int MpTopologyGraph::addVirtualOutputs(MpResourceTopology& resourceTopology,
UtlHashBag& newResources,
UtlBoolean replaceNumInName,
int resourceNum)
{
int portsAdded = 0;
MpResourceTopology::VirtualPortIterator portIter;
UtlString realResourceName;
int realPortIdx;
UtlString virtualResourceName;
int virtualPortIdx;
resourceTopology.initVirtualOutputIterator(portIter);
while (resourceTopology.getNextVirtualOutput(portIter,
realResourceName, realPortIdx,
virtualResourceName, virtualPortIdx)
== OS_SUCCESS)
{
if(replaceNumInName)
{
MpResourceTopology::replaceNumInName(realResourceName, resourceNum);
MpResourceTopology::replaceNumInName(virtualResourceName, resourceNum);
}
// Lookup real resource.
MpResource *pResource = (MpResource*)newResources.find(&realResourceName);
assert(pResource);
if (!pResource)
{
continue;
}
// Check port index correctness. Note, that this check gracefully
// handles case with realPortIdx equal -1.
if (realPortIdx >= pResource->maxOutputs())
{
assert(!"Trying to map virtual port to non existing real port!");
continue;
}
// Add entry to virtual ports map.
// We need to create UtlVoidPtr wrapper for pResource, or it will be
// destroyed on pair deletion.
UtlContainablePair *pRealPort = new UtlContainablePair(new UtlVoidPtr(pResource),
new UtlInt(realPortIdx));
UtlContainablePair *pVirtPort = new UtlContainablePair(new UtlString(virtualResourceName),
new UtlInt(virtualPortIdx));
mVirtualOutputs.insertKeyAndValue(pVirtPort, pRealPort);
portsAdded++;
}
resourceTopology.freeVirtualOutputIterator(portIter);
return portsAdded;
}
// (static) Displays information on the console about the specified flow
// graph.
void MpFlowGraphBase::flowGraphInfo(MpFlowGraphBase* pFlowGraph)
{
int i;
MpResource* pResource;
if (NULL == pFlowGraph) {
MpMediaTask* pMediaTask = MpMediaTask::getMediaTask(0);
pFlowGraph = pMediaTask->getFocus();
if (NULL == pFlowGraph) {
pMediaTask->getManagedFlowGraphs(&pFlowGraph, 1, i);
if (0 == i) pFlowGraph = NULL;
}
}
if (NULL == pFlowGraph) {
printf("No flowGraph to display!\n");
return;
}
printf("\nFlow graph information for %p\n", pFlowGraph);
printf(" State: %s\n",
pFlowGraph->isStarted() ? "STARTED" : "STOPPED");
printf(" Processed Frame Count: %d\n",
pFlowGraph->numFramesProcessed());
printf(" Samples Per Frame: %d\n",
pFlowGraph->getSamplesPerFrame());
printf(" Samples Per Second: %d\n",
pFlowGraph->getSamplesPerSec());
pResource = pFlowGraph->mpResourceInProcess;
if (pResource == NULL)
printf(" Resource Being Processed: NULL\n");
else
printf(" Resource Being Processed: %p\n", pResource);
printf("\n Resource Information\n");
printf(" Resources: %d\n", pFlowGraph->numResources());
printf(" Links: %d\n", pFlowGraph->numLinks());
for (i=0; i < pFlowGraph->mResourceCnt; i++)
{
pResource = pFlowGraph->mUnsorted[i];
pResource->resourceInfo(pResource, i);
}
}
// Makes pBuf available to resource connected to the outPortIdx output
// port of this resource.
// Returns TRUE if there is a resource connected to the specified output
// port, FALSE otherwise.
UtlBoolean MpResource::pushBufferDownsream(int outPortIdx, const MpBufPtr& pBuf)
{
MpResource* pDownstreamInput;
int downstreamPortIdx;
// Not locking mpOutConns here as we only lock for setting/accessing
// reservation state (the only thing set in mpOutConns outside media task)
if (outPortIdx < 0 || outPortIdx >= mMaxOutputs) // port out of range
return FALSE;
pDownstreamInput = mpOutConns[outPortIdx].pResource;
downstreamPortIdx = mpOutConns[outPortIdx].portIndex;
if (pDownstreamInput == NULL) // no connected resource
return FALSE;
pDownstreamInput->setInputBuffer(downstreamPortIdx, pBuf);
return TRUE;
}
//:Inserts "rResource" into the flow graph upstream of the
//:designated "rDownstreamResource" resource.
// The new resource will be inserted on the "inPortIdx" input
// link of "rDownstreamResource".
// If the flow graph is not "started", this call takes effect
// immediately. Otherwise, the call takes effect at the start of the
// next frame processing interval.
// Returns OS_SUCCESS if the resource was successfully inserted. Returns
// OS_INVALID_ARGUMENT if the caller specified an invalid port index.
OsStatus MpFlowGraphBase::insertResourceBefore(MpResource& rResource,
MpResource& rDownstreamResource,
int inPortIdx)
{
MpResource *pUpstreamResource;
int upstreamOutPortIdx;
OsStatus res;
// Get information about the downstream end of the link
rDownstreamResource.getInputInfo(inPortIdx, pUpstreamResource,
upstreamOutPortIdx);
// Add the new resource to the flow graph
res = addResource(rResource);
if (res != OS_SUCCESS)
return res;
if (pUpstreamResource != NULL)
{
// Remove the link between the upstream and downstream resources
res = removeLink(*pUpstreamResource, upstreamOutPortIdx);
if (res != OS_SUCCESS)
{ // recover from remove link failure
removeResource(rResource);
return res;
}
// Add the link between output port 0 the new resource and the
// downstream resource
res = addLink(rResource, 0, rDownstreamResource, inPortIdx);
if (res != OS_SUCCESS)
{ // recover from add link failure
removeResource(rResource);
addLink(*pUpstreamResource, upstreamOutPortIdx,
rDownstreamResource, inPortIdx);
return res;
}
}
// Add the link between the upstream resource and input port 0 of
// the new resource
res = addLink(*pUpstreamResource, upstreamOutPortIdx, rResource, 0);
if (res != OS_SUCCESS)
{ // recover from add link failure
removeResource(rResource);
if (pUpstreamResource != NULL)
{
addLink(*pUpstreamResource, upstreamOutPortIdx,
rDownstreamResource, inPortIdx);
}
}
return res;
}
// Handle the FLOWGRAPH_REMOVE_LINK message.
// Returns TRUE if the message was handled, otherwise FALSE.
UtlBoolean MpFlowGraphBase::handleRemoveLink(MpResource* pFrom, int outPortIdx)
{
int connectedPort;
MpResource* pConnectedResource;
// make sure the resource is part of this flow graph
if (pFrom->getFlowGraph() != this)
{
Zprintf("handleRemoveLink: pFrom->getFlowGraph() != this: 0x%p != 0x%p\n",
(pFrom->getFlowGraph()), this, 0,0,0,0);
assert(FALSE);
return FALSE;
}
// get information about the downstream end of the link
pFrom->getOutputInfo(outPortIdx, pConnectedResource, connectedPort);
// disconnect the upstream end of the link
if (pFrom->disconnectOutput(outPortIdx) == FALSE)
{
Zprintf("handleRemoveLink: disconnectOutput(0x%p, %d) failed\n",
pFrom, outPortIdx, 0,0,0,0);
assert(FALSE); // couldn't disconnect
return FALSE;
}
// disconnect the downstream end of the link
if (pConnectedResource->disconnectInput(connectedPort) == FALSE)
{
Zprintf("handleRemoveLink: disconnectInput(0x%p, %d) failed\n",
pConnectedResource, connectedPort, 0,0,0,0);
assert(FALSE); // couldn't disconnect
return FALSE;
}
mLinkCnt--;
mRecomputeOrder = TRUE;
return TRUE;
}
// Creates a link between the "outPortIdx" port of the "rFrom" resource
// to the "inPortIdx" port of the "rTo" resource.
// If the flow graph is not "started", this call takes effect immediately.
// Otherwise, the call takes effect at the start of the next frame processing
// interval.
// Returns OS_SUCCESS if the link was successfully added. Returns
// OS_INVALID_ARGUMENT if the caller specified an invalid port index.
// Returns OS_UNSPECIFIED if the addLink attempt failed for some other
// reason.
OsStatus MpFlowGraphBase::addLink(MpResource& rFrom, int outPortIdx,
MpResource& rTo, int inPortIdx)
{
OsWriteLock lock(mRWMutex);
UtlBoolean handled;
MpFlowGraphMsg msg(MpFlowGraphMsg::FLOWGRAPH_ADD_LINK, NULL,
&rFrom, &rTo, outPortIdx, inPortIdx);
if (outPortIdx < 0 || outPortIdx >= rFrom.maxOutputs() ||
inPortIdx < 0 || inPortIdx >= rTo.maxInputs())
return OS_INVALID_ARGUMENT;
if (mCurState == STARTED)
return postMessage(msg);
handled = handleMessage(msg);
if (handled)
return OS_SUCCESS;
else
return OS_UNSPECIFIED;
}
UtlBoolean MpRtpInputConnection::connectOutput(MpResource& rTo,
int toPortIdx,
int fromPortIdx)
{
UtlBoolean res = MpResource::connectOutput(rTo, toPortIdx, fromPortIdx);
if (res)
{
assert(rTo.getContainableType() == MprDecode::TYPE);
MprDecode *pDecode = (MprDecode*)&rTo;
res = mpRtpDispatcher->connectOutput(fromPortIdx, pDecode);
}
return res;
}
// Handle the FLOWGRAPH_ENABLE message.
// Returns TRUE if the message was handled, otherwise FALSE.
UtlBoolean MpFlowGraphBase::handleEnable(void)
{
int i;
MpFlowGraphMsg msg(MpFlowGraphMsg::RESOURCE_ENABLE);
MpResource* pResource;
// iterate over all resources
// invoke the enable() method for each resource in the flow graph
for (i=0; i < mResourceCnt; i++)
{
// iterate through the resources
pResource = mUnsorted[i];
// make each resource handle a RESOURCE_ENABLE message
msg.setMsgDest(pResource);
if (!pResource->handleMessage(msg))
{
assert(FALSE);
return FALSE;
}
}
return TRUE;
}
// Handle the FLOWGRAPH_SET_SAMPLES_PER_SEC message.
// Returns TRUE if the message was handled, otherwise FALSE.
UtlBoolean MpFlowGraphBase::handleSetSamplesPerSec(int samplesPerSec)
{
int i;
MpFlowGraphMsg msg(MpFlowGraphMsg::RESOURCE_SET_SAMPLES_PER_SEC,
NULL, NULL, NULL, samplesPerSec);
MpResource* pResource;
// iterate over all resources
for (i=0; i < mResourceCnt; i++)
{
pResource = mUnsorted[i];
// make each resource handle a SET_SAMPLES_PER_SEC message
msg.setMsgDest(pResource);
if (!pResource->handleMessage(msg))
{
assert(FALSE);
return FALSE;
}
}
mSamplesPerSec = samplesPerSec;
return TRUE;
}
// Notification that this flow graph has just lost the focus.
// Disable our microphone and speaker resources
OsStatus MpTopologyGraph::loseFocus(void)
{
UtlBoolean boolRes;
OsStatus result;
OsStatus retval = OS_FAILED;
// disable the FromInputDevice and ToOutputDevice -- we no longer have the focus.
{
MpResource* pResource = NULL;
result = lookupResource("FromMic1",
pResource);
if (result == OS_SUCCESS)
{
// This flowgraph have local input part. Disable it.
assert(pResource);
boolRes = pResource->disable();
assert(boolRes);
retval = OS_SUCCESS;
}
}
{
MpResource* pResource = NULL;
result = lookupResource("ToSpeaker1",
pResource);
if (result == OS_SUCCESS)
{
// This flowgraph have local input part. Disable it.
assert(pResource);
boolRes = pResource->disable();
assert(boolRes);
retval = OS_SUCCESS;
}
}
return retval;
}
// Processes all of the messages currently queued for this flow graph.
// For now, this method always returns OS_SUCCESS.
OsStatus MpFlowGraphBase::processMessages(void)
{
OsWriteLock lock(mRWMutex);
UtlBoolean done;
UtlBoolean handled;
static MpFlowGraphMsg* pStopMsg = NULL;
MpResource* pMsgDest;
OsStatus res;
// First, we send ourselves a FLOWGRAPH_PROCESS_FRAME message.
// This message serves as a "stopper" in the message queue. When we
// handle that message, we know that we have processed all of the messages
// for the flowgraph (and its resources) that had arrived prior to the
// start of this frame processing interval.
if (NULL == pStopMsg) {
pStopMsg = new MpFlowGraphMsg(MpFlowGraphMsg::FLOWGRAPH_PROCESS_FRAME);
pStopMsg->setReusable(TRUE);
}
res = postMessage(*pStopMsg);
assert(res == OS_SUCCESS);
done = FALSE;
while (!done)
{
// get the next message
OsMsg* pMsg ;
res = mMessages.receive(pMsg, OsTime::NO_WAIT);
assert(res == OS_SUCCESS);
if (pMsg->getMsgType() == OsMsg::MP_FLOWGRAPH_MSG)
{
MpFlowGraphMsg* pRcvdMsg = (MpFlowGraphMsg*) pMsg ;
// determine if this message is intended for a resource in the
// flow graph (as opposed to a message for the flow graph itself)
pMsgDest = pRcvdMsg->getMsgDest();
if (pMsgDest != NULL)
{
// deliver the message if the resource is still part of this graph
if (pMsgDest->getFlowGraph() == this)
{
handled = pMsgDest->handleMessage(*pRcvdMsg);
assert(handled);
}
}
else
{
// since pMsgDest is NULL, this msg is intended for the flow graph
switch (pRcvdMsg->getMsg())
{
case MpFlowGraphMsg::FLOWGRAPH_PROCESS_FRAME:
done = TRUE; // "stopper" message encountered -- we are done
break; // processing messages for this frame interval
default:
handled = handleMessage(*pRcvdMsg);
assert(handled);
break;
}
}
pRcvdMsg->releaseMsg(); // free the msg
}
else
{
handled = handleMessage(*pMsg);
assert(handled);
pMsg->releaseMsg() ;
}
}
return OS_SUCCESS;
}
SIPXTAPI_API SIPX_RESULT sipxQOSDebug(SIPX_INST phInst, CStdString& txt) {
CStdString buff;
#ifdef INCLUDE_RTCP
IRTCPControl* ic = CRTCManager::getRTCPControl();
IRTCPSession* sess = ic->GetFirstSession();
while (sess) {
buff.Format("Sess: %d ", sess->GetSessionID());
txt += buff;
IRTCPConnection* conn = sess->GetFirstConnection();
while (conn) {
txt += "Conn\n";
CRTCPRender* render = (CRTCPRender*)((CRTCPConnection*)conn)->GetRenderInterface();
IGetSrcDescription* statDesc;
IGetSenderStatistics* statSender;
IGetReceiverStatistics* statRcvr;
IGetByeInfo* statBye;
render->GetStatistics(&statDesc, &statSender, &statRcvr, &statBye);
char appName [255];
statDesc->GetAppName((unsigned char*)appName);
unsigned long packetCount, octetCount;
statSender->GetSenderStatistics(&packetCount, &octetCount);
unsigned long fractionalLoss, cumulativeLoss, highestSeq, interarrivalJitter, SRtimestamp, packetDelay;
statRcvr->GetReceiverStatistics(&fractionalLoss, &cumulativeLoss, &highestSeq, &interarrivalJitter, &SRtimestamp, &packetDelay);
buff.Format("app=%s, packet=%d, octet=%d, loss=%d, cLoss=%d, seq=%d, jitt=%d, SR=%d, delay=%d", appName, packetCount, octetCount, fractionalLoss, cumulativeLoss, highestSeq, interarrivalJitter, SRtimestamp, packetDelay);
txt += buff + "\n";
conn = sess->GetNextConnection();
}
sess = ic->GetNextSession();
}
#endif
MpMediaTask* mtask = MpMediaTask::getMediaTask(32);
MpFlowGraphBase* flowGraph = mtask->getFocus();
if (flowGraph) {
for (int i=0; i < flowGraph->mResourceCnt; i++) {
MpResource* r = flowGraph->mExecOrder[i];
if (strstr(r->getName(), "Dejitter")) {
/*
MprDejitter* dejj = (MprDejitter*) r;
buff.Format("<u>%s</u>:: ave=%d, buff=%d, pull=%d, push=%d, "
//"lmax=%d, lmin=%d, "
"disc=%d, packs=%d ", dejj->getName().data(), dejj->getAveBufferLength(), dejj->mBufferLength, dejj->mLastPulled, dejj->mLastPushed
//, dejj->mLatencyMax, dejj->mLatencyMin
, dejj->mNumDiscarded, dejj->mNumPackets);
txt += buff + "<br/>";
*/
} else if (strstr(r->getName(), "Decode")) {
/*
MprDecode* decode = (MprDecode*) r;
for (int c=0; c < decode->mNumCurrentCodecs; c++) {
MpDecoderBase* mpd = decode->mpCurrentCodecs[c];
if (mpd->getInfo()->getCodecType() == SdpCodec::SDP_CODEC_PCMU || mpd->getInfo()->getCodecType() == SdpCodec::SDP_CODEC_PCMA) {
MpdSipxPcma* pcma = (MpdSipxPcma*)mpd;
MpJitterBuffer* jb = (MpJitterBuffer*)pcma->pJBState;
buff.Format("Codec::%d tci=%d, pull=%d, wait=%d, under=%d, seq=%d, few=%d, many=%d, last=%d", pcma->getInfo()->getCodecType(), pcma->mTimerCountIncrement, pcma->mNextPullTimerCount, pcma->mWaitTimeInFrames, pcma->mUnderflowCount, pcma->mLastSeqNo, pcma->mTooFewPacketsInBuffer, pcma->mTooManyPacketsInBuffer, pcma->mLastReportSize);
txt += buff + ", JB:";
buff.Format("avail=%d, qc=%d, qi=%d, qo=%d", jb->JbPacketsAvail, jb->JbQCount, jb->JbQIn, jb->JbQOut);
txt += buff + "<br/>";
}
}
*/
}/* else if (stristr(r->getName(), "FromNet")) {
MprFromNet* fromNet = (MprFromNet*) r;
}*/
}
}
int rating = 0;
sipxQOSRating(phInst, rating);
buff.Format("Rating: <b>%d</b>", rating);
txt += buff;
/*
MprDejitter::getAveBufferLength -> MprDejitter -> MprDecode::getMyDejitter / MprFromNet::getMyDejitter()
MpdSipxPcmu -> MpConnection::mapPayloadType MpCodecFactory::createDecoder
MpdSipxPcma (MpDecoderBase)
MpJitterBuffer -> MpConnection::getJBinst
MpCallFlowGraph::getConnectionPtr
*/
return SIPX_RESULT_SUCCESS;
}
int MpTopologyGraph::linkTopologyResources(MpResourceTopology& resourceTopology,
UtlHashBag& newResources,
UtlBoolean replaceNumInName,
int resourceNum)
{
// Link the resources
int connectionIndex = 0;
UtlString outputResourceName;
UtlString inputResourceName;
int outputResourcePortIndex;
int inputResourcePortIndex;
MpResource* outputResource = NULL;
MpResource* inputResource = NULL;
OsStatus result;
UtlHashMap newConnectionIds;
#ifdef TEST_PRINT
osPrintf("%d new resources in the list\n", newResources.entries());
UtlHashBagIterator iterator(newResources);
MpResource* containerResource = NULL;
while(containerResource = (MpResource*) iterator())
{
osPrintf("found list resource: \"%s\" value: \"%s\"\n",
containerResource->getName().data(), containerResource->data());
}
#endif
while(resourceTopology.getConnection(connectionIndex,
outputResourceName,
outputResourcePortIndex,
inputResourceName,
inputResourcePortIndex) == OS_SUCCESS)
{
if(replaceNumInName)
{
resourceTopology.replaceNumInName(outputResourceName, resourceNum);
resourceTopology.replaceNumInName(inputResourceName, resourceNum);
}
// Look in the container of new resources first as this is more
// efficient and new resources are not added immediately to a running
// flowgraph
outputResource = (MpResource*) newResources.find(&outputResourceName);
if(outputResource == NULL)
{
result = lookupResource(outputResourceName, outputResource);
if(result != OS_SUCCESS)
{
int virtPortIdx = outputResourcePortIndex>=0?outputResourcePortIndex:-1;
int realPortIdx;
result = lookupVirtualOutput(outputResourceName, virtPortIdx,
outputResource, realPortIdx);
if (result == OS_SUCCESS && outputResourcePortIndex>=0)
{
outputResourcePortIndex = realPortIdx;
}
}
assert(result == OS_SUCCESS);
}
inputResource = (MpResource*) newResources.find(&inputResourceName);
if(inputResource == NULL)
{
result = lookupResource(inputResourceName, inputResource);
if(result != OS_SUCCESS)
{
int virtPortIdx = inputResourcePortIndex>=0?inputResourcePortIndex:-1;
int realPortIdx;
result = lookupVirtualInput(inputResourceName, virtPortIdx,
inputResource, realPortIdx);
if (result == OS_SUCCESS && inputResourcePortIndex>=0)
{
inputResourcePortIndex = realPortIdx;
}
}
assert(result == OS_SUCCESS);
}
assert(outputResource);
assert(inputResource);
if(outputResource && inputResource)
{
if(outputResourcePortIndex == MpResourceTopology::MP_TOPOLOGY_NEXT_AVAILABLE_PORT)
{
outputResourcePortIndex = outputResource->reserveFirstUnconnectedOutput();
assert(outputResourcePortIndex >= 0);
}
else if(outputResourcePortIndex < MpResourceTopology::MP_TOPOLOGY_NEXT_AVAILABLE_PORT)
{
// First see if a real port is already in the dictionary
UtlInt searchKey(outputResourcePortIndex);
UtlInt* foundValue = NULL;
if((foundValue = (UtlInt*) newConnectionIds.findValue(&searchKey)))
{
// Use the mapped index
outputResourcePortIndex = foundValue->getValue();
}
else
{
// Find an available port and add it to the map
int realPortNum = outputResource->reserveFirstUnconnectedOutput();
assert(realPortNum >= 0);
UtlInt* portKey = new UtlInt(outputResourcePortIndex);
UtlInt* portValue = new UtlInt(realPortNum);
newConnectionIds.insertKeyAndValue(portKey, portValue);
outputResourcePortIndex = realPortNum;
}
}
if(inputResourcePortIndex == MpResourceTopology::MP_TOPOLOGY_NEXT_AVAILABLE_PORT)
{
inputResourcePortIndex = inputResource->reserveFirstUnconnectedInput();
assert(inputResourcePortIndex >= 0);
}
else if(inputResourcePortIndex < MpResourceTopology::MP_TOPOLOGY_NEXT_AVAILABLE_PORT)
{
// First see if a real port is already in the dictionary
UtlInt searchKey(inputResourcePortIndex);
UtlInt* foundValue = NULL;
if((foundValue = (UtlInt*) newConnectionIds.findValue(&searchKey)))
{
// Use the mapped index
inputResourcePortIndex = foundValue->getValue();
}
else
{
// Find an available port and add it to the map
int realPortNum = inputResource->reserveFirstUnconnectedInput();
assert(realPortNum >= 0);
UtlInt* portKey = new UtlInt(inputResourcePortIndex);
UtlInt* portValue = new UtlInt(realPortNum);
newConnectionIds.insertKeyAndValue(portKey, portValue);
inputResourcePortIndex = realPortNum;
}
}
result = addLink(*outputResource, outputResourcePortIndex, *inputResource, inputResourcePortIndex);
assert(result == OS_SUCCESS);
}
connectionIndex++;
}
newConnectionIds.destroyAll();
return(connectionIndex);
}
int MpTopologyGraph::addTopologyResources(MpResourceTopology& resourceTopology,
MpResourceFactory& resourceFactory,
UtlHashBag& newResources,
UtlBoolean replaceNumInName,
int resourceNum)
{
// Add the resources
int resourceIndex = 0;
MpResource* resourcePtr = NULL;
MpResource* resourceArray[MAX_CONSTRUCTED_RESOURCES];
UtlString resourceType;
UtlString resourceName;
MpConnectionID resourceConnId;
int resourceStreamId;
OsStatus result;
while(resourceTopology.getResource(resourceIndex, resourceType, resourceName,
resourceConnId, resourceStreamId) == OS_SUCCESS)
{
if(replaceNumInName)
{
MpResourceTopology::replaceNumInName(resourceName, resourceNum);
}
int numConstructorResources;
OsStatus status;
status = resourceFactory.newResource(resourceType, resourceName, MAX_CONSTRUCTED_RESOURCES,
numConstructorResources, resourceArray);
if(status == OS_SUCCESS)
{
assert(numConstructorResources > 0);
int arrayIndex;
// We now can potentially get more than one resource back from the
// constructor
for(arrayIndex = 0; arrayIndex < numConstructorResources; arrayIndex++)
{
resourcePtr = resourceArray[arrayIndex];
assert(resourcePtr);
if(resourcePtr)
{
#ifdef TEST_PRINT
printf("constructed and adding resource name: %s type: %s\n",
resourcePtr->getName().data(),
resourceType.data());
#endif
if(replaceNumInName && resourceConnId == MP_INVALID_CONNECTION_ID)
{
resourcePtr->setConnectionId(resourceNum);
}
else
{
resourcePtr->setConnectionId(resourceConnId);
}
resourcePtr->setStreamId(resourceStreamId);
newResources.insert(resourcePtr);
result = addResource(*resourcePtr, FALSE);
assert(result == OS_SUCCESS);
}
}
}
else
{
OsSysLog::add(FAC_MP, PRI_ERR,
"Failed to create resource type: %s name: %s status: %d",
resourceType.data(), resourceName.data(), status);
}
resourceIndex++;
}
return(resourceIndex);
}