.**\n 56│\n\n### adr/\n#### 0016-platform-targeted-update-sets.md\n 12│\n*13│If a recipient's platform is missing from an offered set, the result is a typed rejection such as `NoArtifactForPlatform`, not an up-to-date/no-op answer. A malformed or incomplete debug rollout should be visible in convergence reporting.\n 14│\n 15│The receiver may support both the original single-artifact `SignedRelease` shape and the new platform-targeted set shape during migration. Debug rollout can be the first user of update sets; stable release publishing can move later without blocking the debugging workflow.\n 16│\n   │...\n 44│\n*45│The debug driver should verify convergence after staging. By default, \"expected\" means every reachable node in the selected lab subnet that is pinned to `debug`; maintainer tooling may accept an explicit node list for targeted tests. It watches until every expected debug-pinned reachable node reports the target debug version applied, or returns a timeout table with per-node state such as not pinned, offline, staged awaiting consent, blocked by live broker resources, applied, or rejected.\n 46│\n 47│The debug channel sequence is maintainer-tooling state, not project truth or node identity. It may live in an ignored source-repo local file such as under `target/`; losing it is recoverable by choosing a higher debug version. Deployed nodes only require that the next accepted debug metadata version is greater than the current debug version they have seen.\n 48│\n   │...\n 50│\n*51│The first implementation slice is intentionally narrow: update-set metadata and verification, daemon staging/read path with local platform selection, maintainer `xtask` helpers for debug pinning and debug rollout, and loopback/two-host proof of propagation plus convergence reporting. Remote build orchestration, rich dashboards, adapter inclusion, and stable-release publishing migration are later work.\n 52│\n 53│## Considered Options\n 54│","linesTruncated":true,"meta":{"limits":{"columnTruncated":{"maxColumn":512}}}},"isError":false,"timestamp":1784069285348}}
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Noun namespace with\n/// subcommand verbs and positional subnet names — never `--subnet` flags\n/// (M7 plan decision 3).\n#[derive(Subcommand)]\nenum SubnetCmd {\n    /// Show subnet membership: name, paired nodes, endpoints.\n    ///\n    /// Never prints seeds, epochs, or pairing codes. Bare `spt subnet` is\n    /// the same view.\n    Status {\n        /// Limit to one subnet (all member subnets otherwise).\n        name: Option<String>,\n        /// Per-node rows: label, online/offline, [online endpoints/total].\n        #[arg(long)]\n        nodes: bool,\n    },\n    /// Mint a fresh subnet and print its joining material.\n    ///\n    /// This node becomes the sole seed-holder. Prints the current 6-digit\n    /// code, the `otpauth://` provisioning URI, and a terminal QR of it.\n    /// Gated behind OS elevation (the seed-reveal path).\n    Create {\n        /// The new subnet's name.\n        name: String,\n    },\n…\n}\n\n[Showing lines 944-983 of 17537. Use :984 to continue]"}],"details":{"truncation":{"content":"    Fetch {\r\n        /// Accept a release on this channel instead of the node's pin (e.g.\r\n        /// `beta`). Default: the node's pinned channel.\r\n        #[arg(long)]\r\n        channel: Option<String>,\r\n        /// Fetch a specific release tag (e.g. `v0.3.1`) instead of the latest.\r\n        #[arg(long)]\r\n        tag: Option<String>,\r\n        /// Fetch then install in one step — apply the staged update even if the\r\n        /// latest was already downloaded. The one-shot \"get me to the latest\".\r\n        #[arg(long)]\r\n        apply: bool,\r\n    },\r\n}\r\n\r\n/// `spt subnet <action>` subcommands (REQ-SUBNET-1). Noun namespace with\r\n/// subcommand verbs and positional subnet names — never `--subnet` flags\r\n/// (M7 plan decision 3).\r\n#[derive(Subcommand)]\r\nenum SubnetCmd {\r\n    /// Show subnet membership: name, paired nodes, endpoints.\r\n    ///\r\n    /// Never prints seeds, epochs, or pairing codes. Bare `spt subnet` is\r\n    /// the same view.\r\n    Status {\r\n        /// Limit to one subnet (all member subnets otherwise).\r\n        name: Option<String>,\r\n        /// Per-node rows: label, online/offline, [online endpoints/total].\r\n        #[arg(long)]\r\n        nodes: bool,\r\n    },\r\n    /// Mint a fresh subnet and print its joining material.\r\n    ///\r\n    /// This node becomes the sole seed-holder. Prints the current 6-digit\r\n    /// code, the `otpauth://` provisioning URI, and a terminal QR of it.\r\n    /// Gated behind OS elevation (the seed-reveal path).\r\n    Create {\r\n        /// The new subnet's name.\r\n        name: String,\r\n    },\r","truncated":true,"truncatedBy":"lines","totalLines":16594,"totalBytes":1552,"outputLines":40,"outputBytes":1552,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"enum UpdateCmd {\n…\n    Fetch {\r\n        /// Accept a release on this channel instead of the node's pin (e.g.\r\n        /// `beta`). Default: the node's pinned channel.\r\n        #[arg(long)]\r\n        channel: Option<String>,\r\n        /// Fetch a specific release tag (e.g. `v0.3.1`) instead of the latest.\r\n        #[arg(long)]\r\n        tag: Option<String>,\r\n        /// Fetch then install in one step — apply the staged update even if the\r\n        /// latest was already downloaded. The one-shot \"get me to the latest\".\r\n        #[arg(long)]\r\n        apply: bool,\r\n    },\r\n}\r\n\r\n/// `spt subnet <action>` subcommands (REQ-SUBNET-1). Noun namespace with\r\n/// subcommand verbs and positional subnet names — never `--subnet` flags\r\n/// (M7 plan decision 3).\r\n#[derive(Subcommand)]\r\nenum SubnetCmd {\r\n    /// Show subnet membership: name, paired nodes, endpoints.\r\n    ///\r\n    /// Never prints seeds, epochs, or pairing codes. Bare `spt subnet` is\r\n    /// the same view.\r\n    Status {\r\n        /// Limit to one subnet (all member subnets otherwise).\r\n        name: Option<String>,\r\n        /// Per-node rows: label, online/offline, [online endpoints/total].\r\n        #[arg(long)]\r\n        nodes: bool,\r\n    },\r\n    /// Mint a fresh subnet and print its joining material.\r\n    ///\r\n    /// This node becomes the sole seed-holder. 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{"type":"message","id":"faff833f","parentId":"b859a260","timestamp":"2026-07-14T22:48:07.178Z","message":{"role":"toolResult","toolCallId":"call_Qdru5VgpakAcIqmsMU7qFnip|fc_0b084cf0b521ab15016a56bca52a48819080137dd953496fca","toolName":"grep","content":[{"type":"text","text":"# spt-core/\n## CI-SELFHOST-PLAN.md\n 16||---|---|---|---|\n*17|| Windows | HFENDULEAM (this box) | `self-hosted, Windows, hfenduleam` | windows test leg |\n 18|| Linux | ~~gravity-linux~~ → kitsubito (Ubuntu 22.04) | `self-hosted, Linux, kitsubito` | linux test leg (the real clippy `-D warnings` gate) + traceability job |\n 19|\n 20|## Steps\n...\n 23|   `gh api -X POST repos/SaberMage/spt-core/actions/runners/registration-token --jq .token`\n*24|2. **HFENDULEAM runner**: download actions-runner (win-x64), `config.cmd --url\n*25|   https://github.com/SaberMage/spt-core --token <T> --labels hfenduleam\n 26|   --unattended`, install as Windows service (`svc install` + `svc start`).\n 27|   Work dir on the fast disk, NOT inside the dev checkout (its own clone+target).\n 28|3. **gravity-linux runner**: same via ssh (linux-x64 tarball, `./config.sh`,\n## CONTEXT.md\n 655|**resolution policy**:\n*656|How bare `ling` resolves when multiple instances exist. Rule: local-node instance if present → else most-recently-active → explicit override always available. **Two qualifier syntaxes**, combinable: **subnet-qualified** `home:ling` and **node-qualified** `ling@hfenduleam` (→ `home:ling@hfenduleam`). **Multi-subnet ambiguity rule:** under node-global identity (endpoint ID below), a node on several subnets may see two *distinct* endpoints that share a bare name (a `home:ling` and an unrelated `work:l...\n 657|\n 658|**instantiate-anywhere** (seam day-one, behavior deferred):\n 659|From node Y, spin up an instance of an endpoint on node X by routing a launch command to X's daemon, which runs the endpoint's manifest locally. \"Agents can spin up instances (including of themselves) on any node, possibly requiring user consent\" — so a **consent gate** governs remote instantiation. The consent-UX design is deferred; the model is built to accommodate it.\n...\n 698|\n*699|**subnet member / membership proof (seed-proof)**:\n*700|A **member** of subnet S is any node that can prove knowledge of S's **current-epoch seed** (the seed every trusted node already holds — *TOTP-seeded SPAKE2 pairing*). This **membership proof** (\"seed-proof\") is the authorization the inbound gate consumes: a connecting peer is admitted iff it proves current-epoch seed-knowledge, bound to its QUIC-handshake-proven node pubkey (so identity stays per-node and unforgeable — *trust store* / KNOWN-HAZARDS 7.5). Membership = seed-knowledge, **not** pairwise...\n 701|_Replaces_: the pairwise-`is_trusted` authorization at every inbound gate (registry apply, WAN receive, sync, notif, connection accept).\n 702|\n 703|**member roster**:\n*704|Per subnet, the set of member node pubkeys with their addresses and labels — a **discovery** directory (\"whom to dial / what to call them\"), **not** an authorization list (authorization is *membership proof*). Propagated transitively: seeded into the joiner at pairing and gossiped whenever any path opens, so a node learns members it never paired with. **Discovery-only and therefore forgery-inert** — a fabricated roster entry just names a pubkey that still cannot produce the seed-proof on connect, so ...\n 705|\n 706|**subnet membership (multi-subnet)**:\n 707|A node may be a member of **multiple subnets at once** — but, for v1, only multiple subnets *of the same user* (e.g. a `home` fleet and a `work` fleet, each cryptographically its own TOTP seed + trust context). A node simply holds *N* seeds / trust-contexts rather than one. The per-subnet trust boundary is unchanged: within each subnet, all nodes are the one user's own mutually-trusted nodes (no stranger-auth). **Cross-*user* membership (joining another person's subnet) stays deferred**, but the member...\n 708|\n*709|**Cross-user seam (forward design, not v1):** the seed key generalizes from *per-subnet* to **per-(subnet, user)** — a seed then doubles as an identifier+authenticator for *whose* it is. The pairing/code prompt becomes **2-stage** (select user / create-new → then select subnet / create-new); in v1 the single implicit user collapses it back to the 1-stage prompt. This makes node↔user attribution fall out for free (\"node `enlyzeam` is using Brandon's `work` seed → that machine's active endpoint is ...\n 710|\n 711|**seed rotation / revoke**:\n 712|Removing a member is **`spt subnet revoke <node>...`** (elevation-gated, revoke-only — *adding* a member never rotates; the joiner just receives the current seed at pairing). Two effects:\n...\n 734|**trust store** (RETIRED — superseded by *member roster* + *membership proof*):\n*735|Historically a local TOFU store (`peers.json`) of pinned peer pubkeys that **authorized** inbound connections. The mesh model replaces pairwise-pin authorization with live **seed-proof** (*membership proof*), so the pinned-peer list is gone — **hard cutover, no `peers.json`** (single-user fleet, no migration). Its one surviving function is **warn-on-change**, reframed: an **awareness notice** (not a gate — seed-proof already admitted the peer) fired when a node presenting a **known machine_id** appea...\n 736|\n 737|**link discovery (TOTP-epoch + name) — the meet selector is public; the code is not**:\n 738|The pairing rendezvous (the **meet**) routes two not-yet-trusted nodes to the same relay rendezvous over the pre-trust pairing ALPN. Its selector is **`(subnet-name, TOTP-epoch)` — both public**, *not* the secret code. Distinguish the two TOTP-derived values (they are routinely conflated):\n...\n 757|**node label**:\n*758|A human display name for a node, defaulting to the machine's OS hostname (re-checked at daemon startup; a hostname change updates the label). Advertised through the existing registry gossip so subnet views render `HFENDULEAM (bcead52b…)` instead of bare key hex. The pubkey remains the identity; the label is **addressable**: an `@node` qualifier accepts a label or a key-prefix (`ling@hfenduleam`). Labels are not unique — an ambiguous label follows the resolution policy's refuse-and-qualify rule (refus...\n 759|\n 760|**`#` always-on sigil** (ratified 2026-06-21):\n 761|A reserved **leading address sigil** marking an [[AlwaysOnEndpoint]], extending the `:`/`@` reserved-delimiter discipline (id charset stays narrow per `REQ-HAZARD-ID-CHARSET`; the sigil lives at the address-grammar layer, **never in the bare id** — `#general` addresses the clean stored id `general`). It is **mandatory and bijective**: `#name` ⟺ an always-on endpoint, bare `name` ⟺ an agent endpoint — so the router resolves the endpoint **class from the address alone**, before any registry lookup....\n## DAEMON-LIFECYCLE-COMPLETION-PLAN.md\n 124|- Brain restart re-hosts the lifecycle (rides the ADR-0018 survival).\n*125|- Full workspace suite green on hfenduleam + kitsubito.\n 126|\n 127|## 6. Open questions for doyle (gate before W0.1)\n 128|1. **REQ shape:** re-point REQ-DAEMON-1 `int` + add production `impl`, or mint\n## DAEMON-LIFECYCLE-PLAN.md\n 111|- v0.2.0 already registered the systemd unit on kitsubito + the scheduled-task\n*112|  attempt on HFENDULEAM (HFENDULEAM's task needs an elevated re-run — still open).\n 113|- After this ships: re-roll to the fleet so `start`/`stop` drive the managed\n 114|  service everywhere; document the daemon-lifecycle UX in the CLI reference +\n 115|  CHANGELOG.\n## M11-PLAN.md\n 194|  Gateway-owned shell — class-gated **cmd + latest-wins drive** only (C2: tunnel is NOT\n*195|  proven cross-WAN — same-node mock E2E in T3.3 carries it), HFENDULEAM ↔ kitsubito.\n 196|  - **W2 CARRY (doyle gate, 2026-06-15):** the cross-node DRIVE drop-not-wake rung was\n 197|    already landed in `tests/twohost.rs` at W2 (T2.4 @13fa53e) but is `[twohost]`-gated, so it\n 198|    SKIPS normal CI — its real-Iroh wire (drop-not-wake over the link, never woken/spooled) is\n...\n 238|- Gateway owner: E2E parity with an agent owner across all ownership paths.\n*239|- Full workspace suite green on hfenduleam + kitsubito; the M11 `[twohost]` rung green.\n 240|\n 241|## 6. Open questions — RESOLVED (doyle PASS 2026-06-15, see §3a)\n 242|1. **Build-now vs defer the no-real-consumer machinery.** Drive + tunnel have no in-tree\n## M4-D9-PLAN.md\n 23|  staged + consent-notified at A) → notif (insert on A fired on B; dismiss on B\n*24|  replicated to A). HFENDULEAM ↔ gravity-linux over tailscale; whole ladder ~8 s\n 25|  once both sides up; no firewall rule needed (the pump keeps the reverse UDP\n 26|  4-tuple warm). Evidence in the runbook appendix; `docs/FLAKE-LEDGER.md` made\n 27|  durable en route (digest flake second occurrence, rerun passed).\n...\n 36|  (the `[budget]` commit-message CI gate runs the env-gated harness\n*37|  `tests/budget.rs` on both runners): HFENDULEAM shell seat 7.6 MiB / claude seat\n 38|  ~308 MiB / zero idle CPU; gravity shell seat 1.7 MiB; suspended residual = the\n 39|  on-disk record. `docs/DORMANCY-BUDGET.md` locks the policy (warm default\n 40|  CONFIRMED; auto-suspend opt-in default OFF on the D9-2 knob chain; constrained\n...\n 112|+ immutable-home/fork shipped (REQ-INST-3, -4, -14, -15); the two-host proof demoed on\n*113|the rig (HFENDULEAM ↔ gravity-linux) with `[int->REQ-*]` evidence; the gh-repo interim\n 114|retired; every M4 req's `required_stages` satisfied; CI matrix green.\n 115|\n 116|## The deferred-to-D9 ledger (all land here)\n...\n 221|   - Record in `docs/DORMANCY-BUDGET.md`: methodology, numbers per host\n*222|     (HFENDULEAM Windows + gravity Linux), the resulting policy.\n 223|   - Lock policy: warm default confirmed (or amended — the numbers decide),\n 224|     auto-suspend default OFF globally, node-overridable (constrained nodes may\n 225|     default ON), thresholds as config knobs. Amend ADR-0003 (#9 closed: \"measured\n...\n 266|     `[int->REQ-NOTIF-1]` (+ pairing/registry reqs as the ladder touches them).\n*267|   - `docs/TWO-HOST-RUNBOOK.md`: the exact rig procedure (HFENDULEAM ↔ gravity-linux),\n 268|     env setup, run order, what green looks like; evidence (run output) captured in a\n 269|     runbook appendix when the rig run happens.\n 270|   - **Run the runbook on the rig.** Activate the touched reqs' `int` stages only\n## M4-PLAN.md\n 3|> **Status: COMPLETE (2026-06-04).** D0–D9 all delivered CI-green; the §D9b\n*4|> two-host proof ran on the real rig (CI run `26958175812`, HFENDULEAM ↔\n 5|> gravity-linux — `docs/TWO-HOST-RUNBOOK.md` evidence appendix); every M4 req\n 6|> satisfied at its `required_stages` or rule-5-deferred with rationale\n 7|> (`traceable-reqs check` green); ROADMAP §M4 records the delivery. Deferred\n## M5-D7-PLAN.md\n 28|- **D7c (mostly DONE already):** ci.yml test matrix already runs on\n*29|  `[self-hosted, Linux, gravity]` + `[self-hosted, Windows, hfenduleam]`;\n 30|  `twohost-a`/`twohost-b` cross-runner jobs exist, gated on `[twohost]` in the\n 31|  commit message (tailscale peer IPs, `SPT_TWO_HOST_*` env, 900s wait,\n 32|  `needs: test`); whole M4 ladder proven green 2026-06-04 (run 26958175812).\n## M5-PLAN.md\n 271|- **D7c** Cross-runner CI two-host job: automate the `[twohost]` ladder as a cross-runner\n*272|  workflow (hfenduleam + gravity runners coordinated in one run; runbook stays the manual\n 273|  fallback). Gotchas #7/#13/#17 discipline baked in.\n 274|- **Acceptance:** relay-routed pairing E2E; a real update applies off a notif ack;\n 275|  the cross-runner job goes green on the rig unattended.\n## M7-PLAN.md\n 6|> `subnet status --nodes` labeled+online on both machines, cross-machine\n*7|> `SENT(WAN)` proven in both directions (HFENDULEAM ↔ gravity-linux), and the\n 8|> rig's product-surface join rung carries the pairing `int` evidence. The\n 9|> acceptance run surfaced two publish-blocking field bugs, both fixed before\n 10|> closeout: elevated daemon spawn (KNOWN-HAZARDS 5.7,\n...\n 50|| 6 | `status --nodes`: per-node rows — node label, online/offline, `[online endpoints/total]`. Liveness = **hybrid**: gossip-recency for the table, probe only stale rows. |\n*51|| 7 | **Node labels**: default = OS hostname, re-checked at daemon startup (hostname change → label update), advertised via existing registry gossip (additive serde-default field). Render `HFENDULEAM (bcead52b…)`. Labels are **addressable** in `@node` qualifiers (label or key-prefix); non-unique label → refuse-and-qualify with candidate key prefixes, never guess. |\n 52|| 8 | **Responder always-on** in every member daemon (pre-trust pairing ALPN), per ADR-0005's one-sided-UX intent; the ADR red-team #11 subnet-global rate limiter is the standing-listener guard. No arming step. |\n 53|| 9 | **Elevation gates** (existing `EXIT_NOT_ELEVATED=3` convention): `subnet create` (seed reveal) and `subnet join` (trust-boundary mutation — an unprivileged process must not enroll the machine into an attacker's subnet) and `show-totp` (already gated). `status` ungated (read-only, no secrets). → ADR-0005 amendment, CONTEXT.md updated. |\n 54|| 10 | Guided join flow (joiner side, interactive when args missing): prompt name → prompt code → LAN+relay rendezvous search → ceremony → \"Joined \\\"home\\\" — 2 nodes: …\". Wrong code → clean re-prompt (fresh window), bounded attempts, rate-limit messages surfaced honestly. No-seed-holder-found → actionable hints (member online? same name? clock sync?). First-join home adoption (REQ-INST-15) fires on join as on create. |\n## M8-ACCEPTANCE-STEPS.md\n*1|# M8 acceptance — rig steps (HFENDULEAM + kitsubito, isolated homes)\n 2|\n 3|Prepared 2026-06-07. **Non-destructive**: everything runs against throwaway\n 4|`SPT_HOME`s — your live doyle listener, the real nodes, and BIGNET's\n...\n 10||---|---|---|\n*11|| **HFENDULEAM** | `C:\\Users\\decid\\Documents\\projects\\spt-core\\target\\release\\spt.exe` | `C:\\Users\\decid\\spt-accept\\home` |\n 12|| **kitsubito** | `~/spt-core-deploy/target/release/spt` | `~/spt-accept-home` |\n 13|\n 14|Shorthands below:\n*15|- HF (run in an **elevated PowerShell** on HFENDULEAM):\n 16|  ```powershell\n 17|  $env:SPT_HOME=\"C:\\Users\\decid\\spt-accept\\home\"\n 18|  $spt=\"C:\\Users\\decid\\Documents\\projects\\spt-core\\target\\release\\spt.exe\"\n...\n 32|\n*33|All criteria exercised on real hardware (HFENDULEAM ↔ kitsubito, orchestrated\n 34|doyle+todlando):\n 35|\n 36|| # | Criterion | Verdict |\n...\n 63|## Already passed (no rig action needed)\n*64|- **2** Windows install (enlyzeam: firewall + at-logon task, v0.1.0→D4) ✓\n*65|- **9** skewed-clock pairing (enlyzeam +206s; NTP-on JOINED, NTP-off NO_SEED_HOLDER) ✓\n 66|- **4** old verbs gone / hot path intact ✓ · **8** status honesty ✓\n 67|- **debug-converge** tooling (exit 0/1/2) ✓ · full **twohost** cross-node ladder ✓\n 68|- **10-healthy** `peer pump: live` render ✓\n...\n 89|\n*90|## ✅ Criterion 1/3 (2026-06-07, HFENDULEAM) — Windows de-elevation bug found + FIXED + verified\n 91|\n 92|**Windows leg found a second REQ-HAZARD-ELEVATED-DAEMON-SPAWN bug; fixed and re-verified on hardware.**\n 93|- **Respawn (criterion 3): PASS** — elevated `daemon run` respawns de-elevated.\n...\n 188|   ```sh\n*189|   run subnet status ACCEPT --nodes            # → KITSUBITO + HFENDULEAM, both online\n 190|   ```\n 191|\n 192|---\n...\n 195|\n*196|`subnet detach ACCEPT` on HFENDULEAM correctly stops it serving/advertising\n 197|ACCEPT (rows withdraw — its friendly name vanishes from kitsubito's\n 198|`status --nodes`), **but the row stayed `online`** indefinitely. Root cause:\n 199|liveness fell to `Probe` → `probe_node` did a raw transport dial by\n 200|node-pubkey (`addr_for_node_hex` → `net_dial`), which succeeded because\n*201|HFENDULEAM's daemon endpoint stays bound for its own home. One ALPN\n 202|(`spt-core/net/0`) serves every subnet, so the dial was subnet-blind — it\n 203|proved \"the box is up\", not \"still serving ACCEPT\".\n 204|\n...\n 219|```powershell\n*220|& $spt subnet detach ACCEPT        # HFENDULEAM stops serving ACCEPT\n 221|```\n 222|```sh\n*223|run subnet status ACCEPT --nodes   # HFENDULEAM drops to offline for ACCEPT within a cadence\n 224|```\n 225|```powershell\n 226|& $spt subnet attach ACCEPT        # back\n...\n 228|```sh\n*229|run subnet status ACCEPT --nodes   # HFENDULEAM online again\n 230|```\n 231|\n 232|**prune (synthetic dead identity, since BIGNET is intentionally untouched):**\n 233|```powershell\n*234|& $spt daemon stop                 # HFENDULEAM's ACCEPT node goes silent (trust rows linger on kitsubito)\n 235|```\n 236|```sh\n*237|run subnet status ACCEPT --nodes   # note HFENDULEAM's node-id prefix\n 238|run subnet prune <hf-prefix>       # elevation-gated; drops the dead identity's trust rows\n 239|run subnet status ACCEPT --nodes   # the pruned identity is gone; no more dead dials\n 240|```\n...\n 287|> ceremony) beside new `96802fb2` **online** [1/1]; +33s (one cadence) the old row\n*288|> **evicted** — leaving exactly **one** HFENDULEAM row (`96802fb2`), no manual prune.\n 289|> Sub-check (hazard 4.11): the fresh rows rendered online immediately, never stale-dropped.\n 290|\n*291|On HFENDULEAM, regenerate the node identity and re-join with the same label:\n 292|```powershell\n 293|& $spt daemon stop\n 294|Remove-Item \"$env:SPT_HOME\\identity\\node.key\"      # new identity on next start\n...\n 300|```\n*301|PASS: ACCEPT shows **one** trust row + **one** registry identity for HFENDULEAM\n 302|(the old identity auto-evicted at the ceremony — no manual prune). Sub-check\n 303|(hazard 4.11): the re-paired node's fresh rows are NOT dropped as stale — they\n 304|appear online, proving the peer-side epoch memory died with the evicted row.\n## M8-ACCEPTANCE.md\n 6|verified** (single-host, automatable) vs what needs the **real-hardware\n*7|ceremony** (fresh installs, reboots, a second/third machine, enlyzeam's\n 8|skewed clock).\n 9|\n*10|## Real-hardware results (2026-06-07, kitsubito Linux + enlyzeam Windows)\n 11|\n*12|Driven over SSH (`reavus@kitsubito` w/ sudo, `decid@enlyzeam` elevated). D4\n 13|built on each from source; throwaway subnets cleaned up after.\n 14|\n*15|- **Criterion 2 — fresh Windows install (enlyzeam).** ✅ `install.ps1`\n*16|  (local asset base) **upgraded enlyzeam from the public v0.1.0 → D4** and\n 17|  fired every leg: sha256 verified, inbound **UDP firewall rule registered**\n 18|  (REQ-INSTALL-7), **at-logon daemon scheduled task registered**\n 19|  (REQ-INSTALL-8), user PATH set. `daemon status` then rendered\n...\n 22|\n*23|- **Criterion 9 — skewed-clock pairing (enlyzeam, clock +206s ≈ 7 TOTP\n 24|  steps off).** ✅ **both arms:**\n*25|  - NTP **on** (default): `spt subnet join` from enlyzeam → `JOINED` — the\n 26|    in-process NTP offset carried the rendezvous token *and* the ceremony\n*27|    step. The exact enlyzeam scenario decision 18 targeted.\n 28|  - NTP **off** (`SPT_NTP_SERVER=off` on the daemon, +206s uncorrected) →\n 29|    `NO_SEED_HOLDER` (\"the rendezvous derives from the time\") — proves the\n 30|    offset is the carrier, not luck.\n...\n 32|- **Criterion 6 — convergence (live pair).** ✅ accept9 peers saw each other:\n*33|  `status --nodes` on kitsubito showed KITSUBITO + enlyzeam both `online`.\n 34|  (Precise restart-resync *timing* still a rig follow-up.)\n 35|\n 36|- **Criterion 1 — Linux install legs (kitsubito).** ◐ partial. The installer\n...\n 62|\n*63|## Bench-verified on HFENDULEAM (2026-06-07)\n 64|\n 65|Isolated `SPT_HOME` throwaway homes — the live owl listener was never touched.\n 66|\n...\n 101|  Pushed `e10def4` ([twohost]) on the D4 binary; CI ladder (pair → register →\n*102|  message → drive → sync → update → notif) over the real HFENDULEAM↔kitsubito\n 103|  path proves D4 did not regress cross-node. (Static `ip:port`, so it is a\n 104|  regression guard, not the criterion-6 convergence-timing proof.)\n 105|\n...\n 108|These require fresh installs / reboots / elevation prompts / a second or\n*109|third machine / enlyzeam's skewed clock — not performable from this bench.\n 110|Deploy a **D4 binary** to each rig node first (any new binary also self-heals\n*111|hfenduleam's v0.1.0-dead pump — D4 makes that class supervised + visible).\n 112|\n 113|1. **Fresh kitsubito Linux install** (clean user, real one-liner):\n 114|   `sudo spt subnet …` resolves (symlink leg) and prompts the default-account\n...\n 142|\n*143|9. **Skewed-clock pairing** (the NTP trigger): pair from **enlyzeam** (clock\n 144|   ≥1 min off) — the ceremony completes via the NTP TOTP offset. With NTP\n 145|   blocked (`SPT_NTP_SERVER=off`), behavior matches today's (system clock,\n 146|   ±1 window) — i.e. a >1-min skew fails closed, proving the offset is what\n*147|   carries enlyzeam.\n 148|\n 149|10. **Pump-death honesty** (live half): kill/stall the pump on a running rig\n 150|    daemon → `spt daemon status` + `spt subnet status` render the stall\n## M8-PLAN.md\n 88|| 17 | B | **OS-service shape: Linux systemd *user* service + `loginctl enable-linger`** (linger enable rides the elevated install leg; daemon starts at boot pre-login, user-universe per KH 5.7, managed via `systemctl --user`). **Windows: scheduled task at-logon** (interactive session, no stored credentials, no session-0 isolation breaking terminal hosting). At-startup S4U variant = later opt-in if a headless Windows node ever exists. |\n*89|| 18 | C | **NTP IN SCOPE — trigger fired**: enlyzeam's system clock is known >1 min off (exceeds the ±1 TOTP window). Shape (C2): **TOTP offset-correction only** — query NTP at ceremony time (both sides), apply the offset to the TOTP calculation in-process; **system-clock fallback** when NTP unreachable (offline LAN pairing unaffected — NTP failure never blocks a pairing that succeeds today); never sets the OS clock; no background sync loop. Epoch/lease ordering stays monotonic-clock — untouche...\n 90|| 19 | D | **`xtask debug-converge` IN SCOPE** (builds in D4, activates REQ-UPD-6 int, `docs/DEBUG-CONVERGE-PLAN.md` is the spec). The 2026-06-07 pump diagnosis was the hand-rolled version of this table — the tool pays for itself; acceptance 6 gains instrumented evidence. |\n 91|| 20 | E | **Address seeding = narrow patch, concretized**: there is NO existing addr cache (production resolution is the id-only `PeerResolver`, `peerloop.rs`). New minimal `peer-addrs.json` in the identity dir (sibling of `pump-ops.json`): pubkey-hex → last-known iroh NodeAddr. Resolver consults it FIRST, falls back to id-only discovery on miss **or dial failure** (a stale addr never strands a peer). Two writers: pairing ceremony (both sides, from the live connection) + the pump on successful connect...\n 92|| 21 | F | **`endpoint access` ports 1:1**: `spt endpoint access allow\\|revoke\\|open\\|list`, same args/semantics (ADR-0009 polarity naming preserved). M8's break is location-only; any verb reshape belongs to the consent framework's touch. |\n 93|| 22 | G | **Machine identifier = OS machine id** (`/etc/machine-id` / Windows `MachineGuid`), **domain-separated SHA-256 before gossip** (`sha256(\"spt-machine-id:\" + raw)` — never raw on the wire). spt-minted persisted UUID as fallback where the OS id is unreadable. (Minted-UUID-as-primary fails the exact scenario decision 13 targets: a state-dir wipe destroys it. Cloned-VM id collision is acceptable — overwrite only fires inside a completed ceremony, so the worst case is visible and recoverable by ...\n*94|| 23 | — | **Pump liveness (NEW — from the 2026-06-07 hfenduleam half-death)**: (1) the pump writes a heartbeat (last-tick timestamp); `spt daemon status` renders it and `subnet status` honesty accounts for a stalled pump (\"pump stalled since <time>\" — never implied-healthy while half-dead); (2) the daemon supervises the pump task — a panic is caught, logged, and the pump restarts with capped backoff (≤5 min), so a 5.9-class death self-heals visibly instead of 24 h of silence. Fail-fast rejecte...\n 95|| 24 | — | **Epoch-reset hazard (NEW): document + mint inactive.** KNOWN-HAZARDS entry + `REQ-HAZARD-*` with `required_stages = []` (rule 5): a node whose advertisement-epoch counter resets re-advertises low; peers' higher last-seen epoch drops the fresh rows as stale. The common case (full reinstall) is already mitigated by decision 13's re-pair eviction (epoch memory dies with the deleted row) — acceptance 7 verifies that explicitly. The residual narrow slice (epoch file lost, identity kept) waits ...\n 96|| 25 | — | **D1 surface details (user 2026-06-07):** (a) `spt subnet notify [BODY] [--target <subnet>]` — without `--target`, auto-selects the HOME SUBNET of the calling endpoint (or of the endpoint the calling shell is attached to); no resolvable home subnet + no `--target` = deny (a home default is a defined rule, not a guess). (b) Bare `spt daemon` = the NODE STATUS view: daemon state + subnets list + local endpoints list. (c) The ex-`resources list` yellow-pages projection becomes **`spt endpoint...\n 97|\n...\n 198|9. Skewed-clock pairing (decision 18): a node with its clock ≥1 min off\n*199|   (enlyzeam, or a rig node with the clock deliberately skewed) completes\n 200|   the pairing ceremony via the NTP TOTP offset; with NTP blocked, behavior\n 201|   matches today's (system clock, ±1 window).\n 202|10. Pump-death honesty (decision 23): with the pump task killed/stalled,\n## MESH-D0-PLAN.md\n 9|1. **Push target is pairwise.** `peerloop.rs:356` — `for peer in trust.peers_in(&sub.name)`. A node advertises its own rows to *directly-paired* peers only. No relay, no roster. (Doc line 11: \"no transitive gossip in v1: trust is pairwise per subnet.\") → widens to **all roster members** at **D6**.\n*10|2. **Apply gate is pairwise.** `registryhost.rs:228,291` — `if !policy.trust.is_trusted(&u.subnet, origin_node) { reject }`. Even if a row from a non-paired member arrived, the receiver drops it. → swaps to the **seed-proof membership** flag at **D5**.\n 11|\n*12|C joins B, so C's trust = {B}; A's trust = {B}. **A and C never pin each other.** Under (1) C's pump never targets A; under (2) A would reject C's row anyway. Invisible + unreachable. The mesh: C learns A from B's roster at the join ceremony (D3), so when A returns C dials A *directly* and A's seed-proof gate admits it (D5) — no B in the loop. D6 widens C's push target to the roster so the row actually flows.\n 13|\n 14|## What the harness asserts (the desired end-state)\n 15|\n## MESH-D1-PLAN.md\n*1|# Mesh-D1 — membership key + seed-proof codec (pure)\n 2|\n 3|> JIT plan for `SUBNET-MESH-PLAN.md` §Build phases · phase 1. **Pure primitive, no wiring** — no `nethost`/`ConnEntry`/gate changes (those are D2/D5). Delivers the crypto a member proves itself with. **Activates REQ-MESH-1 (impl, unit)** — this phase satisfies that activation with the codec slice; D2 (connect wiring + ConnEntry flag) and D5 (gate swap) enrich the same requirement later.\n 4|\n...\n 9|1. **Membership key.** `MK = HKDF-SHA256(ikm = seed, info = domain ‖ subnet_id ‖ seed_epoch)`. The shared per-(subnet, epoch) secret every member can derive and no outsider can. Domain-separated + versioned; exact-epoch (the N-1 re-seed grace is D7, not here).\n*10|2. **Mutual channel-bound seed-proof.** Each side MACs (HMAC-SHA256 keyed by MK) a transcript binding **both handshake-proven node pubkeys, both nonces, subnet_id, seed_epoch, role**, and constant-time-verifies the peer's tag. Channel-binding (the two QUIC pubkeys) kills cross-connection replay; the nonces give per-connection freshness; the role byte kills reflection; mutual means *both* must prove.\n 11|\n 12|This is the exact sibling of `pairing::transcript` (HMAC-SHA256, length-prefixed fields, `subtle::ct_eq`, `Role`, versioned domain) — clean-room the same shape, different domain and key source.\n 13|\n...\n 36|\n*37|/// The channel-bound seed-proof transcript. Both sides MUST construct an\n 38|/// identical one (same fields, same pubkey/nonce order) or the tags diverge —\n 39|/// that equality IS the membership agreement check.\n 40|pub struct SeedProofTranscript {\n...\n 88|- No `nethost`/`broker`/gate file touched (purity gate — D2 owns wiring).\n*89|- Commit: `feat(mesh): membership key + mutual seed-proof codec (REQ-MESH-1) — Mesh-D1`.\n 90|\n 91|## Carry-forward (not D1)\n 92|\n## MESH-D2-PLAN.md\n*1|# Mesh-D2 — seed-proof at connect + ConnEntry membership set\n 2|\n*3|> JIT plan for `SUBNET-MESH-PLAN.md` §Build phases · phase 2. **Wires the D1 codec onto live connections.** Run the mutual channel-bound seed-proof on every dial + accept in `nethost` *before* the connection is usable; cache the proven membership on `ConnEntry`; fail → drop. Verify/enable QUIC keep-alive so conns stay warm. **Old `is_trusted` gates keep running in parallel** (belt + suspenders — no regression; the gate swap is D5). **Enriches REQ-MESH-1 (impl)**; activates REQ-MESH-1 **int**.\n 4|\n 5|## The one design decision (and why it's forced, not chosen)\n 6|\n...\n 17|\n*18|The seed-proof rides the **first bidi stream**, opened by the dialer and consumed *before* `register_conn` wires the general `accept_bi` app pump — so it is never confused with an app stream.\n 19|\n 20|```\n 21|dial:    connect → open_bi(ctrl) → run_seedproof(Dialer)   → ok? register_conn(conn, proven) : drop\n...\n 81|- **No-regression** — a legit directly-paired peer shares the subnet seed at the same epoch (epoch only bumps at D7's rotation; pre-D7 it's stable), so it always proves → never dropped. Note the one edge: a pre-existing epoch skew would now drop a conn `is_trusted` would have allowed; impossible before D7, acceptable to surface then.\n*82|- **Name disclosure** — the acceptor replies with the **intersection only**, so an unauthenticated dialer learns only which of the names *it already supplied* are shared (a weak name-enumeration oracle, not a seed/membership oracle). Acceptable under the same-user threat model (ADR-0017); the seed-proof, not name secrecy, is the boundary.\n 83|\n 84|## Tests\n 85|\n...\n 98|\n*99|- Seed-proof runs on every trusted-ALPN dial + accept before the conn is usable; `ConnEntry.proven_subnets` populated; failure/empty drops the conn.\n 100|- `cargo test -p spt-net mesh::seedproof` + `cargo test -p spt-daemon nethost` green; the four int cases pass.\n 101|- `cargo build -p spt-daemon` + `-p spt-net` (and `spt-net --no-default-features`) clean; mesh module stays `net`-gated.\n 102|- `keep_alive_interval` < `max_idle_timeout` confirmed set on the production endpoint.\n...\n 105|- The `is_trusted` gates are **untouched** (D5 owns the swap) — grep confirms the five call sites unchanged.\n*106|- Commit: `feat(mesh): seed-proof at connect + ConnEntry membership set (REQ-MESH-1) — Mesh-D2`.\n 107|\n 108|## Carry-forward (not D2)\n 109|\n## MESH-D3-PLAN.md\n 6|\n*7|Per-subnet membership directory. Each node **authors its own entry** (pubkey, label, machine_id, last-known address, last-seen) stamped with its **`lease_epoch`** — the same strictly-greater-wins lease the registry already runs for `NodeLabel`/`Instance.epoch` (`spt-net/src/net/registry.rs`, `MergeOutcome::{Inserted,Updated,Stale}`). Merge is a **union grow-set**: convergent, commutative, idempotent, forgery-inert (a fake entry names a pubkey that still can't seed-proof at the D2 gate). Removal can't b...\n 8|\n 9|**Where it lives:** `crates/spt-store/src/roster.rs` — a durable store mirroring `subnet.rs`/`trust.rs`/`peeraddrs.rs` verbatim (load/load_from/save/save_to, `atomic_write_string`, absent-or-corrupt-degrades-empty). The CRDT merge + tombstone logic is **pure data, no iroh** (address is an opaque `serde_json::Value`, the `peeraddrs.rs` trick) so it stays in spt-store with no new dep edge. NOT the unrelated `crates/spt/src/roster.rs` (that's perch-listing — name collision only, different crate).\n 10|\n...\n 55|\n*56|- **D4** — steady-state on-connect roster exchange/merge over **member** (seed-proof'd) connections; address refresh from live mesh conns; **reconcile with `peer-addrs.json`** (absorb-or-feed — decide there).\n 57|- **D5** — the gate reads `is_member` in place of `is_trusted`; hard cutover.\n 58|- **D6** — fan-out widen → MESH ON.\n 59|- **D7** — revoke CLI, timeboxed seed rotation, confidential seed push, re-seed grace, cross-node un-tombstone propagation.\n## MESH-D4-PLAN.md\n 2|\n*3|> JIT plan for `SUBNET-MESH-PLAN.md` §Build phases · phase 4. **Spreads the discovery directory.** D3 seeded the roster at the pairing ceremony only; D4 makes it propagate in steady state: every seed-proof'd **member** connection exchanges and merges rosters, so a node learns members it never paired with (the transitive growth `A learns C via B`). Addresses are captured from live connections and reconciled with `peer-addrs.json`. **Enriches REQ-MESH-2 impl; lands REQ-MESH-2 int** (the on-connect propag...\n 4|\n 5|## The seam (grounded in the code)\n 6|\n*7|A \"member connection\" is a QUIC conn that passed the **mutual seed-proof** (Mesh-D2). That proof runs on **one dedicated bidi control stream**, opened by the dialer (`open_bi`) / accepted by the acceptor (`accept_bi`) in `crates/spt-daemon/src/seedproofx.rs`, **before** `register_conn` wires the general app-stream acceptor (`nethost.rs:514,609`). A four-leg ping-pong (`Hello`×2, `Proof`×N each way) yields `proven: HashSet<String>` — the subnets **both** sides proved current-epoch seed-knowledge of.\n 8|\n 9|**D4 appends a fifth/sixth leg to that same stream**, after the proofs verify:\n 10|\n...\n 20|- A *second* control stream would race the app-stream acceptor that `register_conn` wires post-proof. The proof stream is already open, already mutual, already finished cleanly after — appending one leg is the smallest safe change.\n*21|- **Security, by construction:** roster bytes ride a leg that only executes *after* both proofs verify, so the REQ-MESH-2 invariant \"exchanged only over seed-proof'd member connections\" is **structural**, not a convention a future edit can break. And the provider sends only the **proven** subnets' slices (§Part B) — a peer that proved subnet X never receives subnet Y's roster (the same cross-subnet-leak defense D3 baked into `Frame::Seed`'s implicit-subnet adopt).\n 22|\n 23|## Part A — the roster-exchange frame (`spt-net`, shared codec)\n 24|\n\n## .github/workflows/\n### ci.yml\n 16|  #\n*17|  # CI-SELFHOST-PLAN.md: fully self-hosted (2026-06-03) — hfenduleam carries\n 18|  # the Windows leg, kitsubito the Linux leg + traceability (replaced\n 19|  # gravity-linux 2026-06-07; same Ubuntu 22.04 / glibc 2.35 baseline). Free\n 20|  # minutes;\n...\n 28|      matrix:\n*29|        runner: [[self-hosted, Linux, kitsubito], [self-hosted, Windows, hfenduleam]]\n 30|    runs-on: ${{ matrix.runner }}\n 31|    env:\n 32|      # Concurrent-attach gate watchdog headroom (a_journaled / p0_paste). Those\n...\n 178|      # launched from THIS checkout's target dir — scoped to $GITHUB_WORKSPACE so\n*179|      # it never touches a live agent's daemon/broker (hfenduleam is a\n 180|      # SELF-HOSTED runner sharing the machine with live agents; a machine-wide\n 181|      # `spt.exe` kill would tear down production). A null Path row is skipped by\n 182|      # the `-like` (the safe direction). Linux can overwrite a running exe, so\n...\n 256|      matrix:\n*257|        runner: [[self-hosted, Linux, kitsubito], [self-hosted, Windows, hfenduleam]]\n 258|    runs-on: ${{ matrix.runner }}\n 259|    # Headroom for the first-ever cold pin build (the multi-exe iroh link);\n 260|    # cached thereafter, so steady-state runs are a warm test + seconds.\n...\n 361|          SPT_TWO_HOST_SECRET: \"rig-twohost-ci\"\n*362|          SPT_TWO_HOST_PEER_IP: \"100.68.35.65\" # hfenduleam (tailscale)\n 363|          SPT_TWO_HOST_WAIT_SECS: \"900\"\n 364|          SPT_TWO_HOST_NOTIFY_BIN: ${{ github.workspace }}/.adapter-notify/target/debug/notify-shell\n 365|      # The C-2 revive rung relaunches a mock [session.resume] harness — the\n...\n 385|    needs: test\n*386|    runs-on: [self-hosted, Windows, hfenduleam]\n 387|    timeout-minutes: 40\n 388|    steps:\n 389|      - uses: actions/checkout@v5\n### release.yml\n 37|            target: \"\"\n*38|          - runner: [self-hosted, Windows, hfenduleam]\n 39|            asset: spt-x86_64-windows.exe\n 40|            built: target/release/spt.exe\n 41|            target: \"\"\n\nShowing files 1-20 of 111+. 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Rule: local-node instance if present → else most-recently-active → explicit override always available. **Two qualifier syntaxes**, combinable: **subnet-qualified** `home:ling` and **node-qualified** `ling@hfenduleam` (→ `home:ling@hfenduleam`). **Multi-subnet ambiguity rule:** under node-global identity (endpoint ID below), a node on several subnets may see two *distinct* endpoints that share a bare name (a `home:ling` and an unrelated `work:l...\n 657│\n 658│**instantiate-anywhere** (seam day-one, behavior deferred):\n 659│From node Y, spin up an instance of an endpoint on node X by routing a launch command to X's daemon, which runs the endpoint's manifest locally. \"Agents can spin up instances (including of themselves) on any node, possibly requiring user consent\" — so a **consent gate** governs remote instantiation. The consent-UX design is deferred; the model is built to accommodate it.\n    │...\n 698│\n*699│**subnet member / membership proof (seed-proof)**:\n*700│A **member** of subnet S is any node that can prove knowledge of S's **current-epoch seed** (the seed every trusted node already holds — *TOTP-seeded SPAKE2 pairing*). This **membership proof** (\"seed-proof\") is the authorization the inbound gate consumes: a connecting peer is admitted iff it proves current-epoch seed-knowledge, bound to its QUIC-handshake-proven node pubkey (so identity stays per-node and unforgeable — *trust store* / KNOWN-HAZARDS 7.5). Membership = seed-knowledge, **not** pairwise...\n 701│_Replaces_: the pairwise-`is_trusted` authorization at every inbound gate (registry apply, WAN receive, sync, notif, connection accept).\n 702│\n 703│**member roster**:\n*704│Per subnet, the set of member node pubkeys with their addresses and labels — a **discovery** directory (\"whom to dial / what to call them\"), **not** an authorization list (authorization is *membership proof*). Propagated transitively: seeded into the joiner at pairing and gossiped whenever any path opens, so a node learns members it never paired with. **Discovery-only and therefore forgery-inert** — a fabricated roster entry just names a pubkey that still cannot produce the seed-proof on connect, so ...\n 705│\n 706│**subnet membership (multi-subnet)**:\n 707│A node may be a member of **multiple subnets at once** — but, for v1, only multiple subnets *of the same user* (e.g. a `home` fleet and a `work` fleet, each cryptographically its own TOTP seed + trust context). A node simply holds *N* seeds / trust-contexts rather than one. The per-subnet trust boundary is unchanged: within each subnet, all nodes are the one user's own mutually-trusted nodes (no stranger-auth). **Cross-*user* membership (joining another person's subnet) stays deferred**, but the member...\n 708│\n*709│**Cross-user seam (forward design, not v1):** the seed key generalizes from *per-subnet* to **per-(subnet, user)** — a seed then doubles as an identifier+authenticator for *whose* it is. The pairing/code prompt becomes **2-stage** (select user / create-new → then select subnet / create-new); in v1 the single implicit user collapses it back to the 1-stage prompt. This makes node↔user attribution fall out for free (\"node `enlyzeam` is using Brandon's `work` seed → that machine's active endpoint is ...\n 710│\n 711│**seed rotation / revoke**:\n 712│Removing a member is **`spt subnet revoke <node>...`** (elevation-gated, revoke-only — *adding* a member never rotates; the joiner just receives the current seed at pairing). Two effects:\n    │...\n 734│**trust store** (RETIRED — superseded by *member roster* + *membership proof*):\n*735│Historically a local TOFU store (`peers.json`) of pinned peer pubkeys that **authorized** inbound connections. The mesh model replaces pairwise-pin authorization with live **seed-proof** (*membership proof*), so the pinned-peer list is gone — **hard cutover, no `peers.json`** (single-user fleet, no migration). Its one surviving function is **warn-on-change**, reframed: an **awareness notice** (not a gate — seed-proof already admitted the peer) fired when a node presenting a **known machine_id** appea...\n 736│\n 737│**link discovery (TOTP-epoch + name) — the meet selector is public; the code is not**:\n 738│The pairing rendezvous (the **meet**) routes two not-yet-trusted nodes to the same relay rendezvous over the pre-trust pairing ALPN. Its selector is **`(subnet-name, TOTP-epoch)` — both public**, *not* the secret code. Distinguish the two TOTP-derived values (they are routinely conflated):\n    │...\n 757│**node label**:\n*758│A human display name for a node, defaulting to the machine's OS hostname (re-checked at daemon startup; a hostname change updates the label). Advertised through the existing registry gossip so subnet views render `HFENDULEAM (bcead52b…)` instead of bare key hex. The pubkey remains the identity; the label is **addressable**: an `@node` qualifier accepts a label or a key-prefix (`ling@hfenduleam`). Labels are not unique — an ambiguous label follows the resolution policy's refuse-and-qualify rule (refus...\n 759│\n 760│**`#` always-on sigil** (ratified 2026-06-21):\n 761│A reserved **leading address sigil** marking an [[AlwaysOnEndpoint]], extending the `:`/`@` reserved-delimiter discipline (id charset stays narrow per `REQ-HAZARD-ID-CHARSET`; the sigil lives at the address-grammar layer, **never in the bare id** — `#general` addresses the clean stored id `general`). It is **mandatory and bijective**: `#name` ⟺ an always-on endpoint, bare `name` ⟺ an agent endpoint — so the router resolves the endpoint **class from the address alone**, before any registry lookup....\n## DAEMON-LIFECYCLE-COMPLETION-PLAN.md\n 124│- Brain restart re-hosts the lifecycle (rides the ADR-0018 survival).\n*125│- Full workspace suite green on hfenduleam + kitsubito.\n 126│\n 127│## 6. Open questions for doyle (gate before W0.1)\n 128│1. **REQ shape:** re-point REQ-DAEMON-1 `int` + add production `impl`, or mint\n## DAEMON-LIFECYCLE-PLAN.md\n 111│- v0.2.0 already registered the systemd unit on kitsubito + the scheduled-task\n*112│  attempt on HFENDULEAM (HFENDULEAM's task needs an elevated re-run — still open).\n 113│- After this ships: re-roll to the fleet so `start`/`stop` drive the managed\n 114│  service everywhere; document the daemon-lifecycle UX in the CLI reference +\n 115│  CHANGELOG.\n## M11-PLAN.md\n 194│  Gateway-owned shell — class-gated **cmd + latest-wins drive** only (C2: tunnel is NOT\n*195│  proven cross-WAN — same-node mock E2E in T3.3 carries it), HFENDULEAM ↔ kitsubito.\n 196│  - **W2 CARRY (doyle gate, 2026-06-15):** the cross-node DRIVE drop-not-wake rung was\n 197│    already landed in `tests/twohost.rs` at W2 (T2.4 @13fa53e) but is `[twohost]`-gated, so it\n 198│    SKIPS normal CI — its real-Iroh wire (drop-not-wake over the link, never woken/spooled) is\n    │...\n 238│- Gateway owner: E2E parity with an agent owner across all ownership paths.\n*239│- Full workspace suite green on hfenduleam + kitsubito; the M11 `[twohost]` rung green.\n 240│\n 241│## 6. Open questions — RESOLVED (doyle PASS 2026-06-15, see §3a)\n 242│1. **Build-now vs defer the no-real-consumer machinery.** Drive + tunnel have no in-tree\n## M4-D9-PLAN.md\n  23│  staged + consent-notified at A) → notif (insert on A fired on B; dismiss on B\n *24│  replicated to A). HFENDULEAM ↔ gravity-linux over tailscale; whole ladder ~8 s\n  25│  once both sides up; no firewall rule needed (the pump keeps the reverse UDP\n  26│  4-tuple warm). Evidence in the runbook appendix; `docs/FLAKE-LEDGER.md` made\n  27│  durable en route (digest flake second occurrence, rerun passed).\n    │...\n  36│  (the `[budget]` commit-message CI gate runs the env-gated harness\n *37│  `tests/budget.rs` on both runners): HFENDULEAM shell seat 7.6 MiB / claude seat\n  38│  ~308 MiB / zero idle CPU; gravity shell seat 1.7 MiB; suspended residual = the\n  39│  on-disk record. `docs/DORMANCY-BUDGET.md` locks the policy (warm default\n  40│  CONFIRMED; auto-suspend opt-in default OFF on the D9-2 knob chain; constrained\n    │...\n 112│+ immutable-home/fork shipped (REQ-INST-3, -4, -14, -15); the two-host proof demoed on\n*113│the rig (HFENDULEAM ↔ gravity-linux) with `[int->REQ-*]` evidence; the gh-repo interim\n 114│retired; every M4 req's `required_stages` satisfied; CI matrix green.\n 115│\n 116│## The deferred-to-D9 ledger (all land here)\n    │...\n 221│   - Record in `docs/DORMANCY-BUDGET.md`: methodology, numbers per host\n*222│     (HFENDULEAM Windows + gravity Linux), the resulting policy.\n 223│   - Lock policy: warm default confirmed (or amended — the numbers decide),\n 224│     auto-suspend default OFF globally, node-overridable (constrained nodes may\n 225│     default ON), thresholds as config knobs. Amend ADR-0003 (#9 closed: \"measured\n    │...\n 266│     `[int->REQ-NOTIF-1]` (+ pairing/registry reqs as the ladder touches them).\n*267│   - `docs/TWO-HOST-RUNBOOK.md`: the exact rig procedure (HFENDULEAM ↔ gravity-linux),\n 268│     env setup, run order, what green looks like; evidence (run output) captured in a\n 269│     runbook appendix when the rig run happens.\n 270│   - **Run the runbook on the rig.** Activate the touched reqs' `int` stages only\n## M4-PLAN.md\n 3│> **Status: COMPLETE (2026-06-04).** D0–D9 all delivered CI-green; the §D9b\n*4│> two-host proof ran on the real rig (CI run `26958175812`, HFENDULEAM ↔\n 5│> gravity-linux — `docs/TWO-HOST-RUNBOOK.md` evidence appendix); every M4 req\n 6│> satisfied at its `required_stages` or rule-5-deferred with rationale\n 7│> (`traceable-reqs check` green); ROADMAP §M4 records the delivery. Deferred\n## M5-D7-PLAN.md\n 28│- **D7c (mostly DONE already):** ci.yml test matrix already runs on\n*29│  `[self-hosted, Linux, gravity]` + `[self-hosted, Windows, hfenduleam]`;\n 30│  `twohost-a`/`twohost-b` cross-runner jobs exist, gated on `[twohost]` in the\n 31│  commit message (tailscale peer IPs, `SPT_TWO_HOST_*` env, 900s wait,\n 32│  `needs: test`); whole M4 ladder proven green 2026-06-04 (run 26958175812).\n## M5-PLAN.md\n 271│- **D7c** Cross-runner CI two-host job: automate the `[twohost]` ladder as a cross-runner\n*272│  workflow (hfenduleam + gravity runners coordinated in one run; runbook stays the manual\n 273│  fallback). Gotchas #7/#13/#17 discipline baked in.\n 274│- **Acceptance:** relay-routed pairing E2E; a real update applies off a notif ack;\n 275│  the cross-runner job goes green on the rig unattended.\n## M7-PLAN.md\n  6│> `subnet status --nodes` labeled+online on both machines, cross-machine\n *7│> `SENT(WAN)` proven in both directions (HFENDULEAM ↔ gravity-linux), and the\n  8│> rig's product-surface join rung carries the pairing `int` evidence. The\n  9│> acceptance run surfaced two publish-blocking field bugs, both fixed before\n 10│> closeout: elevated daemon spawn (KNOWN-HAZARDS 5.7,\n   │...\n 50│| 6 | `status --nodes`: per-node rows — node label, online/offline, `[online endpoints/total]`. Liveness = **hybrid**: gossip-recency for the table, probe only stale rows. |\n*51│| 7 | **Node labels**: default = OS hostname, re-checked at daemon startup (hostname change → label update), advertised via existing registry gossip (additive serde-default field). Render `HFENDULEAM (bcead52b…)`. Labels are **addressable** in `@node` qualifiers (label or key-prefix); non-unique label → refuse-and-qualify with candidate key prefixes, never guess. |\n 52│| 8 | **Responder always-on** in every member daemon (pre-trust pairing ALPN), per ADR-0005's one-sided-UX intent; the ADR red-team #11 subnet-global rate limiter is the standing-listener guard. No arming step. |\n 53│| 9 | **Elevation gates** (existing `EXIT_NOT_ELEVATED=3` convention): `subnet create` (seed reveal) and `subnet join` (trust-boundary mutation — an unprivileged process must not enroll the machine into an attacker's subnet) and `show-totp` (already gated). `status` ungated (read-only, no secrets). → ADR-0005 amendment, CONTEXT.md updated. |\n 54│| 10 | Guided join flow (joiner side, interactive when args missing): prompt name → prompt code → LAN+relay rendezvous search → ceremony → \"Joined \\\"home\\\" — 2 nodes: …\". Wrong code → clean re-prompt (fresh window), bounded attempts, rate-limit messages surfaced honestly. No-seed-holder-found → actionable hints (member online? same name? clock sync?). First-join home adoption (REQ-INST-15) fires on join as on create. |\n## M8-ACCEPTANCE-STEPS.md\n  *1│# M8 acceptance — rig steps (HFENDULEAM + kitsubito, isolated homes)\n   2│\n   3│Prepared 2026-06-07. **Non-destructive**: everything runs against throwaway\n   4│`SPT_HOME`s — your live doyle listener, the real nodes, and BIGNET's\n    │...\n  10│|---|---|---|\n *11│| **HFENDULEAM** | `C:\\Users\\decid\\Documents\\projects\\spt-core\\target\\release\\spt.exe` | `C:\\Users\\decid\\spt-accept\\home` |\n  12│| **kitsubito** | `~/spt-core-deploy/target/release/spt` | `~/spt-accept-home` |\n  13│\n  14│Shorthands below:\n *15│- HF (run in an **elevated PowerShell** on HFENDULEAM):\n  16│  ```powershell\n  17│  $env:SPT_HOME=\"C:\\Users\\decid\\spt-accept\\home\"\n  18│  $spt=\"C:\\Users\\decid\\Documents\\projects\\spt-core\\target\\release\\spt.exe\"\n    │...\n  32│\n *33│All criteria exercised on real hardware (HFENDULEAM ↔ kitsubito, orchestrated\n  34│doyle+todlando):\n  35│\n  36│| # | Criterion | Verdict |\n    │...\n  63│## Already passed (no rig action needed)\n *64│- **2** Windows install (enlyzeam: firewall + at-logon task, v0.1.0→D4) ✓\n *65│- **9** skewed-clock pairing (enlyzeam +206s; NTP-on JOINED, NTP-off NO_SEED_HOLDER) ✓\n  66│- **4** old verbs gone / hot path intact ✓ · **8** status honesty ✓\n  67│- **debug-converge** tooling (exit 0/1/2) ✓ · full **twohost** cross-node ladder ✓\n  68│- **10-healthy** `peer pump: live` render ✓\n    │...\n  89│\n *90│## ✅ Criterion 1/3 (2026-06-07, HFENDULEAM) — Windows de-elevation bug found + FIXED + verified\n  91│\n  92│**Windows leg found a second REQ-HAZARD-ELEVATED-DAEMON-SPAWN bug; fixed and re-verified on hardware.**\n  93│- **Respawn (criterion 3): PASS** — elevated `daemon run` respawns de-elevated.\n    │...\n 188│   ```sh\n*189│   run subnet status ACCEPT --nodes            # → KITSUBITO + HFENDULEAM, both online\n 190│   ```\n 191│\n 192│---\n    │...\n 195│\n*196│`subnet detach ACCEPT` on HFENDULEAM correctly stops it serving/advertising\n 197│ACCEPT (rows withdraw — its friendly name vanishes from kitsubito's\n 198│`status --nodes`), **but the row stayed `online`** indefinitely. Root cause:\n 199│liveness fell to `Probe` → `probe_node` did a raw transport dial by\n 200│node-pubkey (`addr_for_node_hex` → `net_dial`), which succeeded because\n*201│HFENDULEAM's daemon endpoint stays bound for its own home. One ALPN\n 202│(`spt-core/net/0`) serves every subnet, so the dial was subnet-blind — it\n 203│proved \"the box is up\", not \"still serving ACCEPT\".\n 204│\n    │...\n 219│```powershell\n*220│& $spt subnet detach ACCEPT        # HFENDULEAM stops serving ACCEPT\n 221│```\n 222│```sh\n*223│run subnet status ACCEPT --nodes   # HFENDULEAM drops to offline for ACCEPT within a cadence\n 224│```\n 225│```powershell\n 226│& $spt subnet attach ACCEPT        # back\n    │...\n 228│```sh\n*229│run subnet status ACCEPT --nodes   # HFENDULEAM online again\n 230│```\n 231│\n 232│**prune (synthetic dead identity, since BIGNET is intentionally untouched):**\n 233│```powershell\n*234│& $spt daemon stop                 # HFENDULEAM's ACCEPT node goes silent (trust rows linger on kitsubito)\n 235│```\n 236│```sh\n*237│run subnet status ACCEPT --nodes   # note HFENDULEAM's node-id prefix\n 238│run subnet prune <hf-prefix>       # elevation-gated; drops the dead identity's trust rows\n 239│run subnet status ACCEPT --nodes   # the pruned identity is gone; no more dead dials\n 240│```\n    │...\n 287│> ceremony) beside new `96802fb2` **online** [1/1]; +33s (one cadence) the old row\n*288│> **evicted** — leaving exactly **one** HFENDULEAM row (`96802fb2`), no manual prune.\n 289│> Sub-check (hazard 4.11): the fresh rows rendered online immediately, never stale-dropped.\n 290│\n*291│On HFENDULEAM, regenerate the node identity and re-join with the same label:\n 292│```powershell\n 293│& $spt daemon stop\n 294│Remove-Item \"$env:SPT_HOME\\identity\\node.key\"      # new identity on next start\n    │...\n 300│```\n*301│PASS: ACCEPT shows **one** trust row + **one** registry identity for HFENDULEAM\n 302│(the old identity auto-evicted at the ceremony — no manual prune). Sub-check\n 303│(hazard 4.11): the re-paired node's fresh rows are NOT dropped as stale — they\n 304│appear online, proving the peer-side epoch memory died with the evicted row.\n## M8-ACCEPTANCE.md\n   6│verified** (single-host, automatable) vs what needs the **real-hardware\n  *7│ceremony** (fresh installs, reboots, a second/third machine, enlyzeam's\n   8│skewed clock).\n   9│\n *10│## Real-hardware results (2026-06-07, kitsubito Linux + enlyzeam Windows)\n  11│\n *12│Driven over SSH (`reavus@kitsubito` w/ sudo, `decid@enlyzeam` elevated). D4\n  13│built on each from source; throwaway subnets cleaned up after.\n  14│\n *15│- **Criterion 2 — fresh Windows install (enlyzeam).** ✅ `install.ps1`\n *16│  (local asset base) **upgraded enlyzeam from the public v0.1.0 → D4** and\n  17│  fired every leg: sha256 verified, inbound **UDP firewall rule registered**\n  18│  (REQ-INSTALL-7), **at-logon daemon scheduled task registered**\n  19│  (REQ-INSTALL-8), user PATH set. `daemon status` then rendered\n    │...\n  22│\n *23│- **Criterion 9 — skewed-clock pairing (enlyzeam, clock +206s ≈ 7 TOTP\n  24│  steps off).** ✅ **both arms:**\n *25│  - NTP **on** (default): `spt subnet join` from enlyzeam → `JOINED` — the\n  26│    in-process NTP offset carried the rendezvous token *and* the ceremony\n *27│    step. The exact enlyzeam scenario decision 18 targeted.\n  28│  - NTP **off** (`SPT_NTP_SERVER=off` on the daemon, +206s uncorrected) →\n  29│    `NO_SEED_HOLDER` (\"the rendezvous derives from the time\") — proves the\n  30│    offset is the carrier, not luck.\n    │...\n  32│- **Criterion 6 — convergence (live pair).** ✅ accept9 peers saw each other:\n *33│  `status --nodes` on kitsubito showed KITSUBITO + enlyzeam both `online`.\n  34│  (Precise restart-resync *timing* still a rig follow-up.)\n  35│\n  36│- **Criterion 1 — Linux install legs (kitsubito).** ◐ partial. The installer\n    │...\n  62│\n *63│## Bench-verified on HFENDULEAM (2026-06-07)\n  64│\n  65│Isolated `SPT_HOME` throwaway homes — the live owl listener was never touched.\n  66│\n    │...\n 101│  Pushed `e10def4` ([twohost]) on the D4 binary; CI ladder (pair → register →\n*102│  message → drive → sync → update → notif) over the real HFENDULEAM↔kitsubito\n 103│  path proves D4 did not regress cross-node. (Static `ip:port`, so it is a\n 104│  regression guard, not the criterion-6 convergence-timing proof.)\n 105│\n    │...\n 108│These require fresh installs / reboots / elevation prompts / a second or\n*109│third machine / enlyzeam's skewed clock — not performable from this bench.\n 110│Deploy a **D4 binary** to each rig node first (any new binary also self-heals\n*111│hfenduleam's v0.1.0-dead pump — D4 makes that class supervised + visible).\n 112│\n 113│1. **Fresh kitsubito Linux install** (clean user, real one-liner):\n 114│   `sudo spt subnet …` resolves (symlink leg) and prompts the default-account\n    │...\n 142│\n*143│9. **Skewed-clock pairing** (the NTP trigger): pair from **enlyzeam** (clock\n 144│   ≥1 min off) — the ceremony completes via the NTP TOTP offset. With NTP\n 145│   blocked (`SPT_NTP_SERVER=off`), behavior matches today's (system clock,\n 146│   ±1 window) — i.e. a >1-min skew fails closed, proving the offset is what\n*147│   carries enlyzeam.\n 148│\n 149│10. **Pump-death honesty** (live half): kill/stall the pump on a running rig\n 150│    daemon → `spt daemon status` + `spt subnet status` render the stall\n## M8-PLAN.md\n  88│| 17 | B | **OS-service shape: Linux systemd *user* service + `loginctl enable-linger`** (linger enable rides the elevated install leg; daemon starts at boot pre-login, user-universe per KH 5.7, managed via `systemctl --user`). **Windows: scheduled task at-logon** (interactive session, no stored credentials, no session-0 isolation breaking terminal hosting). At-startup S4U variant = later opt-in if a headless Windows node ever exists. |\n *89│| 18 | C | **NTP IN SCOPE — trigger fired**: enlyzeam's system clock is known >1 min off (exceeds the ±1 TOTP window). Shape (C2): **TOTP offset-correction only** — query NTP at ceremony time (both sides), apply the offset to the TOTP calculation in-process; **system-clock fallback** when NTP unreachable (offline LAN pairing unaffected — NTP failure never blocks a pairing that succeeds today); never sets the OS clock; no background sync loop. Epoch/lease ordering stays monotonic-clock — untouche...\n  90│| 19 | D | **`xtask debug-converge` IN SCOPE** (builds in D4, activates REQ-UPD-6 int, `docs/DEBUG-CONVERGE-PLAN.md` is the spec). The 2026-06-07 pump diagnosis was the hand-rolled version of this table — the tool pays for itself; acceptance 6 gains instrumented evidence. |\n  91│| 20 | E | **Address seeding = narrow patch, concretized**: there is NO existing addr cache (production resolution is the id-only `PeerResolver`, `peerloop.rs`). New minimal `peer-addrs.json` in the identity dir (sibling of `pump-ops.json`): pubkey-hex → last-known iroh NodeAddr. Resolver consults it FIRST, falls back to id-only discovery on miss **or dial failure** (a stale addr never strands a peer). Two writers: pairing ceremony (both sides, from the live connection) + the pump on successful connect...\n  92│| 21 | F | **`endpoint access` ports 1:1**: `spt endpoint access allow\\|revoke\\|open\\|list`, same args/semantics (ADR-0009 polarity naming preserved). M8's break is location-only; any verb reshape belongs to the consent framework's touch. |\n  93│| 22 | G | **Machine identifier = OS machine id** (`/etc/machine-id` / Windows `MachineGuid`), **domain-separated SHA-256 before gossip** (`sha256(\"spt-machine-id:\" + raw)` — never raw on the wire). spt-minted persisted UUID as fallback where the OS id is unreadable. (Minted-UUID-as-primary fails the exact scenario decision 13 targets: a state-dir wipe destroys it. Cloned-VM id collision is acceptable — overwrite only fires inside a completed ceremony, so the worst case is visible and recoverable by ...\n *94│| 23 | — | **Pump liveness (NEW — from the 2026-06-07 hfenduleam half-death)**: (1) the pump writes a heartbeat (last-tick timestamp); `spt daemon status` renders it and `subnet status` honesty accounts for a stalled pump (\"pump stalled since <time>\" — never implied-healthy while half-dead); (2) the daemon supervises the pump task — a panic is caught, logged, and the pump restarts with capped backoff (≤5 min), so a 5.9-class death self-heals visibly instead of 24 h of silence. Fail-fast rejecte...\n  95│| 24 | — | **Epoch-reset hazard (NEW): document + mint inactive.** KNOWN-HAZARDS entry + `REQ-HAZARD-*` with `required_stages = []` (rule 5): a node whose advertisement-epoch counter resets re-advertises low; peers' higher last-seen epoch drops the fresh rows as stale. The common case (full reinstall) is already mitigated by decision 13's re-pair eviction (epoch memory dies with the deleted row) — acceptance 7 verifies that explicitly. The residual narrow slice (epoch file lost, identity kept) waits ...\n  96│| 25 | — | **D1 surface details (user 2026-06-07):** (a) `spt subnet notify [BODY] [--target <subnet>]` — without `--target`, auto-selects the HOME SUBNET of the calling endpoint (or of the endpoint the calling shell is attached to); no resolvable home subnet + no `--target` = deny (a home default is a defined rule, not a guess). (b) Bare `spt daemon` = the NODE STATUS view: daemon state + subnets list + local endpoints list. (c) The ex-`resources list` yellow-pages projection becomes **`spt endpoint...\n  97│\n    │...\n 198│9. Skewed-clock pairing (decision 18): a node with its clock ≥1 min off\n*199│   (enlyzeam, or a rig node with the clock deliberately skewed) completes\n 200│   the pairing ceremony via the NTP TOTP offset; with NTP blocked, behavior\n 201│   matches today's (system clock, ±1 window).\n 202│10. Pump-death honesty (decision 23): with the pump task killed/stalled,\n## MESH-D0-PLAN.md\n  9│1. **Push target is pairwise.** `peerloop.rs:356` — `for peer in trust.peers_in(&sub.name)`. A node advertises its own rows to *directly-paired* peers only. No relay, no roster. (Doc line 11: \"no transitive gossip in v1: trust is pairwise per subnet.\") → widens to **all roster members** at **D6**.\n*10│2. **Apply gate is pairwise.** `registryhost.rs:228,291` — `if !policy.trust.is_trusted(&u.subnet, origin_node) { reject }`. Even if a row from a non-paired member arrived, the receiver drops it. → swaps to the **seed-proof membership** flag at **D5**.\n 11│\n*12│C joins B, so C's trust = {B}; A's trust = {B}. **A and C never pin each other.** Under (1) C's pump never targets A; under (2) A would reject C's row anyway. Invisible + unreachable. The mesh: C learns A from B's roster at the join ceremony (D3), so when A returns C dials A *directly* and A's seed-proof gate admits it (D5) — no B in the loop. D6 widens C's push target to the roster so the row actually flows.\n 13│\n 14│## What the harness asserts (the desired end-state)\n 15│\n## MESH-D1-PLAN.md\n *1│# Mesh-D1 — membership key + seed-proof codec (pure)\n  2│\n  3│> JIT plan for `SUBNET-MESH-PLAN.md` §Build phases · phase 1. **Pure primitive, no wiring** — no `nethost`/`ConnEntry`/gate changes (those are D2/D5). Delivers the crypto a member proves itself with. **Activates REQ-MESH-1 (impl, unit)** — this phase satisfies that activation with the codec slice; D2 (connect wiring + ConnEntry flag) and D5 (gate swap) enrich the same requirement later.\n  4│\n   │...\n  9│1. **Membership key.** `MK = HKDF-SHA256(ikm = seed, info = domain ‖ subnet_id ‖ seed_epoch)`. The shared per-(subnet, epoch) secret every member can derive and no outsider can. Domain-separated + versioned; exact-epoch (the N-1 re-seed grace is D7, not here).\n*10│2. **Mutual channel-bound seed-proof.** Each side MACs (HMAC-SHA256 keyed by MK) a transcript binding **both handshake-proven node pubkeys, both nonces, subnet_id, seed_epoch, role**, and constant-time-verifies the peer's tag. Channel-binding (the two QUIC pubkeys) kills cross-connection replay; the nonces give per-connection freshness; the role byte kills reflection; mutual means *both* must prove.\n 11│\n 12│This is the exact sibling of `pairing::transcript` (HMAC-SHA256, length-prefixed fields, `subtle::ct_eq`, `Role`, versioned domain) — clean-room the same shape, different domain and key source.\n 13│\n   │...\n 36│\n*37│/// The channel-bound seed-proof transcript. Both sides MUST construct an\n 38│/// identical one (same fields, same pubkey/nonce order) or the tags diverge —\n 39│/// that equality IS the membership agreement check.\n 40│pub struct SeedProofTranscript {\n   │...\n 88│- No `nethost`/`broker`/gate file touched (purity gate — D2 owns wiring).\n*89│- Commit: `feat(mesh): membership key + mutual seed-proof codec (REQ-MESH-1) — Mesh-D1`.\n 90│\n 91│## Carry-forward (not D1)\n 92│\n## MESH-D2-PLAN.md\n  *1│# Mesh-D2 — seed-proof at connect + ConnEntry membership set\n   2│\n  *3│> JIT plan for `SUBNET-MESH-PLAN.md` §Build phases · phase 2. **Wires the D1 codec onto live connections.** Run the mutual channel-bound seed-proof on every dial + accept in `nethost` *before* the connection is usable; cache the proven membership on `ConnEntry`; fail → drop. Verify/enable QUIC keep-alive so conns stay warm. **Old `is_trusted` gates keep running in parallel** (belt + suspenders — no regression; the gate swap is D5). **Enriches REQ-MESH-1 (impl)**; activates REQ-MESH-1 **int**.\n   4│\n   5│## The one design decision (and why it's forced, not chosen)\n   6│\n    │...\n  17│\n *18│The seed-proof rides the **first bidi stream**, opened by the dialer and consumed *before* `register_conn` wires the general `accept_bi` app pump — so it is never confused with an app stream.\n  19│\n  20│```\n  21│dial:    connect → open_bi(ctrl) → run_seedproof(Dialer)   → ok? register_conn(conn, proven) : drop\n    │...\n  81│- **No-regression** — a legit directly-paired peer shares the subnet seed at the same epoch (epoch only bumps at D7's rotation; pre-D7 it's stable), so it always proves → never dropped. Note the one edge: a pre-existing epoch skew would now drop a conn `is_trusted` would have allowed; impossible before D7, acceptable to surface then.\n *82│- **Name disclosure** — the acceptor replies with the **intersection only**, so an unauthenticated dialer learns only which of the names *it already supplied* are shared (a weak name-enumeration oracle, not a seed/membership oracle). Acceptable under the same-user threat model (ADR-0017); the seed-proof, not name secrecy, is the boundary.\n  83│\n  84│## Tests\n  85│\n    │...\n  98│\n *99│- Seed-proof runs on every trusted-ALPN dial + accept before the conn is usable; `ConnEntry.proven_subnets` populated; failure/empty drops the conn.\n 100│- `cargo test -p spt-net mesh::seedproof` + `cargo test -p spt-daemon nethost` green; the four int cases pass.\n 101│- `cargo build -p spt-daemon` + `-p spt-net` (and `spt-net --no-default-features`) clean; mesh module stays `net`-gated.\n 102│- `keep_alive_interval` < `max_idle_timeout` confirmed set on the production endpoint.\n    │...\n 105│- The `is_trusted` gates are **untouched** (D5 owns the swap) — grep confirms the five call sites unchanged.\n*106│- Commit: `feat(mesh): seed-proof at connect + ConnEntry membership set (REQ-MESH-1) — Mesh-D2`.\n 107│\n 108│## Carry-forward (not D2)\n 109│\n## MESH-D3-PLAN.md\n  6│\n *7│Per-subnet membership directory. Each node **authors its own entry** (pubkey, label, machine_id, last-known address, last-seen) stamped with its **`lease_epoch`** — the same strictly-greater-wins lease the registry already runs for `NodeLabel`/`Instance.epoch` (`spt-net/src/net/registry.rs`, `MergeOutcome::{Inserted,Updated,Stale}`). Merge is a **union grow-set**: convergent, commutative, idempotent, forgery-inert (a fake entry names a pubkey that still can't seed-proof at the D2 gate). Removal can't b...\n  8│\n  9│**Where it lives:** `crates/spt-store/src/roster.rs` — a durable store mirroring `subnet.rs`/`trust.rs`/`peeraddrs.rs` verbatim (load/load_from/save/save_to, `atomic_write_string`, absent-or-corrupt-degrades-empty). The CRDT merge + tombstone logic is **pure data, no iroh** (address is an opaque `serde_json::Value`, the `peeraddrs.rs` trick) so it stays in spt-store with no new dep edge. NOT the unrelated `crates/spt/src/roster.rs` (that's perch-listing — name collision only, different crate).\n 10│\n   │...\n 55│\n*56│- **D4** — steady-state on-connect roster exchange/merge over **member** (seed-proof'd) connections; address refresh from live mesh conns; **reconcile with `peer-addrs.json`** (absorb-or-feed — decide there).\n 57│- **D5** — the gate reads `is_member` in place of `is_trusted`; hard cutover.\n 58│- **D6** — fan-out widen → MESH ON.\n 59│- **D7** — revoke CLI, timeboxed seed rotation, confidential seed push, re-seed grace, cross-node un-tombstone propagation.\n## MESH-D4-PLAN.md\n  2│\n *3│> JIT plan for `SUBNET-MESH-PLAN.md` §Build phases · phase 4. **Spreads the discovery directory.** D3 seeded the roster at the pairing ceremony only; D4 makes it propagate in steady state: every seed-proof'd **member** connection exchanges and merges rosters, so a node learns members it never paired with (the transitive growth `A learns C via B`). Addresses are captured from live connections and reconciled with `peer-addrs.json`. **Enriches REQ-MESH-2 impl; lands REQ-MESH-2 int** (the on-connect propag...\n  4│\n  5│## The seam (grounded in the code)\n  6│\n *7│A \"member connection\" is a QUIC conn that passed the **mutual seed-proof** (Mesh-D2). That proof runs on **one dedicated bidi control stream**, opened by the dialer (`open_bi`) / accepted by the acceptor (`accept_bi`) in `crates/spt-daemon/src/seedproofx.rs`, **before** `register_conn` wires the general app-stream acceptor (`nethost.rs:514,609`). A four-leg ping-pong (`Hello`×2, `Proof`×N each way) yields `proven: HashSet<String>` — the subnets **both** sides proved current-epoch seed-knowledge of.\n  8│\n  9│**D4 appends a fifth/sixth leg to that same stream**, after the proofs verify:\n 10│\n   │...\n 20│- A *second* control stream would race the app-stream acceptor that `register_conn` wires post-proof. The proof stream is already open, already mutual, already finished cleanly after — appending one leg is the smallest safe change.\n*21│- **Security, by construction:** roster bytes ride a leg that only executes *after* both proofs verify, so the REQ-MESH-2 invariant \"exchanged only over seed-proof'd member connections\" is **structural**, not a convention a future edit can break. And the provider sends only the **proven** subnets' slices (§Part B) — a peer that proved subnet X never receives subnet Y's roster (the same cross-subnet-leak defense D3 baked into `Frame::Seed`'s implicit-subnet adopt).\n 22│\n 23│## Part A — the roster-exchange frame (`spt-net`, shared codec)\n 24│\n\n## .github/workflows/\n### ci.yml\n  16│  #\n *17│  # CI-SELFHOST-PLAN.md: fully self-hosted (2026-06-03) — hfenduleam carries\n  18│  # the Windows leg, kitsubito the Linux leg + traceability (replaced\n  19│  # gravity-linux 2026-06-07; same Ubuntu 22.04 / glibc 2.35 baseline). Free\n  20│  # minutes;\n    │...\n  28│      matrix:\n *29│        runner: [[self-hosted, Linux, kitsubito], [self-hosted, Windows, hfenduleam]]\n  30│    runs-on: ${{ matrix.runner }}\n  31│    env:\n  32│      # Concurrent-attach gate watchdog headroom (a_journaled / p0_paste). Those\n    │...\n 178│      # launched from THIS checkout's target dir — scoped to $GITHUB_WORKSPACE so\n*179│      # it never touches a live agent's daemon/broker (hfenduleam is a\n 180│      # SELF-HOSTED runner sharing the machine with live agents; a machine-wide\n 181│      # `spt.exe` kill would tear down production). A null Path row is skipped by\n 182│      # the `-like` (the safe direction). Linux can overwrite a running exe, so\n    │...\n 256│      matrix:\n*257│        runner: [[self-hosted, Linux, kitsubito], [self-hosted, Windows, hfenduleam]]\n 258│    runs-on: ${{ matrix.runner }}\n 259│    # Headroom for the first-ever cold pin build (the multi-exe iroh link);\n 260│    # cached thereafter, so steady-state runs are a warm test + seconds.\n    │...\n 361│          SPT_TWO_HOST_SECRET: \"rig-twohost-ci\"\n*362│          SPT_TWO_HOST_PEER_IP: \"100.68.35.65\" # hfenduleam (tailscale)\n 363│          SPT_TWO_HOST_WAIT_SECS: \"900\"\n 364│          SPT_TWO_HOST_NOTIFY_BIN: ${{ github.workspace }}/.adapter-notify/target/debug/notify-shell\n 365│      # The C-2 revive rung relaunches a mock [session.resume] harness — the\n    │...\n 385│    needs: test\n*386│    runs-on: [self-hosted, Windows, hfenduleam]\n 387│    timeout-minutes: 40\n 388│    steps:\n 389│      - uses: actions/checkout@v5\n### release.yml\n 37│            target: \"\"\n*38│          - runner: [self-hosted, Windows, hfenduleam]\n 39│            asset: spt-x86_64-windows.exe\n 40│            built: target/release/spt.exe\n 41│            target: \"\"","linesTruncated":true,"meta":{"limits":{"columnTruncated":{"maxColumn":512}}}},"isError":false,"timestamp":1784069287177}}
{"type":"message","id":"c1a2df81","parentId":"faff833f","timestamp":"2026-07-14T22:48:14.999Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Assessing firewall rule update inconsistencies**"},{"type":"toolCall","id":"call_AOGQaVm5K4Qu9CZdK2OH4k9P|fc_0b084cf0b521ab15016a56bcac949c8190ada21cea535fe204","name":"irc","arguments":{"i":"Suggesting read only discriminators","op":"send","to":"Main","message":"Also compare read-only Windows firewall rules on both: `netsh advfirewall firewall show rule name=\"spt-core inbound UDP\" verbose` (existence alone insufficient: enabled/profile/program path). `--json` hides inbound_block_hint because cli.rs returns JSON before rendering warning. Check UDP listeners/owning PID via `Get-NetUDPEndpoint | ? OwningProcess -eq <broker-pid>` and compare current bound ports with peer-addrs/roster cached ports. Tailscale TCP reachability does not establish UDP QUIC listener reachability/current port.","replyTo":null,"await":false,"from":null,"timeoutMs":null,"peek":null}}],"api":"openai-codex-responses","provider":"openai-codex","model":"gpt-5.6-sol","usage":{"input":20079,"output":307,"cacheRead":243200,"cacheWrite":0,"totalTokens":263586,"reasoningTokens":133,"cost":{"input":0.10039500000000001,"output":0.00921,"cacheRead":0.1216,"cacheWrite":0,"total":0.231205}},"stopReason":"toolUse","timestamp":1784069287227,"responseId":"resp_0b084cf0b521ab15016a56bca7545c8190b90d201fac320215","providerPayload":{"type":"openaiResponsesHistory","provider":"openai-codex","dt":true,"items":[{"id":"rs_0b084cf0b521ab15016a56bca8efcc8190a2cc53804d871b57","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVrysCoKFgf0KnCq6kuLqY6cjEANTXiJjjgZu98IdqzF_B6oqQ4EseDZKNBowfhWbNPatFW2HNGObAnofeO1B3LwH4-CkdJc2NfVSEYNCKpie42cJ4eOR5GmD12nENzqOBJMF-_iRi3pEWE5def_fQMbHb1wjhwpvz9aBydR_hIMB5rVUX500VeJtUXe8qCp-Wqec6qmNTlO1AN9E2V9dHw8PXAqasoDxwRgS-zx6gU-4YtUBaFkuWbvZQ4Ka4maJa3eXnZIbQDh2NYq9RXNL0C8tUfl3qXZfMTMad7TeiyD2yblDzTiDX9thCehHvocFJTBgP6yQ2cSbIhCa22JDw1cevTRM86mSwT37MUZEVPUPmv9FWY0pf7gaB-YJsrdxpQAAfygMhZyDXFTCJFDSIyXJMc7Iw3_2E97eqYrRE8IgH-ConkYFl05EmVjoa6BuxTFXU-TjayX9244LDAisfRRys61Q6OsIGo3QaaHU-ruLNtARyuoQG2H7KGems4ELUxV848tXxUTwzJY95x5e4fB-x2VbBhGJh1vmQpZ5pff_fqq5UnvQjbFXUSvdiD9yDY2_4NpC7rFZbY57kxI6GJB8FhlwN4M89dfNlefiX8tM5HR5Ku9rEp86rV9WvDosjZLMXtRFl0nV83_NKiKPU18VsUHKVtfq1kD3tOyoQ78wYnPWGdS33cN8wBrVW_XsuXSDtIzU24x0UbdWc7KvMiTxKNHv73BrXyQBe_6vIaltupjGVvTQeaOK_TcyxaDwei5h-NuB7S2-UIW1--Nkdi3L50P2j-aG7MeZMi6ghEHzCW3Xd2wGg1qCmrf_ZbmHtQqBpHlE1uyPbfkT4NtQOBzBiJGAWefVQ495NSOq2G5P4SLO2WQ2l6TTZ6nFFX0z1NxC9MryDJxfNQU7y4uU_4MazhvBuh4yWIunuREXrhoKhzP88wSt50MWviCo6U18czQt0MYtDJTecAyUsO7wAfDYvuiSwmUtqV_kdINdW1SwMydjSUq2IgvdAtz7GNM2DbMIHTS1nrbsDgl9ayNJcaYEPkXBdDx5K09fneqGy3fL2YO3fl1mrl-UyvYQGIwaSHpA2ilslGXXdMoCFlImajSv0whITSDJwy9H_u2kzh_uXXSFYm75qnmXyNT7Tw8zvCfknI2uNKVCDeo6pQTkzFqt5yxaaOBCab7haOpGPtNGtjuDFLowzdpbEzlRnKZrlRWc8naVwEXXXn-l3mjEBb6CiXfQUrh5iFApBUIJDzWVCTJFBuMskV1pgkeMbiOCUo3PinVNqb4Ce12tIiY3bc45YUJueGiFt4C_9hNb3aJk8EckgqEpfwsDco5YYr-4HJHSZ4M65N638q5sZnykVYUayPri3UtBdloo7rpsgMWS67xh_8bXJntNsliWlQvafgMp1zS1xDlr2dQUx8U8HzCkJTYOf9FFJdHuJBIAkOty6hzJu_8Vdi1pQvm8ueT9HqBCBE-dK8XbWKiZ-wcTalAOxxXQ0u72Ff6fs5pdLQ5RZbIdPS2lbu8pT1QSxuIdUYfvBYM7WAvd1DvOn2SkGfo4mFQets5VUpScCPNiLumDqlXQIlFfdaDQXVI6-7CT7C7Hmm9XxGWN_nBKIYBnyw3eEsBr2Gx_TTkfGjUZ5ZxYsheorK8cv1CWeSEezl_sXPu4CfatIXElgV2OBKLvCCBj6wGTptpgE5CrIqs1D5XxwMj_1dqlSc_xSWXO2xmFxpNTbtwjSOkAWec9o7g62s428F6T4EeAOj9rIh29rXOkpgg=","summary":[{"type":"summary_text","text":"**Assessing firewall rule update inconsistencies**"}]},{"id":"fc_0b084cf0b521ab15016a56bcac949c8190ada21cea535fe204","type":"function_call","status":"completed","arguments":"{\"i\":\"Suggesting read only discriminators\",\"op\":\"send\",\"to\":\"Main\",\"message\":\"Also compare read-only Windows firewall rules on both: `netsh advfirewall firewall show rule name=\\\"spt-core inbound UDP\\\" verbose` (existence alone insufficient: enabled/profile/program path). `--json` hides inbound_block_hint because cli.rs returns JSON before rendering warning. Check UDP listeners/owning PID via `Get-NetUDPEndpoint | ? OwningProcess -eq <broker-pid>` and compare current bound ports with peer-addrs/roster cached ports. Tailscale TCP reachability does not establish UDP QUIC listener reachability/current port.\",\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_AOGQaVm5K4Qu9CZdK2OH4k9P","name":"irc"}]},"duration":7771.6044999957085,"ttft":1738.3578000068665,"contextSnapshot":{"promptTokens":263279,"nonMessageTokens":17981}}}
{"type":"custom","customType":"tool_execution_start","data":{"toolCallId":"call_AOGQaVm5K4Qu9CZdK2OH4k9P|fc_0b084cf0b521ab15016a56bcac949c8190ada21cea535fe204","toolName":"irc","startedAt":"2026-07-14T22:48:15.000Z","intent":"Suggesting read only discriminators"},"id":"3d119c21","parentId":"c1a2df81","timestamp":"2026-07-14T22:48:15.000Z"}
{"type":"message","id":"0d03fd06","parentId":"3d119c21","timestamp":"2026-07-14T22:48:15.000Z","message":{"role":"toolResult","toolCallId":"call_AOGQaVm5K4Qu9CZdK2OH4k9P|fc_0b084cf0b521ab15016a56bcac949c8190ada21cea535fe204","toolName":"irc","content":[{"type":"text","text":"Delivered to 1 peer(s):\n- Main: injected"}],"details":{"op":"send","from":"IsolationCodeRCA","to":"Main","receipts":[{"to":"Main","outcome":"injected"}]},"isError":false,"timestamp":1784069295000}}
{"type":"message","id":"4fb7ad21","parentId":"0d03fd06","timestamp":"2026-07-14T22:48:42.132Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Analyzing protocol deadlock causes**\n\n**Investigating seedproof protocol deadlock**\n\n**Identifying silent node eviction cause**"},{"type":"toolCall","id":"call_LuuRTLcH6eQ8yrVFkq31gOGY|fc_0b084cf0b521ab15016a56bcc3f4d08190a4f503b6e827987a","name":"irc","arguments":{"i":"Sending code RCA findings","op":"send","to":"Main","message":"Code RCA: status green is control-plane only. cli.rs:4119-4135 sets net_up from broker NetHost presence, defaults true on query failure; broker.rs:3822-3834 enabled iff OnceLock host exists, conn_count ignored. pump heartbeat is written before fanout every 5s even with zero targets/all dials failing (pump/mod.rs:560-579); current failures are per-peer and heartbeat continues (:609-690,:857-881). Subnet counts are durable membership: cli.rs:6731-6762 unions self+roster+registry; HF roster exactly yields SPT_DEV=4, BIGNET=3. JSON node arrays are intentionally empty unless `--nodes` (:7319-7341; SubnetCmd nodes flag :960-974). endpoint list remotes come only identity/registry snapshots (:3015-3078); remote rows are evicted after 300s silence (registryhost.rs:608-650), hence local-only after heard stale. Strong candidate: cache/discovery bootstrap. Pump lookup only exact peer-addrs key then id-only, never roster address (pump/mod.rs:940-958); failure drops exact key (:869-880). HF peer-addrs has no key ecb39...; instead key 5ff50... contains nested id ecb39..., while roster has full ecb address. Thus EN target falls to id-only n0/mDNS despite a roster address. Outer 10s timeout wraps transport connect + seedproof, so timeout alone cannot distinguish (nethost.rs:537-558,1119-1150). Compare EN mirror + live UDP ports/firewall + exact 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protocol deadlock causes**"},{"type":"summary_text","text":"**Investigating seedproof protocol deadlock**"},{"type":"summary_text","text":"**Identifying silent node eviction cause**"}]},{"id":"fc_0b084cf0b521ab15016a56bcc3f4d08190a4f503b6e827987a","type":"function_call","status":"completed","arguments":"{\"i\":\"Sending code RCA findings\",\"op\":\"send\",\"to\":\"Main\",\"message\":\"Code RCA: status green is control-plane only. cli.rs:4119-4135 sets net_up from broker NetHost presence, defaults true on query failure; broker.rs:3822-3834 enabled iff OnceLock host exists, conn_count ignored. pump heartbeat is written before fanout every 5s even with zero targets/all dials failing (pump/mod.rs:560-579); current failures are per-peer and heartbeat continues (:609-690,:857-881). Subnet counts are durable membership: cli.rs:6731-6762 unions self+roster+registry; HF roster exactly yields SPT_DEV=4, BIGNET=3. JSON node arrays are intentionally empty unless `--nodes` (:7319-7341; SubnetCmd nodes flag :960-974). endpoint list remotes come only identity/registry snapshots (:3015-3078); remote rows are evicted after 300s silence (registryhost.rs:608-650), hence local-only after heard stale. Strong candidate: cache/discovery bootstrap. Pump lookup only exact peer-addrs key then id-only, never roster address (pump/mod.rs:940-958); failure drops exact key (:869-880). HF peer-addrs has no key ecb39...; instead key 5ff50... contains nested id ecb39..., while roster has full ecb address. Thus EN target falls to id-only n0/mDNS despite a roster address. Outer 10s timeout wraps transport connect + seedproof, so timeout alone cannot distinguish (nethost.rs:537-558,1119-1150). Compare EN mirror + live UDP ports/firewall + exact seeds.\",\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_LuuRTLcH6eQ8yrVFkq31gOGY","name":"irc"}]},"duration":27111.086199998856,"ttft":6172.530000030994,"contextSnapshot":{"promptTokens":263608,"nonMessageTokens":17981}}}
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{"type":"message","id":"113a90d1","parentId":"13832a61","timestamp":"2026-07-14T22:48:42.133Z","message":{"role":"toolResult","toolCallId":"call_LuuRTLcH6eQ8yrVFkq31gOGY|fc_0b084cf0b521ab15016a56bcc3f4d08190a4f503b6e827987a","toolName":"irc","content":[{"type":"text","text":"Delivered to 1 peer(s):\n- Main: injected"}],"details":{"op":"send","from":"IsolationCodeRCA","to":"Main","receipts":[{"to":"Main","outcome":"injected"}]},"isError":false,"timestamp":1784069322133}}
{"type":"custom_message","customType":"irc:incoming","content":"<irc>\nIncoming IRC message from agent `IsolationLogRCA`:\n\nLive evidence now points symmetric all-peer submit-dial 10s timeouts while meet listeners rotate/rebind normally, clocks ruled out. Can code/log shape distinguish transport handshake blackhole vs seed-proof stream blackhole? Any v0.31 change around accept loop/identity/address? Please send strongest mechanism and falsifiable signature.\n\nAn agent sent this while you were waiting or working. Any active interruptible wait was stopped early so you can read it now.\n\nIf a response is expected, reply with the `irc` tool (`op: \"send\"`, `to: \"IsolationLogRCA\"`) — you may finish your current step first. Nobody replies on your behalf.\n</irc>","display":true,"details":{"id":"1530019d71ee3658","from":"IsolationLogRCA","message":"Live evidence now points symmetric all-peer submit-dial 10s timeouts while meet listeners rotate/rebind normally, clocks ruled out. Can code/log shape distinguish transport handshake blackhole vs seed-proof stream blackhole? Any v0.31 change around accept loop/identity/address? Please send strongest mechanism and falsifiable signature."},"attribution":"agent","id":"a1aaa892","parentId":"113a90d1","timestamp":"2026-07-14T22:48:42.134Z"}
{"type":"message","id":"67d4f1c8","parentId":"a1aaa892","timestamp":"2026-07-14T22:48:57.217Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Distinguishing timeout causes using QUIC handshake analysis**"},{"type":"toolCall","id":"call_FHU4C9urL5qitdIjFeoiMGR2|fc_0b084cf0b521ab15016a56bcd3155c8190a46952607c522702","name":"irc","arguments":{"i":"Explaining timeout ambiguity","op":"send","to":"IsolationLogRCA","message":"Code cannot distinguish from current token: nethost.rs DialPlan::connect 537-558 does endpoint.connect THEN prove_membership; submit_dial 1119-1150 wraps the whole future in one 10s timeout and logs only `submit-dial exceeded...`. Explicit `seed-proof failed: peer is not a subnet member` would mean transport+proof exchange completed with denied/empty set. Generic 10s can be transport handshake blackhole OR seed-proof/open_bi/roster stream stall. Conn_count increments only after proof (`register_conn`), so remains 0 in both. Falsify via read-only packet capture: QUIC Initial with no peer Handshake=response => transport/listener/firewall; completed QUIC handshake then bidi-stream silence => proof/protocol. Compare exact subnet seeds/epochs; equality sharply lowers proof-denial. PAIR_MEET_UP is separate derived identity + SPT_PAIR_MEET_ALPN and fresh socket, not proof stable node-id SPT_NET_ALPN works. CHANGELOG 0.31 has no network change; 0.30.1/.2 only peer-pump timeout/concurrency.","replyTo":null,"await":false,"from":null,"timeoutMs":null,"peek":null}}],"api":"openai-codex-responses","provider":"openai-codex","model":"gpt-5.6-sol","usage":{"input":2001,"output":391,"cacheRead":262656,"cacheWrite":0,"totalTokens":265048,"reasoningTokens":98,"cost":{"input":0.010005,"output":0.01173,"cacheRead":0.131328,"cacheWrite":0,"total":0.153063}},"stopReason":"toolUse","timestamp":1784069322152,"responseId":"resp_0b084cf0b521ab15016a56bcca734c819085e2b7a047e37a8c","providerPayload":{"type":"openaiResponsesHistory","provider":"openai-codex","dt":true,"items":[{"id":"rs_0b084cf0b521ab15016a56bccf6ce48190a19e4c45dddccd46","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVrzTyk6nxOVW-UqtFDOIfrQ1gbUGAXxrcwFBfRHsjCbZ2GqixsXrLijInm0IOUf0yvcKouqS9hxbRqkxoAlPZSh-KFEWYcI06QdoBOKSOL7r6DWoIVedLeUHHAQxBET_m8sT1cuNVwN2-vGIf7LxJqTFkot4JtA9C-cW6_KCHC0Auan4iRKVcRLAn0uNBafeF-D25aYmWVxtybPlVJgxz2kX7C35p0yGXiS1HZU2D8GQZze_XGXFgK0alucjWbbIWN8yt6ps-yIPQCKizftkkszqjbYcNpjEDyk-6dLSiOOXdJ4RWXNRn2WTo2AsdecYUrUIL9O9nWBzHF3FB6WzydCPDXcIplHivzI8XOk-hJ_liCMmREtUTL76IdHAItd_GKcPAiXQinSkM0OkFdOzpEU4zCqt7NWQb5-icb_aYj6LZRnrvman0FsJl0Lju1t7ckqkRWILLq_VDxKPCi-XAfDL1w_BNL2IyQjQ0k7s0JGbcNA5bWowTow5VVbjm3m1FawUYkrDkX05GiR8s07QNy5nd06f1xhaSQFeC03Y-agKKN4Zrx-Kc57wgAaNMNPdnwWpBYhbycx4VjgKDKrV0Nx1ZQoWnLg7t_AFVYUcvPGxyiYY6W6pJ_foADiKsdeLo4rq3jhbxyxpo16pugEidp6lOX0BYCh0IVNSgvbgradh4aShCwsWnVbe6mjrGh3Tl3yjkHWYM0zv1yFIzpXDFOENeuMeY-kG7VmG4Py7BuKfRNpgI6WkxPMuYTRTj2BOJEfoysRbKyDIVXQborSqxSofGZTYjlmkQXZirDBFBSSjyL2pj4xhJ2A01Ko_V3losYBswZJpiItu6uS5l_NebcRZZu35NxYr0Ww_CxOmB7grVYExEVArLAtBBybUTdT8nwdKVxMMNPAzNnWgVt91lFdUFiwGHjd6M0DW1-t7A6RV3zTn6a1otWJY7T6cevevHbESL5WSFwnpp8_qz-7IH2XSd124BHEuHTWR568T_-TBjNa7x2I16yoegmLBba3GWvFH4DFK-JkvoXdiVWrUUs3zO2uaqhjfIUGcm2CE5Xz2Pwl72KxOiw0i1vUudZkDO5imJug1677TcoMFfMPAI7ir9oUkbL3bkDqOMz6SFWzJAa8w-OfiXJcvxEoFW-y0Tk_fToCjEjStiUgfq68JxUoH1v6pdcyeSpUngXu7HAA-GEAnFx2Zg5ZGlp2sWtwY59vVDJ4PUgHMv9SkJgJ3930kWncl7EAhJ-cub68r8duw-_tSI7HZ6Bpugm7QjMLODjnKlajU9Vym1WNBP1ul7jevZ8xxEB59DnJmrNS5LTK1iLwmvCVdBrd3D33ICCs0QXTJTOx3xyWEd3B1egzyV2guse37ovKubaHvUg03kKkqOoe15DcmkBPTT1J8M-4jdUXv6oTv2YFcJsRstylf6U5YJpET1j1c4AYkrvcwjPKqjZEZUTrsKlPWhVGU6s1G4yWlroZ8RlXQLiuowERnWgv3pxqPXfC-gLcUJqnyxhkHvwg3Yzm6bHnDdEb8bd6nMoSKp9HvLIg0tzMKD3_C6cH0NGmejYEbLfuKhlDHhmHzGMY=","summary":[{"type":"summary_text","text":"**Distinguishing timeout causes using QUIC handshake analysis**"}]},{"id":"fc_0b084cf0b521ab15016a56bcd3155c8190a46952607c522702","type":"function_call","status":"completed","arguments":"{\"i\":\"Explaining timeout ambiguity\",\"op\":\"send\",\"to\":\"IsolationLogRCA\",\"message\":\"Code cannot distinguish from current token: nethost.rs DialPlan::connect 537-558 does endpoint.connect THEN prove_membership; submit_dial 1119-1150 wraps the whole future in one 10s timeout and logs only `submit-dial exceeded...`. Explicit `seed-proof failed: peer is not a subnet member` would mean transport+proof exchange completed with denied/empty set. Generic 10s can be transport handshake blackhole OR seed-proof/open_bi/roster stream stall. Conn_count increments only after proof (`register_conn`), so remains 0 in both. Falsify via read-only packet capture: QUIC Initial with no peer Handshake=response => transport/listener/firewall; completed QUIC handshake then bidi-stream silence => proof/protocol. Compare exact subnet seeds/epochs; equality sharply lowers proof-denial. PAIR_MEET_UP is separate derived identity + SPT_PAIR_MEET_ALPN and fresh socket, not proof stable node-id SPT_NET_ALPN works. CHANGELOG 0.31 has no network change; 0.30.1/.2 only peer-pump timeout/concurrency.\" ,\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_FHU4C9urL5qitdIjFeoiMGR2","name":"irc"}]},"duration":15037.644400000572,"ttft":5300.398699998856,"contextSnapshot":{"promptTokens":264657,"nonMessageTokens":17981}}}
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{"type":"message","id":"87a99b66","parentId":"4d171f27","timestamp":"2026-07-14T22:49:26.889Z","message":{"role":"toolResult","toolCallId":"call_9td4CwKA8actN2FDoLRRu9fv|fc_0b084cf0b521ab15016a56bcf66cac819082f6cdc902cfa258","toolName":"read","content":[{"type":"text","text":"    pub fn advertise_local(&self, owlery: &Path) -> Vec<RegistryFeedRecord> {\n…\n        drop(regs);\n        self.write_snapshots();\n        out\n    }\n\n    /// Evict every registry row authored by a **silent** peer node\n    /// (KNOWN-HAZARDS 4.10): a node not heard — no admitted inbound feed —\n    /// within `ttl` has its rows removed from every subnet registry and the\n    /// snapshots rewritten, so a dead node identity can no longer poison\n    /// bare-id resolution with phantom ambiguity. Own rows never decay (this\n    /// node authors them fresh each pump tick and is never in its own heard\n    /// map). A row whose author has NO heard stamp is treated as silent —\n    /// rows only enter via admitted feeds (which stamp) or `advertise_local`\n    /// (own rows, excluded), so an unstamped foreign row is already an\n    /// anomaly and fails toward eviction. A merely-offline peer reconverges\n    /// within one pump cadence of its return (re-advertisement from its\n    /// durable epoch). Returns the number of rows evicted.\n    // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n    pub fn evict_silent_peers(&self, ttl: std::time::Duration) -> usize {\n        self.evict_silent_peers_at(ttl, wall_ms())\n    }\n\n    /// [`evict_silent_peers`](Self::evict_silent_peers) with an explicit\n    /// clock (the testable seam).\n    // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n    pub fn evict_silent_peers_at(&self, ttl: std::time::Duration, now_ms: u64) -> usize {\n        let ttl_ms = ttl.as_millis() as u64;\n        let heard = self.heard.lock().unwrap();\n        let silent = |node: &str| {\n            node != self.node_hex\n                && heard\n                    .get(node)\n                    .is_none_or(|&t| now_ms.saturating_sub(t) > ttl_ms)\n        };\n        let mut regs = self.regs.lock().unwrap();\n        let mut evicted = 0usize;\n        for (subnet, reg) in regs.iter_mut() {\n            let n = reg.evict_nodes(silent);\n            if n > 0 {\n                eprintln!(\"REGISTRY_EVICT:{subnet}: {n} row(s) from silent node(s)\");\n            }\n            evicted += n;\n        }\n        drop(regs);\n        drop(heard);\n        if evicted > 0 {\n            self.write_snapshots();\n        }\n        evicted\n    }\n…\n    /// Mirror every subnet's registry to `identity/registry/<subnet>.json`\n    /// (tmp-write + atomic rename — KNOWN-HAZARDS 5.2) for out-of-process\n    /// readers. Best-effort: a failed snapshot write must not fail the merge\n    /// that triggered it (readers tolerate staleness by contract).\n    fn write_snapshots(&self) {\n        let regs = self.regs.lock().unwrap();\n        if regs.is_empty() {\n            return;\n        }\n        if std::fs::create_dir_all(&self.snapshot_dir).is_err() {\n            return;\n        }\n        for (subnet, reg) in regs.iter() {\n            let Ok(json) = serde_json::to_vec_pretty(reg) else {\n                continue;\n            };\n            let _ = atomic_write(&self.snapshot_dir.join(format!(\"{subnet}.json\")), &json);\n        }\n        drop(regs);\n        // The heard-map mirror (M7 D2 hybrid liveness). `.meta`, not `.json`:\n        // the snapshot reader globs `<subnet>.json`, so this can never shadow\n        // a subnet (even one literally named \"heard\").\n        let heard = self.heard.lock().unwrap();\n        if !heard.is_empty() {\n            if let Ok(json) = serde_json::to_vec_pretty(&*heard) {\n                let _ = atomic_write(&Self::heard_path(&self.snapshot_dir), &json);\n            }\n        }\n    }\n\n    /// The snapshot path for one subnet (the CLI reader's contract).\n    pub fn snapshot_path(dir: &Path, subnet: &str) -> PathBuf {\n        dir.join(format!(\"{subnet}.json\"))\n    }\n\n    /// The heard-map mirror's path (the CLI reader's contract): `node hex →\n    /// last admitted-feed wall ms`.\n    // [impl->REQ-SUBNET-1]\n    pub fn heard_path(dir: &Path) -> PathBuf {\n        dir.join(\"heard.meta\")\n    }"}],"details":{"displayContent":{"text":"    pub fn advertise_local(&self, owlery: &Path) -> Vec<RegistryFeedRecord> {\n…\n        drop(regs);\n        self.write_snapshots();\n        out\n    }\n\n    /// Evict every registry row authored by a **silent** peer node\n    /// (KNOWN-HAZARDS 4.10): a node not heard — no admitted inbound feed —\n    /// within `ttl` has its rows removed from every subnet registry and the\n    /// snapshots rewritten, so a dead node identity can no longer poison\n    /// bare-id resolution with phantom ambiguity. Own rows never decay (this\n    /// node authors them fresh each pump tick and is never in its own heard\n    /// map). A row whose author has NO heard stamp is treated as silent —\n    /// rows only enter via admitted feeds (which stamp) or `advertise_local`\n    /// (own rows, excluded), so an unstamped foreign row is already an\n    /// anomaly and fails toward eviction. A merely-offline peer reconverges\n    /// within one pump cadence of its return (re-advertisement from its\n    /// durable epoch). Returns the number of rows evicted.\n    // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n    pub fn evict_silent_peers(&self, ttl: std::time::Duration) -> usize {\n        self.evict_silent_peers_at(ttl, wall_ms())\n    }\n\n    /// [`evict_silent_peers`](Self::evict_silent_peers) with an explicit\n    /// clock (the testable seam).\n    // [impl->REQ-HAZARD-REGISTRY-GHOST-ROWS]\n    pub fn evict_silent_peers_at(&self, ttl: std::time::Duration, now_ms: u64) -> usize {\n        let ttl_ms = ttl.as_millis() as u64;\n        let heard = self.heard.lock().unwrap();\n        let silent = |node: &str| {\n            node != self.node_hex\n                && heard\n                    .get(node)\n                    .is_none_or(|&t| now_ms.saturating_sub(t) > ttl_ms)\n        };\n        let mut regs = self.regs.lock().unwrap();\n        let mut evicted = 0usize;\n        for (subnet, reg) in regs.iter_mut() {\n            let n = reg.evict_nodes(silent);\n            if n > 0 {\n                eprintln!(\"REGISTRY_EVICT:{subnet}: {n} row(s) from silent node(s)\");\n            }\n            evicted += n;\n        }\n        drop(regs);\n        drop(heard);\n        if evicted > 0 {\n            self.write_snapshots();\n        }\n        evicted\n    }\n…\n    /// Mirror every subnet's registry to `identity/registry/<subnet>.json`\n    /// (tmp-write + atomic rename — KNOWN-HAZARDS 5.2) for out-of-process\n    /// readers. Best-effort: a failed snapshot write must not fail the merge\n    /// that triggered it (readers tolerate staleness by contract).\n    fn write_snapshots(&self) {\n        let regs = self.regs.lock().unwrap();\n        if regs.is_empty() {\n            return;\n        }\n        if std::fs::create_dir_all(&self.snapshot_dir).is_err() {\n            return;\n        }\n        for (subnet, reg) in regs.iter() {\n            let Ok(json) = serde_json::to_vec_pretty(reg) else {\n                continue;\n            };\n            let _ = atomic_write(&self.snapshot_dir.join(format!(\"{subnet}.json\")), &json);\n        }\n        drop(regs);\n        // The heard-map mirror (M7 D2 hybrid liveness). `.meta`, not `.json`:\n        // the snapshot reader globs `<subnet>.json`, so this can never shadow\n        // a subnet (even one literally named \"heard\").\n        let heard = self.heard.lock().unwrap();\n        if !heard.is_empty() {\n            if let Ok(json) = serde_json::to_vec_pretty(&*heard) {\n                let _ = atomic_write(&Self::heard_path(&self.snapshot_dir), &json);\n            }\n        }\n    }\n\n    /// The snapshot path for one subnet (the CLI reader's contract).\n    pub fn snapshot_path(dir: &Path, subnet: &str) -> PathBuf {\n        dir.join(format!(\"{subnet}.json\"))\n    }\n\n    /// The heard-map mirror's path (the CLI reader's contract): `node hex →\n    /// last admitted-feed wall ms`.\n    // [impl->REQ-SUBNET-1]\n    pub fn heard_path(dir: &Path) -> PathBuf {\n        dir.join(\"heard.meta\")\n    }","startLine":345,"lineNumbers":[345,null,603,604,605,606,607,608,609,610,611,612,613,614,615,616,617,618,619,620,621,622,623,624,625,626,627,628,629,630,631,632,633,634,635,636,637,638,639,640,641,642,643,644,645,646,647,648,649,650,651,652,null,706,707,708,709,710,711,712,713,714,715,716,717,718,719,720,721,722,723,724,725,726,727,728,729,730,731,732,733,734,735,736,737,738,739,740,741,742,743,744,745,746]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\registryhost.rs"}}},"isError":false,"timestamp":1784069366889}}
{"type":"message","id":"eeb3b329","parentId":"87a99b66","timestamp":"2026-07-14T22:49:26.933Z","message":{"role":"toolResult","toolCallId":"call_3jim4rW0Sndy5MGSvdgQ3ZOn|fc_0b084cf0b521ab15016a56bcf66bd4819083f852fa339918fc","toolName":"read","content":[{"type":"text","text":"## [0.30.3] - 2026-07-09\n…\n### Fixed\n…\n- Applying an update in place with `spt update fetch --apply` could freeze every live\n…\n- `spt endpoint list --json` could report a locally-hosted endpoint that was actually\n…\n\n## [0.30.2] - 2026-07-09\n\nA follow-on reliability patch for subnets with several peers.\n\n### Fixed\n\n- On a subnet with several peers, one unreachable or slow-to-connect peer could\n  hold up connectivity to the others — the node contacted peers one at a time, so\n  a peer slow to answer delayed every peer behind it in the round. Peers are now\n  contacted concurrently and each peer's outcome is independent: a reachable peer\n  connects and appears right away even while another peer is still failing, and an\n  unreachable peer backs off on its own without affecting the rest. (Builds on the\n  0.30.1 fix, which stopped a single silent peer from stalling the whole round.)\n\n## [0.30.1] - 2026-07-09\n\nA reliability patch for peer connectivity on subnets with multiple peers.\n\n### Fixed\n\n- Nodes could stop seeing each other on a subnet when a single peer was reachable\n  but unresponsive — connected yet not replying (a peer mid-restart, suspended, or\n  running a version that doesn't answer the periodic update check). That one peer\n  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\n  members but showed an empty live-node list and warned that the peer pump had\n  stalled. An unresponsive peer is now dropped and retried on its own instead of\n  holding up the round, so the node keeps converging and peers reappear.\n\n## [0.30.0] - 2026-07-08\n\nAdds a statically-linked Linux build for hosts with an older system C library.\n\n### Added\n\n…\n\n\n[Showing lines 144-178 of 956. Use :179 to continue]"}],"details":{"truncation":{"content":"\r\n## [0.30.2] - 2026-07-09\r\n\r\nA follow-on reliability patch for subnets with several peers.\r\n\r\n### Fixed\r\n\r\n- On a subnet with several peers, one unreachable or slow-to-connect peer could\r\n  hold up connectivity to the others — the node contacted peers one at a time, so\r\n  a peer slow to answer delayed every peer behind it in the round. Peers are now\r\n  contacted concurrently and each peer's outcome is independent: a reachable peer\r\n  connects and appears right away even while another peer is still failing, and an\r\n  unreachable peer backs off on its own without affecting the rest. (Builds on the\r\n  0.30.1 fix, which stopped a single silent peer from stalling the whole round.)\r\n\r\n## [0.30.1] - 2026-07-09\r\n\r\nA reliability patch for peer connectivity on subnets with multiple peers.\r\n\r\n### Fixed\r\n\r\n- Nodes could stop seeing each other on a subnet when a single peer was reachable\r\n  but unresponsive — connected yet not replying (a peer mid-restart, suspended, or\r\n  running a version that doesn't answer the periodic update check). That one peer\r\n  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\r\n  members but showed an empty live-node list and warned that the peer pump had\r\n  stalled. An unresponsive peer is now dropped and retried on its own instead of\r\n  holding up the round, so the node keeps converging and peers reappear.\r\n\r\n## [0.30.0] - 2026-07-08\r\n\r\nAdds a statically-linked Linux build for hosts with an older system C library.\r\n\r\n### Added\r\n\r","truncated":true,"truncatedBy":"lines","totalLines":813,"totalBytes":1506,"outputLines":35,"outputBytes":1506,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"## [0.30.3] - 2026-07-09\n…\n### Fixed\n…\n- Applying an update in place with `spt update fetch --apply` could freeze every live\n…\n- `spt endpoint list --json` could report a locally-hosted endpoint that was actually\n…\n\r\n## [0.30.2] - 2026-07-09\r\n\r\nA follow-on reliability patch for subnets with several peers.\r\n\r\n### Fixed\r\n\r\n- On a subnet with several peers, one unreachable or slow-to-connect peer could\r\n  hold up connectivity to the others — the node contacted peers one at a time, so\r\n  a peer slow to answer delayed every peer behind it in the round. Peers are now\r\n  contacted concurrently and each peer's outcome is independent: a reachable peer\r\n  connects and appears right away even while another peer is still failing, and an\r\n  unreachable peer backs off on its own without affecting the rest. (Builds on the\r\n  0.30.1 fix, which stopped a single silent peer from stalling the whole round.)\r\n\r\n## [0.30.1] - 2026-07-09\r\n\r\nA reliability patch for peer connectivity on subnets with multiple peers.\r\n\r\n### Fixed\r\n\r\n- Nodes could stop seeing each other on a subnet when a single peer was reachable\r\n  but unresponsive — connected yet not replying (a peer mid-restart, suspended, or\r\n  running a version that doesn't answer the periodic update check). That one peer\r\n  would stall the whole peer-sync round, so `spt subnet status` listed the subnet's\r\n  members but showed an empty live-node list and warned that the peer pump had\r\n  stalled. An unresponsive peer is now dropped and retried on its own instead of\r\n  holding up the round, so the node keeps converging and peers reappear.\r\n\r\n## [0.30.0] - 2026-07-08\r\n\r\nAdds a statically-linked Linux build for hosts with an older system C library.\r\n\r\n### Added\r\n\r\n…\n","startLine":119,"lineNumbers":[119,null,124,null,126,null,139,null,144,145,146,147,148,149,150,151,152,153,154,155,156,157,158,159,160,161,162,163,164,165,166,167,168,169,170,171,172,173,174,175,176,177,178,null,184]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\CHANGELOG.md"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":956,"totalBytes":1506,"outputLines":35,"outputBytes":1506,"shownRange":{"start":144,"end":178},"nextOffset":179}}},"isError":false,"timestamp":1784069366933}}
{"type":"message","id":"283e20be","parentId":"eeb3b329","timestamp":"2026-07-14T22:49:26.933Z","message":{"role":"toolResult","toolCallId":"call_seZgo3D3UWTchlbBR6hG0JjT|fc_0b084cf0b521ab15016a56bcf66ca08190927845c0efe70115","toolName":"read","content":[{"type":"text","text":"## [0.3.0] - 2026-06-08\n\n### Added\n\n- **`spt subnet revoke <node>…`** — remove one or more machines from a subnet across the **whole fleet**, not just locally. It tells every member to drop the node within moments, then rotates the subnet's shared secret so the removed machine is locked out and must re-pair to come back. By default the rotation is batched at the end of a one-hour window — several revokes in that window share a single rotation, and any member that was briefly offline heals automatically across it. Pass `--force-rotate-seed` to rotate the secret immediately (the compromised-machine path; a member that's offline at that moment will have to re-pair rather than auto-heal). Name each target by hostname, key prefix, or full key. Requires running elevated. This is the fleet-wide count…\n- **`spt daemon start`** — bring the daemon up in the background, idempotently. When `spt` is installed as a service (the Linux per-user service, or the Windows logon task), `start` and `stop` now drive *that* service instead of a stray hand-started daemon — so the two never fight each other for the connection. `spt daemon start` on an already-running daemon just says so and does nothing.\n\n### Changed\n\n- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\n  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\n- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\n- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\n- **`spt daemon status` shows what manages the daemon** — whether a service owns it (and is active) or it was started by hand.\n\n### Performance\n\n- **`spt subnet status --nodes` is much faster when several nodes are offline.** It now checks all the quiet nodes at once, so the view comes back in about the time of a single check instead of stacking the wait up node by node. (This matters more now that a subnet is a full mesh and you see every member.)\n\n### Fixed\n\n- **A peer's name no longer disappears when it goes offline.** Once you've seen another node's hostname in `spt subnet status --nodes`, it now stays shown even after that node goes offline — previously the name reverted to a bare key after the node went quiet for a while. The name is only forgotten when you explicitly `spt subnet prune` that node.\n\n## [0.2.0] - 2026-06-08\n\n### Added\n\n- **`spt endpoint` command group.** A single home for everything you do to an endpoint: `spt endpoint fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, and `digest` all live here now. (See **Changed** — this is where these moved from.)\n- **`spt endpoint list`** — one combined view of every endpoint you can see, grouped by subnet, with your own endpoint pinned at the top.\n  - `spt endpoint list --local` shows just this machine's endpoints.\n  - `spt endpoint list --subnet <name>` filters to one subnet.\n  - `spt endpoint list --detail` adds each endpoint's description blurb.\n- **`spt endpoint description [set]`** — read or write an endpoint's description blurb (bare command shows it, `set` writes it).\n- **`spt endpoint access`** — per-endpoint access control (`allow` / `revoke` / `open` / `list`), scoped to the individual endpoint.\n- **`spt daemon` command group:**\n  - `spt daemon status` (or bare `spt daemon`) — a node status view: whether the daemon is running, its background-sync health, your subnets, and your local endpoints.\n  - `spt daemon stop` — cleanly stops the running daemon.\n  - `spt daemon run` — runs the daemon in the foreground (previously a hidden command).\n- **Pause and resume a subnet without stopping the daemon:**\n  - `spt subnet detach <name>` — stop advertising and connecting for that subnet (peers see you go offline for it) while everything else keeps running.\n  - `spt subnet attach <name>` — start serving it again.\n  - Add `--save` to either to make that choice the default the next time the daemon starts.\n  - `spt subnet status` now shows a per-subnet state for each subnet (serving / detached / no connection).\n- **Leave a subnet:** `spt subnet leave <name>` removes the subnet and its trust completely from this node.\n- **Clean up dead nodes:** `spt subnet prune <node>` removes a stale node's trust so this machine stops trying to reach it. You can name the node by its hostname label, a key prefix, or the full key; it refuses if the name is ambiguous or refers to yourself.\n- **Node names in `spt subnet status --nodes`.** Each node now shows its hostname label and can be addressed as `@<hostname>` in commands. Nodes that aren't running any endpoints still show their hostname instead of a bare key.\n- **Automatic re-pair cleanup.** If you reinstall or regenerate a node's identity and pair it again from the same machine under the same name, its old, now-dead identity is removed automatically during pairing — no manual prune needed.\n- **Firewall setup on Windows.** The installer (when run elevated) now adds the inbound network rule `spt` needs so other nodes can reach you. If it wasn't added, `spt subnet status` and the \"coming online\" banner now tell you the rule is missing and print the exact command to add it.\n- **Starts on boot.** The installer now registers `spt` to start automatically — at login on Windows, and as a per-user service on Linux — so your node is reachable after a reboot without running a command first.\n\n### Changed\n\n- **BREAKING — commands have been reorganized; old spellings no longer work (no aliases).** If a command isn't found, check its new home below. The agent-messaging commands you use most are unchanged: `spt send`, `spt ring`, `spt ready`, `spt whoami`, and `spt how-to` all stay where they are, as does top-level `spt notif`.\n  - These endpoint commands moved **under `spt endpoint`**: `fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, `digest`. For example, `spt fork …` is now `spt endpoint fork …`.\n  - The old `resources` view is gone; its listing is now `spt endpoint list --detail` and its per-endpoint blurb is now `spt endpoint description`.\n  - `spt notify …` moved to `spt subnet notify [message] [--target <subnet>]`. With no `--target`, it sends to your home subnet; if you have no home subnet and don't pass `--target`, it refuses rather than guessing.\n  - Stopping/checking the daemon moved under `spt daemon` (`spt daemon stop`, `spt daemon status`).\n- **`spt subnet status` tells the truth about a stopped daemon.** A node with no subnets now reads \"this node is standalone\" and no longer implies messaging works while the daemon is down. If the background sync has stalled, the status view says so instead of looking healthy.\n- **Cleaner node listing.** In `spt subnet status --nodes`, a normally-named node now shows just its hostname (e.g. `KITSUBITO`) instead of `KITSUBITO (43a51d9a…)`; the extra key prefix only appears when two nodes share the same hostname and need telling apart.\n- **`spt subnet` hints tidied.** The \"hint:\" lines now appear only on the bare `spt subnet` overview, not in `spt subnet status` (so the status view is clean to read).\n- **Pairing works on machines with a wrong clock.** Pairing now checks network time and tolerates a node whose system clock is off by more than a minute (which previously made pairing fail silently). If network time can't be reached, it falls back to the local clock as before; it never changes your system clock.\n- **Faster first sync after joining or restarting.** `spt` now remembers peers' last known addresses, so after a join — or after the daemon restarts — other nodes reappear in `spt subnet status --nodes` in seconds instead of taking up to a minute.\n- **Endpoints going online/offline show up almost immediately.** When an endpoint starts or stops, peers now see the change in `spt subnet status --nodes` within seconds instead of waiting for the next sync cycle.\n\n### Fixed\n\n- **`spt subnet status --nodes` no longer hangs on a dead peer.** Checking a node that has gone away used to stall the command for ~30 seconds; it's now bounded to a couple of seconds, and the command prints \"Checking remote nodes…\" so the brief wait is expected.\n- **Detached/unreachable peers now read as offline.** A peer you've detached from a subnet (or that has stopped serving it) is correctly shown offline in `spt subnet status --nodes`, instead of appearing online indefinitely just because its machine is up.\n- **Messages from other agents now arrive properly formatted.** Incoming messages on the listener stream now include the full envelope with the sender's name, instead of showing as a raw, unwrapped line.\n- **`sudo spt …` now works on Linux user installs.** When `spt` is installed to your user directory, elevation guidance that said to \"run as administrator/root\" used to dead-end with `sudo: spt: command not found`. The installer now also makes `spt` reachable under `sudo`, and on an interactive terminal `spt` re-runs itself with `sudo` automatically; otherwise it prints a command that actually works.\n- **Elevated `spt` on Linux runs under your account, not root.** The first time you run an elevated `spt`, it asks once which account should own the daemon and its data, remembers that choice, and every later `sudo spt` runs the daemon and stores state under that account — never as root.\n- **`spt daemon stop` on Windows now finds the daemon it started.** A daemon launched through Windows' elevation prompt could end up using the wrong home directory, so `spt daemon stop` reported \"daemon not running\" while a daemon kept running. It now keeps the right home directory across that elevation step.\n- **Removed a confusing internal status line.** `spt` no longer prints the internal \"DEELEVATED: running as uid …\" notice during normal use.\n- **Stale node rows clear out on their own.** Nodes that haven't been heard from in a while are now removed from the listing automatically, so old/dead entries stop cluttering `spt subnet status`.\n\n## [0.1.1] - 2026-06-07\n…\n\n\n[Showing lines 874-948 of 956. Use :949 to continue. Some lines truncated to 768 chars]"}],"details":{"truncation":{"content":"\r\n### Added\r\n\r\n- **`spt subnet revoke <node>…`** — remove one or more machines from a subnet across the **whole fleet**, not just locally. It tells every member to drop the node within moments, then rotates the subnet's shared secret so the removed machine is locked out and must re-pair to come back. By default the rotation is batched at the end of a one-hour window — several revokes in that window share a single rotation, and any member that was briefly offline heals automatically across it. Pass `--force-rotate-seed` to rotate the secret immediately (the compromised-machine path; a member that's offline at that moment will have to re-pair rather than auto-heal). Name each target by hostname, key prefix, or full key. Requires running elevated. This is the fleet-wide count…\n- **`spt daemon start`** — bring the daemon up in the background, idempotently. When `spt` is installed as a service (the Linux per-user service, or the Windows logon task), `start` and `stop` now drive *that* service instead of a stray hand-started daemon — so the two never fight each other for the connection. `spt daemon start` on an already-running daemon just says so and does nothing.\r\n\r\n### Changed\r\n\r\n- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\r\n  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\r\n- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\r\n- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\r\n- **`spt daemon status` shows what manages the daemon** — whether a service owns it (and is active) or it was started by hand.\r\n\r\n### Performance\r\n\r\n- **`spt subnet status --nodes` is much faster when several nodes are offline.** It now checks all the quiet nodes at once, so the view comes back in about the time of a single check instead of stacking the wait up node by node. (This matters more now that a subnet is a full mesh and you see every member.)\r\n\r\n### Fixed\r\n\r\n- **A peer's name no longer disappears when it goes offline.** Once you've seen another node's hostname in `spt subnet status --nodes`, it now stays shown even after that node goes offline — previously the name reverted to a bare key after the node went quiet for a while. The name is only forgotten when you explicitly `spt subnet prune` that node.\r\n\r\n## [0.2.0] - 2026-06-08\r\n\r\n### Added\r\n\r\n- **`spt endpoint` command group.** A single home for everything you do to an endpoint: `spt endpoint fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, and `digest` all live here now. (See **Changed** — this is where these moved from.)\r\n- **`spt endpoint list`** — one combined view of every endpoint you can see, grouped by subnet, with your own endpoint pinned at the top.\r\n  - `spt endpoint list --local` shows just this machine's endpoints.\r\n  - `spt endpoint list --subnet <name>` filters to one subnet.\r\n  - `spt endpoint list --detail` adds each endpoint's description blurb.\r\n- **`spt endpoint description [set]`** — read or write an endpoint's description blurb (bare command shows it, `set` writes it).\r\n- **`spt endpoint access`** — per-endpoint access control (`allow` / `revoke` / `open` / `list`), scoped to the individual endpoint.\r\n- **`spt daemon` command group:**\r\n  - `spt daemon status` (or bare `spt daemon`) — a node status view: whether the daemon is running, its background-sync health, your subnets, and your local endpoints.\r\n  - `spt daemon stop` — cleanly stops the running daemon.\r\n  - `spt daemon run` — runs the daemon in the foreground (previously a hidden command).\r\n- **Pause and resume a subnet without stopping the daemon:**\r\n  - `spt subnet detach <name>` — stop advertising and connecting for that subnet (peers see you go offline for it) while everything else keeps running.\r\n  - `spt subnet attach <name>` — start serving it again.\r\n  - Add `--save` to either to make that choice the default the next time the daemon starts.\r\n  - `spt subnet status` now shows a per-subnet state for each subnet (serving / detached / no connection).\r\n- **Leave a subnet:** `spt subnet leave <name>` removes the subnet and its trust completely from this node.\r\n- **Clean up dead nodes:** `spt subnet prune <node>` removes a stale node's trust so this machine stops trying to reach it. You can name the node by its hostname label, a key prefix, or the full key; it refuses if the name is ambiguous or refers to yourself.\r\n- **Node names in `spt subnet status --nodes`.** Each node now shows its hostname label and can be addressed as `@<hostname>` in commands. Nodes that aren't running any endpoints still show their hostname instead of a bare key.\r\n- **Automatic re-pair cleanup.** If you reinstall or regenerate a node's identity and pair it again from the same machine under the same name, its old, now-dead identity is removed automatically during pairing — no manual prune needed.\r\n- **Firewall setup on Windows.** The installer (when run elevated) now adds the inbound network rule `spt` needs so other nodes can reach you. If it wasn't added, `spt subnet status` and the \"coming online\" banner now tell you the rule is missing and print the exact command to add it.\r\n- **Starts on boot.** The installer now registers `spt` to start automatically — at login on Windows, and as a per-user service on Linux — so your node is reachable after a reboot without running a command first.\r\n\r\n### Changed\r\n\r\n- **BREAKING — commands have been reorganized; old spellings no longer work (no aliases).** If a command isn't found, check its new home below. The agent-messaging commands you use most are unchanged: `spt send`, `spt ring`, `spt ready`, `spt whoami`, and `spt how-to` all stay where they are, as does top-level `spt notif`.\r\n  - These endpoint commands moved **under `spt endpoint`**: `fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, `digest`. For example, `spt fork …` is now `spt endpoint fork …`.\r\n  - The old `resources` view is gone; its listing is now `spt endpoint list --detail` and its per-endpoint blurb is now `spt endpoint description`.\r\n  - `spt notify …` moved to `spt subnet notify [message] [--target <subnet>]`. With no `--target`, it sends to your home subnet; if you have no home subnet and don't pass `--target`, it refuses rather than guessing.\r\n  - Stopping/checking the daemon moved under `spt daemon` (`spt daemon stop`, `spt daemon status`).\r\n- **`spt subnet status` tells the truth about a stopped daemon.** A node with no subnets now reads \"this node is standalone\" and no longer implies messaging works while the daemon is down. If the background sync has stalled, the status view says so instead of looking healthy.\r\n- **Cleaner node listing.** In `spt subnet status --nodes`, a normally-named node now shows just its hostname (e.g. `KITSUBITO`) instead of `KITSUBITO (43a51d9a…)`; the extra key prefix only appears when two nodes share the same hostname and need telling apart.\r\n- **`spt subnet` hints tidied.** The \"hint:\" lines now appear only on the bare `spt subnet` overview, not in `spt subnet status` (so the status view is clean to read).\r\n- **Pairing works on machines with a wrong clock.** Pairing now checks network time and tolerates a node whose system clock is off by more than a minute (which previously made pairing fail silently). If network time can't be reached, it falls back to the local clock as before; it never changes your system clock.\r\n- **Faster first sync after joining or restarting.** `spt` now remembers peers' last known addresses, so after a join — or after the daemon restarts — other nodes reappear in `spt subnet status --nodes` in seconds instead of taking up to a minute.\r\n- **Endpoints going online/offline show up almost immediately.** When an endpoint starts or stops, peers now see the change in `spt subnet status --nodes` within seconds instead of waiting for the next sync cycle.\r\n\r\n### Fixed\r\n\r\n- **`spt subnet status --nodes` no longer hangs on a dead peer.** Checking a node that has gone away used to stall the command for ~30 seconds; it's now bounded to a couple of seconds, and the command prints \"Checking remote nodes…\" so the brief wait is expected.\r\n- **Detached/unreachable peers now read as offline.** A peer you've detached from a subnet (or that has stopped serving it) is correctly shown offline in `spt subnet status --nodes`, instead of appearing online indefinitely just because its machine is up.\r\n- **Messages from other agents now arrive properly formatted.** Incoming messages on the listener stream now include the full envelope with the sender's name, instead of showing as a raw, unwrapped line.\r\n- **`sudo spt …` now works on Linux user installs.** When `spt` is installed to your user directory, elevation guidance that said to \"run as administrator/root\" used to dead-end with `sudo: spt: command not found`. The installer now also makes `spt` reachable under `sudo`, and on an interactive terminal `spt` re-runs itself with `sudo` automatically; otherwise it prints a command that actually works.\r\n- **Elevated `spt` on Linux runs under your account, not root.** The first time you run an elevated `spt`, it asks once which account should own the daemon and its data, remembers that choice, and every later `sudo spt` runs the daemon and stores state under that account — never as root.\r\n- **`spt daemon stop` on Windows now finds the daemon it started.** A daemon launched through Windows' elevation prompt could end up using the wrong home directory, so `spt daemon stop` reported \"daemon not running\" while a daemon kept running. It now keeps the right home directory across that elevation step.\r\n- **Removed a confusing internal status line.** `spt` no longer prints the internal \"DEELEVATED: running as uid …\" notice during normal use.\r\n- **Stale node rows clear out on their own.** Nodes that haven't been heard from in a while are now removed from the listing automatically, so old/dead entries stop cluttering `spt subnet status`.\r\n\r\n## [0.1.1] - 2026-06-07\r","truncated":true,"truncatedBy":"lines","totalLines":83,"totalBytes":11124,"outputLines":75,"outputBytes":11124,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"## [0.3.0] - 2026-06-08\n\r\n### Added\r\n\r\n- **`spt subnet revoke <node>…`** — remove one or more machines from a subnet across the **whole fleet**, not just locally. It tells every member to drop the node within moments, then rotates the subnet's shared secret so the removed machine is locked out and must re-pair to come back. By default the rotation is batched at the end of a one-hour window — several revokes in that window share a single rotation, and any member that was briefly offline heals automatically across it. Pass `--force-rotate-seed` to rotate the secret immediately (the compromised-machine path; a member that's offline at that moment will have to re-pair rather than auto-heal). Name each target by hostname, key prefix, or full key. Requires running elevated. This is the fleet-wide count…\n- **`spt daemon start`** — bring the daemon up in the background, idempotently. When `spt` is installed as a service (the Linux per-user service, or the Windows logon task), `start` and `stop` now drive *that* service instead of a stray hand-started daemon — so the two never fight each other for the connection. `spt daemon start` on an already-running daemon just says so and does nothing.\r\n\r\n### Changed\r\n\r\n- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\r\n  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\r\n- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\r\n- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\r\n- **`spt daemon status` shows what manages the daemon** — whether a service owns it (and is active) or it was started by hand.\r\n\r\n### Performance\r\n\r\n- **`spt subnet status --nodes` is much faster when several nodes are offline.** It now checks all the quiet nodes at once, so the view comes back in about the time of a single check instead of stacking the wait up node by node. (This matters more now that a subnet is a full mesh and you see every member.)\r\n\r\n### Fixed\r\n\r\n- **A peer's name no longer disappears when it goes offline.** Once you've seen another node's hostname in `spt subnet status --nodes`, it now stays shown even after that node goes offline — previously the name reverted to a bare key after the node went quiet for a while. The name is only forgotten when you explicitly `spt subnet prune` that node.\r\n\r\n## [0.2.0] - 2026-06-08\r\n\r\n### Added\r\n\r\n- **`spt endpoint` command group.** A single home for everything you do to an endpoint: `spt endpoint fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, and `digest` all live here now. (See **Changed** — this is where these moved from.)\r\n- **`spt endpoint list`** — one combined view of every endpoint you can see, grouped by subnet, with your own endpoint pinned at the top.\r\n  - `spt endpoint list --local` shows just this machine's endpoints.\r\n  - `spt endpoint list --subnet <name>` filters to one subnet.\r\n  - `spt endpoint list --detail` adds each endpoint's description blurb.\r\n- **`spt endpoint description [set]`** — read or write an endpoint's description blurb (bare command shows it, `set` writes it).\r\n- **`spt endpoint access`** — per-endpoint access control (`allow` / `revoke` / `open` / `list`), scoped to the individual endpoint.\r\n- **`spt daemon` command group:**\r\n  - `spt daemon status` (or bare `spt daemon`) — a node status view: whether the daemon is running, its background-sync health, your subnets, and your local endpoints.\r\n  - `spt daemon stop` — cleanly stops the running daemon.\r\n  - `spt daemon run` — runs the daemon in the foreground (previously a hidden command).\r\n- **Pause and resume a subnet without stopping the daemon:**\r\n  - `spt subnet detach <name>` — stop advertising and connecting for that subnet (peers see you go offline for it) while everything else keeps running.\r\n  - `spt subnet attach <name>` — start serving it again.\r\n  - Add `--save` to either to make that choice the default the next time the daemon starts.\r\n  - `spt subnet status` now shows a per-subnet state for each subnet (serving / detached / no connection).\r\n- **Leave a subnet:** `spt subnet leave <name>` removes the subnet and its trust completely from this node.\r\n- **Clean up dead nodes:** `spt subnet prune <node>` removes a stale node's trust so this machine stops trying to reach it. You can name the node by its hostname label, a key prefix, or the full key; it refuses if the name is ambiguous or refers to yourself.\r\n- **Node names in `spt subnet status --nodes`.** Each node now shows its hostname label and can be addressed as `@<hostname>` in commands. Nodes that aren't running any endpoints still show their hostname instead of a bare key.\r\n- **Automatic re-pair cleanup.** If you reinstall or regenerate a node's identity and pair it again from the same machine under the same name, its old, now-dead identity is removed automatically during pairing — no manual prune needed.\r\n- **Firewall setup on Windows.** The installer (when run elevated) now adds the inbound network rule `spt` needs so other nodes can reach you. If it wasn't added, `spt subnet status` and the \"coming online\" banner now tell you the rule is missing and print the exact command to add it.\r\n- **Starts on boot.** The installer now registers `spt` to start automatically — at login on Windows, and as a per-user service on Linux — so your node is reachable after a reboot without running a command first.\r\n\r\n### Changed\r\n\r\n- **BREAKING — commands have been reorganized; old spellings no longer work (no aliases).** If a command isn't found, check its new home below. The agent-messaging commands you use most are unchanged: `spt send`, `spt ring`, `spt ready`, `spt whoami`, and `spt how-to` all stay where they are, as does top-level `spt notif`.\r\n  - These endpoint commands moved **under `spt endpoint`**: `fork`, `suspend`, `wake`, `shutdown`, `rename`, `stop`, `digest`. For example, `spt fork …` is now `spt endpoint fork …`.\r\n  - The old `resources` view is gone; its listing is now `spt endpoint list --detail` and its per-endpoint blurb is now `spt endpoint description`.\r\n  - `spt notify …` moved to `spt subnet notify [message] [--target <subnet>]`. With no `--target`, it sends to your home subnet; if you have no home subnet and don't pass `--target`, it refuses rather than guessing.\r\n  - Stopping/checking the daemon moved under `spt daemon` (`spt daemon stop`, `spt daemon status`).\r\n- **`spt subnet status` tells the truth about a stopped daemon.** A node with no subnets now reads \"this node is standalone\" and no longer implies messaging works while the daemon is down. If the background sync has stalled, the status view says so instead of looking healthy.\r\n- **Cleaner node listing.** In `spt subnet status --nodes`, a normally-named node now shows just its hostname (e.g. `KITSUBITO`) instead of `KITSUBITO (43a51d9a…)`; the extra key prefix only appears when two nodes share the same hostname and need telling apart.\r\n- **`spt subnet` hints tidied.** The \"hint:\" lines now appear only on the bare `spt subnet` overview, not in `spt subnet status` (so the status view is clean to read).\r\n- **Pairing works on machines with a wrong clock.** Pairing now checks network time and tolerates a node whose system clock is off by more than a minute (which previously made pairing fail silently). If network time can't be reached, it falls back to the local clock as before; it never changes your system clock.\r\n- **Faster first sync after joining or restarting.** `spt` now remembers peers' last known addresses, so after a join — or after the daemon restarts — other nodes reappear in `spt subnet status --nodes` in seconds instead of taking up to a minute.\r\n- **Endpoints going online/offline show up almost immediately.** When an endpoint starts or stops, peers now see the change in `spt subnet status --nodes` within seconds instead of waiting for the next sync cycle.\r\n\r\n### Fixed\r\n\r\n- **`spt subnet status --nodes` no longer hangs on a dead peer.** Checking a node that has gone away used to stall the command for ~30 seconds; it's now bounded to a couple of seconds, and the command prints \"Checking remote nodes…\" so the brief wait is expected.\r\n- **Detached/unreachable peers now read as offline.** A peer you've detached from a subnet (or that has stopped serving it) is correctly shown offline in `spt subnet status --nodes`, instead of appearing online indefinitely just because its machine is up.\r\n- **Messages from other agents now arrive properly formatted.** Incoming messages on the listener stream now include the full envelope with the sender's name, instead of showing as a raw, unwrapped line.\r\n- **`sudo spt …` now works on Linux user installs.** When `spt` is installed to your user directory, elevation guidance that said to \"run as administrator/root\" used to dead-end with `sudo: spt: command not found`. The installer now also makes `spt` reachable under `sudo`, and on an interactive terminal `spt` re-runs itself with `sudo` automatically; otherwise it prints a command that actually works.\r\n- **Elevated `spt` on Linux runs under your account, not root.** The first time you run an elevated `spt`, it asks once which account should own the daemon and its data, remembers that choice, and every later `sudo spt` runs the daemon and stores state under that account — never as root.\r\n- **`spt daemon stop` on Windows now finds the daemon it started.** A daemon launched through Windows' elevation prompt could end up using the wrong home directory, so `spt daemon stop` reported \"daemon not running\" while a daemon kept running. It now keeps the right home directory across that elevation step.\r\n- **Removed a confusing internal status line.** `spt` no longer prints the internal \"DEELEVATED: running as uid …\" notice during normal use.\r\n- **Stale node rows clear out on their own.** Nodes that haven't been heard from in a while are now removed from the listing automatically, so old/dead entries stop cluttering `spt subnet status`.\r\n\r\n## [0.1.1] - 2026-06-07\r\n…\n","startLine":873,"lineNumbers":[873,874,875,876,877,878,879,880,881,882,883,884,885,886,887,888,889,890,891,892,893,894,895,896,897,898,899,900,901,902,903,904,905,906,907,908,909,910,911,912,913,914,915,916,917,918,919,920,921,922,923,924,925,926,927,928,929,930,931,932,933,934,935,936,937,938,939,940,941,942,943,944,945,946,947,948,null,952]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\CHANGELOG.md"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":956,"totalBytes":11124,"outputLines":75,"outputBytes":11124,"shownRange":{"start":874,"end":948},"nextOffset":949},"limits":{"columnTruncated":{"maxColumn":768}}}},"isError":false,"timestamp":1784069366933}}
{"type":"message","id":"52a091da","parentId":"283e20be","timestamp":"2026-07-14T22:49:26.972Z","message":{"role":"toolResult","toolCallId":"call_VyY8sPpwdyOz8KNZPClmODcp|fc_0b084cf0b521ab15016a56bcf66cc8819084e0abbcb84060f9","toolName":"read","content":[{"type":"text","text":"    fn dispatch_resize(&self, env: Envelope, send: &SharedSend) -> Result<(), String> {\n…\n        Ok(())\n    }\n\n    /// Report the broker-owned net endpoint's status (D4a). Answered even when\n    /// the broker has no network host (`enabled: false`) so a brain can probe\n    /// capability without treating absence as an error.\n    // [impl->REQ-DAEMON-2]\n    fn dispatch_net_status(&self, send: &SharedSend) {\n        let reply = match self.net.get() {\n            Some(host) => NetStatusReply {\n                enabled: true,\n                node_id_hex: Some(host.node_id_hex()),\n                addr: host.addr_json(),\n                conn_count: host.conn_count(),\n            },\n            None => NetStatusReply {\n                enabled: false,\n                node_id_hex: None,\n                addr: serde_json::Value::Null,\n                conn_count: 0,\n            },\n        };\n        let frame = Envelope::new(\n            KIND_NET_STATUS_REPLY,\n            serde_json::to_value(reply).expect(\"NetStatusReply serializes\"),\n        );\n        send_frame(send, &frame);\n    }\n\n    /// Report the broker's OWN compiled image version (F-025). `env!` bakes the\n    /// version at build time, so a broker that SURVIVED a `spt update apply`\n    /// (brain-only restart, ADR-0018 D3-3) honestly reports the PRE-apply version\n\n[Showing lines 3814-3845 of 6009. Use :3846 to continue]"}],"details":{"truncation":{"content":"        Ok(())\r\n    }\r\n\r\n    /// Report the broker-owned net endpoint's status (D4a). Answered even when\r\n    /// the broker has no network host (`enabled: false`) so a brain can probe\r\n    /// capability without treating absence as an error.\r\n    // [impl->REQ-DAEMON-2]\r\n    fn dispatch_net_status(&self, send: &SharedSend) {\r\n        let reply = match self.net.get() {\r\n            Some(host) => NetStatusReply {\r\n                enabled: true,\r\n                node_id_hex: Some(host.node_id_hex()),\r\n                addr: host.addr_json(),\r\n                conn_count: host.conn_count(),\r\n            },\r\n            None => NetStatusReply {\r\n                enabled: false,\r\n                node_id_hex: None,\r\n                addr: serde_json::Value::Null,\r\n                conn_count: 0,\r\n            },\r\n        };\r\n        let frame = Envelope::new(\r\n            KIND_NET_STATUS_REPLY,\r\n            serde_json::to_value(reply).expect(\"NetStatusReply serializes\"),\r\n        );\r\n        send_frame(send, &frame);\r\n    }\r\n\r\n    /// Report the broker's OWN compiled image version (F-025). `env!` bakes the\r\n    /// version at build time, so a broker that SURVIVED a `spt update apply`\r\n    /// (brain-only restart, ADR-0018 D3-3) honestly reports the PRE-apply version\r","truncated":true,"truncatedBy":"lines","totalLines":2196,"totalBytes":1275,"outputLines":32,"outputBytes":1275,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"    fn dispatch_resize(&self, env: Envelope, send: &SharedSend) -> Result<(), String> {\n…\n        Ok(())\r\n    }\r\n\r\n    /// Report the broker-owned net endpoint's status (D4a). Answered even when\r\n    /// the broker has no network host (`enabled: false`) so a brain can probe\r\n    /// capability without treating absence as an error.\r\n    // [impl->REQ-DAEMON-2]\r\n    fn dispatch_net_status(&self, send: &SharedSend) {\r\n        let reply = match self.net.get() {\r\n            Some(host) => NetStatusReply {\r\n                enabled: true,\r\n                node_id_hex: Some(host.node_id_hex()),\r\n                addr: host.addr_json(),\r\n                conn_count: host.conn_count(),\r\n            },\r\n            None => NetStatusReply {\r\n                enabled: false,\r\n                node_id_hex: None,\r\n                addr: serde_json::Value::Null,\r\n                conn_count: 0,\r\n            },\r\n        };\r\n        let frame = Envelope::new(\r\n            KIND_NET_STATUS_REPLY,\r\n            serde_json::to_value(reply).expect(\"NetStatusReply serializes\"),\r\n        );\r\n        send_frame(send, &frame);\r\n    }\r\n\r\n    /// Report the broker's OWN compiled image version (F-025). `env!` bakes the\r\n    /// version at build time, so a broker that SURVIVED a `spt update apply`\r\n    /// (brain-only restart, ADR-0018 D3-3) honestly reports the PRE-apply version\r","startLine":3794,"lineNumbers":[3794,null,3814,3815,3816,3817,3818,3819,3820,3821,3822,3823,3824,3825,3826,3827,3828,3829,3830,3831,3832,3833,3834,3835,3836,3837,3838,3839,3840,3841,3842,3843,3844,3845]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\broker.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":6009,"totalBytes":1275,"outputLines":32,"outputBytes":1275,"shownRange":{"start":3814,"end":3845},"nextOffset":3846}}},"isError":false,"timestamp":1784069366972}}
{"type":"message","id":"7421d10e","parentId":"52a091da","timestamp":"2026-07-14T22:49:27.083Z","message":{"role":"toolResult","toolCallId":"call_3gUxqEwCLaBbN5ZGLhSweWco|fc_0b084cf0b521ab15016a56bcf66cdc819098196e122a0c5034","toolName":"read","content":[{"type":"text","text":"fn ensure_daemon_announced() -> Result<(), i32> {\n…\n    if let Some(w) = inbound_block_hint() {\n…\n    }\n    Ok(())\n}\n\n/// `spt subnet status` --json: the membership rows (a copy of\n/// `SubnetStatusRow`), plus the per-node rows (a copy of `NodeRow` + the\n/// probe-settled liveness) when `--nodes` is set. Internal structs stay free to\n/// refactor — these are the committed shape.\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct SubnetStatusJson {\n    daemon_running: bool,\n    subnets: Vec<SubnetRowJson>,\n}\n\n/// One subnet's membership-shape row (mirrors `SubnetStatusRow`). `nodes`\n/// (per-node detail) is present only on the `--nodes` view; otherwise empty.\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct SubnetRowJson {\n    name: String,\n    node_count: usize,\n    endpoint_count: usize,\n    nodes: Vec<NodeRowJson>,\n}\n\n/// One node's `--nodes` row (mirrors `NodeRow` + the settled liveness verdict).\n// [impl->REQ-CLI-JSON]\n#[derive(serde::Serialize)]\nstruct NodeRowJson {\n    node: String,\n    label: Option<String>,\n    active: usize,\n    total: usize,\n    online: bool,\n}\n\n/// `spt subnet [status [NAME] [--nodes]]` — the membership view (REQ-SUBNET-1,\n/// M7 plan decisions 5 + 6; M8 decisions 11–12, 23). Read-only and ungated:\n/// prints membership shape, never secrets. `hints` = the bare-`spt subnet`\n/// invocation (the footer rides only that view).\n// [impl->REQ-SUBNET-1]\n// [impl->REQ-SUBNET-8]\nfn cmd_subnet_status(name: Option<String>, nodes: bool, hints: bool, json: bool) -> i32 {\n    let store = SubnetStore::load();\n    if let Some(n) = &name {\n        if store.find(n).is_none() {\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\n            return 2;\n        }\n    }\n    let daemon_running = spt_daemon::is_running();\n    let stall = if daemon_running {\n        pump_stall_warning(now_ms())\n    } else {\n        None\n    };\n    // Blocked-inbound honesty (REQ-INSTALL-7): only worth checking when the\n    // daemon serves — a stopped daemon is the bigger headline already.\n    let inbound = if daemon_running {\n        inbound_block_hint()\n    } else {\n        None\n    };\n    let snap_dir = perch::identity_dir().join(\"registry\");\n    let regs = crate::wansend::load_snapshots(&snap_dir);\n    let roster = spt_store::roster::RosterStore::load();\n    let own_hex = spt_store::nodeid::load_or_create()\n        .map(|i| i.public_key().to_hex())\n        .unwrap_or_default();\n    if !nodes {\n        let rows = subnet_status_rows(\n            &store,\n            &regs,\n            &roster,\n            Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\n            name.as_deref(),\n        );\n        // [impl->REQ-CLI-JSON] The membership view without per-node detail.\n        if json {\n            let subnets = rows\n                .iter()\n                .map(|r| SubnetRowJson {\n                    name: r.name.clone(),\n                    node_count: r.nodes,\n                    endpoint_count: r.endpoints,\n                    nodes: Vec::new(),\n                })\n                .collect();\n            return print_json(&SubnetStatusJson {\n                daemon_running,\n                subnets,\n            });\n        }\n        let mut out = render_subnet_status(&rows, daemon_running, hints);\n        if let Some(w) = daemon_offline_hint(daemon_running) {\n            out.push_str(&w);\n        }\n        if let Some(w) = stall {\n            out.push_str(&w);\n        }\n…\n    }\n…\n}\n\n[Showing lines 7249-7348 of 17537. Use :7349 to continue]"}],"details":{"truncation":{"content":"    }\r\n    Ok(())\r\n}\r\n\r\n/// `spt subnet status` --json: the membership rows (a copy of\r\n/// `SubnetStatusRow`), plus the per-node rows (a copy of `NodeRow` + the\r\n/// probe-settled liveness) when `--nodes` is set. Internal structs stay free to\r\n/// refactor — these are the committed shape.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct SubnetStatusJson {\r\n    daemon_running: bool,\r\n    subnets: Vec<SubnetRowJson>,\r\n}\r\n\r\n/// One subnet's membership-shape row (mirrors `SubnetStatusRow`). `nodes`\r\n/// (per-node detail) is present only on the `--nodes` view; otherwise empty.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct SubnetRowJson {\r\n    name: String,\r\n    node_count: usize,\r\n    endpoint_count: usize,\r\n    nodes: Vec<NodeRowJson>,\r\n}\r\n\r\n/// One node's `--nodes` row (mirrors `NodeRow` + the settled liveness verdict).\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct NodeRowJson {\r\n    node: String,\r\n    label: Option<String>,\r\n    active: usize,\r\n    total: usize,\r\n    online: bool,\r\n}\r\n\r\n/// `spt subnet [status [NAME] [--nodes]]` — the membership view (REQ-SUBNET-1,\r\n/// M7 plan decisions 5 + 6; M8 decisions 11–12, 23). Read-only and ungated:\r\n/// prints membership shape, never secrets. `hints` = the bare-`spt subnet`\r\n/// invocation (the footer rides only that view).\r\n// [impl->REQ-SUBNET-1]\r\n// [impl->REQ-SUBNET-8]\r\nfn cmd_subnet_status(name: Option<String>, nodes: bool, hints: bool, json: bool) -> i32 {\r\n    let store = SubnetStore::load();\r\n    if let Some(n) = &name {\r\n        if store.find(n).is_none() {\r\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\r\n            return 2;\r\n        }\r\n    }\r\n    let daemon_running = spt_daemon::is_running();\r\n    let stall = if daemon_running {\r\n        pump_stall_warning(now_ms())\r\n    } else {\r\n        None\r\n    };\r\n    // Blocked-inbound honesty (REQ-INSTALL-7): only worth checking when the\r\n    // daemon serves — a stopped daemon is the bigger headline already.\r\n    let inbound = if daemon_running {\r\n        inbound_block_hint()\r\n    } else {\r\n        None\r\n    };\r\n    let snap_dir = perch::identity_dir().join(\"registry\");\r\n    let regs = crate::wansend::load_snapshots(&snap_dir);\r\n    let roster = spt_store::roster::RosterStore::load();\r\n    let own_hex = spt_store::nodeid::load_or_create()\r\n        .map(|i| i.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    if !nodes {\r\n        let rows = subnet_status_rows(\r\n            &store,\r\n            &regs,\r\n            &roster,\r\n            Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\r\n            name.as_deref(),\r\n        );\r\n        // [impl->REQ-CLI-JSON] The membership view without per-node detail.\r\n        if json {\r\n            let subnets = rows\r\n                .iter()\r\n                .map(|r| SubnetRowJson {\r\n                    name: r.name.clone(),\r\n                    node_count: r.nodes,\r\n                    endpoint_count: r.endpoints,\r\n                    nodes: Vec::new(),\r\n                })\r\n                .collect();\r\n            return print_json(&SubnetStatusJson {\r\n                daemon_running,\r\n                subnets,\r\n            });\r\n        }\r\n        let mut out = render_subnet_status(&rows, daemon_running, hints);\r\n        if let Some(w) = daemon_offline_hint(daemon_running) {\r\n            out.push_str(&w);\r\n        }\r\n        if let Some(w) = stall {\r\n            out.push_str(&w);\r","truncated":true,"truncatedBy":"lines","totalLines":10289,"totalBytes":3440,"outputLines":100,"outputBytes":3440,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn ensure_daemon_announced() -> Result<(), i32> {\n…\n    if let Some(w) = inbound_block_hint() {\n…\n    }\r\n    Ok(())\r\n}\r\n\r\n/// `spt subnet status` --json: the membership rows (a copy of\r\n/// `SubnetStatusRow`), plus the per-node rows (a copy of `NodeRow` + the\r\n/// probe-settled liveness) when `--nodes` is set. Internal structs stay free to\r\n/// refactor — these are the committed shape.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct SubnetStatusJson {\r\n    daemon_running: bool,\r\n    subnets: Vec<SubnetRowJson>,\r\n}\r\n\r\n/// One subnet's membership-shape row (mirrors `SubnetStatusRow`). `nodes`\r\n/// (per-node detail) is present only on the `--nodes` view; otherwise empty.\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct SubnetRowJson {\r\n    name: String,\r\n    node_count: usize,\r\n    endpoint_count: usize,\r\n    nodes: Vec<NodeRowJson>,\r\n}\r\n\r\n/// One node's `--nodes` row (mirrors `NodeRow` + the settled liveness verdict).\r\n// [impl->REQ-CLI-JSON]\r\n#[derive(serde::Serialize)]\r\nstruct NodeRowJson {\r\n    node: String,\r\n    label: Option<String>,\r\n    active: usize,\r\n    total: usize,\r\n    online: bool,\r\n}\r\n\r\n/// `spt subnet [status [NAME] [--nodes]]` — the membership view (REQ-SUBNET-1,\r\n/// M7 plan decisions 5 + 6; M8 decisions 11–12, 23). Read-only and ungated:\r\n/// prints membership shape, never secrets. `hints` = the bare-`spt subnet`\r\n/// invocation (the footer rides only that view).\r\n// [impl->REQ-SUBNET-1]\r\n// [impl->REQ-SUBNET-8]\r\nfn cmd_subnet_status(name: Option<String>, nodes: bool, hints: bool, json: bool) -> i32 {\r\n    let store = SubnetStore::load();\r\n    if let Some(n) = &name {\r\n        if store.find(n).is_none() {\r\n            eprintln!(\"NO_SUCH_SUBNET:{n}\");\r\n            return 2;\r\n        }\r\n    }\r\n    let daemon_running = spt_daemon::is_running();\r\n    let stall = if daemon_running {\r\n        pump_stall_warning(now_ms())\r\n    } else {\r\n        None\r\n    };\r\n    // Blocked-inbound honesty (REQ-INSTALL-7): only worth checking when the\r\n    // daemon serves — a stopped daemon is the bigger headline already.\r\n    let inbound = if daemon_running {\r\n        inbound_block_hint()\r\n    } else {\r\n        None\r\n    };\r\n    let snap_dir = perch::identity_dir().join(\"registry\");\r\n    let regs = crate::wansend::load_snapshots(&snap_dir);\r\n    let roster = spt_store::roster::RosterStore::load();\r\n    let own_hex = spt_store::nodeid::load_or_create()\r\n        .map(|i| i.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    if !nodes {\r\n        let rows = subnet_status_rows(\r\n            &store,\r\n            &regs,\r\n            &roster,\r\n            Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\r\n            name.as_deref(),\r\n        );\r\n        // [impl->REQ-CLI-JSON] The membership view without per-node detail.\r\n        if json {\r\n            let subnets = rows\r\n                .iter()\r\n                .map(|r| SubnetRowJson {\r\n                    name: r.name.clone(),\r\n                    node_count: r.nodes,\r\n                    endpoint_count: r.endpoints,\r\n                    nodes: Vec::new(),\r\n                })\r\n                .collect();\r\n            return print_json(&SubnetStatusJson {\r\n                daemon_running,\r\n                subnets,\r\n            });\r\n        }\r\n        let mut out = render_subnet_status(&rows, daemon_running, hints);\r\n        if let Some(w) = daemon_offline_hint(daemon_running) {\r\n            out.push_str(&w);\r\n        }\r\n        if let Some(w) = stall {\r\n            out.push_str(&w);\r\n        }\n…\n    }\n…\n}","startLine":7208,"lineNumbers":[7208,null,7247,null,7249,7250,7251,7252,7253,7254,7255,7256,7257,7258,7259,7260,7261,7262,7263,7264,7265,7266,7267,7268,7269,7270,7271,7272,7273,7274,7275,7276,7277,7278,7279,7280,7281,7282,7283,7284,7285,7286,7287,7288,7289,7290,7291,7292,7293,7294,7295,7296,7297,7298,7299,7300,7301,7302,7303,7304,7305,7306,7307,7308,7309,7310,7311,7312,7313,7314,7315,7316,7317,7318,7319,7320,7321,7322,7323,7324,7325,7326,7327,7328,7329,7330,7331,7332,7333,7334,7335,7336,7337,7338,7339,7340,7341,7342,7343,7344,7345,7346,7347,7348,7349,null,7361,null,7487]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt\\src\\cli.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":17537,"totalBytes":3440,"outputLines":100,"outputBytes":3440,"shownRange":{"start":7249,"end":7348},"nextOffset":7349}}},"isError":false,"timestamp":1784069367083}}
{"type":"message","id":"6721ea83","parentId":"7421d10e","timestamp":"2026-07-14T22:49:27.280Z","message":{"role":"toolResult","toolCallId":"call_9PblKQY4XnPpxf8EKS1AsHXo|fc_0b084cf0b521ab15016a56bcf66cbc8190bd3178f0e9f1277f","toolName":"read","content":[{"type":"text","text":"    // human render below derives, then emit the DTO and return.\n    if json {\n        let pid = running\n            .then(|| {\n                std::fs::read_to_string(spt_daemon::daemon_pid_path())\n                    .ok()\n                    .map(|s| s.trim().to_string())\n                    .filter(|p| !p.is_empty())\n            })\n            .flatten();\n        // One broker handle answers net-status, the F-025 image query, and the W2\n        // stall-evict tally.\n        let (net_up, broker_image, broker_queried, stall_stats) = if running {\n            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\n                Ok(mut b) => {\n                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\n                    let stall = b.stall_evicts().ok().flatten();\n                    // Ok(Some)=version / Ok(None)=old broker (both a successful\n                    // query) vs Err=couldn't query — keep them distinct so a\n                    // transient IPC failure does not read as a definite stale.\n                    match b.broker_image_version() {\n                        Ok(v) => (Some(n), v, true, stall),\n                        Err(_) => (Some(n), None, false, stall),\n                    }\n                }\n                Err(_) => (Some(true), None, false, None),\n            }\n        } else {\n            (None, None, false, None)\n        };\n        let (stall_evict_count, stall_evict_last_ms) = match stall_stats {\n            Some((c, l)) => (Some(c), Some(l)),\n            None => (None, None),\n        };\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] stale is only DEFINITE after a\n        // successful query: None when the daemon is down OR the broker could not be\n        // queried (no false-positive true on a transient failure — doyle F-025 nit).\n        let broker_stale = (running && broker_queried)\n            .then(|| broker_image.as_deref() != Some(env!(\"CARGO_PKG_VERSION\")));\n        let pump_heartbeat_ms = if running {\n            spt_daemon::read_pump_heartbeat()\n        } else {\n            None\n        };\n        let svc = spt_daemon::service::platform_service();\n        let (managed_by, managed_active) = if svc.detected() {\n            (Some(svc.label().to_string()), Some(svc.is_active()))\n        } else {\n            (None, None)\n        };\n        let store = SubnetStore::load();\n        let mut subnets = Vec::new();\n        if !store.subnets.is_empty() {\n            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n            let roster = spt_store::roster::RosterStore::load();\n            let own_hex = spt_store::nodeid::load_or_create()\n                .map(|i| i.public_key().to_hex())\n                .unwrap_or_default();\n            for row in subnet_status_rows(\n                &store,\n                &regs,\n                &roster,\n                Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\n                None,\n            ) {\n                subnets.push(DaemonSubnetJson {\n                    name: row.name,\n                    nodes: row.nodes,\n                    endpoints: row.endpoints,\n                });\n            }\n        }\n        let local_endpoints = roster::enumerate()\n            .into_iter()\n            .map(|p| LocalPerchJson {\n…\n            })\n            .collect();\n…\n    }\n\n[Showing lines 4109-4181 of 17537. Use :4182 to continue]"}],"details":{"truncation":{"content":"    // human render below derives, then emit the DTO and return.\r\n    if json {\r\n        let pid = running\r\n            .then(|| {\r\n                std::fs::read_to_string(spt_daemon::daemon_pid_path())\r\n                    .ok()\r\n                    .map(|s| s.trim().to_string())\r\n                    .filter(|p| !p.is_empty())\r\n            })\r\n            .flatten();\r\n        // One broker handle answers net-status, the F-025 image query, and the W2\r\n        // stall-evict tally.\r\n        let (net_up, broker_image, broker_queried, stall_stats) = if running {\r\n            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\r\n                Ok(mut b) => {\r\n                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\r\n                    let stall = b.stall_evicts().ok().flatten();\r\n                    // Ok(Some)=version / Ok(None)=old broker (both a successful\r\n                    // query) vs Err=couldn't query — keep them distinct so a\r\n                    // transient IPC failure does not read as a definite stale.\r\n                    match b.broker_image_version() {\r\n                        Ok(v) => (Some(n), v, true, stall),\r\n                        Err(_) => (Some(n), None, false, stall),\r\n                    }\r\n                }\r\n                Err(_) => (Some(true), None, false, None),\r\n            }\r\n        } else {\r\n            (None, None, false, None)\r\n        };\r\n        let (stall_evict_count, stall_evict_last_ms) = match stall_stats {\r\n            Some((c, l)) => (Some(c), Some(l)),\r\n            None => (None, None),\r\n        };\r\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] stale is only DEFINITE after a\r\n        // successful query: None when the daemon is down OR the broker could not be\r\n        // queried (no false-positive true on a transient failure — doyle F-025 nit).\r\n        let broker_stale = (running && broker_queried)\r\n            .then(|| broker_image.as_deref() != Some(env!(\"CARGO_PKG_VERSION\")));\r\n        let pump_heartbeat_ms = if running {\r\n            spt_daemon::read_pump_heartbeat()\r\n        } else {\r\n            None\r\n        };\r\n        let svc = spt_daemon::service::platform_service();\r\n        let (managed_by, managed_active) = if svc.detected() {\r\n            (Some(svc.label().to_string()), Some(svc.is_active()))\r\n        } else {\r\n            (None, None)\r\n        };\r\n        let store = SubnetStore::load();\r\n        let mut subnets = Vec::new();\r\n        if !store.subnets.is_empty() {\r\n            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n            let roster = spt_store::roster::RosterStore::load();\r\n            let own_hex = spt_store::nodeid::load_or_create()\r\n                .map(|i| i.public_key().to_hex())\r\n                .unwrap_or_default();\r\n            for row in subnet_status_rows(\r\n                &store,\r\n                &regs,\r\n                &roster,\r\n                Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\r\n                None,\r\n            ) {\r\n                subnets.push(DaemonSubnetJson {\r\n                    name: row.name,\r\n                    nodes: row.nodes,\r\n                    endpoints: row.endpoints,\r\n                });\r\n            }\r\n        }\r\n        let local_endpoints = roster::enumerate()\r","truncated":true,"truncatedBy":"lines","totalLines":13429,"totalBytes":3367,"outputLines":73,"outputBytes":3367,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"    // human render below derives, then emit the DTO and return.\r\n    if json {\r\n        let pid = running\r\n            .then(|| {\r\n                std::fs::read_to_string(spt_daemon::daemon_pid_path())\r\n                    .ok()\r\n                    .map(|s| s.trim().to_string())\r\n                    .filter(|p| !p.is_empty())\r\n            })\r\n            .flatten();\r\n        // One broker handle answers net-status, the F-025 image query, and the W2\r\n        // stall-evict tally.\r\n        let (net_up, broker_image, broker_queried, stall_stats) = if running {\r\n            match spt_daemon::brain::Brain::cold_start(&spt_daemon::broker_socket_name(), now_ms()) {\r\n                Ok(mut b) => {\r\n                    let n = b.net_status().ok().map(|s| s.enabled).unwrap_or(true);\r\n                    let stall = b.stall_evicts().ok().flatten();\r\n                    // Ok(Some)=version / Ok(None)=old broker (both a successful\r\n                    // query) vs Err=couldn't query — keep them distinct so a\r\n                    // transient IPC failure does not read as a definite stale.\r\n                    match b.broker_image_version() {\r\n                        Ok(v) => (Some(n), v, true, stall),\r\n                        Err(_) => (Some(n), None, false, stall),\r\n                    }\r\n                }\r\n                Err(_) => (Some(true), None, false, None),\r\n            }\r\n        } else {\r\n            (None, None, false, None)\r\n        };\r\n        let (stall_evict_count, stall_evict_last_ms) = match stall_stats {\r\n            Some((c, l)) => (Some(c), Some(l)),\r\n            None => (None, None),\r\n        };\r\n        // [impl->REQ-UPDATE-RUNNING-IMAGE-SURFACE] stale is only DEFINITE after a\r\n        // successful query: None when the daemon is down OR the broker could not be\r\n        // queried (no false-positive true on a transient failure — doyle F-025 nit).\r\n        let broker_stale = (running && broker_queried)\r\n            .then(|| broker_image.as_deref() != Some(env!(\"CARGO_PKG_VERSION\")));\r\n        let pump_heartbeat_ms = if running {\r\n            spt_daemon::read_pump_heartbeat()\r\n        } else {\r\n            None\r\n        };\r\n        let svc = spt_daemon::service::platform_service();\r\n        let (managed_by, managed_active) = if svc.detected() {\r\n            (Some(svc.label().to_string()), Some(svc.is_active()))\r\n        } else {\r\n            (None, None)\r\n        };\r\n        let store = SubnetStore::load();\r\n        let mut subnets = Vec::new();\r\n        if !store.subnets.is_empty() {\r\n            let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n            let roster = spt_store::roster::RosterStore::load();\r\n            let own_hex = spt_store::nodeid::load_or_create()\r\n                .map(|i| i.public_key().to_hex())\r\n                .unwrap_or_default();\r\n            for row in subnet_status_rows(\r\n                &store,\r\n                &regs,\r\n                &roster,\r\n                Some(&own_hex).filter(|h| !h.is_empty()).map(|h| h.as_str()),\r\n                None,\r\n            ) {\r\n                subnets.push(DaemonSubnetJson {\r\n                    name: row.name,\r\n                    nodes: row.nodes,\r\n                    endpoints: row.endpoints,\r\n                });\r\n            }\r\n        }\r\n        let local_endpoints = roster::enumerate()\r\n            .into_iter()\n            .map(|p| LocalPerchJson {\n…\n            })\n            .collect();\n…\n    }","startLine":4109,"lineNumbers":[4109,4110,4111,4112,4113,4114,4115,4116,4117,4118,4119,4120,4121,4122,4123,4124,4125,4126,4127,4128,4129,4130,4131,4132,4133,4134,4135,4136,4137,4138,4139,4140,4141,4142,4143,4144,4145,4146,4147,4148,4149,4150,4151,4152,4153,4154,4155,4156,4157,4158,4159,4160,4161,4162,4163,4164,4165,4166,4167,4168,4169,4170,4171,4172,4173,4174,4175,4176,4177,4178,4179,4180,4181,4182,4183,null,4193,4194,null,4209]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt\\src\\cli.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":17537,"totalBytes":3367,"outputLines":73,"outputBytes":3367,"shownRange":{"start":4109,"end":4181},"nextOffset":4182}}},"isError":false,"timestamp":1784069367280}}
{"type":"message","id":"6d44d1cd","parentId":"6721ea83","timestamp":"2026-07-14T22:49:27.280Z","message":{"role":"toolResult","toolCallId":"call_4hyvqvYgtIoc25ewyU7qsZYn|fc_0b084cf0b521ab15016a56bcf66cd08190b0bf53b2db24d1a6","toolName":"read","content":[{"type":"text","text":"fn cmd_endpoint_list(\n…\n) -> i32 {\n…\n    if let Some(self_id) = roster::detect_self_id() {\n…\n        println!(\n…\n            render_self_pin(\n…\n                phe.as_ref(),\n                tf.as_deref(),\n            )\n        );\n    }\n\n    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\n    let vis = VisibilityStore::load();\n    let names: Vec<String> = match subnet {\n        Some(one) => vec![one],\n        None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\n    };\n\n    // This node's own instance rows come from the LOCAL ROSTER (status truth),\n    // NOT gossip (REQ-ENDPOINT-LIST-NODE-GROUPED / REQ-ENDPOINT-LIST-MERGE-LOCAL):\n    // a just-bound perch lags the WAN snapshot by a pump cadence, so the roster is\n    // the authoritative view of what THIS node hosts. Each row derives the SAME\n    // EpDisplay vocabulary a picker row would (advertised-status), its type read\n    // from info.json. [impl->REQ-ENDPOINT-LIST-MERGE-LOCAL]\n    let this_cells: Vec<InstanceCell> = roster::enumerate()\n        .into_iter()\n        .filter(|p| keep_local(&p.state))\n        .map(|p| {\n            let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\n            let rec = spt_store::info::read_info(&perch_path);\n            // #8: the LATEST project (sessions.log history head, owlery-excluded) —\n            // derived here where the perch path + info.cwd are in hand, then passed in\n            // (this_node_cell stays pure over its inputs).\n            // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\n            let project_ref = crate::picker::data::latest_project_ref(\n                &p.id,\n                &perch_path,\n                rec.as_ref().and_then(|r| r.cwd.as_deref()),\n            );\n            this_node_cell(&p, rec.as_ref(), project_ref)\n        })\n        .collect();\n\n    // Remote instances come from the WAN registry projection, one (id, node) row\n    // per subnet; group_remote_nodes collapses the subnet duplication (freshest\n    // epoch wins a cross-subnet status disagreement) and unions the subnet names\n    // per node. This node's OWN gossip rows are discarded — the roster above is\n    // its status truth. [impl->REQ-ENDPOINT-LIST-NODE-GROUPED]\n    let self_node_hex = spt_store::nodeid::load_or_create()\n        .ok()\n        .map(|i| i.public_key().to_hex())\n        .unwrap_or_default();\n    let mut tagged: Vec<(String, spt_net::net::registry::ResourceRow)> = Vec::new();\n    for name in &names {\n        let Some(reg) = regs.get(name) else {\n            continue;\n        };\n        let hide_new = subnets\n            .find(name)\n            .map(|s| s.hide_new_endpoints)\n            .unwrap_or(false);\n        for row in resource_projection(reg, |id| vis.hidden(id, name, hide_new)) {\n            if keep_remote(&row.endpoint_type) {\n                tagged.push((name.clone(), row));\n            }\n        }\n    }\n    let remote = group_remote_nodes(&self_node_hex, tagged);\n\n    // The stderr `ENDPOINTS:<n>` line and the grand total are REMOVED\n    // (REQ-ENDPOINT-LIST-NODE-GROUPED): each node group carries its own `Total:`.\n    print!(\n        \"{}\",\n        render_node_grouped(\n            &self_node_ident,\n            &names,\n            &this_cells,\n            &remote,\n            detail,\n            show_all,\n            crate::helpfmt::stdout_color(),\n        )\n    );\n    0\n}\n\n[Showing lines 3009-3088 of 17537. Use :3089 to continue]"}],"details":{"truncation":{"content":"                phe.as_ref(),\r\n                tf.as_deref(),\r\n            )\r\n        );\r\n    }\r\n\r\n    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n    let vis = VisibilityStore::load();\r\n    let names: Vec<String> = match subnet {\r\n        Some(one) => vec![one],\r\n        None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\r\n    };\r\n\r\n    // This node's own instance rows come from the LOCAL ROSTER (status truth),\r\n    // NOT gossip (REQ-ENDPOINT-LIST-NODE-GROUPED / REQ-ENDPOINT-LIST-MERGE-LOCAL):\r\n    // a just-bound perch lags the WAN snapshot by a pump cadence, so the roster is\r\n    // the authoritative view of what THIS node hosts. Each row derives the SAME\r\n    // EpDisplay vocabulary a picker row would (advertised-status), its type read\r\n    // from info.json. [impl->REQ-ENDPOINT-LIST-MERGE-LOCAL]\r\n    let this_cells: Vec<InstanceCell> = roster::enumerate()\r\n        .into_iter()\r\n        .filter(|p| keep_local(&p.state))\r\n        .map(|p| {\r\n            let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\r\n            let rec = spt_store::info::read_info(&perch_path);\r\n            // #8: the LATEST project (sessions.log history head, owlery-excluded) —\r\n            // derived here where the perch path + info.cwd are in hand, then passed in\r\n            // (this_node_cell stays pure over its inputs).\r\n            // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n            let project_ref = crate::picker::data::latest_project_ref(\r\n                &p.id,\r\n                &perch_path,\r\n                rec.as_ref().and_then(|r| r.cwd.as_deref()),\r\n            );\r\n            this_node_cell(&p, rec.as_ref(), project_ref)\r\n        })\r\n        .collect();\r\n\r\n    // Remote instances come from the WAN registry projection, one (id, node) row\r\n    // per subnet; group_remote_nodes collapses the subnet duplication (freshest\r\n    // epoch wins a cross-subnet status disagreement) and unions the subnet names\r\n    // per node. This node's OWN gossip rows are discarded — the roster above is\r\n    // its status truth. [impl->REQ-ENDPOINT-LIST-NODE-GROUPED]\r\n    let self_node_hex = spt_store::nodeid::load_or_create()\r\n        .ok()\r\n        .map(|i| i.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    let mut tagged: Vec<(String, spt_net::net::registry::ResourceRow)> = Vec::new();\r\n    for name in &names {\r\n        let Some(reg) = regs.get(name) else {\r\n            continue;\r\n        };\r\n        let hide_new = subnets\r\n            .find(name)\r\n            .map(|s| s.hide_new_endpoints)\r\n            .unwrap_or(false);\r\n        for row in resource_projection(reg, |id| vis.hidden(id, name, hide_new)) {\r\n            if keep_remote(&row.endpoint_type) {\r\n                tagged.push((name.clone(), row));\r\n            }\r\n        }\r\n    }\r\n    let remote = group_remote_nodes(&self_node_hex, tagged);\r\n\r\n    // The stderr `ENDPOINTS:<n>` line and the grand total are REMOVED\r\n    // (REQ-ENDPOINT-LIST-NODE-GROUPED): each node group carries its own `Total:`.\r\n    print!(\r\n        \"{}\",\r\n        render_node_grouped(\r\n            &self_node_ident,\r\n            &names,\r\n            &this_cells,\r\n            &remote,\r\n            detail,\r\n            show_all,\r\n            crate::helpfmt::stdout_color(),\r\n        )\r\n    );\r\n    0\r\n}\r","truncated":true,"truncatedBy":"lines","totalLines":14529,"totalBytes":3339,"outputLines":80,"outputBytes":3339,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn cmd_endpoint_list(\n…\n) -> i32 {\n…\n    if let Some(self_id) = roster::detect_self_id() {\n…\n        println!(\n…\n            render_self_pin(\n…\n                phe.as_ref(),\r\n                tf.as_deref(),\r\n            )\r\n        );\r\n    }\r\n\r\n    let regs = crate::wansend::load_snapshots(&perch::identity_dir().join(\"registry\"));\r\n    let vis = VisibilityStore::load();\r\n    let names: Vec<String> = match subnet {\r\n        Some(one) => vec![one],\r\n        None => subnets.subnets.iter().map(|s| s.name.clone()).collect(),\r\n    };\r\n\r\n    // This node's own instance rows come from the LOCAL ROSTER (status truth),\r\n    // NOT gossip (REQ-ENDPOINT-LIST-NODE-GROUPED / REQ-ENDPOINT-LIST-MERGE-LOCAL):\r\n    // a just-bound perch lags the WAN snapshot by a pump cadence, so the roster is\r\n    // the authoritative view of what THIS node hosts. Each row derives the SAME\r\n    // EpDisplay vocabulary a picker row would (advertised-status), its type read\r\n    // from info.json. [impl->REQ-ENDPOINT-LIST-MERGE-LOCAL]\r\n    let this_cells: Vec<InstanceCell> = roster::enumerate()\r\n        .into_iter()\r\n        .filter(|p| keep_local(&p.state))\r\n        .map(|p| {\r\n            let perch_path = perch::resolve_perch_path(&p.id, ParentHint::Infer);\r\n            let rec = spt_store::info::read_info(&perch_path);\r\n            // #8: the LATEST project (sessions.log history head, owlery-excluded) —\r\n            // derived here where the perch path + info.cwd are in hand, then passed in\r\n            // (this_node_cell stays pure over its inputs).\r\n            // [impl->REQ-ENDPOINT-LIST-PROJECT-COL]\r\n            let project_ref = crate::picker::data::latest_project_ref(\r\n                &p.id,\r\n                &perch_path,\r\n                rec.as_ref().and_then(|r| r.cwd.as_deref()),\r\n            );\r\n            this_node_cell(&p, rec.as_ref(), project_ref)\r\n        })\r\n        .collect();\r\n\r\n    // Remote instances come from the WAN registry projection, one (id, node) row\r\n    // per subnet; group_remote_nodes collapses the subnet duplication (freshest\r\n    // epoch wins a cross-subnet status disagreement) and unions the subnet names\r\n    // per node. This node's OWN gossip rows are discarded — the roster above is\r\n    // its status truth. [impl->REQ-ENDPOINT-LIST-NODE-GROUPED]\r\n    let self_node_hex = spt_store::nodeid::load_or_create()\r\n        .ok()\r\n        .map(|i| i.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    let mut tagged: Vec<(String, spt_net::net::registry::ResourceRow)> = Vec::new();\r\n    for name in &names {\r\n        let Some(reg) = regs.get(name) else {\r\n            continue;\r\n        };\r\n        let hide_new = subnets\r\n            .find(name)\r\n            .map(|s| s.hide_new_endpoints)\r\n            .unwrap_or(false);\r\n        for row in resource_projection(reg, |id| vis.hidden(id, name, hide_new)) {\r\n            if keep_remote(&row.endpoint_type) {\r\n                tagged.push((name.clone(), row));\r\n            }\r\n        }\r\n    }\r\n    let remote = group_remote_nodes(&self_node_hex, tagged);\r\n\r\n    // The stderr `ENDPOINTS:<n>` line and the grand total are REMOVED\r\n    // (REQ-ENDPOINT-LIST-NODE-GROUPED): each node group carries its own `Total:`.\r\n    print!(\r\n        \"{}\",\r\n        render_node_grouped(\r\n            &self_node_ident,\r\n            &names,\r\n            &this_cells,\r\n            &remote,\r\n            detail,\r\n            show_all,\r\n            crate::helpfmt::stdout_color(),\r\n        )\r\n    );\r\n    0\r\n}\r","startLine":2810,"lineNumbers":[2810,null,2816,null,2978,null,3002,null,3004,null,3009,3010,3011,3012,3013,3014,3015,3016,3017,3018,3019,3020,3021,3022,3023,3024,3025,3026,3027,3028,3029,3030,3031,3032,3033,3034,3035,3036,3037,3038,3039,3040,3041,3042,3043,3044,3045,3046,3047,3048,3049,3050,3051,3052,3053,3054,3055,3056,3057,3058,3059,3060,3061,3062,3063,3064,3065,3066,3067,3068,3069,3070,3071,3072,3073,3074,3075,3076,3077,3078,3079,3080,3081,3082,3083,3084,3085,3086,3087,3088]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt\\src\\cli.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":17537,"totalBytes":3339,"outputLines":80,"outputBytes":3339,"shownRange":{"start":3009,"end":3088},"nextOffset":3089}}},"isError":false,"timestamp":1784069367280}}
{"type":"message","id":"a7832271","parentId":"6d44d1cd","timestamp":"2026-07-14T22:49:27.315Z","message":{"role":"user","content":"Your current interruptible wait was interrupted because an IRC message arrived from your parent agent `Main`.\n\nParent IRC message:\n\nEN mirror confirmed: peer-addrs outer 5ff50e75... has nested id HF stable 14ef..., relay-only. HF outer same 5ff50e75... has nested id EN stable ecb39..., relay-only. Seeds/epochs match exactly for SPT_DEV and BIGNET; detached empty. This symmetric pair-derived outer key looks decisive. Please pin why 5ff is used as outer key, whether pump lookup scans nested id (your note says no), regression introduction, and why this sequesters each from all peers rather than only each other.","attribution":"agent","timestamp":1784069358148,"steering":true}}
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{"type":"message","id":"c0435a4c","parentId":"041237f3","timestamp":"2026-07-14T22:49:42.419Z","message":{"role":"toolResult","toolCallId":"call_ivrGWo2egKNnaPLUWBgov2jL|fc_0b084cf0b521ab15016a56bd0643748190a74f4a5f2270336e","toolName":"read","content":[{"type":"text","text":"///\n/// Concurrency: ONE ceremony at a time per daemon, enforced at the door —\n/// a second connection finds the limiter lock held and is closed immediately\n/// (the joiner sees the stream end and retries; same UX as the limiter's\n/// `Busy` abort, shed before any frame is read).\n// [impl->REQ-SUBNET-2]\npub async fn respond(\n    conn: Connection,\n    local_pub: PublicKey,\n    rate: Arc<tokio::sync::Mutex<PairingRateLimiter>>,\n) {\n    let Ok(mut rate) = rate.try_lock() else {\n        conn.close(1u32.into(), b\"pairing busy\");\n        return;\n    };\n    // Serve-state filter (M8 decision 6, REQ-SUBNET-5): a detached subnet\n    // is not served — the responder sees a store WITHOUT it, so a joiner\n    // gets the same answer as for a subnet this node does not hold. The\n    // membership record on disk is untouched.\n    // [impl->REQ-SUBNET-5]\n    let mut subnets = SubnetStore::load();\n    spt_store::attachment::AttachmentStore::load().filter_serving(&mut subnets);\n    // Roster (REQ-MESH-2): refresh this seed-holder's own entry for every\n    // served subnet so the joiner always learns at least us, then hand it the\n    // whole current roster in the Seed frame.\n    let mut roster = RosterStore::load();\n    refresh_self_roster(&mut roster, &subnets, &local_pub.to_hex());\n    match tokio::time::timeout(\n        CEREMONY_TIMEOUT,\n        run_responder(&conn, local_pub, &subnets, &roster, &mut rate, now_secs()),\n    )\n    .await\n    {\n        Ok(Ok(outcome)) => {\n            // Address seeding, responder side (M8 decisions 14/20,\n            // REQ-CONV-1): the ceremony held a live authenticated\n            // connection — persist the joiner's observed address so the\n            // pump's post-join first sync dials it directly instead of\n            // paying the id-only discovery cold start.\n            // [impl->REQ-CONV-1]\n            record_ceremony_peer_addr(&conn, &outcome.joiner_hex);\n            // Re-pair overwrite (M8 decision 13, REQ-SUBNET-7): a COMPLETED\n            // ceremony presenting the same label + machine id as an existing\n            // row means this MACHINE re-paired under a fresh key — the\n            // superseded identity's roster entry is tombstoned + its registry\n            // rows evicted, and a machine_id-anchored rekey awareness notice is\n            // raised (the demoted warn-on-change, REQ-MESH-5 — never a gate).\n            // Fires only here, post-confirm (a gossiped claim never evicts).\n            // [impl->REQ-SUBNET-7]\n            // [impl->REQ-MESH-5]\n            if let Some(intro) = &outcome.intro {\n                let _notices = crate::registryhost::repair_evict_superseded(\n                    &mut roster,\n                    &outcome.subnet,\n                    &outcome.joiner_hex,\n                    intro,\n                    &spt_store::perch::identity_dir().join(\"registry\"),\n                );\n            }\n            // Grow the seed-holder's roster by the new member (REQ-MESH-2): the\n            // joiner's identity (its self-intro) + the address observed on the\n            // live ceremony connection. A completed re-pair of a tombstoned key\n            // clears the tombstone (decision 10) — the deliberate elevated act.\n            // [impl->REQ-MESH-2]\n            roster.clear_tombstone(&outcome.subnet, &outcome.joiner_hex);\n            record_roster_peer(\n                &mut roster,\n                &outcome.subnet,\n                &outcome.joiner_hex,\n                outcome.intro.as_ref(),\n                &conn,\n            );\n            // Membership is the roster (Mesh-D6): the joiner is recorded above;\n            // persisting it is the pairing's durable effect (no trust write).\n            match roster.save() {\n                Ok(()) => eprintln!(\n                    \"PAIRED: joiner {} recorded in subnet '{}'\",\n                    outcome.joiner_hex, outcome.subnet\n                ),\n                Err(e) => eprintln!(\"PAIRING_ROSTER_SAVE_FAIL: {e}\"),\n            }\n        }\n        // A failed ceremony is normal traffic (wrong code, impostor probe,\n        // vanished peer) — logged, never fatal; the limiter charged it.\n        Ok(Err(e)) => eprintln!(\"PAIRING_ATTEMPT_FAIL: {e}\"),\n        Err(_) => eprintln!(\"PAIRING_TIMEOUT: ceremony exceeded {CEREMONY_TIMEOUT_SECS}s\"),\n    }\n    // Release the ceremony slot before the close-grace wait — the next\n    // joiner must not be shed at the door for the lame-duck duration of\n    // this connection's teardown.\n    drop(rate);\n…\n}\n…\nimpl std::fmt::Display for JoinFail {\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\n…\n    }\n}\n\n/// The joiner leg (M7 plan decision 10): find a seed-holder via the LAN+relay\n/// rendezvous (or dial `responder_addr` directly — the static-`ip:port` rig\n/// seam, mirroring [`meet_at`](spt_net::net::pairing::meet::meet_at)'s\n/// explicit-address form), run the unchanged initiator ceremony against its\n/// real endpoint, and persist the results (peer trust-pinned; the\n/// transferred seed makes this node a full member / future seed-holder).\n/// One attempt — the CLI owns the re-prompt loop.\n// [impl->REQ-SUBNET-2]\npub async fn join_ceremony(\n    endpoint: &NetEndpoint,\n    subnet_name: &str,\n    code: &str,\n    responder_addr: Option<spt_net::net::endpoint::EndpointAddr>,\n) -> Result<String, JoinFail> {\n    let mut subnets = SubnetStore::load();\n    // Roster (REQ-MESH-2): run_initiator merges the seed-holder's transferred\n    // roster into this store; we add our own self-entry + the seed-holder's\n    // address after a successful ceremony. Membership is roster-only (Mesh-D6).\n    let mut roster = RosterStore::load();\n    // The joiner's self-intro (M8 decision 13, REQ-SUBNET-7): label +\n    // hashed machine id — what lets the seed-holder recognize this MACHINE\n    // re-pairing under a fresh key and evict the superseded identity.\n    // Best-effort: a label-less or id-less box just sends none (no\n    // overwrite; manual prune covers it).\n    // [impl->REQ-SUBNET-7]\n    let intro = match (\n        spt_store::hostlabel::os_hostname(),\n        crate::machineid::machine_id_hash(),\n    ) {\n        (Some(label), Some(machine_id)) => {\n            Some(spt_net::net::pairing::wire::NodeIntro { label, machine_id })\n        }\n        _ => None,\n    };\n    let conn = connect_seed_holder(endpoint, subnet_name, responder_addr.clone()).await?;\n    let attempt = tokio::time::timeout(\n        CEREMONY_TIMEOUT,\n        run_initiator(\n            &conn,\n            endpoint.node_id(),\n            subnet_name,\n            code,\n            &mut subnets,\n            &mut roster,\n            now_secs(),\n            0,\n            intro.as_ref(),\n        ),\n    )\n    .await\n    .map_err(|_| JoinFail::Other(format!(\"ceremony exceeded {CEREMONY_TIMEOUT_SECS}s\")))?;\n    match attempt {\n        Ok(()) => {\n            // Address seeding, joiner side (M8 decisions 14/20, REQ-CONV-1):\n            // persist the seed-holder's observed address from the live\n            // ceremony connection — the post-join first sync dials it\n            // directly instead of re-finding the peer from scratch.\n            // [impl->REQ-CONV-1]\n            record_ceremony_peer_addr(&conn, &remote_hex(&conn));\n            // [impl->REQ-MESH-2]\n            stamp_roster_responder(&mut roster, subnet_name, &conn);\n        }\n        // The LATE-CODE retry (field report 2026-06-06): the joiner holds no\n        // seed, so a code read just before a rotation and entered just after\n        // binds to the wrong step and reads as \"wrong code\" — before\n        // bouncing that back at the user, retry the SAME code announced one\n        // step back (the responder's ±1 window exists for exactly this\n        // tolerance). The responder runs one ceremony per connection, so the\n        // retry redials a FRESH one, after the limiter's first-failure\n        // backoff (1s) has lapsed. Any retry failure surfaces the FIRST\n        // failure's class — the retry was a guess on the user's behalf, not\n        // a second user attempt.\n        Err(PairWireError::Pairing(first)) => {\n            let first_fail = classify_wire_error(PairWireError::Pairing(first));\n            drop(conn);\n            tokio::time::sleep(Duration::from_millis(1_200)).await;\n            let Ok(retry_conn) = connect_seed_holder(endpoint, subnet_name, responder_addr).await\n            else {\n                return Err(first_fail);\n            };\n            match tokio::time::timeout(\n                CEREMONY_TIMEOUT,\n                run_initiator(\n…\n                ),\n            )\n            .await\n…\n            }\n        }\n…\n    }\n…\n}\n…\nfn remote_hex(conn: &Connection) -> String {\n    PublicKey::from_bytes(conn.remote_id().as_bytes())\n        .expect(\"an iroh EndpointId is always a valid ed25519 public key\")\n        .to_hex()\n}\n\n/// Address-seeding ceremony writer (M8 decisions 14/20, REQ-CONV-1): persist\n/// the peer's OBSERVED address from the live ceremony connection into\n/// `peer-addrs.json`. Both ceremony legs call it on success — the connection\n/// that just carried an authenticated ceremony is the best possible seed for\n/// the pump's next dial. Best-effort and skip-on-pathless: seeding is an\n/// optimization; the id-only discovery path is always behind it.\n// [impl->REQ-CONV-1]\nfn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n    if addr.is_empty() {\n        return; // id-only adds nothing over discovery\n    }\n    let Ok(value) = serde_json::to_value(addr) else {\n        return;\n    };\n    let path = spt_store::peeraddrs::peer_addrs_file();\n    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n    }\n}\n\n/// Author this node's own roster self-entry for every subnet it holds\n/// (REQ-MESH-2), so a joiner receiving the roster always learns at least us.\n/// Identity only — the self address is captured from live member connections\n/// (Mesh-D4), not here. Lease = the node's current label epoch (a peek, never a"}],"details":{"displayContent":{"text":"///\n/// Concurrency: ONE ceremony at a time per daemon, enforced at the door —\n/// a second connection finds the limiter lock held and is closed immediately\n/// (the joiner sees the stream end and retries; same UX as the limiter's\n/// `Busy` abort, shed before any frame is read).\n// [impl->REQ-SUBNET-2]\npub async fn respond(\n    conn: Connection,\n    local_pub: PublicKey,\n    rate: Arc<tokio::sync::Mutex<PairingRateLimiter>>,\n) {\n    let Ok(mut rate) = rate.try_lock() else {\n        conn.close(1u32.into(), b\"pairing busy\");\n        return;\n    };\n    // Serve-state filter (M8 decision 6, REQ-SUBNET-5): a detached subnet\n    // is not served — the responder sees a store WITHOUT it, so a joiner\n    // gets the same answer as for a subnet this node does not hold. The\n    // membership record on disk is untouched.\n    // [impl->REQ-SUBNET-5]\n    let mut subnets = SubnetStore::load();\n    spt_store::attachment::AttachmentStore::load().filter_serving(&mut subnets);\n    // Roster (REQ-MESH-2): refresh this seed-holder's own entry for every\n    // served subnet so the joiner always learns at least us, then hand it the\n    // whole current roster in the Seed frame.\n    let mut roster = RosterStore::load();\n    refresh_self_roster(&mut roster, &subnets, &local_pub.to_hex());\n    match tokio::time::timeout(\n        CEREMONY_TIMEOUT,\n        run_responder(&conn, local_pub, &subnets, &roster, &mut rate, now_secs()),\n    )\n    .await\n    {\n        Ok(Ok(outcome)) => {\n            // Address seeding, responder side (M8 decisions 14/20,\n            // REQ-CONV-1): the ceremony held a live authenticated\n            // connection — persist the joiner's observed address so the\n            // pump's post-join first sync dials it directly instead of\n            // paying the id-only discovery cold start.\n            // [impl->REQ-CONV-1]\n            record_ceremony_peer_addr(&conn, &outcome.joiner_hex);\n            // Re-pair overwrite (M8 decision 13, REQ-SUBNET-7): a COMPLETED\n            // ceremony presenting the same label + machine id as an existing\n            // row means this MACHINE re-paired under a fresh key — the\n            // superseded identity's roster entry is tombstoned + its registry\n            // rows evicted, and a machine_id-anchored rekey awareness notice is\n            // raised (the demoted warn-on-change, REQ-MESH-5 — never a gate).\n            // Fires only here, post-confirm (a gossiped claim never evicts).\n            // [impl->REQ-SUBNET-7]\n            // [impl->REQ-MESH-5]\n            if let Some(intro) = &outcome.intro {\n                let _notices = crate::registryhost::repair_evict_superseded(\n                    &mut roster,\n                    &outcome.subnet,\n                    &outcome.joiner_hex,\n                    intro,\n                    &spt_store::perch::identity_dir().join(\"registry\"),\n                );\n            }\n            // Grow the seed-holder's roster by the new member (REQ-MESH-2): the\n            // joiner's identity (its self-intro) + the address observed on the\n            // live ceremony connection. A completed re-pair of a tombstoned key\n            // clears the tombstone (decision 10) — the deliberate elevated act.\n            // [impl->REQ-MESH-2]\n            roster.clear_tombstone(&outcome.subnet, &outcome.joiner_hex);\n            record_roster_peer(\n                &mut roster,\n                &outcome.subnet,\n                &outcome.joiner_hex,\n                outcome.intro.as_ref(),\n                &conn,\n            );\n            // Membership is the roster (Mesh-D6): the joiner is recorded above;\n            // persisting it is the pairing's durable effect (no trust write).\n            match roster.save() {\n                Ok(()) => eprintln!(\n                    \"PAIRED: joiner {} recorded in subnet '{}'\",\n                    outcome.joiner_hex, outcome.subnet\n                ),\n                Err(e) => eprintln!(\"PAIRING_ROSTER_SAVE_FAIL: {e}\"),\n            }\n        }\n        // A failed ceremony is normal traffic (wrong code, impostor probe,\n        // vanished peer) — logged, never fatal; the limiter charged it.\n        Ok(Err(e)) => eprintln!(\"PAIRING_ATTEMPT_FAIL: {e}\"),\n        Err(_) => eprintln!(\"PAIRING_TIMEOUT: ceremony exceeded {CEREMONY_TIMEOUT_SECS}s\"),\n    }\n    // Release the ceremony slot before the close-grace wait — the next\n    // joiner must not be shed at the door for the lame-duck duration of\n    // this connection's teardown.\n    drop(rate);\n…\n}\n…\nimpl std::fmt::Display for JoinFail {\n    fn fmt(&self, f: &mut std::fmt::Formatter<'_>) -> std::fmt::Result {\n…\n    }\n}\n\n/// The joiner leg (M7 plan decision 10): find a seed-holder via the LAN+relay\n/// rendezvous (or dial `responder_addr` directly — the static-`ip:port` rig\n/// seam, mirroring [`meet_at`](spt_net::net::pairing::meet::meet_at)'s\n/// explicit-address form), run the unchanged initiator ceremony against its\n/// real endpoint, and persist the results (peer trust-pinned; the\n/// transferred seed makes this node a full member / future seed-holder).\n/// One attempt — the CLI owns the re-prompt loop.\n// [impl->REQ-SUBNET-2]\npub async fn join_ceremony(\n    endpoint: &NetEndpoint,\n    subnet_name: &str,\n    code: &str,\n    responder_addr: Option<spt_net::net::endpoint::EndpointAddr>,\n) -> Result<String, JoinFail> {\n    let mut subnets = SubnetStore::load();\n    // Roster (REQ-MESH-2): run_initiator merges the seed-holder's transferred\n    // roster into this store; we add our own self-entry + the seed-holder's\n    // address after a successful ceremony. Membership is roster-only (Mesh-D6).\n    let mut roster = RosterStore::load();\n    // The joiner's self-intro (M8 decision 13, REQ-SUBNET-7): label +\n    // hashed machine id — what lets the seed-holder recognize this MACHINE\n    // re-pairing under a fresh key and evict the superseded identity.\n    // Best-effort: a label-less or id-less box just sends none (no\n    // overwrite; manual prune covers it).\n    // [impl->REQ-SUBNET-7]\n    let intro = match (\n        spt_store::hostlabel::os_hostname(),\n        crate::machineid::machine_id_hash(),\n    ) {\n        (Some(label), Some(machine_id)) => {\n            Some(spt_net::net::pairing::wire::NodeIntro { label, machine_id })\n        }\n        _ => None,\n    };\n    let conn = connect_seed_holder(endpoint, subnet_name, responder_addr.clone()).await?;\n    let attempt = tokio::time::timeout(\n        CEREMONY_TIMEOUT,\n        run_initiator(\n            &conn,\n            endpoint.node_id(),\n            subnet_name,\n            code,\n            &mut subnets,\n            &mut roster,\n            now_secs(),\n            0,\n            intro.as_ref(),\n        ),\n    )\n    .await\n    .map_err(|_| JoinFail::Other(format!(\"ceremony exceeded {CEREMONY_TIMEOUT_SECS}s\")))?;\n    match attempt {\n        Ok(()) => {\n            // Address seeding, joiner side (M8 decisions 14/20, REQ-CONV-1):\n            // persist the seed-holder's observed address from the live\n            // ceremony connection — the post-join first sync dials it\n            // directly instead of re-finding the peer from scratch.\n            // [impl->REQ-CONV-1]\n            record_ceremony_peer_addr(&conn, &remote_hex(&conn));\n            // [impl->REQ-MESH-2]\n            stamp_roster_responder(&mut roster, subnet_name, &conn);\n        }\n        // The LATE-CODE retry (field report 2026-06-06): the joiner holds no\n        // seed, so a code read just before a rotation and entered just after\n        // binds to the wrong step and reads as \"wrong code\" — before\n        // bouncing that back at the user, retry the SAME code announced one\n        // step back (the responder's ±1 window exists for exactly this\n        // tolerance). The responder runs one ceremony per connection, so the\n        // retry redials a FRESH one, after the limiter's first-failure\n        // backoff (1s) has lapsed. Any retry failure surfaces the FIRST\n        // failure's class — the retry was a guess on the user's behalf, not\n        // a second user attempt.\n        Err(PairWireError::Pairing(first)) => {\n            let first_fail = classify_wire_error(PairWireError::Pairing(first));\n            drop(conn);\n            tokio::time::sleep(Duration::from_millis(1_200)).await;\n            let Ok(retry_conn) = connect_seed_holder(endpoint, subnet_name, responder_addr).await\n            else {\n                return Err(first_fail);\n            };\n            match tokio::time::timeout(\n                CEREMONY_TIMEOUT,\n                run_initiator(\n…\n                ),\n            )\n            .await\n…\n            }\n        }\n…\n    }\n…\n}\n…\nfn remote_hex(conn: &Connection) -> String {\n    PublicKey::from_bytes(conn.remote_id().as_bytes())\n        .expect(\"an iroh EndpointId is always a valid ed25519 public key\")\n        .to_hex()\n}\n\n/// Address-seeding ceremony writer (M8 decisions 14/20, REQ-CONV-1): persist\n/// the peer's OBSERVED address from the live ceremony connection into\n/// `peer-addrs.json`. Both ceremony legs call it on success — the connection\n/// that just carried an authenticated ceremony is the best possible seed for\n/// the pump's next dial. Best-effort and skip-on-pathless: seeding is an\n/// optimization; the id-only discovery path is always behind it.\n// [impl->REQ-CONV-1]\nfn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n    if addr.is_empty() {\n        return; // id-only adds nothing over discovery\n    }\n    let Ok(value) = serde_json::to_value(addr) else {\n        return;\n    };\n    let path = spt_store::peeraddrs::peer_addrs_file();\n    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n    }\n}\n\n/// Author this node's own roster self-entry for every subnet it holds\n/// (REQ-MESH-2), so a joiner receiving the roster always learns at least us.\n/// Identity only — the self address is captured from live member connections\n/// (Mesh-D4), not here. 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{"type":"message","id":"87e752b3","parentId":"c0435a4c","timestamp":"2026-07-14T22:49:42.425Z","message":{"role":"toolResult","toolCallId":"call_VLECNGODDNEjmql07ApdYnkj|fc_0b084cf0b521ab15016a56bd0643688190b551aa85679a1065","toolName":"grep","content":[{"type":"text","text":" 94|            // [impl->REQ-CONV-1]\n*95|            record_ceremony_peer_addr(&conn, &outcome.joiner_hex);\n 96|            // Re-pair overwrite (M8 decision 13, REQ-SUBNET-7): a COMPLETED\n 97|            // ceremony presenting the same label + machine id as an existing\n 98|            // row means this MACHINE re-paired under a fresh key — the\n...\n 108|                    &outcome.subnet,\n*109|                    &outcome.joiner_hex,\n 110|                    intro,\n 111|                    &spt_store::perch::identity_dir().join(\"registry\"),\n 112|                );\n...\n 118|            // [impl->REQ-MESH-2]\n*119|            roster.clear_tombstone(&outcome.subnet, &outcome.joiner_hex);\n*120|            record_roster_peer(\n 121|                &mut roster,\n 122|                &outcome.subnet,\n*123|                &outcome.joiner_hex,\n 124|                outcome.intro.as_ref(),\n 125|                &conn,\n 126|            );\n...\n 131|                    \"PAIRED: joiner {} recorded in subnet '{}'\",\n*132|                    outcome.joiner_hex, outcome.subnet\n 133|                ),\n 134|                Err(e) => eprintln!(\"PAIRING_ROSTER_SAVE_FAIL: {e}\"),\n 135|            }\n...\n 345|            // [impl->REQ-CONV-1]\n*346|            record_ceremony_peer_addr(&conn, &remote_hex(&conn));\n 347|            // [impl->REQ-MESH-2]\n 348|            stamp_roster_responder(&mut roster, subnet_name, &conn);\n 349|        }\n...\n 387|                    // [impl->REQ-CONV-1]\n*388|                    record_ceremony_peer_addr(&retry_conn, &remote_hex(&retry_conn));\n 389|                    // [impl->REQ-MESH-2]\n 390|                    stamp_roster_responder(&mut roster, subnet_name, &retry_conn);\n 391|                }\n...\n 627|// [impl->REQ-CONV-1]\n*628|fn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\n*629|    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n 630|    if addr.is_empty() {\n 631|        return; // id-only adds nothing over discovery\n 632|    }\n...\n 636|    let path = spt_store::peeraddrs::peer_addrs_file();\n*637|    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n*638|        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n 639|    }\n 640|}\n 641|\n...\n 662|// [impl->REQ-MESH-2]\n*663|fn record_roster_peer(\n 664|    roster: &mut RosterStore,\n 665|    subnet: &str,\n*666|    peer_hex: &str,\n 667|    intro: Option<&spt_net::net::pairing::wire::NodeIntro>,\n 668|    conn: &Connection,\n 669|) {\n...\n 674|    roster.merge_entry(RosterEntry {\n*675|        pubkey_hex: peer_hex.to_string(),\n 676|        subnet: subnet.to_string(),\n 677|        label,\n 678|        machine_id,\n...\n 690|fn stamp_roster_responder(roster: &mut RosterStore, subnet: &str, conn: &Connection) {\n*691|    let peer_hex = remote_hex(conn);\n 692|    let Some(addr) = conn_addr_json(conn) else {\n 693|        return;\n 694|    };\n...\n 697|        .iter_mut()\n*698|        .find(|m| m.subnet == subnet && m.pubkey_hex == peer_hex)\n 699|    {\n 700|        existing.address = Some(addr);\n 701|    } else {\n 702|        roster.merge_entry(RosterEntry {\n*703|            pubkey_hex: peer_hex,\n 704|            subnet: subnet.to_string(),\n 705|            label: String::new(),\n 706|            machine_id: String::new(),\n...\n 713|\n*714|/// The connection's observed remote address as opaque JSON (the roster's\n 715|/// address field, same posture as `peer-addrs.json`). `None` if the address is\n 716|/// pathless or won't serialize.\n 717|fn conn_addr_json(conn: &Connection) -> Option<serde_json::Value> {\n*718|    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n 719|    if addr.is_empty() {\n 720|        return None;\n 721|    }"}],"details":{"scopePath":"spt-core/crates/spt-daemon/src/pairhost.rs","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\pairhost.rs","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":20,"fileCount":1,"files":["spt-core/crates/spt-daemon/src/pairhost.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/pairhost.rs","count":20}],"truncated":false,"displayContent":"  94│            // [impl->REQ-CONV-1]\n *95│            record_ceremony_peer_addr(&conn, &outcome.joiner_hex);\n  96│            // Re-pair overwrite (M8 decision 13, REQ-SUBNET-7): a COMPLETED\n  97│            // ceremony presenting the same label + machine id as an existing\n  98│            // row means this MACHINE re-paired under a fresh key — the\n    │...\n 108│                    &outcome.subnet,\n*109│                    &outcome.joiner_hex,\n 110│                    intro,\n 111│                    &spt_store::perch::identity_dir().join(\"registry\"),\n 112│                );\n    │...\n 118│            // [impl->REQ-MESH-2]\n*119│            roster.clear_tombstone(&outcome.subnet, &outcome.joiner_hex);\n*120│            record_roster_peer(\n 121│                &mut roster,\n 122│                &outcome.subnet,\n*123│                &outcome.joiner_hex,\n 124│                outcome.intro.as_ref(),\n 125│                &conn,\n 126│            );\n    │...\n 131│                    \"PAIRED: joiner {} recorded in subnet '{}'\",\n*132│                    outcome.joiner_hex, outcome.subnet\n 133│                ),\n 134│                Err(e) => eprintln!(\"PAIRING_ROSTER_SAVE_FAIL: {e}\"),\n 135│            }\n    │...\n 345│            // [impl->REQ-CONV-1]\n*346│            record_ceremony_peer_addr(&conn, &remote_hex(&conn));\n 347│            // [impl->REQ-MESH-2]\n 348│            stamp_roster_responder(&mut roster, subnet_name, &conn);\n 349│        }\n    │...\n 387│                    // [impl->REQ-CONV-1]\n*388│                    record_ceremony_peer_addr(&retry_conn, &remote_hex(&retry_conn));\n 389│                    // [impl->REQ-MESH-2]\n 390│                    stamp_roster_responder(&mut roster, subnet_name, &retry_conn);\n 391│                }\n    │...\n 627│// [impl->REQ-CONV-1]\n*628│fn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\n*629│    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n 630│    if addr.is_empty() {\n 631│        return; // id-only adds nothing over discovery\n 632│    }\n    │...\n 636│    let path = spt_store::peeraddrs::peer_addrs_file();\n*637│    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n*638│        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n 639│    }\n 640│}\n 641│\n    │...\n 662│// [impl->REQ-MESH-2]\n*663│fn record_roster_peer(\n 664│    roster: &mut RosterStore,\n 665│    subnet: &str,\n*666│    peer_hex: &str,\n 667│    intro: Option<&spt_net::net::pairing::wire::NodeIntro>,\n 668│    conn: &Connection,\n 669│) {\n    │...\n 674│    roster.merge_entry(RosterEntry {\n*675│        pubkey_hex: peer_hex.to_string(),\n 676│        subnet: subnet.to_string(),\n 677│        label,\n 678│        machine_id,\n    │...\n 690│fn stamp_roster_responder(roster: &mut RosterStore, subnet: &str, conn: &Connection) {\n*691│    let peer_hex = remote_hex(conn);\n 692│    let Some(addr) = conn_addr_json(conn) else {\n 693│        return;\n 694│    };\n    │...\n 697│        .iter_mut()\n*698│        .find(|m| m.subnet == subnet && m.pubkey_hex == peer_hex)\n 699│    {\n 700│        existing.address = Some(addr);\n 701│    } else {\n 702│        roster.merge_entry(RosterEntry {\n*703│            pubkey_hex: peer_hex,\n 704│            subnet: subnet.to_string(),\n 705│            label: String::new(),\n 706│            machine_id: String::new(),\n    │...\n 713│\n*714│/// The connection's observed remote address as opaque JSON (the roster's\n 715│/// address field, same posture as `peer-addrs.json`). `None` if the address is\n 716│/// pathless or won't serialize.\n 717│fn conn_addr_json(conn: &Connection) -> Option<serde_json::Value> {\n*718│    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n 719│    if addr.is_empty() {\n 720│        return None;\n 721│    }"},"isError":false,"timestamp":1784069382424}}
{"type":"message","id":"a213eea4","parentId":"87e752b3","timestamp":"2026-07-14T22:49:42.427Z","message":{"role":"toolResult","toolCallId":"call_QkMpvnKEG83vfw0J1sIKPzeG|fc_0b084cf0b521ab15016a56bd0643488190802f7b80cb5b1446","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt-daemon/src/\n### pairhost.rs\n 635|    };\n*636|    let path = spt_store::peeraddrs::peer_addrs_file();\n*637|    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n 638|        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n 639|    }\n 640|}\n### seedmap.rs\n 169|                let echo = seed.clone();\n*170|                reg.put(seed);\n 171|                // Echo the stored seed so the client knows the put landed.\n 172|                write_frame(&mut conn, &result_frame(Some(echo)))?;\n 173|            }\n### seedproofx.rs\n 869|// [impl->REQ-MESH-2]\n*870|pub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\n 871|    let mut changed = false;\n 872|    for e in entries {\n 873|        if e.pubkey_hex == self_hex {\n...\n 877|            if pa.get(&e.pubkey_hex).is_none() {\n*878|                changed |= pa.put(&e.pubkey_hex, addr.clone());\n 879|            }\n 880|        }\n 881|    }\n...\n 932|            let _ = store.save();\n*933|            let path = spt_store::peeraddrs::peer_addrs_file();\n 934|            let mut pa = PeerAddrStore::load_from(&path);\n*935|            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\n 936|                let _ = pa.save_to(&path);\n 937|            }\n 938|        }),\n...\n 1057|        let mut pa = PeerAddrStore::default();\n*1058|        pa.put(\"bb\", observed_b.clone()); // a fresher, locally-observed addr\n 1059|\n 1060|        let entries = vec![\n 1061|            entry(\"self\", \"home\", Some(serde_json::json!({\"id\": \"self\"})), 1), // skipped\n...\n 1064|        ];\n*1065|        assert!(gapfill_peeraddrs(&mut pa, \"self\", &entries), \"C was filled\");\n 1066|        assert_eq!(pa.get(\"cc\"), Some(&addr_c), \"absent member filled from roster\");\n 1067|        assert_eq!(pa.get(\"bb\"), Some(&observed_b), \"observed addr not clobbered\");\n 1068|        assert_eq!(pa.get(\"self\"), None, \"own entry skipped\");\n...\n 1070|        // Idempotent: a second pass with the same input changes nothing.\n*1071|        assert!(!gapfill_peeraddrs(&mut pa, \"self\", &entries), \"no further change\");\n 1072|    }\n 1073|}\n 1074|\n\n### pump/\n#### mod.rs\n 864|                let _ =\n*865|                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n 866|            }\n 867|            is_target\n 868|        }\n...\n 1694|        // Seeded: the recorded addr is submitted FIRST (skips discovery).\n*1695|        PeerAddrStore::record(&seeds, \"ab\", seeded_addr.clone()).unwrap();\n 1696|        assert_eq!(\n 1697|            resolve_submit_addr(&resolver, \"ab\", &seeds),\n 1698|            Some(seeded_addr.clone()),\n\n## spt-store/src/\n### peeraddrs.rs\n 29|/// `pump-ops.json` — M8 decision 20).\n*30|pub fn peer_addrs_file() -> PathBuf {\n 31|    crate::perch::spt_home()\n 32|        .join(\"identity\")\n 33|        .join(\"peer-addrs.json\")\n...\n 44|impl PeerAddrStore {\n*45|    /// Load from the canonical [`peer_addrs_file`]. Absent ⇒ empty.\n 46|    pub fn load() -> PeerAddrStore {\n*47|        Self::load_from(&peer_addrs_file())\n 48|    }\n 49|\n 50|    /// Load from an explicit path. Absent/corrupt degrades to empty — a\n...\n 61|    pub fn save(&self) -> std::io::Result<()> {\n*62|        self.save_to(&peer_addrs_file())\n 63|    }\n 64|\n 65|    /// Persist to an explicit path (atomic; creates the parent dir).\n...\n 106|        let mut store = Self::load_from(path);\n*107|        if store.put(peer_hex, addr) {\n 108|            store.save_to(path)?;\n 109|        }\n 110|        Ok(())\n...\n 140|        let addr = serde_json::json!({\"id\": \"ab12\", \"addrs\": [\"192.168.1.7:4711\"]});\n*141|        assert!(store.put(\"ab12\", addr.clone()), \"first put = a change\");\n*142|        assert!(!store.put(\"ab12\", addr.clone()), \"same addr again = no-op\");\n 143|        store.save_to(&path).unwrap();\n 144|\n 145|        let reloaded = PeerAddrStore::load_from(&path);\n...\n 150|        let mut store = reloaded;\n*151|        assert!(store.put(\"ab12\", newer.clone()), \"fresher addr replaces\");\n 152|        assert_eq!(store.get(\"ab12\"), Some(&newer));\n 153|    }\n 154|\n...\n 172|\n*173|        PeerAddrStore::record(&path, \"ef56\", addr.clone()).unwrap();\n 174|        assert_eq!(PeerAddrStore::load_from(&path).get(\"ef56\"), Some(&addr));\n 175|\n 176|        // No-op record on an unchanged value must not error (and must not\n 177|        // care whether the file write was skipped).\n*178|        PeerAddrStore::record(&path, \"ef56\", addr).unwrap();\n 179|    }\n 180|}\n\n## spt/src/\n### wansend.rs\n 906|    fn seed_first_addr_prefers_the_cached_direct_address() {\n*907|        use spt_store::peeraddrs::{peer_addrs_file, PeerAddrStore};\n 908|        let _home = isolated_home();\n 909|        let peer = \"abc123peerhex\";\n 910|        let seeded = serde_json::json!({ \"direct\": \"warm-cached-addr\" });\n*911|        PeerAddrStore::record(&peer_addrs_file(), peer, seeded.clone()).unwrap();\n 912|        assert_eq!(\n 913|            seed_first_addr(peer),\n 914|            Some(seeded),\n...\n 1397|    fn resolve_and_dial_owner_dials_the_resolved_node() {\n*1398|        use spt_store::peeraddrs::{peer_addrs_file, PeerAddrStore};\n 1399|        let _home = isolated_home();\n 1400|        let dir = tempfile::tempdir().unwrap();\n 1401|        let (a_name, b_name) = (\n...\n 1418|        write_snapshot(\"s1\", \"ling-remote\", &b_hex);\n*1419|        PeerAddrStore::record(&peer_addrs_file(), &b_hex, b_addr).unwrap();\n 1420|\n 1421|        match resolve_and_dial_owner(&mut a, \"ling-remote\") {\n 1422|            OwnerDial::Dialed { node, .. } => {\n\n### api/\n#### startup.rs\n 894|    fn put_seed(reg: &SeedRegistry, parent_pid: u32, session_id: &str) {\n*895|        reg.put(Seed {\n 896|            parent_pid,\n 897|            session_id: session_id.into(),\n 898|            cwd: None,\n...\n 1216|        // cmd_seed writes it).\n*1217|        reg.put(Seed {\n 1218|            parent_pid: anchor,\n 1219|            session_id: \"sid-seed\".into(),\n 1220|            cwd: Some(\"/home/user/projects/widget\".into()),"}],"details":{"scopePath":"spt-core/crates","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":28,"fileCount":7,"files":["spt-core/crates/spt-daemon/src/pairhost.rs","spt-core/crates/spt-daemon/src/pump/mod.rs","spt-core/crates/spt-daemon/src/seedmap.rs","spt-core/crates/spt-daemon/src/seedproofx.rs","spt-core/crates/spt-store/src/peeraddrs.rs","spt-core/crates/spt/src/api/startup.rs","spt-core/crates/spt/src/wansend.rs"],"fileMatches":[{"path":"spt-core/crates/spt-daemon/src/pairhost.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/pump/mod.rs","count":2},{"path":"spt-core/crates/spt-daemon/src/seedmap.rs","count":1},{"path":"spt-core/crates/spt-daemon/src/seedproofx.rs","count":7},{"path":"spt-core/crates/spt-store/src/peeraddrs.rs","count":10},{"path":"spt-core/crates/spt/src/api/startup.rs","count":2},{"path":"spt-core/crates/spt/src/wansend.rs","count":4}],"truncated":false,"displayContent":"# spt-core/crates/\n\n## spt-daemon/src/\n### pairhost.rs\n 635│    };\n*636│    let path = spt_store::peeraddrs::peer_addrs_file();\n*637│    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n 638│        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n 639│    }\n 640│}\n### seedmap.rs\n 169│                let echo = seed.clone();\n*170│                reg.put(seed);\n 171│                // Echo the stored seed so the client knows the put landed.\n 172│                write_frame(&mut conn, &result_frame(Some(echo)))?;\n 173│            }\n### seedproofx.rs\n  869│// [impl->REQ-MESH-2]\n *870│pub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\n  871│    let mut changed = false;\n  872│    for e in entries {\n  873│        if e.pubkey_hex == self_hex {\n     │...\n  877│            if pa.get(&e.pubkey_hex).is_none() {\n *878│                changed |= pa.put(&e.pubkey_hex, addr.clone());\n  879│            }\n  880│        }\n  881│    }\n     │...\n  932│            let _ = store.save();\n *933│            let path = spt_store::peeraddrs::peer_addrs_file();\n  934│            let mut pa = PeerAddrStore::load_from(&path);\n *935│            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\n  936│                let _ = pa.save_to(&path);\n  937│            }\n  938│        }),\n     │...\n 1057│        let mut pa = PeerAddrStore::default();\n*1058│        pa.put(\"bb\", observed_b.clone()); // a fresher, locally-observed addr\n 1059│\n 1060│        let entries = vec![\n 1061│            entry(\"self\", \"home\", Some(serde_json::json!({\"id\": \"self\"})), 1), // skipped\n     │...\n 1064│        ];\n*1065│        assert!(gapfill_peeraddrs(&mut pa, \"self\", &entries), \"C was filled\");\n 1066│        assert_eq!(pa.get(\"cc\"), Some(&addr_c), \"absent member filled from roster\");\n 1067│        assert_eq!(pa.get(\"bb\"), Some(&observed_b), \"observed addr not clobbered\");\n 1068│        assert_eq!(pa.get(\"self\"), None, \"own entry skipped\");\n     │...\n 1070│        // Idempotent: a second pass with the same input changes nothing.\n*1071│        assert!(!gapfill_peeraddrs(&mut pa, \"self\", &entries), \"no further change\");\n 1072│    }\n 1073│}\n 1074│\n\n### pump/\n#### mod.rs\n  864│                let _ =\n *865│                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n  866│            }\n  867│            is_target\n  868│        }\n     │...\n 1694│        // Seeded: the recorded addr is submitted FIRST (skips discovery).\n*1695│        PeerAddrStore::record(&seeds, \"ab\", seeded_addr.clone()).unwrap();\n 1696│        assert_eq!(\n 1697│            resolve_submit_addr(&resolver, \"ab\", &seeds),\n 1698│            Some(seeded_addr.clone()),\n\n## spt-store/src/\n### peeraddrs.rs\n  29│/// `pump-ops.json` — M8 decision 20).\n *30│pub fn peer_addrs_file() -> PathBuf {\n  31│    crate::perch::spt_home()\n  32│        .join(\"identity\")\n  33│        .join(\"peer-addrs.json\")\n    │...\n  44│impl PeerAddrStore {\n *45│    /// Load from the canonical [`peer_addrs_file`]. Absent ⇒ empty.\n  46│    pub fn load() -> PeerAddrStore {\n *47│        Self::load_from(&peer_addrs_file())\n  48│    }\n  49│\n  50│    /// Load from an explicit path. Absent/corrupt degrades to empty — a\n    │...\n  61│    pub fn save(&self) -> std::io::Result<()> {\n *62│        self.save_to(&peer_addrs_file())\n  63│    }\n  64│\n  65│    /// Persist to an explicit path (atomic; creates the parent dir).\n    │...\n 106│        let mut store = Self::load_from(path);\n*107│        if store.put(peer_hex, addr) {\n 108│            store.save_to(path)?;\n 109│        }\n 110│        Ok(())\n    │...\n 140│        let addr = serde_json::json!({\"id\": \"ab12\", \"addrs\": [\"192.168.1.7:4711\"]});\n*141│        assert!(store.put(\"ab12\", addr.clone()), \"first put = a change\");\n*142│        assert!(!store.put(\"ab12\", addr.clone()), \"same addr again = no-op\");\n 143│        store.save_to(&path).unwrap();\n 144│\n 145│        let reloaded = PeerAddrStore::load_from(&path);\n    │...\n 150│        let mut store = reloaded;\n*151│        assert!(store.put(\"ab12\", newer.clone()), \"fresher addr replaces\");\n 152│        assert_eq!(store.get(\"ab12\"), Some(&newer));\n 153│    }\n 154│\n    │...\n 172│\n*173│        PeerAddrStore::record(&path, \"ef56\", addr.clone()).unwrap();\n 174│        assert_eq!(PeerAddrStore::load_from(&path).get(\"ef56\"), Some(&addr));\n 175│\n 176│        // No-op record on an unchanged value must not error (and must not\n 177│        // care whether the file write was skipped).\n*178│        PeerAddrStore::record(&path, \"ef56\", addr).unwrap();\n 179│    }\n 180│}\n\n## spt/src/\n### wansend.rs\n  906│    fn seed_first_addr_prefers_the_cached_direct_address() {\n *907│        use spt_store::peeraddrs::{peer_addrs_file, PeerAddrStore};\n  908│        let _home = isolated_home();\n  909│        let peer = \"abc123peerhex\";\n  910│        let seeded = serde_json::json!({ \"direct\": \"warm-cached-addr\" });\n *911│        PeerAddrStore::record(&peer_addrs_file(), peer, seeded.clone()).unwrap();\n  912│        assert_eq!(\n  913│            seed_first_addr(peer),\n  914│            Some(seeded),\n     │...\n 1397│    fn resolve_and_dial_owner_dials_the_resolved_node() {\n*1398│        use spt_store::peeraddrs::{peer_addrs_file, PeerAddrStore};\n 1399│        let _home = isolated_home();\n 1400│        let dir = tempfile::tempdir().unwrap();\n 1401│        let (a_name, b_name) = (\n     │...\n 1418│        write_snapshot(\"s1\", \"ling-remote\", &b_hex);\n*1419│        PeerAddrStore::record(&peer_addrs_file(), &b_hex, b_addr).unwrap();\n 1420│\n 1421│        match resolve_and_dial_owner(&mut a, \"ling-remote\") {\n 1422│            OwnerDial::Dialed { node, .. } => {\n\n### api/\n#### startup.rs\n  894│    fn put_seed(reg: &SeedRegistry, parent_pid: u32, session_id: &str) {\n *895│        reg.put(Seed {\n  896│            parent_pid,\n  897│            session_id: session_id.into(),\n  898│            cwd: None,\n     │...\n 1216│        // cmd_seed writes it).\n*1217│        reg.put(Seed {\n 1218│            parent_pid: anchor,\n 1219│            session_id: \"sid-seed\".into(),\n 1220│            cwd: Some(\"/home/user/projects/widget\".into()),"},"isError":false,"timestamp":1784069382427}}
{"type":"message","id":"33a53fcb","parentId":"a213eea4","timestamp":"2026-07-14T22:49:42.427Z","message":{"role":"toolResult","toolCallId":"call_rfnEu9Nrlaa1kMafcQCzLbAX|fc_0b084cf0b521ab15016a56bd06438c8190a7d308bc2fda931b","toolName":"read","content":[{"type":"text","text":"# Mesh-D4 — roster propagation (on-connect exchange/merge)\n\n> JIT plan for `SUBNET-MESH-PLAN.md` §Build phases · phase 4. **Spreads the discovery directory.** D3 seeded the roster at the pairing ceremony only; D4 makes it propagate in steady state: every seed-proof'd **member** connection exchanges and merges rosters, so a node learns members it never paired with (the transitive growth `A learns C via B`). Addresses are captured from live connections and reconciled with `peer-addrs.json`. **Enriches REQ-MESH-2 impl; lands REQ-MESH-2 int** (the on-connect propagation is exactly its int evidence). No new requirement. **Still no mesh _reach_** — the gate swap (D5) and the fan-out widen (D6) are untouched; D4 only makes the directory converge so D6 has somewhere to dial.\n\n## The seam (grounded in the code)\n\nA \"member connection\" is a QUIC conn that passed the **mutual seed-proof** (Mesh-D2). That proof runs on **one dedicated bidi control stream**, opened by the dialer (`open_bi`) / accepted by the acceptor (`accept_bi`) in `crates/spt-daemon/src/seedproofx.rs`, **before** `register_conn` wires the general app-stream acceptor (`nethost.rs:514,609`). A four-leg ping-pong (`Hello`×2, `Proof`×N each way) yields `proven: HashSet<String>` — the subnets **both** sides proved current-epoch seed-knowledge of.\n\n**D4 appends a fifth/sixth leg to that same stream**, after the proofs verify:\n\n```\ndialer:   send Proofs → read+verify acceptor Proofs → SEND Roster → READ acceptor Roster → finish\nacceptor: read+verify dialer Proofs → send Proofs → READ dialer Roster → SEND acceptor Roster → finish\n```\n\nDialer sends its roster first (buffers on the stream while the acceptor reads), acceptor then sends its own — the **same send-then-read / read-then-send discipline** the proofs already use, so the single bidi stream never deadlocks.\n\n**Why ride the proof stream instead of a second stream or `Frame::Seed`:**\n- `Frame::Seed` is the *pairing* ALPN (`SPT_PAIR_ALPN`), a one-shot ceremony — not a steady-state member conn. Wrong channel.\n- A *second* control stream would race the app-stream acceptor that `register_conn` wires post-proof. The proof stream is already open, already mutual, already finished cleanly after — appending one leg is the smallest safe change.\n- **Security, by construction:** roster bytes ride a leg that only executes *after* both proofs verify, so the REQ-MESH-2 invariant \"exchanged only over seed-proof'd member connections\" is **structural**, not a convention a future edit can break. And the provider sends only the **proven** subnets' slices (§Part B) — a peer that proved subnet X never receives subnet Y's roster (the same cross-subnet-leak defense D3 baked into `Frame::Seed`'s implicit-subnet adopt).\n\n## Part A — the roster-exchange frame (`spt-net`, shared codec)\n\nAdd `SeedProofFrame::Roster { entries: Vec<RosterEntry>, tombstones: Vec<Tombstone> }` to `crates/spt-net/src/net/mesh/seedproof.rs`.\n\n**Subnet is EXPLICIT on this wire** (unlike `Frame::Seed`, where it's implicit because the ceremony fixes one subnet). A member conn carries multiple proven subnets at once, so each `RosterEntry`/`Tombstone` keeps its real `subnet` field — the sink merges them as-is, no stamping.\n\n**DRY the codec:** the per-entry field encoding already exists in `pairing/wire.rs` (D3's `enc`/`dec_roster` for `Frame::Seed`). Extract it into a shared helper — `crates/spt-net/src/net/mesh/rostercodec.rs` (`enc_entries`/`dec_entries`/`enc_tombstones`/`dec_tombstones`) — and have **both** `Frame::Seed` (wire.rs) and `SeedProofFrame::Roster` (seedproof.rs) call it. The only delta vs D3's encoding: the shared form writes the `subnet` field per entry (Seed's variant zero-lengths it / stamps on adopt). Keep the `u32 count`-then-length-prefixed-fields shape; counts are never pre-allocated from the wire (a hostile count hits \"truncated\" on the first short field — D3's posture). `MAX_FRAME` in seedproofx is already `64 * 1024` (D3 bumped it for exactly this paylo…\n\n`SeedProofFrame::Roster` encode/decode mirrors the existing variants; decode returns `None` on malformed (drops the conn — but the proofs already passed, so a malformed roster leg is a protocol bug, not an attacker who matters; fail closed anyway).\n\n## Part B — wiring the exchange into `prove_membership` (`spt-daemon/seedproofx.rs`)\n\n`prove_membership` gains two injected closures (decouples crypto-proof from the spt-store directory — the `MembershipSource` posture):\n\n```rust\npub type RosterProvider = Arc<dyn Fn(&HashSet<String>) -> (Vec<RosterEntry>, Vec<Tombstone>) + Send + Sync>;\npub type RosterSink     = Arc<dyn Fn(Vec<RosterEntry>, Vec<Tombstone>) + Send + Sync>;\n```\n\n- **provider(proven)** → flatten `roster_for(s)` over every `s ∈ proven` into one `(entries, tombstones)` list, subnets intact. Sends **only proven subnets** (the leak defense).\n- **sink(entries, tombstones)** → merge into the durable store + reconcile peeraddrs (§Part C). Runs on the net runtime; does its own `load`/`save` (rare, per-connect — the store's posture).\n\nBoth default to `None`-equivalent no-ops when `membership: None` (mechanics-only tests). Threaded through `NetConfig` alongside `membership` (`nethost.rs:75`), cloned into both the accept loop and `dial`, passed to `prove_membership`. `prove_as_dialer`/`prove_as_acceptor` gain the roster legs at the positions diagrammed above, gated on `!proven.is_empty()` (no shared subnet already dropped the conn before this point).\n\n## Part C — the sink: address capture + peeraddrs reconcile (the seam decision)\n\n**Decision: roster FEEDS peeraddrs (gap-fill only); the live endpoint FEEDS the roster self-entry. `peer-addrs.json` is RETAINED as the dial cache — not absorbed, not retired** (REQ-CONV-1 is load-bearing in `peerloop::dial_seeded`; D6 reach dials *through* it).\n\nTwo address flows, kept distinct:\n\n1. **My own entry advertises MY address.** Before the provider builds its slice, refresh this node's self-entry for every held subnet: `upsert_self(subnet, self_pk, label, machine_id, Some(endpoint.addr() as JSON), fresh_lease)`. Source = `NetHost::addr()` (`nethost.rs:568`, the endpoint's id+paths), label/machine_id = the same `os_hostname()`/`machine_id_hash()` D3 used, lease = `EpochSource::load().current()` **peek** (no consume — propagation must not disturb registry ordering, D3's rule). Generalize D3's `refresh_self_roster` helper. Without this, my entry (seeded at pairing with `address: None`) never advertises a dialable address and peers can't transitively reach me — this is the line that makes D6 work.\n\n2. **A learned member's advertised address gap-fills peeraddrs.** In the sink, after merging: for each incoming entry with `address: Some(addr)` and `pubkey ≠ self`, if `PeerAddrStore` has **no** entry for that pubkey, `record(peeraddrs_file, pubkey, addr)`. **Gap-fill only** — a locally *observed* peeraddr (written by `peerloop` after a real dial, `conn_remote_addr`) is strictly fresher/more-reachable than a third-party-advertised one, so never clobber it. This is what lets A, having learned C's entry from B's roster, later dial C directly (the D6 reach precondition).\n\n`conn_remote_addr` (`endpoint.rs:370`) still feeds peeraddrs for the **directly** connected peer exactly as today (`peerloop` write-back, untouched) — D4 adds only the *transitive* gap-fill from merged entries.\n\n## Part D — the daemon production wiring\n\n`production_membership()` has a sibling `production_roster_provider()` / `production_roster_sink()` (in `seedproofx.rs` or a small `rosterx.rs`), wired where `NetConfig` is built for the real daemon (find the `production_membership()` call-site). The sink closure captures the peeraddrs path + roster path and does the load→merge→save + gap-fill. Hermetic/mechanics tests pass `None` (no roster exchange, as today).\n\n## Explicitly NOT D4 (carry-forward)\n\n- **D5** — swap the five `is_trusted` gates to `roster.is_member` / the `ConnEntry.proven_subnets` set; hard cutover (delete `peers.json` + the `TrustStore` auth path). **Pre-D5 open item #3** (confirm self-update is node-local per ADR-0016, not riding member conns) is checked *before* D5, not here.\n- **D6** — fan-out widen (push target → all roster members in `peerloop`/`advertise_local`) → **MESH ON**, D0 harness flips green. D4 leaves the push target at directly-paired peers; it only makes the *directory* converge.\n- **D7** — revoke CLI, timeboxed rotation, confidential seed push, re-seed grace, cross-node un-tombstone propagation.\n\n## Tests\n\n**unit — `spt-net/src/net/mesh/seedproof.rs`** (`// [unit->REQ-MESH-2]`):\n- `SeedProofFrame::Roster` round-trips: multi-subnet entries (one with an `address` JSON, one without) + tombstones; empty entries+tombstones; malformed trailing (bad count / short field / non-UTF-8) ⇒ `None`.\n\n**unit — `spt-net/src/net/mesh/rostercodec.rs`** (`// [unit->REQ-MESH-2]`):\n- shared `enc_entries`/`dec_entries` round-trip with the explicit `subnet` field; parity sanity that `Frame::Seed`'s use (subnet stamped on adopt) still round-trips through the shared helper (regression guard on the D3 ceremony codec after the extraction).\n\n**unit — `spt-daemon` (seedproofx / nethost)** (`// [unit->REQ-MESH-2]`):\n- **the propagation merge**: two hermetic `NetHost`s (loopback, relay off) both wired with membership + roster on a shared subnet; B's store pre-seeded with an entry for an **offline** C; A dials B; assert **A's roster now contains C** (transitive growth) and **A's peeraddrs got C's advertised addr** (gap-fill) — the store-level proof of \"A learns + can reach C via B.\"\n- **gap-fill discipline**: a pre-existing locally-observed peeraddr for a pubkey is **not** clobbered when a roster entry for that pubkey is merged; an absent one **is** filled.\n- **self-entry advertises addr**: after a member connect, this node's own roster entry carries `Some(address)` from `endpoint.addr()` (was `None` post-pairing).\n- **leak defense**: provider over `proven = {X}` never emits subnet Y's entries even when the store holds Y.\n\n**int — `spt-daemon`** (`// [int->REQ-MESH-2]`, **activates REQ-MESH-2 int**):\n- the plan's acceptance for this phase: B knows `{A, C}` (C offline / never directly paired to A); A connects B; after the connect settles, **A's durable roster contains C and A's peeraddrs is seeded for C** — A has both *learned* and is *able to reach* C, with B never relaying a row. (The full 3-node staggered **reach** convergence stays the D0 harness → REQ-MESH-3 int at D6; this int proves only the directory propagation REQ-MESH-2 owns.)\n\n## Done when\n\n- The roster-exchange leg rides the proof control stream; member connects exchange + merge rosters both ways; self-entry advertises `endpoint.addr()`; merged entries gap-fill peeraddrs.\n- Shared `rostercodec` extracted; `Frame::Seed` (D3) and `SeedProofFrame::Roster` both use it; the D3 ceremony tests still pass (extraction is behavior-preserving).\n- `cargo test -p spt-net mesh::seedproof`, `cargo test -p spt-net mesh::rostercodec`, `cargo test -p spt-net pairing::wire` (D3 regression), `cargo test -p spt-daemon` (propagation unit + int) green; `--no-default-features` + workspace build + clippy clean.\n- `traceable-reqs check` clean with **REQ-MESH-2 `required_stages = [\"impl\",\"unit\",\"int\"]`** (D4 adds `int`). Evidence on the frame, the codec helper, the provider/sink, the self-entry refresh, the peeraddrs gap-fill, and the tests.\n- The five `is_trusted` gates and the `peerloop` push target remain **untouched** (D5/D6 own those). No mesh reach yet — only directory convergence.\n- Commit: `feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4`.\n\n\n[Some lines truncated to 768 chars]"}],"details":{"displayContent":{"text":"# Mesh-D4 — roster propagation (on-connect exchange/merge)\r\n\r\n> JIT plan for `SUBNET-MESH-PLAN.md` §Build phases · phase 4. **Spreads the discovery directory.** D3 seeded the roster at the pairing ceremony only; D4 makes it propagate in steady state: every seed-proof'd **member** connection exchanges and merges rosters, so a node learns members it never paired with (the transitive growth `A learns C via B`). Addresses are captured from live connections and reconciled with `peer-addrs.json`. **Enriches REQ-MESH-2 impl; lands REQ-MESH-2 int** (the on-connect propagation is exactly its int evidence). No new requirement. **Still no mesh _reach_** — the gate swap (D5) and the fan-out widen (D6) are untouched; D4 only makes the directory converge so D6 has somewhere to dial.\r\n\r\n## The seam (grounded in the code)\r\n\r\nA \"member connection\" is a QUIC conn that passed the **mutual seed-proof** (Mesh-D2). That proof runs on **one dedicated bidi control stream**, opened by the dialer (`open_bi`) / accepted by the acceptor (`accept_bi`) in `crates/spt-daemon/src/seedproofx.rs`, **before** `register_conn` wires the general app-stream acceptor (`nethost.rs:514,609`). A four-leg ping-pong (`Hello`×2, `Proof`×N each way) yields `proven: HashSet<String>` — the subnets **both** sides proved current-epoch seed-knowledge of.\r\n\r\n**D4 appends a fifth/sixth leg to that same stream**, after the proofs verify:\r\n\r\n```\r\ndialer:   send Proofs → read+verify acceptor Proofs → SEND Roster → READ acceptor Roster → finish\r\nacceptor: read+verify dialer Proofs → send Proofs → READ dialer Roster → SEND acceptor Roster → finish\r\n```\r\n\r\nDialer sends its roster first (buffers on the stream while the acceptor reads), acceptor then sends its own — the **same send-then-read / read-then-send discipline** the proofs already use, so the single bidi stream never deadlocks.\r\n\r\n**Why ride the proof stream instead of a second stream or `Frame::Seed`:**\r\n- `Frame::Seed` is the *pairing* ALPN (`SPT_PAIR_ALPN`), a one-shot ceremony — not a steady-state member conn. Wrong channel.\r\n- A *second* control stream would race the app-stream acceptor that `register_conn` wires post-proof. The proof stream is already open, already mutual, already finished cleanly after — appending one leg is the smallest safe change.\r\n- **Security, by construction:** roster bytes ride a leg that only executes *after* both proofs verify, so the REQ-MESH-2 invariant \"exchanged only over seed-proof'd member connections\" is **structural**, not a convention a future edit can break. And the provider sends only the **proven** subnets' slices (§Part B) — a peer that proved subnet X never receives subnet Y's roster (the same cross-subnet-leak defense D3 baked into `Frame::Seed`'s implicit-subnet adopt).\r\n\r\n## Part A — the roster-exchange frame (`spt-net`, shared codec)\r\n\r\nAdd `SeedProofFrame::Roster { entries: Vec<RosterEntry>, tombstones: Vec<Tombstone> }` to `crates/spt-net/src/net/mesh/seedproof.rs`.\r\n\r\n**Subnet is EXPLICIT on this wire** (unlike `Frame::Seed`, where it's implicit because the ceremony fixes one subnet). A member conn carries multiple proven subnets at once, so each `RosterEntry`/`Tombstone` keeps its real `subnet` field — the sink merges them as-is, no stamping.\r\n\r\n**DRY the codec:** the per-entry field encoding already exists in `pairing/wire.rs` (D3's `enc`/`dec_roster` for `Frame::Seed`). Extract it into a shared helper — `crates/spt-net/src/net/mesh/rostercodec.rs` (`enc_entries`/`dec_entries`/`enc_tombstones`/`dec_tombstones`) — and have **both** `Frame::Seed` (wire.rs) and `SeedProofFrame::Roster` (seedproof.rs) call it. The only delta vs D3's encoding: the shared form writes the `subnet` field per entry (Seed's variant zero-lengths it / stamps on adopt). Keep the `u32 count`-then-length-prefixed-fields shape; counts are never pre-allocated from the wire (a hostile count hits \"truncated\" on the first short field — D3's posture). `MAX_FRAME` in seedproofx is already `64 * 1024` (D3 bumped it for exactly this paylo…\n\r\n`SeedProofFrame::Roster` encode/decode mirrors the existing variants; decode returns `None` on malformed (drops the conn — but the proofs already passed, so a malformed roster leg is a protocol bug, not an attacker who matters; fail closed anyway).\r\n\r\n## Part B — wiring the exchange into `prove_membership` (`spt-daemon/seedproofx.rs`)\r\n\r\n`prove_membership` gains two injected closures (decouples crypto-proof from the spt-store directory — the `MembershipSource` posture):\r\n\r\n```rust\r\npub type RosterProvider = Arc<dyn Fn(&HashSet<String>) -> (Vec<RosterEntry>, Vec<Tombstone>) + Send + Sync>;\r\npub type RosterSink     = Arc<dyn Fn(Vec<RosterEntry>, Vec<Tombstone>) + Send + Sync>;\r\n```\r\n\r\n- **provider(proven)** → flatten `roster_for(s)` over every `s ∈ proven` into one `(entries, tombstones)` list, subnets intact. Sends **only proven subnets** (the leak defense).\r\n- **sink(entries, tombstones)** → merge into the durable store + reconcile peeraddrs (§Part C). Runs on the net runtime; does its own `load`/`save` (rare, per-connect — the store's posture).\r\n\r\nBoth default to `None`-equivalent no-ops when `membership: None` (mechanics-only tests). Threaded through `NetConfig` alongside `membership` (`nethost.rs:75`), cloned into both the accept loop and `dial`, passed to `prove_membership`. `prove_as_dialer`/`prove_as_acceptor` gain the roster legs at the positions diagrammed above, gated on `!proven.is_empty()` (no shared subnet already dropped the conn before this point).\r\n\r\n## Part C — the sink: address capture + peeraddrs reconcile (the seam decision)\r\n\r\n**Decision: roster FEEDS peeraddrs (gap-fill only); the live endpoint FEEDS the roster self-entry. `peer-addrs.json` is RETAINED as the dial cache — not absorbed, not retired** (REQ-CONV-1 is load-bearing in `peerloop::dial_seeded`; D6 reach dials *through* it).\r\n\r\nTwo address flows, kept distinct:\r\n\r\n1. **My own entry advertises MY address.** Before the provider builds its slice, refresh this node's self-entry for every held subnet: `upsert_self(subnet, self_pk, label, machine_id, Some(endpoint.addr() as JSON), fresh_lease)`. Source = `NetHost::addr()` (`nethost.rs:568`, the endpoint's id+paths), label/machine_id = the same `os_hostname()`/`machine_id_hash()` D3 used, lease = `EpochSource::load().current()` **peek** (no consume — propagation must not disturb registry ordering, D3's rule). Generalize D3's `refresh_self_roster` helper. Without this, my entry (seeded at pairing with `address: None`) never advertises a dialable address and peers can't transitively reach me — this is the line that makes D6 work.\r\n\r\n2. **A learned member's advertised address gap-fills peeraddrs.** In the sink, after merging: for each incoming entry with `address: Some(addr)` and `pubkey ≠ self`, if `PeerAddrStore` has **no** entry for that pubkey, `record(peeraddrs_file, pubkey, addr)`. **Gap-fill only** — a locally *observed* peeraddr (written by `peerloop` after a real dial, `conn_remote_addr`) is strictly fresher/more-reachable than a third-party-advertised one, so never clobber it. This is what lets A, having learned C's entry from B's roster, later dial C directly (the D6 reach precondition).\r\n\r\n`conn_remote_addr` (`endpoint.rs:370`) still feeds peeraddrs for the **directly** connected peer exactly as today (`peerloop` write-back, untouched) — D4 adds only the *transitive* gap-fill from merged entries.\r\n\r\n## Part D — the daemon production wiring\r\n\r\n`production_membership()` has a sibling `production_roster_provider()` / `production_roster_sink()` (in `seedproofx.rs` or a small `rosterx.rs`), wired where `NetConfig` is built for the real daemon (find the `production_membership()` call-site). The sink closure captures the peeraddrs path + roster path and does the load→merge→save + gap-fill. Hermetic/mechanics tests pass `None` (no roster exchange, as today).\r\n\r\n## Explicitly NOT D4 (carry-forward)\r\n\r\n- **D5** — swap the five `is_trusted` gates to `roster.is_member` / the `ConnEntry.proven_subnets` set; hard cutover (delete `peers.json` + the `TrustStore` auth path). **Pre-D5 open item #3** (confirm self-update is node-local per ADR-0016, not riding member conns) is checked *before* D5, not here.\r\n- **D6** — fan-out widen (push target → all roster members in `peerloop`/`advertise_local`) → **MESH ON**, D0 harness flips green. D4 leaves the push target at directly-paired peers; it only makes the *directory* converge.\r\n- **D7** — revoke CLI, timeboxed rotation, confidential seed push, re-seed grace, cross-node un-tombstone propagation.\r\n\r\n## Tests\r\n\r\n**unit — `spt-net/src/net/mesh/seedproof.rs`** (`// [unit->REQ-MESH-2]`):\r\n- `SeedProofFrame::Roster` round-trips: multi-subnet entries (one with an `address` JSON, one without) + tombstones; empty entries+tombstones; malformed trailing (bad count / short field / non-UTF-8) ⇒ `None`.\r\n\r\n**unit — `spt-net/src/net/mesh/rostercodec.rs`** (`// [unit->REQ-MESH-2]`):\r\n- shared `enc_entries`/`dec_entries` round-trip with the explicit `subnet` field; parity sanity that `Frame::Seed`'s use (subnet stamped on adopt) still round-trips through the shared helper (regression guard on the D3 ceremony codec after the extraction).\r\n\r\n**unit — `spt-daemon` (seedproofx / nethost)** (`// [unit->REQ-MESH-2]`):\r\n- **the propagation merge**: two hermetic `NetHost`s (loopback, relay off) both wired with membership + roster on a shared subnet; B's store pre-seeded with an entry for an **offline** C; A dials B; assert **A's roster now contains C** (transitive growth) and **A's peeraddrs got C's advertised addr** (gap-fill) — the store-level proof of \"A learns + can reach C via B.\"\r\n- **gap-fill discipline**: a pre-existing locally-observed peeraddr for a pubkey is **not** clobbered when a roster entry for that pubkey is merged; an absent one **is** filled.\r\n- **self-entry advertises addr**: after a member connect, this node's own roster entry carries `Some(address)` from `endpoint.addr()` (was `None` post-pairing).\r\n- **leak defense**: provider over `proven = {X}` never emits subnet Y's entries even when the store holds Y.\r\n\r\n**int — `spt-daemon`** (`// [int->REQ-MESH-2]`, **activates REQ-MESH-2 int**):\r\n- the plan's acceptance for this phase: B knows `{A, C}` (C offline / never directly paired to A); A connects B; after the connect settles, **A's durable roster contains C and A's peeraddrs is seeded for C** — A has both *learned* and is *able to reach* C, with B never relaying a row. (The full 3-node staggered **reach** convergence stays the D0 harness → REQ-MESH-3 int at D6; this int proves only the directory propagation REQ-MESH-2 owns.)\r\n\r\n## Done when\r\n\r\n- The roster-exchange leg rides the proof control stream; member connects exchange + merge rosters both ways; self-entry advertises `endpoint.addr()`; merged entries gap-fill peeraddrs.\r\n- Shared `rostercodec` extracted; `Frame::Seed` (D3) and `SeedProofFrame::Roster` both use it; the D3 ceremony tests still pass (extraction is behavior-preserving).\r\n- `cargo test -p spt-net mesh::seedproof`, `cargo test -p spt-net mesh::rostercodec`, `cargo test -p spt-net pairing::wire` (D3 regression), `cargo test -p spt-daemon` (propagation unit + int) green; `--no-default-features` + workspace build + clippy clean.\r\n- `traceable-reqs check` clean with **REQ-MESH-2 `required_stages = [\"impl\",\"unit\",\"int\"]`** (D4 adds `int`). Evidence on the frame, the codec helper, the provider/sink, the self-entry refresh, the peeraddrs gap-fill, and the tests.\r\n- The five `is_trusted` gates and the `peerloop` push target remain **untouched** (D5/D6 own those). No mesh reach yet — only directory convergence.\r\n- Commit: `feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4`.\r\n","startLine":1,"lineNumbers":[1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39,40,41,42,43,44,45,46,47,48,49,50,51,52,53,54,55,56,57,58,59,60,61,62,63,64,65,66,67,68,69,70,71,72,73,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\MESH-D4-PLAN.md"},"limits":{"columnTruncated":{"maxColumn":768}}}},"isError":false,"timestamp":1784069382427}}
{"type":"message","id":"d7dbccf0","parentId":"33a53fcb","timestamp":"2026-07-14T22:49:42.437Z","message":{"role":"toolResult","toolCallId":"call_sChnyJRcWd54biPMyRWEv0sL|fc_0b084cf0b521ab15016a56bd06438081909494e96e8dc8f31c","toolName":"read","content":[{"type":"text","text":"impl DialPlan {\n…\n    async fn connect(self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n…\n        let proven = match self.membership {\n…\n            None => HashSet::new(),\n        };\n        Ok(register_conn(&self.shared, conn, proven))\n    }\n}\n\nfn register_conn(\n    shared: &Arc<NetShared>,\n    conn: Connection,\n    proven_subnets: HashSet<String>,\n) -> (u64, String) {\n    let remote_id_hex = PublicKey::from_bytes(conn.remote_id().as_bytes())\n        .expect(\"an iroh EndpointId is always a valid ed25519 public key\")\n        .to_hex();\n    let id = shared.next_conn_id.fetch_add(1, Ordering::Relaxed);\n    shared.conns.lock().unwrap().insert(\n        id,\n        ConnEntry {\n            kind: ConnKind::Quic(conn.clone()),\n            remote_id_hex: remote_id_hex.clone(),\n            proven_subnets,\n        },\n    );\n\n    // Presence: announce the row BEFORE spawning the closed-watcher, so the\n    // `connected` event can never race behind its own `disconnected` (D4c). The\n    // event carries the OBSERVED remote addr (REQ-CONV-1 seed write-back) so a\n    // non-blocking submit-dial seeds `peer-addrs.json` like the blocking reply\n    // did (id-only / path-less → `null`, nothing worth seeding).\n    let observed = observed_addr_json(&conn);\n    shared\n        .presence\n        .lock()\n        .unwrap()\n        .append_connected(id, &remote_id_hex, observed);\n\n    // Closed-watcher: the row's exit path. Awaits the connection's end (clean\n    // close, conn loss, or our own endpoint close), removes the row — conns\n    // finally LEAVE the table — then appends the `disconnected` event (row\n    // gone before the event is observable).\n    // [impl->REQ-EP-4]\n    let sh_close = Arc::clone(shared);\n    let conn_close = conn.clone();\n    let hex_close = remote_id_hex.clone();\n    tokio::spawn(async move {\n        conn_close.closed().await;\n        sh_close.conns.lock().unwrap().remove(&id);\n        sh_close\n            .presence\n            .lock()\n            .unwrap()\n            .append(PRESENCE_DISCONNECTED, id, &hex_close);\n    });\n\n    // Inbound-stream acceptor: every peer-opened bidi stream joins the table\n    // and gets a read pump. (QUIC streams are lazy — the peer's open becomes\n    // visible here on its first write.) Ends when the connection does.\n    let sh = Arc::clone(shared);\n    let hex = remote_id_hex.clone();\n    tokio::spawn(async move {\n        while let Ok((send, recv)) = conn.accept_bi().await {\n            register_stream(\n                &sh,\n                id,\n                &hex,\n                SendHalf::Quic(send),\n                RecvHalf::Quic(recv),\n                false,\n            );\n        }\n    });\n\n    (id, remote_id_hex)\n}\n\n\n[Showing lines 559-633 of 1881. Use :634 to continue]"}],"details":{"truncation":{"content":"            None => HashSet::new(),\r\n        };\r\n        Ok(register_conn(&self.shared, conn, proven))\r\n    }\r\n}\r\n\r\nfn register_conn(\r\n    shared: &Arc<NetShared>,\r\n    conn: Connection,\r\n    proven_subnets: HashSet<String>,\r\n) -> (u64, String) {\r\n    let remote_id_hex = PublicKey::from_bytes(conn.remote_id().as_bytes())\r\n        .expect(\"an iroh EndpointId is always a valid ed25519 public key\")\r\n        .to_hex();\r\n    let id = shared.next_conn_id.fetch_add(1, Ordering::Relaxed);\r\n    shared.conns.lock().unwrap().insert(\r\n        id,\r\n        ConnEntry {\r\n            kind: ConnKind::Quic(conn.clone()),\r\n            remote_id_hex: remote_id_hex.clone(),\r\n            proven_subnets,\r\n        },\r\n    );\r\n\r\n    // Presence: announce the row BEFORE spawning the closed-watcher, so the\r\n    // `connected` event can never race behind its own `disconnected` (D4c). The\r\n    // event carries the OBSERVED remote addr (REQ-CONV-1 seed write-back) so a\r\n    // non-blocking submit-dial seeds `peer-addrs.json` like the blocking reply\r\n    // did (id-only / path-less → `null`, nothing worth seeding).\r\n    let observed = observed_addr_json(&conn);\r\n    shared\r\n        .presence\r\n        .lock()\r\n        .unwrap()\r\n        .append_connected(id, &remote_id_hex, observed);\r\n\r\n    // Closed-watcher: the row's exit path. Awaits the connection's end (clean\r\n    // close, conn loss, or our own endpoint close), removes the row — conns\r\n    // finally LEAVE the table — then appends the `disconnected` event (row\r\n    // gone before the event is observable).\r\n    // [impl->REQ-EP-4]\r\n    let sh_close = Arc::clone(shared);\r\n    let conn_close = conn.clone();\r\n    let hex_close = remote_id_hex.clone();\r\n    tokio::spawn(async move {\r\n        conn_close.closed().await;\r\n        sh_close.conns.lock().unwrap().remove(&id);\r\n        sh_close\r\n            .presence\r\n            .lock()\r\n            .unwrap()\r\n            .append(PRESENCE_DISCONNECTED, id, &hex_close);\r\n    });\r\n\r\n    // Inbound-stream acceptor: every peer-opened bidi stream joins the table\r\n    // and gets a read pump. (QUIC streams are lazy — the peer's open becomes\r\n    // visible here on its first write.) Ends when the connection does.\r\n    let sh = Arc::clone(shared);\r\n    let hex = remote_id_hex.clone();\r\n    tokio::spawn(async move {\r\n        while let Ok((send, recv)) = conn.accept_bi().await {\r\n            register_stream(\r\n                &sh,\r\n                id,\r\n                &hex,\r\n                SendHalf::Quic(send),\r\n                RecvHalf::Quic(recv),\r\n                false,\r\n            );\r\n        }\r\n    });\r\n\r\n    (id, remote_id_hex)\r\n}\r\n\r","truncated":true,"truncatedBy":"lines","totalLines":1323,"totalBytes":2650,"outputLines":75,"outputBytes":2650,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"impl DialPlan {\n…\n    async fn connect(self, addr: EndpointAddr) -> io::Result<(u64, String)> {\n…\n        let proven = match self.membership {\n…\n            None => HashSet::new(),\r\n        };\r\n        Ok(register_conn(&self.shared, conn, proven))\r\n    }\r\n}\r\n\r\nfn register_conn(\r\n    shared: &Arc<NetShared>,\r\n    conn: Connection,\r\n    proven_subnets: HashSet<String>,\r\n) -> (u64, String) {\r\n    let remote_id_hex = PublicKey::from_bytes(conn.remote_id().as_bytes())\r\n        .expect(\"an iroh EndpointId is always a valid ed25519 public key\")\r\n        .to_hex();\r\n    let id = shared.next_conn_id.fetch_add(1, Ordering::Relaxed);\r\n    shared.conns.lock().unwrap().insert(\r\n        id,\r\n        ConnEntry {\r\n            kind: ConnKind::Quic(conn.clone()),\r\n            remote_id_hex: remote_id_hex.clone(),\r\n            proven_subnets,\r\n        },\r\n    );\r\n\r\n    // Presence: announce the row BEFORE spawning the closed-watcher, so the\r\n    // `connected` event can never race behind its own `disconnected` (D4c). The\r\n    // event carries the OBSERVED remote addr (REQ-CONV-1 seed write-back) so a\r\n    // non-blocking submit-dial seeds `peer-addrs.json` like the blocking reply\r\n    // did (id-only / path-less → `null`, nothing worth seeding).\r\n    let observed = observed_addr_json(&conn);\r\n    shared\r\n        .presence\r\n        .lock()\r\n        .unwrap()\r\n        .append_connected(id, &remote_id_hex, observed);\r\n\r\n    // Closed-watcher: the row's exit path. Awaits the connection's end (clean\r\n    // close, conn loss, or our own endpoint close), removes the row — conns\r\n    // finally LEAVE the table — then appends the `disconnected` event (row\r\n    // gone before the event is observable).\r\n    // [impl->REQ-EP-4]\r\n    let sh_close = Arc::clone(shared);\r\n    let conn_close = conn.clone();\r\n    let hex_close = remote_id_hex.clone();\r\n    tokio::spawn(async move {\r\n        conn_close.closed().await;\r\n        sh_close.conns.lock().unwrap().remove(&id);\r\n        sh_close\r\n            .presence\r\n            .lock()\r\n            .unwrap()\r\n            .append(PRESENCE_DISCONNECTED, id, &hex_close);\r\n    });\r\n\r\n    // Inbound-stream acceptor: every peer-opened bidi stream joins the table\r\n    // and gets a read pump. (QUIC streams are lazy — the peer's open becomes\r\n    // visible here on its first write.) Ends when the connection does.\r\n    let sh = Arc::clone(shared);\r\n    let hex = remote_id_hex.clone();\r\n    tokio::spawn(async move {\r\n        while let Ok((send, recv)) = conn.accept_bi().await {\r\n            register_stream(\r\n                &sh,\r\n                id,\r\n                &hex,\r\n                SendHalf::Quic(send),\r\n                RecvHalf::Quic(recv),\r\n                false,\r\n            );\r\n        }\r\n    });\r\n\r\n    (id, remote_id_hex)\r\n}\r\n\r","startLine":531,"lineNumbers":[531,null,537,null,543,null,559,560,561,562,563,564,565,566,567,568,569,570,571,572,573,574,575,576,577,578,579,580,581,582,583,584,585,586,587,588,589,590,591,592,593,594,595,596,597,598,599,600,601,602,603,604,605,606,607,608,609,610,611,612,613,614,615,616,617,618,619,620,621,622,623,624,625,626,627,628,629,630,631,632,633]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\nethost.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1881,"totalBytes":2650,"outputLines":75,"outputBytes":2650,"shownRange":{"start":559,"end":633},"nextOffset":634}}},"isError":false,"timestamp":1784069382437}}
{"type":"message","id":"4e6e9c3e","parentId":"d7dbccf0","timestamp":"2026-07-14T22:49:42.447Z","message":{"role":"toolResult","toolCallId":"call_jVB1vyTaTB5VlZDZYB311cut|fc_0b084cf0b521ab15016a56bd06435881909e523b5253873e50","toolName":"grep","content":[{"type":"text","text":"# spt-core/crates/\n\n## spt-daemon/src/\n### notifsync.rs\n 132|    /// A roster entry for `pk` in `subnet` — the Mesh-D5 gate seed.\n*133|    fn member(subnet: &str, pk: &str) -> spt_store::roster::RosterEntry {\n*134|        spt_store::roster::RosterEntry {\n 135|            pubkey_hex: pk.to_string(),\n 136|            subnet: subnet.to_string(),\n 137|            label: String::new(),\n 138|            machine_id: String::new(),\n*139|            address: None,\n 140|            last_seen: String::new(),\n 141|            lease_epoch: 1,\n 142|        }\n### pairhost.rs\n 119|            roster.clear_tombstone(&outcome.subnet, &outcome.joiner_hex);\n*120|            record_roster_peer(\n 121|                &mut roster,\n 122|                &outcome.subnet,\n 123|                &outcome.joiner_hex,\n...\n 653|    for s in &subnets.subnets {\n*654|        roster.upsert_self(&s.name, self_hex, &label, &machine_id, None, &now, lease);\n 655|    }\n 656|}\n 657|\n...\n 662|// [impl->REQ-MESH-2]\n*663|fn record_roster_peer(\n 664|    roster: &mut RosterStore,\n 665|    subnet: &str,\n 666|    peer_hex: &str,\n...\n 673|    };\n*674|    roster.merge_entry(RosterEntry {\n 675|        pubkey_hex: peer_hex.to_string(),\n 676|        subnet: subnet.to_string(),\n 677|        label,\n 678|        machine_id,\n*679|        address: conn_addr_json(conn),\n 680|        last_seen: now_secs().to_string(),\n 681|        lease_epoch: 0,\n 682|    });\n...\n 699|    {\n*700|        existing.address = Some(addr);\n 701|    } else {\n*702|        roster.merge_entry(RosterEntry {\n 703|            pubkey_hex: peer_hex,\n 704|            subnet: subnet.to_string(),\n 705|            label: String::new(),\n 706|            machine_id: String::new(),\n*707|            address: Some(addr),\n 708|            last_seen: now_secs().to_string(),\n 709|            lease_epoch: 0,\n 710|        });\n### registryhost.rs\n 1163|    /// (`is_member` keys on `(subnet, pubkey)`).\n*1164|    fn member(subnet: &str, pk: &str) -> spt_store::roster::RosterEntry {\n*1165|        spt_store::roster::RosterEntry {\n 1166|            pubkey_hex: pk.to_string(),\n 1167|            subnet: subnet.to_string(),\n 1168|            label: String::new(),\n 1169|            machine_id: String::new(),\n*1170|            address: None,\n 1171|            last_seen: String::new(),\n 1172|            lease_epoch: 1,\n 1173|        }\n### seedproofx.rs\n 833|        let lease_epoch = r.u64()?;\n*834|        entries.push(RosterEntry {\n 835|            pubkey_hex,\n 836|            subnet,\n 837|            label,\n...\n 911|            for s in proven {\n*912|                store.upsert_self(s, &provider_hex, &label, &machine_id, addr.clone(), &now, lease);\n 913|            }\n 914|            let _ = store.save();\n 915|            let mut entries = Vec::new();\n...\n 978|\n*979|    fn entry(pk: &str, subnet: &str, addr: Option<serde_json::Value>, lease: u64) -> RosterEntry {\n*980|        RosterEntry {\n 981|            pubkey_hex: pk.to_string(),\n 982|            subnet: subnet.to_string(),\n 983|            label: format!(\"{pk}-host\"),\n 984|            machine_id: format!(\"{pk}-mid\"),\n*985|            address: addr,\n 986|            last_seen: \"1700000000\".to_string(),\n 987|            lease_epoch: lease,\n 988|        }\n...\n 1135|        // The roster frame for a member of the same subnet.\n*1136|        let entry = RosterEntry {\n 1137|            pubkey_hex: \"aa\".into(),\n 1138|            subnet: \"home\".into(),\n 1139|            label: \"h\".into(),\n 1140|            machine_id: \"m\".into(),\n*1141|            address: Some(serde_json::json!({\"id\": \"aa\"})),\n 1142|            last_seen: \"1\".into(),\n 1143|            lease_epoch: 1,\n 1144|        };\n### sync.rs\n 541|        let mut roster = RosterStore::default();\n*542|        roster.merge_entry(spt_store::roster::RosterEntry {\n 543|            pubkey_hex: peer.to_string(),\n 544|            subnet: subnet.to_string(),\n 545|            label: String::new(),\n 546|            machine_id: String::new(),\n*547|            address: None,\n 548|            last_seen: String::new(),\n 549|            lease_epoch: 1,\n 550|        });\n\n### pump/\n#### mod.rs\n 1164|        use spt_store::roster::{RosterEntry, RosterStore};\n*1165|        let entry = |sub: &str, pk: &str| RosterEntry {\n 1166|            pubkey_hex: pk.to_string(),\n 1167|            subnet: sub.to_string(),\n 1168|            label: String::new(),\n 1169|            machine_id: String::new(),\n*1170|            address: None,\n 1171|            last_seen: String::new(),\n 1172|            lease_epoch: 1,\n 1173|        };\n...\n 1366|        use spt_store::roster::{RosterEntry, RosterStore};\n*1367|        let entry = |sub: &str, pk: &str| RosterEntry {\n 1368|            pubkey_hex: pk.to_string(),\n 1369|            subnet: sub.to_string(),\n 1370|            label: String::new(),\n 1371|            machine_id: String::new(),\n*1372|            address: None,\n 1373|            last_seen: String::new(),\n 1374|            lease_epoch: 1,\n 1375|        };\n\n## spt-net/src/net/\n### registry.rs\n 866|    // [impl->REQ-INST-10]\n*867|    pub fn resolve(&self, address: &Address, local_node: &str) -> Resolution {\n 868|        self.resolve_visible(address, local_node, |_| false)\n 869|    }\n 870|\n...\n 879|        &self,\n*880|        address: &Address,\n 881|        local_node: &str,\n 882|        excluded: impl Fn(&str) -> bool,\n 883|    ) -> Resolution {\n...\n 908|// [impl->REQ-SUBNET-3]\n*909|fn resolve_among(live: &[&Instance], address: &Address, local_node: &str) -> Resolution {\n 910|    if let Some(node) = &address.node {\n 911|        let hits: Vec<&&Instance> = live\n 912|            .iter()\n...\n 958|    subnets: &BTreeMap<String, SubnetRegistry>,\n*959|    address: &Address,\n 960|    local_node: &str,\n 961|) -> Resolution {\n 962|    resolve_across_visible(subnets, address, local_node, |_, _| false)\n...\n 972|    subnets: &BTreeMap<String, SubnetRegistry>,\n*973|    address: &Address,\n 974|    local_node: &str,\n 975|    excluded: impl Fn(&str, &str) -> bool,\n 976|) -> Resolution {\n\n### pairing/\n#### wire.rs\n 680|        let lease_epoch = c.u64()?;\n*681|        roster.push(RosterEntry {\n 682|            pubkey_hex,\n 683|            subnet: String::new(), // implicit — stamped by the joiner on adopt\n 684|            label,\n...\n 994|            let mut resp_roster = RosterStore::default();\n*995|            resp_roster.upsert_self(\"home\", \"alpha\", \"host-a\", \"mid-a\", None, \"10\", 4);\n 996|            resp_roster.tombstone(\"home\", \"ghost\", \"20\");\n 997|            let outcome = run_responder(&conn, resp_pub, &subnets, &resp_roster, &mut rate, NOW)\n 998|                .await\n...\n 1506|        let members = vec![\n*1507|            RosterEntry {\n 1508|                pubkey_hex: \"aa\".into(),\n 1509|                subnet: \"home\".into(), // enc ignores subnet (implicit)\n 1510|                label: \"host-a\".into(),\n 1511|                machine_id: \"mid-a\".into(),\n*1512|                address: Some(serde_json::json!({\"addr\": \"1.2.3.4:5\"})),\n 1513|                last_seen: \"5\".into(),\n 1514|                lease_epoch: 7,\n 1515|            },\n*1516|            RosterEntry {\n 1517|                pubkey_hex: \"bb\".into(),\n 1518|                subnet: \"home\".into(),\n 1519|                label: String::new(),\n 1520|                machine_id: String::new(),\n*1521|                address: None,\n 1522|                last_seen: \"6\".into(),\n 1523|                lease_epoch: 0,\n 1524|            },\n\n## spt-store/src/\n### roster.rs\n 84|#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\n*85|pub struct RosterEntry {\n 86|    /// The member's Ed25519 node pubkey, lowercase hex (the iroh NodeId). The\n 87|    /// merge key within a subnet, and what the mesh dials/seed-proofs.\n 88|    pub pubkey_hex: String,\n...\n 100|    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n*101|    pub address: Option<serde_json::Value>,\n 102|    /// Last-seen stamp (opaque epoch-seconds string).\n 103|    pub last_seen: String,\n 104|    /// The author's `node_label` lease — strictly-greater-wins. Equal/lower on\n...\n 212|    #[allow(clippy::too_many_arguments)]\n*213|    pub fn upsert_self(\n 214|        &mut self,\n 215|        subnet: &str,\n 216|        pubkey_hex: &str,\n...\n 218|        machine_id: &str,\n*219|        address: Option<serde_json::Value>,\n 220|        last_seen: &str,\n 221|        lease_epoch: u64,\n 222|    ) {\n*223|        let entry = RosterEntry {\n 224|            pubkey_hex: pubkey_hex.to_string(),\n 225|            subnet: subnet.to_string(),\n 226|            label: label.to_string(),\n...\n 334|\n*335|    fn entry(subnet: &str, pk: &str, lease: u64) -> RosterEntry {\n*336|        RosterEntry {\n 337|            pubkey_hex: pk.to_string(),\n 338|            subnet: subnet.to_string(),\n 339|            label: format!(\"host-{pk}\"),\n 340|            machine_id: format!(\"mid-{pk}\"),\n*341|            address: None,\n 342|            last_seen: \"100\".to_string(),\n 343|            lease_epoch: lease,\n 344|        }\n...\n 504|        let mut r = RosterStore::default();\n*505|        r.upsert_self(\"home\", \"me\", \"laptop\", \"mid\", None, \"100\", 5);\n 506|        // Even a \"lower\" lease overwrites — self-authoring isn't lease-gated.\n*507|        r.upsert_self(\"home\", \"me\", \"laptop-renamed\", \"mid\", None, \"150\", 3);\n 508|        let me = r.find(\"home\", \"me\").unwrap();\n 509|        assert_eq!(me.label, \"laptop-renamed\");\n 510|        assert_eq!(me.lease_epoch, 3);\n...\n 546|        let mut r = RosterStore::default();\n*547|        r.upsert_self(\n 548|            \"home\",\n 549|            \"me\",\n 550|            \"h\","}],"details":{"scopePath":"spt-core/crates/spt-daemon/src, spt-core/crates/spt-net/src, 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spt-core/crates/\n\n## spt-daemon/src/\n### notifsync.rs\n 132│    /// A roster entry for `pk` in `subnet` — the Mesh-D5 gate seed.\n*133│    fn member(subnet: &str, pk: &str) -> spt_store::roster::RosterEntry {\n*134│        spt_store::roster::RosterEntry {\n 135│            pubkey_hex: pk.to_string(),\n 136│            subnet: subnet.to_string(),\n 137│            label: String::new(),\n 138│            machine_id: String::new(),\n*139│            address: None,\n 140│            last_seen: String::new(),\n 141│            lease_epoch: 1,\n 142│        }\n### pairhost.rs\n 119│            roster.clear_tombstone(&outcome.subnet, &outcome.joiner_hex);\n*120│            record_roster_peer(\n 121│                &mut roster,\n 122│                &outcome.subnet,\n 123│                &outcome.joiner_hex,\n    │...\n 653│    for s in &subnets.subnets {\n*654│        roster.upsert_self(&s.name, self_hex, &label, &machine_id, None, &now, lease);\n 655│    }\n 656│}\n 657│\n    │...\n 662│// [impl->REQ-MESH-2]\n*663│fn record_roster_peer(\n 664│    roster: &mut RosterStore,\n 665│    subnet: &str,\n 666│    peer_hex: &str,\n    │...\n 673│    };\n*674│    roster.merge_entry(RosterEntry {\n 675│        pubkey_hex: peer_hex.to_string(),\n 676│        subnet: subnet.to_string(),\n 677│        label,\n 678│        machine_id,\n*679│        address: conn_addr_json(conn),\n 680│        last_seen: now_secs().to_string(),\n 681│        lease_epoch: 0,\n 682│    });\n    │...\n 699│    {\n*700│        existing.address = Some(addr);\n 701│    } else {\n*702│        roster.merge_entry(RosterEntry {\n 703│            pubkey_hex: peer_hex,\n 704│            subnet: subnet.to_string(),\n 705│            label: String::new(),\n 706│            machine_id: String::new(),\n*707│            address: Some(addr),\n 708│            last_seen: now_secs().to_string(),\n 709│            lease_epoch: 0,\n 710│        });\n### registryhost.rs\n 1163│    /// (`is_member` keys on `(subnet, pubkey)`).\n*1164│    fn member(subnet: &str, pk: &str) -> spt_store::roster::RosterEntry {\n*1165│        spt_store::roster::RosterEntry {\n 1166│            pubkey_hex: pk.to_string(),\n 1167│            subnet: subnet.to_string(),\n 1168│            label: String::new(),\n 1169│            machine_id: String::new(),\n*1170│            address: None,\n 1171│            last_seen: String::new(),\n 1172│            lease_epoch: 1,\n 1173│        }\n### seedproofx.rs\n  833│        let lease_epoch = r.u64()?;\n *834│        entries.push(RosterEntry {\n  835│            pubkey_hex,\n  836│            subnet,\n  837│            label,\n     │...\n  911│            for s in proven {\n *912│                store.upsert_self(s, &provider_hex, &label, &machine_id, addr.clone(), &now, lease);\n  913│            }\n  914│            let _ = store.save();\n  915│            let mut entries = Vec::new();\n     │...\n  978│\n *979│    fn entry(pk: &str, subnet: &str, addr: Option<serde_json::Value>, lease: u64) -> RosterEntry {\n *980│        RosterEntry {\n  981│            pubkey_hex: pk.to_string(),\n  982│            subnet: subnet.to_string(),\n  983│            label: format!(\"{pk}-host\"),\n  984│            machine_id: format!(\"{pk}-mid\"),\n *985│            address: addr,\n  986│            last_seen: \"1700000000\".to_string(),\n  987│            lease_epoch: lease,\n  988│        }\n     │...\n 1135│        // The roster frame for a member of the same subnet.\n*1136│        let entry = RosterEntry {\n 1137│            pubkey_hex: \"aa\".into(),\n 1138│            subnet: \"home\".into(),\n 1139│            label: \"h\".into(),\n 1140│            machine_id: \"m\".into(),\n*1141│            address: Some(serde_json::json!({\"id\": \"aa\"})),\n 1142│            last_seen: \"1\".into(),\n 1143│            lease_epoch: 1,\n 1144│        };\n### sync.rs\n 541│        let mut roster = RosterStore::default();\n*542│        roster.merge_entry(spt_store::roster::RosterEntry {\n 543│            pubkey_hex: peer.to_string(),\n 544│            subnet: subnet.to_string(),\n 545│            label: String::new(),\n 546│            machine_id: String::new(),\n*547│            address: None,\n 548│            last_seen: String::new(),\n 549│            lease_epoch: 1,\n 550│        });\n\n### pump/\n#### mod.rs\n 1164│        use spt_store::roster::{RosterEntry, RosterStore};\n*1165│        let entry = |sub: &str, pk: &str| RosterEntry {\n 1166│            pubkey_hex: pk.to_string(),\n 1167│            subnet: sub.to_string(),\n 1168│            label: String::new(),\n 1169│            machine_id: String::new(),\n*1170│            address: None,\n 1171│            last_seen: String::new(),\n 1172│            lease_epoch: 1,\n 1173│        };\n     │...\n 1366│        use spt_store::roster::{RosterEntry, RosterStore};\n*1367│        let entry = |sub: &str, pk: &str| RosterEntry {\n 1368│            pubkey_hex: pk.to_string(),\n 1369│            subnet: sub.to_string(),\n 1370│            label: String::new(),\n 1371│            machine_id: String::new(),\n*1372│            address: None,\n 1373│            last_seen: String::new(),\n 1374│            lease_epoch: 1,\n 1375│        };\n\n## spt-net/src/net/\n### registry.rs\n 866│    // [impl->REQ-INST-10]\n*867│    pub fn resolve(&self, address: &Address, local_node: &str) -> Resolution {\n 868│        self.resolve_visible(address, local_node, |_| false)\n 869│    }\n 870│\n    │...\n 879│        &self,\n*880│        address: &Address,\n 881│        local_node: &str,\n 882│        excluded: impl Fn(&str) -> bool,\n 883│    ) -> Resolution {\n    │...\n 908│// [impl->REQ-SUBNET-3]\n*909│fn resolve_among(live: &[&Instance], address: &Address, local_node: &str) -> Resolution {\n 910│    if let Some(node) = &address.node {\n 911│        let hits: Vec<&&Instance> = live\n 912│            .iter()\n    │...\n 958│    subnets: &BTreeMap<String, SubnetRegistry>,\n*959│    address: &Address,\n 960│    local_node: &str,\n 961│) -> Resolution {\n 962│    resolve_across_visible(subnets, address, local_node, |_, _| false)\n    │...\n 972│    subnets: &BTreeMap<String, SubnetRegistry>,\n*973│    address: &Address,\n 974│    local_node: &str,\n 975│    excluded: impl Fn(&str, &str) -> bool,\n 976│) -> Resolution {\n\n### pairing/\n#### wire.rs\n  680│        let lease_epoch = c.u64()?;\n *681│        roster.push(RosterEntry {\n  682│            pubkey_hex,\n  683│            subnet: String::new(), // implicit — stamped by the joiner on adopt\n  684│            label,\n     │...\n  994│            let mut resp_roster = RosterStore::default();\n *995│            resp_roster.upsert_self(\"home\", \"alpha\", \"host-a\", \"mid-a\", None, \"10\", 4);\n  996│            resp_roster.tombstone(\"home\", \"ghost\", \"20\");\n  997│            let outcome = run_responder(&conn, resp_pub, &subnets, &resp_roster, &mut rate, NOW)\n  998│                .await\n     │...\n 1506│        let members = vec![\n*1507│            RosterEntry {\n 1508│                pubkey_hex: \"aa\".into(),\n 1509│                subnet: \"home\".into(), // enc ignores subnet (implicit)\n 1510│                label: \"host-a\".into(),\n 1511│                machine_id: \"mid-a\".into(),\n*1512│                address: Some(serde_json::json!({\"addr\": \"1.2.3.4:5\"})),\n 1513│                last_seen: \"5\".into(),\n 1514│                lease_epoch: 7,\n 1515│            },\n*1516│            RosterEntry {\n 1517│                pubkey_hex: \"bb\".into(),\n 1518│                subnet: \"home\".into(),\n 1519│                label: String::new(),\n 1520│                machine_id: String::new(),\n*1521│                address: None,\n 1522│                last_seen: \"6\".into(),\n 1523│                lease_epoch: 0,\n 1524│            },\n\n## spt-store/src/\n### roster.rs\n  84│#[derive(Debug, Clone, PartialEq, Eq, Serialize, Deserialize)]\n *85│pub struct RosterEntry {\n  86│    /// The member's Ed25519 node pubkey, lowercase hex (the iroh NodeId). The\n  87│    /// merge key within a subnet, and what the mesh dials/seed-proofs.\n  88│    pub pubkey_hex: String,\n    │...\n 100│    #[serde(default, skip_serializing_if = \"Option::is_none\")]\n*101│    pub address: Option<serde_json::Value>,\n 102│    /// Last-seen stamp (opaque epoch-seconds string).\n 103│    pub last_seen: String,\n 104│    /// The author's `node_label` lease — strictly-greater-wins. Equal/lower on\n    │...\n 212│    #[allow(clippy::too_many_arguments)]\n*213│    pub fn upsert_self(\n 214│        &mut self,\n 215│        subnet: &str,\n 216│        pubkey_hex: &str,\n    │...\n 218│        machine_id: &str,\n*219│        address: Option<serde_json::Value>,\n 220│        last_seen: &str,\n 221│        lease_epoch: u64,\n 222│    ) {\n*223│        let entry = RosterEntry {\n 224│            pubkey_hex: pubkey_hex.to_string(),\n 225│            subnet: subnet.to_string(),\n 226│            label: label.to_string(),\n    │...\n 334│\n*335│    fn entry(subnet: &str, pk: &str, lease: u64) -> RosterEntry {\n*336│        RosterEntry {\n 337│            pubkey_hex: pk.to_string(),\n 338│            subnet: subnet.to_string(),\n 339│            label: format!(\"host-{pk}\"),\n 340│            machine_id: format!(\"mid-{pk}\"),\n*341│            address: None,\n 342│            last_seen: \"100\".to_string(),\n 343│            lease_epoch: lease,\n 344│        }\n    │...\n 504│        let mut r = RosterStore::default();\n*505│        r.upsert_self(\"home\", \"me\", \"laptop\", \"mid\", None, \"100\", 5);\n 506│        // Even a \"lower\" lease overwrites — self-authoring isn't lease-gated.\n*507│        r.upsert_self(\"home\", \"me\", \"laptop-renamed\", \"mid\", None, \"150\", 3);\n 508│        let me = r.find(\"home\", \"me\").unwrap();\n 509│        assert_eq!(me.label, \"laptop-renamed\");\n 510│        assert_eq!(me.lease_epoch, 3);\n    │...\n 546│        let mut r = RosterStore::default();\n*547│        r.upsert_self(\n 548│            \"home\",\n 549│            \"me\",\n 550│            \"h\","},"isError":false,"timestamp":1784069382447}}
{"type":"message","id":"1e4790cc","parentId":"4e6e9c3e","timestamp":"2026-07-14T22:50:07.677Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Tracing roster exchange address corruption**\n\n**Analyzing gapfill address assignment in roster**\n\n**Identifying self_addr stamping bug in roster**"},{"type":"thinking","thinking":"**Investigating peer address corruption source**\n\n**Analyzing duplicate pubkey entries in gapfill**"},{"type":"toolCall","id":"call_zH2wTomqn68hgP3ogxBQYD3m|fc_0b084cf0b521ab15016a56bd1c68a08190b79dd175628dfe21","name":"irc","arguments":{"i":"Requesting corrupt roster origin","op":"send","to":"Main","message":"Outer 5ff can only be produced by gapfill_peeraddrs(seedproofx.rs:870-879) unless a caller explicitly passes 5ff. Pairing writer and presence writer key by handshake peer hex and should match nested id. Please inspect each node's current roster.json entries where pubkey_hex=5ff50...: does `address.id` equal 5ff or self/opposite? If mismatched, roster propagation is direct source. If current roster is corrected, peer-addrs corruption is historical and persists because gapfill is fill-only and PeerAddrStore validates neither outer key nor nested `id` (peeraddrs.rs:80-93), while no later successful dial can overwrite 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roster exchange address corruption**"},{"type":"summary_text","text":"**Analyzing gapfill address assignment in roster**"},{"type":"summary_text","text":"**Identifying self_addr stamping bug in roster**"}]},{"id":"rs_0b084cf0b521ab15016a56bd1703c48190807181804c48b622","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVr0cVWqDlQdXiKEkZgdE1dGmQToLmrsT4AMDNzHQZ1YHpTfp7r0IPNiy6KyiE1fjhY_1qo5ZaB-amQdrZxSnn4Mo4h50h4vP3U0DqOX1mx8I7YREeI4Hcd2Zy-x1U91v56076YpCbzpHKr0ArTS4iOYbfC6D9MTakn6tVftwZfhmTxbFjnxl18sMxK6oGdl6cFAalR6c9iWg3UOQI34hu9janlTTMXVEO2GdD7_LxjCgyZKtcADrxuXxL_AjvfCMRFTbH0Qg8bencPbj5WuNuKSJ6q9sS8HW__bAXjzCAcqdJSJ9JAVWwH-03wKd4pgPINZN8JJKRviCBRfZxZjpj8tlDFPJO1puSYpjS6NtkV3f6LxAGDLLZ7T30syQ8bypIBLkexa3faIFYU2fT2Cock0IcdAy92o6vUvUwei9Bv3f6WEui7vYUS4-AAr32UK0yW8kRAzAOJw7_5GuL4ZUgdVSO-VLzl-72641pP98dxZPPuyObgBadfi66pYYt9yJh4BQ8ihIlFhfweaa4HEgKxmwrs5F8LkLXpa0yif6ZELJb4YMqAw7Xbxz6hDQgxHi4Ujnx73Z33uzRUGbgh4UOOpMQ-lnaVluAoJCchNZF7kFHpXfNGOlMb39cvy41U2WnZG2fiAb5ZUwfPy2UboEI_dsrNQDkznBZ5vyqd2EQ9e2Og3TUFQC61TanrA3YIonMFbYXkF547wWnjumbAeou7hM9_DsstN3oGaoggK4AsP-YK8vwPPjQtzBomCToRoAWW-DGB4Uw1GTMswrXWWaInAMZ-IZMTqtuqVEzTt8i1a7hsGYEETn_j_nhram8or6ffVR5FJEJOMV8gKdvskIHsAhPLrLN-GN7YPN7aZIA-OMfAsWAdPRnXxYSfi0H26ekebuWd_Si6sJ2DgynAsZbBIvBwmtLbZoetCvPylV9u56gKtujKBVJM-gVvjy0bjYzL5Wk9p-uhQQ_hWsglZOstDGrOc66hq8Jn8TWGFOk8SNx7YKYmuSmy7qJoolVVVyalXNvM-D416YKE7EF1xdtofcIt7G0_5A7H8ba4PfZaPuQHkjOrXrcGAOlN1NpMS3wlyzbLi_UmYx7q1peN9QlXi3-tdka7NNVBLtxnl7ZQoTxzUeOF64o5_GOq2cmhwzG0PvNh3jjTRj7OWq2jyrlVDy-8l1L-omDGNDk9fn85O4k-NEDjPdZbfCdUCW3ZRnf0x2xu54_tLTNX2ADqWf0KkKj4FQy9t3DegJv0-miIS87NwG8muFc9ID-OCb2o23ur6sVZWlMDuH7Xf1lJi50jWgGtzsn8HD-e-TnXhDH6sdZnt8wQWBX_HTlfU43AhDdKKS5D7C6V25uYR3tb1FwBwyXwGKRubOJUj0383pvqXhobnoy5UEZWKHzXoAp_sfwFvRVlcUWkXpQQy_b4jHxAb4Nrj3Re0hMEDtbVQCiSprtAxznsxJ2bRW256T5crgwzulRmpRFD4rINMyOGzCU0oECmVJ55U_kLZMMH90qEGrPx4t1HiWgdmpEdvMy_XSeiddZdxyLY3D9K6h9GVeek2U5qECJTzrvOJYFZWDtZ_XgGu0yVlZvZm-93b4EPv24Ym7JVqyDyjhd5WUakwCgxiqCgAyUssMldSM8TewTEIZG873QvivJRsh5bqdiNNEY_uJW0YF7g2YbC_IYsib-7O3F3Os6SNw-bj-xJoWgq3HjVHPHkMSU8RlC3g4YVZaTj5UJNZNhiH3jcyyu8IsKgtBL1VjErGAWUe5FUgGKQW0iNmt9mVA_u5-nELMUE_f8XBphqv53AwG9At_8lV8ZEsaJ9bYOSE9HIyTjvhftz5Qb-5vv9yR5ZeOXd1Gu14bT4pi-mFCEiEzDa_3XFGw4XrwYdTCW7cCt5W08ilMdnnIwp6Fk6VY8w9DlOkzZYDjgepxib8HXPzh54Ij4nSLtjBt97EasgqGAGdVHmUIWdCGbllBb02q_nVw3LtGSrbhzZ15pbf7gl2htvl64LfUn14U0LzihFGbsQ8fNX6bJ6FMEN3jg64fnG-w4XGLQLqhF9Cp2r3sjkpIQL5VfqcwifcC9DxBa2eOZ8HH6fhbWUdRP6nXm2fMH-Ug5osSLIdxfEaAuk_hYthHfoUEl2ShyIVMAOas71GXsmsLiJ3qnd3uGox5yRMW6wBsahiy9ykW623X0MT8XbYOt_1TcVCRVh4S2qZ92135O4ZPVkLkQxo5qyRrIuFH59lpdUV1-cb2F9lEAEP_Gi8Z_OPFHh19vJAdSy8cRBIms9KNHgk80cPrbeD6ae8VNtpph1mXoCJMY5b_MbMf48CkMCbMMZ_KczAew-ZCnV44RIRW7ZcLc1EU0cs=","summary":[{"type":"summary_text","text":"**Investigating peer address corruption source**"},{"type":"summary_text","text":"**Analyzing duplicate pubkey entries in gapfill**"}]},{"id":"fc_0b084cf0b521ab15016a56bd1c68a08190b79dd175628dfe21","type":"function_call","status":"completed","arguments":"{\"i\":\"Requesting corrupt roster origin\",\"op\":\"send\",\"to\":\"Main\",\"message\":\"Outer 5ff can only be produced by gapfill_peeraddrs(seedproofx.rs:870-879) unless a caller explicitly passes 5ff. Pairing writer and presence writer key by handshake peer hex and should match nested id. Please inspect each node's current roster.json entries where pubkey_hex=5ff50...: does `address.id` equal 5ff or self/opposite? If mismatched, roster propagation is direct source. If current roster is corrected, peer-addrs corruption is historical and persists because gapfill is fill-only and PeerAddrStore validates neither outer key nor nested `id` (peeraddrs.rs:80-93), while no later successful dial can overwrite target-key.\",\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_zH2wTomqn68hgP3ogxBQYD3m","name":"irc"}]},"duration":24915.797700047493,"ttft":4386.186000049114,"contextSnapshot":{"promptTokens":286138,"nonMessageTokens":17981}}}
{"type":"custom","customType":"tool_execution_start","data":{"toolCallId":"call_zH2wTomqn68hgP3ogxBQYD3m|fc_0b084cf0b521ab15016a56bd1c68a08190b79dd175628dfe21","toolName":"irc","startedAt":"2026-07-14T22:50:07.677Z","intent":"Requesting corrupt roster origin"},"id":"16017133","parentId":"1e4790cc","timestamp":"2026-07-14T22:50:07.677Z"}
{"type":"message","id":"05bd1cb3","parentId":"16017133","timestamp":"2026-07-14T22:50:07.677Z","message":{"role":"toolResult","toolCallId":"call_zH2wTomqn68hgP3ogxBQYD3m|fc_0b084cf0b521ab15016a56bd1c68a08190b79dd175628dfe21","toolName":"irc","content":[{"type":"text","text":"Delivered to 1 peer(s):\n- Main: injected"}],"details":{"op":"send","from":"IsolationCodeRCA","to":"Main","receipts":[{"to":"Main","outcome":"injected"}]},"isError":false,"timestamp":1784069407677}}
{"type":"message","id":"6a4dfebb","parentId":"05bd1cb3","timestamp":"2026-07-14T22:50:25.660Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Analyzing peer sequester discrepancy**\n\n**Tracing address seeding regression origins**\n\n**Searching codebase for peer address propagation**"},{"type":"toolCall","id":"call_7Lcm1wPRlXMRxjwiSFsn1yk1|fc_0b084cf0b521ab15016a56bd317a20819086274c21cdfe293d","name":"grep","arguments":{"i":"Finding peer address commit history","pattern":"peeraddr|peer-addrs|roster propagation|Mesh-D4|full mesh|address seed|CONV-1","path":"spt-core/.git/logs; spt-core/.git/COMMIT_EDITMSG","selector":null,"case":false,"gitignore":false,"skip":null}},{"type":"toolCall","id":"call_1MHYXQyvulSWReKaMCUQ1zKG|fc_0b084cf0b521ab15016a56bd317a30819080ae170745344dba","name":"grep","arguments":{"i":"Finding mesh release version","pattern":"Mesh-D4|roster propagation|REQ-MESH-2|full mesh","path":"spt-core/CHANGELOG.md; spt-core/ROADMAP.md; 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{"type":"message","id":"fdce47ea","parentId":"d5e387e0","timestamp":"2026-07-14T22:50:25.677Z","message":{"role":"toolResult","toolCallId":"call_nBV5HaZxLlGhJkbzAcHMRLRi|fc_0b084cf0b521ab15016a56bd317b5481909c0230991149f30e","toolName":"read","content":[{"type":"text","text":"/// is a fan target this round — `is_target`). See [`handle_presence_event`] for\n/// the per-kind rationale.\n// [impl->REQ-PUMP-PEER-ISOLATION]\nfn presence_state_effect(\n    ev: &NetPresenceEvent,\n    conns: &mut HashMap<String, u64>,\n    sched: &mut HashMap<String, PeerSched>,\n    pending: &mut HashSet<String>,\n    peer_addrs: &std::path::Path,\n    is_target: bool,\n    now: Instant,\n) -> bool {\n    match ev.kind.as_str() {\n        PRESENCE_CONNECTED => {\n            conns.insert(ev.remote_id_hex.clone(), ev.conn_id);\n            sched.remove(&ev.remote_id_hex); // live peer → reset backoff\n            pending.remove(&ev.remote_id_hex);\n            // REQ-CONV-1 write-back: seed the OBSERVED addr from the async connect.\n            if !ev.remote_addr.is_null() {\n                let _ =\n                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n            }\n            is_target\n        }\n        PRESENCE_DIAL_FAILED => {\n            eprintln!(\n                \"PUMP_PEER_FAIL:{}:{}\",\n                ev.remote_id_hex,\n                ev.reason.as_deref().unwrap_or(\"dial failed\")\n            );\n            pending.remove(&ev.remote_id_hex);\n            let prev = sched.get(&ev.remote_id_hex).copied();\n            sched.insert(ev.remote_id_hex.clone(), next_peer_backoff(prev, now));\n            // Stale-seed self-heal (REQ-CONV-1): forget the seed so the next\n            // eligible round re-resolves via id-only discovery.\n            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\n            false\n        }\n        PRESENCE_DISCONNECTED => {\n            // Drop the cached conn — redial-eligible immediately, NO backoff (Q3).\n            conns.retain(|_, cid| *cid != ev.conn_id);\n…\n        }\n…\n    }\n}\n…\nfn push_targets(\n…\n) -> Vec<String> {\n    roster\n…\n        .map(|m| m.pubkey_hex.clone())\n        .collect()\n}\n\n/// Resolve the ONE address to submit a non-blocking dial to (M8 decisions 14/20,\n/// REQ-CONV-1 seeded order): the durable last-known address (`peer-addrs.json`)\n/// FIRST — the cold-start fast path that skips the id-only discovery round-trip —\n/// else the injected resolver (production: id-only discovery). A stale seed costs\n/// one failed dial and is then dropped (`PeerAddrStore::drop_seed` on the\n/// resulting `DIAL_FAILED`) so the next eligible round re-resolves via discovery:\n/// a stale addr never strands a peer. The OBSERVED-addr write-back the old\n/// blocking dial carried now rides the `PRESENCE_CONNECTED` event\n/// ([`handle_presence_event`]). `None` = unresolvable right now — the peer\n/// reschedules on its own cadence, never a round failure.\n// [impl->REQ-CONV-1]\nfn resolve_submit_addr(\n    resolver: &PeerResolver,\n    peer_hex: &str,\n    peer_addrs: &std::path::Path,\n) -> Option<serde_json::Value> {\n    if let Some(seeded) = PeerAddrStore::load_from(peer_addrs).get(peer_hex).cloned() {\n        return Some(seeded); // seeded FIRST (cold-start fast path)\n    }\n    resolver(peer_hex) // miss → id-only discovery\n}\n"}],"details":{"displayContent":{"text":"/// is a fan target this round — `is_target`). See [`handle_presence_event`] for\n/// the per-kind rationale.\n// [impl->REQ-PUMP-PEER-ISOLATION]\nfn presence_state_effect(\n    ev: &NetPresenceEvent,\n    conns: &mut HashMap<String, u64>,\n    sched: &mut HashMap<String, PeerSched>,\n    pending: &mut HashSet<String>,\n    peer_addrs: &std::path::Path,\n    is_target: bool,\n    now: Instant,\n) -> bool {\n    match ev.kind.as_str() {\n        PRESENCE_CONNECTED => {\n            conns.insert(ev.remote_id_hex.clone(), ev.conn_id);\n            sched.remove(&ev.remote_id_hex); // live peer → reset backoff\n            pending.remove(&ev.remote_id_hex);\n            // REQ-CONV-1 write-back: seed the OBSERVED addr from the async connect.\n            if !ev.remote_addr.is_null() {\n                let _ =\n                    PeerAddrStore::record(peer_addrs, &ev.remote_id_hex, ev.remote_addr.clone());\n            }\n            is_target\n        }\n        PRESENCE_DIAL_FAILED => {\n            eprintln!(\n                \"PUMP_PEER_FAIL:{}:{}\",\n                ev.remote_id_hex,\n                ev.reason.as_deref().unwrap_or(\"dial failed\")\n            );\n            pending.remove(&ev.remote_id_hex);\n            let prev = sched.get(&ev.remote_id_hex).copied();\n            sched.insert(ev.remote_id_hex.clone(), next_peer_backoff(prev, now));\n            // Stale-seed self-heal (REQ-CONV-1): forget the seed so the next\n            // eligible round re-resolves via id-only discovery.\n            let _ = PeerAddrStore::drop_seed(peer_addrs, &ev.remote_id_hex);\n            false\n        }\n        PRESENCE_DISCONNECTED => {\n            // Drop the cached conn — redial-eligible immediately, NO backoff (Q3).\n            conns.retain(|_, cid| *cid != ev.conn_id);\n…\n        }\n…\n    }\n}\n…\nfn push_targets(\n…\n) -> Vec<String> {\n    roster\n…\n        .map(|m| m.pubkey_hex.clone())\n        .collect()\n}\n\n/// Resolve the ONE address to submit a non-blocking dial to (M8 decisions 14/20,\n/// REQ-CONV-1 seeded order): the durable last-known address (`peer-addrs.json`)\n/// FIRST — the cold-start fast path that skips the id-only discovery round-trip —\n/// else the injected resolver (production: id-only discovery). A stale seed costs\n/// one failed dial and is then dropped (`PeerAddrStore::drop_seed` on the\n/// resulting `DIAL_FAILED`) so the next eligible round re-resolves via discovery:\n/// a stale addr never strands a peer. The OBSERVED-addr write-back the old\n/// blocking dial carried now rides the `PRESENCE_CONNECTED` event\n/// ([`handle_presence_event`]). `None` = unresolvable right now — the peer\n/// reschedules on its own cadence, never a round failure.\n// [impl->REQ-CONV-1]\nfn resolve_submit_addr(\n    resolver: &PeerResolver,\n    peer_hex: &str,\n    peer_addrs: &std::path::Path,\n) -> Option<serde_json::Value> {\n    if let Some(seeded) = PeerAddrStore::load_from(peer_addrs).get(peer_hex).cloned() {\n        return Some(seeded); // seeded FIRST (cold-start fast path)\n    }\n    resolver(peer_hex) // miss → id-only discovery\n}\n","startLine":845,"lineNumbers":[845,846,847,848,849,850,851,852,853,854,855,856,857,858,859,860,861,862,863,864,865,866,867,868,869,870,871,872,873,874,875,876,877,878,879,880,881,882,883,884,885,null,887,null,889,890,null,927,null,931,932,null,935,936,937,938,939,940,941,942,943,944,945,946,947,948,949,950,951,952,953,954,955,956,957,958,959,960]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\pump\\mod.rs"}}},"isError":false,"timestamp":1784069425677}}
{"type":"message","id":"0cc41b58","parentId":"fdce47ea","timestamp":"2026-07-14T22:50:25.871Z","message":{"role":"toolResult","toolCallId":"call_GjQpTQTofUp46aCSvLnXeCOG|fc_0b084cf0b521ab15016a56bd317aec8190a4febc4d973acb58","toolName":"read","content":[{"type":"text","text":"impl PeerAddrStore {\n…\n\n    /// The last-known address for a peer, if one was ever recorded.\n    pub fn get(&self, peer_hex: &str) -> Option<&serde_json::Value> {\n        self.addrs.get(peer_hex)\n    }\n\n    /// Record a peer's freshly-observed address. Returns `true` when the\n    /// stored value changed (callers skip the disk write on a no-op).\n    pub fn put(&mut self, peer_hex: &str, addr: serde_json::Value) -> bool {\n        match self.addrs.get(peer_hex) {\n            Some(prev) if *prev == addr => false,\n            _ => {\n                self.addrs.insert(peer_hex.to_string(), addr);\n                true\n            }\n        }\n    }\n\n    /// Drop a peer's stored address. Returns `true` when a value was removed\n    /// (callers skip the disk write on a no-op). The stale-seed self-heal\n    /// (REQ-CONV-1, PUMP-TRUTH W2): when a non-blocking submit-dial to the seeded\n    /// address FAILS, the pump forgets the stale seed so the next round\n    /// re-resolves via id-only discovery — a stale addr never strands a peer.\n    // [impl->REQ-CONV-1]\n    pub fn forget(&mut self, peer_hex: &str) -> bool {\n        self.addrs.remove(peer_hex).is_some()\n    }\n\n    /// Load → put → save against `path` in one step — the shared writer the\n    /// ceremony legs and the pump use (each write re-reads, so concurrent\n    /// writers lose at most their own update, never tear the file).\n    pub fn record(path: &Path, peer_hex: &str, addr: serde_json::Value) -> std::io::Result<()> {\n        let mut store = Self::load_from(path);\n        if store.put(peer_hex, addr) {\n            store.save_to(path)?;\n        }\n        Ok(())\n    }\n\n    /// Load → forget → save against `path` in one step (the stale-seed drop\n    /// sibling of [`Self::record`]).\n    // [impl->REQ-CONV-1]\n    pub fn drop_seed(path: &Path, peer_hex: &str) -> std::io::Result<()> {\n        let mut store = Self::load_from(path);\n        if store.forget(peer_hex) {\n            store.save_to(path)?;\n        }\n        Ok(())\n    }\n}\n\n[Showing lines 74-123 of 181. Use :124 to continue]"}],"details":{"truncation":{"content":"\r\n    /// The last-known address for a peer, if one was ever recorded.\r\n    pub fn get(&self, peer_hex: &str) -> Option<&serde_json::Value> {\r\n        self.addrs.get(peer_hex)\r\n    }\r\n\r\n    /// Record a peer's freshly-observed address. Returns `true` when the\r\n    /// stored value changed (callers skip the disk write on a no-op).\r\n    pub fn put(&mut self, peer_hex: &str, addr: serde_json::Value) -> bool {\r\n        match self.addrs.get(peer_hex) {\r\n            Some(prev) if *prev == addr => false,\r\n            _ => {\r\n                self.addrs.insert(peer_hex.to_string(), addr);\r\n                true\r\n            }\r\n        }\r\n    }\r\n\r\n    /// Drop a peer's stored address. Returns `true` when a value was removed\r\n    /// (callers skip the disk write on a no-op). The stale-seed self-heal\r\n    /// (REQ-CONV-1, PUMP-TRUTH W2): when a non-blocking submit-dial to the seeded\r\n    /// address FAILS, the pump forgets the stale seed so the next round\r\n    /// re-resolves via id-only discovery — a stale addr never strands a peer.\r\n    // [impl->REQ-CONV-1]\r\n    pub fn forget(&mut self, peer_hex: &str) -> bool {\r\n        self.addrs.remove(peer_hex).is_some()\r\n    }\r\n\r\n    /// Load → put → save against `path` in one step — the shared writer the\r\n    /// ceremony legs and the pump use (each write re-reads, so concurrent\r\n    /// writers lose at most their own update, never tear the file).\r\n    pub fn record(path: &Path, peer_hex: &str, addr: serde_json::Value) -> std::io::Result<()> {\r\n        let mut store = Self::load_from(path);\r\n        if store.put(peer_hex, addr) {\r\n            store.save_to(path)?;\r\n        }\r\n        Ok(())\r\n    }\r\n\r\n    /// Load → forget → save against `path` in one step (the stale-seed drop\r\n    /// sibling of [`Self::record`]).\r\n    // [impl->REQ-CONV-1]\r\n    pub fn drop_seed(path: &Path, peer_hex: &str) -> std::io::Result<()> {\r\n        let mut store = Self::load_from(path);\r\n        if store.forget(peer_hex) {\r\n            store.save_to(path)?;\r\n        }\r\n        Ok(())\r\n    }\r\n}\r","truncated":true,"truncatedBy":"lines","totalLines":108,"totalBytes":2046,"outputLines":50,"outputBytes":2046,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"impl PeerAddrStore {\n…\n\r\n    /// The last-known address for a peer, if one was ever recorded.\r\n    pub fn get(&self, peer_hex: &str) -> Option<&serde_json::Value> {\r\n        self.addrs.get(peer_hex)\r\n    }\r\n\r\n    /// Record a peer's freshly-observed address. Returns `true` when the\r\n    /// stored value changed (callers skip the disk write on a no-op).\r\n    pub fn put(&mut self, peer_hex: &str, addr: serde_json::Value) -> bool {\r\n        match self.addrs.get(peer_hex) {\r\n            Some(prev) if *prev == addr => false,\r\n            _ => {\r\n                self.addrs.insert(peer_hex.to_string(), addr);\r\n                true\r\n            }\r\n        }\r\n    }\r\n\r\n    /// Drop a peer's stored address. Returns `true` when a value was removed\r\n    /// (callers skip the disk write on a no-op). The stale-seed self-heal\r\n    /// (REQ-CONV-1, PUMP-TRUTH W2): when a non-blocking submit-dial to the seeded\r\n    /// address FAILS, the pump forgets the stale seed so the next round\r\n    /// re-resolves via id-only discovery — a stale addr never strands a peer.\r\n    // [impl->REQ-CONV-1]\r\n    pub fn forget(&mut self, peer_hex: &str) -> bool {\r\n        self.addrs.remove(peer_hex).is_some()\r\n    }\r\n\r\n    /// Load → put → save against `path` in one step — the shared writer the\r\n    /// ceremony legs and the pump use (each write re-reads, so concurrent\r\n    /// writers lose at most their own update, never tear the file).\r\n    pub fn record(path: &Path, peer_hex: &str, addr: serde_json::Value) -> std::io::Result<()> {\r\n        let mut store = Self::load_from(path);\r\n        if store.put(peer_hex, addr) {\r\n            store.save_to(path)?;\r\n        }\r\n        Ok(())\r\n    }\r\n\r\n    /// Load → forget → save against `path` in one step (the stale-seed drop\r\n    /// sibling of [`Self::record`]).\r\n    // [impl->REQ-CONV-1]\r\n    pub fn drop_seed(path: &Path, peer_hex: &str) -> std::io::Result<()> {\r\n        let mut store = Self::load_from(path);\r\n        if store.forget(peer_hex) {\r\n            store.save_to(path)?;\r\n        }\r\n        Ok(())\r\n    }\r\n}\r","startLine":44,"lineNumbers":[44,null,74,75,76,77,78,79,80,81,82,83,84,85,86,87,88,89,90,91,92,93,94,95,96,97,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114,115,116,117,118,119,120,121,122,123]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-store\\src\\peeraddrs.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":181,"totalBytes":2046,"outputLines":50,"outputBytes":2046,"shownRange":{"start":74,"end":123},"nextOffset":124}}},"isError":false,"timestamp":1784069425871}}
{"type":"message","id":"9ba6c967","parentId":"0cc41b58","timestamp":"2026-07-14T22:50:25.876Z","message":{"role":"toolResult","toolCallId":"call_1MHYXQyvulSWReKaMCUQ1zKG|fc_0b084cf0b521ab15016a56bd317a30819080ae170745344dba","toolName":"grep","content":[{"type":"text","text":"# spt-core/\n## CHANGELOG.md\n 881|\n*882|- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\n 883|  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\n 884|- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\n 885|- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\n...\n 889|\n*890|- **`spt subnet status --nodes` is much faster when several nodes are offline.** It now checks all the quiet nodes at once, so the view comes back in about the time of a single check instead of stacking the wait up node by node. (This matters more now that a subnet is a full mesh and you see every member.)\n 891|\n 892|### Fixed\n 893|\n## SUBNET-MESH-PLAN.md\n 19|5. **Hard cutover** — delete `peers.json` + the `is_trusted` path, **no migration** (expendable test fleet re-pairs fresh). → REQ-MESH-5.\n*20|6. **Roster** = node-level union-merge grow-set (pubkey, label, machine_id, address, last-seen — **not** the seed), seeded in full at pairing, merged on every member connection under the lease epoch, forgery-inert, persists-through-silence. Removal via **tombstones** (a grow-set can't delete by omission). → REQ-MESH-2.\n 21|7. **Rows** stay own-authored; push target = all roster members; **no third-party relay** → 7.5/4.10 preserved. → REQ-MESH-3.\n 22|8. **Revoke = seed rotation, timeboxed.** `spt subnet revoke <node>...` (list) tombstones now + schedules **one** rotation at a coalescing window close (default 1h; further revokes coalesce → one epoch bump); `--force-rotate-seed` rotates now (compromised path); seed pushed confidentially over member connections, never in gossip; elevation-gated. → REQ-MESH-4.\n 23|9. **Re-seed grace** (auto-heal): prove immediately-prior epoch (N-1) ∧ still on roster → re-seed-only restricted connection; revoked/off-roster denied; ≥2 stale → re-pair. Batch/timebox keeps multi-revoke to one bump so benign offliners stay in the one-deep window. → REQ-MESH-4.\n*24|10. **Re-pair after revoke** clears the tombstone for the presented pubkey (deliberate elevated act; a rebuilt compromised node gets a fresh never-tombstoned key). → REQ-MESH-2.\n 25|11. **Concurrent liveness probes** in `subnet status --nodes` (bounded by the single-probe ceiling, not k×ceiling — the mesh surfaces all members, many offline). → REQ-MESH-6.\n 26|12. **Epoch naming** (no conflation): `seed_epoch` (rotation/revocation) · `lease_epoch` (per-node registry row ordering) · `totp_step` (30s pairing code only).\n 27|\n...\n 29|\n*30|- Pairing-time hostname capture + post-join address seeding (DEFERRED.md) → roster fields delivered at the ceremony (REQ-MESH-2). Reconcile with REQ-CONV-1 `peer-addrs.json` (the roster's address field may absorb or feed it — planning decides the seam).\n*31|- Reconcile with REQ-SUBNET-7 (machine_id re-pair overwrite) — the warn-on-change demotion (REQ-MESH-5) and the tombstone-clear-on-re-pair (REQ-MESH-2) share its machine_id anchor.\n 32|\n 33|## Hazard interaction (the payoff)\n 34|\n...\n 58|\n*59|3. **Mesh-D3 — roster store + tombstones + pairing seed-transfer (REQ-MESH-2 impl/unit).** The union-merge grow-set (per-node self-entry under `lease_epoch`, strictly-greater-wins), tombstones (dominate/suppress-reinsert/clear-on-repair), persist-through-silence, atomic/corrupt-degrades-empty — pure, unit-tested. `Frame::Seed` gains the full current roster; the joiner adopts it at pairing. unit = merge lease + union convergence + tombstone truth table + serde additive + full-roster seed on join. **Ac...\n 60|\n*61|4. **Mesh-D4 — roster propagation (REQ-MESH-2 cont).** On-connect roster exchange/merge over member connections; addresses captured from the live connection (`conn_remote_addr`). Reconcile with REQ-CONV-1 `peer-addrs.json` (absorb or feed — decide here). int = B knows {A,C}; A connects B, A learns C (roster grows transitively). Still no mesh *reach* yet (gate + fan-out are D5/D6).\n 62|\n 63|5. **Mesh-D5 — gate swap + hard cutover (REQ-MESH-1 gate, REQ-MESH-5).** Swap `is_trusted` → the ConnEntry membership flag at all five inbound gates (registry apply, WAN receive, sync, notif, connection accept). **Delete `peers.json` + the `TrustStore` authorization path** (hard cutover, no migration); demote warn-on-change to the machine_id awareness notice. Directly-paired subset still works (fan-out still narrow until D6) — no regression. unit = gate admits a member / rejects a non-member; no `i...\n 64|\n\n[Some lines truncated to 512 chars]"}],"details":{"scopePath":"spt-core/CHANGELOG.md, spt-core/ROADMAP.md, spt-core/SUBNET-MESH-PLAN.md","searchPath":"C:\\Users\\decid\\Documents\\projects\\spt-core","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":8,"fileCount":2,"files":["spt-core/CHANGELOG.md","spt-core/SUBNET-MESH-PLAN.md"],"fileMatches":[{"path":"spt-core/CHANGELOG.md","count":2},{"path":"spt-core/SUBNET-MESH-PLAN.md","count":6}],"truncated":true,"displayContent":"# spt-core/\n## CHANGELOG.md\n 881│\n*882│- **Subnets are now a full mesh.** *(Breaking — see the upgrade note.)* Every machine in a subnet now connects directly to, and shows, **every other member** in `spt subnet status --nodes` — previously you mainly saw the machines you had paired with directly. Membership in the subnet is now what grants trust, replacing the separate per-peer trust list that earlier versions kept.\n 883│  - **Upgrading from 0.2.0:** there is no automatic migration of the old trust list, so after updating, **re-pair your machines into their subnets** (`spt subnet join`, or create + invite from a seed holder) to rebuild membership. Until a machine is re-paired, it won't be reachable in its subnets.\n 884│- **`spt daemon stop` is service-aware.** If a managed service owns the daemon, `stop` asks the service manager to stop it cleanly (so it doesn't immediately restart), instead of signalling the process directly. A hand-started daemon still stops the same way as before.\n 885│- **`spt daemon run` is now strictly foreground on every platform** — it stays attached to your terminal until you stop it (the form the installed service uses). For a background daemon, use `spt daemon start`. On Windows, running `daemon run` from an elevated shell now refuses with a hint rather than silently disappearing into the background.\n    │...\n 889│\n*890│- **`spt subnet status --nodes` is much faster when several nodes are offline.** It now checks all the quiet nodes at once, so the view comes back in about the time of a single check instead of stacking the wait up node by node. (This matters more now that a subnet is a full mesh and you see every member.)\n 891│\n 892│### Fixed\n 893│\n## SUBNET-MESH-PLAN.md\n 19│5. **Hard cutover** — delete `peers.json` + the `is_trusted` path, **no migration** (expendable test fleet re-pairs fresh). → REQ-MESH-5.\n*20│6. **Roster** = node-level union-merge grow-set (pubkey, label, machine_id, address, last-seen — **not** the seed), seeded in full at pairing, merged on every member connection under the lease epoch, forgery-inert, persists-through-silence. Removal via **tombstones** (a grow-set can't delete by omission). → REQ-MESH-2.\n 21│7. **Rows** stay own-authored; push target = all roster members; **no third-party relay** → 7.5/4.10 preserved. → REQ-MESH-3.\n 22│8. **Revoke = seed rotation, timeboxed.** `spt subnet revoke <node>...` (list) tombstones now + schedules **one** rotation at a coalescing window close (default 1h; further revokes coalesce → one epoch bump); `--force-rotate-seed` rotates now (compromised path); seed pushed confidentially over member connections, never in gossip; elevation-gated. → REQ-MESH-4.\n 23│9. **Re-seed grace** (auto-heal): prove immediately-prior epoch (N-1) ∧ still on roster → re-seed-only restricted connection; revoked/off-roster denied; ≥2 stale → re-pair. Batch/timebox keeps multi-revoke to one bump so benign offliners stay in the one-deep window. → REQ-MESH-4.\n*24│10. **Re-pair after revoke** clears the tombstone for the presented pubkey (deliberate elevated act; a rebuilt compromised node gets a fresh never-tombstoned key). → REQ-MESH-2.\n 25│11. **Concurrent liveness probes** in `subnet status --nodes` (bounded by the single-probe ceiling, not k×ceiling — the mesh surfaces all members, many offline). → REQ-MESH-6.\n 26│12. **Epoch naming** (no conflation): `seed_epoch` (rotation/revocation) · `lease_epoch` (per-node registry row ordering) · `totp_step` (30s pairing code only).\n 27│\n   │...\n 29│\n*30│- Pairing-time hostname capture + post-join address seeding (DEFERRED.md) → roster fields delivered at the ceremony (REQ-MESH-2). Reconcile with REQ-CONV-1 `peer-addrs.json` (the roster's address field may absorb or feed it — planning decides the seam).\n*31│- Reconcile with REQ-SUBNET-7 (machine_id re-pair overwrite) — the warn-on-change demotion (REQ-MESH-5) and the tombstone-clear-on-re-pair (REQ-MESH-2) share its machine_id anchor.\n 32│\n 33│## Hazard interaction (the payoff)\n 34│\n   │...\n 58│\n*59│3. **Mesh-D3 — roster store + tombstones + pairing seed-transfer (REQ-MESH-2 impl/unit).** The union-merge grow-set (per-node self-entry under `lease_epoch`, strictly-greater-wins), tombstones (dominate/suppress-reinsert/clear-on-repair), persist-through-silence, atomic/corrupt-degrades-empty — pure, unit-tested. `Frame::Seed` gains the full current roster; the joiner adopts it at pairing. unit = merge lease + union convergence + tombstone truth table + serde additive + full-roster seed on join. **Ac...\n 60│\n*61│4. **Mesh-D4 — roster propagation (REQ-MESH-2 cont).** On-connect roster exchange/merge over member connections; addresses captured from the live connection (`conn_remote_addr`). Reconcile with REQ-CONV-1 `peer-addrs.json` (absorb or feed — decide here). int = B knows {A,C}; A connects B, A learns C (roster grows transitively). Still no mesh *reach* yet (gate + fan-out are D5/D6).\n 62│\n 63│5. **Mesh-D5 — gate swap + hard cutover (REQ-MESH-1 gate, REQ-MESH-5).** Swap `is_trusted` → the ConnEntry membership flag at all five inbound gates (registry apply, WAN receive, sync, notif, connection accept). **Delete `peers.json` + the `TrustStore` authorization path** (hard cutover, no migration); demote warn-on-change to the machine_id awareness notice. Directly-paired subset still works (fan-out still narrow until D6) — no regression. unit = gate admits a member / rejects a non-member; no `i...\n 64│","linesTruncated":true,"meta":{"limits":{"columnTruncated":{"maxColumn":512}}}},"isError":false,"timestamp":1784069425876}}
{"type":"message","id":"ca53a6ca","parentId":"9ba6c967","timestamp":"2026-07-14T22:50:25.882Z","message":{"role":"toolResult","toolCallId":"call_zzxoKjcJkxf8EtX36VL0XYSZ|fc_0b084cf0b521ab15016a56bd317b308190b5d732cb34db1050","toolName":"read","content":[{"type":"text","text":"fn remote_hex(conn: &Connection) -> String {\n…\n}\n\n/// Address-seeding ceremony writer (M8 decisions 14/20, REQ-CONV-1): persist\n/// the peer's OBSERVED address from the live ceremony connection into\n/// `peer-addrs.json`. Both ceremony legs call it on success — the connection\n/// that just carried an authenticated ceremony is the best possible seed for\n/// the pump's next dial. Best-effort and skip-on-pathless: seeding is an\n/// optimization; the id-only discovery path is always behind it.\n// [impl->REQ-CONV-1]\nfn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n    if addr.is_empty() {\n        return; // id-only adds nothing over discovery\n    }\n    let Ok(value) = serde_json::to_value(addr) else {\n        return;\n    };\n    let path = spt_store::peeraddrs::peer_addrs_file();\n    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\n        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\n    }\n}\n\n/// Author this node's own roster self-entry for every subnet it holds\n/// (REQ-MESH-2), so a joiner receiving the roster always learns at least us.\n/// Identity only — the self address is captured from live member connections\n/// (Mesh-D4), not here. Lease = the node's current label epoch (a peek, never a\n/// consume, so the pairing path can't disturb registry ordering).\n// [impl->REQ-MESH-2]\nfn refresh_self_roster(roster: &mut RosterStore, subnets: &SubnetStore, self_hex: &str) {\n    let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\n    let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\n    let lease = spt_store::epoch::EpochSource::load().current();\n    let now = now_secs().to_string();\n    for s in &subnets.subnets {\n        roster.upsert_self(&s.name, self_hex, &label, &machine_id, None, &now, lease);\n    }\n}\n\n/// Record a freshly-paired member into the seed-holder's roster (REQ-MESH-2):\n/// the joiner's self-intro identity + the address observed on the live ceremony\n/// connection. Merged strictly-greater-wins like any peer entry (lease 0 — the\n/// member re-authors at its real lease over a mesh connection, Mesh-D4).\n// [impl->REQ-MESH-2]\nfn record_roster_peer(\n    roster: &mut RosterStore,\n    subnet: &str,\n    peer_hex: &str,\n    intro: Option<&spt_net::net::pairing::wire::NodeIntro>,\n    conn: &Connection,\n) {\n    let (label, machine_id) = match intro {\n        Some(i) => (i.label.clone(), i.machine_id.clone()),\n        None => (String::new(), String::new()),\n    };\n    roster.merge_entry(RosterEntry {\n        pubkey_hex: peer_hex.to_string(),\n        subnet: subnet.to_string(),\n        label,\n        machine_id,\n        address: conn_addr_json(conn),\n        last_seen: now_secs().to_string(),\n        lease_epoch: 0,\n    });\n}\n\n/// Stamp the seed-holder's observed address onto its (already-adopted) roster\n/// entry on the joiner side (REQ-MESH-2) — the joiner learned the responder's\n/// identity from the transferred roster, but not its address (a self-entry\n/// carries none); the live ceremony connection supplies it.\n// [impl->REQ-MESH-2]\nfn stamp_roster_responder(roster: &mut RosterStore, subnet: &str, conn: &Connection) {\n    let peer_hex = remote_hex(conn);\n    let Some(addr) = conn_addr_json(conn) else {\n        return;\n    };\n    if let Some(existing) = roster\n        .members\n        .iter_mut()\n        .find(|m| m.subnet == subnet && m.pubkey_hex == peer_hex)\n    {\n        existing.address = Some(addr);\n    } else {\n        roster.merge_entry(RosterEntry {\n            pubkey_hex: peer_hex,\n            subnet: subnet.to_string(),\n            label: String::new(),\n            machine_id: String::new(),\n            address: Some(addr),\n            last_seen: now_secs().to_string(),\n            lease_epoch: 0,\n        });\n    }\n}\n\n/// The connection's observed remote address as opaque JSON (the roster's\n/// address field, same posture as `peer-addrs.json`). `None` if the address is\n/// pathless or won't serialize.\nfn conn_addr_json(conn: &Connection) -> Option<serde_json::Value> {\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\n    if addr.is_empty() {\n        return None;\n    }\n    serde_json::to_value(addr).ok()\n}\n\n/// Unix seconds — the ceremony clock (TOTP steps + limiter time). This is\n/// the NTP-corrected clock (M8 decision 18, REQ-PAIR-8): the system clock\n/// plus a lazily-queried in-process offset, so a node whose OS clock is\n/// minutes off (enlyzeam) still derives the steps its peers expect — at the\n\n[Showing lines 619-728 of 884. Use :729 to continue]"}],"details":{"truncation":{"content":"}\r\n\r\n/// Address-seeding ceremony writer (M8 decisions 14/20, REQ-CONV-1): persist\r\n/// the peer's OBSERVED address from the live ceremony connection into\r\n/// `peer-addrs.json`. Both ceremony legs call it on success — the connection\r\n/// that just carried an authenticated ceremony is the best possible seed for\r\n/// the pump's next dial. Best-effort and skip-on-pathless: seeding is an\r\n/// optimization; the id-only discovery path is always behind it.\r\n// [impl->REQ-CONV-1]\r\nfn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\r\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\r\n    if addr.is_empty() {\r\n        return; // id-only adds nothing over discovery\r\n    }\r\n    let Ok(value) = serde_json::to_value(addr) else {\r\n        return;\r\n    };\r\n    let path = spt_store::peeraddrs::peer_addrs_file();\r\n    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\r\n        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\r\n    }\r\n}\r\n\r\n/// Author this node's own roster self-entry for every subnet it holds\r\n/// (REQ-MESH-2), so a joiner receiving the roster always learns at least us.\r\n/// Identity only — the self address is captured from live member connections\r\n/// (Mesh-D4), not here. Lease = the node's current label epoch (a peek, never a\r\n/// consume, so the pairing path can't disturb registry ordering).\r\n// [impl->REQ-MESH-2]\r\nfn refresh_self_roster(roster: &mut RosterStore, subnets: &SubnetStore, self_hex: &str) {\r\n    let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\r\n    let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\r\n    let lease = spt_store::epoch::EpochSource::load().current();\r\n    let now = now_secs().to_string();\r\n    for s in &subnets.subnets {\r\n        roster.upsert_self(&s.name, self_hex, &label, &machine_id, None, &now, lease);\r\n    }\r\n}\r\n\r\n/// Record a freshly-paired member into the seed-holder's roster (REQ-MESH-2):\r\n/// the joiner's self-intro identity + the address observed on the live ceremony\r\n/// connection. Merged strictly-greater-wins like any peer entry (lease 0 — the\r\n/// member re-authors at its real lease over a mesh connection, Mesh-D4).\r\n// [impl->REQ-MESH-2]\r\nfn record_roster_peer(\r\n    roster: &mut RosterStore,\r\n    subnet: &str,\r\n    peer_hex: &str,\r\n    intro: Option<&spt_net::net::pairing::wire::NodeIntro>,\r\n    conn: &Connection,\r\n) {\r\n    let (label, machine_id) = match intro {\r\n        Some(i) => (i.label.clone(), i.machine_id.clone()),\r\n        None => (String::new(), String::new()),\r\n    };\r\n    roster.merge_entry(RosterEntry {\r\n        pubkey_hex: peer_hex.to_string(),\r\n        subnet: subnet.to_string(),\r\n        label,\r\n        machine_id,\r\n        address: conn_addr_json(conn),\r\n        last_seen: now_secs().to_string(),\r\n        lease_epoch: 0,\r\n    });\r\n}\r\n\r\n/// Stamp the seed-holder's observed address onto its (already-adopted) roster\r\n/// entry on the joiner side (REQ-MESH-2) — the joiner learned the responder's\r\n/// identity from the transferred roster, but not its address (a self-entry\r\n/// carries none); the live ceremony connection supplies it.\r\n// [impl->REQ-MESH-2]\r\nfn stamp_roster_responder(roster: &mut RosterStore, subnet: &str, conn: &Connection) {\r\n    let peer_hex = remote_hex(conn);\r\n    let Some(addr) = conn_addr_json(conn) else {\r\n        return;\r\n    };\r\n    if let Some(existing) = roster\r\n        .members\r\n        .iter_mut()\r\n        .find(|m| m.subnet == subnet && m.pubkey_hex == peer_hex)\r\n    {\r\n        existing.address = Some(addr);\r\n    } else {\r\n        roster.merge_entry(RosterEntry {\r\n            pubkey_hex: peer_hex,\r\n            subnet: subnet.to_string(),\r\n            label: String::new(),\r\n            machine_id: String::new(),\r\n            address: Some(addr),\r\n            last_seen: now_secs().to_string(),\r\n            lease_epoch: 0,\r\n        });\r\n    }\r\n}\r\n\r\n/// The connection's observed remote address as opaque JSON (the roster's\r\n/// address field, same posture as `peer-addrs.json`). `None` if the address is\r\n/// pathless or won't serialize.\r\nfn conn_addr_json(conn: &Connection) -> Option<serde_json::Value> {\r\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\r\n    if addr.is_empty() {\r\n        return None;\r\n    }\r\n    serde_json::to_value(addr).ok()\r\n}\r\n\r\n/// Unix seconds — the ceremony clock (TOTP steps + limiter time). This is\r\n/// the NTP-corrected clock (M8 decision 18, REQ-PAIR-8): the system clock\r\n/// plus a lazily-queried in-process offset, so a node whose OS clock is\r\n/// minutes off (enlyzeam) still derives the steps its peers expect — at the\r","truncated":true,"truncatedBy":"lines","totalLines":266,"totalBytes":4640,"outputLines":110,"outputBytes":4640,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn remote_hex(conn: &Connection) -> String {\n…\n}\r\n\r\n/// Address-seeding ceremony writer (M8 decisions 14/20, REQ-CONV-1): persist\r\n/// the peer's OBSERVED address from the live ceremony connection into\r\n/// `peer-addrs.json`. Both ceremony legs call it on success — the connection\r\n/// that just carried an authenticated ceremony is the best possible seed for\r\n/// the pump's next dial. Best-effort and skip-on-pathless: seeding is an\r\n/// optimization; the id-only discovery path is always behind it.\r\n// [impl->REQ-CONV-1]\r\nfn record_ceremony_peer_addr(conn: &Connection, peer_hex: &str) {\r\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\r\n    if addr.is_empty() {\r\n        return; // id-only adds nothing over discovery\r\n    }\r\n    let Ok(value) = serde_json::to_value(addr) else {\r\n        return;\r\n    };\r\n    let path = spt_store::peeraddrs::peer_addrs_file();\r\n    if let Err(e) = spt_store::peeraddrs::PeerAddrStore::record(&path, peer_hex, value) {\r\n        eprintln!(\"PEER_ADDR_SEED_FAIL:{peer_hex}: {e}\");\r\n    }\r\n}\r\n\r\n/// Author this node's own roster self-entry for every subnet it holds\r\n/// (REQ-MESH-2), so a joiner receiving the roster always learns at least us.\r\n/// Identity only — the self address is captured from live member connections\r\n/// (Mesh-D4), not here. Lease = the node's current label epoch (a peek, never a\r\n/// consume, so the pairing path can't disturb registry ordering).\r\n// [impl->REQ-MESH-2]\r\nfn refresh_self_roster(roster: &mut RosterStore, subnets: &SubnetStore, self_hex: &str) {\r\n    let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\r\n    let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\r\n    let lease = spt_store::epoch::EpochSource::load().current();\r\n    let now = now_secs().to_string();\r\n    for s in &subnets.subnets {\r\n        roster.upsert_self(&s.name, self_hex, &label, &machine_id, None, &now, lease);\r\n    }\r\n}\r\n\r\n/// Record a freshly-paired member into the seed-holder's roster (REQ-MESH-2):\r\n/// the joiner's self-intro identity + the address observed on the live ceremony\r\n/// connection. Merged strictly-greater-wins like any peer entry (lease 0 — the\r\n/// member re-authors at its real lease over a mesh connection, Mesh-D4).\r\n// [impl->REQ-MESH-2]\r\nfn record_roster_peer(\r\n    roster: &mut RosterStore,\r\n    subnet: &str,\r\n    peer_hex: &str,\r\n    intro: Option<&spt_net::net::pairing::wire::NodeIntro>,\r\n    conn: &Connection,\r\n) {\r\n    let (label, machine_id) = match intro {\r\n        Some(i) => (i.label.clone(), i.machine_id.clone()),\r\n        None => (String::new(), String::new()),\r\n    };\r\n    roster.merge_entry(RosterEntry {\r\n        pubkey_hex: peer_hex.to_string(),\r\n        subnet: subnet.to_string(),\r\n        label,\r\n        machine_id,\r\n        address: conn_addr_json(conn),\r\n        last_seen: now_secs().to_string(),\r\n        lease_epoch: 0,\r\n    });\r\n}\r\n\r\n/// Stamp the seed-holder's observed address onto its (already-adopted) roster\r\n/// entry on the joiner side (REQ-MESH-2) — the joiner learned the responder's\r\n/// identity from the transferred roster, but not its address (a self-entry\r\n/// carries none); the live ceremony connection supplies it.\r\n// [impl->REQ-MESH-2]\r\nfn stamp_roster_responder(roster: &mut RosterStore, subnet: &str, conn: &Connection) {\r\n    let peer_hex = remote_hex(conn);\r\n    let Some(addr) = conn_addr_json(conn) else {\r\n        return;\r\n    };\r\n    if let Some(existing) = roster\r\n        .members\r\n        .iter_mut()\r\n        .find(|m| m.subnet == subnet && m.pubkey_hex == peer_hex)\r\n    {\r\n        existing.address = Some(addr);\r\n    } else {\r\n        roster.merge_entry(RosterEntry {\r\n            pubkey_hex: peer_hex,\r\n            subnet: subnet.to_string(),\r\n            label: String::new(),\r\n            machine_id: String::new(),\r\n            address: Some(addr),\r\n            last_seen: now_secs().to_string(),\r\n            lease_epoch: 0,\r\n        });\r\n    }\r\n}\r\n\r\n/// The connection's observed remote address as opaque JSON (the roster's\r\n/// address field, same posture as `peer-addrs.json`). `None` if the address is\r\n/// pathless or won't serialize.\r\nfn conn_addr_json(conn: &Connection) -> Option<serde_json::Value> {\r\n    let addr = spt_net::net::endpoint::conn_remote_addr(conn);\r\n    if addr.is_empty() {\r\n        return None;\r\n    }\r\n    serde_json::to_value(addr).ok()\r\n}\r\n\r\n/// Unix seconds — the ceremony clock (TOTP steps + limiter time). This is\r\n/// the NTP-corrected clock (M8 decision 18, REQ-PAIR-8): the system clock\r\n/// plus a lazily-queried in-process offset, so a node whose OS clock is\r\n/// minutes off (enlyzeam) still derives the steps its peers expect — at the\r","startLine":615,"lineNumbers":[615,null,619,620,621,622,623,624,625,626,627,628,629,630,631,632,633,634,635,636,637,638,639,640,641,642,643,644,645,646,647,648,649,650,651,652,653,654,655,656,657,658,659,660,661,662,663,664,665,666,667,668,669,670,671,672,673,674,675,676,677,678,679,680,681,682,683,684,685,686,687,688,689,690,691,692,693,694,695,696,697,698,699,700,701,702,703,704,705,706,707,708,709,710,711,712,713,714,715,716,717,718,719,720,721,722,723,724,725,726,727,728]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\pairhost.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":884,"totalBytes":4640,"outputLines":110,"outputBytes":4640,"shownRange":{"start":619,"end":728},"nextOffset":729}}},"isError":false,"timestamp":1784069425882}}
{"type":"message","id":"a3274047","parentId":"ca53a6ca","timestamp":"2026-07-14T22:50:25.890Z","message":{"role":"toolResult","toolCallId":"call_tgaXVi3K9k39uM6KJHrqCxYs|fc_0b084cf0b521ab15016a56bd317ab88190b2b1c93e3c3764a0","toolName":"read","content":[{"type":"text","text":"fn dec_roster(buf: &[u8]) -> Option<(Vec<RosterEntry>, Vec<Tombstone>)> {\n…\n    Some((entries, tombstones))\n}\n\n/// Gap-fill a dial cache from learned roster entries (the seam decision): a\n/// learned member's advertised address seeds `peer-addrs.json` **only when\n/// absent** — a locally-observed address (written by the pump after a real dial)\n/// is fresher and more reachable, so it is never clobbered. Self entries are\n/// skipped. Returns whether anything changed (callers skip the disk write on a\n/// no-op). This is what lets a node that learned C's entry from B's roster later\n/// dial C directly — the Mesh-D6 reach precondition.\n// [impl->REQ-MESH-2]\npub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\n    let mut changed = false;\n    for e in entries {\n        if e.pubkey_hex == self_hex {\n            continue;\n        }\n        if let Some(addr) = &e.address {\n            if pa.get(&e.pubkey_hex).is_none() {\n                changed |= pa.put(&e.pubkey_hex, addr.clone());\n            }\n        }\n    }\n    changed\n}\n\n/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\n/// re-read per connect (rare; honors a concurrent pairing/revoke without a\n/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\n/// provider stamps the node's live address onto its self-entry so peers learn\n/// how to reach it; the sink merges the peer's slice and gap-fills the dial\n/// cache. Used by the real daemon only — tests inject their own exchange.\n// [impl->REQ-MESH-2]\npub fn production_roster_exchange() -> RosterExchange {\n    let self_hex = spt_store::nodeid::load_or_create()\n        .map(|id| id.public_key().to_hex())\n        .unwrap_or_default();\n    let provider_hex = self_hex.clone();\n    RosterExchange {\n        provider: Arc::new(move |proven: &HashSet<String>, self_addr: &serde_json::Value| {\n            let mut store = RosterStore::load();\n            let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\n            let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\n            // Peek, never consume: roster propagation must not disturb the\n            // registry lease counter (the D3 rule).\n            let lease = spt_store::epoch::EpochSource::load().current();\n            let now = now_secs().to_string();\n            let addr = if self_addr.is_null() {\n                None\n            } else {\n                Some(self_addr.clone())\n            };\n            for s in proven {\n                store.upsert_self(s, &provider_hex, &label, &machine_id, addr.clone(), &now, lease);\n            }\n            let _ = store.save();\n            let mut entries = Vec::new();\n            let mut tombstones = Vec::new();\n            for s in proven {\n                let (m, t) = store.roster_for(s);\n                entries.extend(m);\n                tombstones.extend(t);\n            }\n            (entries, tombstones)\n        }),\n        sink: Arc::new(move |entries: Vec<RosterEntry>, tombstones: Vec<Tombstone>| {\n            let mut store = RosterStore::load();\n            for e in &entries {\n                store.merge_entry(e.clone());\n            }\n            for t in &tombstones {\n                store.tombstone(&t.subnet, &t.pubkey_hex, &t.stamp);\n            }\n            let _ = store.save();\n            let path = spt_store::peeraddrs::peer_addrs_file();\n            let mut pa = PeerAddrStore::load_from(&path);\n            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\n                let _ = pa.save_to(&path);\n            }\n        }),\n        // Mesh-D7 (REQ-MESH-4): the peer's roster status gates the grace —\n        // tombstoned ⇒ revoked ⇒ denied; listed ⇒ present; otherwise absent.\n        // Re-read per call so a just-propagated tombstone takes effect at once.\n        member_status: Arc::new(move |subnet: &str, peer_hex: &str| {\n            let store = RosterStore::load();\n…\n        }),\n…\n    }\n}\n\n[Showing lines 859-943 of 1160. Use :944 to continue]"}],"details":{"truncation":{"content":"    Some((entries, tombstones))\r\n}\r\n\r\n/// Gap-fill a dial cache from learned roster entries (the seam decision): a\r\n/// learned member's advertised address seeds `peer-addrs.json` **only when\r\n/// absent** — a locally-observed address (written by the pump after a real dial)\r\n/// is fresher and more reachable, so it is never clobbered. Self entries are\r\n/// skipped. Returns whether anything changed (callers skip the disk write on a\r\n/// no-op). This is what lets a node that learned C's entry from B's roster later\r\n/// dial C directly — the Mesh-D6 reach precondition.\r\n// [impl->REQ-MESH-2]\r\npub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\r\n    let mut changed = false;\r\n    for e in entries {\r\n        if e.pubkey_hex == self_hex {\r\n            continue;\r\n        }\r\n        if let Some(addr) = &e.address {\r\n            if pa.get(&e.pubkey_hex).is_none() {\r\n                changed |= pa.put(&e.pubkey_hex, addr.clone());\r\n            }\r\n        }\r\n    }\r\n    changed\r\n}\r\n\r\n/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\r\n/// re-read per connect (rare; honors a concurrent pairing/revoke without a\r\n/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\r\n/// provider stamps the node's live address onto its self-entry so peers learn\r\n/// how to reach it; the sink merges the peer's slice and gap-fills the dial\r\n/// cache. Used by the real daemon only — tests inject their own exchange.\r\n// [impl->REQ-MESH-2]\r\npub fn production_roster_exchange() -> RosterExchange {\r\n    let self_hex = spt_store::nodeid::load_or_create()\r\n        .map(|id| id.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    let provider_hex = self_hex.clone();\r\n    RosterExchange {\r\n        provider: Arc::new(move |proven: &HashSet<String>, self_addr: &serde_json::Value| {\r\n            let mut store = RosterStore::load();\r\n            let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\r\n            let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\r\n            // Peek, never consume: roster propagation must not disturb the\r\n            // registry lease counter (the D3 rule).\r\n            let lease = spt_store::epoch::EpochSource::load().current();\r\n            let now = now_secs().to_string();\r\n            let addr = if self_addr.is_null() {\r\n                None\r\n            } else {\r\n                Some(self_addr.clone())\r\n            };\r\n            for s in proven {\r\n                store.upsert_self(s, &provider_hex, &label, &machine_id, addr.clone(), &now, lease);\r\n            }\r\n            let _ = store.save();\r\n            let mut entries = Vec::new();\r\n            let mut tombstones = Vec::new();\r\n            for s in proven {\r\n                let (m, t) = store.roster_for(s);\r\n                entries.extend(m);\r\n                tombstones.extend(t);\r\n            }\r\n            (entries, tombstones)\r\n        }),\r\n        sink: Arc::new(move |entries: Vec<RosterEntry>, tombstones: Vec<Tombstone>| {\r\n            let mut store = RosterStore::load();\r\n            for e in &entries {\r\n                store.merge_entry(e.clone());\r\n            }\r\n            for t in &tombstones {\r\n                store.tombstone(&t.subnet, &t.pubkey_hex, &t.stamp);\r\n            }\r\n            let _ = store.save();\r\n            let path = spt_store::peeraddrs::peer_addrs_file();\r\n            let mut pa = PeerAddrStore::load_from(&path);\r\n            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\r\n                let _ = pa.save_to(&path);\r\n            }\r\n        }),\r\n        // Mesh-D7 (REQ-MESH-4): the peer's roster status gates the grace —\r\n        // tombstoned ⇒ revoked ⇒ denied; listed ⇒ present; otherwise absent.\r\n        // Re-read per call so a just-propagated tombstone takes effect at once.\r\n        member_status: Arc::new(move |subnet: &str, peer_hex: &str| {\r\n            let store = RosterStore::load();\r","truncated":true,"truncatedBy":"lines","totalLines":302,"totalBytes":4008,"outputLines":85,"outputBytes":4008,"lastLinePartial":false,"firstLineExceedsLimit":false},"displayContent":{"text":"fn dec_roster(buf: &[u8]) -> Option<(Vec<RosterEntry>, Vec<Tombstone>)> {\n…\n    Some((entries, tombstones))\r\n}\r\n\r\n/// Gap-fill a dial cache from learned roster entries (the seam decision): a\r\n/// learned member's advertised address seeds `peer-addrs.json` **only when\r\n/// absent** — a locally-observed address (written by the pump after a real dial)\r\n/// is fresher and more reachable, so it is never clobbered. Self entries are\r\n/// skipped. Returns whether anything changed (callers skip the disk write on a\r\n/// no-op). This is what lets a node that learned C's entry from B's roster later\r\n/// dial C directly — the Mesh-D6 reach precondition.\r\n// [impl->REQ-MESH-2]\r\npub fn gapfill_peeraddrs(pa: &mut PeerAddrStore, self_hex: &str, entries: &[RosterEntry]) -> bool {\r\n    let mut changed = false;\r\n    for e in entries {\r\n        if e.pubkey_hex == self_hex {\r\n            continue;\r\n        }\r\n        if let Some(addr) = &e.address {\r\n            if pa.get(&e.pubkey_hex).is_none() {\r\n                changed |= pa.put(&e.pubkey_hex, addr.clone());\r\n            }\r\n        }\r\n    }\r\n    changed\r\n}\r\n\r\n/// The production roster exchange: file-backed `RosterStore` + `PeerAddrStore`,\r\n/// re-read per connect (rare; honors a concurrent pairing/revoke without a\r\n/// restart). Wired onto the live host by the daemon after `NetHost::start`. The\r\n/// provider stamps the node's live address onto its self-entry so peers learn\r\n/// how to reach it; the sink merges the peer's slice and gap-fills the dial\r\n/// cache. Used by the real daemon only — tests inject their own exchange.\r\n// [impl->REQ-MESH-2]\r\npub fn production_roster_exchange() -> RosterExchange {\r\n    let self_hex = spt_store::nodeid::load_or_create()\r\n        .map(|id| id.public_key().to_hex())\r\n        .unwrap_or_default();\r\n    let provider_hex = self_hex.clone();\r\n    RosterExchange {\r\n        provider: Arc::new(move |proven: &HashSet<String>, self_addr: &serde_json::Value| {\r\n            let mut store = RosterStore::load();\r\n            let label = spt_store::hostlabel::os_hostname().unwrap_or_default();\r\n            let machine_id = crate::machineid::machine_id_hash().unwrap_or_default();\r\n            // Peek, never consume: roster propagation must not disturb the\r\n            // registry lease counter (the D3 rule).\r\n            let lease = spt_store::epoch::EpochSource::load().current();\r\n            let now = now_secs().to_string();\r\n            let addr = if self_addr.is_null() {\r\n                None\r\n            } else {\r\n                Some(self_addr.clone())\r\n            };\r\n            for s in proven {\r\n                store.upsert_self(s, &provider_hex, &label, &machine_id, addr.clone(), &now, lease);\r\n            }\r\n            let _ = store.save();\r\n            let mut entries = Vec::new();\r\n            let mut tombstones = Vec::new();\r\n            for s in proven {\r\n                let (m, t) = store.roster_for(s);\r\n                entries.extend(m);\r\n                tombstones.extend(t);\r\n            }\r\n            (entries, tombstones)\r\n        }),\r\n        sink: Arc::new(move |entries: Vec<RosterEntry>, tombstones: Vec<Tombstone>| {\r\n            let mut store = RosterStore::load();\r\n            for e in &entries {\r\n                store.merge_entry(e.clone());\r\n            }\r\n            for t in &tombstones {\r\n                store.tombstone(&t.subnet, &t.pubkey_hex, &t.stamp);\r\n            }\r\n            let _ = store.save();\r\n            let path = spt_store::peeraddrs::peer_addrs_file();\r\n            let mut pa = PeerAddrStore::load_from(&path);\r\n            if gapfill_peeraddrs(&mut pa, &self_hex, &entries) {\r\n                let _ = pa.save_to(&path);\r\n            }\r\n        }),\r\n        // Mesh-D7 (REQ-MESH-4): the peer's roster status gates the grace —\r\n        // tombstoned ⇒ revoked ⇒ denied; listed ⇒ present; otherwise absent.\r\n        // Re-read per call so a just-propagated tombstone takes effect at once.\r\n        member_status: Arc::new(move |subnet: &str, peer_hex: &str| {\r\n            let store = RosterStore::load();\r\n…\n        }),\n…\n    }\n}","startLine":817,"lineNumbers":[817,null,859,860,861,862,863,864,865,866,867,868,869,870,871,872,873,874,875,876,877,878,879,880,881,882,883,884,885,886,887,888,889,890,891,892,893,894,895,896,897,898,899,900,901,902,903,904,905,906,907,908,909,910,911,912,913,914,915,916,917,918,919,920,921,922,923,924,925,926,927,928,929,930,931,932,933,934,935,936,937,938,939,940,941,942,943,null,951,null,965,966]},"meta":{"source":{"type":"path","value":"C:\\Users\\decid\\Documents\\projects\\spt-core\\crates\\spt-daemon\\src\\seedproofx.rs"},"truncation":{"direction":"head","truncatedBy":"lines","totalLines":1160,"totalBytes":4008,"outputLines":85,"outputBytes":4008,"shownRange":{"start":859,"end":943},"nextOffset":944}}},"isError":false,"timestamp":1784069425890}}
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350|e57818a277ebbae6371d65f800f7e540b1e6c79b 7271b17b7b279b7bef7f2f1fc0dc376b748b5320 Reavo End <decidel@gmail.com> 1780956935 -0700\tcommit: @\n 351|7271b17b7b279b7bef7f2f1fc0dc376b748b5320 91083efae2ac6e11a113d506f0d8442fe910c402 Reavo End <decidel@gmail.com> 1780956944 -0700\tcommit (amend): fix(mesh): roster-anchor REQ-SUBNET-7 eviction — Mesh-D5b\n\n## refs/heads/\n### dev-freeform\n 329|db9f1bbdc69abf60279377e34cd49eed9418d5e1 862dc2deaa4934434aeb6ebcc0c3d37da4ddd700 Reavo End <decidel@gmail.com> 1780949504 -0700\tcommit: feat(mesh): roster store + tombstones + pairing seed-transfer (REQ-MESH-2) — Mesh-D3\n*330|862dc2deaa4934434aeb6ebcc0c3d37da4ddd700 0c42869024b7158cca6fc6b204ac8fbb30840922 Reavo End <decidel@gmail.com> 1780953369 -0700\tcommit: feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4\n 331|0c42869024b7158cca6fc6b204ac8fbb30840922 e57818a277ebbae6371d65f800f7e540b1e6c79b Reavo End <decidel@gmail.com> 1780955575 -0700\tcommit: 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862dc2deaa4934434aeb6ebcc0c3d37da4ddd700 Reavo End <decidel@gmail.com> 1780949504 -0700\tcommit: feat(mesh): roster store + tombstones + pairing seed-transfer (REQ-MESH-2) — Mesh-D3\n*348│862dc2deaa4934434aeb6ebcc0c3d37da4ddd700 0c42869024b7158cca6fc6b204ac8fbb30840922 Reavo End <decidel@gmail.com> 1780953369 -0700\tcommit: feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4\n 349│0c42869024b7158cca6fc6b204ac8fbb30840922 e57818a277ebbae6371d65f800f7e540b1e6c79b Reavo End <decidel@gmail.com> 1780955575 -0700\tcommit: feat(mesh): swap inbound gates is_trusted->roster is_member (REQ-MESH-5) — Mesh-D5a\n 350│e57818a277ebbae6371d65f800f7e540b1e6c79b 7271b17b7b279b7bef7f2f1fc0dc376b748b5320 Reavo End <decidel@gmail.com> 1780956935 -0700\tcommit: @\n 351│7271b17b7b279b7bef7f2f1fc0dc376b748b5320 91083efae2ac6e11a113d506f0d8442fe910c402 Reavo End <decidel@gmail.com> 1780956944 -0700\tcommit (amend): fix(mesh): roster-anchor REQ-SUBNET-7 eviction — Mesh-D5b\n\n## refs/heads/\n### dev-freeform\n 329│db9f1bbdc69abf60279377e34cd49eed9418d5e1 862dc2deaa4934434aeb6ebcc0c3d37da4ddd700 Reavo End <decidel@gmail.com> 1780949504 -0700\tcommit: feat(mesh): roster store + tombstones + pairing seed-transfer (REQ-MESH-2) — Mesh-D3\n*330│862dc2deaa4934434aeb6ebcc0c3d37da4ddd700 0c42869024b7158cca6fc6b204ac8fbb30840922 Reavo End <decidel@gmail.com> 1780953369 -0700\tcommit: feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4\n 331│0c42869024b7158cca6fc6b204ac8fbb30840922 e57818a277ebbae6371d65f800f7e540b1e6c79b Reavo End <decidel@gmail.com> 1780955575 -0700\tcommit: feat(mesh): swap inbound gates is_trusted->roster is_member (REQ-MESH-5) — Mesh-D5a\n 332│e57818a277ebbae6371d65f800f7e540b1e6c79b 7271b17b7b279b7bef7f2f1fc0dc376b748b5320 Reavo End <decidel@gmail.com> 1780956935 -0700\tcommit: @\n 333│7271b17b7b279b7bef7f2f1fc0dc376b748b5320 91083efae2ac6e11a113d506f0d8442fe910c402 Reavo End <decidel@gmail.com> 1780956944 -0700\tcommit (amend): fix(mesh): roster-anchor REQ-SUBNET-7 eviction — Mesh-D5b"},"isError":false,"timestamp":1784069426364}}
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{"type":"message","id":"4273e309","parentId":"6bec6860","timestamp":"2026-07-14T22:50:45.690Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Planning final structured report generation**"},{"type":"toolCall","id":"call_ul742jZBQVjz74dxGBh4MCOo|fc_0b084cf0b521ab15016a56bd3f1cf481908dc8908e513e8648","name":"irc","arguments":{"i":"Pinning cache regression mechanism","op":"send","to":"Main","message":"Pinned: pump never scans nested `id`; exact `addrs.get(peer_hex)` only (peeraddrs.rs:80-82; pump/mod.rs:951-958). Outer 5ff arises specifically at roster gap-fill: for each incoming `RosterEntry e`, it writes `pa.put(e.pubkey_hex, e.address.clone())` with NO invariant check that `e.address.id == e.pubkey_hex` (seedproofx.rs:862-879); PeerAddrStore::put blindly accepts any JSON under supplied key (peeraddrs.rs:85-93). 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Outer 5ff arises specifically at roster gap-fill: for each incoming `RosterEntry e`, it writes `pa.put(e.pubkey_hex, e.address.clone())` with NO invariant check that `e.address.id == e.pubkey_hex` (seedproofx.rs:862-879); PeerAddrStore::put blindly accepts any JSON under supplied key (peeraddrs.rs:85-93). Other writers derive both sides from same handshake peer (pairhost.rs:628-638; pump/mod.rs:857-866), so symmetric 5ff→opposite strongly implicates a bad roster entry propagated through gapfill. Feature introduction: git log HEAD:348 / refs dev-freeform:330, commit `0c428690… feat(mesh): on-connect roster propagation + peeraddrs reconcile`, epoch 1780953369; released with full mesh 0.3.0 (CHANGELOG:882-883). Caveat: 5ff corruption directly explains HF↔EN mutual cache misses and also poisons reaching actual 5ff. 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{"type":"message","id":"c7528e1a","parentId":"e41a9db8","timestamp":"2026-07-14T22:50:45.691Z","message":{"role":"toolResult","toolCallId":"call_ul742jZBQVjz74dxGBh4MCOo|fc_0b084cf0b521ab15016a56bd3f1cf481908dc8908e513e8648","toolName":"irc","content":[{"type":"text","text":"Delivered to 1 peer(s):\n- Main: injected"}],"details":{"op":"send","from":"IsolationCodeRCA","to":"Main","receipts":[{"to":"Main","outcome":"injected"}]},"isError":false,"timestamp":1784069445690}}
{"type":"message","id":"8a2676df","parentId":"c7528e1a","timestamp":"2026-07-14T22:50:45.691Z","message":{"role":"user","content":"Your current interruptible wait was interrupted because an IRC message arrived from your parent agent `Main`.\n\nParent IRC message:\n\nBoth current roster.json files are correct: every member pubkey_hex equals address.id, including SCELTOUIN 5ff, HF 14ef, EN ecb, with full direct addresses. Both peer-addrs stores are corrupted only at outer 5ff: on HF 5ff→nested EN ecb relay-only; on EN 5ff→nested HF 14ef relay-only. Therefore roster propagation is not the current source; persisted fill-only corruption is likely. Please identify the writer/caller bug capable of assigning the opposite peer under SCELTOUIN's key and whether clearing/rebuilding peer-addrs is a safe diagnostic prediction (do not perform).","attribution":"agent","timestamp":1784069437706,"steering":true}}
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{"type":"message","id":"d0bd2005","parentId":"9b037491","timestamp":"2026-07-14T22:50:55.994Z","message":{"role":"toolResult","toolCallId":"call_ytc5uQl9xjQhJXw4qORTXYLi|fc_0b084cf0b521ab15016a56bd4fe0b88190903f1511bdbc3054","toolName":"grep","content":[{"type":"text","text":"*348|862dc2deaa4934434aeb6ebcc0c3d37da4ddd700 0c42869024b7158cca6fc6b204ac8fbb30840922 Reavo End <decidel@gmail.com> 1780953369 -0700\tcommit: feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4\n 349|0c42869024b7158cca6fc6b204ac8fbb30840922 e57818a277ebbae6371d65f800f7e540b1e6c79b Reavo End <decidel@gmail.com> 1780955575 -0700\tcommit: feat(mesh): swap inbound gates is_trusted->roster is_member (REQ-MESH-5) — Mesh-D5a\n 350|e57818a277ebbae6371d65f800f7e540b1e6c79b 7271b17b7b279b7bef7f2f1fc0dc376b748b5320 Reavo End <decidel@gmail.com> 1780956935 -0700\tcommit: @\n 351|7271b17b7b279b7bef7f2f1fc0dc376b748b5320 91083efae2ac6e11a113d506f0d8442fe910c402 Reavo End <decidel@gmail.com> 1780956944 -0700\tcommit (amend): fix(mesh): roster-anchor REQ-SUBNET-7 eviction — Mesh-D5b"}],"details":{"scopePath":"spt-core/.git/logs/HEAD","searchPath":"C:/Users/decid/Documents/projects/spt-core/.git/logs/HEAD","cwd":"C:\\Users\\decid\\Documents\\projects","matchCount":1,"fileCount":1,"files":["spt-core/.git/logs/HEAD"],"fileMatches":[{"path":"spt-core/.git/logs/HEAD","count":1}],"truncated":false,"displayContent":"*348│862dc2deaa4934434aeb6ebcc0c3d37da4ddd700 0c42869024b7158cca6fc6b204ac8fbb30840922 Reavo End <decidel@gmail.com> 1780953369 -0700\tcommit: feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4\n 349│0c42869024b7158cca6fc6b204ac8fbb30840922 e57818a277ebbae6371d65f800f7e540b1e6c79b Reavo End <decidel@gmail.com> 1780955575 -0700\tcommit: feat(mesh): swap inbound gates is_trusted->roster is_member (REQ-MESH-5) — Mesh-D5a\n 350│e57818a277ebbae6371d65f800f7e540b1e6c79b 7271b17b7b279b7bef7f2f1fc0dc376b748b5320 Reavo End <decidel@gmail.com> 1780956935 -0700\tcommit: @\n 351│7271b17b7b279b7bef7f2f1fc0dc376b748b5320 91083efae2ac6e11a113d506f0d8442fe910c402 Reavo End <decidel@gmail.com> 1780956944 -0700\tcommit (amend): fix(mesh): roster-anchor REQ-SUBNET-7 eviction — Mesh-D5b"},"isError":false,"timestamp":1784069455994}}
{"type":"message","id":"4626b1ff","parentId":"d0bd2005","timestamp":"2026-07-14T22:50:56.288Z","message":{"role":"toolResult","toolCallId":"call_VqhCgoAMSq8aXUdL71xPx2fF|fc_0b084cf0b521ab15016a56bd4fe09c8190bed4001b05d1a244","toolName":"read","content":[{"type":"text","text":"URL: https://github.com/SaberMage/spt-core/commit/862dc2deaa4934434aeb6ebcc0c3d37da4ddd700.patch\nContent-Type: text/plain\nMethod: failed\nNotes: Failed to fetch URL (HTTP 404)\n\n---\n\n"}],"details":{"kind":"url","url":"https://github.com/SaberMage/spt-core/commit/862dc2deaa4934434aeb6ebcc0c3d37da4ddd700.patch","finalUrl":"https://github.com/SaberMage/spt-core/commit/862dc2deaa4934434aeb6ebcc0c3d37da4ddd700.patch","contentType":"text/plain","method":"failed","truncated":false,"notes":["Failed to fetch URL (HTTP 404)"],"meta":{"source":{"type":"url","value":"https://github.com/SaberMage/spt-core/commit/862dc2deaa4934434aeb6ebcc0c3d37da4ddd700.patch"}}},"isError":false,"timestamp":1784069456288}}
{"type":"message","id":"bb87add6","parentId":"4626b1ff","timestamp":"2026-07-14T22:50:56.376Z","message":{"role":"toolResult","toolCallId":"call_Eyv1U3WE818QYjbH6ywzSF0R|fc_0b084cf0b521ab15016a56bd4fe08c8190954fe1336998a174","toolName":"read","content":[{"type":"text","text":"URL: https://github.com/SaberMage/spt-core/commit/0c42869024b7158cca6fc6b204ac8fbb30840922.patch\nContent-Type: text/plain\nMethod: failed\nNotes: Failed to fetch URL (HTTP 404)\n\n---\n\n"}],"details":{"kind":"url","url":"https://github.com/SaberMage/spt-core/commit/0c42869024b7158cca6fc6b204ac8fbb30840922.patch","finalUrl":"https://github.com/SaberMage/spt-core/commit/0c42869024b7158cca6fc6b204ac8fbb30840922.patch","contentType":"text/plain","method":"failed","truncated":false,"notes":["Failed to fetch URL (HTTP 404)"],"meta":{"source":{"type":"url","value":"https://github.com/SaberMage/spt-core/commit/0c42869024b7158cca6fc6b204ac8fbb30840922.patch"}}},"isError":false,"timestamp":1784069456376}}
{"type":"message","id":"25db386c","parentId":"bb87add6","timestamp":"2026-07-14T22:51:19.253Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Evaluating safe prediction clearing impact**\n\n**Analyzing effects of clearing and rebuilding limitations**\n\n**Investigating potential concurrency issues in peer address recording**"},{"type":"thinking","thinking":"**Analyzing roster commit issues**"},{"type":"toolCall","id":"call_mjqqAhV8FBdBLaBo1eyAFkgc|fc_0b084cf0b521ab15016a56bd6098988190ae5faba6ad635653","name":"irc","arguments":{"i":"Answering cache persistence question","op":"send","to":"Main","message":"Current-code writer analysis: only `gapfill_peeraddrs` can naturally pair an arbitrary roster key with an arbitrary embedded address (`put(e.pubkey_hex, e.address.clone())`, seedproofx.rs:870-879), and neither it nor `PeerAddrStore::put` validates key==address.id (peeraddrs.rs:80-93). A historical transient bad incoming 5ff roster row can therefore write 5ff→current-peer; later higher-lease roster merge corrects roster.json, but peer-addrs remains corrupt because gapfill is fill-only (`if pa.get(5ff).is_none()`), and only a successful direct 5ff connection can overwrite 5ff. Pairing writer (pairhost.rs:628-638) and presence writer (pump/mod.rs:857-866) derive key/address from same live conn, so they do not explain this symmetric transpose absent an upstream identity bug. Concurrent record calls can lose updates, not transpose, due load→put→atomic save. Thus exact historical producer is not proven from current artifacts; capability begins commit 0c428690.\nClearing peer-addrs is correctness-safe by design (cache optional; peeraddrs.rs:9-17,50-57), BUT not a good restorative diagnostic here: it does not rebuild from current roster. Gapfill runs only after a successful seed-proof connection (`production_roster_exchange` sink :923-936), so clear alone forces every peer to id-only discovery and predicts the same/all worse timeouts. A deliberately rebuilt cache from current roster would be sharper: if direct addresses/ports current, dials move past 10s transport timeout; if stale, first dial fails then code deletes them and returns to id-only. Do not mutate live state.","replyTo":null,"await":false,"from":null,"timeoutMs":null,"peek":null}}],"api":"openai-codex-responses","provider":"openai-codex","model":"gpt-5.6-sol","usage":{"input":1129,"output":1026,"cacheRead":294400,"cacheWrite":0,"totalTokens":296555,"reasoningTokens":609,"cost":{"input":0.005645000000000001,"output":0.030780000000000002,"cacheRead":0.1472,"cacheWrite":0,"total":0.18362499999999998}},"stopReason":"toolUse","timestamp":1784069456418,"responseId":"resp_0b084cf0b521ab15016a56bd5095f08190989f1ba677f361bb","providerPayload":{"type":"openaiResponsesHistory","provider":"openai-codex","dt":true,"items":[{"id":"rs_0b084cf0b521ab15016a56bd5249b48190a4a030f4a4ac0dfa","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVr1gDGBBiJc6VDRM6UP8l9Qzdj6L7e31eHEzJ_MX8s9k4C2_GPU-3zaBqmnz_pdW5AxN78Yz993j39oMZyErsIExUknZBYvseysaaG5tLAONdVIp4fEWADjidUtVuZYYVLobQkiRc4Cx6bpftz3SBH2jCdJa4JOr17uKx1nI_Fmg6O80FPnkK3YfAJBmxLOxY0RBbEHJDfZrUIDGI1rhbPs6-l7l92P9hkrnvAtMEaWrI5xbLLvGJMLB_dKvUqCOhES0aNFGV4rj-nFb2fBHXYTapN8Y9kEyAfBH4Oe3oqpI_Xjkh4aakXg9-SUTlt5lkblwdW1Jl9Aoanuq66k5qCdk0-kWAvCHnjIOBV0Xts30qui8NbGV1D5kOt5mHluwS21FUDf4HdHK121Q4tpp4RKQCMC3SKI8nrvGvBPCH_F7Os7LHxh_OY1LbIEzHOd-AEmUwGH4Dw-6OfZf7gYBqUU241CibMTIZZG3dS2GH-Wx84LbREY6qvSxZ2EtFb-o6TQgpcTfEroBrTMCgeNrzNnxrksDewWsXCyePmJn-u1aYp-P6wAqcNKBOuKwCl013aZBxbSgVo_eAA2upjD4NX7tnDILh-ABRopY921D7wwx7vk5IQGuDCGPebLoFK2_H7GkzSUjw2A_SaGNTmbZOnfeDjJzw3dwSMdh2yBKjWjsb1LZqgmFZefg7BjebZyTUd5w2DoxCA3fKpPSPX57loWnHeia3wUAeibZuJLgV_aP4WUaL9NBKQ0EunCm7ZkOtbv9jdlDrVVGGiWfExblg8wQBlHBS7KNzG2dm1ubvagI9JizfU8RkDmr2jmjhMJ2e6LaOlcWGRUWLbFFpiSfaYrxpL8r16NOOQqZ7xL0zcSwq0zX93sqgsvTIiQiT-u_qpWepC21C5CHgLkqpAEwN936k6_Sa9f_sbg9HGVTGIzTFIG2v9Pt37WSBAiswi0VFfSiiKXsw5Ii08YdeJfy2sxCCbj1_-RsMAd0XsCY7pLHysqGyv3Urk8nbcgwRbDi1EiRcfQrcwACMr_7L40-eXdnNMWTQtLjFuqk_XhBwAZ4bmMSG63DX46lt5NPl7u69a4buM-SHfBpi8wuFMAeiJPgFmrxyNhJDlI0XHcxXs29Mxa7w91_2Yv-U_ckzXK9aUz_vxcIpWOSnQElKDDrHpaeWhFlX02s3YF1sEaFctSSC6eu94whHrXBGs04PmHJVMIgTfOmxnyTY0CW5jCrR1Vlfgt-Hue5k7kmea0ToWQ_GEYLzH8yS2EooqwhbPmDH0m_nM6JRavK3MzbSZ5D26fDu5QFc2cdJ_7FnMz5szpPwv45Jt33ubKQvjd__P4bVumHg6fdTB2_R4ucR42GjRgFUQgeA6Sp-8UdTuQhUO4X55TdDOyx7eln23iOVw5s5mznOwTdVS9eIXVq7oo3Wsgj6jsadskPTO7ub_xwCY_qLqIygD1oVXc0ip1TEDSg9tgi2tnhdCZHWLLY5NN54sxVh2Ufw9R2PS3Owo0rjOjl9ycIKQDCW2C21kWVu3144aTj70VDQfc86FUGq3XVzmvO26bIL82nl5F7sAbuQIun4h7wIwMUW2-WC5c-iPoJnr8JyBs6xD0WjJe3Jjn1VzdtVmlljTzND9LE2DbGlvYWeg3mp2H_NkbOZAGCrpE03K-EYsvgqIUiie7iXe6K6EWHpSK6FWOPafykT7QzscQZ0cb7jbA84tpHwWmYN2DNATHOw_txWMtVcI1TbrITxdHZVLy-B5WyYZ-C0j1PFNqNhKs-qoCWWSh_AK2wGmZR7OFOYPFldpquvO8mbF2bmEiis5K25H6AJShf5A-_lwDa4AqNf7buoJ63BqY1PdS0bOLP52SLCn5s5DkXUFPFIUxItRRWSyS2rX0O3CNw81KpwAWkJLTNwqFwgMXiSybnfzTqUNnKnRfezo5Vc1nAO_y7130HygGxmBoMsFfwlIZfnjodYWKaLmXH7T1kPlirzSvFuxTJ6M7zhVbQKe9mx0UkjW4j6lRsAKFzdY6eNKwzqoLIm0I0zeuq7DbLdNzIuhAC1NqMGMivZqAU0UETO7-qa8zK4UNSOigV5QkzdLgr4nxmBjxs4Yuzx2SxJA01Yl6d8VQbaxsWpROpOeIb1wdjNjw7Dm4-yp7xgVWevtFHCyKVcBJCMXPc9LXtZcvY1ZVH7iQRHTBLaSTFKW8Fg8jmpN6m0OGZQOTCX5wdbvFeOufI_ZbsuDTnWM6hysDIoMT_7r8ERfz9bEogANcQrzbhsCekbzjXc7tSmdlDoquyv_X11LumNdPBGbdMIfvKW7QoSpBbENAS4dzBVkVPz9m9b9beY9GIXo2XQ0AWOmDC1eoflCIbyYC1YgtcdcnmPEUMKOErtH43bQKjsTK-I5xx3fhEuUI2ckddQhsiSXWNfIWlkuN0F5WhmPYqTzk5bejEBWMftV3t7BSlsQO6JhUNlMOV0ErlE0227fEzNChgDiWw5ijPF8Q8Kd9kRPhREaFIX_N1RQqkuRyUSql37SqJhH21gBN-AntrJXTvztJNM_CYoSSaNWx9IUeHEsSvLmIVo6XiBWHtgNRqKqftEkt09PmOgbNzH21w-3ctBkv_DS8jrL00XUsROTzFbZZh48ykadM8fpwL9Y9wnIv1uxo1wPPSOQQqNr5ssP0e1bxD6YstXw51FoLNZRq5E_J6s194JvRrKYdwq6lfP1dPIBNyh3TxI5UfjvTa2dqh9yg6YBRGo0po27P-dODXTjxa03xVtC3tUVTVvfzsefZ-2KdPvjYa7heIxmpc-QIV9l4nottYogRoYKjKb-KlUpDlb8PbUSLwAN4Qsqt8ElL0kEx4cJZkvlepWOoaGbpSZNRWfsQtd_YrCGZ61uHLXXECPrFM3gdtPtLAWUUvDq82dey3w6FWbODg20M_d28UENJa-jbxm5U-23RKAB5l9M2HA2bqlxUZInTqLfGlXvLl0YgWZHbVAA7Q0-Aqcr8LFUAJW3XdD25Rdoyc9ue23kpWRRkv4XKjF97H28XD0ZlMhRbYyzJe5vWNv7YVhdBoVwbVrp-I3jS7K9FxYxZh398LTIKz4FA95nev473u4lHKGv00Q86PUpR21dBaVMD8-Iyx2gvKU_9DwstSeZ0SeUhpcA75iZETwgnpqCCEXieqBGbhsRohHPNDCELZOEJP9w3_eA6TXB0ughZq6IC5lyQo4xOtlO23xhJ1G4Vv_90MX3xFsHiJUNAHYjp5N7qjnQxXHxH8bIqU27AzqX7QmcyrjmGwp0V2p6DZ_b0YuDhRsm5fR3dCZP_EBZWy_6-gFJr_BHN9oJgkaKApO7rvdcbrDj-ZmMdhK7d75pANMJ2Wu8jlxA9A8FGSye6HO-Q1aPCSzziQ9n03YhzaMdHfE6J0yXKidQEJR__oqTZ9pvzJh8e5gU4uc9aGrMzN8lQSxjG3G5R2biVGZvZWXxS9ewMrgKQRGeCmbVaw81LNDrQlxZQeeqRkJzGbhVd3P7OqtPDtRQtrJNQ4pl8iw9Lc8T71bmuXzTufSFzTy0DydEzGX--ygcaCpAlJCOVZ2BUvgygNvF1kHQfRXOjTmXdE2RV2oj3-rZtiEfNOhupSZgPqLbrzUvASLc7uxXvZJqmovmLYS53-rbBimc0q6H9HewfiiS-6B3__LM9G9IDcODqNoTNw9QxZCEhlFGldXYwf0I4gCfxo-R6BGWz-50v-tUhoqhFWWHiZur7z7_cuIy7mJ3dA9msWZpyog5NWmLJls9w5qHfvowypsLeUI9jbYmuP26CpjnHF38Xw45gcNb7wbx90KF9C3hIaTNm5-DxHv7EvWg-QSHDt03lHwAlrBkBs2pks0iPKxV_fzWSgmGA15Xnx5DVnozWG750fYw-hZcdS8Zs_lAkWap2iK5WR3-Guk3QPocECM4KJQ1wc4RxcFC2-dxWAmC8gDL7SH1n0weUieC4mE41Ztbkm3lhJ-7QoSvHHMqqNTbQW2ZjIenk1EbUX9R4Ec9X5lyIWY_-EhlEB5RfE67VL3l-kMA5glwjWuDIHT0s3VoDnPN5jCIkcImDAIGd7Ij55rEpKpvZ8zWaiTuYEQr94qo98r1J3tyve72e02SmDcATyIEvMOwHBeGP6jZh1oyrzGkc0aaaLqJtuyvCwn-eTQK5PE-eE6Q4EKwpC6L6j9n0e1dDjYxtkvVYyp9OszUYGHllMl0M98D4mUr0sPVFW1C3F8GHV-e-J_5UinZ5mhxh14gvZGrfM4HlKW_29xWlXSZCSkQErs37FBN_HV_7LHlD85cv3V4Xs3At0peAtvMg1rb881dYmEl1KmOlUzo29CXSrKaK4FxzvZUSOKxf3ivKZ9Qrs2T36uSz5x1OvPEH3R1IHWcqkJtE2NIvcl3ZyZrcHkXPuRPBVwF-KxUfYn5UnJbodzm9ZlbfG","summary":[{"type":"summary_text","text":"**Evaluating safe prediction clearing impact**"},{"type":"summary_text","text":"**Analyzing effects of clearing and rebuilding limitations**"},{"type":"summary_text","text":"**Investigating potential concurrency issues in peer address recording**"}]},{"id":"rs_0b084cf0b521ab15016a56bd603148819088ffede642e1048f","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVr1gMFkk1yn8mbGssnscS3YbcLVfADSGBOB0_kS1cZv1xZoUTvPj73dSD5Wz7AWE2QSsSWfv-SxXE-GYVg4oqDZY4zwRqbOUCqNBwoYPdaCZq_RWsndfPZDwSSq9D6iD0nGzFkjf9YXDyUiDB0C_eU1M77wBhJvZuD2NaUsnyLrFCr7xFCUTpXXmeUD_WrS77-fwz2aPj7mYuJzIgcR0bXllsW0ZnwxsLLWwduOtNAPGqaQHZ9njnjTqOg7wvlFVLVNeOk5aNIWhp57hBEK2CkRfW_BwzKQR33v3KC5m19qZfFE_u085Tbe7qcEy6I3Xenwuum0Psac_Li9-0yxhm9mwydqMpZNNoPEdYHHix6OnVeQQyrGPFM075djxYwiMTdlmcOEihoJ-CTR3OrbW9SdO1Ix7CeX45eXFA2mPKpy8tPFJiVAfwpfys5hTAaA506Ilt3AG5E3RIs6T0TxJ1GhSI9NIb_nzmW2Y68od5lWNY5ugG-pNEmo73ZAW0i52ANYkeMXDtZmjP2bujhqR0TJGAX1vkMvEfN5-CW40Gyrff-uNa4CkE1Fzbo5eY1jWtftKod-KBgAWYzJk7JgCHKKkp5p6zjP_dZhMl4Q-a93KTKKA6UT2WvEeHKiBNqPAnM23KcyC3KnusGSD7DvItiM27iYe3ktO56vEfeKZTC8_5mKV7n0ubZ93wFn7pgVv-pEr3XBQBzLy-n2_7ngCof5Oi_AL9xzXVm7c8QujVfIIE3t7Eizqmu5mpHJRTLu6bBcJGkQ2BSSFKEqjKYX-2iQxMnWYF5uw-fSMP40Ec_TRWvrnN2Hm9Vame1iAxdqoaDPfI3LKFFbDGeSFloHZCFQ0INDywtpCMu0RASoCRLdHhzPzeQRx7Rw1KofQQ2IAD6Nz9OPaqopVc_LjSt91rWeUcr3EmYbD7BmzuaHieEKkwkV_1CtziFttUwRrenxPori9BB3fc1iS23gIANGGE7YngmXyvgzVsMlCsTOQ2G2spe5IbxeJYQys6cVKvRhA3t9_NaJmxlLiOSz9TKpGwkYG3wrBTwEvKaEk42UwgTf-1-z0LvbdGryBlPfjaocnneYLWMyNpZf3kaJQUeMFq2--XOo4Lp5W0KqKes4x0XnwpxiYaH2Nu1TxP5qPIH1hYIl-56TCCidxHnFAGzCogWTwm_rdeURa8Ir8Y_f-kSZyzF7CV5rcgqxE9Uf4a-GgRZ8mq0PXz2q42WrXVpsAMFeJEvuVXuAnQGJLHf-AYB-vERSID311p5Qv97yN7FfuhgpbImTB77ft8dQVkZB_9bvNxvBp_Sd_6Sl17nSnooHXfzFaBBfmc087S7YilDBYX0zkWZMImiR1zDrzxHjcWIIeP4ZUXshiuprLg8-7CU5Kf65p_rkKJiCp-lT7qa5_EC3f4z8NSWoz6Tb__p2JBOspbWOwOy3cbh22bK1jaLtZXQFx_5i6xpEyJljWN_vx0IQSxDnV-6Vui7p5uZHRNveq8IWnProKwOckcHCDK0DKHIY=","summary":[{"type":"summary_text","text":"**Analyzing roster commit issues**"}]},{"id":"fc_0b084cf0b521ab15016a56bd6098988190ae5faba6ad635653","type":"function_call","status":"completed","arguments":"{\"i\":\"Answering cache persistence question\",\"op\":\"send\",\"to\":\"Main\",\"message\":\"Current-code writer analysis: only `gapfill_peeraddrs` can naturally pair an arbitrary roster key with an arbitrary embedded address (`put(e.pubkey_hex, e.address.clone())`, seedproofx.rs:870-879), and neither it nor `PeerAddrStore::put` validates key==address.id (peeraddrs.rs:80-93). A historical transient bad incoming 5ff roster row can therefore write 5ff→current-peer; later higher-lease roster merge corrects roster.json, but peer-addrs remains corrupt because gapfill is fill-only (`if pa.get(5ff).is_none()`), and only a successful direct 5ff connection can overwrite 5ff. Pairing writer (pairhost.rs:628-638) and presence writer (pump/mod.rs:857-866) derive key/address from same live conn, so they do not explain this symmetric transpose absent an upstream identity bug. Concurrent record calls can lose updates, not transpose, due load→put→atomic save. Thus exact historical producer is not proven from current artifacts; capability begins commit 0c428690.\\nClearing peer-addrs is correctness-safe by design (cache optional; peeraddrs.rs:9-17,50-57), BUT not a good restorative diagnostic here: it does not rebuild from current roster. Gapfill runs only after a successful seed-proof connection (`production_roster_exchange` sink :923-936), so clear alone forces every peer to id-only discovery and predicts the same/all worse timeouts. A deliberately rebuilt cache from current roster would be sharper: if direct addresses/ports current, dials move past 10s transport timeout; if stale, first dial fails then code deletes them and returns to id-only. Do not mutate live state.\",\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_mjqqAhV8FBdBLaBo1eyAFkgc","name":"irc"}]},"duration":22833.481500029564,"ttft":1897.4609000086784,"contextSnapshot":{"promptTokens":295529,"nonMessageTokens":17981}}}
{"type":"custom","customType":"tool_execution_start","data":{"toolCallId":"call_mjqqAhV8FBdBLaBo1eyAFkgc|fc_0b084cf0b521ab15016a56bd6098988190ae5faba6ad635653","toolName":"irc","startedAt":"2026-07-14T22:51:19.253Z","intent":"Answering cache persistence question"},"id":"360f5705","parentId":"25db386c","timestamp":"2026-07-14T22:51:19.253Z"}
{"type":"message","id":"9823a18f","parentId":"360f5705","timestamp":"2026-07-14T22:51:19.254Z","message":{"role":"toolResult","toolCallId":"call_mjqqAhV8FBdBLaBo1eyAFkgc|fc_0b084cf0b521ab15016a56bd6098988190ae5faba6ad635653","toolName":"irc","content":[{"type":"text","text":"Delivered to 1 peer(s):\n- Main: injected"}],"details":{"op":"send","from":"IsolationCodeRCA","to":"Main","receipts":[{"to":"Main","outcome":"injected"}]},"isError":false,"timestamp":1784069479253}}
{"type":"message","id":"a9fee1c5","parentId":"9823a18f","timestamp":"2026-07-14T22:51:19.254Z","message":{"role":"user","content":"Your current interruptible wait was interrupted because an IRC message arrived from your parent agent `Main`.\n\nParent IRC message:\n\nPotential global chain: pump failure removes exact peer-addrs key; next retry uses id-only discovery and never consults correct durable roster address; transient all-peer failures therefore erase every bootstrap route and make isolation self-perpetuating. Does code establish this, and do current missing exact EN/HF keys plus correct live roster ports satisfy it? Please treat corrupt 5ff as an amplifier/independent invariant defect unless it caused deletion cascade.","attribution":"agent","timestamp":1784069476381,"steering":true}}
{"type":"message","id":"9ccce354","parentId":"a9fee1c5","timestamp":"2026-07-14T22:51:37.927Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Analyzing live roster port staleness**\n\n**Confirming deletion cascade cause**"},{"type":"toolCall","id":"call_knbWKL9ljvdxIuscdFnG8bsq|fc_0b084cf0b521ab15016a56bd6ff0bc8190b21af5313adbc85b","name":"irc","arguments":{"i":"Confirming deletion cascade","op":"send","to":"Main","message":"Yes, code establishes the self-perpetuating chain exactly: (1) target set comes from roster IDs (`push_targets`, pump/mod.rs:920-936); (2) resolver checks ONLY `peer-addrs[peer_hex]`, else id-only (`resolve_submit_addr` :940-958), never `RosterEntry.address`; (3) every `PRESENCE_DIAL_FAILED` unconditionally `drop_seed(peer_hex)` (:869-880); (4) next eligible attempt therefore id-only; (5) correct roster address is copied into peer-addrs only in `production_roster_exchange` sink AFTER a successful seed-proof connection (seedproofx.rs:923-936), so isolation prevents its own repair. Per-peer backoff caps at 5m but does not restore an address. Thus transient fleet-wide failures can erase exact bootstrap routes one peer at a time, then a broken/unavailable id-only path makes isolation durable. Missing exact HF/EN keys + correct current roster addresses satisfy the steady-state signature; all-peer timeout logs satisfy ongoing id-only failure. They do not alone prove the historical first-failure sequence without an older peer-addrs snapshot.\nCorrect framing: corrupt outer 5ff is an independent key/id invariant defect and amplifier (also prevents actual 5ff gapfill). `drop_seed(ecb)`/`drop_seed(14ef)` cannot delete outer 5ff, so 5ff corruption did not cause current-key deletion cascade. It shows the cache accepts/persists invalid mapping, not the global trigger.","replyTo":null,"await":false,"from":null,"timeoutMs":null,"peek":null}}],"api":"openai-codex-responses","provider":"openai-codex","model":"gpt-5.6-sol","usage":{"input":1324,"output":608,"cacheRead":295424,"cacheWrite":0,"totalTokens":297356,"reasoningTokens":239,"cost":{"input":0.006620000000000001,"output":0.01824,"cacheRead":0.14771199999999998,"cacheWrite":0,"total":0.17257199999999998}},"stopReason":"toolUse","timestamp":1784069479256,"responseId":"resp_0b084cf0b521ab15016a56bd67bb8c8190ac0599702722a6eb","providerPayload":{"type":"openaiResponsesHistory","provider":"openai-codex","dt":true,"items":[{"id":"rs_0b084cf0b521ab15016a56bd6aac9c8190827e55919e8d1eae","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVr1veNuzBG9Tx41HzvJ4JBL5v3DpdT4EOEZEShAO6E_xPa1W5Gwq2CZtjKB9ufP3ru4JhH53noSQ_quJWU27g8H2u8xG4UcUZarbnzNsmU4MEPSeKIUgM7ykpAtOokdt6BZ8rTSADZSnTZWrhuwZBzt4pJVKyu-2bYm3qme8YUOGbJG7gf0fXsWjpQi2BXDcM8_vkNePrp99vHJCq1hBf0EWAAVwMDpg9jngyjjfNzdRf65vcw2HSXhpXj7tFDC5eVIK_g4H7UNzYkn6Fb7zrSZgpgZ6F9lBlQWcuTGawwySBxsHjkySpmwCV2zqkjKIxnqqecJigim7c2Xr3eM2C2xzotYBrSAh0fa2m5HtjIeG0VXqROXpN7C-Qz55cHFUAEc-DwkTX6GzoCKzDv72_YsH1WoqVlrJcOq8sxfLPYE-p0Guq7H3wJaOE_Zfsk5qP8pPLG53ExMyZJbwfZAJOAKn5X1TAoDt35iHpGTD90uNQJmog64HZD81c7PJVgxoqYBtz3f7TBTK6QYGB3ASrImrfzN9tYzEwLjMzQaJ1GzvuU_yLm0-KL0gAfX9E4aZeqGLdJAzuPuNSK-BEetGdykqWqXkt3E9f7augS--_jnojQFr4E8MQm3P1x1NLVSSr0lwMaLsZU7iBtHW0F1ldd1QRkxOmeeAxaMGksjW9xI372wGx3lcfM0kaZWLgX1T0DFBDLyxJKOeiIIq4LVoVgi-Dyah00521YWL2y2xVF2HUvHG9W7_zpcO65rZaXt9vhdDMefyN6_S3ojaFmWvaH8DU4FLMvbQcEiuup0bqOz_CNJcbquGHCVnk-9z1zkguWZfVxrpzX0FSTxgawYcwvx-anOMV7mamxKsms_xwYEO3lozbCi5cs1xjGsyWouO_3Wow3mIqRYKUdaS4Nmfz3Y1-VR8_0qkj9cf7UJJ0Ymwie4ufTWGEbPGYzKExYyFw5naXmefMZzMag9fgP-khmAJvm3cVm2yvHfAhFgWFND9nCFjUF29VUoVv88-YFyBVeCKI-gtUR23JP-iRz_kqvToc7aDhWhsxSzWKOf1ynjIrKesrj9XhDNChnECEg9IvUTzMsztt2AKHYwFWAOI3560foHymZ2Ncy4_fxh7qSM0yILukRbZTcxF0g6xhIYjphbP9N8iKQmI6CBlb57Oo634U7VkqVLnNGc30clV76ZgETASBRrsq6uGq8Nj4OcqhshT_uvGpmTdd4Tqm11ABql_UAOPYwmPgRYzfDwleRl65otms1KXD1zaleL4GYy_T2aKAjkZk-gdPlz7Tqo8gCFhOisK-7Gy-fGtF94VITdFqhjfeF5bcoUoLMW2sdc2mD52_MKzIXmre_dNPPdAj8PRAsagSaZ0wjj5UKUVGRE7qSSm0BMrMX8am69GzurFYMywMBnLWgPjjK_AKsnvHxKJ0tKZA-5OZfy8WroIt_NKff6zPIflMDcEVfeZf_I012bApXERolBsD7W8im_XaG8VKyDyJpBGJdYJiNkNaj74K8FgSkPBPO3eRH7yrPdrMC4RvejokMaub3k-AzC8XbsAL7gHGmA7T7LYWtxl52ykWLEuj9cYOWE8hWuifm_nysAx4UckVS7-8INTer4r7BRwj-nqtNBLwRnGpeDJHgb6-zrtN20W_rlsCBxz7BmDXX75B2YWa6fAnmeBbi8EztOrouNUHFH1uZ95BMXvCbrB2Da_gQyABT0VFHy64BdjTDImW8f2lNpHSogANHzk4XsihS6WBDvx_0U25E4n5WqazzcF429qkBbZCRcicm9-v_AF7r-IJ4P5qhW4RbM1uac8ob4Xk1iGeLhbpr5wbm_JplLUMzXEkqeeS6-BsmvBsNyfIx3ECFESqwrQxjNxW0cWYnuWLAeDTcdcfOTrsrcHanMiJVkEnClHA33fQKVmqe-NW5Pd9j7hEh3Xdzggwm4VHQ5xqkkUj5dTto9cJ_Rl-hEKzFHssS83q5AgfBYrxk8L20WFcxihKj5yjAK_JksNPxk22nK8YUN69PbmE9nE71kFkFXUFoip1XvI2RT-moeS33w_Ob2UvAB84k2cfauxtICBFSoR1qSs_LtoxCF10sL0niWJpV1khZp1m4H5Dw6ja0LmFnR7IoSAfo9viy-OrMQQeUn0YO3wNZh9kfjJCMzDSkRCZXbedJJIRUo9far8iQvk2xoYAaChbg00ski_ZIVCc0UBC5fEcX1XHZfaa4UVo0ubY7iOCC1pu2edx2h0nAyX2pTPTotvhphpBibb5R1VWpdeDXxMEP45_rMmhhgR8NjL7SB5Uuonls7t6Nim7urfXwmgztlPS8Kry9kh2DoYEZrza1yiQ93EANv-tL7faeWZx4DJbH9HlAQetFajpb5BFdcvFXHKrVtxQ745eGMVydKZhMvdXLBNvNUOG14GJCc3kUowxKbp8f0ln4aEQ4nsLNsCUpuyEEaFDEuZLCrwXUbT8sUrp44USd2BbficjNZIFj0-tA-aFJnp26HE2fEI2RjPWah7uFWJ0L_ohwGJy0HeYLHfyzuKs_DrSR5cCZhNbBRSAECN_nh3j0Kl68-6uLV1W1u_toN82E_NhA==","summary":[{"type":"summary_text","text":"**Analyzing live roster port staleness**"},{"type":"summary_text","text":"**Confirming deletion cascade cause**"}]},{"id":"fc_0b084cf0b521ab15016a56bd6ff0bc8190b21af5313adbc85b","type":"function_call","status":"completed","arguments":"{\"i\":\"Confirming deletion cascade\",\"op\":\"send\",\"to\":\"Main\",\"message\":\"Yes, code establishes the self-perpetuating chain exactly: (1) target set comes from roster IDs (`push_targets`, pump/mod.rs:920-936); (2) resolver checks ONLY `peer-addrs[peer_hex]`, else id-only (`resolve_submit_addr` :940-958), never `RosterEntry.address`; (3) every `PRESENCE_DIAL_FAILED` unconditionally `drop_seed(peer_hex)` (:869-880); (4) next eligible attempt therefore id-only; (5) correct roster address is copied into peer-addrs only in `production_roster_exchange` sink AFTER a successful seed-proof connection (seedproofx.rs:923-936), so isolation prevents its own repair. Per-peer backoff caps at 5m but does not restore an address. Thus transient fleet-wide failures can erase exact bootstrap routes one peer at a time, then a broken/unavailable id-only path makes isolation durable. Missing exact HF/EN keys + correct current roster addresses satisfy the steady-state signature; all-peer timeout logs satisfy ongoing id-only failure. They do not alone prove the historical first-failure sequence without an older peer-addrs snapshot.\\nCorrect framing: corrupt outer 5ff is an independent key/id invariant defect and amplifier (also prevents actual 5ff gapfill). `drop_seed(ecb)`/`drop_seed(14ef)` cannot delete outer 5ff, so 5ff corruption did not cause current-key deletion cascade. It shows the cache accepts/persists invalid mapping, not the global trigger.\",\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_knbWKL9ljvdxIuscdFnG8bsq","name":"irc"}]},"duration":18670.57910001278,"ttft":3444.2405000329018,"contextSnapshot":{"promptTokens":296748,"nonMessageTokens":17981}}}
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{"type":"message","id":"4c9687aa","parentId":"88a899a7","timestamp":"2026-07-14T22:51:37.928Z","message":{"role":"toolResult","toolCallId":"call_knbWKL9ljvdxIuscdFnG8bsq|fc_0b084cf0b521ab15016a56bd6ff0bc8190b21af5313adbc85b","toolName":"irc","content":[{"type":"text","text":"Delivered to 1 peer(s):\n- Main: injected"}],"details":{"op":"send","from":"IsolationCodeRCA","to":"Main","receipts":[{"to":"Main","outcome":"injected"}]},"isError":false,"timestamp":1784069497928}}
{"type":"message","id":"670c2627","parentId":"4c9687aa","timestamp":"2026-07-14T22:54:01.768Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Summarizing cluster state and logs**\n\n**Analyzing peer timeout hypotheses and diagnostics**"},{"type":"thinking","thinking":"**Listing non-intrusive diagnostic commands**\n\n**Planning comprehensive architecture schema**"},{"type":"toolCall","id":"call_IqUmGUAAVGG56IUZOvUCCBoL|fc_0b084cf0b521ab15016a56bd8d90a08190b16b1ced2acd1063","name":"yield","arguments":{"type":"result","result":{"data":{"summary":"Root-cause investigation outcome: `net_up`, subnet node counts, empty/non-empty node arrays, endpoint visibility, and actual peer reachability come from different state planes. `net_up=true` proves only that the broker owns a locally bound `NetHost`; it does not prove a relay session, any live connection, an accepted seed-proof, a successful dial, or registry convergence. The reported SPT_DEV=4 and BIGNET=3 counts on HFENDULEAM exactly equal durable non-tombstoned roster membership, not reachable peers. `spt subnet status --json` intentionally emits `nodes: []` unless `--nodes` is supplied. Remote endpoints come from persisted registry snapshots; after five minutes without an admitted registry feed, remote rows are evicted, so `endpoint list` naturally collapses to local endpoints.\n\nThe strongest causal chain is an address-bootstrap deletion trap. The pump enumerates peer IDs from `roster.json`, but resolves each target only from the exact `peer-addrs.json` key and otherwise constructs an id-only Iroh address. It never consults the correct `RosterEntry.address` already stored beside that peer. Every failed dial unconditionally deletes that peer's exact cached address. Rebuilding the cache from the roster happens only after a future successful seed-proof connection. Therefore transient failures can erase every direct bootstrap route, and if id-only n0/mDNS discovery is unavailable or broken, isolation becomes self-perpetuating even while the heartbeat remains fresh. The live state fits the steady-state prediction on both HFENDULEAM and ENLYZEAM: exact keys for each other are absent, their current roster entries are correct and carry addresses, and both repeatedly time out dialing each other and all other peers. Historical deletion of those exact keys is strongly implied but cannot be proven without an older `peer-addrs.json` snapshot.\n\nA separate cache-invariant defect is also proven: on both machines the outer key `5ff50e75…` contains an address whose nested `id` is the opposite machine, HF has `5ff… -> ecb39…` and EN has `5ff… -> 14ef…`. The pump never scans nested IDs, so these rows cannot help HF reach EN or EN reach HF. Current code permits this because roster gap-fill writes `RosterEntry.pubkey_hex -> RosterEntry.address` and `PeerAddrStore::put` validates neither shape nor `outer key == nested id`; fill-only semantics then preserve historical corruption after `roster.json` is corrected. This defect amplifies isolation and poisons reachability to the real `5ff…` member, but it did not itself delete the exact HF/EN keys: `drop_seed(ecb…)` and `drop_seed(14ef…)` cannot delete outer `5ff…`.\n\nThe remaining unresolved boundary is what initially and currently makes id-only attempts exceed ten seconds. The same timeout wraps Iroh transport connect plus the mutual seed-proof/roster control stream, so the existing `PUMP_PEER_FAIL:…submit-dial exceeded the 10s bound` token cannot distinguish a QUIC listener/firewall/relay-discovery black hole from a post-QUIC seed-proof/protocol stall. Matching seeds and epochs, empty detach state, healthy bidirectional Tailscale IP reachability, near-zero clock offsets, and both nodes running 0.31.0 lower the probability of membership, clock, detach, and version mismatch. A packet capture or equivalent QUIC-stage observation is the clean discriminator.","files":[{"path":"spt-core/crates/spt/src/cli.rs","description":"Daemon status at 3967-4244; `net_up` is read from broker `enabled` and defaults true on broker/query failure at 4121-4135 and 4223-4233. Subnet membership/count dataflow at 6713-6763. Node-liveness and probe construction at 6914-7465. JSON intentionally emits empty node arrays without `--nodes` at 7253-7341. Endpoint-list local/remote assembly at 2816-3088."},{"path":"spt-core/crates/spt-daemon/src/broker.rs","description":"`dispatch_net_status` at 3818-3840 sets `enabled=true` solely when `self.net.get()` returns a local `NetHost`; it also computes `conn_count`, but CLI daemon status discards that field."},{"path":"spt-core/crates/spt-daemon/src/msg.rs","description":"`NetStatusReply` at 525-538 defines the actual meanings: `enabled` means broker hosts a network endpoint; `addr` is the local endpoint address; `conn_count` is accepted+dialed live broker connections."},{"path":"spt-core/crates/spt-daemon/src/brainproc.rs","description":"At 234-267, a brain polls local broker net status and starts dispatcher+pump once `enabled`; at 309-322 the pump starts only when `peer_pump` is enabled. `BRAIN_NET_CONSUMERS_UP` therefore proves local consumer startup, not peer reachability."},{"path":"spt-core/crates/spt-daemon/src/pump/mod.rs","description":"Core causal path. Heartbeat writes before peer work and during healthy idle operation at 560-579. Per-round roster fanout and nonblocking dials at 603-690. Failed peers are isolated while heartbeat continues. `PRESENCE_DIAL_FAILED` logs and unconditionally drops the exact cache key at 857-881. Fan targets are non-tombstoned roster IDs at 902-936. Address resolution checks only exact `peer-addrs[peer_hex]`, then id-only discovery, at 940-958. No roster-address fallback exists. Supervisor behavior at 1041-1110. Backoff reaches five minutes but does not restore addresses."},{"path":"spt-core/crates/spt-daemon/src/nethost.rs","description":"At 537-558, `DialPlan::connect` performs Iroh endpoint connect, then mutual seed-proof, then registers the connection. At 1089-1150, the same ten-second timeout wraps the whole operation, making the current timeout token stage-ambiguous. At 559-633, `register_conn` and `PRESENCE_CONNECTED` occur only after proof succeeds."},{"path":"spt-core/crates/spt-daemon/src/seedproofx.rs","description":"Membership proof contract at 192-258 and 396-526. Exact seed/epoch mismatch or protocol failure drops the connection. The address-cache invariant defect is at 862-879: gap-fill blindly writes `e.pubkey_hex -> e.address`. Production sink at 923-936 runs gap-fill only after a successful member connection, explaining why isolation cannot self-repair from the already-correct roster. No key-vs-nested-ID validation exists."},{"path":"spt-core/crates/spt-store/src/peeraddrs.rs","description":"At 1-17 the store is documented as an optional bootstrap cache. `get` is exact-key lookup at 79-82. `put` blindly stores arbitrary JSON under the supplied key at 84-94. `drop_seed` removes only the named exact key at 95-121. Missing/corrupt files degrade to empty/id-only discovery, but nothing here rebuilds from the roster."},{"path":"spt-core/crates/spt-store/src/roster.rs","description":"Durable membership model. `is_member` and `members_in` at 164-201 exclude tombstoned rows. The pump and subnet counts consume this roster even when transport is unreachable."},{"path":"spt-core/crates/spt-daemon/src/registryhost.rs","description":"Inbound registry feeds are admitted only for local subnet + non-tombstoned roster origin at 58-88 and 240-334. Admitted feeds stamp `heard.meta`. Silent foreign rows are evicted and snapshots rewritten after `registry_evict_after` at 608-650; snapshot/heard persistence at 706-745. This explains local-only endpoint visibility as a consequence of transport/feed silence."},{"path":"spt-core/crates/spt-daemon/src/pump/registry.rs","description":"Registry worker advertises own rows once per due round and pushes them only after the pump has a peer connection; silent-peer eviction runs before advertisement at 124-157; per-peer feed push at 161-177."},{"path":"spt-core/crates/spt/src/wansend.rs","description":"Snapshot loader at 689-712 silently ignores missing/unparseable snapshots. `probe_node_serving` at 584-610 uses id-only addressing too, so `subnet status --nodes` is not an independent direct-address check."},{"path":"spt-core/crates/spt-net/src/net/endpoint.rs","description":"Network bind and family gating at 140-430; production uses N0 preset plus mDNS. `addr_for_node_hex` at 529-541 constructs an ID-only `EndpointAddr`; it contains no roster/direct addresses. `conn_remote_addr` at 543-559 captures paths only after a real connection."},{"path":"spt-core/crates/spt-daemon/src/daemon.rs","description":"Production network config at 374-404: relay from daemon config, mDNS enabled, all-interface bind, live seed-proof source. `net_up` is `net.is_some()` at 185. A successful local bind is enough for healthy status."},{"path":"spt-core/crates/spt-store/src/attachment.rs","description":"At 1-17 and 74-103, detached state is distinct from held membership and causes the pump/responder to skip a subnet while the daemon/net endpoint may remain healthy."},{"path":"spt-core/crates/spt-store/src/visibility.rs","description":"At 145-153, endpoint visibility can suppress advertisement/routing of selected endpoints. It does not stop node-to-node connections or erase durable member counts. HF live visibility has empty hide maps, excluding this as the observed cause."},{"path":"spt-core/installer/install.ps1","description":"Windows UDP firewall rule creation at 157-180. The rule is program-path scoped. CLI checks only whether a named rule exists, not whether it is enabled, applies to the active profile, or points to the running binary."},{"path":"spt-core/CHANGELOG.md","description":"0.30.1 at 162-171 fixed one silent peer stalling the whole pump; 0.30.2 at 148-158 made dials concurrent and peer-isolated. These fixes allow the heartbeat to stay healthy while every peer independently fails. Full-mesh membership shipped in 0.3.0 at 882-883; address seeding and restart convergence are documented at 933-935."},{"path":"spt-core/.git/logs/HEAD","description":"Line 348 anchors introduction of roster-to-peer-address reconciliation: commit `0c42869024b7158cca6fc6b204ac8fbb30840922`, epoch `1780953369 -0700`, message `feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4`."},{"path":"C:/Users/decid/AppData/Local/spt-core/daemon.json","description":"HF live config evidence: `relay=n0`, `peer_pump=true`, `registry_pump_period_ms=30000`, `registry_evict_after_ms=300000`, `detached_subnets=[]`."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/subnet.json","description":"HF held memberships: SPT_DEV and BIGNET, both epoch 1. Main-agent comparison established EN has the same seeds and epochs."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/attachment.json","description":"HF live detach set is empty; main-agent comparison established EN is also empty."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/roster.json","description":"HF durable roster explains status exactly: SPT_DEV has four non-tombstoned members; BIGNET has three. Current EN key `ecb39e40…` is present; old EN key `39c018a4…` is tombstoned in both subnets. Main-agent comparison established both current rosters have correct key/address-ID pairs and direct addresses."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/peer-addrs.json","description":"HF cache evidence: exact current EN key `ecb39e40…` is absent. Outer SCELTOUIN key `5ff50e75…` incorrectly contains nested EN ID `ecb39e40…`, relay-only. Main-agent EN mirror found outer `5ff50e75…` incorrectly contains nested HF ID `14efb80c…`, relay-only."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/registry/SPT_DEV.json","description":"HF snapshot contains only HF endpoint instances, although node labels retain EN. This is the direct data source behind local-only endpoint listing."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/registry/BIGNET.json","description":"HF snapshot likewise contains only HF instances; remote endpoint rows have decayed."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/registry/heard.meta","description":"HF last admitted EN feed is `ecb39e40…: 1784008794517` epoch-ms, many hours behind the observed fresh pump heartbeat. This establishes control-plane activity without remote feed freshness."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/pump-heartbeat.json","description":"Observed fresh HF heartbeat `1784069117875` epoch-ms. Its freshness proves loop progress only, not any successful peer operation."},{"path":"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log","description":"Lines 1-6 show brain/pump startup; lines 7-10 show independent ten-second timeouts for several peers including current EN `ecb39e40…` and old EN `39c018a4…`, while the process remains up."},{"path":"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log.1","description":"Lines 1-12 show an older run where EN timed out and another peer caused a pump read-deadline failure followed by supervised restart. Lines 20-22 and later `PAIR_MEET_UP` records show rotating pre-trust meet endpoints binding; these are separate identities/ALPNs and do not prove the stable SPT endpoint accepts member traffic."}],"architecture":"CAUSAL DATAFLOW\n\n1. Daemon process and local network status\n\n`Daemon::run` loads the durable node key, calls `try_start_net`, and sets `net_up = net.is_some()` (`daemon.rs:168-185`). `NetHost::start` binds a local Iroh endpoint. The broker stores it in `self.net`; `dispatch_net_status` reports `enabled=true` whenever that local object exists (`broker.rs:3818-3834`). The CLI reports that bit as `net_up`, ignoring `addr` and `conn_count`, and even defaults it to true if broker IPC/status query fails (`cli.rs:4121-4135`). Thus:\n\n`net_up=true` => local broker owns a bound network endpoint\n\nIt does NOT imply:\n- relay registration is usable;\n- mDNS/n0 can resolve another node;\n- Windows permits inbound UDP to the running executable;\n- a QUIC handshake completed;\n- seed-proof completed;\n- `conn_count > 0`;\n- any registry feed was sent or admitted.\n\n2. Peer-pump liveness\n\nThe brain starts the dispatcher and pump once local `enabled=true` (`brainproc.rs:254-267`). The pump writes `pump-heartbeat.json` before loading/fanning out peer work, including idle ticks (`pump/mod.rs:560-579`). Current 0.31 behavior submits peers concurrently and turns each transport/protocol failure into a peer-local backoff (`pump/mod.rs:609-690, 722-790, 857-881`). Therefore a loop that wakes, tries every peer, times every peer out, and backs each off remains heartbeat-healthy. This is intentional after the 0.30.1/0.30.2 fixes, not proof of connectivity.\n\n3. Durable membership and status counts\n\n`subnet_status_rows` iterates held subnet records, inserts self, inserts every non-tombstoned `roster.members_in(subnet)`, then unions any nodes found in registry snapshots (`cli.rs:6731-6762`). It reports the set size, not a live-connection count. HF's live roster yields exactly the observed values:\n- SPT_DEV: HF `14ef…`, current EN `ecb39…`, KITSUBITO `cfd9…`, SCELTOUIN `5ff5…` = 4.\n- BIGNET: HF `14ef…`, current EN `ecb39…`, GRAVITY-RUNNER `c893…` = 3.\n- Old EN `39c0…` is tombstoned and excluded.\n\nThe JSON DTO always has a `nodes` field, but the non-`--nodes` branch explicitly assigns `Vec::new()` (`cli.rs:7319-7341`). Therefore `spt subnet status --json` with `node_count > 0` and `nodes: []` is correct API behavior, not evidence that the runtime discovered zero nodes. The command needed for per-node liveness is `spt subnet status --nodes --json`; note that it actively performs bounded network probes for stale rows, so it is not a purely filesystem-only observation.\n\n4. Endpoint visibility\n\nLocal endpoint rows come from local perch/roster truth. Remote endpoint rows come only from `identity/registry/<subnet>.json`, passed through visibility and routability projection (`cli.rs:3015-3078`; `registry.rs:566-606`). Inbound admitted registry feeds stamp `heard.meta`. Once a peer has not been heard for `registry_evict_after` (HF config: 300,000 ms), `evict_silent_peers` deletes that peer's registry instances and rewrites snapshots (`registryhost.rs:608-650`). Node labels can remain while endpoint rows disappear. Consequently local-only `endpoint list` is the expected downstream symptom of no admitted feeds for over five minutes; it does not establish that durable membership vanished.\n\n5. Peer dialing and the self-perpetuating bootstrap gap\n\nFor each non-detached subnet, the pump gets target IDs from `roster.members_in`, excluding self and tombstones (`pump/mod.rs:902-936`). For each target `peer_hex`, it resolves exactly one address:\n\n`peer-addrs.json.addrs[peer_hex]` if present\notherwise `EndpointAddr::new(peer_id)` for id-only n0/mDNS discovery\n\nThis is `resolve_submit_addr` at `pump/mod.rs:940-958`. It never reads `RosterEntry.address`, even though the roster carries a correct durable address for the same target.\n\nOn every `PRESENCE_DIAL_FAILED`, the pump:\n- logs `PUMP_PEER_FAIL`;\n- schedules peer-local exponential backoff;\n- calls `PeerAddrStore::drop_seed(peer_hex)` unconditionally (`pump/mod.rs:869-880`).\n\nThe next attempt is necessarily id-only. The only steady-state path that copies correct roster addresses back into `peer-addrs.json` is `production_roster_exchange`'s sink, which runs after a successful QUIC + seed-proof connection (`seedproofx.rs:923-936`). That yields a closed recovery loop:\n\ncached direct address fails -> exact key deleted -> id-only discovery fails -> no connection -> roster gap-fill cannot run -> exact key stays absent -> repeat\n\nThis explains how a transient fleet-wide event can become durable global isolation while all local health fields remain green. Current missing exact HF/EN cache keys plus correct current roster addresses are the precise steady-state signature. The all-peer ten-second timeouts on both nodes show the common id-only path is not recovering. What is not directly evidenced is the historical moment at which each exact key was deleted.\n\n6. Independent malformed-cache invariant\n\nOn both nodes, the one malformed cache row uses outer key `5ff50e75…` but contains the opposite machine's nested endpoint ID. The pump performs no nested-ID scan, so that row is useless for the opposite target. It also means the actual `5ff…` target has a cache hit whose TLS/QUIC endpoint identity is not `5ff…`, guaranteeing failure or refusal.\n\nCurrent code admits this state:\n- roster gap-fill writes `pa.put(e.pubkey_hex, e.address.clone())` without checking the serialized address ID (`seedproofx.rs:870-879`);\n- `PeerAddrStore::put` accepts opaque JSON under any key (`peeraddrs.rs:84-94`);\n- gap-fill is fill-only, so a malformed existing `5ff…` row is never replaced by a later correct roster row;\n- a successful direct `5ff…` connection would overwrite it, but the malformed row prevents that bootstrap.\n\nBoth current rosters are now correct, so the exact historical bad input is gone. The likely historical writer is the roster gap-fill path during a transient bad incoming `5ff…` roster entry; a later higher-lease roster merge corrected `roster.json` while fill-only peer cache state remained. This is an inference, not a proven historical event. Pairing and presence writers derive the key and address from the same live connection and therefore do not naturally create this cross-key mapping. Concurrent cache writes can lose an update but cannot transpose a key and nested ID.\n\nThe capability was introduced by commit `0c42869024b7158cca6fc6b204ac8fbb30840922` (`.git/logs/HEAD:348`), the Mesh-D4 roster/peer-address reconciliation change, and shipped with the 0.3.0 full-mesh model (`CHANGELOG.md:882-883`).\n\nRANKED HYPOTHESES\n\n1. HIGH: Direct-address deletion cascade plus unusable id-only discovery.\n\nEvidence:\n- Exact HF and EN cache keys are absent on the opposite machines.\n- Both correct rosters still carry the addresses, but code never consults them while dialing.\n- Both logs show repeated all-peer ten-second failures.\n- Failure unconditionally deletes each target's exact seed; no roster recovery can run without success.\n- Fresh heartbeat and `net_up` are expected under this failure mode.\n\nPredictions:\n- For every repeatedly failing peer, either the exact cache key is absent or was removed after the first failure.\n- Correct direct addresses may still exist in `roster.json` and remain unused.\n- Clearing `peer-addrs.json` alone will not repair the node; it forces all peers to id-only and likely leaves behavior unchanged or worse.\n- A controlled cache rebuilt from verified-current roster/live endpoint addresses would move attempts past address discovery. If those ports are stale, the first failure will delete them and return to id-only.\n- If id-only n0/mDNS starts working, a success will immediately repopulate the exact target key from `PRESENCE_CONNECTED` and convergence will resume within a pump cadence.\n\n2. HIGH-MEDIUM: Stable SPT QUIC transport/listener path is black-holed by firewall, current-port discovery, relay registration, or ALPN reachability.\n\nEvidence:\n- Both nodes can bind network and rotating meet endpoints, and Tailscale IP transport is healthy, but every stable peer dial times out.\n- The Windows installer itself documents detached daemons being silently unreachable without a program-scoped inbound UDP rule (`install.ps1:157-180`).\n- `net_up` does not test incoming UDP, relay registration, or a remote handshake.\n- `PAIR_MEET_UP` uses temporary token-derived identities and the pre-trust meet ALPN, not the stable node ID/member ALPN.\n- `NET_FAMILY_GATE` selected IPv4-only on HF, making current IPv4 UDP listener/rule/path evidence especially relevant.\n\nPredictions:\n- Packet capture shows outbound QUIC Initial packets but no peer Handshake response if transport/listener/firewall is the boundary.\n- The named firewall rule may exist yet be disabled, profile-inapplicable, or point to a different executable. CLI's existence-only check will miss this, and JSON status never renders the human warning.\n- Stable broker UDP ports may differ from cached/roster ports after restart. Meet-listener ports rotating every 30 seconds do not identify the stable SPT port.\n- A direct current stable `EndpointAddr` will fail before any seed-proof stream traffic if this hypothesis is correct.\n\n3. MEDIUM-LOW: QUIC connects, but mutual seed-proof or roster-control protocol stalls inside the same ten-second envelope.\n\nEvidence:\n- The timeout covers both `endpoint.connect` and `prove_membership`, so logs cannot exclude it.\n- Connection registration and `conn_count` occur only after proof, so zero live connections does not distinguish transport from proof.\n\nAgainst:\n- HF and EN seeds and epochs match exactly for both shared subnets.\n- Both run 0.31.0.\n- Clock offsets are irrelevant to steady-state seed-proof and are near zero anyway.\n- A clean proof denial should normally produce `seed-proof failed: peer is not a subnet member`, not only the outer timeout, if the exchange completes.\n\nPredictions:\n- Packet capture shows a completed QUIC handshake, followed by a bidi control stream and then silence/stall.\n- Any exact seed/epoch mismatch, tombstone of the current peer key, or asymmetric protocol branch would reproduce on every direct address.\n- Instrumentation would need stage-specific timing to separate `connect`, proof Hello, proof sets, roster exchange, and seed-transfer. Current production logs do not provide it.\n\n4. LOW / state-falsified on HF and EN: Detachment, tombstoning current identities, disabled pump, or endpoint visibility policy.\n\nCapability:\n- Detachment skips the entire subnet fanout while local net stays bound (`pump/mod.rs:907-914`).\n- Tombstones remove targets from `members_in` and inbound authorization.\n- `peer_pump=false` prevents pump spawn.\n- Visibility can hide all endpoints while nodes remain members.\n\nObserved contradiction:\n- Both `attachment.json` and `daemon.json.detached_subnets` are empty.\n- Both have `peer_pump=true` and relay n0.\n- Current HF/EN keys are non-tombstoned; only old EN `39c…` is tombstoned.\n- HF visibility hide maps are empty.\n- Logs show actual dial attempts, proving peers are fan targets.\n\n5. LOW as current primary cause: Whole-pump wedge or stale broker image.\n\nCapability/history:\n- Rotated HF log lines 7-12 show an older peer reply-read failure causing `PEER_PUMP_FAIL` and a supervised restart.\n- Changelog 0.30.1 and 0.30.2 explicitly fixed whole-round poisoning and serial head-of-line blocking.\n\nObserved contradiction:\n- Current 0.31.0 logs show independent `PUMP_PEER_FAIL` rows while the heartbeat stays fresh.\n- Broker image matches 0.31.0.\n- A current whole-pump wedge would stale the heartbeat beyond three 30-second registry cadences; observed heartbeat is fresh.\n\nREAD-ONLY DISCRIMINATING PROBES\n\nA. Validate every cache key/ID invariant on both hosts, without touching SPT:\n\nPowerShell concept:\n`$j = Get-Content \"$env:LOCALAPPDATA\\spt-core\\identity\\peer-addrs.json\" -Raw | ConvertFrom-Json; $j.addrs.psobject.Properties | ForEach-Object { [pscustomobject]@{ outer=$_.Name; inner=$_.Value.id; match=($_.Name -eq $_.Value.id) } }`\n\nResult discriminator:\n- `match=false` proves malformed cache rows.\n- Exact remote key absent proves pump will use id-only, regardless of a matching nested ID elsewhere.\n\nB. Compare roster recoverability versus actual dial input:\n- Read `identity/roster.json` and locate the exact current remote pubkey in each shared subnet.\n- Compare its `address.id` and addresses with `peer-addrs.json.addrs.<exact-key>`.\n- If roster is correct and cache exact-key is absent, the recovery-gap hypothesis is directly satisfied because code does not consult roster addresses.\n- Record file `LastWriteTimeUtc` and hash for forensic correlation only; do not rewrite it.\n\nC. Verify firewall semantics, not merely rule existence:\n- `netsh advfirewall firewall show rule name=\"spt-core inbound UDP\" verbose`\n- Compare Enabled, Direction, Profiles, Protocol, and Program against the actual running broker executable path on HF and EN.\n- This is more discriminating than the CLI check at `cli.rs:6888-6904`, which asks only whether `netsh show rule` exits successfully.\n\nD. Correlate current stable UDP listeners with cached ports:\n- Read broker PID from daemon status/PID file.\n- Use `Get-NetUDPEndpoint` filtered by that owning PID.\n- Distinguish the stable broker listener from the separately rotating `PAIR_MEET_UP` sockets.\n- Compare the stable port to roster/cache direct addresses. A stale cached port predicts timeout and then exact-key deletion.\n\nE. Observe QUIC stage without changing SPT state:\n- Capture UDP traffic between HF and EN during an already-occurring pump attempt, preferably on Tailscale and physical adapters.\n- Outbound Initial with no valid response => address/listener/firewall/relay layer.\n- Completed QUIC handshake followed by stream traffic and a ten-second stall => seed-proof/roster protocol layer.\n- No packets toward any current direct address, only discovery/relay traffic => exact-key miss and id-only fallback.\n\nF. Compare credential/gate state without publishing secrets:\n- Compare subnet names, seed epochs, and cryptographic hashes of seed values between hosts.\n- Confirm current peer keys are not tombstoned and held subnets are not detached.\n- This has already been done for HF/EN: seeds/epochs match and detached sets are empty, substantially lowering hypotheses 3 and 4.\n\nG. Log signatures:\n- `PUMP_PEER_FAIL:<id>:submit-dial exceeded the 10s bound` is stage-ambiguous.\n- `PUMP_PEER_FAIL:<id>:connect failed: No addressing information available` points to address discovery before membership success.\n- `seed-proof failed: peer is not a subnet member` points to completed transport plus failed/empty proof.\n- `REGISTRY_EVICT:<subnet>: ...` confirms endpoint disappearance is silent-feed cleanup, not membership removal.\n- `PEER_PUMP_FAIL` / `PEER_PUMP_RESTART` indicates a whole-pump carrier failure; fresh heartbeat with only `PUMP_PEER_FAIL` indicates per-peer failure isolation.\n\nH. Do not use cache deletion as the first diagnostic:\n- The store is correctness-optional, so clearing it is structurally safe for durable membership/secrets.\n- Operationally it removes all remaining direct bootstrap routes.\n- The current code does not reconstruct it from `roster.json` on startup or next tick; reconstruction requires a successful member connection.\n- Prediction: clearing alone leaves the nodes id-only and therefore does not distinguish or repair the observed state. A controlled, reversible experiment with verified-current direct addresses would be sharper, but it mutates live state and was not performed under this assignment.\n\nConclusion: local health reporting is behaving according to its current definitions, but those definitions do not cover transport success. The highest-value engineering target is the recovery gap between durable roster addresses and the dial cache: validate key/address identity on write and load, consult a correct roster address before id-only fallback, and avoid permanently erasing the only direct bootstrap route without a usable replacement. No remediation was 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cluster state and logs**"},{"type":"summary_text","text":"**Analyzing peer timeout hypotheses and diagnostics**"}]},{"id":"rs_0b084cf0b521ab15016a56bd897ed48190abc8abbcfb3c53e3","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVr2N2PCMfafEzTcS-7pfs3fn-Fs-SPrnO6JcTnxWWAKGwcB2mU0EkJunKn6N5k5gFN3UxAmJ-7JYbytHnY0ns1q4G4HrsgTBU2rGrgillyjJWYmhdViEU2RTytT5O3xG6hNpfpqe8GYQnxrfSIolrLUJP14SvYilveNVfX-TbFH7A88KL5DEGPPP2gKQ36sebvlOhWFzfGmENQkSF3PJcA0TvWTsLdJVVdOc0q73C7oSEIHrFJguKHhPeBLGni9OfrhiQGafuVcEUKXS9Je_mq7Uvk7u8Pvyx2KJRdikOzveQDpFTJgVABNwe0VCFu0tCTxjNXlAz6xVIXEbMVW-Yfel9n5rweEVbWxg0y5Yed4onsJJiibcRTpi7QG5a-nqRySmj9SDGHCxI5q9HM2WHAI-cjYno9SMPvx7S9rMvsBD1437Q__pcyj4Tl3SO4PRV-hrQLdKs3-PMhtS74uYKOUZ6dJ2NrwYtj8ExIz2r9YU8zxtkMI1ikXSQQPJqvsJ4YOydzwLBFAASqOE2XY3xEtvoips82_tSHkVRwQabszERLv0lYkzMaN3_lzY7TVlsAfoIgPxXgxzyB3XQZoB6SNuLrBNvtqxrO40iVLhaEU3WBj5WZgcDu9aiM7jBzDlOtXrQAftFb0RDuw8Arx4b6ECySPq6DtysTkXedVicxjbZXJUGKLKjlvSoe7_2XyfRIaBe1u9s3Ln972P4Pr29VUuMk35h0NxGaNNZgO9uKVMf3gMVxM_Op177AYo0gYbWQaRka3lAP76awvZMVbb1JQ0ni5nxIuSBeHXpOx415Wbx2mEoa9LQkSm-DZG92Z2trXXs6V387rDYEzJzJu7LomEH0kFHDm32FIknnfJEogvV0ArWMNIu-XIGr63HWbofrqh-uW5czBQfcx6BMLFMdqt8aR_AQWoka2-13L1hZedQwwD3ik6FZQkVlhLYNcOxrueEfiiUMw9A8IRQwNvtCofbqwk5BkCf5CAm6lqjf2q2wc09tyFILsJ9xnyZQKGiAyEcWsxjx7v9oac9qHhA1-lV1Mbs24arphAGgElf6mbXnFTp02npRnXajuDrG8KCYQlxy8H4_gk03c23VB0eq6JpN82V2p9xQP_7P34pR3x08itvgOtJjsyz86wGFUYodHZ974jSvdz9rnpYhm8c0trnpQzn_lFxOnD0eTmIJ-qpIKdkd-4H0-JcODTmSoDyvRt7oFP991kya3kGDHxGDhQD1PhANhO6ysOKPm1VjhiVwhqZA8fVAWN7UYqJXAGFRspKNTGgwKyijXTYYJ5_ffBPa3DuO8rGr3gDIL4SfLReJx12hD5c4dwr0hRvr9dUqUAkap2SN3d7FxF9Gm3sPFSc-6DtcTn37EBrIVhOjmuKE7IQxH5ErvUbiB1sGXB3TM4zgOjqu4w9LUN-gZcy2Xfu0om2vARMHea-KaV_aXpRwkKm1ONg7UkUKORrfL0vctowQbUWwP3LWwx7OYg05Nn60hoeXJHbH6mYG6887xZ7tDpNaipiDrE7MQNw-MdRT8SNYiTNGfxbAsOEKz43Ep_yMOzuLN18r1rrGVI-EeLO7s16mFId_DZXc2at92OEcnwQKa7ExmFxliagBQtxHXkkMVq_ehNE16WNb6qduEXAQl4TRk6T26sOPiEbVfzrgx4I26ZqR4fYpgxUoV6AGjpt4xP-nV8eh-nzCPtrAfLN3zCEW7o29PHEy8X14qirhqfbme-DlM_Sbz_jd5Bc6Q3qExpxH-AUnDZ3jPvVxrXLGCw3U6JVEUtZHB7HFr6sfkSrM8olZysLTVRrpjo7Xc9jKX_MC-MJrT7YjQOwjZppO7s1vaI3ENlX2Dh0EBzoSjVPtCcN0PagygG5nLcfSrpnHoVrwRnMoH3TYGY0BoTH2U5m9_zC1Yzkvx7SNzyU3h_TI8zUWWZPSynFPm7qMNTzmeFm6FQ0mSPNi6lT8Zk8SGz-HpikUYPkam22lunIXmtzqRybG6H6MZi0QiioUQn19y7E-riZIPKS14zgnptvXVYQOa2LCqydvXlWnyeH2r2ELj-I2eSwdCPPRP5NLfmWX7iXjBW7jamvdkknwB2gDTOavRVNwhnM-XeeelnMfWrFOYdguzup8w4SDp-TXVYu1vNEZPwYkRUmlHiBrC2kCbPIDMhWcltUWt5uT59P6rQKNu90FnJouGXtaXNjDp6d6yslc3rkncFOWcmd0Vni60Lmg73ylNhQe-P--4UNrC8gG30mRyCArGPngdW2yHETEfJJaNfmfiAYyvCyMfh0dDHZDunEuS7qGs2r7Y-dobYOf4AXQ5g_LBxMF-eZC2hFAF9YWQ0HVhgP2heHzI0wDeaS5V-9VqRTRPuJONzlkxIyR4GI9Dx2OWCYFRdB8WE3HZpOJD0wbbL2OMLRIXpdK2AfOeW1G8DDMGhjLdEMF1o0aIeeXtZXx2dJGfs7zl4GFthvm3QRvKwA6lDGEivK_RZzjQp8i3-0BfCEZkMsxdBe7ZsgifWQDAGYSNh-3b_7Q==","summary":[{"type":"summary_text","text":"**Listing non-intrusive diagnostic commands**"},{"type":"summary_text","text":"**Planning comprehensive architecture schema**"}]},{"id":"fc_0b084cf0b521ab15016a56bd8d90a08190b16b1ced2acd1063","type":"function_call","status":"completed","arguments":"{\"type\":\"result\",\"result\":{\"data\":{\"summary\":\"Root-cause investigation outcome: `net_up`, subnet node counts, empty/non-empty node arrays, endpoint visibility, and actual peer reachability come from different state planes. `net_up=true` proves only that the broker owns a locally bound `NetHost`; it does not prove a relay session, any live connection, an accepted seed-proof, a successful dial, or registry convergence. The reported SPT_DEV=4 and BIGNET=3 counts on HFENDULEAM exactly equal durable non-tombstoned roster membership, not reachable peers. `spt subnet status --json` intentionally emits `nodes: []` unless `--nodes` is supplied. Remote endpoints come from persisted registry snapshots; after five minutes without an admitted registry feed, remote rows are evicted, so `endpoint list` naturally collapses to local endpoints.\\n\\nThe strongest causal chain is an address-bootstrap deletion trap. The pump enumerates peer IDs from `roster.json`, but resolves each target only from the exact `peer-addrs.json` key and otherwise constructs an id-only Iroh address. It never consults the correct `RosterEntry.address` already stored beside that peer. Every failed dial unconditionally deletes that peer's exact cached address. Rebuilding the cache from the roster happens only after a future successful seed-proof connection. Therefore transient failures can erase every direct bootstrap route, and if id-only n0/mDNS discovery is unavailable or broken, isolation becomes self-perpetuating even while the heartbeat remains fresh. The live state fits the steady-state prediction on both HFENDULEAM and ENLYZEAM: exact keys for each other are absent, their current roster entries are correct and carry addresses, and both repeatedly time out dialing each other and all other peers. Historical deletion of those exact keys is strongly implied but cannot be proven without an older `peer-addrs.json` snapshot.\\n\\nA separate cache-invariant defect is also proven: on both machines the outer key `5ff50e75…` contains an address whose nested `id` is the opposite machine, HF has `5ff… -> ecb39…` and EN has `5ff… -> 14ef…`. The pump never scans nested IDs, so these rows cannot help HF reach EN or EN reach HF. Current code permits this because roster gap-fill writes `RosterEntry.pubkey_hex -> RosterEntry.address` and `PeerAddrStore::put` validates neither shape nor `outer key == nested id`; fill-only semantics then preserve historical corruption after `roster.json` is corrected. This defect amplifies isolation and poisons reachability to the real `5ff…` member, but it did not itself delete the exact HF/EN keys: `drop_seed(ecb…)` and `drop_seed(14ef…)` cannot delete outer `5ff…`.\\n\\nThe remaining unresolved boundary is what initially and currently makes id-only attempts exceed ten seconds. The same timeout wraps Iroh transport connect plus the mutual seed-proof/roster control stream, so the existing `PUMP_PEER_FAIL:…submit-dial exceeded the 10s bound` token cannot distinguish a QUIC listener/firewall/relay-discovery black hole from a post-QUIC seed-proof/protocol stall. Matching seeds and epochs, empty detach state, healthy bidirectional Tailscale IP reachability, near-zero clock offsets, and both nodes running 0.31.0 lower the probability of membership, clock, detach, and version mismatch. A packet capture or equivalent QUIC-stage observation is the clean discriminator.\",\"files\":[{\"path\":\"spt-core/crates/spt/src/cli.rs\",\"description\":\"Daemon status at 3967-4244; `net_up` is read from broker `enabled` and defaults true on broker/query failure at 4121-4135 and 4223-4233. Subnet membership/count dataflow at 6713-6763. Node-liveness and probe construction at 6914-7465. JSON intentionally emits empty node arrays without `--nodes` at 7253-7341. Endpoint-list local/remote assembly at 2816-3088.\"},{\"path\":\"spt-core/crates/spt-daemon/src/broker.rs\",\"description\":\"`dispatch_net_status` at 3818-3840 sets `enabled=true` solely when `self.net.get()` returns a local `NetHost`; it also computes `conn_count`, but CLI daemon status discards that field.\"},{\"path\":\"spt-core/crates/spt-daemon/src/msg.rs\",\"description\":\"`NetStatusReply` at 525-538 defines the actual meanings: `enabled` means broker hosts a network endpoint; `addr` is the local endpoint address; `conn_count` is accepted+dialed live broker connections.\"},{\"path\":\"spt-core/crates/spt-daemon/src/brainproc.rs\",\"description\":\"At 234-267, a brain polls local broker net status and starts dispatcher+pump once `enabled`; at 309-322 the pump starts only when `peer_pump` is enabled. `BRAIN_NET_CONSUMERS_UP` therefore proves local consumer startup, not peer reachability.\"},{\"path\":\"spt-core/crates/spt-daemon/src/pump/mod.rs\",\"description\":\"Core causal path. Heartbeat writes before peer work and during healthy idle operation at 560-579. Per-round roster fanout and nonblocking dials at 603-690. Failed peers are isolated while heartbeat continues. `PRESENCE_DIAL_FAILED` logs and unconditionally drops the exact cache key at 857-881. Fan targets are non-tombstoned roster IDs at 902-936. Address resolution checks only exact `peer-addrs[peer_hex]`, then id-only discovery, at 940-958. No roster-address fallback exists. Supervisor behavior at 1041-1110. Backoff reaches five minutes but does not restore addresses.\"},{\"path\":\"spt-core/crates/spt-daemon/src/nethost.rs\",\"description\":\"At 537-558, `DialPlan::connect` performs Iroh endpoint connect, then mutual seed-proof, then registers the connection. At 1089-1150, the same ten-second timeout wraps the whole operation, making the current timeout token stage-ambiguous. At 559-633, `register_conn` and `PRESENCE_CONNECTED` occur only after proof succeeds.\"},{\"path\":\"spt-core/crates/spt-daemon/src/seedproofx.rs\",\"description\":\"Membership proof contract at 192-258 and 396-526. Exact seed/epoch mismatch or protocol failure drops the connection. The address-cache invariant defect is at 862-879: gap-fill blindly writes `e.pubkey_hex -> e.address`. Production sink at 923-936 runs gap-fill only after a successful member connection, explaining why isolation cannot self-repair from the already-correct roster. No key-vs-nested-ID validation exists.\"},{\"path\":\"spt-core/crates/spt-store/src/peeraddrs.rs\",\"description\":\"At 1-17 the store is documented as an optional bootstrap cache. `get` is exact-key lookup at 79-82. `put` blindly stores arbitrary JSON under the supplied key at 84-94. `drop_seed` removes only the named exact key at 95-121. Missing/corrupt files degrade to empty/id-only discovery, but nothing here rebuilds from the roster.\"},{\"path\":\"spt-core/crates/spt-store/src/roster.rs\",\"description\":\"Durable membership model. `is_member` and `members_in` at 164-201 exclude tombstoned rows. The pump and subnet counts consume this roster even when transport is unreachable.\"},{\"path\":\"spt-core/crates/spt-daemon/src/registryhost.rs\",\"description\":\"Inbound registry feeds are admitted only for local subnet + non-tombstoned roster origin at 58-88 and 240-334. Admitted feeds stamp `heard.meta`. Silent foreign rows are evicted and snapshots rewritten after `registry_evict_after` at 608-650; snapshot/heard persistence at 706-745. This explains local-only endpoint visibility as a consequence of transport/feed silence.\"},{\"path\":\"spt-core/crates/spt-daemon/src/pump/registry.rs\",\"description\":\"Registry worker advertises own rows once per due round and pushes them only after the pump has a peer connection; silent-peer eviction runs before advertisement at 124-157; per-peer feed push at 161-177.\"},{\"path\":\"spt-core/crates/spt/src/wansend.rs\",\"description\":\"Snapshot loader at 689-712 silently ignores missing/unparseable snapshots. `probe_node_serving` at 584-610 uses id-only addressing too, so `subnet status --nodes` is not an independent direct-address check.\"},{\"path\":\"spt-core/crates/spt-net/src/net/endpoint.rs\",\"description\":\"Network bind and family gating at 140-430; production uses N0 preset plus mDNS. `addr_for_node_hex` at 529-541 constructs an ID-only `EndpointAddr`; it contains no roster/direct addresses. `conn_remote_addr` at 543-559 captures paths only after a real connection.\"},{\"path\":\"spt-core/crates/spt-daemon/src/daemon.rs\",\"description\":\"Production network config at 374-404: relay from daemon config, mDNS enabled, all-interface bind, live seed-proof source. `net_up` is `net.is_some()` at 185. A successful local bind is enough for healthy status.\"},{\"path\":\"spt-core/crates/spt-store/src/attachment.rs\",\"description\":\"At 1-17 and 74-103, detached state is distinct from held membership and causes the pump/responder to skip a subnet while the daemon/net endpoint may remain healthy.\"},{\"path\":\"spt-core/crates/spt-store/src/visibility.rs\",\"description\":\"At 145-153, endpoint visibility can suppress advertisement/routing of selected endpoints. It does not stop node-to-node connections or erase durable member counts. HF live visibility has empty hide maps, excluding this as the observed cause.\"},{\"path\":\"spt-core/installer/install.ps1\",\"description\":\"Windows UDP firewall rule creation at 157-180. The rule is program-path scoped. CLI checks only whether a named rule exists, not whether it is enabled, applies to the active profile, or points to the running binary.\"},{\"path\":\"spt-core/CHANGELOG.md\",\"description\":\"0.30.1 at 162-171 fixed one silent peer stalling the whole pump; 0.30.2 at 148-158 made dials concurrent and peer-isolated. These fixes allow the heartbeat to stay healthy while every peer independently fails. Full-mesh membership shipped in 0.3.0 at 882-883; address seeding and restart convergence are documented at 933-935.\"},{\"path\":\"spt-core/.git/logs/HEAD\",\"description\":\"Line 348 anchors introduction of roster-to-peer-address reconciliation: commit `0c42869024b7158cca6fc6b204ac8fbb30840922`, epoch `1780953369 -0700`, message `feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4`.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/daemon.json\",\"description\":\"HF live config evidence: `relay=n0`, `peer_pump=true`, `registry_pump_period_ms=30000`, `registry_evict_after_ms=300000`, `detached_subnets=[]`.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/identity/subnet.json\",\"description\":\"HF held memberships: SPT_DEV and BIGNET, both epoch 1. Main-agent comparison established EN has the same seeds and epochs.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/identity/attachment.json\",\"description\":\"HF live detach set is empty; main-agent comparison established EN is also empty.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/identity/roster.json\",\"description\":\"HF durable roster explains status exactly: SPT_DEV has four non-tombstoned members; BIGNET has three. Current EN key `ecb39e40…` is present; old EN key `39c018a4…` is tombstoned in both subnets. Main-agent comparison established both current rosters have correct key/address-ID pairs and direct addresses.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/identity/peer-addrs.json\",\"description\":\"HF cache evidence: exact current EN key `ecb39e40…` is absent. Outer SCELTOUIN key `5ff50e75…` incorrectly contains nested EN ID `ecb39e40…`, relay-only. Main-agent EN mirror found outer `5ff50e75…` incorrectly contains nested HF ID `14efb80c…`, relay-only.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/identity/registry/SPT_DEV.json\",\"description\":\"HF snapshot contains only HF endpoint instances, although node labels retain EN. This is the direct data source behind local-only endpoint listing.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/identity/registry/BIGNET.json\",\"description\":\"HF snapshot likewise contains only HF instances; remote endpoint rows have decayed.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/identity/registry/heard.meta\",\"description\":\"HF last admitted EN feed is `ecb39e40…: 1784008794517` epoch-ms, many hours behind the observed fresh pump heartbeat. This establishes control-plane activity without remote feed freshness.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/identity/pump-heartbeat.json\",\"description\":\"Observed fresh HF heartbeat `1784069117875` epoch-ms. Its freshness proves loop progress only, not any successful peer operation.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log\",\"description\":\"Lines 1-6 show brain/pump startup; lines 7-10 show independent ten-second timeouts for several peers including current EN `ecb39e40…` and old EN `39c018a4…`, while the process remains up.\"},{\"path\":\"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log.1\",\"description\":\"Lines 1-12 show an older run where EN timed out and another peer caused a pump read-deadline failure followed by supervised restart. Lines 20-22 and later `PAIR_MEET_UP` records show rotating pre-trust meet endpoints binding; these are separate identities/ALPNs and do not prove the stable SPT endpoint accepts member traffic.\"}],\"architecture\":\"CAUSAL DATAFLOW\\n\\n1. Daemon process and local network status\\n\\n`Daemon::run` loads the durable node key, calls `try_start_net`, and sets `net_up = net.is_some()` (`daemon.rs:168-185`). `NetHost::start` binds a local Iroh endpoint. The broker stores it in `self.net`; `dispatch_net_status` reports `enabled=true` whenever that local object exists (`broker.rs:3818-3834`). The CLI reports that bit as `net_up`, ignoring `addr` and `conn_count`, and even defaults it to true if broker IPC/status query fails (`cli.rs:4121-4135`). Thus:\\n\\n`net_up=true` => local broker owns a bound network endpoint\\n\\nIt does NOT imply:\\n- relay registration is usable;\\n- mDNS/n0 can resolve another node;\\n- Windows permits inbound UDP to the running executable;\\n- a QUIC handshake completed;\\n- seed-proof completed;\\n- `conn_count > 0`;\\n- any registry feed was sent or admitted.\\n\\n2. Peer-pump liveness\\n\\nThe brain starts the dispatcher and pump once local `enabled=true` (`brainproc.rs:254-267`). The pump writes `pump-heartbeat.json` before loading/fanning out peer work, including idle ticks (`pump/mod.rs:560-579`). Current 0.31 behavior submits peers concurrently and turns each transport/protocol failure into a peer-local backoff (`pump/mod.rs:609-690, 722-790, 857-881`). Therefore a loop that wakes, tries every peer, times every peer out, and backs each off remains heartbeat-healthy. This is intentional after the 0.30.1/0.30.2 fixes, not proof of connectivity.\\n\\n3. Durable membership and status counts\\n\\n`subnet_status_rows` iterates held subnet records, inserts self, inserts every non-tombstoned `roster.members_in(subnet)`, then unions any nodes found in registry snapshots (`cli.rs:6731-6762`). It reports the set size, not a live-connection count. HF's live roster yields exactly the observed values:\\n- SPT_DEV: HF `14ef…`, current EN `ecb39…`, KITSUBITO `cfd9…`, SCELTOUIN `5ff5…` = 4.\\n- BIGNET: HF `14ef…`, current EN `ecb39…`, GRAVITY-RUNNER `c893…` = 3.\\n- Old EN `39c0…` is tombstoned and excluded.\\n\\nThe JSON DTO always has a `nodes` field, but the non-`--nodes` branch explicitly assigns `Vec::new()` (`cli.rs:7319-7341`). Therefore `spt subnet status --json` with `node_count > 0` and `nodes: []` is correct API behavior, not evidence that the runtime discovered zero nodes. The command needed for per-node liveness is `spt subnet status --nodes --json`; note that it actively performs bounded network probes for stale rows, so it is not a purely filesystem-only observation.\\n\\n4. Endpoint visibility\\n\\nLocal endpoint rows come from local perch/roster truth. Remote endpoint rows come only from `identity/registry/<subnet>.json`, passed through visibility and routability projection (`cli.rs:3015-3078`; `registry.rs:566-606`). Inbound admitted registry feeds stamp `heard.meta`. Once a peer has not been heard for `registry_evict_after` (HF config: 300,000 ms), `evict_silent_peers` deletes that peer's registry instances and rewrites snapshots (`registryhost.rs:608-650`). Node labels can remain while endpoint rows disappear. Consequently local-only `endpoint list` is the expected downstream symptom of no admitted feeds for over five minutes; it does not establish that durable membership vanished.\\n\\n5. Peer dialing and the self-perpetuating bootstrap gap\\n\\nFor each non-detached subnet, the pump gets target IDs from `roster.members_in`, excluding self and tombstones (`pump/mod.rs:902-936`). For each target `peer_hex`, it resolves exactly one address:\\n\\n`peer-addrs.json.addrs[peer_hex]` if present\\notherwise `EndpointAddr::new(peer_id)` for id-only n0/mDNS discovery\\n\\nThis is `resolve_submit_addr` at `pump/mod.rs:940-958`. It never reads `RosterEntry.address`, even though the roster carries a correct durable address for the same target.\\n\\nOn every `PRESENCE_DIAL_FAILED`, the pump:\\n- logs `PUMP_PEER_FAIL`;\\n- schedules peer-local exponential backoff;\\n- calls `PeerAddrStore::drop_seed(peer_hex)` unconditionally (`pump/mod.rs:869-880`).\\n\\nThe next attempt is necessarily id-only. The only steady-state path that copies correct roster addresses back into `peer-addrs.json` is `production_roster_exchange`'s sink, which runs after a successful QUIC + seed-proof connection (`seedproofx.rs:923-936`). That yields a closed recovery loop:\\n\\ncached direct address fails -> exact key deleted -> id-only discovery fails -> no connection -> roster gap-fill cannot run -> exact key stays absent -> repeat\\n\\nThis explains how a transient fleet-wide event can become durable global isolation while all local health fields remain green. Current missing exact HF/EN cache keys plus correct current roster addresses are the precise steady-state signature. The all-peer ten-second timeouts on both nodes show the common id-only path is not recovering. What is not directly evidenced is the historical moment at which each exact key was deleted.\\n\\n6. Independent malformed-cache invariant\\n\\nOn both nodes, the one malformed cache row uses outer key `5ff50e75…` but contains the opposite machine's nested endpoint ID. The pump performs no nested-ID scan, so that row is useless for the opposite target. It also means the actual `5ff…` target has a cache hit whose TLS/QUIC endpoint identity is not `5ff…`, guaranteeing failure or refusal.\\n\\nCurrent code admits this state:\\n- roster gap-fill writes `pa.put(e.pubkey_hex, e.address.clone())` without checking the serialized address ID (`seedproofx.rs:870-879`);\\n- `PeerAddrStore::put` accepts opaque JSON under any key (`peeraddrs.rs:84-94`);\\n- gap-fill is fill-only, so a malformed existing `5ff…` row is never replaced by a later correct roster row;\\n- a successful direct `5ff…` connection would overwrite it, but the malformed row prevents that bootstrap.\\n\\nBoth current rosters are now correct, so the exact historical bad input is gone. The likely historical writer is the roster gap-fill path during a transient bad incoming `5ff…` roster entry; a later higher-lease roster merge corrected `roster.json` while fill-only peer cache state remained. This is an inference, not a proven historical event. Pairing and presence writers derive the key and address from the same live connection and therefore do not naturally create this cross-key mapping. Concurrent cache writes can lose an update but cannot transpose a key and nested ID.\\n\\nThe capability was introduced by commit `0c42869024b7158cca6fc6b204ac8fbb30840922` (`.git/logs/HEAD:348`), the Mesh-D4 roster/peer-address reconciliation change, and shipped with the 0.3.0 full-mesh model (`CHANGELOG.md:882-883`).\\n\\nRANKED HYPOTHESES\\n\\n1. HIGH: Direct-address deletion cascade plus unusable id-only discovery.\\n\\nEvidence:\\n- Exact HF and EN cache keys are absent on the opposite machines.\\n- Both correct rosters still carry the addresses, but code never consults them while dialing.\\n- Both logs show repeated all-peer ten-second failures.\\n- Failure unconditionally deletes each target's exact seed; no roster recovery can run without success.\\n- Fresh heartbeat and `net_up` are expected under this failure mode.\\n\\nPredictions:\\n- For every repeatedly failing peer, either the exact cache key is absent or was removed after the first failure.\\n- Correct direct addresses may still exist in `roster.json` and remain unused.\\n- Clearing `peer-addrs.json` alone will not repair the node; it forces all peers to id-only and likely leaves behavior unchanged or worse.\\n- A controlled cache rebuilt from verified-current roster/live endpoint addresses would move attempts past address discovery. If those ports are stale, the first failure will delete them and return to id-only.\\n- If id-only n0/mDNS starts working, a success will immediately repopulate the exact target key from `PRESENCE_CONNECTED` and convergence will resume within a pump cadence.\\n\\n2. HIGH-MEDIUM: Stable SPT QUIC transport/listener path is black-holed by firewall, current-port discovery, relay registration, or ALPN reachability.\\n\\nEvidence:\\n- Both nodes can bind network and rotating meet endpoints, and Tailscale IP transport is healthy, but every stable peer dial times out.\\n- The Windows installer itself documents detached daemons being silently unreachable without a program-scoped inbound UDP rule (`install.ps1:157-180`).\\n- `net_up` does not test incoming UDP, relay registration, or a remote handshake.\\n- `PAIR_MEET_UP` uses temporary token-derived identities and the pre-trust meet ALPN, not the stable node ID/member ALPN.\\n- `NET_FAMILY_GATE` selected IPv4-only on HF, making current IPv4 UDP listener/rule/path evidence especially relevant.\\n\\nPredictions:\\n- Packet capture shows outbound QUIC Initial packets but no peer Handshake response if transport/listener/firewall is the boundary.\\n- The named firewall rule may exist yet be disabled, profile-inapplicable, or point to a different executable. CLI's existence-only check will miss this, and JSON status never renders the human warning.\\n- Stable broker UDP ports may differ from cached/roster ports after restart. Meet-listener ports rotating every 30 seconds do not identify the stable SPT port.\\n- A direct current stable `EndpointAddr` will fail before any seed-proof stream traffic if this hypothesis is correct.\\n\\n3. MEDIUM-LOW: QUIC connects, but mutual seed-proof or roster-control protocol stalls inside the same ten-second envelope.\\n\\nEvidence:\\n- The timeout covers both `endpoint.connect` and `prove_membership`, so logs cannot exclude it.\\n- Connection registration and `conn_count` occur only after proof, so zero live connections does not distinguish transport from proof.\\n\\nAgainst:\\n- HF and EN seeds and epochs match exactly for both shared subnets.\\n- Both run 0.31.0.\\n- Clock offsets are irrelevant to steady-state seed-proof and are near zero anyway.\\n- A clean proof denial should normally produce `seed-proof failed: peer is not a subnet member`, not only the outer timeout, if the exchange completes.\\n\\nPredictions:\\n- Packet capture shows a completed QUIC handshake, followed by a bidi control stream and then silence/stall.\\n- Any exact seed/epoch mismatch, tombstone of the current peer key, or asymmetric protocol branch would reproduce on every direct address.\\n- Instrumentation would need stage-specific timing to separate `connect`, proof Hello, proof sets, roster exchange, and seed-transfer. Current production logs do not provide it.\\n\\n4. LOW / state-falsified on HF and EN: Detachment, tombstoning current identities, disabled pump, or endpoint visibility policy.\\n\\nCapability:\\n- Detachment skips the entire subnet fanout while local net stays bound (`pump/mod.rs:907-914`).\\n- Tombstones remove targets from `members_in` and inbound authorization.\\n- `peer_pump=false` prevents pump spawn.\\n- Visibility can hide all endpoints while nodes remain members.\\n\\nObserved contradiction:\\n- Both `attachment.json` and `daemon.json.detached_subnets` are empty.\\n- Both have `peer_pump=true` and relay n0.\\n- Current HF/EN keys are non-tombstoned; only old EN `39c…` is tombstoned.\\n- HF visibility hide maps are empty.\\n- Logs show actual dial attempts, proving peers are fan targets.\\n\\n5. LOW as current primary cause: Whole-pump wedge or stale broker image.\\n\\nCapability/history:\\n- Rotated HF log lines 7-12 show an older peer reply-read failure causing `PEER_PUMP_FAIL` and a supervised restart.\\n- Changelog 0.30.1 and 0.30.2 explicitly fixed whole-round poisoning and serial head-of-line blocking.\\n\\nObserved contradiction:\\n- Current 0.31.0 logs show independent `PUMP_PEER_FAIL` rows while the heartbeat stays fresh.\\n- Broker image matches 0.31.0.\\n- A current whole-pump wedge would stale the heartbeat beyond three 30-second registry cadences; observed heartbeat is fresh.\\n\\nREAD-ONLY DISCRIMINATING PROBES\\n\\nA. Validate every cache key/ID invariant on both hosts, without touching SPT:\\n\\nPowerShell concept:\\n`$j = Get-Content \\\"$env:LOCALAPPDATA\\\\spt-core\\\\identity\\\\peer-addrs.json\\\" -Raw | ConvertFrom-Json; $j.addrs.psobject.Properties | ForEach-Object { [pscustomobject]@{ outer=$_.Name; inner=$_.Value.id; match=($_.Name -eq $_.Value.id) } }`\\n\\nResult discriminator:\\n- `match=false` proves malformed cache rows.\\n- Exact remote key absent proves pump will use id-only, regardless of a matching nested ID elsewhere.\\n\\nB. Compare roster recoverability versus actual dial input:\\n- Read `identity/roster.json` and locate the exact current remote pubkey in each shared subnet.\\n- Compare its `address.id` and addresses with `peer-addrs.json.addrs.<exact-key>`.\\n- If roster is correct and cache exact-key is absent, the recovery-gap hypothesis is directly satisfied because code does not consult roster addresses.\\n- Record file `LastWriteTimeUtc` and hash for forensic correlation only; do not rewrite it.\\n\\nC. Verify firewall semantics, not merely rule existence:\\n- `netsh advfirewall firewall show rule name=\\\"spt-core inbound UDP\\\" verbose`\\n- Compare Enabled, Direction, Profiles, Protocol, and Program against the actual running broker executable path on HF and EN.\\n- This is more discriminating than the CLI check at `cli.rs:6888-6904`, which asks only whether `netsh show rule` exits successfully.\\n\\nD. Correlate current stable UDP listeners with cached ports:\\n- Read broker PID from daemon status/PID file.\\n- Use `Get-NetUDPEndpoint` filtered by that owning PID.\\n- Distinguish the stable broker listener from the separately rotating `PAIR_MEET_UP` sockets.\\n- Compare the stable port to roster/cache direct addresses. A stale cached port predicts timeout and then exact-key deletion.\\n\\nE. Observe QUIC stage without changing SPT state:\\n- Capture UDP traffic between HF and EN during an already-occurring pump attempt, preferably on Tailscale and physical adapters.\\n- Outbound Initial with no valid response => address/listener/firewall/relay layer.\\n- Completed QUIC handshake followed by stream traffic and a ten-second stall => seed-proof/roster protocol layer.\\n- No packets toward any current direct address, only discovery/relay traffic => exact-key miss and id-only fallback.\\n\\nF. Compare credential/gate state without publishing secrets:\\n- Compare subnet names, seed epochs, and cryptographic hashes of seed values between hosts.\\n- Confirm current peer keys are not tombstoned and held subnets are not detached.\\n- This has already been done for HF/EN: seeds/epochs match and detached sets are empty, substantially lowering hypotheses 3 and 4.\\n\\nG. Log signatures:\\n- `PUMP_PEER_FAIL:<id>:submit-dial exceeded the 10s bound` is stage-ambiguous.\\n- `PUMP_PEER_FAIL:<id>:connect failed: No addressing information available` points to address discovery before membership success.\\n- `seed-proof failed: peer is not a subnet member` points to completed transport plus failed/empty proof.\\n- `REGISTRY_EVICT:<subnet>: ...` confirms endpoint disappearance is silent-feed cleanup, not membership removal.\\n- `PEER_PUMP_FAIL` / `PEER_PUMP_RESTART` indicates a whole-pump carrier failure; fresh heartbeat with only `PUMP_PEER_FAIL` indicates per-peer failure isolation.\\n\\nH. Do not use cache deletion as the first diagnostic:\\n- The store is correctness-optional, so clearing it is structurally safe for durable membership/secrets.\\n- Operationally it removes all remaining direct bootstrap routes.\\n- The current code does not reconstruct it from `roster.json` on startup or next tick; reconstruction requires a successful member connection.\\n- Prediction: clearing alone leaves the nodes id-only and therefore does not distinguish or repair the observed state. A controlled, reversible experiment with verified-current direct addresses would be sharper, but it mutates live state and was not performed under this assignment.\\n\\nConclusion: local health reporting is behaving according to its current definitions, but those definitions do not cover transport success. The highest-value engineering target is the recovery gap between durable roster addresses and the dial cache: validate key/address identity on write and load, consult a correct roster address before id-only fallback, and avoid permanently erasing the only direct bootstrap route without a usable replacement. No remediation was performed.\"}}}","call_id":"call_IqUmGUAAVGG56IUZOvUCCBoL","name":"yield"}]},"duration":143820.23570001125,"ttft":5558.3401000499725,"contextSnapshot":{"promptTokens":297378,"nonMessageTokens":17981}}}
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{"type":"message","id":"756c1b30","parentId":"3e05a14e","timestamp":"2026-07-14T22:54:01.770Z","message":{"role":"toolResult","toolCallId":"call_IqUmGUAAVGG56IUZOvUCCBoL|fc_0b084cf0b521ab15016a56bd8d90a08190b16b1ced2acd1063","toolName":"yield","content":[{"type":"text","text":"Result submitted."}],"details":{"data":{"summary":"Root-cause investigation outcome: `net_up`, subnet node counts, empty/non-empty node arrays, endpoint visibility, and actual peer reachability come from different state planes. `net_up=true` proves only that the broker owns a locally bound `NetHost`; it does not prove a relay session, any live connection, an accepted seed-proof, a successful dial, or registry convergence. The reported SPT_DEV=4 and BIGNET=3 counts on HFENDULEAM exactly equal durable non-tombstoned roster membership, not reachable peers. `spt subnet status --json` intentionally emits `nodes: []` unless `--nodes` is supplied. Remote endpoints come from persisted registry snapshots; after five minutes without an admitted registry feed, remote rows are evicted, so `endpoint list` naturally collapses to local endpoints.\n\nThe strongest causal chain is an address-bootstrap deletion trap. The pump enumerates peer IDs from `roster.json`, but resolves each target only from the exact `peer-addrs.json` key and otherwise constructs an id-only Iroh address. It never consults the correct `RosterEntry.address` already stored beside that peer. Every failed dial unconditionally deletes that peer's exact cached address. Rebuilding the cache from the roster happens only after a future successful seed-proof connection. Therefore transient failures can erase every direct bootstrap route, and if id-only n0/mDNS discovery is unavailable or broken, isolation becomes self-perpetuating even while the heartbeat remains fresh. The live state fits the steady-state prediction on both HFENDULEAM and ENLYZEAM: exact keys for each other are absent, their current roster entries are correct and carry addresses, and both repeatedly time out dialing each other and all other peers. Historical deletion of those exact keys is strongly implied but cannot be proven without an older `peer-addrs.json` snapshot.\n\nA separate cache-invariant defect is also proven: on both machines the outer key `5ff50e75…` contains an address whose nested `id` is the opposite machine, HF has `5ff… -> ecb39…` and EN has `5ff… -> 14ef…`. The pump never scans nested IDs, so these rows cannot help HF reach EN or EN reach HF. Current code permits this because roster gap-fill writes `RosterEntry.pubkey_hex -> RosterEntry.address` and `PeerAddrStore::put` validates neither shape nor `outer key == nested id`; fill-only semantics then preserve historical corruption after `roster.json` is corrected. This defect amplifies isolation and poisons reachability to the real `5ff…` member, but it did not itself delete the exact HF/EN keys: `drop_seed(ecb…)` and `drop_seed(14ef…)` cannot delete outer `5ff…`.\n\nThe remaining unresolved boundary is what initially and currently makes id-only attempts exceed ten seconds. The same timeout wraps Iroh transport connect plus the mutual seed-proof/roster control stream, so the existing `PUMP_PEER_FAIL:…submit-dial exceeded the 10s bound` token cannot distinguish a QUIC listener/firewall/relay-discovery black hole from a post-QUIC seed-proof/protocol stall. Matching seeds and epochs, empty detach state, healthy bidirectional Tailscale IP reachability, near-zero clock offsets, and both nodes running 0.31.0 lower the probability of membership, clock, detach, and version mismatch. A packet capture or equivalent QUIC-stage observation is the clean discriminator.","files":[{"path":"spt-core/crates/spt/src/cli.rs","description":"Daemon status at 3967-4244; `net_up` is read from broker `enabled` and defaults true on broker/query failure at 4121-4135 and 4223-4233. Subnet membership/count dataflow at 6713-6763. Node-liveness and probe construction at 6914-7465. JSON intentionally emits empty node arrays without `--nodes` at 7253-7341. Endpoint-list local/remote assembly at 2816-3088."},{"path":"spt-core/crates/spt-daemon/src/broker.rs","description":"`dispatch_net_status` at 3818-3840 sets `enabled=true` solely when `self.net.get()` returns a local `NetHost`; it also computes `conn_count`, but CLI daemon status discards that field."},{"path":"spt-core/crates/spt-daemon/src/msg.rs","description":"`NetStatusReply` at 525-538 defines the actual meanings: `enabled` means broker hosts a network endpoint; `addr` is the local endpoint address; `conn_count` is accepted+dialed live broker connections."},{"path":"spt-core/crates/spt-daemon/src/brainproc.rs","description":"At 234-267, a brain polls local broker net status and starts dispatcher+pump once `enabled`; at 309-322 the pump starts only when `peer_pump` is enabled. `BRAIN_NET_CONSUMERS_UP` therefore proves local consumer startup, not peer reachability."},{"path":"spt-core/crates/spt-daemon/src/pump/mod.rs","description":"Core causal path. Heartbeat writes before peer work and during healthy idle operation at 560-579. Per-round roster fanout and nonblocking dials at 603-690. Failed peers are isolated while heartbeat continues. `PRESENCE_DIAL_FAILED` logs and unconditionally drops the exact cache key at 857-881. Fan targets are non-tombstoned roster IDs at 902-936. Address resolution checks only exact `peer-addrs[peer_hex]`, then id-only discovery, at 940-958. No roster-address fallback exists. Supervisor behavior at 1041-1110. Backoff reaches five minutes but does not restore addresses."},{"path":"spt-core/crates/spt-daemon/src/nethost.rs","description":"At 537-558, `DialPlan::connect` performs Iroh endpoint connect, then mutual seed-proof, then registers the connection. At 1089-1150, the same ten-second timeout wraps the whole operation, making the current timeout token stage-ambiguous. At 559-633, `register_conn` and `PRESENCE_CONNECTED` occur only after proof succeeds."},{"path":"spt-core/crates/spt-daemon/src/seedproofx.rs","description":"Membership proof contract at 192-258 and 396-526. Exact seed/epoch mismatch or protocol failure drops the connection. The address-cache invariant defect is at 862-879: gap-fill blindly writes `e.pubkey_hex -> e.address`. Production sink at 923-936 runs gap-fill only after a successful member connection, explaining why isolation cannot self-repair from the already-correct roster. No key-vs-nested-ID validation exists."},{"path":"spt-core/crates/spt-store/src/peeraddrs.rs","description":"At 1-17 the store is documented as an optional bootstrap cache. `get` is exact-key lookup at 79-82. `put` blindly stores arbitrary JSON under the supplied key at 84-94. `drop_seed` removes only the named exact key at 95-121. Missing/corrupt files degrade to empty/id-only discovery, but nothing here rebuilds from the roster."},{"path":"spt-core/crates/spt-store/src/roster.rs","description":"Durable membership model. `is_member` and `members_in` at 164-201 exclude tombstoned rows. The pump and subnet counts consume this roster even when transport is unreachable."},{"path":"spt-core/crates/spt-daemon/src/registryhost.rs","description":"Inbound registry feeds are admitted only for local subnet + non-tombstoned roster origin at 58-88 and 240-334. Admitted feeds stamp `heard.meta`. Silent foreign rows are evicted and snapshots rewritten after `registry_evict_after` at 608-650; snapshot/heard persistence at 706-745. This explains local-only endpoint visibility as a consequence of transport/feed silence."},{"path":"spt-core/crates/spt-daemon/src/pump/registry.rs","description":"Registry worker advertises own rows once per due round and pushes them only after the pump has a peer connection; silent-peer eviction runs before advertisement at 124-157; per-peer feed push at 161-177."},{"path":"spt-core/crates/spt/src/wansend.rs","description":"Snapshot loader at 689-712 silently ignores missing/unparseable snapshots. `probe_node_serving` at 584-610 uses id-only addressing too, so `subnet status --nodes` is not an independent direct-address check."},{"path":"spt-core/crates/spt-net/src/net/endpoint.rs","description":"Network bind and family gating at 140-430; production uses N0 preset plus mDNS. `addr_for_node_hex` at 529-541 constructs an ID-only `EndpointAddr`; it contains no roster/direct addresses. `conn_remote_addr` at 543-559 captures paths only after a real connection."},{"path":"spt-core/crates/spt-daemon/src/daemon.rs","description":"Production network config at 374-404: relay from daemon config, mDNS enabled, all-interface bind, live seed-proof source. `net_up` is `net.is_some()` at 185. A successful local bind is enough for healthy status."},{"path":"spt-core/crates/spt-store/src/attachment.rs","description":"At 1-17 and 74-103, detached state is distinct from held membership and causes the pump/responder to skip a subnet while the daemon/net endpoint may remain healthy."},{"path":"spt-core/crates/spt-store/src/visibility.rs","description":"At 145-153, endpoint visibility can suppress advertisement/routing of selected endpoints. It does not stop node-to-node connections or erase durable member counts. HF live visibility has empty hide maps, excluding this as the observed cause."},{"path":"spt-core/installer/install.ps1","description":"Windows UDP firewall rule creation at 157-180. The rule is program-path scoped. CLI checks only whether a named rule exists, not whether it is enabled, applies to the active profile, or points to the running binary."},{"path":"spt-core/CHANGELOG.md","description":"0.30.1 at 162-171 fixed one silent peer stalling the whole pump; 0.30.2 at 148-158 made dials concurrent and peer-isolated. These fixes allow the heartbeat to stay healthy while every peer independently fails. Full-mesh membership shipped in 0.3.0 at 882-883; address seeding and restart convergence are documented at 933-935."},{"path":"spt-core/.git/logs/HEAD","description":"Line 348 anchors introduction of roster-to-peer-address reconciliation: commit `0c42869024b7158cca6fc6b204ac8fbb30840922`, epoch `1780953369 -0700`, message `feat(mesh): on-connect roster propagation + peeraddrs reconcile (REQ-MESH-2) — Mesh-D4`."},{"path":"C:/Users/decid/AppData/Local/spt-core/daemon.json","description":"HF live config evidence: `relay=n0`, `peer_pump=true`, `registry_pump_period_ms=30000`, `registry_evict_after_ms=300000`, `detached_subnets=[]`."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/subnet.json","description":"HF held memberships: SPT_DEV and BIGNET, both epoch 1. Main-agent comparison established EN has the same seeds and epochs."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/attachment.json","description":"HF live detach set is empty; main-agent comparison established EN is also empty."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/roster.json","description":"HF durable roster explains status exactly: SPT_DEV has four non-tombstoned members; BIGNET has three. Current EN key `ecb39e40…` is present; old EN key `39c018a4…` is tombstoned in both subnets. Main-agent comparison established both current rosters have correct key/address-ID pairs and direct addresses."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/peer-addrs.json","description":"HF cache evidence: exact current EN key `ecb39e40…` is absent. Outer SCELTOUIN key `5ff50e75…` incorrectly contains nested EN ID `ecb39e40…`, relay-only. Main-agent EN mirror found outer `5ff50e75…` incorrectly contains nested HF ID `14efb80c…`, relay-only."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/registry/SPT_DEV.json","description":"HF snapshot contains only HF endpoint instances, although node labels retain EN. This is the direct data source behind local-only endpoint listing."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/registry/BIGNET.json","description":"HF snapshot likewise contains only HF instances; remote endpoint rows have decayed."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/registry/heard.meta","description":"HF last admitted EN feed is `ecb39e40…: 1784008794517` epoch-ms, many hours behind the observed fresh pump heartbeat. This establishes control-plane activity without remote feed freshness."},{"path":"C:/Users/decid/AppData/Local/spt-core/identity/pump-heartbeat.json","description":"Observed fresh HF heartbeat `1784069117875` epoch-ms. Its freshness proves loop progress only, not any successful peer operation."},{"path":"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log","description":"Lines 1-6 show brain/pump startup; lines 7-10 show independent ten-second timeouts for several peers including current EN `ecb39e40…` and old EN `39c018a4…`, while the process remains up."},{"path":"C:/Users/decid/AppData/Local/spt-core/logs/daemon.stderr.log.1","description":"Lines 1-12 show an older run where EN timed out and another peer caused a pump read-deadline failure followed by supervised restart. Lines 20-22 and later `PAIR_MEET_UP` records show rotating pre-trust meet endpoints binding; these are separate identities/ALPNs and do not prove the stable SPT endpoint accepts member traffic."}],"architecture":"CAUSAL DATAFLOW\n\n1. Daemon process and local network status\n\n`Daemon::run` loads the durable node key, calls `try_start_net`, and sets `net_up = net.is_some()` (`daemon.rs:168-185`). `NetHost::start` binds a local Iroh endpoint. The broker stores it in `self.net`; `dispatch_net_status` reports `enabled=true` whenever that local object exists (`broker.rs:3818-3834`). The CLI reports that bit as `net_up`, ignoring `addr` and `conn_count`, and even defaults it to true if broker IPC/status query fails (`cli.rs:4121-4135`). Thus:\n\n`net_up=true` => local broker owns a bound network endpoint\n\nIt does NOT imply:\n- relay registration is usable;\n- mDNS/n0 can resolve another node;\n- Windows permits inbound UDP to the running executable;\n- a QUIC handshake completed;\n- seed-proof completed;\n- `conn_count > 0`;\n- any registry feed was sent or admitted.\n\n2. Peer-pump liveness\n\nThe brain starts the dispatcher and pump once local `enabled=true` (`brainproc.rs:254-267`). The pump writes `pump-heartbeat.json` before loading/fanning out peer work, including idle ticks (`pump/mod.rs:560-579`). Current 0.31 behavior submits peers concurrently and turns each transport/protocol failure into a peer-local backoff (`pump/mod.rs:609-690, 722-790, 857-881`). Therefore a loop that wakes, tries every peer, times every peer out, and backs each off remains heartbeat-healthy. This is intentional after the 0.30.1/0.30.2 fixes, not proof of connectivity.\n\n3. Durable membership and status counts\n\n`subnet_status_rows` iterates held subnet records, inserts self, inserts every non-tombstoned `roster.members_in(subnet)`, then unions any nodes found in registry snapshots (`cli.rs:6731-6762`). It reports the set size, not a live-connection count. HF's live roster yields exactly the observed values:\n- SPT_DEV: HF `14ef…`, current EN `ecb39…`, KITSUBITO `cfd9…`, SCELTOUIN `5ff5…` = 4.\n- BIGNET: HF `14ef…`, current EN `ecb39…`, GRAVITY-RUNNER `c893…` = 3.\n- Old EN `39c0…` is tombstoned and excluded.\n\nThe JSON DTO always has a `nodes` field, but the non-`--nodes` branch explicitly assigns `Vec::new()` (`cli.rs:7319-7341`). Therefore `spt subnet status --json` with `node_count > 0` and `nodes: []` is correct API behavior, not evidence that the runtime discovered zero nodes. The command needed for per-node liveness is `spt subnet status --nodes --json`; note that it actively performs bounded network probes for stale rows, so it is not a purely filesystem-only observation.\n\n4. Endpoint visibility\n\nLocal endpoint rows come from local perch/roster truth. Remote endpoint rows come only from `identity/registry/<subnet>.json`, passed through visibility and routability projection (`cli.rs:3015-3078`; `registry.rs:566-606`). Inbound admitted registry feeds stamp `heard.meta`. Once a peer has not been heard for `registry_evict_after` (HF config: 300,000 ms), `evict_silent_peers` deletes that peer's registry instances and rewrites snapshots (`registryhost.rs:608-650`). Node labels can remain while endpoint rows disappear. Consequently local-only `endpoint list` is the expected downstream symptom of no admitted feeds for over five minutes; it does not establish that durable membership vanished.\n\n5. Peer dialing and the self-perpetuating bootstrap gap\n\nFor each non-detached subnet, the pump gets target IDs from `roster.members_in`, excluding self and tombstones (`pump/mod.rs:902-936`). For each target `peer_hex`, it resolves exactly one address:\n\n`peer-addrs.json.addrs[peer_hex]` if present\notherwise `EndpointAddr::new(peer_id)` for id-only n0/mDNS discovery\n\nThis is `resolve_submit_addr` at `pump/mod.rs:940-958`. It never reads `RosterEntry.address`, even though the roster carries a correct durable address for the same target.\n\nOn every `PRESENCE_DIAL_FAILED`, the pump:\n- logs `PUMP_PEER_FAIL`;\n- schedules peer-local exponential backoff;\n- calls `PeerAddrStore::drop_seed(peer_hex)` unconditionally (`pump/mod.rs:869-880`).\n\nThe next attempt is necessarily id-only. The only steady-state path that copies correct roster addresses back into `peer-addrs.json` is `production_roster_exchange`'s sink, which runs after a successful QUIC + seed-proof connection (`seedproofx.rs:923-936`). That yields a closed recovery loop:\n\ncached direct address fails -> exact key deleted -> id-only discovery fails -> no connection -> roster gap-fill cannot run -> exact key stays absent -> repeat\n\nThis explains how a transient fleet-wide event can become durable global isolation while all local health fields remain green. Current missing exact HF/EN cache keys plus correct current roster addresses are the precise steady-state signature. The all-peer ten-second timeouts on both nodes show the common id-only path is not recovering. What is not directly evidenced is the historical moment at which each exact key was deleted.\n\n6. Independent malformed-cache invariant\n\nOn both nodes, the one malformed cache row uses outer key `5ff50e75…` but contains the opposite machine's nested endpoint ID. The pump performs no nested-ID scan, so that row is useless for the opposite target. It also means the actual `5ff…` target has a cache hit whose TLS/QUIC endpoint identity is not `5ff…`, guaranteeing failure or refusal.\n\nCurrent code admits this state:\n- roster gap-fill writes `pa.put(e.pubkey_hex, e.address.clone())` without checking the serialized address ID (`seedproofx.rs:870-879`);\n- `PeerAddrStore::put` accepts opaque JSON under any key (`peeraddrs.rs:84-94`);\n- gap-fill is fill-only, so a malformed existing `5ff…` row is never replaced by a later correct roster row;\n- a successful direct `5ff…` connection would overwrite it, but the malformed row prevents that bootstrap.\n\nBoth current rosters are now correct, so the exact historical bad input is gone. The likely historical writer is the roster gap-fill path during a transient bad incoming `5ff…` roster entry; a later higher-lease roster merge corrected `roster.json` while fill-only peer cache state remained. This is an inference, not a proven historical event. Pairing and presence writers derive the key and address from the same live connection and therefore do not naturally create this cross-key mapping. Concurrent cache writes can lose an update but cannot transpose a key and nested ID.\n\nThe capability was introduced by commit `0c42869024b7158cca6fc6b204ac8fbb30840922` (`.git/logs/HEAD:348`), the Mesh-D4 roster/peer-address reconciliation change, and shipped with the 0.3.0 full-mesh model (`CHANGELOG.md:882-883`).\n\nRANKED HYPOTHESES\n\n1. HIGH: Direct-address deletion cascade plus unusable id-only discovery.\n\nEvidence:\n- Exact HF and EN cache keys are absent on the opposite machines.\n- Both correct rosters still carry the addresses, but code never consults them while dialing.\n- Both logs show repeated all-peer ten-second failures.\n- Failure unconditionally deletes each target's exact seed; no roster recovery can run without success.\n- Fresh heartbeat and `net_up` are expected under this failure mode.\n\nPredictions:\n- For every repeatedly failing peer, either the exact cache key is absent or was removed after the first failure.\n- Correct direct addresses may still exist in `roster.json` and remain unused.\n- Clearing `peer-addrs.json` alone will not repair the node; it forces all peers to id-only and likely leaves behavior unchanged or worse.\n- A controlled cache rebuilt from verified-current roster/live endpoint addresses would move attempts past address discovery. If those ports are stale, the first failure will delete them and return to id-only.\n- If id-only n0/mDNS starts working, a success will immediately repopulate the exact target key from `PRESENCE_CONNECTED` and convergence will resume within a pump cadence.\n\n2. HIGH-MEDIUM: Stable SPT QUIC transport/listener path is black-holed by firewall, current-port discovery, relay registration, or ALPN reachability.\n\nEvidence:\n- Both nodes can bind network and rotating meet endpoints, and Tailscale IP transport is healthy, but every stable peer dial times out.\n- The Windows installer itself documents detached daemons being silently unreachable without a program-scoped inbound UDP rule (`install.ps1:157-180`).\n- `net_up` does not test incoming UDP, relay registration, or a remote handshake.\n- `PAIR_MEET_UP` uses temporary token-derived identities and the pre-trust meet ALPN, not the stable node ID/member ALPN.\n- `NET_FAMILY_GATE` selected IPv4-only on HF, making current IPv4 UDP listener/rule/path evidence especially relevant.\n\nPredictions:\n- Packet capture shows outbound QUIC Initial packets but no peer Handshake response if transport/listener/firewall is the boundary.\n- The named firewall rule may exist yet be disabled, profile-inapplicable, or point to a different executable. CLI's existence-only check will miss this, and JSON status never renders the human warning.\n- Stable broker UDP ports may differ from cached/roster ports after restart. Meet-listener ports rotating every 30 seconds do not identify the stable SPT port.\n- A direct current stable `EndpointAddr` will fail before any seed-proof stream traffic if this hypothesis is correct.\n\n3. MEDIUM-LOW: QUIC connects, but mutual seed-proof or roster-control protocol stalls inside the same ten-second envelope.\n\nEvidence:\n- The timeout covers both `endpoint.connect` and `prove_membership`, so logs cannot exclude it.\n- Connection registration and `conn_count` occur only after proof, so zero live connections does not distinguish transport from proof.\n\nAgainst:\n- HF and EN seeds and epochs match exactly for both shared subnets.\n- Both run 0.31.0.\n- Clock offsets are irrelevant to steady-state seed-proof and are near zero anyway.\n- A clean proof denial should normally produce `seed-proof failed: peer is not a subnet member`, not only the outer timeout, if the exchange completes.\n\nPredictions:\n- Packet capture shows a completed QUIC handshake, followed by a bidi control stream and then silence/stall.\n- Any exact seed/epoch mismatch, tombstone of the current peer key, or asymmetric protocol branch would reproduce on every direct address.\n- Instrumentation would need stage-specific timing to separate `connect`, proof Hello, proof sets, roster exchange, and seed-transfer. Current production logs do not provide it.\n\n4. LOW / state-falsified on HF and EN: Detachment, tombstoning current identities, disabled pump, or endpoint visibility policy.\n\nCapability:\n- Detachment skips the entire subnet fanout while local net stays bound (`pump/mod.rs:907-914`).\n- Tombstones remove targets from `members_in` and inbound authorization.\n- `peer_pump=false` prevents pump spawn.\n- Visibility can hide all endpoints while nodes remain members.\n\nObserved contradiction:\n- Both `attachment.json` and `daemon.json.detached_subnets` are empty.\n- Both have `peer_pump=true` and relay n0.\n- Current HF/EN keys are non-tombstoned; only old EN `39c…` is tombstoned.\n- HF visibility hide maps are empty.\n- Logs show actual dial attempts, proving peers are fan targets.\n\n5. LOW as current primary cause: Whole-pump wedge or stale broker image.\n\nCapability/history:\n- Rotated HF log lines 7-12 show an older peer reply-read failure causing `PEER_PUMP_FAIL` and a supervised restart.\n- Changelog 0.30.1 and 0.30.2 explicitly fixed whole-round poisoning and serial head-of-line blocking.\n\nObserved contradiction:\n- Current 0.31.0 logs show independent `PUMP_PEER_FAIL` rows while the heartbeat stays fresh.\n- Broker image matches 0.31.0.\n- A current whole-pump wedge would stale the heartbeat beyond three 30-second registry cadences; observed heartbeat is fresh.\n\nREAD-ONLY DISCRIMINATING PROBES\n\nA. Validate every cache key/ID invariant on both hosts, without touching SPT:\n\nPowerShell concept:\n`$j = Get-Content \"$env:LOCALAPPDATA\\spt-core\\identity\\peer-addrs.json\" -Raw | ConvertFrom-Json; $j.addrs.psobject.Properties | ForEach-Object { [pscustomobject]@{ outer=$_.Name; inner=$_.Value.id; match=($_.Name -eq $_.Value.id) } }`\n\nResult discriminator:\n- `match=false` proves malformed cache rows.\n- Exact remote key absent proves pump will use id-only, regardless of a matching nested ID elsewhere.\n\nB. Compare roster recoverability versus actual dial input:\n- Read `identity/roster.json` and locate the exact current remote pubkey in each shared subnet.\n- Compare its `address.id` and addresses with `peer-addrs.json.addrs.<exact-key>`.\n- If roster is correct and cache exact-key is absent, the recovery-gap hypothesis is directly satisfied because code does not consult roster addresses.\n- Record file `LastWriteTimeUtc` and hash for forensic correlation only; do not rewrite it.\n\nC. Verify firewall semantics, not merely rule existence:\n- `netsh advfirewall firewall show rule name=\"spt-core inbound UDP\" verbose`\n- Compare Enabled, Direction, Profiles, Protocol, and Program against the actual running broker executable path on HF and EN.\n- This is more discriminating than the CLI check at `cli.rs:6888-6904`, which asks only whether `netsh show rule` exits successfully.\n\nD. Correlate current stable UDP listeners with cached ports:\n- Read broker PID from daemon status/PID file.\n- Use `Get-NetUDPEndpoint` filtered by that owning PID.\n- Distinguish the stable broker listener from the separately rotating `PAIR_MEET_UP` sockets.\n- Compare the stable port to roster/cache direct addresses. A stale cached port predicts timeout and then exact-key deletion.\n\nE. Observe QUIC stage without changing SPT state:\n- Capture UDP traffic between HF and EN during an already-occurring pump attempt, preferably on Tailscale and physical adapters.\n- Outbound Initial with no valid response => address/listener/firewall/relay layer.\n- Completed QUIC handshake followed by stream traffic and a ten-second stall => seed-proof/roster protocol layer.\n- No packets toward any current direct address, only discovery/relay traffic => exact-key miss and id-only fallback.\n\nF. Compare credential/gate state without publishing secrets:\n- Compare subnet names, seed epochs, and cryptographic hashes of seed values between hosts.\n- Confirm current peer keys are not tombstoned and held subnets are not detached.\n- This has already been done for HF/EN: seeds/epochs match and detached sets are empty, substantially lowering hypotheses 3 and 4.\n\nG. Log signatures:\n- `PUMP_PEER_FAIL:<id>:submit-dial exceeded the 10s bound` is stage-ambiguous.\n- `PUMP_PEER_FAIL:<id>:connect failed: No addressing information available` points to address discovery before membership success.\n- `seed-proof failed: peer is not a subnet member` points to completed transport plus failed/empty proof.\n- `REGISTRY_EVICT:<subnet>: ...` confirms endpoint disappearance is silent-feed cleanup, not membership removal.\n- `PEER_PUMP_FAIL` / `PEER_PUMP_RESTART` indicates a whole-pump carrier failure; fresh heartbeat with only `PUMP_PEER_FAIL` indicates per-peer failure isolation.\n\nH. Do not use cache deletion as the first diagnostic:\n- The store is correctness-optional, so clearing it is structurally safe for durable membership/secrets.\n- Operationally it removes all remaining direct bootstrap routes.\n- The current code does not reconstruct it from `roster.json` on startup or next tick; reconstruction requires a successful member connection.\n- Prediction: clearing alone leaves the nodes id-only and therefore does not distinguish or repair the observed state. A controlled, reversible experiment with verified-current direct addresses would be sharper, but it mutates live state and was not performed under this assignment.\n\nConclusion: local health reporting is behaving according to its current definitions, but those definitions do not cover transport success. The highest-value engineering target is the recovery gap between durable roster addresses and the dial cache: validate key/address identity on write and load, consult a correct roster address before id-only fallback, and avoid permanently erasing the only direct bootstrap route without a usable replacement. No remediation was performed."},"status":"success","type":"result"},"isError":false,"timestamp":1784069641769}}
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{"type":"message","id":"f9c4ea21","parentId":"d6d95e42","timestamp":"2026-07-14T22:54:01.782Z","message":{"role":"user","content":"Your current interruptible wait was interrupted because an IRC message arrived from your parent agent `Main`.\n\nParent IRC message:\n\nPlease finalize now. Frame pinned steady-state mechanism separately from unproven initial transient. Include exact code/state/log anchors, falsified hypotheses, and remediation/test shape without mutating live daemons.","attribution":"agent","timestamp":1784069503828,"steering":true}}
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{"type":"custom_message","customType":"irc:incoming","content":"<irc>\nIncoming IRC message from agent `IsolationLogRCA`:\n\nHF peer-addrs.json lines 31-38 has key 5ff50e75... (SCELTOUIN per roster lines 119+) but value.id=ecb39e40... (ENLYZEAM), while no ecb-key exists. Pump resolve uses map key first then id-only; current daemon config relay=no. Could this mismatch arise only PRESENCE_CONNECTED remote_id vs remote_addr mismatch? See pump 852-881 and seedproof gapfill 870-936 (gapfill can't create mismatch if roster addr IDs consistent). Any broker 0.31 conn attribution bug/protocol clue?\n\nAn agent sent this while you were waiting or working. Any active interruptible wait was stopped early so you can read it now.\n\nIf a response is expected, reply with the `irc` tool (`op: \"send\"`, `to: \"IsolationLogRCA\"`) — you may finish your current step first. Nobody replies on your behalf.\n</irc>","display":true,"details":{"id":"15300275862e3665","from":"IsolationLogRCA","message":"HF peer-addrs.json lines 31-38 has key 5ff50e75... (SCELTOUIN per roster lines 119+) but value.id=ecb39e40... (ENLYZEAM), while no ecb-key exists. Pump resolve uses map key first then id-only; current daemon config relay=no. Could this mismatch arise only PRESENCE_CONNECTED remote_id vs remote_addr mismatch? See pump 852-881 and seedproof gapfill 870-936 (gapfill can't create mismatch if roster addr IDs consistent). Any broker 0.31 conn attribution bug/protocol clue?"},"attribution":"agent","id":"cd8bd1d3","parentId":"39f42e11","timestamp":"2026-07-14T22:54:13.137Z"}
{"type":"message","id":"be120723","parentId":"cd8bd1d3","timestamp":"2026-07-14T22:54:25.179Z","message":{"role":"assistant","content":[{"type":"thinking","thinking":"**Assessing daemon relay configuration consistency**"},{"type":"toolCall","id":"call_mFdPUu9cV6YhsOrmgYhdZxHs|fc_0ab8fe3744caebb2016a56be1bf4288197a5b6d1bcaecd664d","name":"irc","arguments":{"i":"Clarifying corrupt cache provenance","op":"send","to":"IsolationLogRCA","message":"Current PRESENCE_CONNECTED path should not transpose: register_conn derives `remote_id_hex` from `conn.remote_id()` and `observed_addr_json` calls `conn_remote_addr(conn)`, whose nested ID is also `conn.remote_id()` (nethost.rs:559-579; endpoint.rs:543-559); pump records those paired fields at 857-866. Pairing writer likewise keys remote_hex and serializes same conn. Gapfill CAN write a mismatch only if the incoming roster row was mismatched at that historical moment. Current-correct rosters do not disprove that: later higher-lease merge corrects roster, while fill-only peer cache preserves bad 5ff forever. No current 0.31 attribution/protocol bug found that generates 5ff→opposite from consistent inputs; exact provenance is unproven without old state/diff history. Treat mismatch as independent persisted invariant defect/amplifier, not root trigger. Pinned global mechanism is exact-key failures delete exact seeds, then pump ignores correct roster addresses and remains id-only.","replyTo":null,"await":false,"from":null,"timeoutMs":null,"peek":null}}],"api":"openai-codex-responses","provider":"openai-codex","model":"gpt-5.6-sol","usage":{"input":949,"output":397,"cacheRead":304640,"cacheWrite":0,"totalTokens":305986,"reasoningTokens":123,"cost":{"input":0.004745,"output":0.01191,"cacheRead":0.15231999999999998,"cacheWrite":0,"total":0.168975}},"stopReason":"toolUse","timestamp":1784069653152,"responseId":"resp_0ab8fe3744caebb2016a56be15c4348197b7012f5f26d7cd36","providerPayload":{"type":"openaiResponsesHistory","provider":"openai-codex","dt":true,"items":[{"id":"rs_0ab8fe3744caebb2016a56be190a1481979df6fe5b66edcf8c","type":"reasoning","content":[],"encrypted_content":"gAAAAABqVr4bC_wjMm58M2O5Usm0GOfaOGRWUw8p5cSESIRq3mzokw5HQN9rsFj0wt9D_UDWj6ig2moVq8RIH7dTMyy0mQhxJ1XW5cj9ttYTzQSeqjt3XWRQyagRzfb3fLV04tYBKgwOh1spD8_vmuvuV5MgQVBoy-K0UtaZg02gVZEVgeLfRfOlVFcizMkm9ZEdDee3ZiPIO49X5drw5gPUd08_4Yd0UfHLCBRWw5aOw89hiVUUqdHlnn7N9GDS59GoJvZe_03HnKOFDOFy_xdzPs-a8PsG6AOp2VvF6Ayw17lEQ8iCBliEQY4I_DvOfzl9J-Vt_Xo4wApjm8gAc6__hVX3ymKjX8-tjdYJ0InKaZw9494vkIuc5lOcEXzf9XLQowZ5KnrHxdO5eUy5Qnvq563h-ImvFRzbeWO-koR5LHXbEaE1cHt9FGekeWzCKnnHB1R_2qDtbomTeMF-0j_Mzhu60-DCijuMh1jIrLfUsWvm2ytJtfb4w5VJ8Drj94taSlXnml4QSoU55hDg8iS_zAQlkk9RmcW-HrVpSEap-fjSmssxVYoCjXmN-a8viChNhnQZNjXn4KaDX0vGVo3hZjWZPOZgKJFdwjEYtQr_qFWYw9oGPFol8O69cV0e707Nhpy0n_aXE9jrym1NFjtrOcSLlojFso_dBLbvLVvT2wTEPZ79fTmx6XKsco2A6DwJA5no7SYemX8CXu-dG9gVwacNMzveKPDFsc7kIN_z3a0pwDhQIk1EiHoL14QmSfjClAYnaF9niuMzk6TiDwXpEie4mZ5WZ2ZT4ZUVLnnbk_Ml_ztI8fKfSJ_3JaeGHGwnOUZ5YKMyPNuVNTZ0xcrWXVUQ2xCHqIqNcU_I8JlEvzdj-1WSlfhTUS9v-luDY10zHUDVR-PLzwdjeirdhZoCKdhyyeTm0VLgN0SqrxyG7LpVYPs5tDw5lb-Dy5_kUkf1qN6m0wz_ErQXGEwLVAnTsaYzTJN-lT-UDL9XdXr4BV3TJ0PamDcOlmP7_sp_pVFsZv5rs2cmwtTlbYocbdYRFIYF0-Uh4Tld-csZufa0PEh1ahAWtMBn41S-EHirEks1HTOgUG45MAlVOhgLtGvNXtSo4fmYSrkWDqk7KT8EouNr9eDrmYqCazSyANk32nZKbvQqKAT5r_YWWJTKRgPUbDeddHEuXiCN7dPhl688VpVUveB3OunnHlW87eQJo212Rav-jymqnR5Gdx69K__HO6SqlZMF_MKt0Y-M4grcg8HAoCHc9bFNNfXG5nFopVH5cmXDentDoZjhA44NPwWTHyDTPVm-uaMWagiOQNPfBy6tPSKflgf6OZFrMAXi4PhvxhYCyPBRvhpW1ARJKlFz8nQzZeZwiSIwE-0qsqoSt2wkTsoYMf3Fliv3_1dpOPRPiAe5RHT35tb--5GtGoZkjbQybnniM4stAJ7-77izpX6okExfRySBbAv3vEzLpbS0h3bWGYsJz50z51jctz5_011tlSTog1JhWwfFl-Da5xL_fXt2aIhbFUiLOYW4asqz3rXmGRfS5waY4Z1it13DiB9uRZ-WD8lATTKSpoDufUMeatITgwTq68cXQ_daG87XUmONR-V9bNfYgLarAD8TJBdmrue3qEkn_o0Q-v5EOBHMDzZ0070W0ovop8vJ-o_CxHs3vRWdwaFGrWZSm70m4ipav7idQCac2g0oIgYKZeOiYBxWuU7GKpf-BX8ETMXqS8DCOr5g","summary":[{"type":"summary_text","text":"**Assessing daemon relay configuration consistency**"}]},{"id":"fc_0ab8fe3744caebb2016a56be1bf4288197a5b6d1bcaecd664d","type":"function_call","status":"completed","arguments":"{\"i\":\"Clarifying corrupt cache provenance\",\"op\":\"send\",\"to\":\"IsolationLogRCA\",\"message\":\"Current PRESENCE_CONNECTED path should not transpose: register_conn derives `remote_id_hex` from `conn.remote_id()` and `observed_addr_json` calls `conn_remote_addr(conn)`, whose nested ID is also `conn.remote_id()` (nethost.rs:559-579; endpoint.rs:543-559); pump records those paired fields at 857-866. Pairing writer likewise keys remote_hex and serializes same conn. Gapfill CAN write a mismatch only if the incoming roster row was mismatched at that historical moment. Current-correct rosters do not disprove that: later higher-lease merge corrects roster, while fill-only peer cache preserves bad 5ff forever. No current 0.31 attribution/protocol bug found that generates 5ff→opposite from consistent inputs; exact provenance is unproven without old state/diff history. Treat mismatch as independent persisted invariant defect/amplifier, not root trigger. Pinned global mechanism is exact-key failures delete exact seeds, then pump ignores correct roster addresses and remains id-only.\",\"replyTo\":null,\"await\":false,\"from\":null,\"timeoutMs\":null,\"peek\":null}","call_id":"call_mFdPUu9cV6YhsOrmgYhdZxHs","name":"irc"}]},"duration":12026.113800048828,"ttft":3915.763000011444,"contextSnapshot":{"promptTokens":305589,"nonMessageTokens":17981}}}
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{"type":"message","id":"4801029d","parentId":"f2b375a5","timestamp":"2026-07-14T22:54:25.180Z","message":{"role":"toolResult","toolCallId":"call_mFdPUu9cV6YhsOrmgYhdZxHs|fc_0ab8fe3744caebb2016a56be1bf4288197a5b6d1bcaecd664d","toolName":"irc","content":[{"type":"text","text":"Delivered to 1 peer(s):\n- IsolationLogRCA: woken"}],"details":{"op":"send","from":"IsolationCodeRCA","to":"IsolationLogRCA","receipts":[{"to":"IsolationLogRCA","outcome":"woken"}]},"isError":false,"timestamp":1784069665180}}
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