/*read the movie frames from the input file */
int ReadMovie(const char *fname, int nFrame, unsigned int W, unsigned H, MOVIE *movie)
{
/* defining local variables */
int x;
/* error checking */
assert(fname);
assert(movie);
for (x = 0; x < nFrame; x++)
{
AppendImage(movie->Frames, ReadOneFrame(fname, x, W, H));
}
printf("The movie file %s has been read successfully! \n", fname);
return 0;
}
/*
ReadPackets().
Thread function.
*/
void CContentDecoder::ReadPackets()
{
try {
g_Log->Info( "Packet thread started..." );
if( !NextSheepForPlaying() )
return;
while( true )
{
this_thread::interruption_point();
int32 nextForced = NextForced();
if (nextForced != 0)
ForceNext( 0 );
bool bDoNextSheep = true;
if (nextForced == 0)
{
CVideoFrame *pMainVideoFrame = ReadOneFrame(m_MainVideoInfo);
if (pMainVideoFrame != NULL)
{
CVideoFrame *pSecondVideoFrame = NULL;
#define kTransitionFrameLength 60
if (m_SecondVideoInfo != NULL && m_SecondVideoInfo->IsOpen() && m_MainVideoInfo->m_iCurrentFileFrameCount >= (m_MainVideoInfo->m_totalFrameCount - kTransitionFrameLength))
pSecondVideoFrame = ReadOneFrame(m_SecondVideoInfo);
if (pSecondVideoFrame != NULL)
{
pMainVideoFrame->SetMetaData_SecondFrame(pSecondVideoFrame);
if (m_SecondVideoInfo->m_iCurrentFileFrameCount < kTransitionFrameLength)
pMainVideoFrame->SetMetaData_TransitionProgress((fp4)m_SecondVideoInfo->m_iCurrentFileFrameCount * 100.f / ((fp4)kTransitionFrameLength - 1.f));
else
pMainVideoFrame->SetMetaData_TransitionProgress(100.f);
}
else
pMainVideoFrame->SetMetaData_TransitionProgress(0.f);
m_FrameQueue.push( pMainVideoFrame );
bDoNextSheep = false;
//printf( "yielding..." );
//m_pDecoderThread->yield();
}
}
if (bDoNextSheep)
{
g_Log->Info( "calling Next()" );
NextSheepForPlaying( nextForced );
if ( nextForced != 0 )
ClearQueue();
}
}
}
catch(thread_interrupted const&)
{
}
printf( "decoder thread ending..." );
g_Log->Info( "Ending decoder thread..." );
}
