int CBaseSplitterOutputPin::ThreadProcDelivery(int cnt)
{
CAutoPtr<Packet> p;
{
CAutoLock cAutoLock(&m_queue);
if((cnt = m_queue.GetCount()) > 0)
p = m_queue.Remove();
}
if(S_OK == m_hrDeliver && cnt > 0)
{
ASSERT(!m_fFlushing);
m_fFlushed = false;
// flushing can still start here, to release a blocked deliver call
HRESULT hr = p
? DeliverPacket(p)
: DeliverEndOfStream();
m_eEndFlush.Wait(); // .. so we have to wait until it is done
if(hr != S_OK && !m_fFlushed) // and only report the error in m_hrDeliver if we didn't flush the stream
{
// CAutoLock cAutoLock(&m_csQueueLock);
m_hrDeliver = hr;
cnt = 0;
}
}
return cnt;
}
bool CMpaSplitterFilter::DemuxLoop()
{
HRESULT hr = S_OK;
int FrameSize;
REFERENCE_TIME rtDuration;
while (SUCCEEDED(hr) && !CheckRequest(NULL) && m_pFile->GetPos() < m_pFile->GetEndPos() - 9) {
if (!m_pFile->Sync(FrameSize, rtDuration)) {
Sleep(1);
continue;
}
CAutoPtr<Packet> p(DNew Packet());
p->SetCount(FrameSize);
m_pFile->ByteRead(p->GetData(), FrameSize);
p->TrackNumber = 0;
p->rtStart = m_rtStart;
p->rtStop = m_rtStart + rtDuration;
p->bSyncPoint = TRUE;
hr = DeliverPacket(p);
m_rtStart += rtDuration;
}
return true;
}
bool CDSMSplitterFilter::DemuxLoop()
{
HRESULT hr = S_OK;
while (SUCCEEDED(hr) && !CheckRequest(nullptr) && m_pFile->GetRemaining()) {
dsmp_t type;
UINT64 len;
if (!m_pFile->Sync(type, len)) {
continue;
}
__int64 pos = m_pFile->GetPos();
if (type == DSMP_SAMPLE) {
CAutoPtr<Packet> p(DEBUG_NEW Packet());
if (m_pFile->Read(len, p)) {
if (p->rtStart != Packet::INVALID_TIME) {
p->rtStart -= m_pFile->m_rtFirst;
p->rtStop -= m_pFile->m_rtFirst;
}
hr = DeliverPacket(p);
}
}
m_pFile->Seek(pos + len);
}
return true;
}
int CEASpliterFilter::eav_get_packet( int size)
{
AVPacket *pkt = (AVPacket *)m_pkt;
//int ret= av_new_packet(pkt, size);
//if(ret<0)
// return ret;
pkt->pos= m_pFile->GetPos();//url_ftell(s);
//ret= m_pFile->ByteRead( pkt->data, size);
//get_buffer(s, pkt->data, size);
//if(ret<=0)
// av_free_packet(pkt);
//else{
pkt->size= size;
CAutoPtr<Packet> p;
p.Attach(new Packet());
p->TrackNumber = pkt->stream_index;
p->rtStart = pkt->pts;
p->rtStop = p->rtStart + pkt->duration;
p->bSyncPoint = pkt->flags;
p->SetCount(size);
m_pFile->ByteRead(p->GetData(), p->GetCount());
HRESULT hr = DeliverPacket(p);
//}
return (hr == S_OK);
}
DWORD CBaseSplitterOutputPin::ThreadProc()
{
m_hrDeliver = S_OK;
m_fFlushing = m_fFlushed = false;
m_eEndFlush.Set();
while(1)
{
Sleep(1);
DWORD cmd;
if(CheckRequest(&cmd))
{
m_hThread = NULL;
cmd = GetRequest();
Reply(S_OK);
ASSERT(cmd == CMD_EXIT);
return 0;
}
int cnt = 0;
do
{
CAutoPtr<Packet> p;
{
CAutoLock cAutoLock(&m_queue);
if((cnt = m_queue.GetCount()) > 0)
p = m_queue.Remove();
}
if(S_OK == m_hrDeliver && cnt > 0)
{
ASSERT(!m_fFlushing);
m_fFlushed = false;
// flushing can still start here, to release a blocked deliver call
HRESULT hr = p
? DeliverPacket(p)
: DeliverEndOfStream();
m_eEndFlush.Wait(); // .. so we have to wait until it is done
if(hr != S_OK && !m_fFlushed) // and only report the error in m_hrDeliver if we didn't flush the stream
{
// CAutoLock cAutoLock(&m_csQueueLock);
m_hrDeliver = hr;
break;
}
}
}
while(--cnt > 0);
}
}
void ReceivePackets(double now)
{
while (packetQueue.size() > 0) {
std::map<double, Packet>::iterator ptr = packetQueue.begin();
if ((*ptr).first < now) {
DeliverPacket((*ptr).second, now);
packetQueue.erase(ptr);
}
else {
break;
}
}
}
DWORD CBaseSplitterOutputPin::ThreadProc()
{
SetThreadName(DWORD(-1), "CBaseSplitterOutputPin");
m_hrDeliver = S_OK;
m_fFlushing = m_fFlushed = false;
m_eEndFlush.Set();
// fix for Microsoft DTV-DVD Video Decoder - video freeze after STOP/PLAY
bool iHaaliRenderConnect = false;
CComPtr<IPin> pPinTo = this, pTmp;
while (pPinTo && SUCCEEDED(pPinTo->ConnectedTo(&pTmp)) && (pPinTo = pTmp)) {
pTmp = nullptr;
CComPtr<IBaseFilter> pBF = GetFilterFromPin(pPinTo);
if (GetCLSID(pBF) == CLSID_DXR) { // Haali Renderer
iHaaliRenderConnect = true;
break;
}
pPinTo = GetFirstPin(pBF, PINDIR_OUTPUT);
}
if (IsConnected() && !iHaaliRenderConnect) {
GetConnected()->BeginFlush();
GetConnected()->EndFlush();
}
for (;;) {
Sleep(1);
DWORD cmd;
if (CheckRequest(&cmd)) {
m_hThread = nullptr;
cmd = GetRequest();
Reply(S_OK);
ASSERT(cmd == CMD_EXIT);
return 0;
}
int cnt = 0;
do {
CAutoPtr<Packet> p;
{
CAutoLock cAutoLock(&m_queue);
if ((cnt = m_queue.GetCount()) > 0) {
p = m_queue.Remove();
}
}
if (S_OK == m_hrDeliver && cnt > 0) {
ASSERT(!m_fFlushing);
m_fFlushed = false;
// flushing can still start here, to release a blocked deliver call
HRESULT hr = p
? DeliverPacket(p)
: DeliverEndOfStream();
m_eEndFlush.Wait(); // .. so we have to wait until it is done
if (hr != S_OK && !m_fFlushed) { // and only report the error in m_hrDeliver if we didn't flush the stream
// CAutoLock cAutoLock(&m_csQueueLock);
m_hrDeliver = hr;
break;
}
}
} while (--cnt > 0);
}
}
DWORD CLAVOutputPin::ThreadProc()
{
std::string name = "CLAVOutputPin " + std::string(CBaseDemuxer::CStreamList::ToString(m_pinType));
SetThreadName(-1, name.c_str());
m_hrDeliver = S_OK;
m_fFlushing = m_fFlushed = false;
m_eEndFlush.Set();
bool bFailFlush = false;
while(1) {
Sleep(1);
DWORD cmd;
if(CheckRequest(&cmd)) {
cmd = GetRequest();
Reply(S_OK);
ASSERT(cmd == CMD_EXIT);
return 0;
}
size_t cnt = 0;
do {
Packet *pPacket = NULL;
// Get a packet from the queue (scoped for lock)
{
CAutoLock cAutoLock(&m_queue);
if((cnt = m_queue.Size()) > 0) {
pPacket = m_queue.Get();
}
}
// We need to check cnt instead of pPacket, since it can be NULL for EndOfStream
if(m_hrDeliver == S_OK && cnt > 0) {
ASSERT(!m_fFlushing);
m_fFlushed = false;
// flushing can still start here, to release a blocked deliver call
HRESULT hr = pPacket ? DeliverPacket(pPacket) : DeliverEndOfStream();
// .. so, wait until flush finished
m_eEndFlush.Wait();
if(hr != S_OK && !m_fFlushed) {
DbgLog((LOG_TRACE, 10, L"OutputPin::ThreadProc(): Delivery failed on %s pin, hr: %0#.8x", CBaseDemuxer::CStreamList::ToStringW(GetPinType()), hr));
if (!bFailFlush && hr == S_FALSE) {
DbgLog((LOG_TRACE, 10, L"OutputPin::ThreadProc(): Trying to revive it by flushing..."));
GetConnected()->BeginFlush();
GetConnected()->EndFlush();
bFailFlush = true;
} else {
m_hrDeliver = hr;
}
break;
}
} else if (pPacket) {
// in case of stream switches or other events, we may end up here
SAFE_DELETE(pPacket);
}
} while(cnt > 1 && m_hrDeliver == S_OK);
}
return 0;
}
bool CNutSplitterFilter::DemuxLoop()
{
bool fKeyFrame = false;
while(!CheckRequest(NULL) && m_pFile->GetRemaining())
{
CNutFile::frame_header fh;
fh.checksum_flag = 1;
UINT64 id = 0;
if(m_pFile->BitRead(1, true) == 0)
{
fh.zero_bit = m_pFile->BitRead(1);
fh.priority = m_pFile->BitRead(2);
fh.checksum_flag = m_pFile->BitRead(1);
fh.msb_timestamp_flag = m_pFile->BitRead(1);
fh.subpacket_type = m_pFile->BitRead(2);
fh.reserved = m_pFile->BitRead(1);
}
else
{
if((id = m_pFile->BitRead(64)) == NUTK)
{
fKeyFrame = true;
continue;
}
}
CNutFile::packet_header ph;
m_pFile->Read(ph);
if(id == 0)
{
CNutFile::vint stream_id;
m_pFile->Read(stream_id);
CNutFile::stream_header* sh = NULL;
POSITION pos = m_pFile->m_streams.GetHeadPosition();
while(pos)
{
CNutFile::stream_header* tmp = m_pFile->m_streams.GetNext(pos);
if(tmp->stream_id == stream_id) {sh = tmp; break;}
}
if(sh)
{
if(fh.msb_timestamp_flag)
m_pFile->Read(sh->msb_timestamp);
CNutFile::svint lsb_timestamp = 0;
m_pFile->Read(lsb_timestamp);
TRACE(_T("[%I64d]: %I64d:%I64d\n"), stream_id, sh->msb_timestamp, lsb_timestamp);
CAutoPtr<Packet> p(new Packet());
p->TrackNumber = (DWORD)stream_id;
p->bSyncPoint = fKeyFrame;
p->rtStart = 10000i64 * ((sh->msb_timestamp << sh->msb_timestamp_shift) + lsb_timestamp)
* sh->time_base_nom / sh->time_base_denom;
p->rtStop = p->rtStart+1;
fKeyFrame = false;
CNutFile::vint len = ph.fptr - (m_pFile->GetPos() - ph.pos);
if(fh.checksum_flag) len -= 4;
if(fh.subpacket_type == 1)
{
p->SetCount(len);
m_pFile->ByteRead(p->GetData(), p->GetCount());
if(FAILED(DeliverPacket(p)))
break;
}
else
{
// TODO
/*
vint subpacket_count;
Read(subpacket_count);
if(fh.subpacket_type & 1)
{
CArray<vint> keyframe_run;
keyframe_run.SetSize(subpacket_count);
for(int i = 0; i < subpacket_count; i++)
Read(keyframe_run[i]);
}
CArray<vint> timestamp_diff;
timestamp_diff.SetSize(subpacket_count);
CArray<vint> timestamp_diff_run;
timestamp_diff_run.SetSize(subpacket_count);
for(int i = 0; i < subpacket_count; i++)
{
Read(timestamp_diff[i]);
if(timestamp_diff[i] & 1)
Read(timestamp_diff_run[i]);
}
if(fh.subpacket_type & 2)
{
CArray<string> subpacket_size_diff;
for(int i = 0; i < subpacket_count-1; i++)
{
Read(subpacket_size_diff[i]);
}
}
for(int i = 0; i < subpacket_count; i++)
{
}
*/
}
}
}
if(fh.checksum_flag)
{
m_pFile->Seek(ph.pos + ph.fptr - 4);
ph.checksum = (UINT32)m_pFile->BitRead(32);
}
m_pFile->Seek(ph.pos + ph.fptr);
}
return(true);
}
