Windows2003-3790/enduser/netmeeting/av/callcont/dcall.cpp
2020-09-30 16:53:55 +02:00

1530 lines
50 KiB
C++

/************************************************************************
* *
* INTEL CORPORATION PROPRIETARY INFORMATION *
* *
* This software is supplied under the terms of a license *
* agreement or non-disclosure agreement with Intel Corporation *
* and may not be copied or disclosed except in accordance *
* with the terms of that agreement. *
* *
* Copyright (C) 1997 Intel Corp. All Rights Reserved *
* *
* $Archive: S:\sturgeon\src\gki\vcs\dcall.cpv $
* *
* $Revision: 1.12 $
* $Date: 25 Feb 1997 11:46:24 $
* *
* $Author: CHULME $
* *
* $Log: S:\sturgeon\src\gki\vcs\dcall.cpv $
//
// Rev 1.12 25 Feb 1997 11:46:24 CHULME
// Memset CallInfo structure to zero to avoid unwanted data
//
// Rev 1.11 17 Jan 1997 15:53:50 CHULME
// Put debug variables on conditional compile to avoid release warnings
//
// Rev 1.10 17 Jan 1997 09:01:22 CHULME
// Changed reg.h to gkreg.h to avoid name conflict with inc directory
//
// Rev 1.9 10 Jan 1997 17:42:04 CHULME
// Added CRV and conferenceID to CallReturnInfo structure
//
// Rev 1.8 10 Jan 1997 16:13:36 CHULME
// Removed MFC dependency
//
// Rev 1.7 20 Dec 1996 16:38:58 CHULME
// Removed extraneous debug statements
//
// Rev 1.6 20 Dec 1996 14:08:32 CHULME
// Swapped send and recv addresses in infoRequestResponse
//
// Rev 1.5 19 Dec 1996 19:11:54 CHULME
// Set originator bit in IRR
//
// Rev 1.4 19 Dec 1996 17:59:52 CHULME
// Use dest addr from ACF in IRR if call made with just Alias
//
// Rev 1.3 17 Dec 1996 18:22:24 CHULME
// Switch src and destination fields on ARQ for Callee
//
// Rev 1.2 02 Dec 1996 23:50:52 CHULME
// Added premptive synchronization code
//
// Rev 1.1 22 Nov 1996 15:21:20 CHULME
// Added VCS log to the header
*************************************************************************/
// dcall.cpp : Provides the implementation for the CCall class
//
#include "precomp.h"
#include <process.h>
#include "GKICOM.H"
#include "dspider.h"
#include "dgkilit.h"
#include "DGKIPROT.H"
#include "gksocket.h"
#include "GKREG.H"
#include "dcall.h"
#include "GATEKPR.H"
#include "h225asn.h"
#include "coder.hpp"
#include "dgkiext.h"
#include <objbase.h>
#include "iras.h"
#ifdef _DEBUG
#undef THIS_FILE
static char THIS_FILE[] = __FILE__;
#endif
/////////////////////////////////////////////////////////////////////////////
// CCall construction
CCall::CCall()
{
// ABSTRACT: The constructor for the CCall class will initialize
// the member variables.
// AUTHOR: Colin Hulme
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_CONDES, "CCall::CCall()\n", 0);
memset(&m_CallIdentifier, 0, sizeof(m_CallIdentifier));
memset(&m_callType, 0, sizeof(CallType));
m_pRemoteInfo = 0;
memset(&m_RemoteCallSignalAddress, 0, sizeof(TransportAddress));
m_pDestExtraCallInfo = 0;
memset(&m_LocalCallSignalAddress, 0, sizeof(TransportAddress));
m_bandWidth = 0;
m_callReferenceValue = 0;
memset(&m_conferenceID, 0, sizeof(ConferenceIdentifier));
m_activeMC = 0;
m_answerCall = 0;
m_usTimeTilStatus = DEFAULT_STATUS_PERIOD; // Reset on ACF
m_uRetryResetCount = GKCALL_RETRY_INTERVAL_SECONDS;
m_uRetryCountdown =GKCALL_RETRY_INTERVAL_SECONDS;
m_uMaxRetryCount = GKCALL_RETRY_MAX;
m_CFbandWidth = 0;
m_CallReturnInfo.hCall = 0;
memset(&m_CallReturnInfo.callModel, 0, sizeof(CallModel));
memset(&m_CallReturnInfo.destCallSignalAddress, 0, sizeof(TransportAddress));
m_CallReturnInfo.bandWidth = 0;
m_CallReturnInfo.callReferenceValue = 0;
memset(&m_CallReturnInfo.conferenceID, 0, sizeof(ConferenceIdentifier));
m_CallReturnInfo.wError = 0;
m_CFirrFrequency = 0;
m_State = GK_ADM_PENDING;
SPIDER_TRACE(SP_STATE, "m_State = GK_ADM_PENDING (%X)\n", this);
m_pRasMessage = 0;
m_usRetryCount = 0;
}
/////////////////////////////////////////////////////////////////////////////
// CCall destruction
CCall::~CCall()
{
// ABSTRACT: The destructor for the CCall class must free the
// memory allocated for the Alias addresses. It does this by
// deleting the structures and walking the link list.
// AUTHOR: Colin Hulme
SeqAliasAddr *pAA1, *pAA2;
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_CONDES, "CCall::~CCall()\n", 0);
m_CallReturnInfo.hCall = 0; // Delete self reference
// Delete allocated memory for sequence of alias addresses
pAA1 = m_pRemoteInfo;
while (pAA1 != 0)
{
pAA2 = pAA1->next;
if (pAA1->value.choice == h323_ID_chosen)
{
SPIDER_TRACE(SP_NEWDEL, "del pAA1->value.u.h323_ID.value = %X\n", pAA1->value.u.h323_ID.value);
delete pAA1->value.u.h323_ID.value;
}
SPIDER_TRACE(SP_NEWDEL, "del pAA1 = %X\n", pAA1);
delete pAA1;
pAA1 = pAA2;
}
pAA1 = m_pDestExtraCallInfo;
while (pAA1 != 0)
{
pAA2 = pAA1->next;
if (pAA1->value.choice == h323_ID_chosen)
{
SPIDER_TRACE(SP_NEWDEL, "del pAA1->value.u.h323_ID.value = %X\n", pAA1->value.u.h323_ID.value);
delete pAA1->value.u.h323_ID.value;
}
SPIDER_TRACE(SP_NEWDEL, "del pAA1 = %X\n", pAA1);
delete pAA1;
pAA1 = pAA2;
}
// Delete memory for last RAS message if still allocated
if (m_pRasMessage)
{
SPIDER_TRACE(SP_NEWDEL, "del m_pRasMessage = %X\n", m_pRasMessage);
delete m_pRasMessage;
m_pRasMessage = 0;
}
}
HRESULT
CCall::AddRemoteInfo(AliasAddress& rvalue)
{
// ABSTRACT: This procedure is called to add an alias address
// to the link list of alias addresses. This will
// be called for each alias on receiving a GKI_AdmissionRequest.
// A local copy is made to avoid reliance on the client
// keeping the memory valid.
// This procedure returns 0 if successful and non-zero
// for a failure.
// AUTHOR: Colin Hulme
SeqAliasAddr *p1;
unsigned short uIdx;
unsigned short *pus;
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CRegistration::AddRemoteInfo(%X)\n", rvalue.choice);
if (m_pRemoteInfo == 0) // First one in the list
{
m_pRemoteInfo = new SeqAliasAddr;
SPIDER_TRACE(SP_NEWDEL, "new m_pRemoteInfo = %X\n", m_pRemoteInfo);
if (m_pRemoteInfo == 0)
return (GKI_NO_MEMORY);
memset(m_pRemoteInfo, 0, sizeof(SeqAliasAddr));
p1 = m_pRemoteInfo;
}
else
{
for (p1 = m_pRemoteInfo; p1->next != 0; p1 = p1->next)
; // walk the list til last entry
p1->next = new SeqAliasAddr;
SPIDER_TRACE(SP_NEWDEL, "new p1->next = %X\n", p1->next);
if (p1->next == 0)
return (GKI_NO_MEMORY);
memset(p1->next, 0, sizeof(SeqAliasAddr));
p1 = p1->next;
}
p1->next = 0; // initialize new structure fields
p1->value = rvalue;
if (p1->value.choice == h323_ID_chosen)
{
pus = new unsigned short[p1->value.u.h323_ID.length];
SPIDER_TRACE(SP_NEWDEL, "new pus = %X\n", pus);
if (pus == 0)
return (GKI_NO_MEMORY);
memset(pus, 0, sizeof(unsigned short) * p1->value.u.h323_ID.length);
for (uIdx = 0; uIdx < p1->value.u.h323_ID.length; uIdx++)
*(pus + uIdx) = *(p1->value.u.h323_ID.value + uIdx);
p1->value.u.h323_ID.value = pus;
}
return (GKI_OK);
}
HRESULT
CCall::AddDestExtraCallInfo(AliasAddress& rvalue)
{
// ABSTRACT: This procedure is called to add an alias address
// to the link list of alias addresses. This will
// be called for each alias on receiving a GKI_AdmissionRequest.
// A local copy is made to avoid reliance on the client
// keeping the memory valid.
// This procedure returns 0 if successful and non-zero
// for a failure.
// AUTHOR: Colin Hulme
SeqAliasAddr *p1;
unsigned short uIdx;
unsigned short *pus;
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CRegistration::AddDestExtraCallInfo(%X)\n", rvalue.choice);
if (m_pDestExtraCallInfo == 0) // First one in the list
{
m_pDestExtraCallInfo = new SeqAliasAddr;
SPIDER_TRACE(SP_NEWDEL, "new m_pDestExtraCallInfo = %X\n", m_pDestExtraCallInfo);
if (m_pDestExtraCallInfo == 0)
return (GKI_NO_MEMORY);
memset(m_pDestExtraCallInfo, 0, sizeof(SeqAliasAddr));
p1 = m_pDestExtraCallInfo;
}
else
{
for (p1 = m_pDestExtraCallInfo; p1->next != 0; p1 = p1->next)
; // walk the list til last entry
p1->next = new SeqAliasAddr;
SPIDER_TRACE(SP_NEWDEL, "new p1->next = %X\n", p1->next);
if (p1->next == 0)
return (GKI_NO_MEMORY);
memset(p1->next, 0, sizeof(SeqAliasAddr));
p1 = p1->next;
}
p1->next = 0; // initialize new structure fields
p1->value = rvalue;
if (p1->value.choice == h323_ID_chosen)
{
pus = new unsigned short[p1->value.u.h323_ID.length];
SPIDER_TRACE(SP_NEWDEL, "new pus = %X\n", pus);
if (pus == 0)
return (GKI_NO_MEMORY);
memset(pus, 0, sizeof(unsigned short) * p1->value.u.h323_ID.length);
for (uIdx = 0; uIdx < p1->value.u.h323_ID.length; uIdx++)
*(pus + uIdx) = *(p1->value.u.h323_ID.value + uIdx);
p1->value.u.h323_ID.value = pus;
}
return (GKI_OK);
}
HRESULT
CCall::SetLocalCallSignalAddress(unsigned short usCallTransport)
{
TransportAddress *pTA;
pTA = g_pReg->GetTransportAddress(usCallTransport);
if (pTA == NULL)
return (GKI_NO_TA_ERROR);
m_LocalCallSignalAddress = *pTA;
return (GKI_OK);
}
void
CCall::SetConferenceID(ConferenceIdentifier *pCID)
{
if ((pCID == NULL) || (pCID->length == 0))
GenerateConferenceID();
else
m_conferenceID = *pCID;
}
void
CCall::GenerateConferenceID(void)
{
CoCreateGuid((struct _GUID *)m_conferenceID.value);
m_conferenceID.length = 16;
}
HRESULT
CCall::AdmissionRequest(void)
{
// ABSTRACT: This procedure will create an AdmissionRequest structure
// call the encoder and send the PDU. If it is successful, it
// will return 0, else it will return an error code. Note: The
// memory allocated for the RAS Message is not freed until either
// a response from the gatekeeper or it times out. This allows
// for retransmission without having to rebuild this message.
// AUTHOR: Colin Hulme
ASN1_BUF Asn1Buf;
DWORD dwErrorCode;
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::AdmissionRequest()\n", 0);
ASSERT(g_pCoder);
if (g_pCoder == NULL)
return (GKI_NOT_INITIALIZED);
// Copy call reference value and CRV into the return info structure
m_CallReturnInfo.callReferenceValue = m_callReferenceValue;
m_CallReturnInfo.conferenceID = m_conferenceID;
// Allocate a RasMessage structure and initialized to 0
m_usRetryCount = 0;
m_uRetryCountdown = m_uRetryResetCount;
m_pRasMessage = new RasMessage;
SPIDER_TRACE(SP_NEWDEL, "new m_pRasMessage = %X\n", m_pRasMessage);
if (m_pRasMessage == 0)
return (GKI_NO_MEMORY);
memset(m_pRasMessage, 0, sizeof(RasMessage));
// Setup structure fields for AdmissionRequest
m_pRasMessage->choice = admissionRequest_chosen;
if (m_pDestExtraCallInfo != 0)
m_pRasMessage->u.admissionRequest.bit_mask |= AdmissionRequest_destExtraCallInfo_present;
m_pRasMessage->u.admissionRequest.requestSeqNum = g_pReg->GetNextSeqNum();
m_pRasMessage->u.admissionRequest.callType = m_callType;
m_pRasMessage->u.admissionRequest.endpointIdentifier = g_pReg->GetEndpointIdentifier();
memcpy(&m_pRasMessage->u.admissionRequest.callIdentifier.guid.value,
&m_CallIdentifier, sizeof(GUID));
m_pRasMessage->u.admissionRequest.callIdentifier.guid.length = sizeof(GUID);
m_pRasMessage->u.admissionRequest.bit_mask |= AdmissionRequest_callIdentifier_present;
if (m_answerCall) // Src & Dest are swapped in callee
{
if (g_pReg->GetAlias() != NULL)
{
m_pRasMessage->u.admissionRequest.bit_mask
|= AdmissionRequest_destinationInfo_present;
}
if (m_LocalCallSignalAddress.choice != 0)
{
m_pRasMessage->u.admissionRequest.bit_mask
|= AdmissionRequest_destCallSignalAddress_present;
}
m_pRasMessage->u.admissionRequest.destinationInfo = (PAdmissionRequest_destinationInfo)g_pReg->GetAlias();
m_pRasMessage->u.admissionRequest.destCallSignalAddress = m_LocalCallSignalAddress;
m_pRasMessage->u.admissionRequest.srcInfo = (PAdmissionRequest_srcInfo)m_pRemoteInfo;
if (m_RemoteCallSignalAddress.choice != 0)
{
m_pRasMessage->u.admissionRequest.bit_mask |= srcCallSignalAddress_present;
m_pRasMessage->u.admissionRequest.srcCallSignalAddress = m_RemoteCallSignalAddress;
}
}
else
{
if (m_pRemoteInfo != 0)
{
m_pRasMessage->u.admissionRequest.bit_mask
|= AdmissionRequest_destinationInfo_present;
}
else if (m_RemoteCallSignalAddress.choice != 0)
{
m_pRasMessage->u.admissionRequest.bit_mask
|= AdmissionRequest_destCallSignalAddress_present;
m_pRasMessage->u.admissionRequest.destCallSignalAddress = m_RemoteCallSignalAddress;
}
m_pRasMessage->u.admissionRequest.destinationInfo = (PAdmissionRequest_destinationInfo)m_pRemoteInfo;
m_pRasMessage->u.admissionRequest.srcInfo = (PAdmissionRequest_srcInfo)g_pReg->GetAlias();
}
m_pRasMessage->u.admissionRequest.destExtraCallInfo = (PAdmissionRequest_destExtraCallInfo)m_pDestExtraCallInfo;
m_pRasMessage->u.admissionRequest.bandWidth = m_bandWidth;
m_pRasMessage->u.admissionRequest.callReferenceValue = m_callReferenceValue;
m_pRasMessage->u.admissionRequest.conferenceID = m_conferenceID;
// The following casts are because ASN1_BOOL is a char and BOOL is an int
// since the values of m_activeMC and m_answerCall are always 0 or 1, the
// cast to char causes no loss of data
m_pRasMessage->u.admissionRequest.activeMC = (ASN1_BOOL)m_activeMC;
m_pRasMessage->u.admissionRequest.answerCall = (ASN1_BOOL)m_answerCall;
#ifdef _DEBUG
if (dwGKIDLLFlags & SP_DUMPMEM)
DumpMem(m_pRasMessage, sizeof(RasMessage));
#endif
// Encode the PDU & send it
dwErrorCode = g_pCoder->Encode(m_pRasMessage, &Asn1Buf);
if (dwErrorCode)
return (GKI_ENCODER_ERROR);
// Create a backup copy of the encoded PDU if using debug echo support
if (fGKIEcho)
{
pEchoBuff = new char[Asn1Buf.length];
SPIDER_TRACE(SP_NEWDEL, "new pEchoBuff = %X\n", pEchoBuff);
if (pEchoBuff == 0)
return (GKI_NO_MEMORY);
memcpy(pEchoBuff, (char *)Asn1Buf.value, Asn1Buf.length);
nEchoLen = Asn1Buf.length;
}
SPIDER_TRACE(SP_PDU, "Send ARQ; pCall = %X\n", this);
if (fGKIDontSend == FALSE)
if (g_pReg->m_pSocket->Send((char *)Asn1Buf.value, Asn1Buf.length) == SOCKET_ERROR)
return (GKI_WINSOCK2_ERROR(SOCKET_ERROR));
// Free the encoder memory
g_pCoder->Free(Asn1Buf);
return (GKI_OK);
}
HRESULT
CCall::BandwidthRequest(void)
{
// ABSTRACT: This procedure will create a bandwidthRequest structure
// call the encoder and send the PDU. If it is successful, it
// will return 0, else it will return an error code.
// AUTHOR: Colin Hulme
ASN1_BUF Asn1Buf;
DWORD dwErrorCode;
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::BandwidthRequest()\n", 0);
ASSERT(g_pCoder);
if (g_pCoder == NULL)
return (GKI_NOT_INITIALIZED);
// Allocate a RasMessage structure and initialized to 0
m_usRetryCount = 0;
m_uRetryCountdown = m_uRetryResetCount;
m_pRasMessage = new RasMessage;
SPIDER_TRACE(SP_NEWDEL, "new m_pRasMessage = %X\n", m_pRasMessage);
if (m_pRasMessage == 0)
return (GKI_NO_MEMORY);
memset(m_pRasMessage, 0, sizeof(RasMessage));
// Setup structure fields for BandwidthRequest
m_pRasMessage->choice = bandwidthRequest_chosen;
m_pRasMessage->u.bandwidthRequest.bit_mask = callType_present;
m_pRasMessage->u.bandwidthRequest.requestSeqNum = g_pReg->GetNextSeqNum();
m_pRasMessage->u.bandwidthRequest.endpointIdentifier = g_pReg->GetEndpointIdentifier();
m_pRasMessage->u.bandwidthRequest.conferenceID = m_conferenceID;
m_pRasMessage->u.bandwidthRequest.callReferenceValue = m_callReferenceValue;
m_pRasMessage->u.bandwidthRequest.callType = m_callType;
m_pRasMessage->u.bandwidthRequest.bandWidth = m_bandWidth;
memcpy(&m_pRasMessage->u.bandwidthRequest.callIdentifier.guid.value,
&m_CallIdentifier, sizeof(GUID));
m_pRasMessage->u.bandwidthRequest.callIdentifier.guid.length = sizeof(GUID);
m_pRasMessage->u.bandwidthRequest.bit_mask
|= BandwidthRequest_callIdentifier_present;
#ifdef _DEBUG
if (dwGKIDLLFlags & SP_DUMPMEM)
DumpMem(m_pRasMessage, sizeof(RasMessage));
#endif
// Encode the PDU & send it
dwErrorCode = g_pCoder->Encode(m_pRasMessage, &Asn1Buf);
if (dwErrorCode)
return (GKI_ENCODER_ERROR);
// Create a backup copy of the encoded PDU if using debug echo support
if (fGKIEcho)
{
pEchoBuff = new char[Asn1Buf.length];
SPIDER_TRACE(SP_NEWDEL, "new pEchoBuff = %X\n", pEchoBuff);
if (pEchoBuff == 0)
return (GKI_NO_MEMORY);
memcpy(pEchoBuff, (char *)Asn1Buf.value, Asn1Buf.length);
nEchoLen = Asn1Buf.length;
}
m_State = GK_BW_PENDING;
SPIDER_TRACE(SP_STATE, "m_State = GK_BW_PENDING (%X)\n", this);
SPIDER_TRACE(SP_PDU, "Send BRQ; pCall = %X\n", this);
if (fGKIDontSend == FALSE)
if (g_pReg->m_pSocket->Send((char *)Asn1Buf.value, Asn1Buf.length) == SOCKET_ERROR)
return (GKI_WINSOCK2_ERROR(SOCKET_ERROR));
// Free the encoder memory
g_pCoder->Free(Asn1Buf);
return (GKI_OK);
}
HRESULT
CCall::DisengageRequest(void)
{
// ABSTRACT: This procedure will create a disengageRequest structure
// call the encoder and send the PDU. If it is successful, it
// will return 0, else it will return an error code.
// AUTHOR: Colin Hulme
ASN1_BUF Asn1Buf;
DWORD dwErrorCode;
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::DisengageRequest()\n", 0);
ASSERT(g_pCoder);
if (g_pCoder == NULL)
return (GKI_NOT_INITIALIZED);
// Allocate a RasMessage structure and initialized to 0
m_usRetryCount = 0;
m_uRetryCountdown = m_uRetryResetCount;
m_pRasMessage = new RasMessage;
SPIDER_TRACE(SP_NEWDEL, "new m_pRasMessage = %X\n", m_pRasMessage);
if (m_pRasMessage == 0)
return (GKI_NO_MEMORY);
memset(m_pRasMessage, 0, sizeof(RasMessage));
// Setup structure fields for DisengageRequest
m_pRasMessage->choice = disengageRequest_chosen;
m_pRasMessage->u.disengageRequest.bit_mask = 0;
m_pRasMessage->u.disengageRequest.requestSeqNum = g_pReg->GetNextSeqNum();
m_pRasMessage->u.disengageRequest.endpointIdentifier = g_pReg->GetEndpointIdentifier();
m_pRasMessage->u.disengageRequest.conferenceID = m_conferenceID;
m_pRasMessage->u.disengageRequest.callReferenceValue = m_callReferenceValue;
m_pRasMessage->u.disengageRequest.disengageReason.choice = normalDrop_chosen;
memcpy(&m_pRasMessage->u.disengageRequest.callIdentifier.guid.value,
&m_CallIdentifier, sizeof(GUID));
m_pRasMessage->u.disengageRequest.callIdentifier.guid.length = sizeof(GUID);
m_pRasMessage->u.disengageRequest.bit_mask
|= DisengageRequest_callIdentifier_present;
#ifdef _DEBUG
if (dwGKIDLLFlags & SP_DUMPMEM)
DumpMem(m_pRasMessage, sizeof(RasMessage));
#endif
// Encode the PDU & send it
dwErrorCode = g_pCoder->Encode(m_pRasMessage, &Asn1Buf);
if (dwErrorCode)
return (GKI_ENCODER_ERROR);
// Create a backup copy of the encoded PDU if using debug echo support
if (fGKIEcho)
{
pEchoBuff = new char[Asn1Buf.length];
SPIDER_TRACE(SP_NEWDEL, "new pEchoBuff = %X\n", pEchoBuff);
if (pEchoBuff == 0)
return (GKI_NO_MEMORY);
memcpy(pEchoBuff, (char *)Asn1Buf.value, Asn1Buf.length);
nEchoLen = Asn1Buf.length;
}
m_State = GK_DISENG_PENDING;
SPIDER_TRACE(SP_STATE, "m_State = GK_DISENG_PENDING (%X)\n", this);
SPIDER_TRACE(SP_PDU, "Send DRQ; pCall = %X\n", this);
if (fGKIDontSend == FALSE)
if (g_pReg->m_pSocket->Send((char *)Asn1Buf.value, Asn1Buf.length) == SOCKET_ERROR)
return (GKI_WINSOCK2_ERROR(SOCKET_ERROR));
// Free the encoder memory
g_pCoder->Free(Asn1Buf);
return (GKI_OK);
}
HRESULT
CCall::AdmissionConfirm(RasMessage *pRasMessage)
{
// ABSTRACT: This function is called if an admissionConfirm is
// received. We must ensure that this matches an outstanding
// admissionRequest.
// It will delete the memory used for the admissionRequest
// change the state and notify the user by posting a message.
// Additional information contained in the admissionConfirm
// is stored in the CCall class.
// AUTHOR: Colin Hulme
#ifdef _DEBUG
unsigned int nIdx;
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::AdmissionConfirm(%X)\n", pRasMessage);
ASSERT(g_pCoder && g_pGatekeeper);
if ((g_pCoder == NULL) && (g_pGatekeeper == NULL))
return (GKI_NOT_INITIALIZED);
// Verify we are in the correct state, have an outstanding admissionRequest
// and the sequence numbers match
if ((m_State != GK_ADM_PENDING) ||
(pRasMessage->u.admissionConfirm.requestSeqNum !=
m_pRasMessage->u.admissionRequest.requestSeqNum))
return (g_pReg->UnknownMessage(pRasMessage));
// Delete allocated RasMessage storage
SPIDER_TRACE(SP_NEWDEL, "del m_pRasMessage = %X\n", m_pRasMessage);
delete m_pRasMessage;
m_pRasMessage = 0;
// Update member variables
m_State = GK_CALL;
SPIDER_TRACE(SP_STATE, "m_State = GK_CALL (%X)\n", this);
if (pRasMessage->u.admissionConfirm.bit_mask & irrFrequency_present)
{
m_CFirrFrequency = pRasMessage->u.admissionConfirm.irrFrequency;
m_usTimeTilStatus =
(unsigned short)(((DWORD)m_CFirrFrequency * 1000) / GKR_RETRY_TICK_MS);
SPIDER_DEBUG(m_usTimeTilStatus);
}
else
m_usTimeTilStatus = 0; // Don't auto-send status datagrams
m_CFbandWidth = pRasMessage->u.admissionConfirm.bandWidth;
m_CallReturnInfo.hCall = this;
m_CallReturnInfo.callModel = pRasMessage->u.admissionConfirm.callModel;
m_CallReturnInfo.destCallSignalAddress = pRasMessage->u.admissionConfirm.destCallSignalAddress;
m_CallReturnInfo.bandWidth = m_CFbandWidth;
m_CallReturnInfo.wError = 0;
#ifdef _DEBUG
SPIDER_TRACE(SP_GKI, "PostMessage(hWnd, wBaseMessage + GKI_ADM_CONFIRM, 0, %X)\n", &m_CallReturnInfo);
wsprintf(szGKDebug, "\thCall=%p\n", m_CallReturnInfo.hCall);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tcallModel=%X\n", m_CallReturnInfo.callModel.choice);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tbandWidth=%X\n", m_CallReturnInfo.bandWidth);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tcallReferenceValue=%X\n", m_CallReturnInfo.callReferenceValue);
OutputDebugString(szGKDebug);
OutputDebugString("\tconferenceID=");
for (nIdx = 0; nIdx < m_CallReturnInfo.conferenceID.length; nIdx++)
{
wsprintf(szGKDebug, "%02X", m_CallReturnInfo.conferenceID.value[nIdx]);
OutputDebugString(szGKDebug);
}
wsprintf(szGKDebug, "\n\twError=%X\n", m_CallReturnInfo.wError);
OutputDebugString(szGKDebug);
#endif
PostMessage(g_pReg->GetHWnd(),
g_pReg->GetBaseMessage() + GKI_ADM_CONFIRM,
0, (LPARAM)&m_CallReturnInfo);
return (GKI_OK);
}
HRESULT
CCall::AdmissionReject(RasMessage *pRasMessage)
{
// ABSTRACT: This function is called if an admissionReject is
// received. We must ensure that this matches an outstanding
// admissionRequest.
// It will delete the memory used for the admissionRequest
// change the state and notify the user by posting a message
// If this function returns GKI_DELETE_CALL, the calling function
// will delete the CCall object.
// AUTHOR: Colin Hulme
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::AdmissionReject(%X)\n", pRasMessage);
// Verify we are in the correct state, have an outstanding admissionRequest
// and the sequence numbers match
if ((m_State != GK_ADM_PENDING) ||
(pRasMessage->u.admissionReject.requestSeqNum !=
m_pRasMessage->u.admissionRequest.requestSeqNum))
return (g_pReg->UnknownMessage(pRasMessage));
// We deliberately don't free the RasMessage memory. Let the call destructor
// do it - this provides protection from other requests for this hCall.
m_State = GK_DISENGAGED;
SPIDER_TRACE(SP_STATE, "m_State = GK_DISENGAGED (%X)\n", this);
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_ADM_REJECT, %X, 0)\n",
pRasMessage->u.admissionReject.rejectReason.choice);
PostMessage(g_pReg->GetHWnd(),
g_pReg->GetBaseMessage() + GKI_ADM_REJECT,
(WORD)pRasMessage->u.admissionReject.rejectReason.choice, 0L);
return (GKI_DELETE_CALL);
}
HRESULT
CCall::BandwidthConfirm(RasMessage *pRasMessage)
{
// ABSTRACT: This function is called if a bandwidthConfirm is
// received. We must ensure that this matches an outstanding
// bandwidthRequest.
// It will delete the memory used for the bandwidthRequest,
// change the state and notify the user by posting a message.
// AUTHOR: Colin Hulme
#ifdef _DEBUG
unsigned int nIdx;
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::BandwidthConfirm(%X)\n", pRasMessage);
// Verify we are in the correct state, have an outstanding admissionRequest
// and the sequence numbers match
if ((m_State != GK_BW_PENDING) ||
(pRasMessage->u.bandwidthConfirm.requestSeqNum !=
m_pRasMessage->u.bandwidthRequest.requestSeqNum))
return (g_pReg->UnknownMessage(pRasMessage));
// Delete allocated RasMessage storage
SPIDER_TRACE(SP_NEWDEL, "del m_pRasMessage = %X\n", m_pRasMessage);
delete m_pRasMessage;
m_pRasMessage = 0;
// Update member variables
m_State = GK_CALL;
SPIDER_TRACE(SP_STATE, "m_State = GK_CALL (%X)\n", this);
m_CFbandWidth = pRasMessage->u.bandwidthConfirm.bandWidth;
m_CallReturnInfo.bandWidth = m_CFbandWidth;
// Notify user application
#ifdef _DEBUG
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_BW_CONFIRM, 0, %X)\n", &m_CallReturnInfo);
wsprintf(szGKDebug, "\thCall=%p\n", m_CallReturnInfo.hCall);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tcallModel=%X\n", m_CallReturnInfo.callModel.choice);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tbandWidth=%X\n", m_CallReturnInfo.bandWidth);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tcallReferenceValue=%X\n", m_CallReturnInfo.callReferenceValue);
OutputDebugString(szGKDebug);
OutputDebugString("\tconferenceID=");
for (nIdx = 0; nIdx < m_CallReturnInfo.conferenceID.length; nIdx++)
{
wsprintf(szGKDebug, "%02X", m_CallReturnInfo.conferenceID.value[nIdx]);
OutputDebugString(szGKDebug);
}
wsprintf(szGKDebug, "\n\twError=%X\n", m_CallReturnInfo.wError);
OutputDebugString(szGKDebug);
#endif
PostMessage(g_pReg->GetHWnd(),
g_pReg->GetBaseMessage() + GKI_BW_CONFIRM, 0, (LPARAM)&m_CallReturnInfo);
return (GKI_OK);
}
HRESULT
CCall::BandwidthReject(RasMessage *pRasMessage)
{
// ABSTRACT: This function is called if a bandwidthReject is
// received. We must ensure that this matches an outstanding
// bandwidthRequest.
// It will delete the memory used for the bandwidthRequest
// change the state and notify the user by posting a message
// AUTHOR: Colin Hulme
#ifdef _DEBUG
unsigned int nIdx;
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::BandwidthReject(%X)\n", pRasMessage);
// Verify we are in the correct state, have an outstanding admissionRequest
// and the sequence numbers match
if ((m_State != GK_BW_PENDING) ||
(pRasMessage->u.bandwidthReject.requestSeqNum !=
m_pRasMessage->u.bandwidthRequest.requestSeqNum))
return (g_pReg->UnknownMessage(pRasMessage));
// Delete allocate RasMessage storage
SPIDER_TRACE(SP_NEWDEL, "del m_pRasMessage = %X\n", m_pRasMessage);
delete m_pRasMessage;
m_pRasMessage = 0;
// Update member variables
m_State = GK_CALL;
SPIDER_TRACE(SP_STATE, "m_State = GK_CALL (%X)\n", this);
m_CFbandWidth = pRasMessage->u.bandwidthReject.allowedBandWidth;
m_CallReturnInfo.bandWidth = m_CFbandWidth;
// Notify user application
#ifdef _DEBUG
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_BW_REJECT, %X, &m_CallReturnInfo)\n",
pRasMessage->u.bandwidthReject.rejectReason.choice);
wsprintf(szGKDebug, "\thCall=%p\n", m_CallReturnInfo.hCall);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tcallModel=%X\n", m_CallReturnInfo.callModel.choice);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tbandWidth=%X\n", m_CallReturnInfo.bandWidth);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tcallReferenceValue=%X\n", m_CallReturnInfo.callReferenceValue);
OutputDebugString(szGKDebug);
OutputDebugString("\tconferenceID=");
for (nIdx = 0; nIdx < m_CallReturnInfo.conferenceID.length; nIdx++)
{
wsprintf(szGKDebug, "%02X", m_CallReturnInfo.conferenceID.value[nIdx]);
OutputDebugString(szGKDebug);
}
wsprintf(szGKDebug, "\n\twError=%X\n", m_CallReturnInfo.wError);
OutputDebugString(szGKDebug);
#endif
PostMessage(g_pReg->GetHWnd(),
g_pReg->GetBaseMessage() + GKI_BW_REJECT,
(WORD)pRasMessage->u.bandwidthReject.rejectReason.choice,
(LPARAM)&m_CallReturnInfo);
return (GKI_OK);
}
HRESULT
CCall::SendBandwidthConfirm(RasMessage *pRasMessage)
{
// ABSTRACT: This function is called when a bandwidthRequest is
// received from the gatekeeper. It will create the
// bandwidthConfirm structure, encode it and send
// it on the net. It posts a message to the user
// notifying them.
// AUTHOR: Colin Hulme
ASN1_BUF Asn1Buf;
DWORD dwErrorCode;
RasMessage *pRespRasMessage;
#ifdef _DEBUG
unsigned int nIdx;
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::SendBandwidthConfirm(%X)\n", pRasMessage);
// Verify we are in the correct state
if (m_State != GK_CALL)
return (g_pReg->UnknownMessage(pRasMessage));
// Update member variables
m_CFbandWidth = pRasMessage->u.bandwidthRequest.bandWidth;
m_CallReturnInfo.bandWidth = m_CFbandWidth;
// Allocate a RasMessage structure and initialized to 0
pRespRasMessage = new RasMessage;
SPIDER_TRACE(SP_NEWDEL, "new pRespRasMessage = %X\n", pRespRasMessage);
if (pRespRasMessage == 0)
return (GKI_NO_MEMORY);
memset(pRespRasMessage, 0, sizeof(RasMessage));
// Setup structure fields for BandwidthConfirm
pRespRasMessage->choice = bandwidthConfirm_chosen;
pRespRasMessage->u.bandwidthConfirm.requestSeqNum =
pRasMessage->u.bandwidthRequest.requestSeqNum;
pRespRasMessage->u.bandwidthConfirm.bandWidth =
pRasMessage->u.bandwidthRequest.bandWidth;
#ifdef _DEBUG
if (dwGKIDLLFlags & SP_DUMPMEM)
DumpMem(pRespRasMessage, sizeof(RasMessage));
#endif
// Encode the PDU & send it
dwErrorCode = g_pCoder->Encode(pRespRasMessage, &Asn1Buf);
if (dwErrorCode)
return (GKI_ENCODER_ERROR);
SPIDER_TRACE(SP_PDU, "Send BCF; pCall = %X\n", this);
if (fGKIDontSend == FALSE)
if (g_pReg->m_pSocket->Send((char *)Asn1Buf.value, Asn1Buf.length) == SOCKET_ERROR)
return (GKI_WINSOCK2_ERROR(SOCKET_ERROR));
// Free the encoder memory
g_pCoder->Free(Asn1Buf);
// Delete allocated RasMessage storage
SPIDER_TRACE(SP_NEWDEL, "del pRespRasMessage = %X\n", pRespRasMessage);
delete pRespRasMessage;
// Notify user of received bandwidth request
#ifdef _DEBUG
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_BW_CONFIRM, 0, %X)\n",
&m_CallReturnInfo);
wsprintf(szGKDebug, "\thCall=%p\n", m_CallReturnInfo.hCall);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tcallModel=%X\n", m_CallReturnInfo.callModel.choice);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tbandWidth=%X\n", m_CallReturnInfo.bandWidth);
OutputDebugString(szGKDebug);
wsprintf(szGKDebug, "\tcallReferenceValue=%X\n", m_CallReturnInfo.callReferenceValue);
OutputDebugString(szGKDebug);
OutputDebugString("\tconferenceID=");
for (nIdx = 0; nIdx < m_CallReturnInfo.conferenceID.length; nIdx++)
{
wsprintf(szGKDebug, "%02X", m_CallReturnInfo.conferenceID.value[nIdx]);
OutputDebugString(szGKDebug);
}
wsprintf(szGKDebug, "\n\twError=%X\n", m_CallReturnInfo.wError);
OutputDebugString(szGKDebug);
#endif
PostMessage(g_pReg->GetHWnd(), g_pReg->GetBaseMessage() + GKI_BW_CONFIRM,
0, (LPARAM)&m_CallReturnInfo);
return (GKI_OK);
}
HRESULT
CCall::DisengageConfirm(RasMessage *pRasMessage)
{
// ABSTRACT: This function is called if a disengageConfirm is
// received. We must ensure that this matches an outstanding
// disengageRequest.
// It will delete the memory used for the disengageRequest,
// change the state and notify the user by posting a message.
// If this function returns GKI_DELETE_CALL, the calling function
// will delete the CCall object.
// AUTHOR: Colin Hulme
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::DisengageConfirm(%X)\n", pRasMessage);
// Verify we are in the correct state, have an outstanding disengageRequest
// and the sequence numbers match
if ((m_State != GK_DISENG_PENDING) ||
(pRasMessage->u.disengageConfirm.requestSeqNum !=
m_pRasMessage->u.disengageRequest.requestSeqNum))
return (g_pReg->UnknownMessage(pRasMessage));
// We deliberately don't free the RasMessage memory. Let the call destructor
// do it - this provides protection from other requests for this hCall.
// Update member variables
m_State = GK_DISENGAGED;
SPIDER_TRACE(SP_STATE, "m_State = GK_DISENGAGED (%X)\n", this);
// Notify user application
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_DISENG_CONFIRM, 0, %X)\n",
this);
PostMessage(g_pReg->GetHWnd(),
g_pReg->GetBaseMessage() + GKI_DISENG_CONFIRM, 0, (LPARAM)this);
return (GKI_DELETE_CALL);
}
HRESULT
CCall::DisengageReject(RasMessage *pRasMessage)
{
// ABSTRACT: This function is called if a disengageReject is
// received. We must ensure that this matches an outstanding
// disengageRequest.
// It will delete the memory used for the disengageRequest
// change the state and notify the user by posting a message
// If this function returns GKI_DELETE_CALL, the calling function
// will delete the CCall object.
// AUTHOR: Colin Hulme
#ifdef _DEBUG
char szGKDebug[80];
#endif
HRESULT hResult = GKI_OK;
SPIDER_TRACE(SP_FUNC, "CCall::DisengageReject(%X)\n", pRasMessage);
// Verify we are in the correct state, have an outstanding disengageRequest
// and the sequence numbers match
if ((m_State != GK_DISENG_PENDING) ||
(pRasMessage->u.disengageReject.requestSeqNum !=
m_pRasMessage->u.disengageRequest.requestSeqNum))
return (g_pReg->UnknownMessage(pRasMessage));
// Update member variables
switch (pRasMessage->u.disengageReject.rejectReason.choice)
{
case requestToDropOther_chosen: // return to GK_CALL state
m_State = GK_CALL;
SPIDER_TRACE(SP_STATE, "m_State = GK_CALL (%X)\n", this);
// Delete allocate RasMessage storage
SPIDER_TRACE(SP_NEWDEL, "del m_pRasMessage = %X\n", m_pRasMessage);
delete m_pRasMessage;
m_pRasMessage = 0;
break;
case DsnggRjctRsn_ntRgstrd_chosen:
default:
m_State = GK_DISENGAGED;
SPIDER_TRACE(SP_STATE, "m_State = GK_DISENGAGED (%X)\n", this);
hResult = GKI_DELETE_CALL;
// We deliberately don't free the RasMessage memory. Let the call destructor
// do it - this provides protection from other requests for this hCall.
break;
}
// Notify user application
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_DISENG_REJECT, %X, hCall)\n",
pRasMessage->u.disengageReject.rejectReason.choice);
PostMessage(g_pReg->GetHWnd(),
g_pReg->GetBaseMessage() + GKI_DISENG_REJECT,
(WORD)pRasMessage->u.disengageReject.rejectReason.choice,
(LPARAM)this);
return (hResult);
}
HRESULT
CCall::SendDisengageConfirm(RasMessage *pRasMessage)
{
// ABSTRACT: This function is called when a disengageRequest is
// received from the gatekeeper. It will create the
// disengageConfirm structure, encode it and send
// it on the net. It posts a message to the user
// notifying them.
// AUTHOR: Colin Hulme
ASN1_BUF Asn1Buf;
DWORD dwErrorCode;
RasMessage *pRespRasMessage;
#ifdef _DEBUG
char szGKDebug[80];
#endif
SPIDER_TRACE(SP_FUNC, "CCall::SendDisengageConfirm(%X)\n", pRasMessage);
ASSERT(g_pCoder);
if (g_pCoder == NULL)
return (GKI_NOT_INITIALIZED);
// Verify we are in the correct state
if (m_State != GK_CALL)
return (g_pReg->UnknownMessage(pRasMessage));
// Allocate a RasMessage structure and initialized to 0
pRespRasMessage = new RasMessage;
SPIDER_TRACE(SP_NEWDEL, "new pRespRasMessage = %X\n", pRespRasMessage);
if (pRespRasMessage == 0)
return (GKI_NO_MEMORY);
memset(pRespRasMessage, 0, sizeof(RasMessage));
// Setup structure fields for DisengageConfirm
pRespRasMessage->choice = disengageConfirm_chosen;
pRespRasMessage->u.disengageConfirm.requestSeqNum =
pRasMessage->u.disengageRequest.requestSeqNum;
#ifdef _DEBUG
if (dwGKIDLLFlags & SP_DUMPMEM)
DumpMem(pRespRasMessage, sizeof(RasMessage));
#endif
// Encode the PDU & send it
dwErrorCode = g_pCoder->Encode(pRespRasMessage, &Asn1Buf);
if (dwErrorCode)
return (GKI_ENCODER_ERROR);
m_State = GK_DISENGAGED;
SPIDER_TRACE(SP_STATE, "m_State = GK_DISENGAGED (%X)\n", this);
SPIDER_TRACE(SP_PDU, "Send DCF; pCall = %X\n", this);
if (fGKIDontSend == FALSE)
if (g_pReg->m_pSocket->Send((char *)Asn1Buf.value, Asn1Buf.length) == SOCKET_ERROR)
return (GKI_WINSOCK2_ERROR(SOCKET_ERROR));
// Free the encoder memory
g_pCoder->Free(Asn1Buf);
// Delete allocated RasMessage storage
SPIDER_TRACE(SP_NEWDEL, "del pRespRasMessage = %X\n", pRespRasMessage);
delete pRespRasMessage;
// Notify user of received disengage request
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_DISENG_CONFIRM, 0, %X)\n",
this);
PostMessage(g_pReg->GetHWnd(), g_pReg->GetBaseMessage() + GKI_DISENG_CONFIRM,
0, (LPARAM)this);
return (GKI_DELETE_CALL);
}
HRESULT
CCall::Retry(void)
{
// ABSTRACT: This function is called by the CRegistration Retry function
// at the configured time interval. It will check if there
// are any outstanding PDUs for the Call object
// If so, they will be retransmitted. If the maximum number of
// retries has expired, the memory will be cleaned up.
// This function will return 0 to the background thread unless
// it wants the thread to terminate. This function will
// also send the IRR status datagram for the conference
// if the time period has expired.
// AUTHOR: Colin Hulme
ASN1_BUF Asn1Buf;
DWORD dwErrorCode;
#ifdef _DEBUG
char szGKDebug[80];
#endif
HRESULT hResult = GKI_OK;
// SPIDER_TRACE(SP_FUNC, "CCall::Retry()\n", 0);
ASSERT(g_pCoder && g_pGatekeeper);
if ((g_pCoder == NULL) && (g_pGatekeeper == NULL))
return (GKI_NOT_INITIALIZED);
// Check to see if status datagram is required
if (m_usTimeTilStatus) // No auto-status if 0
{
if (--m_usTimeTilStatus == 0)
{
// Reset timer
m_usTimeTilStatus =
(unsigned short)(((DWORD)m_CFirrFrequency * 1000) / GKR_RETRY_TICK_MS);
hResult = SendInfoRequestResponse(0, 0, TRUE); // send unsolicited status datagram
if (hResult != GKI_OK)
return (hResult);
}
}
// Check to see if PDU retransmission is required
if (m_pRasMessage && (--m_uRetryCountdown == 0))
{
// going to retry, reset countdown
m_uRetryCountdown = m_uRetryResetCount;
if (m_usRetryCount <= m_uMaxRetryCount)
{
// Encode the PDU & resend it
dwErrorCode = g_pCoder->Encode(m_pRasMessage, &Asn1Buf);
if (dwErrorCode)
return (GKI_ENCODER_ERROR);
SPIDER_TRACE(SP_PDU, "RESend PDU; pCall = %X\n", this);
if (fGKIDontSend == FALSE)
if (g_pReg->m_pSocket->Send((char *)Asn1Buf.value, Asn1Buf.length) == SOCKET_ERROR)
return (GKI_WINSOCK2_ERROR(SOCKET_ERROR));
// Free the encoder memory
g_pCoder->Free(Asn1Buf);
m_usRetryCount++;
}
else // Retries expired - clean up
{
switch (m_pRasMessage->choice)
{
case admissionRequest_chosen:
m_State = GK_DISENGAGED;
SPIDER_TRACE(SP_STATE, "m_State = GK_DISENGAGED (%X)\n", this);
hResult = GKI_DELETE_CALL;
break;
case bandwidthRequest_chosen:
m_State = GK_CALL;
SPIDER_TRACE(SP_STATE, "m_State = GK_CALL (%X)\n", this);
break;
case disengageRequest_chosen:
m_State = GK_DISENGAGED;
SPIDER_TRACE(SP_STATE, "m_State = GK_DISENGAGED (%X)\n", this);
hResult = GKI_DELETE_CALL;
break;
}
SPIDER_TRACE(SP_NEWDEL, "del m_pRasMessage = %X\n", m_pRasMessage);
delete m_pRasMessage;
m_pRasMessage = 0;
// Notify user that gatekeeper didn't respond
#ifdef RETRY_REREG_FOREVER
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_ERROR, 0, GKI_NO_RESPONSE)\n", 0);
PostMessage(g_pReg->GetHWnd(),
g_pReg->GetBaseMessage() + GKI_ERROR,
0, GKI_NO_RESPONSE);
#else
// end the call as if ARJ occurred
SPIDER_TRACE(SP_GKI, "PostMessage(m_hWnd, m_wBaseMessage + GKI_ADM_REJECT, ARJ_TIMEOUT, 0)\n", 0);
PostMessage(g_pReg->GetHWnd(),
g_pReg->GetBaseMessage() + GKI_ADM_REJECT,
ARJ_TIMEOUT, 0L);
#endif
}
}
return (hResult);
}
HRESULT
CCall::SendInfoRequestResponse(CallInfoStruct *pCallInfo, RasMessage *pRasMessage, BOOL fThisCallOnly)
{
// ABSTRACT: This function is called by the Retry thread if this call
// is due to report an unsolicited status to the gatekeeper.
// It is also called in response to a received IRQ. In the
// case of an IRQ, each active call should chain call the
// next active call. This allows construction of a link
// list of conference information that is then passed to the
// CRegistration::SendInfoRequestResponse function for
// encapsulation into the IRR message.
//
// The fThisCallOnly flag determines whether or not to walk the
// chain of calls in generating the response message.
//
// If fThisCallOnly == TRUE, the chain will not be walked, and
// this routine will call the CRegistration::SendInfoRequestResponse().
// AUTHOR: Colin Hulme, Dan Dexter
CallInfoStruct CallInfo;
CallInfoStruct *pCI;
#ifdef _DEBUG
char szGKDebug[80];
#endif
HRESULT hResult = GKI_OK;
SPIDER_TRACE(SP_FUNC, "CCall::SendInfoRequestResponse(%X)\n", pCallInfo);
memset(&CallInfo, 0, sizeof(CallInfo));
CallInfo.next = 0;
CallInfo.value.bit_mask = 0;
CallInfo.value.callReferenceValue = m_callReferenceValue;
CallInfo.value.conferenceID = m_conferenceID;
memcpy(&CallInfo.value.callIdentifier.guid.value,
&m_CallIdentifier, sizeof(GUID));
CallInfo.value.callIdentifier.guid.length = sizeof(GUID);
CallInfo.value.bit_mask
|= InfoRequestResponse_perCallInfo_Seq_callIdentifier_present;
CallInfo.value.bit_mask |= originator_present;
CallInfo.value.callSignaling.bit_mask = recvAddress_present;
CallInfo.value.callSignaling.recvAddress = m_LocalCallSignalAddress;
if (m_answerCall) // If I am the callee
{
// look out! if there has not been an ACF, m_CallReturnInfo.destCallSignalAddress
// is uninitialized. m_CallReturnInfo.hCall is set only after ACF
if(m_CallReturnInfo.hCall)
{
if (m_RemoteCallSignalAddress.choice)
{
CallInfo.value.callSignaling.sendAddress = m_RemoteCallSignalAddress;
CallInfo.value.callSignaling.bit_mask |= sendAddress_present;
}
CallInfo.value.originator = FALSE;
CallInfo.value.callModel = m_CallReturnInfo.callModel;
}
else
{
// we are typically in this path because we got an IRQ after
// sending an ARQ.
CallInfo.value.callModel.choice = direct_chosen;
}
}
else // I am the caller
{
// look out! if there has not been an ACF, m_CallReturnInfo.destCallSignalAddress
// is uninitialized. m_CallReturnInfo.hCall is set only after ACF
if(m_CallReturnInfo.hCall)
{
CallInfo.value.callSignaling.sendAddress = m_CallReturnInfo.destCallSignalAddress;
CallInfo.value.callSignaling.bit_mask |= sendAddress_present;
CallInfo.value.originator = TRUE;
CallInfo.value.callModel = m_CallReturnInfo.callModel;
}
else
{
// we are typically in this path because we got an IRQ after
// sending an ARQ.
CallInfo.value.callModel.choice = direct_chosen;
}
}
CallInfo.value.callType = m_callType;
CallInfo.value.bandWidth = m_CFbandWidth;
if (pCallInfo) // Add to chain of CallInfo structures
{
for (pCI = pCallInfo; pCI->next != 0; pCI = pCI->next)
;
pCI->next = &CallInfo;
}
else // We're alone - just point to ours
pCallInfo = &CallInfo;
// If the IRR is not just for this call, then get the next call
// and call it's SendInfoRequestResponse() function. If there are no
// more calls, or this IRR was only for this call, call
// g_pReg->SendInfoRequestResponse()
CCall *pNextCall = NULL;
if (!fThisCallOnly)
{
pNextCall = g_pReg->GetNextCall(this);
}
if (pNextCall)
hResult = pNextCall->SendInfoRequestResponse(pCallInfo, pRasMessage, fThisCallOnly);
else
hResult = g_pReg->SendInfoRequestResponse(pCallInfo, pRasMessage);
return (hResult);
}
//
// MatchSeqNum()
//
// ABSTRACT:
// This function checks to see if the outstanding RAS request(s) it has
// match the sequence number passed in.
//
// RETURNS:
// TRUE if sequence number matches, FALSE otherwise
//
// AUTHOR: Dan Dexter
BOOL
CCall::MatchSeqNum(RequestSeqNum seqNum)
{
BOOL bRet = FALSE;
// If there is no RAS message, this sequence
// number can't be ours...
if (!m_pRasMessage)
return(FALSE);
// Look at the sequence number in the RAS message and see
// if it matches.
switch(m_pRasMessage->choice)
{
case gatekeeperRequest_chosen:
if (m_pRasMessage->u.gatekeeperRequest.requestSeqNum == seqNum)
bRet = TRUE;
break;
case gatekeeperConfirm_chosen:
if (m_pRasMessage->u.gatekeeperConfirm.requestSeqNum == seqNum)
bRet = TRUE;
break;
case gatekeeperReject_chosen:
if (m_pRasMessage->u.gatekeeperReject.requestSeqNum == seqNum)
bRet = TRUE;
break;
case registrationRequest_chosen:
if (m_pRasMessage->u.registrationRequest.requestSeqNum == seqNum)
bRet = TRUE;
break;
case registrationConfirm_chosen:
if (m_pRasMessage->u.registrationConfirm.requestSeqNum == seqNum)
bRet = TRUE;
break;
case registrationReject_chosen:
if (m_pRasMessage->u.registrationReject.requestSeqNum == seqNum)
bRet = TRUE;
break;
case unregistrationRequest_chosen:
if (m_pRasMessage->u.unregistrationRequest.requestSeqNum == seqNum)
bRet = TRUE;
break;
case unregistrationConfirm_chosen:
if (m_pRasMessage->u.unregistrationConfirm.requestSeqNum == seqNum)
bRet = TRUE;
break;
case unregistrationReject_chosen:
if (m_pRasMessage->u.unregistrationReject.requestSeqNum == seqNum)
bRet = TRUE;
break;
case admissionRequest_chosen:
if (m_pRasMessage->u.admissionRequest.requestSeqNum == seqNum)
bRet = TRUE;
break;
case admissionConfirm_chosen:
if (m_pRasMessage->u.admissionConfirm.requestSeqNum == seqNum)
bRet = TRUE;
break;
case admissionReject_chosen:
if (m_pRasMessage->u.admissionReject.requestSeqNum == seqNum)
bRet = TRUE;
break;
case bandwidthRequest_chosen:
if (m_pRasMessage->u.bandwidthRequest.requestSeqNum == seqNum)
bRet = TRUE;
break;
case bandwidthConfirm_chosen:
if (m_pRasMessage->u.bandwidthConfirm.requestSeqNum == seqNum)
bRet = TRUE;
break;
case bandwidthReject_chosen:
if (m_pRasMessage->u.bandwidthReject.requestSeqNum == seqNum)
bRet = TRUE;
break;
case disengageRequest_chosen:
if (m_pRasMessage->u.disengageRequest.requestSeqNum == seqNum)
bRet = TRUE;
break;
case disengageConfirm_chosen:
if (m_pRasMessage->u.disengageConfirm.requestSeqNum == seqNum)
bRet = TRUE;
break;
case disengageReject_chosen:
if (m_pRasMessage->u.disengageReject.requestSeqNum == seqNum)
bRet = TRUE;
break;
case locationRequest_chosen:
if (m_pRasMessage->u.locationRequest.requestSeqNum == seqNum)
bRet = TRUE;
break;
case locationConfirm_chosen:
if (m_pRasMessage->u.locationConfirm.requestSeqNum == seqNum)
bRet = TRUE;
break;
case locationReject_chosen:
if (m_pRasMessage->u.locationReject.requestSeqNum == seqNum)
bRet = TRUE;
break;
case infoRequest_chosen:
if (m_pRasMessage->u.infoRequest.requestSeqNum == seqNum)
bRet = TRUE;
break;
case infoRequestResponse_chosen:
if (m_pRasMessage->u.infoRequestResponse.requestSeqNum == seqNum)
bRet = TRUE;
break;
case nonStandardMessage_chosen:
if (m_pRasMessage->u.nonStandardMessage.requestSeqNum == seqNum)
bRet = TRUE;
break;
case unknownMessageResponse_chosen:
if (m_pRasMessage->u.unknownMessageResponse.requestSeqNum == seqNum)
bRet = TRUE;
break;
case requestInProgress_chosen:
if (m_pRasMessage->u.requestInProgress.requestSeqNum == seqNum)
bRet = TRUE;
break;
case resourcesAvailableIndicate_chosen:
if (m_pRasMessage->u.resourcesAvailableIndicate.requestSeqNum == seqNum)
bRet = TRUE;
break;
case resourcesAvailableConfirm_chosen:
if (m_pRasMessage->u.resourcesAvailableConfirm.requestSeqNum == seqNum)
bRet = TRUE;
break;
case infoRequestAck_chosen:
if (m_pRasMessage->u.infoRequestAck.requestSeqNum == seqNum)
bRet = TRUE;
break;
case infoRequestNak_chosen:
if (m_pRasMessage->u.infoRequestNak.requestSeqNum == seqNum)
bRet = TRUE;
break;
default:
break;
}
return bRet;
}
//
// MatchCRV()
//
// ABSTRACT:
// This function checks to see if the CallReferenceValue associated
// with this call object matches the CRV passed in.
//
// RETURNS:
// TRUE if CRV number matches, FALSE otherwise
//
// AUTHOR: Dan Dexter
BOOL
CCall::MatchCRV(CallReferenceValue crv)
{
return(crv == m_callReferenceValue);
}