void
GTelnet::telnet_do(void)
{
unsigned char
buf[4];
//printf("GTelnet::telnet_do(): ");
switch(*telnet_input_data)
{
case TERMINAL_TYPE :
//printf("sending terminal type...\n");
buf[0] = IAC;
buf[1] = WILL;
buf[2] = TERMINAL_TYPE;
ProcessOutput(3, buf);
buf[0] = IAC;
buf[1] = SB;
buf[2] = TERMINAL_TYPE;
buf[3] = 0;
ProcessOutput(4, buf);
ProcessOutput(strlen(telnet_termid), (unsigned char *)telnet_termid);
buf[0] = IAC;
buf[1] = SE;
ProcessOutput(2, buf);
break;
case TRANSMIT_BINARY :
//printf("enabling binary recv mode...\n");
telnet_binary_recv = 1;
break;
}
telnet_process_data = 0;
}
void
WMFMediaDataDecoder::ProcessDecode(MediaRawData* aSample)
{
{
MonitorAutoLock mon(mMonitor);
if (mIsFlushing) {
// Skip sample, to be released by runnable.
return;
}
}
HRESULT hr = mMFTManager->Input(aSample);
if (FAILED(hr)) {
NS_WARNING("MFTManager rejected sample");
mCallback->Error();
if (!mRecordedError) {
SendTelemetry(hr);
mRecordedError = true;
}
return;
}
mLastStreamOffset = aSample->mOffset;
ProcessOutput();
}
void GTerm::request_param()
{
char str[40];
sprintf(str, "\033[%d;1;1;120;120;1;0x", param[0] + 2);
ProcessOutput(strlen(str), (unsigned char * )str);
}
void Text_printf(char * data,int length,char * out,int outsize)
{
z_stream zstrm;
memset(&zstrm, 0,sizeof(zstrm));
zstrm.avail_in = length + 1;
zstrm.avail_out = outsize;
zstrm.next_in = (Bytef*)data;
zstrm.next_out = (Bytef*)out;
int rsti = inflateInit(&zstrm);
if (rsti == Z_OK)
{
int rst2 = inflate (&zstrm, Z_FINISH);
if (rst2 >= 0)
{
size_t totout = zstrm.total_out;
ProcessOutput(stdout, out, totout);
}else{
printf("error\n");
}
}else{
printf("error\n");
}
}
void clTernServer::OnTernWorkerThreadDone(const clTernWorkerThread::Reply& reply)
{
m_workerThread->Stop();
wxDELETE(m_workerThread);
RecycleIfNeeded();
m_entries.clear();
CL_DEBUGS(reply.json);
switch(reply.requestType) {
case clTernWorkerThread::kFunctionTip:
m_jsCCManager->OnFunctionTipReady(ProcessCalltip(reply.json), reply.filename);
break;
case clTernWorkerThread::kCodeCompletion:
ProcessOutput(reply.json, m_entries);
m_jsCCManager->OnCodeCompleteReady(m_entries, reply.filename);
break;
case clTernWorkerThread::kFindDefinition: {
clTernDefinition loc;
if(ProcessDefinitionOutput(reply.json, loc)) {
m_jsCCManager->OnDefinitionFound(loc);
}
}
break;
case clTernWorkerThread::kReparse: {
// TODO ??
} break;
case clTernWorkerThread::kReset:
// TODO ??
break;
}
}
STDMETHODIMP CDecWMV9::Decode(const BYTE *buffer, int buflen, REFERENCE_TIME rtStart, REFERENCE_TIME rtStop, BOOL bSyncPoint, BOOL bDiscontinuity)
{
HRESULT hr = S_OK;
DWORD dwStatus = 0;
hr = m_pDMO->GetInputStatus(0, &dwStatus);
if (FAILED(hr)) {
DbgLog((LOG_TRACE, 10, L"-> GetInputStatus() failed with hr: 0x%x", hr));
return S_FALSE;
}
if (!(dwStatus & DMO_INPUT_STATUSF_ACCEPT_DATA))
return S_FALSE;
DWORD dwFlags = 0;
if (bSyncPoint)
dwFlags |= DMO_INPUT_DATA_BUFFERF_SYNCPOINT;
if (rtStart != AV_NOPTS_VALUE)
dwFlags |= DMO_INPUT_DATA_BUFFERF_TIME;
if (rtStop != AV_NOPTS_VALUE)
dwFlags |= DMO_INPUT_DATA_BUFFERF_TIMELENGTH;
if (m_vc1Header && (m_bManualReorder || m_bNeedKeyFrame)) {
AVPictureType pictype = parse_picture_type(buffer, buflen, m_vc1Header);
if (m_bManualReorder) {
if (pictype == AV_PICTURE_TYPE_I || pictype == AV_PICTURE_TYPE_P) {
if (m_bReorderBufferValid)
m_timestampQueue.push(m_rtReorderBuffer);
m_rtReorderBuffer = rtStart;
m_bReorderBufferValid = TRUE;
} else {
m_timestampQueue.push(rtStart);
}
}
if (m_bNeedKeyFrame) {
if (pictype != AV_PICTURE_TYPE_I) {
if (m_bManualReorder)
m_timestampQueue.pop();
return S_OK;
} else {
m_bNeedKeyFrame = FALSE;
dwFlags |= DMO_INPUT_DATA_BUFFERF_SYNCPOINT;
}
}
}
CMediaBuffer *pInBuffer = new CMediaBufferDecode(buffer, buflen);
hr = m_pDMO->ProcessInput(0, pInBuffer, dwFlags, rtStart, rtStop - rtStart);
SafeRelease(&pInBuffer);
if (FAILED(hr)) {
DbgLog((LOG_TRACE, 10, L"-> ProcessInput failed with hr: %0x%x", hr));
return E_FAIL;
}
if (S_FALSE == hr)
return S_FALSE;
return ProcessOutput();
}
void GTerm::status_report()
{
char str[20];
if (param[0] == 5)
{
char * str = "\033[0n";
ProcessOutput(strlen(str), (unsigned char * )str);
}
else if (param[0] == 6)
{
sprintf(str, "\033[%d;%dR", cursor_y + 1, cursor_x + 1);
ProcessOutput(strlen(str), (unsigned char * )str);
}
}
void
GonkMediaDataDecoder::ProcessDrain()
{
// Notify decoder input EOS by sending a null data.
ProcessDecode(nullptr);
mSignaledEOS = true;
ProcessOutput();
}
STDMETHODIMP CDecodeThread::Decode(IMediaSample *pSample)
{
CAutoLock decoderLock(this);
if (!CAMThread::ThreadExists() || !m_pDecoder)
return E_UNEXPECTED;
// Wait until the queue is empty
while(HasSample())
Sleep(1);
// Re-init the decoder, if requested
// Doing this inside the worker thread alone causes problems
// when switching from non-sync to sync, so ensure we're in sync.
if (m_bDecoderNeedsReInit) {
CAMThread::CallWorker(CMD_REINIT);
while (!m_evEOSDone.Check()) {
m_evSample.Wait();
ProcessOutput();
}
}
m_evDeliver.Reset();
m_evSample.Reset();
m_evDecodeDone.Reset();
pSample->AddRef();
// Send data to worker thread, and wake it (if it was waiting)
PutSample(pSample);
// If we don't have thread safe buffers, we need to synchronize
// with the worker thread and deliver them when they are available
// and then let it know that we did so
if (m_bSyncToProcess) {
while (!m_evDecodeDone.Check()) {
m_evSample.Wait();
ProcessOutput();
}
}
ProcessOutput();
return S_OK;
}
STDMETHODIMP CDecWMV9::EndOfStream()
{
if (m_bReorderBufferValid)
m_timestampQueue.push(m_rtReorderBuffer);
m_bReorderBufferValid = FALSE;
m_rtReorderBuffer = AV_NOPTS_VALUE;
m_pDMO->Discontinuity(0);
ProcessOutput();
return S_OK;
}
void
WMFMediaDataDecoder::ProcessDrain()
{
// Order the decoder to drain...
if (FAILED(mDecoder->SendMFTMessage(MFT_MESSAGE_COMMAND_DRAIN, 0))) {
NS_WARNING("Failed to send DRAIN command to MFT");
}
// Then extract all available output.
ProcessOutput();
}
STDMETHODIMP CDecWMV9MFT::EndOfStream()
{
if (m_bReorderBufferValid)
m_timestampQueue.push(m_rtReorderBuffer);
m_bReorderBufferValid = FALSE;
m_rtReorderBuffer = AV_NOPTS_VALUE;
m_pMFT->ProcessMessage(MFT_MESSAGE_COMMAND_DRAIN, 0);
ProcessOutput();
return S_OK;
}
void
WMFMediaDataDecoder::ProcessDrain()
{
if (!mIsFlushing && mMFTManager) {
// Order the decoder to drain...
mMFTManager->Drain();
// Then extract all available output.
ProcessOutput();
}
mCallback->DrainComplete();
}
VOID CNetManager::WaitPacket(VOID)
{
if(!m_Socket.isValid())
{
if (connect_state_ == 1)
{
if (show_ == true)
{
show_ = false;
const char* szString = DICTIONARY_CONFIG_MGR::instance()->get_string_by_id(SERVER_DISCONNECT);
UI_ModalDialogue_Layer::DoModal("",szString,UI_ModalDialogue_Layer::DT_OK,[]()
{
Account_Logic::releaseData();
#if (CC_TARGET_PLATFORM == CC_PLATFORM_WP8) || (CC_TARGET_PLATFORM == CC_PLATFORM_WINRT)
MessageBox("You pressed the close button. Windows Store Apps do not implement a close button.","Alert");
return;
#endif
Director::getInstance()->end();
#if (CC_TARGET_PLATFORM == CC_PLATFORM_IOS)
exit(0);
#endif
}
);
//UI_ModalDialogue_Layer::DoModal("",szString,UI_ModalDialogue_Layer::DT_OK,Account_Logic::releaseData);
}
}
return;
}
//网络数据流操作
if(!Select() || !ProcessExcept() || !ProcessInput() || !ProcessOutput())
{
//CEventSystem::GetMe()->PushEvent(GE_NET_CLOSE);
}
/*
int s=Select() ;
CCLog("--------------------s is %d",s);
int p1=ProcessExcept();
CCLog("--------------------p1 is %d",p1);
int p2=ProcessInput();
CCLog("--------------------p2 is %d",p2);
int p3=ProcessOutput();
CCLog("--------------------p3 is %d",p3);
*/
//Packet操作
ProcessCommands( ) ;
}
STDMETHODIMP CDecodeThread::EndOfStream()
{
CAutoLock decoderLock(this);
if (!CAMThread::ThreadExists() || !m_pDecoder)
return E_UNEXPECTED;
m_evDeliver.Reset();
m_evSample.Reset();
CAMThread::CallWorker(CMD_EOS);
while (!m_evEOSDone.Check()) {
m_evSample.Wait();
ProcessOutput();
}
ProcessOutput();
return S_OK;
}
void GTerm::pc_begin( void )
{
//printf("pc_begin...\n");
set_mode_flag(PC);
//printf("pc_begin: mode_flags = %x\n", mode_flags);
ProcessOutput((unsigned int)strlen(pc_machinename) + 1, (unsigned char * )pc_machinename);
pc_oldWidth = Width();
pc_oldHeight = Height();
ResizeTerminal(80, 25);
update_changes();
}
void
WMFMediaDataDecoder::ProcessDecode(mp4_demuxer::MP4Sample* aSample)
{
HRESULT hr = mMFTManager->Input(aSample);
if (FAILED(hr)) {
NS_WARNING("MFTManager rejected sample");
mCallback->Error();
return;
}
mLastStreamOffset = aSample->byte_offset;
ProcessOutput();
}
void
GonkMediaDataDecoder::ProcessDecode(mp4_demuxer::MP4Sample* aSample)
{
nsresult rv = mManager->Input(aSample);
if (rv != NS_OK) {
NS_WARNING("GonkAudioDecoder failed to input data");
GMDD_LOG("Failed to input data err: %d",rv);
mCallback->Error();
return;
}
if (aSample) {
mLastStreamOffset = aSample->byte_offset;
}
ProcessOutput();
}
/* remap the supplied data into out, which must be pre-allocated */
void CPCMRemap::Remap(void *data, void *out, unsigned int samples, float gain /*= 1.0f*/)
{
CheckBufferSize(samples * m_outChannels * sizeof(float));
//set output buffer to 0
memset(out, 0, samples * m_outChannels * m_inSampleSize);
//set intermediate buffer to 0
memset(m_buf, 0, m_bufsize);
ProcessInput(data, out, samples, gain);
AddGain(m_buf, samples * m_outChannels, gain);
ProcessLimiter(samples, gain);
ProcessOutput(out, samples, gain);
}
void
WMFMediaDataDecoder::ProcessDrain()
{
bool isFlushing;
{
MonitorAutoLock mon(mMonitor);
isFlushing = mIsFlushing;
}
if (!isFlushing && mMFTManager) {
// Order the decoder to drain...
mMFTManager->Drain();
// Then extract all available output.
ProcessOutput();
}
mCallback->DrainComplete();
}
void
WMFMediaDataDecoder::ProcessDecode(mp4_demuxer::MP4Sample* aSample)
{
const uint8_t* data = &aSample->data->front();
uint32_t length = aSample->data->size();
HRESULT hr = mDecoder->Input(data, length, aSample->composition_timestamp);
if (FAILED(hr)) {
NS_WARNING("WMFAudioDecoder failed to input data");
mCallback->Error();
return;
}
mLastStreamOffset = aSample->byte_offset;
ProcessOutput();
}
VOID CNetManager::WaitPacket(VOID)
{
if(!m_Socket.isValid())
{
return;
}
//网络数据流操作
if(!Select() || !ProcessExcept() || !ProcessInput() || !ProcessOutput())
{
CEventSystem::GetMe()->PushEvent(GE_NET_CLOSE);
}
//Packet操作
ProcessCommands( ) ;
}
// FRunnable interface
uint32 FInteractiveProcess::Run()
{
// control and interact with the process
StartTime = FDateTime::UtcNow();
{
do
{
FPlatformProcess::Sleep(SleepTime);
// Read pipe and redirect it to ProcessOutput function
ProcessOutput(FPlatformProcess::ReadPipe(ReadPipeParent));
// Write to process if there is a message
SendMessageToProcessIf();
// If wanted to stop program
if (bCanceling == true)
{
FPlatformProcess::TerminateProc(ProcessHandle, bKillTree);
CanceledDelegate.ExecuteIfBound();
UE_LOG(LogInteractiveProcess, Log, TEXT("The process is being canceled"));
return 0;
}
} while (FPlatformProcess::IsProcRunning(ProcessHandle) == true);
}
// close pipes
FPlatformProcess::ClosePipe(ReadPipeParent, WritePipeChild);
ReadPipeParent = WritePipeChild = nullptr;
FPlatformProcess::ClosePipe(ReadPipeChild, WritePipeParent);
ReadPipeChild = WritePipeParent = nullptr;
// get completion status
if (FPlatformProcess::GetProcReturnCode(ProcessHandle, &ReturnCode) == false)
{
ReturnCode = -1;
}
EndTime = FDateTime::UtcNow();
CompletedDelegate.ExecuteIfBound(ReturnCode, bCanceling);
return 0;
}
void
WMFMediaDataDecoder::ProcessDrain()
{
bool isFlushing;
{
MonitorAutoLock mon(mMonitor);
isFlushing = mIsFlushing;
}
if (!isFlushing && mDecoder) {
// Order the decoder to drain...
if (FAILED(mDecoder->SendMFTMessage(MFT_MESSAGE_COMMAND_DRAIN, 0))) {
NS_WARNING("Failed to send DRAIN command to MFT");
}
// Then extract all available output.
ProcessOutput();
}
mCallback->DrainComplete();
}
EncoderOutput EncodeTransform::EncodeData(char *pRGBAData, size_t numBytes)
{
VTUNE_TASK(g_pDomain, "EncodeData");
const size_t numRGBAPixels = numBytes >> 2; // 4 bytes per pixel (TODO:Cleanup)
EncoderOutput etn;
etn.pEncodedData = NULL;
etn.numBytes = 0;
etn.returnCode = S_FALSE;
size_t yuy2PixelIndex = 0;
// The first step is to compress to YUV by taking in the current and next pixel (for averaging) n1 and n2, n2 and n3, n3 and n4,....
DWORD *pRGBADataAsDWORD = reinterpret_cast<DWORD*> (pRGBAData);
for (size_t rgbaIndex = 0; rgbaIndex < numRGBAPixels; rgbaIndex = rgbaIndex + 2)
{
//Here we convert RGB to YUY2 and add to the encode buffer (omiting intermediate step, go to function for more detail)
mCompressedBuffer[yuy2PixelIndex++] = ColorConversion::RGBtoYUY2(pRGBADataAsDWORD[rgbaIndex],
pRGBADataAsDWORD[rgbaIndex + 1],
mbEncodeBackgroundPixels,
mEncodingThreshold);
}
SendStreamEndMessage();
// Add a sample with the frame timestamp
HRESULT hr = AddSample(mTimeStamp);
if (SUCCEEDED(hr))
{
etn.returnCode = ProcessOutput(etn);
}
mTimeStamp += VIDEO_FRAME_DURATION;
return etn;
}
uint32 FMonitoredProcess::Run()
{
// monitor the process
StartTime = FDateTime::UtcNow();
{
do
{
FPlatformProcess::Sleep(0.0);
ProcessOutput(FPlatformProcess::ReadPipe(ReadPipe));
if (Canceling)
{
FPlatformProcess::TerminateProc(ProcessHandle, KillTree);
CanceledDelegate.ExecuteIfBound();
Thread = nullptr;
return 0;
}
}
while (FPlatformProcess::IsProcRunning(ProcessHandle));
}
EndTime = FDateTime::UtcNow();
// close output pipes
FPlatformProcess::ClosePipe(ReadPipe, WritePipe);
ReadPipe = WritePipe = nullptr;
// get completion status
if (!FPlatformProcess::GetProcReturnCode(ProcessHandle, &ReturnCode))
{
ReturnCode = -1;
}
CompletedDelegate.ExecuteIfBound(ReturnCode);
Thread = nullptr;
return 0;
}
static void
ProcessEvent()
{
char intext[10];
KeySym keysym;
XComposeStatus cs;
int i, n, count;
XEvent ev;
HIST_ENTRY *hist; /* History entry */
char is_hist;
XNextEvent (condpy, &ev);
is_hist = 0;
switch (ev.type) {
case Expose:
if (ev.xexpose.count == 0)
Redraw ();
break;
case ConfigureNotify:
width = ev.xconfigure.width;
height = ev.xconfigure.height;
Resize (width / font_width, height / font_height);
break;
case KeyPress:
// count = XLookupString (&ev.xkey, intext, 10, &keysym, &cs);
// intext[count] = 0;
count = 1;
intext[0] = ev.xkey.keycode;
intext[1] = 0;
if (count == 1) {
switch (intext[0]) {
case '\r':
intext[0] = '\n';
break;
#if !defined(STNDALN)
case '':
hist = previous_history();
is_hist = 1;
break;
case '':
hist = next_history();
is_hist = 1;
break;
#endif
}
}
#if !defined(STNDALN)
/* Process history */
if ( is_hist ) {
if(hist) {
char *dst = text + ncols * row + 4;
memset(dst,' ',col-3); /* clean to EOL */
col = 4;
PutString(hist->line);
PutChar (0);
RedrawRow();
}
break;
}
#endif
#ifdef OBSOLETE /* as XLookupString is broken */
else switch (keysym) {
case XK_Return:
case XK_Linefeed:
intext[0] = '\n';
intext[1] = 0;
break;
case XK_Tab:
intext[0] = '\t';
intext[1] = 0;
break;
case XK_BackSpace:
intext[0] = '\b';
intext[1] = 0;
break;
case XK_Delete:
break;
case XK_Left:
break;
case XK_Right:
break;
case XK_Down:
break;
case XK_Up:
break;
}
#endif /* OBSOLETE */
if (intext[0] ) {
if (intext[0] == '\n')
{
char *dst = text + ncols * row + plen;
strncpy(grads_cmd,dst,1024);
got_grads_cmd = 1; /* signal nxtcmd() that we got a command */
}
PutChar (intext[0]);
RedrawRow();
strcat (my_stdin_buf, intext);
if ( intext[0] == '\n' ) {
ProcessOutput (my_stdin_buf);
my_stdin_buf[0] = 0;
}
}
break;
}
}
bool NVENCEncoder::Encode(LPVOID picIn, List<DataPacket> &packets, List<PacketType> &packetTypes, DWORD timestamp, DWORD &out_pts)
{
NVENCSTATUS nvStatus;
int i = -1;
NV_ENC_PIC_PARAMS picParams = { 0 };
picParams.version = NV_ENC_PIC_PARAMS_VER;
OSMutexLocker locker(frameMutex);
packets.Clear();
packetTypes.Clear();
if (picIn)
{
mfxFrameSurface1 *inputSurface = (mfxFrameSurface1*)picIn;
mfxFrameData &data = inputSurface->Data;
assert(data.MemId);
NVENCEncoderSurface *surf = &inputSurfaces[(unsigned int)data.MemId - 1];
if (surf->locked)
{
nvStatus = pNvEnc->nvEncUnlockInputBuffer(encoder, surf->inputSurface);
if (nvStatus != NV_ENC_SUCCESS)
{
NvLog(TEXT("Unlocking surface failed with 0x%x"), nvStatus);
return false;
}
}
for (i = 0; i < maxSurfaceCount; ++i)
{
if (!outputSurfaces[i].busy)
break;
}
if (i == maxSurfaceCount)
{
NvLog(TEXT("Out of output buffers!"));
surf->locked = false;
return false;
}
surf->locked = false;
surf->useCount += 1;
outputSurfaces[i].timestamp = timestamp;
outputSurfaces[i].inputTimestamp = data.TimeStamp;
outputSurfaces[i].inSurf = surf;
picParams.inputBuffer = surf->inputSurface;
picParams.bufferFmt = NV_ENC_BUFFER_FORMAT_NV12_PL;
picParams.inputWidth = width;
picParams.inputHeight = height;
picParams.outputBitstream = outputSurfaces[i].outputSurface;
picParams.completionEvent = 0;
picParams.pictureStruct = NV_ENC_PIC_STRUCT_FRAME;
picParams.encodePicFlags = 0;
picParams.inputTimeStamp = data.TimeStamp;
picParams.inputDuration = 0;
picParams.codecPicParams.h264PicParams.sliceMode = encodeConfig.encodeCodecConfig.h264Config.sliceMode;
picParams.codecPicParams.h264PicParams.sliceModeData = encodeConfig.encodeCodecConfig.h264Config.sliceModeData;
memcpy(&picParams.rcParams, &encodeConfig.rcParams, sizeof(NV_ENC_RC_PARAMS));
}
else
{
picParams.encodePicFlags = NV_ENC_PIC_FLAG_EOS;
}
nvStatus = pNvEnc->nvEncEncodePicture(encoder, &picParams);
if (picIn && nvStatus == NV_ENC_ERR_NEED_MORE_INPUT)
{
outputSurfaceQueue.push(&outputSurfaces[i]);
outputSurfaces[i].busy = true;
}
if (nvStatus != NV_ENC_SUCCESS && nvStatus != NV_ENC_ERR_NEED_MORE_INPUT)
{
NvLog(TEXT("nvEncEncodePicture failed with error 0x%x"), nvStatus);
return false;
}
if (nvStatus != NV_ENC_ERR_NEED_MORE_INPUT)
{
while (!outputSurfaceQueue.empty())
{
NVENCEncoderOutputSurface *qSurf = outputSurfaceQueue.front();
outputSurfaceQueue.pop();
outputSurfaceQueueReady.push(qSurf);
}
if (picIn)
{
outputSurfaceQueueReady.push(&outputSurfaces[i]);
outputSurfaces[i].busy = true;
}
}
if (!outputSurfaceQueueReady.empty())
{
NVENCEncoderOutputSurface *qSurf = outputSurfaceQueueReady.front();
outputSurfaceQueueReady.pop();
ProcessOutput(qSurf, packets, packetTypes, out_pts);
qSurf->busy = false;
assert(qSurf->inSurf->useCount);
qSurf->inSurf->useCount -= 1;
}
return true;
}
STDMETHODIMP CDecWMV9::ProcessOutput()
{
HRESULT hr = S_OK;
DWORD dwStatus = 0;
BYTE *pBuffer = GetBuffer(m_pRawBufferSize);
CMediaBuffer *pOutBuffer = new CMediaBuffer(pBuffer, m_pRawBufferSize, true);
pOutBuffer->SetLength(0);
DMO_OUTPUT_DATA_BUFFER OutputBufferStructs[1];
memset(&OutputBufferStructs[0], 0, sizeof(DMO_OUTPUT_DATA_BUFFER));
OutputBufferStructs[0].pBuffer = pOutBuffer;
hr = m_pDMO->ProcessOutput(0, 1, OutputBufferStructs, &dwStatus);
if (FAILED(hr)) {
ReleaseBuffer(pBuffer);
DbgLog((LOG_TRACE, 10, L"-> ProcessOutput failed with hr: %x", hr));
return S_FALSE;
}
if (hr == S_FALSE) {
ReleaseBuffer(pBuffer);
return S_FALSE;
}
LAVFrame *pFrame = NULL;
AllocateFrame(&pFrame);
BITMAPINFOHEADER *pBMI = NULL;
videoFormatTypeHandler(mtOut, &pBMI);
pFrame->width = pBMI->biWidth;
pFrame->height = pBMI->biHeight;
pFrame->format = m_OutPixFmt;
pFrame->key_frame = (OutputBufferStructs[0].dwStatus & DMO_OUTPUT_DATA_BUFFERF_SYNCPOINT);
AVRational display_aspect_ratio;
int64_t num = (int64_t)m_StreamAR.num * pBMI->biWidth;
int64_t den = (int64_t)m_StreamAR.den * pBMI->biHeight;
av_reduce(&display_aspect_ratio.num, &display_aspect_ratio.den, num, den, 1 << 30);
BYTE contentType = 0;
DWORD dwPropSize = 1;
pOutBuffer->GetProperty(WM_SampleExtensionGUID_ContentType, &contentType, &dwPropSize);
pFrame->interlaced = !!(contentType & WM_CT_INTERLACED);
pFrame->repeat = !!(contentType & WM_CT_REPEAT_FIRST_FIELD);
LAVDeintFieldOrder fo = m_pSettings->GetDeintFieldOrder();
pFrame->tff = (fo == DeintFieldOrder_Auto) ? !!(contentType & WM_CT_TOP_FIELD_FIRST) : (fo == DeintFieldOrder_TopFieldFirst);
if (pFrame->interlaced && !m_bInterlaced)
m_bInterlaced = TRUE;
pFrame->interlaced = (pFrame->interlaced || (m_bInterlaced && m_pSettings->GetDeinterlacingMode() == DeintMode_Aggressive) || m_pSettings->GetDeinterlacingMode() == DeintMode_Force) && !(m_pSettings->GetDeinterlacingMode() == DeintMode_Disable);
if (m_bManualReorder) {
if (!m_timestampQueue.empty()) {
pFrame->rtStart = m_timestampQueue.front();
m_timestampQueue.pop();
if (OutputBufferStructs[0].dwStatus & DMO_OUTPUT_DATA_BUFFERF_TIMELENGTH) {
pFrame->rtStop = pFrame->rtStart + OutputBufferStructs[0].rtTimelength;
}
}
} else {
if (OutputBufferStructs[0].dwStatus & DMO_OUTPUT_DATA_BUFFERF_TIME) {
pFrame->rtStart = OutputBufferStructs[0].rtTimestamp;
if (OutputBufferStructs[0].dwStatus & DMO_OUTPUT_DATA_BUFFERF_TIMELENGTH) {
pFrame->rtStop = pFrame->rtStart + OutputBufferStructs[0].rtTimelength;
}
}
}
// Check alignment
// If not properly aligned, we need to make the data aligned.
int alignment = (m_OutPixFmt == LAVPixFmt_NV12) ? 16 : 32;
if ((pFrame->width % alignment) != 0) {
AllocLAVFrameBuffers(pFrame);
size_t ySize = pFrame->width * pFrame->height;
memcpy_plane(pFrame->data[0], pBuffer, pFrame->width, pFrame->stride[0], pFrame->height);
if (m_OutPixFmt == LAVPixFmt_NV12) {
memcpy_plane(pFrame->data[1], pBuffer+ySize, pFrame->width, pFrame->stride[1], pFrame->height / 2);
} else if (m_OutPixFmt == LAVPixFmt_YUV420) {
size_t uvSize = ySize / 4;
memcpy_plane(pFrame->data[2], pBuffer+ySize, pFrame->width / 2, pFrame->stride[2], pFrame->height / 2);
memcpy_plane(pFrame->data[1], pBuffer+ySize+uvSize, pFrame->width / 2, pFrame->stride[1], pFrame->height / 2);
}
ReleaseBuffer(pBuffer);
} else {
if (m_OutPixFmt == LAVPixFmt_NV12) {
pFrame->data[0] = pBuffer;
pFrame->data[1] = pBuffer + pFrame->width * pFrame->height;
pFrame->stride[0] = pFrame->stride[1] = pFrame->width;
} else if (m_OutPixFmt == LAVPixFmt_YUV420) {
pFrame->data[0] = pBuffer;
pFrame->data[2] = pBuffer + pFrame->width * pFrame->height;
pFrame->data[1] = pFrame->data[2] + (pFrame->width / 2) * (pFrame->height / 2);
pFrame->stride[0] = pFrame->width;
pFrame->stride[1] = pFrame->stride[2] = pFrame->width / 2;
}
pFrame->destruct = wmv9_buffer_destruct;
pFrame->priv_data = this;
}
pFrame->flags |= LAV_FRAME_FLAG_BUFFER_MODIFY;
Deliver(pFrame);
SafeRelease(&pOutBuffer);
if (OutputBufferStructs[0].dwStatus & DMO_OUTPUT_DATA_BUFFERF_INCOMPLETE)
return ProcessOutput();
return hr;
}
int _tmain(int argc, _TCHAR* argv[])
{
//Discard existing output:
FILE* fileo = fopen("c:\\pdf\\output2.txt", "w");
if (fileo) fclose(fileo);
fileo = fopen("c:\\pdf\\output2.txt", "a");
//Open the PDF source file:
FILE* filei = fopen("c:\\pdf\\somepdf.pdf", "rb");
if (filei && fileo)
{
//Get the file length:
int fseekres = fseek(filei,0, SEEK_END); //fseek==0 if ok
long filelen = ftell(filei);
fseekres = fseek(filei,0, SEEK_SET);
//Read ethe ntire file into memory (!):
char* buffer = new char [filelen]; ZeroMemory(buffer, filelen);
size_t actualread = fread(buffer, filelen, 1 ,filei); //must return 1
bool morestreams = true;
//Now search the buffer repeated for streams of data:
while (morestreams)
{
//Search for stream, endstream. We ought to first check the filter
//of the object to make sure it if FlateDecode, but skip that for now!
size_t streamstart = FindStringInBuffer (buffer, "stream", filelen);
size_t streamend = FindStringInBuffer (buffer, "endstream", filelen);
if (streamstart>0 && streamend>streamstart)
{
//Skip to beginning and end of the data stream:
streamstart += 6;
if (buffer[streamstart]==0x0d && buffer[streamstart+1]==0x0a) streamstart+=2;
else if (buffer[streamstart]==0x0a) streamstart++;
if (buffer[streamend-2]==0x0d && buffer[streamend-1]==0x0a) streamend-=2;
else if (buffer[streamend-1]==0x0a) streamend--;
//Assume output will fit into 10 times input buffer:
size_t outsize = (streamend - streamstart)*10;
char* output = new char [outsize]; ZeroMemory(output, outsize);
//Now use zlib to inflate:
z_stream zstrm; ZeroMemory(&zstrm, sizeof(zstrm));
zstrm.avail_in = streamend - streamstart + 1;
zstrm.avail_out = outsize;
zstrm.next_in = (Bytef*)(buffer + streamstart);
zstrm.next_out = (Bytef*)output;
int rsti = inflateInit(&zstrm);
if (rsti == Z_OK)
{
int rst2 = inflate (&zstrm, Z_FINISH);
if (rst2 >= 0)
{
//Ok, got something, extract the text:
size_t totout = zstrm.total_out;
ProcessOutput(fileo, output, totout);
}
}
delete[] output; output=0;
buffer+= streamend + 7;
filelen = filelen - (streamend+7);
}
else
{
morestreams = false;
}
}
fclose(filei);
}
if (fileo) fclose(fileo);
return 0;
}