/*++

Copyright (c) Microsoft Corporation. All rights reserved.

Module Name:

    mstcpip.h

Abstract:

    This module contains Microsoft-specific extensions to the core
    Winsock definitions.

Environment:

    user mode or kernel mode

--*/

#ifndef _MSTCPIP_
#define _MSTCPIP_

#if _MSC_VER > 1000
#pragma once
#endif
#ifdef __cplusplus
extern "C" {
#endif

#pragma warning(push)
#pragma warning(disable:4200)
#pragma warning(disable:4201)

#ifdef _PREFAST_
#pragma prefast(push)
#pragma prefast(disable: 24002, "Requires explicit use of IPv4 address types.")
#endif    

#ifndef ASSERT
#define MSTCPIP_ASSERT_UNDEFINED
#define ASSERT(exp) ((VOID) 0)
#endif

#ifdef _MSC_VER
#define MSTCPIP_INLINE __inline
#else
#define MSTCPIP_INLINE extern inline /* GNU style */
#endif

#include <nldef.h>
    
/* Argument structure for SIO_KEEPALIVE_VALS */

struct tcp_keepalive {
    ULONG onoff;
    ULONG keepalivetime;
    ULONG keepaliveinterval;
};

//
// New WSAIoctl Options
// 
#define SIO_RCVALL            _WSAIOW(IOC_VENDOR,1)
#define SIO_RCVALL_MCAST      _WSAIOW(IOC_VENDOR,2)
#define SIO_RCVALL_IGMPMCAST  _WSAIOW(IOC_VENDOR,3)
#define SIO_KEEPALIVE_VALS    _WSAIOW(IOC_VENDOR,4)
#define SIO_ABSORB_RTRALERT   _WSAIOW(IOC_VENDOR,5)
#define SIO_UCAST_IF          _WSAIOW(IOC_VENDOR,6)
#define SIO_LIMIT_BROADCASTS  _WSAIOW(IOC_VENDOR,7)
#define SIO_INDEX_BIND        _WSAIOW(IOC_VENDOR,8)
#define SIO_INDEX_MCASTIF     _WSAIOW(IOC_VENDOR,9)
#define SIO_INDEX_ADD_MCAST   _WSAIOW(IOC_VENDOR,10)
#define SIO_INDEX_DEL_MCAST   _WSAIOW(IOC_VENDOR,11)
//      SIO_UDP_CONNRESET     _WSAIOW(IOC_VENDOR,12)
#define SIO_RCVALL_MCAST_IF   _WSAIOW(IOC_VENDOR,13)
#define SIO_RCVALL_IF         _WSAIOW(IOC_VENDOR,14)

//
// Values for use with SIO_RCVALL* options
//
typedef enum {
    RCVALL_OFF             = 0,
    RCVALL_ON              = 1,
    RCVALL_SOCKETLEVELONLY = 2,
    RCVALL_IPLEVEL         = 3,
} RCVALL_VALUE, *PRCVALL_VALUE;

#define RCVALL_MAX RCVALL_IPLEVEL

typedef struct {
    RCVALL_VALUE Mode;
    ULONG Interface;
} RCVALL_IF, *PRCVALL_IF;

//
// TCP/UDP port management definitions.
//
#define SIO_ACQUIRE_PORT_RESERVATION    _WSAIOW(IOC_VENDOR, 100)
#define SIO_RELEASE_PORT_RESERVATION    _WSAIOW(IOC_VENDOR, 101)
#define SIO_ASSOCIATE_PORT_RESERVATION  _WSAIOW(IOC_VENDOR, 102)

typedef struct _INET_PORT_RANGE {
    USHORT StartPort;
    USHORT NumberOfPorts;
} INET_PORT_RANGE, *PINET_PORT_RANGE;

typedef struct _INET_PORT_RANGE INET_PORT_RESERVATION, *PINET_PORT_RESERVATION;

typedef struct {
    ULONG64 Token;
} INET_PORT_RESERVATION_TOKEN, *PINET_PORT_RESERVATION_TOKEN;

#define INVALID_PORT_RESERVATION_TOKEN ((ULONG64)0)

typedef struct {
#ifdef __cplusplus
    INET_PORT_RESERVATION Reservation;
    INET_PORT_RESERVATION_TOKEN Token;
#else
    INET_PORT_RESERVATION;
    INET_PORT_RESERVATION_TOKEN;
#endif
} INET_PORT_RESERVATION_INSTANCE, *PINET_PORT_RESERVATION_INSTANCE;

typedef struct {
    ULONG AssignmentCount;
    ULONG OwningPid;
} INET_PORT_RESERVATION_INFORMATION, *PINET_PORT_RESERVATION_INFORMATION;


#ifdef _WS2DEF_

#if (NTDDI_VERSION >= NTDDI_LONGHORN)
#define _SECURE_SOCKET_TYPES_DEFINED_

//
// Secure socket API type definitions.
//

#define SIO_SET_SECURITY             _WSAIOW(IOC_VENDOR, 200)
#define SIO_QUERY_SECURITY           _WSAIORW(IOC_VENDOR, 201)
#define SIO_SET_PEER_TARGET_NAME     _WSAIOW(IOC_VENDOR, 202)
#define SIO_DELETE_PEER_TARGET_NAME  _WSAIOW(IOC_VENDOR, 203)

// Type of security protocol
typedef enum _SOCKET_SECURITY_PROTOCOL
{
   SOCKET_SECURITY_PROTOCOL_DEFAULT,
   SOCKET_SECURITY_PROTOCOL_IPSEC,
   SOCKET_SECURITY_PROTOCOL_INVALID
} SOCKET_SECURITY_PROTOCOL;

// Flags for generic security settings
#define SOCKET_SETTINGS_GUARANTEE_ENCRYPTION  0x1
#define SOCKET_SETTINGS_ALLOW_INSECURE  0x2

// Common security settings for the socket
typedef struct _SOCKET_SECURITY_SETTINGS
{
   SOCKET_SECURITY_PROTOCOL SecurityProtocol;
   ULONG SecurityFlags;
} SOCKET_SECURITY_SETTINGS;

// Flags specific to IPsec security settings. 
// NOTE: these flags must be specified under the 
// SOCKET_SECURITY_SETTINGS_IPSEC->IpsecFlags field.
#define SOCKET_SETTINGS_IPSEC_SKIP_FILTER_INSTANTIATION  0x1

// IPsec specific security settings for the socket.
typedef struct _SOCKET_SECURITY_SETTINGS_IPSEC
{
   SOCKET_SECURITY_PROTOCOL SecurityProtocol;
   ULONG SecurityFlags;
   ULONG IpsecFlags;
   GUID AuthipMMPolicyKey;
   GUID AuthipQMPolicyKey;
   GUID Reserved;
   UINT64 Reserved2;
   ULONG UserNameStringLen;
   ULONG DomainNameStringLen;
   ULONG PasswordStringLen;
   wchar_t AllStrings[0];
} SOCKET_SECURITY_SETTINGS_IPSEC;

// Common peer target name for the socket
typedef struct _SOCKET_PEER_TARGET_NAME
{
   SOCKET_SECURITY_PROTOCOL SecurityProtocol;
   SOCKADDR_STORAGE PeerAddress;
   ULONG PeerTargetNameStringLen;
   wchar_t AllStrings[0];
} SOCKET_PEER_TARGET_NAME;

// Input for querying socket security
typedef struct _SOCKET_SECURITY_QUERY_TEMPLATE
{
   SOCKET_SECURITY_PROTOCOL SecurityProtocol;
   SOCKADDR_STORAGE PeerAddress;
   ULONG PeerTokenAccessMask;
} SOCKET_SECURITY_QUERY_TEMPLATE;

// Flags corresponding to the security query info
#define SOCKET_INFO_CONNECTION_SECURED  0x1
#define SOCKET_INFO_CONNECTION_ENCRYPTED  0x2

// Common security query information from a socket
typedef struct _SOCKET_SECURITY_QUERY_INFO
{
   SOCKET_SECURITY_PROTOCOL SecurityProtocol;
   ULONG Flags;
   UINT64 PeerApplicationAccessTokenHandle;
   UINT64 PeerMachineAccessTokenHandle;
} SOCKET_SECURITY_QUERY_INFO;

//
// Scalability type definitions
//
#define SIO_QUERY_RSS_SCALABILITY_INFO  _WSAIOR(IOC_VENDOR, 210)

// Scalability info for the transport
typedef struct _RSS_SCALABILITY_INFO {
   BOOLEAN RssEnabled;
} RSS_SCALABILITY_INFO, *PRSS_SCALABILITY_INFO;

#endif // (NTDDI_VERSION >= NTDDI_LONGHORN)


//
// Microsoft-specific IPv4 definitions.
//

#define IN4_CLASSA(i) (((LONG)(i) & 0x00000080) == 0)
#define IN4_CLASSB(i) (((LONG)(i) & 0x000000c0) == 0x00000080)
#define IN4_CLASSC(i) (((LONG)(i) & 0x000000e0) == 0x000000c0)
#define IN4_CLASSD(i) (((LONG)(i) & 0x000000f0) == 0x000000e0)
#define IN4_MULTICAST(i) IN4_CLASSD(i)

#define IN4ADDR_ANY INADDR_ANY
#define IN4ADDR_LOOPBACK 0x0100007f
#define IN4ADDR_BROADCAST INADDR_BROADCAST
#define IN4ADDR_NONE INADDR_NONE
#define IN4ADDR_ANY_INIT { 0 }
#define IN4ADDR_LOOPBACK_INIT { 0x7f, 0, 0, 1 }
#define IN4ADDR_BROADCAST_INIT { 0xff, 0xff, 0xff, 0xff }
#define IN4ADDR_ALLNODESONLINK_INIT { 0xe0, 0, 0, 1 }
#define IN4ADDR_ALLROUTERSONLINK_INIT { 0xe0, 0, 0, 2 }
#define IN4ADDR_ALLIGMPV3ROUTERSONLINK_INIT { 0xe0, 0, 0, 0x16 }
#define IN4ADDR_ALLTEREDONODESONLINK_INIT { 0xe0, 0, 0, 0xfd }
#define IN4ADDR_LINKLOCALPREFIX_INIT { 0xa9, 0xfe, }
#define IN4ADDR_MULTICASTPREFIX_INIT { 0xe0, }

#define IN4ADDR_LOOPBACKPREFIX_LENGTH 8
#define IN4ADDR_LINKLOCALPREFIX_LENGTH 16 
#define IN4ADDR_MULTICASTPREFIX_LENGTH 4 

#if (NTDDI_VERSION >= NTDDI_WIN2KSP1)
MSTCPIP_INLINE
BOOLEAN
IN4_ADDR_EQUAL(CONST IN_ADDR *a, CONST IN_ADDR *b)
{
    return (BOOLEAN)(a->s_addr == b->s_addr);
}

MSTCPIP_INLINE
BOOLEAN
IN4_UNALIGNED_ADDR_EQUAL(CONST IN_ADDR UNALIGNED *a, CONST IN_ADDR UNALIGNED *b)
{
    return (BOOLEAN)(a->s_addr == b->s_addr);
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_UNSPECIFIED(CONST IN_ADDR *a)
{
    return (BOOLEAN)(a->s_addr == IN4ADDR_ANY);
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_UNALIGNED_ADDR_UNSPECIFIED(CONST IN_ADDR UNALIGNED *a)
{
    return (BOOLEAN)(a->s_addr == IN4ADDR_ANY);
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_LOOPBACK(CONST IN_ADDR *a)
{
    return (BOOLEAN)(*((PUCHAR) a) == 0x7f); // 127/8
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_UNALIGNED_ADDR_LOOPBACK(CONST IN_ADDR UNALIGNED *a)
{
    return (BOOLEAN)(*((PUCHAR) a) == 0x7f); // 127/8
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_BROADCAST(CONST IN_ADDR *a)
{
    return (BOOLEAN)(a->s_addr == IN4ADDR_BROADCAST);
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_UNALIGNED_ADDR_BROADCAST(CONST IN_ADDR UNALIGNED *a)
{
    return (BOOLEAN)(a->s_addr == IN4ADDR_BROADCAST);
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_MULTICAST(CONST IN_ADDR *a)
{
    return (BOOLEAN)IN4_MULTICAST(a->s_addr);
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_UNALIGNED_ADDR_MULTICAST(CONST IN_ADDR UNALIGNED *a)
{
    return (BOOLEAN)IN4_MULTICAST(a->s_addr);
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_LINKLOCAL(CONST IN_ADDR *a)
{
    return (BOOLEAN)((a->s_addr & 0xffff) == 0xfea9); // 169.254/16
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_UNALIGNED_ADDR_LINKLOCAL(CONST IN_ADDR UNALIGNED *a)
{
    return (BOOLEAN)((a->s_addr & 0xffff) == 0xfea9); // 169.254/16
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_SITELOCAL(CONST IN_ADDR *a)
{
    //
    // For existing scenarios (e.g. ICS) to work as expected, RFC-1918 prefixes
    // are deemed to be global scoped.  When appropriate, site border routers
    // must explicitly filter packets with these addresses.
    //
    UNREFERENCED_PARAMETER(a);
    return FALSE;
}

#define IN4_IS_UNALIGNED_ADDR_SITELOCAL IN4_IS_ADDR_SITELOCAL

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_RFC1918(CONST IN_ADDR *a)
{
    return (BOOLEAN)(((a->s_addr & 0x00ff) == 0x0a) ||   // 10/8
                     ((a->s_addr & 0xf0ff) == 0x10ac) || // 172.16/12
                     ((a->s_addr & 0xffff) == 0xa8c0));  // 192.168/16
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_UNALIGNED_ADDR_RFC1918(CONST IN_ADDR UNALIGNED *a)
{
    IN_ADDR Ipv4Address = *a;
    return IN4_IS_ADDR_RFC1918(&Ipv4Address);
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_MC_LINKLOCAL(CONST IN_ADDR *a)
{
    return (BOOLEAN)((a->s_addr & 0xffffff) == 0xe0); // 224.0.0/24
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_MC_ADMINLOCAL(CONST IN_ADDR *a)
{
    return (BOOLEAN)((a->s_addr & 0xffff) == 0xffef); // 239.255/16
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_MC_SITELOCAL(CONST IN_ADDR *a)
{
    return (BOOLEAN)((a->s_addr & 0xff) == 0xef) && 
                    !IN4_IS_ADDR_MC_ADMINLOCAL(a); 
}

MSTCPIP_INLINE
VOID
IN4ADDR_SETSOCKADDR(PSOCKADDR_IN a, CONST IN_ADDR *addr, USHORT port)
{
    a->sin_family = AF_INET;
    a->sin_port = port;
    a->sin_addr = *addr;
    memset(a->sin_zero, 0, sizeof(a->sin_zero));
}

MSTCPIP_INLINE
VOID
IN4ADDR_SETANY(PSOCKADDR_IN a)
{
    a->sin_family = AF_INET;
    a->sin_port = 0;
    a->sin_addr.s_addr = IN4ADDR_ANY;
    memset(a->sin_zero, 0, sizeof(a->sin_zero));
}

MSTCPIP_INLINE
VOID
IN4ADDR_SETLOOPBACK(PSOCKADDR_IN a)
{
    a->sin_family = AF_INET;
    a->sin_port = 0;
    a->sin_addr.s_addr = IN4ADDR_LOOPBACK;
    memset(a->sin_zero, 0, sizeof(a->sin_zero));
}

MSTCPIP_INLINE
BOOLEAN
IN4ADDR_ISANY(CONST SOCKADDR_IN *a)
{
    ASSERT(a->sin_family == AF_INET);
    return IN4_IS_ADDR_UNSPECIFIED(&a->sin_addr);
}

MSTCPIP_INLINE
BOOLEAN
IN4ADDR_ISLOOPBACK(CONST SOCKADDR_IN *a)
{
    ASSERT(a->sin_family == AF_INET);
    return IN4_IS_ADDR_LOOPBACK(&a->sin_addr);
}

MSTCPIP_INLINE
SCOPE_ID
IN4ADDR_SCOPE_ID(CONST SOCKADDR_IN *a)
{
    SCOPE_ID UnspecifiedScopeId = {0};
    UNREFERENCED_PARAMETER(a);
    return UnspecifiedScopeId;
}

MSTCPIP_INLINE
BOOLEAN
IN4ADDR_ISEQUAL(CONST SOCKADDR_IN *a, CONST SOCKADDR_IN *b)
{
    ASSERT(a->sin_family == AF_INET);
    return (BOOLEAN)(IN4ADDR_SCOPE_ID(a).Value == IN4ADDR_SCOPE_ID(b).Value &&
                     IN4_ADDR_EQUAL(&a->sin_addr, &b->sin_addr));
}

MSTCPIP_INLINE
BOOLEAN
IN4ADDR_ISUNSPECIFIED(CONST SOCKADDR_IN *a)
{
    ASSERT(a->sin_family == AF_INET);
    return (BOOLEAN)(IN4ADDR_SCOPE_ID(a).Value == 0 && 
                     IN4_IS_ADDR_UNSPECIFIED(&a->sin_addr));
}

#define INET_IS_ALIGNED(Pointer, Type) \
   (((ULONG_PTR)Pointer & (__builtin_alignof(Type)-1)) == 0)

MSTCPIP_INLINE
SCOPE_LEVEL
Ipv4UnicastAddressScope(
    IN CONST UCHAR *Address
    )
/*++

Routine Description:

    Determines the scope of an IPv4 unicast address.
    
    For existing scenarios (e.g. ICS) to work as expected, RFC-1918 prefixes
    are deemed to be global scoped.  When appropriate, site border routers
    must explicitly filter packets with these addresses.

Arguments:

    Address - Supplies the IPv4 unicast address.

Return Value:

    Returns the scope level of the address.

Caller IRQL:

    May be called at PASSIVE through DISPATCH level.

--*/
{
    IN_ADDR Ipv4Address;
    
    if (!INET_IS_ALIGNED(Address, IN_ADDR)) {
        Ipv4Address = *(CONST IN_ADDR UNALIGNED *)Address;
        Address = (CONST UCHAR *) &Ipv4Address;
    }
    
    if (IN4_IS_ADDR_LINKLOCAL((PIN_ADDR) Address) ||
        IN4_IS_ADDR_LOOPBACK((PIN_ADDR) Address)) {
        return ScopeLevelLink;
    }
    return ScopeLevelGlobal;
}

MSTCPIP_INLINE
SCOPE_LEVEL
Ipv4MulticastAddressScope(
    IN CONST UCHAR *Address
    )
/*++

Routine Description:

    Determines the scope of an IPv4 multicast address.
    See RFC 2365.

Arguments:

    Address - Supplies the IPv4 multicast address.

Return Value:

    Returns the scope level of the multicast address.

Caller IRQL:

    May be called at PASSIVE through DISPATCH level.

--*/
{
    IN_ADDR Ipv4Address;
    
    if (!INET_IS_ALIGNED(Address, IN_ADDR)) {
        Ipv4Address = *(CONST IN_ADDR UNALIGNED *)Address;
        Address = (CONST UCHAR *) &Ipv4Address;
    }
    
    if (IN4_IS_ADDR_MC_LINKLOCAL((PIN_ADDR) Address)) {
        return ScopeLevelLink;
    } else if (IN4_IS_ADDR_MC_ADMINLOCAL((PIN_ADDR) Address)) {
        return ScopeLevelAdmin;
    } else if (IN4_IS_ADDR_MC_SITELOCAL((PIN_ADDR) Address)) {
        return ScopeLevelSite;
    } else {
        return ScopeLevelGlobal;
    }
}

MSTCPIP_INLINE
SCOPE_LEVEL
Ipv4AddressScope(
    IN CONST UCHAR *Address
    )
/*++

Routine Description:

    Examines an IPv4 address and determines its scope.

Arguments:

    Address - Supplies the address to test.

Return Value:

    Returns the scope level of the address.

Caller IRQL:

    May be called at PASSIVE through DISPATCH level.

--*/
{
    IN CONST IN_ADDR Ipv4Address = *(CONST IN_ADDR UNALIGNED *)Address;

    if (IN4_IS_ADDR_BROADCAST(&Ipv4Address)) {
        return ScopeLevelLink;
    } else if (IN4_IS_ADDR_MULTICAST(&Ipv4Address)) {
        return Ipv4MulticastAddressScope((UCHAR *) &Ipv4Address);
    } else {
        return Ipv4UnicastAddressScope((UCHAR *) &Ipv4Address);
    }
}

MSTCPIP_INLINE
NL_ADDRESS_TYPE
Ipv4AddressType(
    IN CONST UCHAR *Address
    )
{
    IN_ADDR Ipv4Address = *(CONST IN_ADDR UNALIGNED *) Address;

    if (IN4_IS_ADDR_MULTICAST(&Ipv4Address)) {
        return NlatMulticast;
    }

    if (IN4_IS_ADDR_BROADCAST(&Ipv4Address)) {
        return NlatBroadcast;
    }

    if (IN4_IS_ADDR_UNSPECIFIED(&Ipv4Address)) {
        return NlatUnspecified;
    }

    if (((Ipv4Address.s_addr & 0x000000ff) == 0) ||
        ((Ipv4Address.s_addr & 0x000000f0) == 240)) {
        //
        // Following prefixes are invalid:
        // 1. 0.0.0.0/8 (except 0.0.0.0/32).
        // 2. 240.0.0.0/4 (except 255.255.255.255/32).
        //
        return NlatInvalid;
    }

    //
    // Loopback and anycast addresses are treated as unicast.
    //
    return NlatUnicast;
}

MSTCPIP_INLINE
VOID
IN4_UNCANONICALIZE_SCOPE_ID(
    IN CONST IN_ADDR *Address, 
    IN OUT SCOPE_ID *ScopeId
    ) 
{
    SCOPE_LEVEL ScopeLevel = Ipv4AddressScope((CONST UCHAR *)Address);

    if ((IN4_IS_ADDR_LOOPBACK(Address)) || (ScopeLevel == ScopeLevelGlobal)) {
        ScopeId->Value = 0;
    }

    if ((SCOPE_LEVEL)ScopeId->Level == ScopeLevel) {
        ScopeId->Level = 0;
    }
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_ADDR_6TO4ELIGIBLE(CONST IN_ADDR *a)
{
    return (BOOLEAN)((Ipv4AddressType((CONST UCHAR *) a) == NlatUnicast) &&
                     !(IN4_IS_ADDR_LOOPBACK(a) ||
                       IN4_IS_ADDR_LINKLOCAL(a) ||
                       IN4_IS_ADDR_SITELOCAL(a) ||
                       IN4_IS_ADDR_RFC1918(a)));
}

MSTCPIP_INLINE
BOOLEAN
IN4_IS_UNALIGNED_ADDR_6TO4ELIGIBLE(CONST IN_ADDR UNALIGNED *a)
{
    IN_ADDR Ipv4Address = *a;
    return IN4_IS_ADDR_6TO4ELIGIBLE(&Ipv4Address);
}

#endif // _WS2DEF_


//
// Microsoft-specific IPv6 definitions.
//

#ifdef _WS2IPDEF_

MSTCPIP_INLINE
BOOLEAN
IN6_PREFIX_EQUAL(CONST IN6_ADDR *a, CONST IN6_ADDR *b, UINT8 len)
{
    UINT8 Bytes = len / 8;
    UINT8 Bits = len % 8;
    UINT8 Mask = 0xff << (8 - Bits);

    ASSERT(len <= (sizeof(IN6_ADDR) * 8));
    return (BOOLEAN)
        (((memcmp(a, b, Bytes)) == 0) &&
         ((Bits == 0) ||
          ((a->s6_bytes[Bytes] | Mask) == (b->s6_bytes[Bytes] | Mask))));
}

MSTCPIP_INLINE
BOOLEAN
IN6_IS_ADDR_ALLNODESONNODE(CONST IN6_ADDR *a)
{
    return IN6_ADDR_EQUAL(a, &in6addr_allnodesonnode);
}

MSTCPIP_INLINE
BOOLEAN
IN6_IS_ADDR_ALLNODESONLINK(CONST IN6_ADDR *a)
{
    return IN6_ADDR_EQUAL(a, &in6addr_allnodesonlink);
}

MSTCPIP_INLINE
BOOLEAN
IN6_IS_ADDR_ALLROUTERSONLINK(CONST IN6_ADDR *a)
{
    return IN6_ADDR_EQUAL(a, &in6addr_allroutersonlink);
}

MSTCPIP_INLINE
BOOLEAN
IN6_IS_ADDR_SOLICITEDNODE(CONST IN6_ADDR *a)
{
    return
        IN6_PREFIX_EQUAL(
            a,
            &in6addr_solicitednodemulticastprefix,
            IN6ADDR_SOLICITEDNODEMULTICASTPREFIX_LENGTH);
}

MSTCPIP_INLINE
BOOLEAN
IN6_IS_ADDR_ISATAP(CONST IN6_ADDR *a)
{
    //
    // Disregard the u/g bit and compare the first byte of the interface id.
    //
    return (BOOLEAN)(((a->s6_words[4] & 0xfffd) == 0x0000) &&
                     (a->s6_words[5] == 0xfe5e));
}

MSTCPIP_INLINE
BOOLEAN
IN6_IS_ADDR_6TO4(CONST IN6_ADDR *a)
{
    C_ASSERT(IN6ADDR_6TO4PREFIX_LENGTH == RTL_BITS_OF(USHORT));
    return (BOOLEAN)(a->s6_words[0] == in6addr_6to4prefix.s6_words[0]);
}

MSTCPIP_INLINE
BOOLEAN
IN6_IS_ADDR_TEREDO(CONST IN6_ADDR *a)
{
    C_ASSERT(IN6ADDR_TEREDOPREFIX_LENGTH == 2 * RTL_BITS_OF(USHORT));
    return (BOOLEAN)((a->s6_words[0] == in6addr_teredoprefix.s6_words[0]) &&
                     (a->s6_words[1] == in6addr_teredoprefix.s6_words[1]));    
}

MSTCPIP_INLINE
BOOLEAN
IN6ADDR_ISV4MAPPED(CONST SOCKADDR_IN6 *a)
{
    ASSERT(a->sin6_family == AF_INET6);
    return IN6_IS_ADDR_V4MAPPED(&a->sin6_addr);
}

MSTCPIP_INLINE
BOOLEAN
IN6ADDR_ISISATAP(CONST SOCKADDR_IN6 *a)
{
    ASSERT(a->sin6_family == AF_INET6);
    return IN6_IS_ADDR_ISATAP(&a->sin6_addr);
}

MSTCPIP_INLINE
BOOLEAN
IN6ADDR_IS6TO4(CONST SOCKADDR_IN6 *a)
{
    ASSERT(a->sin6_family == AF_INET6);
    return IN6_IS_ADDR_6TO4(&a->sin6_addr);
}

MSTCPIP_INLINE
BOOLEAN
IN6ADDR_ISTEREDO(CONST SOCKADDR_IN6 *a)
{
    ASSERT(a->sin6_family == AF_INET6);
    return IN6_IS_ADDR_TEREDO(&a->sin6_addr);
}

MSTCPIP_INLINE
CONST UCHAR*
IN6_GET_ADDR_V4MAPPED(CONST IN6_ADDR *Ipv6Address)
{
    return (CONST UCHAR *) (Ipv6Address->s6_words + 6);
}

MSTCPIP_INLINE
CONST UCHAR*
IN6_GET_ADDR_V4COMPAT(CONST IN6_ADDR *Ipv6Address)
{
    return (CONST UCHAR *) (Ipv6Address->s6_words + 6);
}

MSTCPIP_INLINE
CONST UCHAR*
IN6_EXTRACT_V4ADDR_FROM_ISATAP(CONST IN6_ADDR *Ipv6Address)
{
    return (CONST UCHAR *) (Ipv6Address->s6_words + 6);
}

MSTCPIP_INLINE
CONST UCHAR*
IN6_EXTRACT_V4ADDR_FROM_6TO4(CONST IN6_ADDR *Ipv6Address)
{
    return (CONST UCHAR *) (Ipv6Address->s6_words + 1);
}

MSTCPIP_INLINE
VOID
IN6_SET_ADDR_V4MAPPED(PIN6_ADDR a6, CONST IN_ADDR* a4)
{
    *a6 = in6addr_v4mappedprefix;
    a6->s6_bytes[12] = ((CONST UCHAR *) a4)[0];
    a6->s6_bytes[13] = ((CONST UCHAR *) a4)[1];
    a6->s6_bytes[14] = ((CONST UCHAR *) a4)[2];
    a6->s6_bytes[15] = ((CONST UCHAR *) a4)[3];
}

MSTCPIP_INLINE
VOID
IN6_SET_ADDR_V4COMPAT(PIN6_ADDR a6, CONST IN_ADDR* a4)
{
    *a6 = in6addr_any;
    a6->s6_bytes[12] = ((CONST UCHAR *) a4)[0];
    a6->s6_bytes[13] = ((CONST UCHAR *) a4)[1];
    a6->s6_bytes[14] = ((CONST UCHAR *) a4)[2];
    a6->s6_bytes[15] = ((CONST UCHAR *) a4)[3];
}

MSTCPIP_INLINE
VOID
IN6_SET_ADDR_SOLICITEDNODE(PIN6_ADDR Multicast, CONST IN6_ADDR *Unicast)
{    
    *Multicast = in6addr_solicitednodemulticastprefix;
    Multicast->s6_bytes[13] = Unicast->s6_bytes[13];
    Multicast->s6_bytes[14] = Unicast->s6_bytes[14];
    Multicast->s6_bytes[15] = Unicast->s6_bytes[15];
}

MSTCPIP_INLINE
VOID
IN6_SET_ISATAP_IDENTIFIER(IN6_ADDR *Ipv6Address, CONST IN_ADDR *Ipv4Address)
{
    if (IN4_IS_ADDR_6TO4ELIGIBLE(Ipv4Address)) {
        Ipv6Address->s6_words[4] = 0x0002;
    } else {
        Ipv6Address->s6_words[4] = 0x0000;
    }

    //
    // 24-bit IANA OUI 00-00-5E and the 8-bit hex value 0xFE.
    // See section 6.1 of RFC 4214.
    //    
    Ipv6Address->s6_words[5] = 0xFE5E;
    *((UNALIGNED IN_ADDR *) (Ipv6Address->s6_words + 6)) = *Ipv4Address;
}

MSTCPIP_INLINE
VOID
IN6_SET_6TO4_PREFIX(IN6_ADDR *Ipv6Address, CONST IN_ADDR *Ipv4Address)
{
    Ipv6Address->s6_words[0] = 0x0220;
    *((UNALIGNED IN_ADDR *) (Ipv6Address->s6_words + 1)) = *Ipv4Address;
    Ipv6Address->s6_words[3] = 0x0000;
}

MSTCPIP_INLINE
SCOPE_LEVEL
Ipv6UnicastAddressScope(
    IN CONST UCHAR *Address
    )
/*++

Routine Description:

    Examines a unicast address and determines its scope.
  
    Note that v4-compatible and 6to4 addresses are deemed to have global scope;
    it is not legal to derive them from non IN4_IS_ADDR_6TO4ELIGIBLE addresses
    (IPv4 loopback, link-local, site-local, and RFC-1918 addresses).

Arguments:

    Address - Supplies an IPv6 unicast address.

Return Value:

    Returns the scope level of the address.

Caller IRQL:

    May be called at PASSIVE through DISPATCH level.

--*/
{
    IN6_ADDR Ipv6Address;
    
    if (!INET_IS_ALIGNED(Address, IN6_ADDR)) {
        Ipv6Address = *(CONST IN6_ADDR UNALIGNED *)Address;
        Address = (CONST UCHAR *) &Ipv6Address;
    }    
    
    if (IN6_IS_ADDR_LINKLOCAL((PIN6_ADDR) Address) ||
        IN6_IS_ADDR_LOOPBACK((PIN6_ADDR) Address)) {
        return ScopeLevelLink;
    } else if (IN6_IS_ADDR_SITELOCAL((PIN6_ADDR) Address)) {
        return ScopeLevelSite;
    } else {
        return ScopeLevelGlobal;
    }
}

MSTCPIP_INLINE
SCOPE_LEVEL
IN6_MULTICAST_SCOPE(
    IN CONST UCHAR *Address
    )
{
    PIN6_ADDR Ipv6Address = (PIN6_ADDR) Address;
    return (SCOPE_LEVEL)(Ipv6Address->s6_bytes[1] & 0xf);
}

MSTCPIP_INLINE
SCOPE_LEVEL
Ipv6AddressScope(
    IN CONST UCHAR *Address
    )
/*++

Routine Description:

    Examines an IPv6 address and determines its scope.

Arguments:

    Address - Supplies an IPv6 address.

Return Value:

    Returns the scope level of the address.

Caller IRQL:

    May be called at PASSIVE through DISPATCH level.

--*/
{
    if (IN6_IS_ADDR_MULTICAST((CONST IN6_ADDR *) Address)) {
        return IN6_MULTICAST_SCOPE(Address);
    } else {
        return Ipv6UnicastAddressScope(Address);
    }
}

MSTCPIP_INLINE
NL_ADDRESS_TYPE
Ipv6AddressType(
    IN CONST UCHAR *Address
    )
{
    CONST IN6_ADDR *Ipv6Address = (CONST IN6_ADDR *) Address;
    CONST UCHAR *Ipv4Address;
    
    if (IN6_IS_ADDR_MULTICAST(Ipv6Address)) {
        return NlatMulticast;
    }

    if (IN6_IS_ADDR_UNSPECIFIED(Ipv6Address)) {
        return NlatUnspecified;
    }

    //
    // Extract embedded IPv4 address, if any.
    //
    if (IN6_IS_ADDR_ISATAP(Ipv6Address) ||
        IN6_IS_ADDR_V4COMPAT(Ipv6Address) ||
        IN6_IS_ADDR_V4MAPPED(Ipv6Address) ||
        IN6_IS_ADDR_V4TRANSLATED(Ipv6Address)) {
        Ipv4Address = IN6_EXTRACT_V4ADDR_FROM_ISATAP(Ipv6Address);
    } else if (IN6_IS_ADDR_6TO4(Ipv6Address)) {
        Ipv4Address = IN6_EXTRACT_V4ADDR_FROM_6TO4(Ipv6Address);
    } else {
        //
        // Anycast and loopback addresses are treated unicast address.
        //
        return NlatUnicast;
    }

    //
    // Ensure that the embedded IPv4 address is unicast.
    //
    if (Ipv4AddressType(Ipv4Address) != NlatUnicast) {
        return NlatInvalid;
    }
    return NlatUnicast;
}

MSTCPIP_INLINE
VOID
IN6_UNCANONICALIZE_SCOPE_ID(
    IN CONST IN6_ADDR *Address, 
    IN OUT SCOPE_ID *ScopeId
    ) 
{
    SCOPE_LEVEL ScopeLevel = Ipv6AddressScope((CONST UCHAR *)Address);

    if ((IN6_IS_ADDR_LOOPBACK(Address)) || (ScopeLevel == ScopeLevelGlobal)) {
        ScopeId->Value = 0;
    }

    if ((SCOPE_LEVEL)ScopeId->Level == ScopeLevel) {
        ScopeId->Level = 0;
    }
}

#if (NTDDI_VERSION >= NTDDI_LONGHORN)
MSTCPIP_INLINE
VOID
IN6ADDR_SETSOCKADDR(PSOCKADDR_IN6 a, CONST IN6_ADDR *addr, SCOPE_ID scope,
                    USHORT port)
{
    a->sin6_family = AF_INET6;
    a->sin6_port = port;
    a->sin6_flowinfo = 0;
    RtlCopyMemory(&a->sin6_addr, addr, sizeof(IN6_ADDR));
    a->sin6_scope_struct = scope;
    IN6_UNCANONICALIZE_SCOPE_ID(&a->sin6_addr, &a->sin6_scope_struct);
}

MSTCPIP_INLINE
VOID
IN6ADDR_SETV4MAPPED(PSOCKADDR_IN6 a6, CONST IN_ADDR* a4, SCOPE_ID scope,
                    USHORT port)
{
    a6->sin6_family = AF_INET6;
    a6->sin6_port = port;
    a6->sin6_flowinfo = 0;
    IN6_SET_ADDR_V4MAPPED(&a6->sin6_addr, a4);
    a6->sin6_scope_struct = scope;
    IN4_UNCANONICALIZE_SCOPE_ID(a4, &a6->sin6_scope_struct);
}

#endif

//
// Define address-family-independent routines.
//

MSTCPIP_INLINE
BOOLEAN
INET_ADDR_EQUAL(ADDRESS_FAMILY af, CONST VOID* a, CONST VOID* b)
{
    if (af == AF_INET6) {
        return IN6_ADDR_EQUAL((CONST IN6_ADDR*)a, (CONST IN6_ADDR*)b);
    } else {
        ASSERT(af == AF_INET);
        return IN4_ADDR_EQUAL((CONST IN_ADDR*)a, (CONST IN_ADDR*)b);
    }
}

MSTCPIP_INLINE
BOOLEAN
INET_UNALIGNED_ADDR_EQUAL(ADDRESS_FAMILY af, CONST VOID* a, CONST VOID* b)
{
    if (af == AF_INET6) {
        return IN6_ADDR_EQUAL((CONST IN6_ADDR*)a, (CONST IN6_ADDR*)b);
    } else {
        ASSERT(af == AF_INET);
        return IN4_UNALIGNED_ADDR_EQUAL((CONST IN_ADDR*)a, (CONST IN_ADDR*)b);
    }
}

MSTCPIP_INLINE
BOOLEAN
INET_IS_ADDR_UNSPECIFIED(ADDRESS_FAMILY af, CONST VOID* a)
{
    if (af == AF_INET6) {
        return IN6_IS_ADDR_UNSPECIFIED((CONST IN6_ADDR*)a);
    } else {
        ASSERT(af == AF_INET);
        return IN4_IS_ADDR_UNSPECIFIED((CONST IN_ADDR*)a);
    }
}

MSTCPIP_INLINE
BOOLEAN
INET_IS_UNALIGNED_ADDR_UNSPECIFIED(ADDRESS_FAMILY af, CONST VOID* a)
{
    if (af == AF_INET6) {
        return IN6_IS_ADDR_UNSPECIFIED((CONST IN6_ADDR*)a);
    } else {
        ASSERT(af == AF_INET);
        return IN4_IS_UNALIGNED_ADDR_UNSPECIFIED((CONST IN_ADDR UNALIGNED*)a);
    }
}

MSTCPIP_INLINE
BOOLEAN
INET_IS_ADDR_LOOPBACK(ADDRESS_FAMILY af, CONST VOID* a)
{
    if (af == AF_INET6) {
        return IN6_IS_ADDR_LOOPBACK((CONST IN6_ADDR*)a);
    } else {
        ASSERT(af == AF_INET);
        return IN4_IS_ADDR_LOOPBACK((CONST IN_ADDR*)a);
    }
}

MSTCPIP_INLINE
BOOLEAN
INET_IS_ADDR_BROADCAST(ADDRESS_FAMILY af, CONST VOID* a)
{
    if (af == AF_INET6) {
        return FALSE;
    } else {
        ASSERT(af == AF_INET);
        return IN4_IS_ADDR_BROADCAST((CONST IN_ADDR*)a);
    }
}

MSTCPIP_INLINE
BOOLEAN
INET_IS_ADDR_MULTICAST(ADDRESS_FAMILY af, CONST VOID* a)
{
    if (af == AF_INET6) {
        return IN6_IS_ADDR_MULTICAST((CONST IN6_ADDR*)a);
    } else {
        ASSERT(af == AF_INET);
        return IN4_IS_ADDR_MULTICAST((CONST IN_ADDR*)a);
    }
}

MSTCPIP_INLINE
CONST UCHAR*
INET_ADDR_UNSPECIFIED(ADDRESS_FAMILY af)
{
    if (af == AF_INET6) {
        return (CONST UCHAR*)&in6addr_any;
    } else {
        ASSERT(af == AF_INET);
        return (CONST UCHAR*)&in4addr_any;
    }
}

MSTCPIP_INLINE
VOID
INET_SET_ADDRESS(ADDRESS_FAMILY Family, PUCHAR Address, CONST UCHAR *Value)
{
    if (Family == AF_INET6) {
        *((PIN6_ADDR)Address) = *((PIN6_ADDR)Value);
    } else {
        ASSERT(Family == AF_INET);
        *((PIN_ADDR)Address) = *((PIN_ADDR)Value);
    }
}

MSTCPIP_INLINE
SIZE_T
INET_ADDR_LENGTH(ADDRESS_FAMILY af)
{
    if (af == AF_INET6) {
        return sizeof(IN6_ADDR);
    } else {
        ASSERT(af == AF_INET);
        return sizeof(IN_ADDR);
    }
}

MSTCPIP_INLINE
SIZE_T
INET_SOCKADDR_LENGTH(ADDRESS_FAMILY af)
{
    if (af == AF_INET6) {
        return sizeof(SOCKADDR_IN6);
    } else {
        ASSERT(af == AF_INET);
        return sizeof(SOCKADDR_IN);
    }
}

#if (NTDDI_VERSION >= NTDDI_LONGHORN)
MSTCPIP_INLINE
VOID
INETADDR_SETSOCKADDR(ADDRESS_FAMILY af, PSOCKADDR a, CONST VOID* addr,
                     SCOPE_ID scope, USHORT port)
{
    if (af == AF_INET6) {
        IN6ADDR_SETSOCKADDR(
            (PSOCKADDR_IN6) a, (CONST IN6_ADDR *) addr, scope, port);
    } else {
        CONST IN_ADDR addr4 = *((IN_ADDR UNALIGNED *) addr);
        
        ASSERT(af == AF_INET);
        IN4ADDR_SETSOCKADDR(
            (PSOCKADDR_IN) a, (CONST IN_ADDR *) &addr4, port);
    }
}
#endif // (NTDDI_VERSION >= NTDDI_LONGHORN)

MSTCPIP_INLINE
VOID
INETADDR_SETANY(PSOCKADDR a)
{
    if (a->sa_family == AF_INET6) {
        IN6ADDR_SETANY((PSOCKADDR_IN6)a);
    } else {
        ASSERT(a->sa_family == AF_INET);
        IN4ADDR_SETANY((PSOCKADDR_IN)a);
    }
}

MSTCPIP_INLINE
VOID
INETADDR_SETLOOPBACK(PSOCKADDR a)
{
    if (a->sa_family == AF_INET6) {
        IN6ADDR_SETLOOPBACK((PSOCKADDR_IN6)a);
    } else {
        ASSERT(a->sa_family == AF_INET);
        IN4ADDR_SETLOOPBACK((PSOCKADDR_IN)a);
    }
}

MSTCPIP_INLINE
BOOLEAN
INETADDR_ISANY(CONST SOCKADDR *a)
{
    if (a->sa_family == AF_INET6) {
        return IN6ADDR_ISANY((CONST SOCKADDR_IN6*)a);
    } else {
        ASSERT(a->sa_family == AF_INET);
        return IN4ADDR_ISANY((CONST SOCKADDR_IN*)a);
    }
}

MSTCPIP_INLINE
BOOLEAN
INETADDR_ISLOOPBACK(CONST SOCKADDR *a)
{
    if (a->sa_family == AF_INET6) {
        return IN6ADDR_ISLOOPBACK((CONST SOCKADDR_IN6*)a);
    } else {
        ASSERT(a->sa_family == AF_INET);
        return IN4ADDR_ISLOOPBACK((CONST SOCKADDR_IN*)a);
    }
}

MSTCPIP_INLINE
BOOLEAN
INETADDR_ISV4MAPPED(CONST SOCKADDR *a)
{
    if (a->sa_family == AF_INET6) {
        return IN6ADDR_ISV4MAPPED((CONST SOCKADDR_IN6*)a);
    } else {
        return FALSE;
    }
}

MSTCPIP_INLINE
BOOLEAN
NL_ADDR_EQUAL(
    IN ADDRESS_FAMILY af,
    IN SCOPE_ID sa,
    IN CONST UCHAR* aa,
    IN SCOPE_ID sb,
    IN CONST UCHAR* ab
    )
{
    return (BOOLEAN)((sa.Value == sb.Value) && INET_ADDR_EQUAL(af, aa, ab));
}

MSTCPIP_INLINE
BOOLEAN
NL_IS_ADDR_UNSPECIFIED(
    IN ADDRESS_FAMILY af,
    IN SCOPE_ID s,
    IN CONST UCHAR* a
    )
{
    return (BOOLEAN)((s.Value == 0) && INET_IS_ADDR_UNSPECIFIED(af, a));
}

MSTCPIP_INLINE
BOOLEAN
INETADDR_ISEQUAL(CONST SOCKADDR *a, CONST SOCKADDR *b)
{
    if (a->sa_family == AF_INET6) {
        return (BOOLEAN)
            (b->sa_family == AF_INET6 &&
             IN6ADDR_ISEQUAL((CONST SOCKADDR_IN6*)a, (CONST SOCKADDR_IN6*)b));
    } else {
        ASSERT(a->sa_family == AF_INET);
        return (BOOLEAN)
            (b->sa_family == AF_INET &&
             IN4ADDR_ISEQUAL((CONST SOCKADDR_IN*)a, (CONST SOCKADDR_IN*)b));
    }
}

MSTCPIP_INLINE
BOOLEAN
INETADDR_ISUNSPECIFIED(CONST SOCKADDR *a)
{
    if (a->sa_family == AF_INET6) {
        return IN6ADDR_ISUNSPECIFIED((CONST SOCKADDR_IN6*)a);
    } else {
        ASSERT(a->sa_family == AF_INET);
        return IN4ADDR_ISUNSPECIFIED((CONST SOCKADDR_IN*)a);
    }
}

#if (NTDDI_VERSION >= NTDDI_LONGHORN)
MSTCPIP_INLINE
SCOPE_ID
INETADDR_SCOPE_ID(CONST SOCKADDR *a)
{
    if (a->sa_family == AF_INET6) {
        return ((CONST SOCKADDR_IN6*)a)->sin6_scope_struct;
    } else {
        ASSERT(a->sa_family == AF_INET);
        return IN4ADDR_SCOPE_ID((CONST SOCKADDR_IN*)a);
    }
}
#endif

MSTCPIP_INLINE
USHORT
INETADDR_PORT(CONST SOCKADDR *a)
{
    if (a->sa_family == AF_INET6) {
        return ((CONST SOCKADDR_IN6*)a)->sin6_port;
    } else {
        ASSERT(a->sa_family == AF_INET);
        return ((CONST SOCKADDR_IN*)a)->sin_port;
    }
}

MSTCPIP_INLINE
PUCHAR
INETADDR_ADDRESS(CONST SOCKADDR* a)
{
    if (a->sa_family == AF_INET6) {
        return (PUCHAR)&((PSOCKADDR_IN6)a)->sin6_addr;
    } else {
        ASSERT(a->sa_family == AF_INET);
        return (PUCHAR)&((PSOCKADDR_IN)a)->sin_addr;
    }
}

MSTCPIP_INLINE
VOID
INETADDR_SET_PORT(PSOCKADDR a, USHORT Port)
{
    SS_PORT(a) = Port;
}

MSTCPIP_INLINE
VOID
INETADDR_SET_ADDRESS(PSOCKADDR a, CONST UCHAR *Address)
{
    if (a->sa_family == AF_INET6) {
        ((PSOCKADDR_IN6)a)->sin6_addr = *((CONST IN6_ADDR*)Address);
    } else {
        ASSERT(a->sa_family == AF_INET);
        ((PSOCKADDR_IN)a)->sin_addr = *((CONST IN_ADDR*)Address);
    }
}

MSTCPIP_INLINE
VOID
INET_UNCANONICALIZE_SCOPE_ID(
    IN ADDRESS_FAMILY AddressFamily,
    IN CONST UCHAR *Address, 
    IN OUT SCOPE_ID *ScopeId
    ) 
{
    if (AddressFamily == AF_INET6) {
        IN6_UNCANONICALIZE_SCOPE_ID((CONST IN6_ADDR*) Address, ScopeId);
    } else {
        IN4_UNCANONICALIZE_SCOPE_ID((CONST IN_ADDR*) Address, ScopeId);
    }
}

#endif // _WS2IPDEF_

#endif // (NTDDI_VERSION >= NTDDI_WIN2KSP1)


#ifdef _PREFAST_
#pragma prefast(pop)
#endif

#pragma warning(pop)

#ifdef MSTCPIPDEF_ASSERT_UNDEFINED
#undef ASSERT
#endif

#ifdef __cplusplus
}
#endif

#endif // !_MSTCPIP_