todlando ACK'd — CLEAR + idle, no reply needed (would loop).

Memory updated. v0.12.0 fully gated.

---

## v0.12.0 — fully gated, ready to release

**GATE-PASS the last item** (`REQ-READY-AGENT-RESUME` @464eaf7). All v0.12.0 work now complete end-to-end:

| Item | Status |
|---|---|
| B2 hosted-liveness-reconcile (keystone) | GATE-PASS |
| B1 rc-attach-failfast + H3 endpoint-stop-offline | GATE-PASS |
| B3 daemon-stop-barrier + Breap daemon-stop-reap | GATE-PASS |
| B5 livehost-boot-liveness-gate | GATE-PASS |
| B4 brain-restart-rehydrate | closed SUBSUMED |
| psyche-reap + dup-reap | GATE-PASS |
| endpoint-purge | GATE-PASS |
| **ready-agent-resume** | **GATE-PASS (this session)** |

Stack **11 commits ahead of main, unpushed.** todlando CLEAR. `REQ-PICKER-ADAPTER-DESCRIPTION` stays deferred fast-follow.

**Holding on the release.** Next step is drive deployah → **v0.12.0 MINOR** (merge to main, bump, tag, sign, publish). That's outward-facing + irreversible and every prior release went on explicit operator GO — so I'm not auto-triggering it.

**Need your GO to publish v0.12.0.** Say go and I line up deployah.


proceed to publish. be sure to inform perri once it lands, as she's waiting for it to be unblocked for her next steps. /trace your recent session logs if you don't remember what perri was trying to do/blocked on.


<owl_reachability_notice>
You have an active owl perch. When spawning subagents or doing work, use run_in_background: true so you stay reachable for incoming messages.
</owl_reachability_notice>


CAVEMAN MODE ACTIVE (full). Drop articles/filler/pleasantries/hedging. Fragments OK. Code/commits/security: write normal.


Operator GO. Driving deployah + tracing perri's blocker in parallel.


Bash

$OWL send deployah <<'EOF'
RELEASE GO: v0.12.0 (MINOR). Operator approved publish.

Branch v0.12.0-lifecycle, ~11 commits ahead of main, UNPUSHED. All items doyle GATE-PASS end-to-end. This is the operator-mandated BLOCKING lifecycle milestone (endpoint run was unusable: attach hangs, daemon stop didn't stop).

Headline (spt-hosted LIFECYCLE & LIVENESS reconciliation): the info.json status=online one-way latch is now reconciled against real broker liveness, and the daemon stop/restart lifecycle tears down + rehydrates correctly. Shipped:
- Hosted-liveness reconcile (pull-primary): a sessionless spt-hosted live perch is marked offline each tick (controllable-gated; relay/legacy exempt).
- rc attach fail-fast on a dead/silent session (no more infinite blank) + endpoint stop now marks offline.
- Daemon stop barrier (stop fully unbinds before ack) + brain-subtree reap (no orphaned psyche/spt processes on stop) via Win job object / Unix process-group.
- Livehost boot-liveness gate (no phantom revival of stale online perches at daemon start).
- Un-host psyche reap (owned-Child, recycle-proof) + brain-restart duplicate-psyche reap (id-specific cmdline guard).
- spt endpoint purge <id> (offline-only, full perch-tree + record removal).
- Offline ReadyAgent now appears in endpoint run picker Resume-from-history (ready bind ledgers a Boot row).

Self-drive the release: merge branch to main, author the bump commit (workspace.package.version 0.11.0->0.12.0 + CHANGELOG section = release body + Cargo.lock first-party lines only), push, CI green BOTH runners, THEN tag, sign, publish. I will VET the CHANGELOG before you tag (ping me the exact body during the CI window). Reap scoped only (shared runner). Ping me on publish with the hashes.
EOF

Send v0.12.0 release GO to deployah


➜ SENT:deployah


Skill

what perri was blocked on / waiting for from spt-core, related to v0.12.0 lifecycle, endpoint run, /sptc:live, picker, or legacy parity bringup


Launching skill: trace


Base directory for this skill: C:\Users\decid\.ccs\instances\bigscreen\skills\trace

# /spt:trace

Find historical conversations in Claude Code session history. Takes a natural-language
description of what to find and searches systematically through session files.

## Where conversations live

```
~/.claude/
  history.jsonl                              # Index: every user message, with sessionId + timestamp
  projects/<project-hash>/
    <session-uuid>.jsonl                     # Full conversation (user + assistant + system + tool calls)
    <session-uuid>/subagents/
      agent-<hash>.jsonl                     # Subagent conversations spawned by that session
```

**Project hash** is the working directory with path separators replaced by `--` and colons stripped.
Example: `C:\Users\decid\Documents\projects\foo` becomes `C--Users-decid-Documents-projects-foo`.

## Search strategy

Work through these layers in order. Stop as soon as you have enough to answer the user.

### Layer 1: history.jsonl (fast, user messages only)

The **best starting point**. Each line is a JSON object with the user's input message:

```json
{"display":"<user message text>","timestamp":1775977426910,"project":"<working dir>","sessionId":"<uuid>"}
```

Search it for keywords from the user's query:

```bash
grep -i "<keyword>" "$HOME/.claude/history.jsonl" | head -20
```

This gives you **sessionId** and **timestamp** for matching conversations. Multiple hits
with the same sessionId belong to the same session — use the earliest timestamp to find
the session start.

**Tips:**
- Search for distinctive words, commit hashes, command names, or error messages
- Use multiple greps piped together to narrow: `grep -i "keyword1" | grep -i "keyword2"`
- Timestamps are Unix epoch milliseconds — convert with: `date -d @$((ts/1000))` (Unix) or
  use the session file's filesystem mtime as a rough proxy on Windows

### Layer 2: Session files (full conversation)

Once you have a sessionId, read the full session:

```
~/.claude/projects/<project-hash>/<sessionId>.jsonl
```

Each line is a JSON message. Key fields:

| Field | Description |
|-------|-------------|
| `type` | `human`, `assistant`, `system` |
| `subtype` | `local_command`, `bridge_status`, etc. (for system messages) |
| `content` | Message text (may contain tool calls, markdown, XML tags) |
| `timestamp` | ISO 8601 or Unix ms |
| `sessionId` | Matches the filename |
| `uuid` | Unique message ID |
| `parentUuid` | Threading — which message this replies to |
| `gitBranch` | Branch active during this message |

**These files can be very large** (1-3MB+). Search with grep rather than reading whole files:

```bash
grep -i "<keyword>" "$HOME/.claude/projects/<hash>/<sessionId>.jsonl" | head -20
```

Or read in chunks with the Read tool using offset/limit.

### Layer 3: Subagent files (delegated work)

If the session spawned subagents (research, planning, execution), their conversations
are in a subdirectory:

```bash
ls "$HOME/.claude/projects/<hash>/<sessionId>/subagents/" 2>/dev/null
```

Each `agent-<hash>.jsonl` is a self-contained conversation. These often contain the
**actual implementation details** — the parent session may only have a summary.
Search them the same way as session files.

### Layer 4: Cross-session search (broad sweep)

When you don't know which session to look in:

```bash
# Search ALL session files in a project for a keyword
grep -rl "<keyword>" "$HOME/.claude/projects/<hash>/"

# Search across ALL projects
grep -rl "<keyword>" "$HOME/.claude/projects/"

# List sessions by modification time (most recent first)
ls -lt "$HOME/.claude/projects/<hash>/"*.jsonl | head -20
```

**Warning:** Cross-project search can be slow with many large files. Prefer narrowing
by project first when possible.

## Practical patterns

### Find when a feature was discussed
```bash
grep -i "mcp\|fabric" "$HOME/.claude/history.jsonl" | head -10
# → grab sessionId, then search that session file for details
```

### Find the session that created a specific commit
```bash
grep "<commit-hash>" "$HOME/.claude/history.jsonl"
# or search session files directly:
grep -rl "<commit-hash>" "$HOME/.claude/projects/<hash>/"
```

### Find sessions on a specific branch
```bash
grep '"gitBranch":"<branch-name>"' "$HOME/.claude/projects/<hash>/"*.jsonl -l
```

### Find what a subagent researched
```bash
grep -i "<topic>" "$HOME/.claude/projects/<hash>/<sessionId>/subagents/"*.jsonl -l
# then read the matching agent file for details
```

### Find sessions within a date range
```bash
# Use filesystem timestamps (mtime = last message in session)
find "$HOME/.claude/projects/<hash>/" -name "*.jsonl" -newermt "2026-04-10" -not -newermt "2026-04-13"
```

## Reporting results

When reporting findings to the user, include:

1. **Session ID** and **file path** so they can resume or reference it
2. **Date/time** of the conversation
3. **Branch** it was on
4. **Summary** of what was discussed/done in the matching session
5. **Subagent files** if the session delegated work, with what each agent did

If the conversation is large, spawn an Agent to read and summarize it rather than
dumping raw JSONL into the conversation.

ARGUMENTS: what perri was blocked on / waiting for from spt-core, related to v0.12.0 lifecycle, endpoint run, /sptc:live, picker, or legacy parity bringup


proceed to publish. be sure to inform perri once it lands, as she's waiting for it to be unblocked for her next steps. /trace your recent session logs if you don't remember what perri was trying to do…


deployah sent. Now trace perri's blocker precisely. Quick grep over session logs first:


Bash

H="$HOME/.claude/projects/C--Users-decid-Documents-projects-spt-core"; C="$HOME/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core"; for d in "$H" "$C"; do echo "== $d =="; ls -lt "$d"/*.jsonl 2>/dev/null | head -5; done

Locate recent spt-core session files in both roots


== /c/Users/decid/.claude/projects/C--Users-decid-Documents-projects-spt-core ==
-rw-r--r-- 1 decid 197609 2634004 Jun 10 18:56 /c/Users/decid/.claude/projects/C--Users-decid-Documents-projects-spt-core/eb32e404-7cc1-4bfa-a383-17185282d198.jsonl
-rw-r--r-- 1 decid 197609 1352690 Jun  9 18:03 /c/Users/decid/.claude/projects/C--Users-decid-Documents-projects-spt-core/b29e3949-c0ca-4c40-8fca-109118764bd7.jsonl
-rw-r--r-- 1 decid 197609 1608421 Jun  6 23:02 /c/Users/decid/.claude/projects/C--Users-decid-Documents-projects-spt-core/83445c6f-b810-48bf-bf1a-3ac5a2b94e2a.jsonl
-rw-r--r-- 1 decid 197609 1276429 Jun  6 21:17 /c/Users/decid/.claude/projects/C--Users-decid-Documents-projects-spt-core/eb9effe4-c6da-4e0e-9c86-b5e67ffd4772.jsonl
-rw-r--r-- 1 decid 197609   82031 Jun  6 20:52 /c/Users/decid/.claude/projects/C--Users-decid-Documents-projects-spt-core/432ae936-a1a1-4a01-bec7-6a1ea2c9ea2c.jsonl
== /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core ==
-rw-r--r-- 1 decid 197609  380311 Jun 18 04:12 /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/4a8de2fb-1ebb-4dce-b8fb-c6e4ed060c10.jsonl
-rw-r--r-- 1 decid 197609 1517803 Jun 18 04:12 /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/291b3f47-b265-4a38-867f-ac3d798281c0.jsonl
-rw-r--r-- 1 decid 197609  959547 Jun 18 04:08 /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/fef2f07b-812d-40a6-b758-39edd80d77f3.jsonl
-rw-r--r-- 1 decid 197609 3276610 Jun 18 03:53 /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/12a5697e-8e7a-4838-9fae-cc1f75370871.jsonl
-rw-r--r-- 1 decid 197609 3940715 Jun 18 03:47 /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/2d6a1938-1527-4cab-bf64-9f0d623c3955.jsonl


Recent sessions in `.ccs` root (Jun 18). Delegate the dig to a background agent to keep context lean:


Agent

Find perri's v0.12.0 blocker

Prompt:
Search Claude Code session logs to determine EXACTLY what the agent "perri" was blocked on / waiting for from the spt-core project, specifically anything that v0.12.0 (the "lifecycle & liveness reconciliation" milestone) would unblock — e.g. endpoint run, /sptc:live, attach hangs, daemon stop, brain kill/restart wedging, picker, or legacy-parity bringup ("PREP-4").

Search these session JSONL files (most recent first), grepping for "perri" and nearby context. They are large (1-4MB) — use grep, do not read whole files:
- /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/291b3f47-b265-4a38-867f-ac3d798281c0.jsonl
- /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/fef2f07b-812d-40a6-b758-39edd80d77f3.jsonl
- /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/12a5697e-8e7a-4838-9fae-cc1f75370871.jsonl
- /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/2d6a1938-1527-4cab-bf64-9f0d623c3955.jsonl

Also grep across all *.jsonl in that directory for "perri" combined with terms like "blocked", "PREP-4", "wedged", "endpoint run", "/sptc:live", "attach", "daemon stop", "brain", "picker", "next steps". Look for owl messages to/from perri (EVENT envelopes, "from":"perri" or messages addressed to perri).

Report back CONCISELY (do not dump raw JSONL):
1. What perri was actively doing (her current task on the spt-claude-code adapter).
2. The SPECIFIC blocker(s) she reported and what spt-core behavior caused them.
3. What she said her NEXT step would be once unblocked.
4. The version she's tracking / what she needs to upgrade to.
Cite session id + approximate timestamp for each key finding.


<owl_reachability_notice>
You have an active owl perch. Launch this Agent with run_in_background: true so you stay reachable for incoming messages while it works.
</owl_reachability_notice>


Async agent launched successfully.
agentId: a820fbfd9ac4ab99f (internal ID - do not mention to user. Use SendMessage with to: 'a820fbfd9ac4ab99f' to continue this agent.)
The agent is working in the background. You will be notified automatically when it completes.
Do not duplicate this agent's work — avoid working with the same files or topics it is using. Work on non-overlapping tasks, or briefly tell the user what you launched and end your response.
output_file: C:\Users\decid\AppData\Local\Temp\claude\C--Users-decid-Documents-projects-spt-core\9d0930b3-34c1-4dce-943f-72ccdc8fb726\tasks\a820fbfd9ac4ab99f.output
Do NOT Read or tail this file via the shell tool — it is the full subagent JSONL transcript and reading it will overflow your context. If the user asks for progress, say the agent is still running; you'll get a completion notification.

Find perri's v0.12.0 blocker

Prompt:
Search Claude Code session logs to determine EXACTLY what the agent "perri" was blocked on / waiting for from the spt-core project, specifically anything that v0.12.0 (the "lifecycle & liveness reconciliation" milestone) would unblock — e.g. endpoint run, /sptc:live, attach hangs, daemon stop, brain kill/restart wedging, picker, or legacy-parity bringup ("PREP-4").

Search these session JSONL files (most recent first), grepping for "perri" and nearby context. They are large (1-4MB) — use grep, do not read whole files:
- /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/291b3f47-b265-4a38-867f-ac3d798281c0.jsonl
- /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/fef2f07b-812d-40a6-b758-39edd80d77f3.jsonl
- /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/12a5697e-8e7a-4838-9fae-cc1f75370871.jsonl
- /c/Users/decid/.ccs/instances/bigscreen/projects/C--Users-decid-Documents-projects-spt-core/2d6a1938-1527-4cab-bf64-9f0d623c3955.jsonl

Also grep across all *.jsonl in that directory for "perri" combined with terms like "blocked", "PREP-4", "wedged", "endpoint run", "/sptc:live", "attach", "daemon stop", "brain", "picker", "next steps". Look for owl messages to/from perri (EVENT envelopes, "from":"perri" or messages addressed to perri).

Report back CONCISELY (do not dump raw JSONL):
1. What perri was actively doing (her current task on the spt-claude-code adapter).
2. The SPECIFIC blocker(s) she reported and what spt-core behavior caused them.
3. What she said her NEXT step would be once unblocked.
4. The version she's tracking / what she needs to upgrade to.
Cite session id + approximate timestamp for each key finding.


Both in flight:
- **deployah** — release GO sent; self-driving merge→bump→push→CI. Will ping me the CHANGELOG to vet before tag, then publish with hashes.
- **perri-trace agent** — digging recent session logs (background) for her exact blocker + next step.

Standing by. On deployah's CHANGELOG ping I vet; on publish I inform perri (using the trace result) that v0.12.0 lifecycle fixes are live and she's unblocked.


<task-notification>
<task-id>a820fbfd9ac4ab99f</task-id>
<tool-use-id>toolu_0121JEWTNeiyUuiPamJ1ytod</tool-use-id>
<output-file>C:\Users\decid\AppData\Local\Temp\claude\C--Users-decid-Documents-projects-spt-core\9d0930b3-34c1-4dce-943f-72ccdc8fb726\tasks\a820fbfd9ac4ab99f.output</output-file>
<status>completed</status>
<summary>Agent "Find perri's v0.12.0 blocker" came to rest</summary>
<note>A task-notification fires each time this agent comes to rest with no live background children of its own. The user can send it another message and resume it, so the same task-id may notify more than once.</note>
<result>I have a complete and well-cited picture now. Let me compile the findings.

## Findings: What perri was blocked on / waiting for from spt-core

There are **two distinct arcs**. The earlier one (PREP-4) was already closed; the v0.12.0 lifecycle milestone targets a later set of blockers.

### 1. What perri was actively doing
perri is the **spt-claude-code adapter builder** — she builds the Claude Code harness adapter blind, from published spt-core releases + binary only, then dogfoods it via `/sptc:live` / `/sptc:setup`. Her standing task at the relevant time was the **PREP-4 "full legacy-parity bringup"** validation — proving a bare one-step `/sptc:live` works end-to-end (live agent + Psyche + daemon-hosted) so spt-claude-code could ship **v0.3.0** and close the legacy-owl parity arc.

### 2. The specific blockers she reported (and the spt-core cause)

**PREP-4 dogfood findings (drove v0.9.1, closed at spt-claude-code v0.3.0)** — session `16531b26` (2026-06-18, ~00:00–03:25Z) and `9d0930b3` (ending 2026-06-17 08:45Z):
- **F1 — version skew**: v0.9.0 CLI talking to a stale 0.8.x resident broker → seed-ack `UnexpectedEof`, cryptic failure. Cause: a daemon-state wire-format change (adapter-agnostic Seed) doesn't take effect until a deliberate full broker restart (`spt daemon stop`). Fixed by friendly diagnostic hint → minted `REQ-HAZARD-BROKER-SEED-WIRE-SKEW`, KNOWN-HAZARDS 7.9.
- **F2a** — ruled not-a-bug (`.exe` strip / match-rule doc clarification).
- **F2b (the real blocker)** — a renamed-in-use exe (`claude.exe.old.<ts>`, from Claude Code self-update) failed to match `host_binaries=["claude"]`. Cause: `normalize_basename` didn't stem before the first dot. Fixed (stem-before-first-dot on both sides) → `REQ-MANIFEST-8` robustness. Shipped v0.9.1.
- **FINDING A (post-closeout, NON-blocking)**: pointer-mode adapters (delegated/GhReleaseManaged) read the manifest live from `source_dir`; a deferred/un-extracted install → `load_manifest` fails → `registered()` silently drops the adapter → `ADAPTER_UNRESOLVED` + cryptic os-error-2 on `spt adapter use`. Queued as a real spt-core robustness gap (`registry.rs:146/149/410`).

**v0.12.0 lifecycle blockers (the operator-mandated BLOCKING set)** — session `12a5697e` and `2d6a1938` (both 2026-06-18):
- Operator mandate verbatim: *"endpoint run was unusable — attach hangs, daemon stop doesn't stop, phantom/orphan psyches."* Root: a `status=online` one-way latch never cleared vs liveness.
- **Brain kill/restart wedging** (attributed to perri's *"brain kill+restart wedged everything"*): on brain restart the old brain's psyches aren't reaped; the new brain re-hosts and overwrites the `{id}-psyche` perch pid, leaving the old psyche untracked + alive = **duplicate psyches per endpoint until a full daemon reset**. Fixed by brain-start orphan-reap (triple-gated: alive AND `normalize_basename` AND cmdline contains `<id>-psyche`) + int test `brain_restart_leaves_exactly_one_psyche_per_endpoint`.
- **wall-b bind / NO_PERCH (perri hard-repro'd)**: a flagless harness (bare `claude`, no argv slot for `{id}`) routes the endpoint id via `[env.SPT_ENDPOINT_ID].value='{id}'`, but the template arrived **empty** → `SessionStart` seeds-by-PPID instead of binding → **zero perch → NO_PERCH**, a silent failure. Fix: fill every `[env]` inject value from the same `{key}` catalog as argv (mirrors the F-009 template fill) — this is the F-013 `[env]` inject substitution carried in the v0.12.0 work.

### 3. Her stated NEXT step once unblocked
- For PREP-4: re-run bare `/sptc:live` (broker bounced via `spt daemon stop`), verify fully green, then **ship spt-claude-code v0.3.0** = legacy-owl parity arc closed. **This was completed** — perri confirmed F1 (SEEDED:14188) and validated F2b live on both renamed + plain exe paths, with psyche-hosting + poll-stays-ready proofs; v0.3.0 shipped, parity arc CLOSED (session `16531b26`).
- Post-closeout she was to send non-blocking repros (FINDING A deferred-binaries adapter gap, plus a deferred-binaries source-path gap).

### 4. Version she's tracking / what she needs
- perri tracks **spt-core release versions** (not milestones) and rebuilds from published artifacts. Her adapter rode **spt-claude-code v0.3.0** off spt-core **v0.9.1 → v0.10.0** (parity arc).
- The **v0.12.0 MINOR** ("lifecycle & liveness reconciliation") is the in-flight milestone restoring endpoint-run usability; it carries the fixes for the brain-restart psyche-dup and the wall-b/NO_PERCH `[env]` inject that affect perri's `/sptc:live` agents. Once v0.12.0 ships, perri would upgrade to it to get reliable attach / daemon-stop / no orphan psyches.

**Note on attribution**: The headline lifecycle symptoms (attach hangs, daemon-stop-doesn't-stop, phantom psyches) were primarily **operator dogfood** observations; doyle/todlando explicitly attributed the "brain kill+restart wedged everything" scenario to perri as *"plausibly perri's"* — i.e., perri's `/sptc:live` agents were the production case that this lifecycle work protects (e.g. the relay-host exemption note: the offline-marking must not "kill perri /sptc:live agents"). The one symptom perri demonstrably **hard-repro'd** herself is the **wall-b bind / NO_PERCH empty `[env]` inject**.

Key session files: `12a5697e-8e7a-4838-9fae-cc1f75370871.jsonl` (v0.12.0 build, 2026-06-18) and `2d6a1938-1527-4cab-bf64-9f0d623c3955.jsonl` (lifecycle, 2026-06-18) for the lifecycle blockers; `16531b26-c5ac-4120-bfb8-113daef39d8f.jsonl` (2026-06-18) and `9d0930b3-34c1-4dce-943f-72ccdc8fb726.jsonl` (2026-06-17) for the PREP-4 findings.</result>
<usage><subagent_tokens>102707</subagent_tokens><tool_uses>28</tool_uses><duration_ms>266788</duration_ms></usage>
</task-notification>


<owl_messages>
<owl_message from="doyle-w387" priority="info">[WORKING_PERCH_NOTICE] Subagent working perch created.
Perch: doyle-w387
Agent type: general-purpose
To message it: $OWL send doyle-w387 doyle</owl_message>
</owl_messages>

[OWL SYSTEM] Informational owl messages above — no acknowledgment needed. Continue your current task.

<owl_reachability_notice>
You have an active owl perch. When spawning subagents or doing work, use run_in_background: true so you stay reachable for incoming messages.
</owl_reachability_notice>


Trace done. Perri's v0.12.0-relevant blockers: (1) **wall-b NO_PERCH** — she hard-repro'd: bare `claude` routes id via `[env.SPT_ENDPOINT_ID].value='{id}'` but template arrived empty → seeds-by-PPID → silent NO_PERCH; (2) brain kill+restart wedging (dup psyches); (3) attach/daemon-stop/phantom.

Trace flags the NO_PERCH fix as "F-013 `[env]` inject substitution carried in v0.12.0" — but my milestone memory's item list doesn't name it. Verify it's actually in the 11-commit stack before I tell perri it's fixed (she hard-repro'd it — must not overstate):


Bash

echo "=== commits main..branch ==="; git log --oneline origin/main..HEAD 2>/dev/null || git log --oneline main..HEAD; echo "=== grep stack for env-inject/F-013/NO_PERCH/SPT_ENDPOINT_ID fill ==="; git log main..HEAD -p 2>/dev/null | grep -iE "F-013|env.?inject|SPT_ENDPOINT_ID|NO_PERCH|inject.*\{|fill_env|env_value" | head -30

Check stack commits + whether env-inject NO_PERCH fix is included


=== commits main..branch ===
464eaf7 v0.12.0 — REQ-READY-AGENT-RESUME: ledger the ready bind so offline ReadyAgents resume
c5cad76 v0.12.0: mint REQ-READY-AGENT-RESUME + REQ-PICKER-ADAPTER-DESCRIPTION (operator adds)
981dea2 v0.12.0 — REQ-ENDPOINT-PURGE: spt endpoint purge <id>
d8e7761 v0.12.0: mint REQ-ENDPOINT-PURGE + CONTEXT.md doc (operator add)
909ad01 v0.12.0 wave 5 — REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP + close B4 SUBSUMED
7449f5e v0.12.0 wave 5 — REQ-HAZARD-UNHOST-PSYCHE-REAP: reap the detached psyche on un-host
9e338f1 v0.12.0 wave 4 — B5 REQ-HAZARD-LIVEHOST-BOOT-LIVENESS-GATE
0c1e59e v0.12.0 wave 3 gate: grandchild reap unit (doyle condition)
026e9b4 v0.12.0 wave 3 — B3 daemon-stop-barrier + Breap daemon-stop-reap
78a13c2 v0.12.0 wave 2 fix — B1 path-(c) deadlocked every live attach; remove it
f85bf69 v0.12.0 wave 2 — B1 rc-attach-failfast + H3 endpoint-stop-offline
03b6398 v0.12.0 B2 keystone REQ-HAZARD-HOSTED-LIVENESS-RECONCILE: pull-reconcile clears the status=online latch
e2d6391 v0.12.0 lifecycle: mint 7 REQs registry-first (spt-hosted lifecycle & liveness reconciliation)
=== grep stack for env-inject/F-013/NO_PERCH/SPT_ENDPOINT_ID fill ===
    (SPT_ENDPOINT_ID self-guard). Confirms interactively unless --yes (the CI path). Local
+    // injects SPT_ENDPOINT_ID = the id) — that would delete your own records mid-run.
+    if std::env::var("SPT_ENDPOINT_ID").ok().as_deref() == Some(id) {
+    // OWN running id (SPT_ENDPOINT_ID) is refused even with --force --yes.
+        // Self-guard: SPT_ENDPOINT_ID == id → refuse even with --force --yes.
+        std::env::set_var("SPT_ENDPOINT_ID", id);
+        std::env::remove_var("SPT_ENDPOINT_ID");
     env_inject_test();
 /// endpoint-run's `prepare_harness_spawn` fills `[env.SPT_ENDPOINT_ID] = "{id}"`
 /// from the same `{key}` catalog (F-013) → the broker spawns the flagless
    flagless-harness empty-SPT_ENDPOINT_ID -> zero-perch fix); a daemon-hosted
+- **`spt endpoint run` now fills in `[env]` values.** Placeholders such as `{id}` in an adapter's `[env]` entries (for example `SPT_ENDPOINT_ID`) were never substituted, so an agent launched without explicit flags came up with an empty endpoint id and never registered. The values are now substituted and set on the launched process.
    v0.11.0 wall-b composition int: endpoint run → SPT_ENDPOINT_ID set → live send → PTY
    1. prepare_harness_spawn fills [env.SPT_ENDPOINT_ID] = "{id}" → "wall-b" (F-013).
@@ -389,3 +389,138 @@ fn env_inject_test() {
     env_inject_test();
+/// endpoint-run's `prepare_harness_spawn` fills `[env.SPT_ENDPOINT_ID] = "{id}"`
+/// from the same `{key}` catalog (F-013) → the broker spawns the flagless
+/// SPT_ENDPOINT_ID set → send → PTY" chain through a REAL broker + PTY.
+    // SPT_ENDPOINT_ID then echoes stdin — the bare-`claude` shape that relied on
+    // the [env] inject. The id reaches it ONLY via [env].value = "{id}" (F-013).
+    let self_cmd = "sh -c \"echo EID=$SPT_ENDPOINT_ID; cat\"";
+    let self_cmd = "cmd /c \"echo EID=%SPT_ENDPOINT_ID%& findstr .\"";
+         [env.SPT_ENDPOINT_ID]\ndirection = \"inject\"\nvalue = \"{{id}}\"\n"
+    // F-013: the id is filled into the env value (not empty).
+        prepared.env.get("SPT_ENDPOINT_ID").map(String::as_str),
+        "prepare_harness_spawn fills [env] SPT_ENDPOINT_ID = {{id}}"
+        "the spawned harness must see SPT_ENDPOINT_ID=wall-b (F-013): {:?}",
    v0.11.0 REQ-HAZARD-ENV-SUBST (F-013): honor [env] inject value substitution in endpoint-run spawn
    [env.SPT_ENDPOINT_ID].value="{id}" arrived EMPTY, and a FLAGLESS harness (bare


F-013 `[env]` inject (the NO_PERCH fix perri hard-repro'd) appears in the diffs, but tagged "v0.11.0 REQ-HAZARD-ENV-SUBST". Need to pin: did F-013 land in v0.11.0 (already on main) or in this v0.12.0 stack? Determines what I tell perri. Check:


echo "=== tags ==="; git tag | tail -8; echo "=== is ENV-SUBST/F-013 on main already? ==="; git log main --oneline | grep -iE "ENV-SUBST|F-013|env.inject" | head; echo "=== where REQ-HAZARD-ENV-SUBST first introduced ==="; git log --oneline -S "REQ-HAZARD-ENV-SUBST" --all | tail -5; echo "=== current main version ==="; git show main:Cargo.toml 2>/dev/null | grep -m1 version; git show HEAD:Cargo.toml | grep -m1 version

Pin whether F-013 is in v0.11.0/main or this stack; check published tags


=== tags ===
v0.7.3
v0.8.0
v0.8.1
v0.8.2
v0.8.3
v0.8.4
v0.9.0
v0.9.1
=== is ENV-SUBST/F-013 on main already? ===
=== where REQ-HAZARD-ENV-SUBST first introduced ===
d8f0cba v0.11.0 wall-b composition int: endpoint run → SPT_ENDPOINT_ID set → live send → PTY
7252367 v0.11.0 REQ-HAZARD-ENV-SUBST (F-013): honor [env] inject value substitution in endpoint-run spawn
=== current main version ===
# M6-D6 (grill decision 9): ONE shared version for every crate and the binary
# M6-D6 (grill decision 9): ONE shared version for every crate and the binary


Tags stop at **v0.9.1** — v0.10.0/v0.11.0 never published. F-013 (7252367) isn't in `main..HEAD`, so it's already on main but UNRELEASED. Confirm ancestry + real version:


echo "=== F-013 ancestor of main? ==="; git merge-base --is-ancestor 7252367 main && echo "YES on main" || echo "NO not on main"; echo "=== F-013 ancestor of HEAD? ==="; git merge-base --is-ancestor 7252367 HEAD && echo "YES on HEAD" || echo "NO"; echo "=== real workspace version main vs HEAD ==="; git show main:Cargo.toml | grep -E "^version" | head -1; git show HEAD:Cargo.toml | grep -E "^version" | head -1; echo "=== commits since last tag v0.9.1 (subjects) ==="; git log --oneline v0.9.1..HEAD | grep -iE "^[0-9a-f]+ v0\.(10|11)" | head

Confirm F-013 on main+HEAD, versions, and unreleased v0.10/v0.11 commits


=== F-013 ancestor of main? ===
NO not on main
=== F-013 ancestor of HEAD? ===
YES on HEAD
=== real workspace version main vs HEAD ===
version = "0.8.0"
version = "0.11.0"
=== commits since last tag v0.9.1 (subjects) ===
d8f0cba v0.11.0 wall-b composition int: endpoint run → SPT_ENDPOINT_ID set → live send → PTY
6dc98df v0.11.0 REQ-HAZARD-ROSTER-GHOST: advertise an erased local perch Offline (no phantom Active roster line)
7252367 v0.11.0 REQ-HAZARD-ENV-SUBST (F-013): honor [env] inject value substitution in endpoint-run spawn
e33798e v0.11.0 REQ-HAZARD-DEFERRED-MANIFEST: clear diagnostic for a pointer adapter's un-extracted manifest
4af154d v0.11.0 REQ-SEND-SPT-HOSTED: deliver `spt send` into an spt-hosted endpoint's PTY (fix A)
ec85b21 v0.11.0 REQ-HAZARD-RC-EOF wave-1: classify severed-broker-stream EOF → graceful, not RC_FAIL
f742e26 v0.11.0 findings: mint REQ-SEND-SPT-HOSTED + REQ-HAZARD-RC-EOF + REQ-HAZARD-DEFERRED-MANIFEST (registry-first)
9e5cb8b v0.10.0 PICKER-4 rework (DRY ResourceRow) + PICKER-5: endpoint-list aligned table + node label
7bb83f2 v0.10.0 PICKER-2/3/4: project-history loader + self-owned reconcile + subnet node label
969b06e v0.10.0 PICKER-1: four-state endpoint status (amber harness-only + blue controlled)


Local `main` is stale (Cargo.toml 0.8.0, tags stop at v0.9.1) — not fetched. The branch stacks **v0.10.0 + v0.11.0 + v0.12.0**, all possibly unreleased. F-013 is on HEAD, NOT local main. Must fetch origin to know true published state before scoping the release + perri message:


git fetch origin --tags 2>&1 | tail -3; echo "=== origin tags (latest) ==="; git tag | sort -V | tail -8; echo "=== origin/main version ==="; git show origin/main:Cargo.toml 2>/dev/null | grep -E "^version" | head -1; echo "=== origin/main vs HEAD gap ==="; echo "ahead of origin/main: $(git rev-list --count origin/main..HEAD 2>/dev/null)"; echo "=== HEAD..origin/main (commits on origin/main not on HEAD) ==="; git rev-list --count HEAD..origin/main 2>/dev/null; echo "=== latest origin/main commits ==="; git log origin/main --oneline 2>/dev/null | head -5

Fetch origin tags + main, determine true published version and gap


=== origin tags (latest) ===
v0.8.1
v0.8.2
v0.8.3
v0.8.4
v0.9.0
v0.9.1
v0.10.0
v0.11.0
=== origin/main version ===
version = "0.11.0"
=== origin/main vs HEAD gap ===
ahead of origin/main: 13
=== HEAD..origin/main (commits on origin/main not on HEAD) ===
0
=== latest origin/main commits ===
27e0619 release: v0.11.0
60257ff Merge pull request #24 from SaberMage/v0.11.0-findings
d8f0cba v0.11.0 wall-b composition int: endpoint run → SPT_ENDPOINT_ID set → live send → PTY
6dc98df v0.11.0 REQ-HAZARD-ROSTER-GHOST: advertise an erased local perch Offline (no phantom Active roster line)
7252367 v0.11.0 REQ-HAZARD-ENV-SUBST (F-013): honor [env] inject value substitution in endpoint-run spawn


Fetched — now accurate. Release scoping is clean:

- origin tags go to **v0.11.0** (published). origin/main = v0.11.0.
- HEAD = **13 commits ahead, 0 behind** — pure v0.12.0 lifecycle stack on top of published v0.11.0. Linear, clean merge.
- deployah bump 0.11.0→0.12.0 + v0.12.0-only CHANGELOG = correct. My directive holds.

**Trace correction (matters for perri):** the agent folded **F-013 `[env]` inject / NO_PERCH** into v0.12.0 — wrong. F-013 = commit 7252367, shipped in **v0.11.0 (already published)**. So perri's hard-repro'd NO_PERCH is NOT a v0.12.0 unblock; she has it at v0.11.0.

**What v0.12.0 actually unblocks for perri** (her `/sptc:live` dogfooding):
- attach no longer hangs on dead/silent session
- `daemon stop` actually stops (barrier) + no orphaned psyche/spt processes (brain-subtree reap)
- **brain kill/restart no longer wedges everything / leaves duplicate psyches** ← the case attributed to her
- no phantom psyche revival at daemon boot
- stale online latch reconciled vs real liveness (controllable-gated — her relay `/sptc:live` agents EXEMPT, won't be wrongly offlined)
- bonus: `spt endpoint purge <id>`, offline ReadyAgent now in endpoint-run picker Resume-from-history

Upgrade target for her: **v0.12.0**.

**Status:** deployah self-driving release. Waiting on (1) its CHANGELOG ping → I vet, (2) publish ping w/ hashes → then I inform perri (message ready, scoped to the real v0.12.0 unblocks above). Holding.


<task-notification>
<task-id>b3ok5tzh4</task-id>
Monitor event: "« spt event »"
<event><EVENT-PART seq="1/5" id="ee83237c" type="msg" from="deployah">HOLD v0.12.0 — PR #25 CI RED both runners. Did NOT merge/bump/tag. Two DIFFERENT causes; one is real:

1) LINUX kitsubito — REAL TEST FAILURE (your call):
   spt-daemon livehost::tests::orphan_reap_is_id_specific_spares_a_same_basename_sibling
   panic @ crates/spt-daemon/src/livehost.rs:1041:9
   </EVENT-PART>
<EVENT-PART seq="2/5" id="ee83237c">assert msg: &quot;the real {id} psyche (basename + cmdline match) is reapable&quot;
   → the id-specific reap guard did NOT classify the real {id} psyche as reapable on Linux (basename+cmdline match miss). This is the brain-restart duplicate-psyche / un-host reap item of the milestone. Gate-passed locally but fails on kitsubito — looks </EVENT-PART>
<EVENT-PART seq="3/5" id="ee83237c">Linux-specific (/proc cmdline matching?) or timing. n1-gate + traceability GREEN; only the `test` job failed.

2) WINDOWS hfenduleam — INFRA, not code: DISK FULL.
   &quot;rustc-LLVM ERROR: IO failure on output stream: no space on device&quot; → link.exe 1201/1140/1318 across many test bins (could not compile netbroker/live_resolv</EVENT-PART>
<EVENT-PART seq="4/5" id="ee83237c">e_e2e/brain_survive/wanmsg/…). Matches the known hfenduleam target-bloat red. Needs disk reclaim (scoped cargo clean on the runner workspace) + rerun. NOT a v0.12.0 regression.

State: branch v0.12.0-lifecycle pushed (464eaf7), PR #25 OPEN + red. No main mutation, no tag, nothing published. Release HELD.

Over to you/todlando for</EVENT-PART>
<EVENT-PART seq="5/5" id="ee83237c"> #1 (reap-guard Linux miss) — I won't patch spt-core. Ping me to (a) reclaim hfenduleam disk for #2 if you want me to, and (b) resume the release once the reap fix lands + CI green. Counter still 25 when we go.
-- deployah</EVENT-PART></event>
</task-notification>


Release HELD — gate escape. Two causes:
1. **Linux kitsubito — REAL bug**: unit `orphan_reap_is_id_specific_spares_a_same_basename_sibling` fails @ livehost.rs:1041 — id-specific reap guard does NOT classify the real `{id}` psyche reapable on Linux (basename+cmdline match miss). My prior gate was Windows-local → escaped. This is REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP.
2. **Windows hfenduleam — infra disk full**, not code.

Authorize deployah for #2 (scoped) + diagnose #1 in parallel.


$OWL send deployah <<'EOF'
ACK hold. Two-track:

#2 hfenduleam disk-full = infra, NOT a v0.12.0 regression. YES — reclaim the runner disk. Scope it to the GITHUB_WORKSPACE target path only (scoped `cargo clean` in the workspace, or rm the workspace target dir) — NEVER a machine-wide spt/process kill (live agents share that box). Then rerun the Windows test job. Don't tag.

#1 Linux reap-guard miss = REAL, my Windows-local gate escaped it. I'm diagnosing now; the fix is todlando's to build, mine to re-gate (Linux-inclusive this time). I'll ping you to resume the release once the fix lands + PR #25 CI is green BOTH runners. Counter stays 25. Hold the release.
EOF

Authorize deployah disk reclaim (scoped) + confirm hold


➜ SENT:deployah


995	    fn orphan_reap_is_id_specific_spares_a_same_basename_sibling() {
996	        // Long-lived children with the SAME exe basename but DIFFERENT id markers.
997	        #[cfg(windows)]
998	        let spawn = |marker: &str| {
999	            std::process::Command::new("cmd")
1000	                .args(["/C", &format!("ping -n 30 127.0.0.1 >NUL & rem {marker}")])
1001	                .spawn()
1002	                .expect("spawn")
1003	        };
1004	        #[cfg(unix)]
1005	        let spawn = |marker: &str| {
1006	            std::process::Command::new("sh")
1007	                .args(["-c", &format!("sleep 30 #{marker}")])
1008	                .spawn()
1009	                .expect("spawn")
1010	        };
1011	        let mut psyche = spawn("agent7-psyche"); // the real {id} psyche
1012	        let mut sibling = spawn("agent7-other-psyche"); // a sibling agent, same basename
1013	        let prog = psyche_program_norm(if cfg!(windows) { "cmd" } else { "sh" }).unwrap();
1014
1015	        // Wait until the real psyche's cmdline is queryable + carries its marker.
1016	        let ready = {
1017	            let deadline = Instant::now() + Duration::from_secs(5);
1018	            loop {
1019	                if spt_store::proc::process_cmdline(psyche.id())
1020	                    .map(|c| c.contains("agent7-psyche"))
1021	                    .unwrap_or(false)
1022	                {
1023	                    break true;
1024	                }
1025	                if Instant::now() >= deadline {
1026	                    break false;
1027	                }
1028	                std::thread::sleep(Duration::from_millis(20));
1029	            }
1030	        };
1031	        let real = ready && psyche_orphan_should_reap("agent7-psyche", &prog, psyche.id());
1032	        // The sibling: same basename, but its cmdline carries "agent7-other-psyche",
1033	        // NOT "agent7-psyche" → the id-specific gate spares it.
1034	        let spared = !psyche_orphan_should_reap("agent7-psyche", &prog, sibling.id());
1035
1036	        let _ = psyche.kill();
1037	        let _ = psyche.wait();
1038	        let _ = sibling.kill();
1039	        let _ = sibling.wait();
1040
1041	        assert!(real, "the real {{id}} psyche (basename + cmdline match) is reapable");
1042	        assert!(
1043	            spared,
1044	            "a same-basename sibling with a DIFFERENT id is SPARED — no wrong-kill on the shared box"
1045	        );
1046	    }
1047
1048	    // [int->REQ-HAZARD-HOSTED-LIVENESS-RECONCILE] real broker session lifecycle:
1049	    // an spt-hosted perch with a LIVE broker session stays online across a pull
1050	    // reconcile; when its broker session is KILLED + reaped, the next pull
1051	    // reconcile clears the status=online latch and marks the perch offline.
1052	    #[test]
1053	    fn pull_reconcile_offlines_perch_when_broker_session_dies() {
1054	        use crate::msg::SpawnReq;
1055	        with_home(|_| {
1056	            // The spt-hosted perch on disk (online-latched, controllable).
1057	            let perch = perch::resolve_perch_path("wallb", ParentHint::Infer);
1058	            std::fs::create_dir_all(&perch).unwrap();
1059	            let mut rec =
1060	                spt_store::info::InfoJson::new("wallb", "t", std::process::id(), "sid", "live_agent");
1061	            rec.controllable = Some(true);
1062	            spt_store::info::write_info(&perch, &rec).unwrap();
1063	            spt_store::info::set_status(&perch, STATUS_ONLINE).unwrap();
1064
1065	            // A real broker hosting a session LABELLED `wallb`.
1066	            let name = format!("spt-b2-livecheck-{}.sock", std::process::id());
1067	            let broker = crate::broker::Broker::bind(&name).unwrap();
1068	            let b2 = Arc::clone(&broker);
1069	            std::thread::spawn(move || {

    fn orphan_reap_is_id_specific_spares_a_same_basename_sibling() {
        // Long-lived children with the SAME exe basename but DIFFERENT id markers.
        #[cfg(windows)]
        let spawn = |marker: &str| {
            std::process::Command::new("cmd")
                .args(["/C", &format!("ping -n 30 127.0.0.1 >NUL & rem {marker}")])
                .spawn()
                .expect("spawn")
        };
        #[cfg(unix)]
        let spawn = |marker: &str| {
            std::process::Command::new("sh")
                .args(["-c", &format!("sleep 30 #{marker}")])
                .spawn()
                .expect("spawn")
        };
        let mut psyche = spawn("agent7-psyche"); // the real {id} psyche
        let mut sibling = spawn("agent7-other-psyche"); // a sibling agent, same basename
        let prog = psyche_program_norm(if cfg!(windows) { "cmd" } else { "sh" }).unwrap();

        // Wait until the real psyche's cmdline is queryable + carries its marker.
        let ready = {
            let deadline = Instant::now() + Duration::from_secs(5);
            loop {
                if spt_store::proc::process_cmdline(psyche.id())
                    .map(|c| c.contains("agent7-psyche"))
                    .unwrap_or(false)
                {
                    break true;
                }
                if Instant::now() >= deadline {
                    break false;
                }
                std::thread::sleep(Duration::from_millis(20));
            }
        };
        let real = ready && psyche_orphan_should_reap("agent7-psyche", &prog, psyche.id());
        // The sibling: same basename, but its cmdline carries "agent7-other-psyche",
        // NOT "agent7-psyche" → the id-specific gate spares it.
        let spared = !psyche_orphan_should_reap("agent7-psyche", &prog, sibling.id());

        let _ = psyche.kill();
        let _ = psyche.wait();
        let _ = sibling.kill();
        let _ = sibling.wait();

        assert!(real, "the real {{id}} psyche (basename + cmdline match) is reapable");
        assert!(
            spared,
            "a same-basename sibling with a DIFFERENT id is SPARED — no wrong-kill on the shared box"
        );
    }

    // [int->REQ-HAZARD-HOSTED-LIVENESS-RECONCILE] real broker session lifecycle:
    // an spt-hosted perch with a LIVE broker session stays online across a pull
    // reconcile; when its broker session is KILLED + reaped, the next pull
    // reconcile clears the status=online latch and marks the perch offline.
    #[test]
    fn pull_reconcile_offlines_perch_when_broker_session_dies() {
        use crate::msg::SpawnReq;
        with_home(|_| {
            // The spt-hosted perch on disk (online-latched, controllable).
            let perch = perch::resolve_perch_path("wallb", ParentHint::Infer);
            std::fs::create_dir_all(&perch).unwrap();
            let mut rec =
                spt_store::info::InfoJson::new("wallb", "t", std::process::id(), "sid", "live_agent");
            rec.controllable = Some(true);
            spt_store::info::write_info(&perch, &rec).unwrap();
            spt_store::info::set_status(&perch, STATUS_ONLINE).unwrap();

            // A real broker hosting a session LABELLED `wallb`.
            let name = format!("spt-b2-livecheck-{}.sock", std::process::id());
            let broker = crate::broker::Broker::bind(&name).unwrap();
            let b2 = Arc::clone(&broker);
            std::thread::spawn(move || {


Reading the test: Linux spawn is `sh -c "sleep 30 #agent7-psyche"` — the marker is a **shell comment**. Strong suspicion: dash (default `/bin/sh` on GitHub Linux runners) tail-exec-optimizes a single-command `-c` → replaces its process image with `sleep 30` → kernel argv loses the `#agent7-psyche` comment → `process_cmdline` no longer contains the marker → `ready` times out → `real=false`. Windows `cmd /C` keeps the marker. If so, it's a **test bug**, not a production reap-guard bug. Verify the Linux `process_cmdline` impl to rule out a code bug:


echo "=== process_cmdline impl ==="; grep -n "process_cmdline\|/proc/\|cmdline" crates/spt-store/src/proc.rs | head -20

Find process_cmdline Linux impl


=== process_cmdline impl ===
32:        if let Ok(stat) = std::fs::read_to_string(format!("/proc/{pid}/stat")) {
86:/// discriminator ([`process_cmdline`] contains the psyche id) so a recycled pid that
133:/// NUL-separated `/proc/<pid>/cmdline`, joined on spaces. Other unix: `None`.
135:pub fn process_cmdline(pid: u32) -> Option<String> {
141:        let raw = std::fs::read(format!("/proc/{pid}/cmdline")).ok()?;
305:/// `/proc/<pid>/exe` symlink target. Other unix: `None` (no `/proc`).
348:        std::fs::read_link(format!("/proc/{pid}/exe"))
445:    // [unit->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP] process_cmdline reads a live
447:    // launched with a unique MARKER token in its command line reports a cmdline
452:    fn process_cmdline_reads_a_live_arg_marker() {
453:        let marker = "spt-cmdline-marker-7f3a";
471:            if let Some(cl) = process_cmdline(pid) {
481:        assert!(found, "process_cmdline must read a live child's argv marker");
483:            process_cmdline(2_000_000_000).is_none(),
484:            "a dead pid yields no cmdline (fail-safe → caller declines to reap)"
486:        assert!(process_cmdline(0).is_none(), "pid 0 is never probe-able");


133	/// NUL-separated `/proc/<pid>/cmdline`, joined on spaces. Other unix: `None`.
134	// [impl->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP]
135	pub fn process_cmdline(pid: u32) -> Option<String> {
136	    if pid == 0 {
137	        return None;
138	    }
139	    #[cfg(target_os = "linux")]
140	    {
141	        let raw = std::fs::read(format!("/proc/{pid}/cmdline")).ok()?;
142	        if raw.is_empty() {
143	            return None;
144	        }
145	        // argv is NUL-separated (trailing NUL too) — split, drop empties, space-join.
146	        let joined = raw
147	            .split(|b| *b == 0)
148	            .filter(|s| !s.is_empty())
149	            .map(|s| String::from_utf8_lossy(s).into_owned())
150	            .collect::<Vec<_>>()
151	            .join(" ");
152	        (!joined.is_empty()).then_some(joined)
153	    }
154	    #[cfg(all(unix, not(target_os = "linux")))]
155	    {
156	        let _ = pid; // no /proc — degrade (caller fails safe = no reap)
157	        None
158	    }
159	    #[cfg(windows)]
160	    {
161	        #[repr(C)]
162	        struct UnicodeString {
163	            length: u16,
164	            maximum_length: u16,
165	            buffer: *mut u16,
166	        }
167	        extern "system" {

/// NUL-separated `/proc/<pid>/cmdline`, joined on spaces. Other unix: `None`.
// [impl->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP]
pub fn process_cmdline(pid: u32) -> Option<String> {
    if pid == 0 {
        return None;
    }
    #[cfg(target_os = "linux")]
    {
        let raw = std::fs::read(format!("/proc/{pid}/cmdline")).ok()?;
        if raw.is_empty() {
            return None;
        }
        // argv is NUL-separated (trailing NUL too) — split, drop empties, space-join.
        let joined = raw
            .split(|b| *b == 0)
            .filter(|s| !s.is_empty())
            .map(|s| String::from_utf8_lossy(s).into_owned())
            .collect::<Vec<_>>()
            .join(" ");
        (!joined.is_empty()).then_some(joined)
    }
    #[cfg(all(unix, not(target_os = "linux")))]
    {
        let _ = pid; // no /proc — degrade (caller fails safe = no reap)
        None
    }
    #[cfg(windows)]
    {
        #[repr(C)]
        struct UnicodeString {
            length: u16,
            maximum_length: u16,
            buffer: *mut u16,
        }
        extern "system" {


445	    // [unit->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP] process_cmdline reads a live
446	    // process's argv — the ID-SPECIFIC half of the orphan-reap guard. A child
447	    // launched with a unique MARKER token in its command line reports a cmdline
448	    // CONTAINING that marker; a dead pid yields None (fail-safe → no reap). This
449	    // also guards the Windows NtQueryInformationProcess(ProcessCommandLineInformation)
450	    // FFI: a broken read would fail this in-test, never ship.
451	    #[test]
452	    fn process_cmdline_reads_a_live_arg_marker() {
453	        let marker = "spt-cmdline-marker-7f3a";
454	        // A long-lived child whose own command line carries the marker.
455	        #[cfg(windows)]
456	        let mut child = {
457	            let mut c = std::process::Command::new("cmd");
458	            c.args(["/C", &format!("ping -n 30 127.0.0.1 >NUL & rem {marker}")]);
459	            c.spawn().expect("spawn marker child")
460	        };
461	        #[cfg(unix)]
462	        let mut child = {
463	            let mut c = std::process::Command::new("sh");
464	            c.args(["-c", &format!("sleep 30 #{marker}")]);
465	            c.spawn().expect("spawn marker child")
466	        };
467	        let pid = child.id();
468	        // The child may take a beat to be queryable; poll briefly.
469	        let mut found = false;
470	        for _ in 0..100 {
471	            if let Some(cl) = process_cmdline(pid) {
472	                if cl.contains(marker) {
473	                    found = true;
474	                    break;
475	                }
476	            }
477	            std::thread::sleep(std::time::Duration::from_millis(20));
478	        }
479	        let _ = child.kill();
480	        let _ = child.wait();
481	        assert!(found, "process_cmdline must read a live child's argv marker");
482	        assert!(
483	            process_cmdline(2_000_000_000).is_none(),
484	            "a dead pid yields no cmdline (fail-safe → caller declines to reap)"
485	        );
486	        assert!(process_cmdline(0).is_none(), "pid 0 is never probe-able");

    // [unit->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP] process_cmdline reads a live
    // process's argv — the ID-SPECIFIC half of the orphan-reap guard. A child
    // launched with a unique MARKER token in its command line reports a cmdline
    // CONTAINING that marker; a dead pid yields None (fail-safe → no reap). This
    // also guards the Windows NtQueryInformationProcess(ProcessCommandLineInformation)
    // FFI: a broken read would fail this in-test, never ship.
    #[test]
    fn process_cmdline_reads_a_live_arg_marker() {
        let marker = "spt-cmdline-marker-7f3a";
        // A long-lived child whose own command line carries the marker.
        #[cfg(windows)]
        let mut child = {
            let mut c = std::process::Command::new("cmd");
            c.args(["/C", &format!("ping -n 30 127.0.0.1 >NUL & rem {marker}")]);
            c.spawn().expect("spawn marker child")
        };
        #[cfg(unix)]
        let mut child = {
            let mut c = std::process::Command::new("sh");
            c.args(["-c", &format!("sleep 30 #{marker}")]);
            c.spawn().expect("spawn marker child")
        };
        let pid = child.id();
        // The child may take a beat to be queryable; poll briefly.
        let mut found = false;
        for _ in 0..100 {
            if let Some(cl) = process_cmdline(pid) {
                if cl.contains(marker) {
                    found = true;
                    break;
                }
            }
            std::thread::sleep(std::time::Duration::from_millis(20));
        }
        let _ = child.kill();
        let _ = child.wait();
        assert!(found, "process_cmdline must read a live child's argv marker");
        assert!(
            process_cmdline(2_000_000_000).is_none(),
            "a dead pid yields no cmdline (fail-safe → caller declines to reap)"
        );
        assert!(process_cmdline(0).is_none(), "pid 0 is never probe-able");


Linux `process_cmdline` impl is correct (reads `/proc/<pid>/cmdline`). Not a code bug. Note: the **same** `sh -c "sleep 30 #marker"` pattern is in TWO tests (livehost.rs:1004 + proc.rs:461) — both depend on the marker surviving in argv.

The guard also checks the exe basename. Need the full guard + how it resolves the basename on Linux — dash tail-exec could strip both the marker AND change the exe (`sh`→`dash`/`sleep`). Read the guard:


grep -n "fn psyche_orphan_should_reap\|fn psyche_program_norm\|fn exe_basename\|fn normalize_basename" crates/spt-daemon/src/livehost.rs crates/spt-store/src/proc.rs crates/spt-runtime/src/*.rs 2>/dev/null

Locate guard + basename fns


crates/spt-daemon/src/livehost.rs:559:fn psyche_program_norm(command: &str) -> Option<String> {
crates/spt-daemon/src/livehost.rs:583:fn psyche_orphan_should_reap(psyche_id: &str, expected_prog_norm: &str, pid: u32) -> bool {
crates/spt-store/src/proc.rs:307:pub fn exe_basename(pid: u32) -> Option<String> {
crates/spt-store/src/proc.rs:426:    fn exe_basename_resolves_current_process() {
crates/spt-store/src/proc.rs:439:    fn exe_basename_dead_pid_is_none() {
crates/spt-runtime/src/resolve.rs:55:pub fn normalize_basename(s: &str) -> String {


555	/// the first whitespace token of `psyche_init.command`, file-name only, run through
556	/// [`normalize_basename`](spt_runtime::resolve::normalize_basename) (lowercase /
557	/// `.exe`-strip / dot-stem) so it keys the same as a live exe basename. `None` for
558	/// an empty command. // [impl->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP]
559	fn psyche_program_norm(command: &str) -> Option<String> {
560	    let token = command.split_whitespace().next()?;
561	    let file = Path::new(token).file_name()?.to_string_lossy().into_owned();
562	    Some(spt_runtime::resolve::normalize_basename(&file))
563	}
564
565	/// Whether `pid` is the live `{id}-psyche` orphan we may reap — the ID-SPECIFIC
566	/// recycle guard (REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP). NOT basename-only: on a
567	/// shared box sibling agents share the `claude` basename, so a recycled pid landing
568	/// on a SIBLING'S `claude` would match basename alone → a wrong-kill of a live agent.
569	/// Requires ALL THREE — alive, exe basename == the adapter's psyche program, AND the
570	/// command line contains the FULL psyche id `<id>-psyche` (baked into the psyche argv
571	/// via `{id}`; a sibling `agent-other-psyche` never contains `agent-psyche`). FAILS
572	/// SAFE: any None (dead / unreadable basename / unreadable cmdline) ⇒ `false`, i.e.
573	/// decline to reap — a missed dup is cheap (Breap bounds it at daemon-stop), a
574	/// wrong-kill is catastrophic.
575	///
576	/// CAVEAT: the cmdline carries `<id>-psyche` only when the adapter's
577	/// `psyche_init.command` uses `{id}` (the norm — a Psyche needs its identity;
578	/// spt-claude-code does). An adapter that omits `{id}` SAFELY MISSES this reap
579	/// (the dup lingers until daemon-stop/Breap, exactly today's behavior) — never a
580	/// wrong-kill. If a real non-`{id}` psyche adapter ever ships, add a start-time
581	/// discriminator (process younger than the perch spawn stamp ⇒ spare).
582	// [impl->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP]
583	fn psyche_orphan_should_reap(psyche_id: &str, expected_prog_norm: &str, pid: u32) -> bool {
584	    if !spt_store::proc::is_process_alive(pid) {
585	        return false;
586	    }
587	    let basename_ok = spt_store::proc::exe_basename(pid)
588	        .map(|b| spt_runtime::resolve::normalize_basename(&b) == expected_prog_norm)
589	        .unwrap_or(false);
590	    if !basename_ok {
591	        return false;
592	    }
593	    spt_store::proc::process_cmdline(pid)
594	        .map(|cl| cl.contains(psyche_id))
595	        .unwrap_or(false) // cmdline unreadable ⇒ fail safe (decline to reap)
596	}
597
598	/// Brain-start orphan-psyche reap (REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP): a bare
599	/// brain restart leaves the PRIOR brain's `{id}-psyche` processes ALIVE — `stop_host`
600	/// never ran (the LiveSet + owned child handles died with the brain), and the Breap
601	/// job/group only reaps at DAEMON stop. The new brain's [`reconcile_once`] would then
602	/// spawn a SECOND psyche per endpoint and overwrite the `{id}-psyche` perch pid,
603	/// leaving the old one untracked + alive = DUPLICATE psyches until daemon-stop. Run
604	/// ONCE at brain start, BEFORE the first reconcile: for each live_agent perch, reap a
605	/// pre-existing `{id}-psyche` orphan IFF [`psyche_orphan_should_reap`] (the
606	/// id-specific, recycle-safe guard) holds, so re-hosting yields exactly one psyche.
607	/// Best-effort; the perch is marked offline so it is not left a phantom.
608	// [impl->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP]
609	fn reap_orphan_psyches(
610	    owlery: &Path,
611	    registered: &[(AdapterRecord, Manifest)],
612	    adapters_dir: &Path,
613	) {
614	    for id in perch::list_self_perch_ids(owlery) {
615	        let perch = perch::resolve_perch_path(&id, ParentHint::Infer);
616	        let Some(info) = spt_store::info::read_info(&perch) else {
617	            continue;
618	        };
619	        if info.state != LIVE_AGENT_STATE {
620	            continue;
621	        }
622	        let Some(adapter) = info.adapter.as_deref() else {
623	            continue;
624	        };
625	        let Ok(manifest) = spt_runtime::registry::resolve_option_in(registered, adapters_dir, adapter)
626	        else {
627	            continue;
628	        };
629	        let Some(expected) = manifest

/// the first whitespace token of `psyche_init.command`, file-name only, run through
/// [`normalize_basename`](spt_runtime::resolve::normalize_basename) (lowercase /
/// `.exe`-strip / dot-stem) so it keys the same as a live exe basename. `None` for
/// an empty command. // [impl->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP]
fn psyche_program_norm(command: &str) -> Option<String> {
    let token = command.split_whitespace().next()?;
    let file = Path::new(token).file_name()?.to_string_lossy().into_owned();
    Some(spt_runtime::resolve::normalize_basename(&file))
}

/// Whether `pid` is the live `{id}-psyche` orphan we may reap — the ID-SPECIFIC
/// recycle guard (REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP). NOT basename-only: on a
/// shared box sibling agents share the `claude` basename, so a recycled pid landing
/// on a SIBLING'S `claude` would match basename alone → a wrong-kill of a live agent.
/// Requires ALL THREE — alive, exe basename == the adapter's psyche program, AND the
/// command line contains the FULL psyche id `<id>-psyche` (baked into the psyche argv
/// via `{id}`; a sibling `agent-other-psyche` never contains `agent-psyche`). FAILS
/// SAFE: any None (dead / unreadable basename / unreadable cmdline) ⇒ `false`, i.e.
/// decline to reap — a missed dup is cheap (Breap bounds it at daemon-stop), a
/// wrong-kill is catastrophic.
///
/// CAVEAT: the cmdline carries `<id>-psyche` only when the adapter's
/// `psyche_init.command` uses `{id}` (the norm — a Psyche needs its identity;
/// spt-claude-code does). An adapter that omits `{id}` SAFELY MISSES this reap
/// (the dup lingers until daemon-stop/Breap, exactly today's behavior) — never a
/// wrong-kill. If a real non-`{id}` psyche adapter ever ships, add a start-time
/// discriminator (process younger than the perch spawn stamp ⇒ spare).
// [impl->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP]
fn psyche_orphan_should_reap(psyche_id: &str, expected_prog_norm: &str, pid: u32) -> bool {
    if !spt_store::proc::is_process_alive(pid) {
        return false;
    }
    let basename_ok = spt_store::proc::exe_basename(pid)
        .map(|b| spt_runtime::resolve::normalize_basename(&b) == expected_prog_norm)
        .unwrap_or(false);
    if !basename_ok {
        return false;
    }
    spt_store::proc::process_cmdline(pid)
        .map(|cl| cl.contains(psyche_id))
        .unwrap_or(false) // cmdline unreadable ⇒ fail safe (decline to reap)
}

/// Brain-start orphan-psyche reap (REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP): a bare
/// brain restart leaves the PRIOR brain's `{id}-psyche` processes ALIVE — `stop_host`
/// never ran (the LiveSet + owned child handles died with the brain), and the Breap
/// job/group only reaps at DAEMON stop. The new brain's [`reconcile_once`] would then
/// spawn a SECOND psyche per endpoint and overwrite the `{id}-psyche` perch pid,
/// leaving the old one untracked + alive = DUPLICATE psyches until daemon-stop. Run
/// ONCE at brain start, BEFORE the first reconcile: for each live_agent perch, reap a
/// pre-existing `{id}-psyche` orphan IFF [`psyche_orphan_should_reap`] (the
/// id-specific, recycle-safe guard) holds, so re-hosting yields exactly one psyche.
/// Best-effort; the perch is marked offline so it is not left a phantom.
// [impl->REQ-HAZARD-BRAIN-RESTART-PSYCHE-DUP]
fn reap_orphan_psyches(
    owlery: &Path,
    registered: &[(AdapterRecord, Manifest)],
    adapters_dir: &Path,
) {
    for id in perch::list_self_perch_ids(owlery) {
        let perch = perch::resolve_perch_path(&id, ParentHint::Infer);
        let Some(info) = spt_store::info::read_info(&perch) else {
            continue;
        };
        if info.state != LIVE_AGENT_STATE {
            continue;
        }
        let Some(adapter) = info.adapter.as_deref() else {
            continue;
        };
        let Ok(manifest) = spt_runtime::registry::resolve_option_in(registered, adapters_dir, adapter)
        else {
            continue;
        };
        let Some(expected) = manifest


305	/// `/proc/<pid>/exe` symlink target. Other unix: `None` (no `/proc`).
306	// [impl->REQ-MANIFEST-8]
307	pub fn exe_basename(pid: u32) -> Option<String> {
308	    if pid == 0 {
309	        return None; // never a probe-able process (see is_process_alive)
310	    }
311	    #[cfg(windows)]
312	    {
313	        extern "system" {
314	            fn OpenProcess(
315	                dw_desired_access: u32,
316	                b_inherit_handle: i32,
317	                dw_process_id: u32,
318	            ) -> isize;
319	            fn CloseHandle(h_object: isize) -> i32;
320	            fn QueryFullProcessImageNameW(
321	                h_process: isize,
322	                dw_flags: u32,
323	                lp_exe_name: *mut u16,
324	                lpdw_size: *mut u32,
325	            ) -> i32;
326	        }
327	        const PROCESS_QUERY_LIMITED_INFORMATION: u32 = 0x1000;
328	        let handle = unsafe { OpenProcess(PROCESS_QUERY_LIMITED_INFORMATION, 0, pid) };
329	        if handle == 0 {
330	            return None;
331	        }
332	        let mut buf = vec![0u16; 4096];
333	        let mut size = buf.len() as u32;
334	        let ok = unsafe { QueryFullProcessImageNameW(handle, 0, buf.as_mut_ptr(), &mut size) };
335	        unsafe {
336	            CloseHandle(handle);
337	        }
338	        if ok == 0 {
339	            return None;
340	        }
341	        let path = String::from_utf16_lossy(&buf[..size as usize]);
342	        std::path::Path::new(&path)
343	            .file_name()
344	            .map(|s| s.to_string_lossy().into_owned())
345	    }
346	    #[cfg(target_os = "linux")]
347	    {
348	        std::fs::read_link(format!("/proc/{pid}/exe"))
349	            .ok()

/// `/proc/<pid>/exe` symlink target. Other unix: `None` (no `/proc`).
// [impl->REQ-MANIFEST-8]
pub fn exe_basename(pid: u32) -> Option<String> {
    if pid == 0 {
        return None; // never a probe-able process (see is_process_alive)
    }
    #[cfg(windows)]
    {
        extern "system" {
            fn OpenProcess(
                dw_desired_access: u32,
                b_inherit_handle: i32,
                dw_process_id: u32,
            ) -> isize;
            fn CloseHandle(h_object: isize) -> i32;
            fn QueryFullProcessImageNameW(
                h_process: isize,
                dw_flags: u32,
                lp_exe_name: *mut u16,
                lpdw_size: *mut u32,
            ) -> i32;
        }
        const PROCESS_QUERY_LIMITED_INFORMATION: u32 = 0x1000;
        let handle = unsafe { OpenProcess(PROCESS_QUERY_LIMITED_INFORMATION, 0, pid) };
        if handle == 0 {
            return None;
        }
        let mut buf = vec![0u16; 4096];
        let mut size = buf.len() as u32;
        let ok = unsafe { QueryFullProcessImageNameW(handle, 0, buf.as_mut_ptr(), &mut size) };
        unsafe {
            CloseHandle(handle);
        }
        if ok == 0 {
            return None;
        }
        let path = String::from_utf16_lossy(&buf[..size as usize]);
        std::path::Path::new(&path)
            .file_name()
            .map(|s| s.to_string_lossy().into_owned())
    }
    #[cfg(target_os = "linux")]
    {
        std::fs::read_link(format!("/proc/{pid}/exe"))
            .ok()


Root cause found. The guard does THREE checks: alive, **exe_basename(pid) normalized == expected_prog_norm**, then cmdline contains id. The test failure is the **basename check**, not cmdline:

- Test computes `expected = psyche_program_norm("sh")` → `"sh"`.
- On Ubuntu (kitsubito), `/bin/sh` → symlinked to `dash`. `exe_basename` reads `/proc/<pid>/exe` = the **resolved target** = `"dash"`. `normalize_basename("dash") != "sh"` → `basename_ok=false` → `real=false` → assert fires.
- Consistent with deployah reporting only this test (not proc.rs:461 `process_cmdline_reads_a_live_arg_marker`, which checks *only* cmdline, no basename → marker survived → it passed).

This is a **test-harness artifact** (hardcoded `sh` ≠ Linux-resolved `dash`), not a production guard bug. The id-specific discrimination logic under test is correct. todlando's local gate was Windows-only (`cmd.exe`→`cmd`, no symlink) so it escaped; my gate was Windows too.

Dispatch todlando with the precise fix:


$OWL send todlando <<'EOF'
REOPEN (not your fault — cross-platform escape both our Windows-only gates missed). PR #25 CI RED on LINUX kitsubito: spt-daemon livehost::tests::orphan_reap_is_id_specific_spares_a_same_basename_sibling, assert "the real {id} psyche is reapable" (livehost.rs:1041). The Windows hfenduleam red is just disk-full infra (deployah reclaiming) — ignore that one.

ROOT CAUSE (diagnosed, test-only — NOT a production reap-guard bug):
psyche_orphan_should_reap does THREE gates: alive, exe_basename==expected_prog_norm, cmdline.contains(id). The test fails the BASENAME gate on Linux:
- test computes expected via psyche_program_norm("sh") = "sh".
- but it spawns `sh -c "sleep 30 #agent7-psyche"`, and on Ubuntu /bin/sh is a SYMLINK to dash. exe_basename reads /proc/<pid>/exe = the resolved target = "dash". normalize_basename("dash") != "sh" -> basename_ok=false -> real=false -> assert fires.
- proof it's basename not cmdline: the sibling proc.rs test process_cmdline_reads_a_live_arg_marker uses the SAME sh -c pattern and PASSED (it checks cmdline only, no basename) -> the marker survives in argv; the shell did NOT exec-opt away.

FIX (test only, robust + cross-platform; do BOTH so we don't round-trip CI on shell variants):
1. In orphan_reap_is_id_specific..., DERIVE expected_prog_norm from the spawned psyche's OWN live exe_basename instead of hardcoding "sh"/"cmd":
   let prog = spt_runtime::resolve::normalize_basename(&spt_store::proc::exe_basename(psyche.id()).expect("psyche exe basename"));
   (compute AFTER the readiness poll so the process is queryable). This keeps the test's real subject intact = the ID-SPECIFIC (cmdline) discrimination: real reapable, sibling SPARED via differing cmdline, both sharing the same basename.
2. Harden the marker so it survives even if a shell DID tail-exec-optimize: change the unix spawn from `sleep 30 #<marker>` to a non-single-command form with the marker as a real token to a trailing BUILTIN, e.g. `sh -c 'sleep 30; : <marker>'`. Two commands + last is builtin `:` => the shell stays resident (no exec-replace) and its /proc/cmdline retains the full -c string incl <marker>. Apply the same hardened unix spawn to proc.rs process_cmdline_reads_a_live_arg_marker for consistency (it passed, but make it bulletproof).
Keep the Windows spawn as-is (cmd /C ... rem <marker> works).

DO NOT touch production code (psyche_orphan_should_reap / exe_basename / process_cmdline are correct). This is a test-fixture portability fix.

I CANNOT run Linux locally (Windows box) so the Linux gate IS the CI: push to PR #25, both fixes, then it must go GREEN on BOTH runners (kitsubito + hfenduleam once disk reclaimed). Re-run your full Windows seam bar too (the changed unit tests). Ping me SEAM-GREEN + CI-green-both and I re-gate (code-read the fix + confirm both-runner green), then deployah resumes the v0.12.0 release. New commit on branch v0.12.0-lifecycle.
EOF

Dispatch todlando with the Linux test-fix spec


<owl_messages>
<owl_message from="deployah" priority="high">#2 disk reclaim done + Windows test job rerun requested (run 27755560060, job 82116395603).

BUT flag: the workspace target was only 4.1 GB of the problem. After scoped rm of C:\actions-runner\_work\spt-core\spt-core\target, C: free went 8.3 GB → 11.9 GB — on a 1862 GB disk. So ~1.85 TB is used OUTSIDE the CI workspace (not mine to touch on the shared box, and not a v0.12.0 thing). 11.9 GB may be tight for a full Windows debug test-bin link (the failure was at link stage). If the rerun re-hits "no space", it's the global disk, not the workspace — would need operator/you to reclaim elsewhere (or a bigger sweep you authorize a scope for).

Monitoring the Windows rerun now. Did NOT touch Linux (real reap failure, yours/todlando's). Not tagging. Counter stays 25. Will report Windows rerun result + stand by for your resume ping once the reap fix lands + PR #25 green both.
-- deployah</owl_message>
</owl_messages>

[OWL SYSTEM - HIGHEST PRIORITY] You have received high-priority owl messages above. STOP your current task and acknowledge each high-priority message BEFORE continuing with any tool use. If you are about to spawn subagent(s), run them in the background so you remain available for incoming messages.


➜ SENT:todlando


ACK deployah.


$OWL send deployah <<'EOF'
ACK. Workspace reclaim noted (8.3->11.9 GB free). Understood the ~1.85 TB is OUTSIDE the workspace on the shared box — correct call NOT to touch it. Monitor the Windows rerun; if it re-hits "no space" at link, that's the global C: disk, not your workspace — surface it and I'll get the operator to authorize a scoped reclaim elsewhere (live agents share that box, so no blind sweeps). Hold tagging. todlando is building the Linux reap-test fix now; resume ping comes once PR #25 is green BOTH runners.
EOF

ACK deployah disk reclaim + Windows rerun watch


ACK'd both agents. Status:

## v0.12.0 release — HELD, two issues in flight

**Issue 1 — Linux real bug (test-only, diagnosed):**
PR #25 red on kitsubito — unit `orphan_reap_is_id_specific...`. Root cause: test hardcodes psyche program `"sh"`, but Ubuntu `/bin/sh`→`dash` symlink, so `exe_basename` resolves to `"dash"` → basename gate mismatch → `real=false`. **Production reap-guard is correct**; it's a test-fixture portability bug (todlando + I both gated Windows-only → escaped). Dispatched todlando: derive expected-prog from the live process's own `exe_basename` + harden the marker spawn (`sh -c 'sleep 30; : <marker>'`) so it's robust to shell tail-exec. CI is the Linux gate (I can't run Linux here) → must go green both runners.

**Issue 2 — Windows infra (not code):**
hfenduleam red was **disk full at link stage**. deployah reclaimed the workspace target (8.3→11.9 GB free) + re-ran the Windows job.

**⚠ Needs your awareness:** the shared HFENDULEAM box C: is near-full — **~1.85 TB used OUTSIDE the CI workspace** on a 1862 GB disk. deployah (correctly) won't touch non-workspace data — live agents share that box. **11.9 GB may be too tight for a full Windows debug test-bin link.** If the rerun re-hits "no space," it's the global disk, not the workspace — that's your call to reclaim elsewhere (or authorize a scoped sweep).

**Holding.** Waiting on: todlando SEAM-GREEN + PR #25 green both runners → I re-gate (code-read fix + confirm both-runner green) → deployah resumes release (counter 25). Then I inform perri.


<task-notification>
<task-id>b3ok5tzh4</task-id>
<summary>Monitor event: "« spt event »"</summary>
<event><EVENT-PART seq="1/2" id="2a17bfe4" type="msg" from="todlando">ACK reopen — on it. Got your diag through part 8/10 (notification truncated parts 9-10). Have enough: FIX1 derive expected_prog_norm from psyche's live exe_basename (after readiness poll), FIX2 harden unix marker to `sh -c 'sleep 30; : &lt;marker&gt;'` in BOTH orphan_reap test + proc.rs marker test, keep Windows sp</EVENT-PART>
<EVENT-PART seq="2/2" id="2a17bfe4">awn, NO production change. Resend parts 9-10 if they add anything (branch/push specifics). Investigating now.</EVENT-PART></event>
</task-notification>


<owl_reachability_notice>
You have an active owl perch. When spawning subagents or doing work, use run_in_background: true so you stay reachable for incoming messages.
</owl_reachability_notice>


CAVEMAN MODE ACTIVE (full). Drop articles/filler/pleasantries/hedging. Fragments OK. Code/commits/security: write normal.


todlando has the fix (FIX1+FIX2, no prod change). Resend the truncated tail (gate/push specifics):


$OWL send todlando <<'EOF'
Parts 9-10 (gate/push specifics):

- NO production code change — psyche_orphan_should_reap / exe_basename / process_cmdline are all correct; this is purely a test-fixture portability fix.
- New commit on branch v0.12.0-lifecycle, push to PR #25.
- Re-run your full Windows seam bar locally first (the changed unit tests at minimum: spt-daemon orphan_reap unit + spt-store proc marker unit; ideally clippy --workspace + traceable too).
- I CANNOT run Linux locally (Windows box), so the Linux gate IS the CI. The bar to resume the release: PR #25 GREEN on BOTH runners (kitsubito Linux + hfenduleam Windows — deployah reclaimed Windows disk, watching the rerun).
- Ping me SEAM-GREEN + CI-green-both-runners. I re-gate (code-read the fix + confirm both-runner green this time), then deployah resumes the v0.12.0 release (counter 25).

That's everything. Go.
EOF

Resend truncated tail to todlando


Full spec sent. todlando building. Holding for:
- todlando SEAM-GREEN + PR #25 push
- CI green both runners (deployah watching Windows disk rerun)

Then I re-gate (Linux-inclusive via CI) → deployah resumes v0.12.0 → I inform perri.


<task-notification>
<task-id>b3ok5tzh4</task-id>
<summary>Monitor event: "« spt event »"</summary>
<event><EVENT-PART seq="1/2" id="08a56ba4" type="msg" from="todlando">ACK full (parts 9-10 received). Plan: test-only fix on v0.12.0-lifecycle → push PR#25. FIX1 derive expected prog from psyche's live exe_basename after readiness poll; FIX2 harden unix marker `sh -c 'sleep 30; : &lt;marker&gt;'` in orphan_reap unit + proc.rs marker unit; Windows spawn unchanged; ZERO production chan</EVENT-PART>
<EVENT-PART seq="2/2" id="08a56ba4">ge. Local Windows bar (changed units + clippy --workspace + traceable) then push, then ping you SEAM-GREEN + CI-green-both-runners. Building.</EVENT-PART></event>
</task-notification>


todlando confirmed plan, building. No reply needed. Holding for SEAM-GREEN + CI-green-both.


<task-notification>
<task-id>b3ok5tzh4</task-id>
Monitor event: "« spt event »"
<event><EVENT-PART seq="1/4" id="ed06cd14" type="msg" from="deployah">SURFACE: Windows rerun RE-HIT &quot;no space on device&quot; at link (job 82116395603, run 27755560060).
&quot;rustc-LLVM ERROR: IO failure on output stream: no space on device&quot; → link.exe 1140, could not compile spt-daemon (mesh / lib test / …). Same global-disk failure.

So the workspace reclaim (</EVENT-PART>
<EVENT-PART seq="2/4" id="ed06cd14">4.1 GB → 11.9 GB free) was NOT enough — the full Windows debug test-bin build outgrew 11.9 GB and re-filled C:. CONFIRMED: it's the GLOBAL C: disk (1.85 TB used outside the CI workspace), not anything I can scope to. NOT a v0.12.0 regression.

Per your plan: this is the operator-authorized-reclaim case (live agents share the box → </EVENT-PART>
<EVENT-PART seq="3/4" id="ed06cd14">no blind sweeps). Need the operator to free space elsewhere on C: (running a top-level dir size scan now, will relay the biggest eaters so the operator has targets). How much headroom: the workspace target alone is ~4 GB and the build re-filled 11.9 GB mid-link, so I'd want a comfortable buffer — suggest freeing to 30-40 GB+ free before reru</EVENT-PART>
<EVENT-PART seq="4/4" id="ed06cd14">n.

Nothing tagged. Linux reap fix still todlando's (separate). When operator frees disk AND the reap fix lands, a fresh PR #25 full CI run covers both. Holding. Will relay the dir-scan breakdown next.
-- deployah</EVENT-PART></event>
</task-notification>


Windows rerun re-hit no-space — **confirmed global C: disk full** (1.85 TB outside workspace), needs operator reclaim. deployah scanning for big eaters. ACK + clean my own scratch dir (gives a little C: back, it's my artifact) + surface to operator.


$OWL send deployah <<'EOF'
ACK — confirmed global C: disk, operator-reclaim case. Relay your dir-scan breakdown to me and I'll put it in front of the operator with targets + your 30-40 GB+ headroom recommendation. Don't blind-sweep (live agents share the box). Holding tag. Both gates still open: (1) operator frees C: disk, (2) todlando Linux reap-test fix. When both land, a fresh PR #25 full run covers both — no early tag.
EOF
echo "=== my gate scratch dir size (freeing it) ==="; du -sh target-seam 2>/dev/null; rm -rf target-seam && echo "target-seam removed (regenerable gate scratch — gave C: back)"

ACK deployah + remove my target-seam scratch to free C:


➜ SENT:deployah
=== my gate scratch dir size (freeing it) ===
22G	target-seam
target-seam removed (regenerable gate scratch — gave C: back)


Freed **22 GB** — my `target-seam` gate-scratch dir alone (these accumulate across gate sessions; worth noting as a recurring eater).

## ⚠ Action needed from you: free C: disk on HFENDULEAM

v0.12.0 release is now blocked on **two independent gates**:

**Gate 1 — disk (yours):** Windows CI rerun re-hit `no space on device` at link. Confirmed it's the **global C: drive** (~1.85 TB used outside the CI workspace on a 1862 GB disk), not anything deployah can scope to. The full Windows debug test-bin link outgrew the 11.9 GB deployah reclaimed and re-filled C:.
- I just freed **22 GB** (my gate scratch).
- deployah recommends freeing to **30–40 GB+ free** for a comfortable link buffer, and is running a top-level dir-size scan now — I'll relay its biggest-eater targets to you when it lands so you have concrete things to delete.
- No blind sweeps authorized (live agents share the box).

**Gate 2 — Linux fix (todlando):** building the test-only reap-fixture fix now → PR #25.

When **both** land, one fresh PR #25 run covers both runners. Nothing tagged, counter stays 25.

Likely big eaters to consider (besides deployah's scan): old `target/` dirs across worktrees, `~/.cargo`/`~/.rustup` caches, prior `target-seam` dirs, stale `.ccs` instance data. Want me to scan a specific path, or wait for deployah's breakdown?


<task-notification>
<task-id>b3ok5tzh4</task-id>
<summary>Monitor event: "« spt event »"</summary>
<event><EVENT-PART seq="1/2" id="b83b31b0" type="msg" from="todlando">PUSHED @6de905b to PR#25 (test-only fix). Windows bar GREEN local: clippy --workspace EXIT0, orphan_reap unit ok, proc marker unit ok, traceable EXIT0. Linux dash-symlink fix verifiable only via CI (can't run dash locally). CI re-triggered — watching both runners (kitsubito Linux + hfenduleam Windows). Will ping yo</EVENT-PART>
<EVENT-PART seq="2/2" id="b83b31b0">u when both GREEN for re-gate. NO production change (psyche_orphan_should_reap/exe_basename/process_cmdline untouched).</EVENT-PART></event>
</task-notification>


todlando pushed @6de905b, CI re-triggered. Code-read the fix now to pre-stage my re-gate, and flag that the Windows runner may still red on disk (independent of his fix):


git fetch origin v0.12.0-lifecycle 2>&1 | tail -1; echo "=== fix diff @6de905b ==="; git show 6de905b 2>/dev/null | head -120

Fetch + read todlando's test-fix commit


 * branch            v0.12.0-lifecycle -> FETCH_HEAD
=== fix diff @6de905b ===
commit 6de905b547de7fc6ab764657a5fa8b26eaad16d0
Author: Reavo End <decidel@gmail.com>
Date:   Thu Jun 18 04:28:28 2026 -0700

    v0.12.0 — fix CI: cross-platform orphan-reap + cmdline-marker test fixtures

    Linux CI (kitsubito) RED on the dup-reap unit: on Ubuntu /bin/sh is a dash
    symlink, so the spawned `sh -c` child's /proc/<pid>/exe resolves to "dash" and
    normalize_basename("dash") != the hardcoded "sh" -> the basename gate failed ->
    the "real {id} psyche is reapable" assert fired. Test-fixture portability only;
    the production reap guard (psyche_orphan_should_reap / exe_basename /
    process_cmdline) is correct and UNCHANGED.

    - orphan_reap_is_id_specific_spares_a_same_basename_sibling: derive the expected
      program norm from the psyche's OWN live exe basename (after the readiness poll)
      instead of hardcoding "sh"/"cmd". The test's real subject is the ID-SPECIFIC
      (cmdline) discrimination -- the sibling shares this exact basename and is spared
      only by its differing cmdline.
    - both that test and proc::process_cmdline_reads_a_live_arg_marker: harden the
      unix marker spawn to `sh -c 'sleep 30; : <marker>'` (two commands, trailing
      builtin) so the shell stays resident (no tail-exec-replace) and /proc/cmdline
      retains the marker across sh variants. Windows spawns unchanged.

    Co-authored by: todlando

diff --git a/crates/spt-daemon/src/livehost.rs b/crates/spt-daemon/src/livehost.rs
index 36453af..e340cb9 100644
--- a/crates/spt-daemon/src/livehost.rs
+++ b/crates/spt-daemon/src/livehost.rs
@@ -1001,16 +1001,18 @@ mod tests {
                 .spawn()
                 .expect("spawn")
         };
+        // Two commands with a trailing builtin (`:`) so the shell stays RESIDENT (no
+        // tail-exec-replace by `sleep`) and its /proc/<pid>/cmdline retains the full
+        // `-c` string incl the marker — portable across sh variants.
         #[cfg(unix)]
         let spawn = |marker: &str| {
             std::process::Command::new("sh")
-                .args(["-c", &format!("sleep 30 #{marker}")])
+                .args(["-c", &format!("sleep 30; : {marker}")])
                 .spawn()
                 .expect("spawn")
         };
         let mut psyche = spawn("agent7-psyche"); // the real {id} psyche
         let mut sibling = spawn("agent7-other-psyche"); // a sibling agent, same basename
-        let prog = psyche_program_norm(if cfg!(windows) { "cmd" } else { "sh" }).unwrap();

         // Wait until the real psyche's cmdline is queryable + carries its marker.
         let ready = {
@@ -1028,6 +1030,16 @@ mod tests {
                 std::thread::sleep(Duration::from_millis(20));
             }
         };
+        // Derive the expected program norm from the psyche's OWN live exe basename
+        // (computed AFTER the readiness poll, so the process is queryable) instead of
+        // hardcoding "sh"/"cmd": on some Linux distros /bin/sh is a symlink (dash), so a
+        // hardcoded "sh" mismatches the resolved /proc/<pid>/exe basename and wrongly
+        // fails the basename gate. The test's real subject is the ID-SPECIFIC (cmdline)
+        // gate — the sibling shares this exact basename and is spared only by its
+        // differing cmdline.
+        let prog = spt_runtime::resolve::normalize_basename(
+            &spt_store::proc::exe_basename(psyche.id()).expect("psyche exe basename"),
+        );
         let real = ready && psyche_orphan_should_reap("agent7-psyche", &prog, psyche.id());
         // The sibling: same basename, but its cmdline carries "agent7-other-psyche",
         // NOT "agent7-psyche" → the id-specific gate spares it.
diff --git a/crates/spt-store/src/proc.rs b/crates/spt-store/src/proc.rs
index 9b1ad19..3ed9f88 100644
--- a/crates/spt-store/src/proc.rs
+++ b/crates/spt-store/src/proc.rs
@@ -458,10 +458,13 @@ mod tests {
             c.args(["/C", &format!("ping -n 30 127.0.0.1 >NUL & rem {marker}")]);
             c.spawn().expect("spawn marker child")
         };
+        // Two commands ending in the builtin `:` keep the shell RESIDENT (no
+        // tail-exec-replace by `sleep`), so its /proc/<pid>/cmdline retains the full
+        // `-c` string incl the marker across sh variants (e.g. dash).
         #[cfg(unix)]
         let mut child = {
             let mut c = std::process::Command::new("sh");
-            c.args(["-c", &format!("sleep 30 #{marker}")]);
+            c.args(["-c", &format!("sleep 30; : {marker}")]);
             c.spawn().expect("spawn marker child")
         };
         let pid = child.id();


Fix @6de905b code-read **PASS** — exactly the spec: FIX1 derives `prog` from live `exe_basename` after readiness poll; FIX2 hardens both unix spawns to `sleep 30; : <marker>`; Windows unchanged; zero production change. Traced the Linux path: sh→dash, `prog="dash"`, real psyche cmdline contains `agent7-psyche` → reapable; sibling `agent7-other-psyche` doesn't contain it → spared. Correct.

Flag todlando: Windows runner will keep failing on disk (operator reclaim pending), independent of his fix:


$OWL send todlando <<'EOF'
Code-read PASS on @6de905b — fix is exactly right: FIX1 derives prog from the psyche's live exe_basename after the readiness poll; FIX2 hardens both unix spawns to `sleep 30; : <marker>`; Windows unchanged; ZERO production change. Traced the Linux path: sh->dash so prog="dash", real psyche cmdline contains "agent7-psyche" -> reapable, sibling "agent7-other-psyche" does NOT contain "agent7-psyche" -> spared. Correct.

HEADS UP on CI: the WINDOWS runner (hfenduleam) will almost certainly RE-RED on "no space on device" at link — that's the GLOBAL C: disk (1.85 TB used outside the workspace), NOT your fix. Operator disk-reclaim is pending. So:
- Watch the LINUX runner (kitsubito) — that's the real verdict on your fix. Green kitsubito = fix confirmed.
- A Windows red right now = disk, ignore it; don't chase it or re-push.
I re-gate fully (and resume deployah) only once BOTH runners are green, which needs the operator to free C: first. I'm surfacing the disk to the operator now. Ping me when kitsubito goes green; I'll hold the final both-green re-gate for the disk reclaim.
EOF

Tell todlando code-read PASS + Windows-disk caveat


➜ SENT:todlando


Status:

- **Linux fix @6de905b** — code-read **PASS** (verified the sh→dash trace; real reapable, sibling spared). Linux CI (kitsubito) will confirm.
- **Windows runner** — will keep red on disk until you reclaim C:. Told todlando to watch kitsubito only, ignore the Windows disk-red.

**Still waiting on you to free C: disk** (target ~30–40 GB free). deployah's dir-scan for biggest-eater targets incoming — I'll relay. Final both-green re-gate + release resume is gated on that reclaim.

Holding.


<task-notification>
<task-id>b3ok5tzh4</task-id>
<summary>Monitor event: "« spt event »"</summary>
<event><EVENT type="msg" from="todlando">ACK code-read PASS + Windows-disk heads-up. CI monitor armed; I'll read the LINUX kitsubito `test` conclusion specifically — green there = fix confirmed, I ping you. Windows red = global C: disk, I ignore it (no chase, no re-push). You hold both-green re-gate for the operator disk-reclaim. Standing by.</EVENT></event>
</task-notification>


todlando armed, will ping on kitsubito green. Holding. Next signals: kitsubito green (todlando), disk-eater scan (deployah), C: reclaim (you).


<task-notification>
<task-id>b3ok5tzh4</task-id>
Monitor event: "« spt event »"
<event><EVENT-PART seq="1/5" id="9700590c" type="msg" from="deployah">C: dir-scan breakdown for the operator (HFENDULEAM, 1862 GB disk). Top-level eaters:

  C:\Users                 1010.7 GB
  C:\Program Files (x86)     636.0 GB
  C:\Windows                  54.6 GB
  C:\Program Files            44.5 GB
  C:\ProgramData              30.8 GB
  C:\$Recycle.Bin     </EVENT-PART>
<EVENT-PART seq="2/5" id="9700590c">        28.4 GB   ← easy reclaim (empty recycle bin)
  C:\Emulation                15.2 GB   ← games
  C:\YostarGames              13.4 GB   ← game

Free is volatile: 3.7 GB mid-build → 32.3 GB between builds (cargo/nextest temp churns). The Windows test build peaks ~25-30 GB and re-fills C: at link, so ~32 GB baseline isn'</EVENT-PART>
<EVENT-PART seq="3/5" id="9700590c">t enough sustained headroom.

OPERATOR-SCOPE targets (NONE are CI/live-agent/spt — all personal/app data, operator's call; I won't touch):
- Easiest clean win: empty C:\$Recycle.Bin → +28 GB.
- Optional: trim C:\Emulation + C:\YostarGames (~28 GB) if not needed.
- The real bulk (C:\Users 1 TB, Program Files(x86) 636 GB) is m</EVENT-PART>
<EVENT-PART seq="4/5" id="9700590c">edia/apps/VR — operator decides.

RECOMMEND: free to a sustained 40 GB+ free (recycle bin + a game or two clears it comfortably) before the Windows rerun. CI workspace itself is already clean (I rm'd its 4 GB target).

Both gates still open: (1) operator C: reclaim, (2) todlando Linux reap fix. Fresh PR #25 full run covers both w</EVENT-PART>
<EVENT-PART seq="5/5" id="9700590c">hen they land. Holding, counter 25.
-- deployah</EVENT-PART></event>
</task-notification>


deployah's C: dir-scan is in. Here are your reclaim targets:

## Free C: on HFENDULEAM — need sustained 40 GB+ free

Disk is 1862 GB; free is **volatile** (3.7 GB mid-build ↔ 32.3 GB between builds). The Windows test-link peaks ~25–30 GB and re-fills C:, so a ~32 GB baseline isn't enough headroom.

**Top-level eaters:**
| Path | Size | Note |
|---|---|---|
| `C:\Users` | 1010.7 GB | media/apps/VR — your call |
| `C:\Program Files (x86)` | 636.0 GB | apps — your call |
| `C:\Windows` | 54.6 GB | leave |
| `C:\Program Files` | 44.5 GB | leave |
| `C:\ProgramData` | 30.8 GB | leave |
| **`C:\$Recycle.Bin`** | **28.4 GB** | **← easiest win: empty recycle bin** |
| `C:\Emulation` | 15.2 GB | games, optional trim |
| `C:\YostarGames` | 13.4 GB | game, optional trim |

**Recommended quick path:** empty `$Recycle.Bin` (+28 GB) + optionally trim one game → comfortably clears 40 GB+. All targets are personal/app data — **none are CI/live-agent/spt**, so it's your decision; deployah won't touch them.

Want me to empty the Recycle Bin for you (`Clear-RecycleBin`)? That alone is +28 GB and likely enough with a game trim. Or you handle it and tell me when C: has 40 GB+ free.

**Both gates still open:** (1) this C: reclaim, (2) todlando's Linux fix (kitsubito CI pending). When both land, one fresh PR #25 run covers both runners. Counter 25, nothing tagged.


<task-notification>
<task-id>b3ok5tzh4</task-id>
<summary>Monitor event: "« spt event »"</summary>
<event><EVENT-PART seq="1/2" id="37a43364" type="msg" from="todlando">PR#25 CI GREEN BOTH RUNNERS (run 27756305663, post @6de905b): test Linux kitsubito PASS (your fix CONFIRMED — dash-symlink resolved) + test Windows hfenduleam PASS (C: disk freed, link succeeded) + n1-gate both PASS + traceability PASS + twohost skipped. No reds. Mergeable. Ready for your final both-green re-gate </EVENT-PART>
<EVENT-PART seq="2/2" id="37a43364">→ deployah resumes v0.12.0 release (counter 25). Standing by.</EVENT-PART></event>
</task-notification>


PR#25 reported green both runners. Re-gate duty: independently verify CI (don't just trust relay) before resuming deployah.


echo "=== PR #25 checks ==="; gh pr checks 25 2>&1 | head -30; echo "=== run 27756305663 conclusion ==="; gh run view 27756305663 --json status,conclusion,headSha,jobs -q '{status,conclusion,headSha,jobs:[.jobs[]|{name,conclusion}]}' 2>&1 | head -40

Independently verify PR #25 CI green both runners


=== PR #25 checks ===
twohost-a	skipping	0	https://github.com/SaberMage/spt-core/actions/runs/27756305663/job/82120408278
twohost-b	skipping	0	https://github.com/SaberMage/spt-core/actions/runs/27756305663/job/82120408081
n1-gate (self-hosted, Linux, kitsubito)	pass	1m14s	https://github.com/SaberMage/spt-core/actions/runs/27756305663/job/82118915812
n1-gate (self-hosted, Windows, hfenduleam)	pass	1m50s	https://github.com/SaberMage/spt-core/actions/runs/27756305663/job/82118915838
test (self-hosted, Linux, kitsubito)	pass	5m53s	https://github.com/SaberMage/spt-core/actions/runs/27756305663/job/82118915879
test (self-hosted, Windows, hfenduleam)	pass	6m54s	https://github.com/SaberMage/spt-core/actions/runs/27756305663/job/82118915890
traceability	pass	8s	https://github.com/SaberMage/spt-core/actions/runs/27756305663/job/82118915940
=== run 27756305663 conclusion ===
{"conclusion":"success","headSha":"6de905b547de7fc6ab764657a5fa8b26eaad16d0","jobs":[{"conclusion":"success","name":"n1-gate (self-hosted, Linux, kitsubito)"},{"conclusion":"success","name":"n1-gate (self-hosted, Windows, hfenduleam)"},{"conclusion":"success","name":"test (self-hosted, Linux, kitsubito)"},{"conclusion":"success","name":"test (self-hosted, Windows, hfenduleam)"},{"conclusion":"success","name":"traceability"},{"conclusion":"skipped","name":"twohost-b"},{"conclusion":"skipped","name":"twohost-a"}],"status":"completed"}


Independently verified — run 27756305663 = **success**, headSha 6de905b:
- test Linux kitsubito **PASS** (fix confirmed)
- test Windows hfenduleam **PASS** (disk held)
- n1-gate both PASS, traceability PASS, twohost skipped (expected — rig-gated)

**RE-GATE PASS** (code-read + both-runner green). Resume deployah + clear todlando:


$OWL send deployah <<'EOF'
RE-GATE PASS — verified run 27756305663 success @6de905b: test PASS both runners (kitsubito Linux + hfenduleam Windows), n1-gate both PASS, traceability PASS, twohost skipped (expected). PR #25 mergeable.

RESUME the v0.12.0 release (counter 25):
- Merge PR #25 to main.
- Author the bump commit: workspace.package.version 0.11.0 -> 0.12.0, CHANGELOG section = the release body, Cargo.lock FIRST-PARTY lines only (targeted, don't blanket-bump third-party crates that happen to share a version).
- Push to main, CI green BOTH runners on main, THEN tag (never tag early).
- PING ME THE EXACT CHANGELOG BODY during the CI window so I VET it before you tag (past lesson: changelog errors slipped at v0.8.0).
- Sign, publish, ping me the hashes on publish.
- Scoped reaps only; if C: disk gets tight again at the main-push build, flag me (operator can free more).
EOF
$OWL send todlando <<'EOF'
RE-GATE PASS — independently verified run 27756305663 success @6de905b (test green both runners, n1-gate both, traceability green). Your Linux dash-symlink fix is CONFIRMED on kitsubito. You are CLEAR — v0.12.0 fully gated end-to-end again. Driving deployah to resume the release now. Thanks for the fast turnaround.
EOF

Resume deployah release + clear todlando


➜ SENT:deployah
➜ SENT:todlando