void DeviceSource::Preprocess()
{
if(!bCapturing)
return;
//----------------------------------------
if(bRequestVolume)
{
if(audioOut)
audioOut->SetVolume(fNewVol);
else if(audioFilter)
{
IBasicAudio *basicAudio;
if(SUCCEEDED(audioFilter->QueryInterface(IID_IBasicAudio, (void**)&basicAudio)))
{
long lVol = long((double(fNewVol)*NEAR_SILENTf)-NEAR_SILENTf);
if(lVol <= -NEAR_SILENT)
lVol = -10000;
basicAudio->put_Volume(lVol);
basicAudio->Release();
}
}
bRequestVolume = false;
}
//----------------------------------------
SampleData *lastSample = NULL;
OSEnterMutex(hSampleMutex);
lastSample = latestVideoSample;
latestVideoSample = NULL;
OSLeaveMutex(hSampleMutex);
//----------------------------------------
int numThreads = MAX(OSGetTotalCores()-2, 1);
if(lastSample)
{
/*REFERENCE_TIME refTimeStart, refTimeFinish;
lastSample->GetTime(&refTimeStart, &refTimeFinish);
static REFERENCE_TIME lastRefTime = 0;
//Log(TEXT("refTimeStart: %llu, refTimeFinish: %llu, offset = %llu"), refTimeStart, refTimeFinish, refTimeStart-lastRefTime);
lastRefTime = refTimeStart;*/
lastSample->Release();
}
}
int CoreBioComponent :: SetAllRawDataWithMatrixSM (SampleData& fileData, TestCharacteristic* testControlPeak, TestCharacteristic* testSamplePeak) {
//
// This is ladder and sample stage 1
//
int status = 0;
ErrorString = "";
int numElements;
double* matrix = fileData.GetMatrix (numElements);
int i;
int j;
int k;
smColorCorrectionMatrixWrongSize matrixWrongSize;
smColorCorrectionMatrixExpectedButNotFound matrixNotFound;
if (matrix == NULL) {
// add message here
SetMessageValue (matrixNotFound, true);
return SetAllRawDataSM (fileData, testControlPeak, testSamplePeak);
}
else if (numElements != mNumberOfChannels * mNumberOfChannels) {
// add message here
SetMessageValue (matrixWrongSize, true);
return SetAllRawDataSM (fileData, testControlPeak, testSamplePeak);
}
double* matrixBase = matrix;
double** rawChannelData = new double* [mNumberOfChannels + 1];
int numDataPoints;
double sum;
for (i=1; i<=mNumberOfChannels; i++) {
rawChannelData [i] = fileData.GetRawDataForDataChannel (i, numDataPoints);
if (rawChannelData [i] == NULL) {
mDataChannels [i]->SetRawDataFromColorCorrectedArraySM (NULL, numDataPoints, testControlPeak, testSamplePeak);
ErrorString << mDataChannels [i]->GetError ();
status = -1;
}
}
if (status < 0) {
for (i=1; i<=mNumberOfChannels; i++)
delete[] rawChannelData [i];
delete[] rawChannelData;
delete[] matrix;
return status;
}
double** correctedChannelData = new double* [mNumberOfChannels + 1];
for (i=1; i<=mNumberOfChannels; i++)
correctedChannelData [i] = new double [numDataPoints];
for (i=1; i<=mNumberOfChannels; i++) {
for (k=0; k<numDataPoints; k++){
sum = 0.0;
for (j=1; j<=mNumberOfChannels; j++)
sum += (*(matrixBase + j - 1)) * rawChannelData [j][k];
correctedChannelData [i][k] = sum;
}
matrixBase += mNumberOfChannels;
}
for (i=1; i<=mNumberOfChannels; i++)
delete[] rawChannelData [i];
delete[] rawChannelData;
delete[] matrix;
double* tempArray;
for (i=1; i<=mNumberOfChannels; i++) {
tempArray = new double [numDataPoints];
for (j=0; j<numDataPoints; j++)
tempArray [j] = correctedChannelData [i][j];
if (mDataChannels [i]->SetRawDataFromColorCorrectedArraySM (tempArray, numDataPoints, testControlPeak, testSamplePeak) < 0) {
ErrorString << mDataChannels [i]->GetError ();
status = -1;
}
}
for (i=1; i<=mNumberOfChannels; i++)
delete[] correctedChannelData [i];
delete[] correctedChannelData;
if (status == 0)
Progress = 2;
return status;
}
DWORD DeviceSource::SampleThread(DeviceSource *source)
{
HANDLE hSampleMutex = source->hSampleMutex;
LONGLONG lastTime = GetQPCTime100NS(), bufferTime = 0, frameWait = 0, curBufferTime = source->bufferTime;
LONGLONG lastSampleTime = 0;
bool bFirstFrame = true;
bool bFirstDelay = true;
while (WaitForSingleObject(source->hStopSampleEvent, 2) == WAIT_TIMEOUT) {
LONGLONG t = GetQPCTime100NS();
LONGLONG delta = t-lastTime;
lastTime = t;
OSEnterMutex(hSampleMutex);
if (source->samples.Num()) {
if (bFirstFrame) {
bFirstFrame = false;
lastSampleTime = source->samples[0]->timestamp;
}
//wait until the requested delay has been buffered before processing packets
if (bufferTime >= source->bufferTime) {
frameWait += delta;
//if delay time was adjusted downward, remove packets accordingly
bool bBufferTimeChanged = (curBufferTime != source->bufferTime);
if (bBufferTimeChanged) {
if (curBufferTime > source->bufferTime) {
if (source->audioOut)
source->audioOut->FlushSamples();
LONGLONG lostTime = curBufferTime - source->bufferTime;
bufferTime -= lostTime;
if (source->samples.Num()) {
LONGLONG startTime = source->samples[0]->timestamp;
while (source->samples.Num()) {
SampleData *sample = source->samples[0];
if ((sample->timestamp - startTime) >= lostTime)
break;
lastSampleTime = sample->timestamp;
sample->Release();
source->samples.Remove(0);
}
}
}
curBufferTime = source->bufferTime;
}
while (source->samples.Num()) {
SampleData *sample = source->samples[0];
LONGLONG timestamp = sample->timestamp;
LONGLONG sampleTime = timestamp - lastSampleTime;
//sometimes timestamps can go to shit with horrible garbage devices.
//so, bypass any unusual timestamp offsets.
if (sampleTime < -6000000 || sampleTime > 6000000) {
//OSDebugOut(TEXT("sample time: %lld\r\n"), sampleTime);
sampleTime = 0;
}
if (frameWait < sampleTime)
break;
if (sample->bAudio) {
if (source->audioOut)
source->audioOut->ReceiveAudio(sample->lpData, sample->dataLength);
sample->Release();
} else {
SafeRelease(source->latestVideoSample);
source->latestVideoSample = sample;
}
source->samples.Remove(0);
if (sampleTime > 0)
frameWait -= sampleTime;
lastSampleTime = timestamp;
}
}
}
OSLeaveMutex(hSampleMutex);
if (!bFirstFrame && bufferTime < source->bufferTime)
bufferTime += delta;
}
return 0;
}
int CoreBioComponent :: InitializeSM (SampleData& fileData, PopulationCollection* collection, const RGString& markerSetName, Boolean isGrid) {
//
// This is ladder and sample stage 1
//
mTime = fileData.GetCollectionStartTime ();
mDate = fileData.GetCollectionStartDate ();
mName = fileData.GetName ();
mRunStart = mDate.GetOARString () + mTime.GetOARString ();
mMarkerSet = collection->GetNamedPopulationMarkerSet (markerSetName);
Progress = 0;
smMarkerSetNameUnknown noNamedMarkerSet;
smNamedILSUnknown noNamedILS;
smChannelIsILS channelIsILS;
if (mMarkerSet == NULL) {
ErrorString = "*******COULD NOT FIND MARKER SET NAMED ";
ErrorString << markerSetName << " IN POPULATION COLLECTION********\n";
SetMessageValue (noNamedMarkerSet, true);
AppendDataForSmartMessage (noNamedMarkerSet, markerSetName);
return -1;
}
mLaneStandard = mMarkerSet->GetLaneStandard ();
mNumberOfChannels = mMarkerSet->GetNumberOfChannels ();
if ((mLaneStandard == NULL) || !mLaneStandard->IsValid ()) {
ErrorString = "Could not find named internal lane standard associated with marker set named ";
ErrorString << markerSetName << "\n";
cout << "Could not find named internal lane standard associated with marker set named " << (char*)markerSetName.GetData () << endl;
SetMessageValue (noNamedILS, true);
AppendDataForSmartMessage (noNamedILS, markerSetName);
return -1;
}
mDataChannels = new ChannelData* [mNumberOfChannels + 1];
int i;
const int* fsaChannelMap = mMarkerSet->GetChannelMap ();
for (i=0; i<=mNumberOfChannels; i++)
mDataChannels [i] = NULL;
mLaneStandardChannel = mMarkerSet->GetLaneStandardChannel ();
for (i=1; i<=mNumberOfChannels; i++) {
if (i == mLaneStandardChannel)
mDataChannels [i] = GetNewLaneStandardChannel (i, mLaneStandard);
else {
if (isGrid)
mDataChannels [i] = GetNewGridDataChannel (i, mLaneStandard);
else
mDataChannels [i] = GetNewDataChannel (i, mLaneStandard);
}
mDataChannels [i]->SetFsaChannel (fsaChannelMap [i]);
}
mLSData = mDataChannels [mLaneStandardChannel];
mLSData->SetMessageValue (channelIsILS, true);
mMarkerSet->ResetLocusList ();
Locus* nextLocus;
while (nextLocus = mMarkerSet->GetNextLocus ())
mDataChannels [nextLocus->GetLocusChannel ()]->AddLocus (nextLocus);
Progress = 1;
return 0;
}
void DeviceSource::Preprocess()
{
if(!bCapturing)
return;
//----------------------------------------
if(bRequestVolume)
{
if(audioOut)
audioOut->SetVolume(fNewVol);
else if(audioFilter)
{
IBasicAudio *basicAudio;
if(SUCCEEDED(audioFilter->QueryInterface(IID_IBasicAudio, (void**)&basicAudio)))
{
long lVol = long((double(fNewVol)*NEAR_SILENTf)-NEAR_SILENTf);
if(lVol <= -NEAR_SILENT)
lVol = -10000;
basicAudio->put_Volume(lVol);
basicAudio->Release();
}
}
bRequestVolume = false;
}
//----------------------------------------
SampleData *lastSample = NULL;
OSEnterMutex(hSampleMutex);
lastSample = latestVideoSample;
latestVideoSample = NULL;
OSLeaveMutex(hSampleMutex);
//----------------------------------------
int numThreads = MAX(OSGetTotalCores()-2, 1);
if(lastSample)
{
/*REFERENCE_TIME refTimeStart, refTimeFinish;
lastSample->GetTime(&refTimeStart, &refTimeFinish);
static REFERENCE_TIME lastRefTime = 0;
Log(TEXT("refTimeStart: %llu, refTimeFinish: %llu, offset = %llu"), refTimeStart, refTimeFinish, refTimeStart-lastRefTime);
lastRefTime = refTimeStart;*/
if(colorType == DeviceOutputType_RGB)
{
if(texture)
{
texture->SetImage(lastSample->lpData, GS_IMAGEFORMAT_BGRX, renderCX*4);
bReadyToDraw = true;
}
}
else if(colorType == DeviceOutputType_I420 || colorType == DeviceOutputType_YV12)
{
if(bUseThreadedConversion)
{
if(!bFirstFrame)
{
List<HANDLE> events;
for(int i=0; i<numThreads; i++)
events << convertData[i].hSignalComplete;
WaitForMultipleObjects(numThreads, events.Array(), TRUE, INFINITE);
texture->SetImage(lpImageBuffer, GS_IMAGEFORMAT_RGBX, texturePitch);
bReadyToDraw = true;
}
else
bFirstFrame = false;
for(int i=0; i<numThreads; i++)
lastSample->AddRef();
for(int i=0; i<numThreads; i++)
{
convertData[i].input = lastSample->lpData;
convertData[i].sample = lastSample;
convertData[i].pitch = texturePitch;
convertData[i].output = lpImageBuffer;
SetEvent(convertData[i].hSignalConvert);
}
}
else
{
LPBYTE lpData;
UINT pitch;
if(texture->Map(lpData, pitch))
{
PackPlanar(lpData, lastSample->lpData, renderCX, renderCY, pitch, 0, renderCY);
texture->Unmap();
}
bReadyToDraw = true;
}
}
else if(colorType == DeviceOutputType_YVYU || colorType == DeviceOutputType_YUY2)
{
LPBYTE lpData;
UINT pitch;
if(texture->Map(lpData, pitch))
{
Convert422To444(lpData, lastSample->lpData, pitch, true);
texture->Unmap();
}
bReadyToDraw = true;
}
else if(colorType == DeviceOutputType_UYVY || colorType == DeviceOutputType_HDYC)
{
LPBYTE lpData;
UINT pitch;
if(texture->Map(lpData, pitch))
{
Convert422To444(lpData, lastSample->lpData, pitch, false);
texture->Unmap();
}
bReadyToDraw = true;
}
lastSample->Release();
}
}
