void CAESinkPULSE::Deinitialize()
{
CSingleLock lock(m_sec);
m_IsAllocated = false;
m_passthrough = false;
m_periodSize = 0;
if (m_Stream)
Drain();
if (m_MainLoop)
pa_threaded_mainloop_stop(m_MainLoop);
if (m_Stream)
{
pa_stream_disconnect(m_Stream);
pa_stream_unref(m_Stream);
m_Stream = NULL;
m_IsStreamPaused = false;
}
if (m_Context)
{
pa_context_disconnect(m_Context);
pa_context_unref(m_Context);
m_Context = NULL;
}
if (m_MainLoop)
{
pa_threaded_mainloop_free(m_MainLoop);
m_MainLoop = NULL;
}
}
CDVDVideoCodec::VCReturn CDVDVideoCodecDRMPRIME::GetPicture(VideoPicture* pVideoPicture)
{
if (m_codecControlFlags & DVD_CODEC_CTRL_DRAIN)
Drain();
int ret = avcodec_receive_frame(m_pCodecContext, m_pFrame);
if (ret == AVERROR(EAGAIN))
return VC_BUFFER;
else if (ret == AVERROR_EOF)
return VC_EOF;
else if (ret)
{
CLog::Log(LOGERROR, "CDVDVideoCodecDRMPRIME::%s - receive frame failed, ret:%d", __FUNCTION__, ret);
return VC_ERROR;
}
if (pVideoPicture->videoBuffer)
pVideoPicture->videoBuffer->Release();
pVideoPicture->videoBuffer = nullptr;
SetPictureParams(pVideoPicture);
CVideoBufferDRMPRIME* buffer = dynamic_cast<CVideoBufferDRMPRIME*>(m_videoBufferPool->Get());
buffer->SetRef(m_pFrame);
pVideoPicture->videoBuffer = buffer;
return VC_PICTURE;
}
void
AudioSink::AudioLoop()
{
AssertOnAudioThread();
SINK_LOG("AudioLoop started");
if (NS_FAILED(InitializeAudioStream())) {
NS_WARNING("Initializing AudioStream failed.");
mStateMachine->DispatchOnAudioSinkError();
return;
}
while (1) {
{
ReentrantMonitorAutoEnter mon(GetReentrantMonitor());
WaitForAudioToPlay();
if (!IsPlaybackContinuing()) {
break;
}
}
// See if there's a gap in the audio. If there is, push silence into the
// audio hardware, so we can play across the gap.
// Calculate the timestamp of the next chunk of audio in numbers of
// samples.
NS_ASSERTION(AudioQueue().GetSize() > 0, "Should have data to play");
CheckedInt64 sampleTime = UsecsToFrames(AudioQueue().PeekFront()->mTime, mInfo.mRate);
// Calculate the number of frames that have been pushed onto the audio hardware.
CheckedInt64 playedFrames = UsecsToFrames(mStartTime, mInfo.mRate) + mWritten;
CheckedInt64 missingFrames = sampleTime - playedFrames;
if (!missingFrames.isValid() || !sampleTime.isValid()) {
NS_WARNING("Int overflow adding in AudioLoop");
break;
}
if (missingFrames.value() > AUDIO_FUZZ_FRAMES) {
// The next audio chunk begins some time after the end of the last chunk
// we pushed to the audio hardware. We must push silence into the audio
// hardware so that the next audio chunk begins playback at the correct
// time.
missingFrames = std::min<int64_t>(UINT32_MAX, missingFrames.value());
mWritten += PlaySilence(static_cast<uint32_t>(missingFrames.value()));
} else {
mWritten += PlayFromAudioQueue();
}
int64_t endTime = GetEndTime();
if (endTime != -1) {
mOnAudioEndTimeUpdateTask->Dispatch(endTime);
}
}
ReentrantMonitorAutoEnter mon(GetReentrantMonitor());
MOZ_ASSERT(mStopAudioThread || AudioQueue().AtEndOfStream());
if (!mStopAudioThread && mPlaying) {
Drain();
}
SINK_LOG("AudioLoop complete");
Cleanup();
SINK_LOG("AudioLoop exit");
}
mfxStatus QSV_Encoder_Internal::ClearData()
{
mfxStatus sts = MFX_ERR_NONE;
sts = Drain();
sts = m_pmfxENC->Close();
if (m_bUseD3D11 || m_bD3D9HACK)
m_mfxAllocator.Free(m_mfxAllocator.pthis, &m_mfxResponse);
for (int i = 0; i < m_nSurfNum; i++) {
if (!m_bUseD3D11 && !m_bD3D9HACK)
delete m_pmfxSurfaces[i]->Data.Y;
delete m_pmfxSurfaces[i];
}
MSDK_SAFE_DELETE_ARRAY(m_pmfxSurfaces);
for (int i = 0; i < m_nTaskPool; i++)
delete m_pTaskPool[i].mfxBS.Data;
MSDK_SAFE_DELETE_ARRAY(m_pTaskPool);
delete m_outBitstream.Data;
delete m_pmfxENC;
m_pmfxENC = NULL;
if (m_bUseD3D11 || m_bD3D9HACK)
Release();
m_session.Close();
return sts;
}
void Comm::comm_putc(unsigned char c, bool bDrain )
{
ssize_t rv = write( m_fd, &c, 1 );
//printf("Char=%2X\n", c );
if ( bDrain ) {
Drain();
}
}
int Comm::comm_puts( char *Buffer, int len, bool bDrain )
{
int rv = write( m_fd, Buffer, len );
if ( bDrain ) {
Drain();
}
return rv;
}
int Comm::comm_puts(char *Buffer, bool bDrain )
{
int rv = write( m_fd, Buffer, strlen( Buffer ) );
if ( bDrain ) {
Drain();
}
return rv;
}
void
DecodedAudioDataSink::FinishAudioLoop()
{
AssertOnAudioThread();
MOZ_ASSERT(mStopAudioThread || AudioQueue().AtEndOfStream());
if (!mStopAudioThread && mPlaying) {
Drain();
}
SINK_LOG("AudioLoop complete");
Cleanup();
SINK_LOG("AudioLoop exit");
}
double FGTank::Calculate(double dt, double TAT_C)
{
if(ExternalFlow < 0.) Drain( -ExternalFlow *dt);
else Fill(ExternalFlow * dt);
if (Temperature == -9999.0) return 0.0;
double HeatCapacity = 900.0; // Joules/lbm/C
double TempFlowFactor = 1.115; // Watts/sqft/C
double Tdiff = TAT_C - Temperature;
double dTemp = 0.0; // Temp change due to one surface
if (fabs(Tdiff) > 0.1 && Contents > 0.01) {
dTemp = (TempFlowFactor * Area * Tdiff * dt) / (Contents * HeatCapacity);
}
return Temperature += (dTemp + dTemp); // For now, assume upper/lower the same
}
//Purpose: Open connection to Khepera on port passed
// as a parameter e.g., "ttya".
//Preconditions: Port name is defined
//Postconditions: Connection open to given port. Returns true if successful,
// false otherwise.
bool Serial::Open(apstring portname)
{
if (VERBOSE)
cout << "Serial::Entering Serial Open" << endl;
int i;
char buffer[64];
//if (VERBOSE)
//cout << "Serial::buffer=";
// convert apstring to a c string
for (i=0; i<portname.length(); i++){
//if (VERBOSE)
//cout << portname[i];
buffer[i] = portname[i];
}
buffer[i] = '\0';
SERIAL_ID = open(buffer,O_RDWR|O_EXCL);
//cerr << "Serial ID: " << SERIAL_ID << endl;
if (SERIAL_ID == -1)
{
if (VERBOSE)
cout << "Serial::Serial Port Failed to Open --> Serial ID" << endl;
return false;
}
if (!Configure())
return false;
if (!Drain())
return false;
if (Talk("G,0,0\n") == "")
{
if (VERBOSE)
cout << "Serial::Serial Port Failed to Open --> unable to talk" << endl;
return false;
}
if (VERBOSE)
cout << "Serial::Serial Port Opened" << endl;
return true;
}//end Open(apstring)
mfxStatus QSV_Encoder_Internal::ClearData()
{
mfxStatus sts = MFX_ERR_NONE;
sts = Drain();
sts = m_pmfxENC->Close();
m_mfxAllocator.Free(m_mfxAllocator.pthis, &m_mfxResponse);
for (int i = 0; i < m_nSurfNum; i++)
delete m_pmfxSurfaces[i];
MSDK_SAFE_DELETE_ARRAY(m_pmfxSurfaces);
for (int i = 0; i < m_nTaskPool; i++)
delete m_pTaskPool[i].mfxBS.Data;
MSDK_SAFE_DELETE_ARRAY(m_pTaskPool);
delete m_outBitstream.Data;
return sts;
}
void bbcp_Stream::Close()
{
int retc=0;
// Wait for any associated process on this stream
//
Drain();
// Close the associated file descriptor if it was open
//
if (FD >= 0) close(FD);
if (FE >= 0 && FE != FD) close(FE);
// Release the buffer if it was allocated.
//
if (buff) free(buff);
// Clear all data values by attaching a dummy FD
//
FD = FE = -1;
buff = 0;
}
int bbcp_Stream::Exec(char **parm, int inrd, int inerr)
{
int fildes_In[2], fildes_Out[2] = {-1,-1}, fildes_Err[2] = {0,0};
int retc, Child_Out = FD, Child_In = FE, Child_Err = 0;
// Wait for any previous command to finish on this stream
//
Drain();
// Create a pipe if we have no attached FD. Recall that FD is the
// descriptor we read from and FE is the one we write to. This is
// true for sockets. For pipes, the relationship is reversed in
// the child. Plus, we need to get two pipes if the child's STDIN
// is to be redirected. This is because pipes suffer from backflow.
//
if (FD < 0)
{if (pipe(fildes_Out) || (inrd && pipe(fildes_In))
|| (inerr && pipe(fildes_Err)))
return bbcp_Emsg("Exec",errno,"creating a pipe for",parm[0]);
Child_In=fildes_In[0]; Child_Out=fildes_Out[1]; Child_Err=fildes_Err[1];
fildes_Out[1] = (inrd ? fildes_In[1] : -1);
if (retc = Attach(fildes_Out)) return retc;
}
// Fork a process first so we can pick up the next request.
//
if ((child = bbcp_OS.Fork()) != 0)
{close(Child_Out); retc = -errno;
if (inrd) close(Child_In);
if (inerr) close(Child_Err);
if (child > 0) return fildes_Err[0];
retc=bbcp_Emsg("Exec", retc,"forking request process for",parm[0]);
close(fildes_In[1]);
if (inrd) close(fildes_Out[0]);
if (inerr) close(fildes_Err[0]);
return retc;
}
/*****************************************************************/
/* C h i l d P r o c e s s */
/*****************************************************************/
// Close the parent end of the pipe
//
if (fildes_In[1] >= 0) close(fildes_In[1]);
if (fildes_Out[0] >= 0) close(fildes_Out[0]);
if (fildes_Err[0] > 0) close(fildes_Err[0]);
// Redirect standard in if so requested
//
if (inrd)
{if (dup2(Child_In, STDIN_FILENO) < 0)
{bbcp_Emsg("Exec", errno, "setting up standard in for", parm[0]);
exit(255);
} else close(Child_In);
}
// Reassign the stream to be standard out to capture all of the output.
//
if (dup2(Child_Out, STDOUT_FILENO) < 0)
{bbcp_Emsg("Exec", errno, "setting up standard out for", parm[0]);
exit(255);
} else close(Child_Out);
// Reassign the stream to be standard err to capture all of the output.
//
if (inerr && Child_Err)
{if (dup2(Child_Err, STDERR_FILENO) < 0)
{bbcp_Emsg("Exec", errno, "setting up standard err for", parm[0]);
exit(255);
} else close(Child_Err);
}
// Invoke the command never to return
//
DEBUG("PATH=" <<getenv("PATH"));
execvp(parm[0], parm);
bbcp_Emsg("Exec", errno, "executing", parm[0], parm[1]);
exit(255);
return(255); // some compilers demand a return in int functions
}
void
WidevineVideoDecoder::Decode(GMPVideoEncodedFrame* aInputFrame,
bool aMissingFrames,
const uint8_t* aCodecSpecificInfo,
uint32_t aCodecSpecificInfoLength,
int64_t aRenderTimeMs)
{
// We should not be given new input if a drain has been initiated
MOZ_ASSERT(!mDrainPending);
// We may not get the same out of the CDM decoder as we put in, and there
// may be some latency, i.e. we may need to input (say) 30 frames before
// we receive output. So we need to store the durations of the frames input,
// and retrieve them on output.
mFrameDurations[aInputFrame->TimeStamp()] = aInputFrame->Duration();
mSentInput = true;
InputBuffer sample;
RefPtr<MediaRawData> raw(new MediaRawData(aInputFrame->Buffer(), aInputFrame->Size()));
raw->mExtraData = mExtraData;
raw->mKeyframe = (aInputFrame->FrameType() == kGMPKeyFrame);
// Convert input from AVCC, which GMPAPI passes in, to AnnexB, which
// Chromium uses internally.
mp4_demuxer::AnnexB::ConvertSampleToAnnexB(raw);
const GMPEncryptedBufferMetadata* crypto = aInputFrame->GetDecryptionData();
nsTArray<SubsampleEntry> subsamples;
InitInputBuffer(crypto, aInputFrame->TimeStamp(), raw->Data(), raw->Size(), sample, subsamples);
// For keyframes, ConvertSampleToAnnexB will stick the AnnexB extra data
// at the start of the input. So we need to account for that as clear data
// in the subsamples.
if (raw->mKeyframe && !subsamples.IsEmpty()) {
subsamples[0].clear_bytes += mAnnexB->Length();
}
WidevineVideoFrame frame;
Status rv = CDM()->DecryptAndDecodeFrame(sample, &frame);
Log("WidevineVideoDecoder::Decode(timestamp=%lld) rv=%d", sample.timestamp, rv);
// Destroy frame, so that the shmem is now free to be used to return
// output to the Gecko process.
aInputFrame->Destroy();
aInputFrame = nullptr;
if (rv == kSuccess) {
if (!ReturnOutput(frame)) {
Log("WidevineVideoDecoder::Decode() Failed in ReturnOutput()");
mCallback->Error(GMPDecodeErr);
return;
}
// A reset should only be started at most at level mReturnOutputCallDepth 1,
// and if it's started it should be finished by that call by the time
// the it returns, so it should always be false by this point.
MOZ_ASSERT(!mResetInProgress);
// Only request more data if we don't have pending samples.
if (mFrameAllocationQueue.empty()) {
MOZ_ASSERT(mCDMWrapper);
mCallback->InputDataExhausted();
}
} else if (rv == kNeedMoreData) {
MOZ_ASSERT(mCDMWrapper);
mCallback->InputDataExhausted();
} else {
mCallback->Error(ToGMPErr(rv));
}
// Finish a drain if pending and we have no pending ReturnOutput calls on the stack.
if (mDrainPending && mReturnOutputCallDepth == 0) {
Drain();
}
}