void FmodSoundEngine::Update(float dwTimeMilliSecond)
{
FMOD::Channel **channel = (FMOD::Channel**)this->channel;
if(ScreenState==SCREEN_GAMEMAIN){
bool status = false;
channel[0]->isPlaying(&status);
if(!status || !channel[0]){ // audio stopped, resume audio in video
if(m_pAudio)
m_pAudio->put_Volume(Lin2dB(defaultVolume));
}else{ // channel 0 is active
if(m_pAudio)
m_pAudio->put_Volume(-10000);
if(pitch_factor!=0)
SetPitch(pitch_factor,0,true), pitch_factor = 0;
if(sampleRate_factor!=0)
SetSampleRate(sampleRate_factor,0,true), sampleRate_factor = 0;
if(tempo_factor!=0)
SetTempo(tempo_factor,0,true), tempo_factor = 0;
}
}
system->update();
for(int i = 0; i < nowChannel; i++)
{
if(channel[i]!=NULL)
{
float volume;
result = channel[i]->getVolume(&volume);
if(volume>volumeDes[i])
{
volume -= soundSpd*dwTimeMilliSecond;
if(volume<volumeDes[i]) volume = volumeDes[i];
}
else if(volume<volumeDes[i])
{
volume += soundSpd*dwTimeMilliSecond;
if(volume>volumeDes[i]) volume = volumeDes[i];
}
channel[i]->setVolume(volume);
if(volume==0)
FreeChannel(i, true);
}
}
}
void
MediaEngineWebRTCMicrophoneSource::Shutdown()
{
Super::Shutdown();
if (mListener) {
// breaks a cycle, since the WebRTCAudioDataListener has a RefPtr to us
mListener->Shutdown();
// Don't release the webrtc.org pointers yet until the Listener is (async) shutdown
mListener = nullptr;
}
if (mState == kStarted) {
SourceMediaStream *source;
bool empty;
while (1) {
{
MonitorAutoLock lock(mMonitor);
empty = mSources.IsEmpty();
if (empty) {
break;
}
source = mSources[0];
}
Stop(source, kAudioTrack); // XXX change to support multiple tracks
}
MOZ_ASSERT(mState == kStopped);
}
while (mRegisteredHandles.Length()) {
MOZ_ASSERT(mState == kAllocated || mState == kStopped);
Deallocate(nullptr); // XXX Extend concurrent constraints code to mics.
}
if (mState != kReleased) {
FreeChannel();
MOZ_ASSERT(sChannelsOpen > 0);
if (--sChannelsOpen == 0) {
DeInitEngine();
}
}
mAudioInput = nullptr;
}
HCHANNEL BassSoundEngine::PlayMusic(int sound_id, CHANNEL Ichannel, bool loop, float volume)
{
if(Ichannel<0||Ichannel>=maxChannel){
Ichannel = GetNewChannel();
if(Ichannel<0)
return NULL;
}else
FreeChannel(Ichannel);
HSTREAM sound = playMusic[sound_id];
channel[Ichannel] = sound;
DWORD hr;
bool useDSP = false;
// set position
float freq;
if(Ichannel==0)
{
hr = BASS_ChannelGetAttribute(sound, BASS_ATTRIB_FREQ, &freq);
hr = SetPosition(0, sound_id, 0);
hr = BASS_FX_TempoGetRateRatio(sound);
if(hr>0)
useDSP = true;
music_sampleRate = freq;
}
// set volume
volumeDes[Ichannel] = volume*defaultVolume;
hr = BASS_ChannelSetAttribute(sound, BASS_ATTRIB_VOL, volumeDes[Ichannel]);
// start play
hr = BASS_ChannelPlay(sound, useDSP?FALSE:TRUE);
// set loop
if(loop)
hr = BASS_ChannelFlags(sound, BASS_SAMPLE_LOOP, BASS_SAMPLE_LOOP);
if(Ichannel==0)
Update(0);
return sound;
}
nsresult
MediaEngineWebRTCMicrophoneSource::Deallocate(AllocationHandle* aHandle)
{
AssertIsOnOwningThread();
Super::Deallocate(aHandle);
if (!mRegisteredHandles.Length()) {
// If empty, no callbacks to deliver data should be occuring
if (mState != kStopped && mState != kAllocated) {
return NS_ERROR_FAILURE;
}
FreeChannel();
LOG(("Audio device %d deallocated", mCapIndex));
} else {
LOG(("Audio device %d deallocated but still in use", mCapIndex));
}
return NS_OK;
}
void NetManagerReactor::NetRun()
{
NetManager::NetRun();
if(!m_pReactor)
return;
m_pReactor->HandleEvents(m_timer, GetEventWaitTime());
const int32 MAX_SOCKETS = m_ChannelList.GetMaxElement();
for (int32 i = 0; i < MAX_SOCKETS; ++i)
{
NetChannelBase* pChannel = GetChannel(i);
if(!pChannel)
continue;
pChannel->HandleOutput();
FreeChannel(pChannel);
}
}
bool NetManager::SendPacket(PacketBase& pkt, int32 nSocketID)
{
bool bSuceed = false;
NetChannelBase* pChannel = GetChannel( nSocketID );
if ( pChannel )
{
PacketBase* pPkt = DuplicatePacket(pkt);
if(!pPkt)
MyLog::error("NetManager::SendPacket failed to DuplicatePacket [%s]", pkt.GetClassName() );
else
{
pPkt->SetSocketID( nSocketID );
pChannel->AppendPacket( pPkt );
bSuceed = true;
}
FreeChannel(pChannel);
}
return bSuceed;
}
void NetManager::CloseChannel(int32 nChannel)
{
NetChannelBase* pChannel = NULL;
m_mutexChannels.Lock();
pChannel = m_ChannelList.XGet( nChannel );
m_ChannelList.remove( nChannel);
m_mutexChannels.Unlock();
if( pChannel == NULL || pChannel->GetSocket() == INVALID_SOCKET )
return;
if(m_DisconnectCallBack)
(*m_DisconnectCallBack)(nChannel);
OnDisconnect(pChannel);
pChannel->CloseChannel();
FreeChannel(pChannel);
}
///////////////////////////////////////////////////////////////////////////////////////////////////////
//Return Value:
// 1: Fail, 0: Success
///////////////////////////////////////////////////////////////////////////////////////////////////////
int Read_10(unsigned long lUSB_LUN_Read)
{
int i;
unsigned long SCSI_LBA;
unsigned int SCSI_Transfer_Length;
unsigned long USB_RW_Buffer_PTR, USB_RW_Buffer_PTR_A,USB_RW_Buffer_PTR_B,USB_RW_Buffer_PTR_Temp;
int ret,stage;
unsigned long num;
unsigned int USBDMA_CHANNEL0, USBDMA_CHANNEL1, USBDMA_CHANNEL2, USBDMA_CHANNEL3;
str_USB_Lun_Info* ptr_USB_LUN_Read;
ptr_USB_LUN_Read = (str_USB_Lun_Info*)lUSB_LUN_Read;
ulTimeout = 0x4FFFF;
ret=0x00;
stage = 0x00;
Sense_Code = 0;
R_USB_RW_Busy = 1;
SCSI_LBA=GetLBA();
SCSI_Transfer_Length=GetTransLeng();
USB_RW_Buffer_PTR=GetBufferPointer();
USB_RW_Buffer_PTR_A=USB_RW_Buffer_PTR; //add by zhangxh 2006/01/19
USB_RW_Buffer_PTR_B=USB_RW_Buffer_PTR_A + 256;
#ifdef OS_vension
USBDMA_CHANNEL0 = MallocChannel(); //by zhangxh 2006/01/19
USBDMA_CHANNEL1 = MallocChannel(); //by zhangxh 2006/01/19
USBDMA_CHANNEL2 = MallocChannel(); //by zhangxh 2006/01/19
USBDMA_CHANNEL3 = MallocChannel(); //by zhangxh 2006/01/19
#else
USBDMA_CHANNEL0 = 0;
USBDMA_CHANNEL1 = 1;
USBDMA_CHANNEL2 = 2;
USBDMA_CHANNEL3 = 3;
#endif
if(ptr_USB_LUN_Read->unLunType == LunType_SDCardReader) //SD Card
{
#ifdef SD_Used
if ((SCSI_LBA + SCSI_Transfer_Length)>SDCTotalSector) //huck
{
Sense_Code = 0x1B; //LOGICAL BLOCK ADDRESS OUT OF RANGE
ret = 1;
goto End;
}
for(i=0 ; i < SCSI_Transfer_Length ; i++)
{
if (i == 0)
ret = DrvSDCReadMultiSector_USB((unsigned long)SCSI_LBA+i, (unsigned long)USB_RW_Buffer_PTR_A,USBDMA_CHANNEL0,0);
else
ret = DrvSDCReadMultiSector_USB((unsigned long)SCSI_LBA+i, (unsigned long)USB_RW_Buffer_PTR_A,USBDMA_CHANNEL0,1);
if (i == SCSI_Transfer_Length-1)
ret = DrvSDCReadMultiSector_USB((unsigned long)SCSI_LBA+i, (unsigned long)USB_RW_Buffer_PTR_A,USBDMA_CHANNEL0,2);
if(ret != 0x00)
{
DrvSDCReadMultiSector_USB((unsigned long)SCSI_LBA+i, (unsigned long)USB_RW_Buffer_PTR_A,USBDMA_CHANNEL0,4); //4,stop the SDC Only
Sense_Code=0x08;
goto End;
}
if (stage)
{
ret = Send_To_USB_DMA_USB(USB_RW_Buffer_PTR_A,USBDMA_CHANNEL1,1);
for(num=0;num<ulTimeout;num++)
{
if(R_USB_Suspend == 1)
break;
else
{
if ((*P_USBD_EPEvent & 0x0100) != 0)
ret = 0xffff;
else
{
ret = 0;
*P_USBD_EPEvent=0x0600;
break;
}
}
}
if(num == ulTimeout)
{
Sense_Code=0x12;
ret = 0xffff;
return ret;
}
}
ret = Send_To_USB_DMA_USB(USB_RW_Buffer_PTR_A,USBDMA_CHANNEL1,0);
if (ret != 0x00)
{
ret = 0xffff;
Sense_Code = 0x12;
goto End;
}
stage=1;
//for last data
if (i == SCSI_Transfer_Length-1)
{
ret = Send_To_USB_DMA_USB(USB_RW_Buffer_PTR_A,USBDMA_CHANNEL1,1);
if (ret != 0x00)
{
ret = 0xffff;
Sense_Code = 0x12;
goto End;
}
for(num=0;num<ulTimeout;num++)
{
if(R_USB_Suspend == 1)
break;
else
{
if ((*P_USBD_EPEvent & 0x0100) != 0)
ret = 0xffff;
else
{
ret = 0;
*P_USBD_EPEvent=0x0600;
break;
}
}
}
if(num == ulTimeout)
{
ret = 0xffff;
Sense_Code = 0x12;
goto End;
}
}
USB_RW_Buffer_PTR_Temp = USB_RW_Buffer_PTR_B;
USB_RW_Buffer_PTR_B = USB_RW_Buffer_PTR_A;
USB_RW_Buffer_PTR_A = USB_RW_Buffer_PTR_Temp;
}//for
if(ret != 0x00)
{
CSW_Residue=SCSI_Transfer_Length-i;
CSW_Residue=CSW_Residue << 9;
}
else
CSW_Residue=0;
#endif
}
else //Nand Drive
{
#ifdef Nand_Used
if ((SCSI_LBA + SCSI_Transfer_Length)>ptr_USB_LUN_Read->ulNandSizeSec) //check read address overflow
{
Sense_Code = 0x1B;
ret = 1;
goto End;
}
if(ptr_USB_LUN_Read->unLunType == LunType_CDROM) //CDROM, do not modify below CDROM code
{
SCSI_LBA ++;
SCSI_LBA = SCSI_LBA << 2; //1 sector = 4 *512
SCSI_LBA += ptr_USB_LUN_Read->ulNandStartAddr;
SCSI_Transfer_Length = SCSI_Transfer_Length << 2; //length *4
}
else
SCSI_LBA += ptr_USB_LUN_Read->ulNandStartAddr;
for(i=0 ; i < SCSI_Transfer_Length ; i++)
{
ret = _NAND_ReadSector_USB((unsigned long)(SCSI_LBA+i), 1, (unsigned long)USB_RW_Buffer_PTR_A, USBDMA_CHANNEL2);
if (stage)
{
TXToUSB_USB(USB_RW_Buffer_PTR_A, 0x01, USBDMA_CHANNEL1, 0x01);
ulTimeout = 0x4FFFF;
while((*P_USBD_EPEvent & 0x0100) != 0)
{
if (!(ulTimeout--))
{
*P_USBD_EPEvent=0x0600;
Sense_Code = 0x12;
ret = 1;
goto End;
}
}
*P_USBD_EPEvent=0x0600;
}
TXToUSB_USB(USB_RW_Buffer_PTR_A, 0x01, USBDMA_CHANNEL1, 0x00);
stage=1;
if (i == SCSI_Transfer_Length-1)
{
TXToUSB_USB(USB_RW_Buffer_PTR_A, 0x01, USBDMA_CHANNEL1, 0x01);
ulTimeout = 0x4FFFF;
while((*P_USBD_EPEvent & 0x0100) != 0)
{
if (!(ulTimeout--))
{
*P_USBD_EPEvent=0x0600;
Sense_Code = 0x12;
ret = 1;
goto End;
}
}
*P_USBD_EPEvent=0x0600;
}
USB_RW_Buffer_PTR_Temp = USB_RW_Buffer_PTR_B;
USB_RW_Buffer_PTR_B = USB_RW_Buffer_PTR_A;
USB_RW_Buffer_PTR_A = USB_RW_Buffer_PTR_Temp;
}
CSW_Residue=0x00;
#endif
}
End:
#ifdef OS_vension
FreeChannel(USBDMA_CHANNEL0);
FreeChannel(USBDMA_CHANNEL1);
FreeChannel(USBDMA_CHANNEL2);
FreeChannel(USBDMA_CHANNEL3);
#endif
return ret;
}
///////////////////////////////////////////////////////////////////////////////////////////////////////
//Return Value:
// 1: Fail, 0: Success
///////////////////////////////////////////////////////////////////////////////////////////////////////
int Write_10(unsigned long lUSB_LUN_Write)
{
int j;
unsigned long SCSI_LBA;
unsigned int SCSI_Transfer_Length;
unsigned long USB_RW_Buffer_PTR;
unsigned long USB_RW_Buffer_PTR_A,USB_RW_Buffer_PTR_B,USB_RW_Buffer_PTR_Temp;
unsigned int USBDMA_CHANNEL0, USBDMA_CHANNEL1, USBDMA_CHANNEL2, USBDMA_CHANNEL3;
int ret= 0xffff, stage = 0, *p;
int ret1=0xffff;
unsigned int Erro_Flag = 0;
extern unsigned int *RHM_FlashBuf, RHM_USBreprogBuf_Full;
unsigned int idx;
extern unsigned int USBreprogBuf[];
str_USB_Lun_Info* ptr_USB_LUN_Write;
ptr_USB_LUN_Write = (str_USB_Lun_Info*)lUSB_LUN_Write;
R_USB_RW_Busy = 1;
Sense_Code = 0x00;
SCSI_LBA=GetLBA();
SCSI_Transfer_Length=GetTransLeng();
USB_RW_Buffer_PTR=GetBufferPointer();
USB_RW_Buffer_PTR_A=GetBufferPointer(); //add by zhangxh 2006/01/19
USB_RW_Buffer_PTR_B=USB_RW_Buffer_PTR_A + 256;
#ifdef OS_vension
USBDMA_CHANNEL0 = MallocChannel(); //by zhangxh 2006/01/19
USBDMA_CHANNEL1 = MallocChannel(); //by zhangxh 2006/01/19
USBDMA_CHANNEL2 = MallocChannel(); //by zhangxh 2006/01/19
USBDMA_CHANNEL3 = MallocChannel(); //by zhangxh 2006/01/19
#else
USBDMA_CHANNEL0 = 0;
USBDMA_CHANNEL1 = 1;
USBDMA_CHANNEL2 = 2;
USBDMA_CHANNEL3 = 3;
#endif
if(ptr_USB_LUN_Write->unLunType == LunType_SDCardReader)
{
#ifdef SD_Used
if ((SCSI_LBA + SCSI_Transfer_Length)>SDCTotalSector) //huck
{
Sense_Code = 0x1B; //LOGICAL BLOCK ADDRESS OUT OF RANGE
ret = 1;
goto End;
}
for(j=0; j<SCSI_Transfer_Length; j++)
{
//=================================================================================================
// Enable DMA mode. And using USB 128x8 bytes dual FIFO
ret=Receive_From_USB_DMA_USB(USB_RW_Buffer_PTR_B,USBDMA_CHANNEL3);
if(ret != 0x00)
{
*P_USBD_EPEvntClear=0x0010;
*P_USBD_EPEvent=0x2000; // Bulk OUT NACK Reset
break;
}
*P_USBD_EPEvntClear=0x0010;
*P_USBD_EPEvent=0x2000; // Bulk OUT NACK Reset
USB_RW_Buffer_PTR_Temp = USB_RW_Buffer_PTR_B;
if (j>0 )
{
stage = 1;
}
if (!Erro_Flag)
ret1 = DrvSDCMultiWriteSector_USB((unsigned long)SCSI_LBA+j, (unsigned long)USB_RW_Buffer_PTR_B,(unsigned int)USBDMA_CHANNEL2,stage);
if(ret1 != 0x00)
{
ret = ret1;
break;
}
USB_RW_Buffer_PTR_B = USB_RW_Buffer_PTR_A;
USB_RW_Buffer_PTR_A = USB_RW_Buffer_PTR_Temp;
}//j
if((ret1 == 0x00)&&(!Erro_Flag))
ret1=DrvSDCMultiWriteSector_USB((unsigned long)SCSI_LBA+j, (unsigned long)USB_RW_Buffer_PTR_B,(unsigned int)USBDMA_CHANNEL2,2);
if ((ret1 != 0x00)&&(!Erro_Flag))
{
DrvSDCMultiWriteSector_USB((unsigned long)SCSI_LBA+j, (unsigned long)USB_RW_Buffer_PTR_B,(unsigned int)USBDMA_CHANNEL2,4);
ret = ret1;
}
if( (ret != 0x00) || (ret1 != 0x00) )
{
CSW_Residue=SCSI_Transfer_Length-j-1;
CSW_Residue=CSW_Residue << 9;
Sense_Code=0x10;
}
else
CSW_Residue=0;
#endif
}
else if(ptr_USB_LUN_Write->unLunType == LunType_NOR) { //rhm
flash *pflash = (flash *)ptr_USB_LUN_Write->rhmLunData;
ptr_USB_LUN_Write->ulNandSizeSec = 0xaabbccdd;
ptr_USB_LUN_Write->ulNandSizeSec = 2048;
// long xx = ptr_USB_LUN_Write->ulNandSizeSec;
// if ((SCSI_LBA + (SCSI_Transfer_Length*512)) > (ptr_USB_LUN_Write->ulNandSizeSec)) //check address overflow
// {
// Sense_Code = 0x1B;//LOGICAL BLOCK ADDRESS OUT OF RANGE
// ret = 1;
// goto End;
// }
// SCSI_LBA += ptr_USB_LUN_Write->ulNandStartAddr;
//rhm nor erase sector here
*P_WatchDog_Ctrl = 0; // disable watchdog
pflash->pflash = SCSI_LBA;
pflash->bytesAvail = 0;
//rhm1 pflash->erasesector(pflash);
for(j=0; j<SCSI_Transfer_Length; j++)
{
//=================================================================================================
// Enable DMA mode. And using USB 128x8 bytes dual FIFO
//ret=Receive_From_USB_DMA_USB(USB_RW_Buffer_PTR_B,DMA_CHANNEL2);
//RHM ret=Receive_From_USB_DMA_USB(USB_RW_Buffer_PTR_B, USBDMA_CHANNEL1);
ret=Receive_From_USB_DMA_USB(USB_RW_Buffer_PTR_B, USBDMA_CHANNEL3);
if (ret != 0x00)
{
*P_USBD_EPEvntClear=0x0010;
*P_USBD_EPEvent=0x2000; // Bulk OUT NACK Reset
break;
}
*P_USBD_EPEvntClear=0x0010;
*P_USBD_EPEvent=0x2000; // Bulk OUT NACK Reset
if (j==0)
stage = 0;
else
stage = 1;
{
unsigned short *sp = (unsigned short *)USB_RW_Buffer_PTR_B;
if(RHM_FlashBuf) {
for(idx=0; idx<256; idx++) {
RHM_FlashBuf[(j*256)+idx] = *sp++;
}
pflash->bytesAvail += 256;
}
}
USB_RW_Buffer_PTR_Temp = USB_RW_Buffer_PTR_B;
USB_RW_Buffer_PTR_B = USB_RW_Buffer_PTR_A;
USB_RW_Buffer_PTR_A = USB_RW_Buffer_PTR_Temp;
}//j
if(ret != 0x00)
{
CSW_Residue=SCSI_Transfer_Length-j-1;
CSW_Residue=CSW_Residue << 9;
Sense_Code=0x10; //WRITE FAULT
}
else {
CSW_Residue=0;
USB_Status = BULK_IN_NACK; //TEST
RHM_USBreprogBuf_Full = j * 256;
}
} // rhm end LunType_NOR
else { // rhm LunType_RAM
//RHM #ifdef Nand_Used
j=0;
if ((SCSI_LBA + (SCSI_Transfer_Length*512))>ptr_USB_LUN_Write->ulNandSizeSec) //check address overflow
{
Sense_Code = 0x1B;//LOGICAL BLOCK ADDRESS OUT OF RANGE
ret = 1;
goto End;
}
SCSI_LBA += ptr_USB_LUN_Write->ulNandStartAddr;
for(j=0; j<SCSI_Transfer_Length; j++)
{
//=================================================================================================
// Enable DMA mode. And using USB 128x8 bytes dual FIFO
//ret=Receive_From_USB_DMA_USB(USB_RW_Buffer_PTR_B,DMA_CHANNEL2);
//RHM ret=Receive_From_USB_DMA_USB(USB_RW_Buffer_PTR_B, USBDMA_CHANNEL1);
ret=Receive_From_USB_DMA_USB(USB_RW_Buffer_PTR_B, USBDMA_CHANNEL3);
if (ret != 0x00)
{
*P_USBD_EPEvntClear=0x0010;
*P_USBD_EPEvent=0x2000; // Bulk OUT NACK Reset
break;
}
*P_USBD_EPEvntClear=0x0010;
*P_USBD_EPEvent=0x2000; // Bulk OUT NACK Reset
if (j==0)
stage = 0;
else
stage = 1;
// if (!Erro_Flag)
//RHM ret1 = _NAND_WriteSector_USB((unsigned long)SCSI_LBA+j, 1, (unsigned long)USB_RW_Buffer_PTR_B,(unsigned int)USBDMA_CHANNEL0,stage);
memcpy(SCSI_LBA+(j*256), (unsigned long)USB_RW_Buffer_PTR_B, 256);
// if (ret1 != 0x00)
// break;
USB_RW_Buffer_PTR_Temp = USB_RW_Buffer_PTR_B;
USB_RW_Buffer_PTR_B = USB_RW_Buffer_PTR_A;
USB_RW_Buffer_PTR_A = USB_RW_Buffer_PTR_Temp;
}//j
if(ret != 0x00)
{
CSW_Residue=SCSI_Transfer_Length-j-1;
CSW_Residue=CSW_Residue << 9;
Sense_Code=0x10; //WRITE FAULT
}
else
CSW_Residue=0;
//RHM #endif
}
End:
#ifdef OS_vension
FreeChannel(USBDMA_CHANNEL0);
FreeChannel(USBDMA_CHANNEL1);
FreeChannel(USBDMA_CHANNEL2);
FreeChannel(USBDMA_CHANNEL3);
#endif
return ret;
}
nsresult
MediaEngineWebRTCMicrophoneSource::UpdateSingleSource(
const AllocationHandle* aHandle,
const NormalizedConstraints& aNetConstraints,
const MediaEnginePrefs& aPrefs,
const nsString& aDeviceId,
const char** aOutBadConstraint)
{
FlattenedConstraints c(aNetConstraints);
MediaEnginePrefs prefs = aPrefs;
prefs.mAecOn = c.mEchoCancellation.Get(prefs.mAecOn);
prefs.mAgcOn = c.mAutoGainControl.Get(prefs.mAgcOn);
prefs.mNoiseOn = c.mNoiseSuppression.Get(prefs.mNoiseOn);
uint32_t maxChannels = 1;
if (mAudioInput->GetMaxAvailableChannels(maxChannels) != 0) {
return NS_ERROR_FAILURE;
}
// Check channelCount violation
if (static_cast<int32_t>(maxChannels) < c.mChannelCount.mMin ||
static_cast<int32_t>(maxChannels) > c.mChannelCount.mMax) {
*aOutBadConstraint = "channelCount";
return NS_ERROR_FAILURE;
}
// Clamp channelCount to a valid value
if (prefs.mChannels <= 0) {
prefs.mChannels = static_cast<int32_t>(maxChannels);
}
prefs.mChannels = c.mChannelCount.Get(std::min(prefs.mChannels,
static_cast<int32_t>(maxChannels)));
// Clamp channelCount to a valid value
prefs.mChannels = std::max(1, std::min(prefs.mChannels, static_cast<int32_t>(maxChannels)));
LOG(("Audio config: aec: %d, agc: %d, noise: %d, delay: %d, channels: %d",
prefs.mAecOn ? prefs.mAec : -1,
prefs.mAgcOn ? prefs.mAgc : -1,
prefs.mNoiseOn ? prefs.mNoise : -1,
prefs.mPlayoutDelay,
prefs.mChannels));
mPlayoutDelay = prefs.mPlayoutDelay;
switch (mState) {
case kReleased:
MOZ_ASSERT(aHandle);
if (sChannelsOpen == 0) {
if (!InitEngine()) {
LOG(("Audio engine is not initalized"));
return NS_ERROR_FAILURE;
}
} else {
// Until we fix (or wallpaper) support for multiple mic input
// (Bug 1238038) fail allocation for a second device
return NS_ERROR_FAILURE;
}
if (mAudioInput->SetRecordingDevice(mCapIndex)) {
return NS_ERROR_FAILURE;
}
mAudioInput->SetUserChannelCount(prefs.mChannels);
if (!AllocChannel()) {
FreeChannel();
LOG(("Audio device is not initalized"));
return NS_ERROR_FAILURE;
}
LOG(("Audio device %d allocated", mCapIndex));
{
// Update with the actual applied channelCount in order
// to store it in settings.
uint32_t channelCount = 0;
mAudioInput->GetChannelCount(channelCount);
MOZ_ASSERT(channelCount > 0);
prefs.mChannels = channelCount;
}
break;
case kStarted:
if (prefs == mLastPrefs) {
return NS_OK;
}
if (prefs.mChannels != mLastPrefs.mChannels) {
MOZ_ASSERT(mSources.Length() > 0);
auto& source = mSources.LastElement();
mAudioInput->SetUserChannelCount(prefs.mChannels);
// Get validated number of channel
uint32_t channelCount = 0;
mAudioInput->GetChannelCount(channelCount);
MOZ_ASSERT(channelCount > 0 && mLastPrefs.mChannels > 0);
// Check if new validated channels is the same as previous
if (static_cast<uint32_t>(mLastPrefs.mChannels) != channelCount
&& !source->OpenNewAudioCallbackDriver(mListener)) {
return NS_ERROR_FAILURE;
}
// Update settings
prefs.mChannels = channelCount;
}
if (MOZ_LOG_TEST(GetMediaManagerLog(), LogLevel::Debug)) {
MonitorAutoLock lock(mMonitor);
if (mSources.IsEmpty()) {
LOG(("Audio device %d reallocated", mCapIndex));
} else {
LOG(("Audio device %d allocated shared", mCapIndex));
}
}
break;
default:
LOG(("Audio device %d in ignored state %d", mCapIndex, mState));
break;
}
if (sChannelsOpen > 0) {
int error;
error = mVoEProcessing->SetEcStatus(prefs.mAecOn, (webrtc::EcModes)prefs.mAec);
if (error) {
LOG(("%s Error setting Echo Status: %d ",__FUNCTION__, error));
// Overhead of capturing all the time is very low (<0.1% of an audio only call)
if (prefs.mAecOn) {
error = mVoEProcessing->SetEcMetricsStatus(true);
if (error) {
LOG(("%s Error setting Echo Metrics: %d ",__FUNCTION__, error));
}
}
}
error = mVoEProcessing->SetAgcStatus(prefs.mAgcOn, (webrtc::AgcModes)prefs.mAgc);
if (error) {
LOG(("%s Error setting AGC Status: %d ",__FUNCTION__, error));
}
error = mVoEProcessing->SetNsStatus(prefs.mNoiseOn, (webrtc::NsModes)prefs.mNoise);
if (error) {
LOG(("%s Error setting NoiseSuppression Status: %d ",__FUNCTION__, error));
}
}
mSkipProcessing = !(prefs.mAecOn || prefs.mAgcOn || prefs.mNoiseOn);
if (mSkipProcessing) {
mSampleFrequency = MediaEngine::USE_GRAPH_RATE;
mAudioOutputObserver = nullptr;
} else {
// make sure we route a copy of the mixed audio output of this MSG to the
// AEC
mAudioOutputObserver = new AudioOutputObserver();
}
SetLastPrefs(prefs);
return NS_OK;
}
nsresult
MediaEngineWebRTCMicrophoneSource::UpdateSingleSource(
const AllocationHandle* aHandle,
const NormalizedConstraints& aNetConstraints,
const MediaEnginePrefs& aPrefs,
const nsString& aDeviceId,
const char** aOutBadConstraint)
{
FlattenedConstraints c(aNetConstraints);
MediaEnginePrefs prefs = aPrefs;
prefs.mAecOn = c.mEchoCancellation.Get(prefs.mAecOn);
prefs.mAgcOn = c.mAutoGainControl.Get(prefs.mAgcOn);
prefs.mNoiseOn = c.mNoiseSuppression.Get(prefs.mNoiseOn);
LOG(("Audio config: aec: %d, agc: %d, noise: %d, delay: %d",
prefs.mAecOn ? prefs.mAec : -1,
prefs.mAgcOn ? prefs.mAgc : -1,
prefs.mNoiseOn ? prefs.mNoise : -1,
prefs.mPlayoutDelay));
mPlayoutDelay = prefs.mPlayoutDelay;
switch (mState) {
case kReleased:
MOZ_ASSERT(aHandle);
if (sChannelsOpen == 0) {
if (!InitEngine()) {
LOG(("Audio engine is not initalized"));
return NS_ERROR_FAILURE;
}
} else {
// Until we fix (or wallpaper) support for multiple mic input
// (Bug 1238038) fail allocation for a second device
return NS_ERROR_FAILURE;
}
if (!AllocChannel()) {
LOG(("Audio device is not initalized"));
return NS_ERROR_FAILURE;
}
if (mAudioInput->SetRecordingDevice(mCapIndex)) {
FreeChannel();
return NS_ERROR_FAILURE;
}
LOG(("Audio device %d allocated", mCapIndex));
break;
case kStarted:
if (prefs == mLastPrefs) {
return NS_OK;
}
if (MOZ_LOG_TEST(GetMediaManagerLog(), LogLevel::Debug)) {
MonitorAutoLock lock(mMonitor);
if (mSources.IsEmpty()) {
LOG(("Audio device %d reallocated", mCapIndex));
} else {
LOG(("Audio device %d allocated shared", mCapIndex));
}
}
break;
default:
LOG(("Audio device %d in ignored state %d", mCapIndex, mState));
break;
}
if (sChannelsOpen > 0) {
int error;
error = mVoEProcessing->SetEcStatus(prefs.mAecOn, (webrtc::EcModes)prefs.mAec);
if (error) {
LOG(("%s Error setting Echo Status: %d ",__FUNCTION__, error));
// Overhead of capturing all the time is very low (<0.1% of an audio only call)
if (prefs.mAecOn) {
error = mVoEProcessing->SetEcMetricsStatus(true);
if (error) {
LOG(("%s Error setting Echo Metrics: %d ",__FUNCTION__, error));
}
}
}
error = mVoEProcessing->SetAgcStatus(prefs.mAgcOn, (webrtc::AgcModes)prefs.mAgc);
if (error) {
LOG(("%s Error setting AGC Status: %d ",__FUNCTION__, error));
}
error = mVoEProcessing->SetNsStatus(prefs.mNoiseOn, (webrtc::NsModes)prefs.mNoise);
if (error) {
LOG(("%s Error setting NoiseSuppression Status: %d ",__FUNCTION__, error));
}
}
mSkipProcessing = !(prefs.mAecOn || prefs.mAgcOn || prefs.mNoiseOn);
if (mSkipProcessing) {
mSampleFrequency = MediaEngine::USE_GRAPH_RATE;
}
SetLastPrefs(prefs);
return NS_OK;
}
void CDWHCIDevice::ChannelInterruptHandler (unsigned nChannel)
{
CDWHCITransferStageData *pStageData = m_pStageData[nChannel];
assert (pStageData != 0);
CUSBRequest *pURB = pStageData->GetURB ();
assert (pURB != 0);
switch (pStageData->GetSubState ())
{
case StageSubStateWaitForChannelDisable:
StartChannel (pStageData);
return;
case StageSubStateWaitForTransactionComplete: {
CleanDataCache ();
InvalidateDataCache ();
DataMemBarrier ();
CDWHCIRegister TransferSize (DWHCI_HOST_CHAN_XFER_SIZ (nChannel));
TransferSize.Read ();
CDWHCIRegister ChanInterrupt (DWHCI_HOST_CHAN_INT (nChannel));
assert ( !pStageData->IsPeriodic ()
|| DWHCI_HOST_CHAN_XFER_SIZ_PID (TransferSize.Get ())
!= DWHCI_HOST_CHAN_XFER_SIZ_PID_MDATA);
pStageData->TransactionComplete (ChanInterrupt.Read (),
DWHCI_HOST_CHAN_XFER_SIZ_PACKETS (TransferSize.Get ()),
TransferSize.Get () & DWHCI_HOST_CHAN_XFER_SIZ_BYTES__MASK);
} break;
default:
assert (0);
break;
}
unsigned nStatus;
switch (pStageData->GetState ())
{
case StageStateNoSplitTransfer:
nStatus = pStageData->GetTransactionStatus ();
if (nStatus & DWHCI_HOST_CHAN_INT_ERROR_MASK)
{
CLogger::Get ()->Write (FromDWHCI, LogError,
"Transaction failed (status 0x%X)", nStatus);
pURB->SetStatus (0);
}
else if ( (nStatus & (DWHCI_HOST_CHAN_INT_NAK | DWHCI_HOST_CHAN_INT_NYET))
&& pStageData->IsPeriodic ())
{
pStageData->SetState (StageStatePeriodicDelay);
unsigned nInterval = pURB->GetEndpoint ()->GetInterval ();
m_pTimer->StartKernelTimer (MSEC2HZ (nInterval), TimerStub, pStageData, this);
break;
}
else
{
if (!pStageData->IsStatusStage ())
{
pURB->SetResultLen (pStageData->GetResultLen ());
}
pURB->SetStatus (1);
}
DisableChannelInterrupt (nChannel);
delete pStageData;
m_pStageData[nChannel] = 0;
FreeChannel (nChannel);
pURB->CallCompletionRoutine ();
break;
case StageStateStartSplit:
nStatus = pStageData->GetTransactionStatus ();
if ( (nStatus & DWHCI_HOST_CHAN_INT_ERROR_MASK)
|| (nStatus & DWHCI_HOST_CHAN_INT_NAK)
|| (nStatus & DWHCI_HOST_CHAN_INT_NYET))
{
CLogger::Get ()->Write (FromDWHCI, LogError,
"Transaction failed (status 0x%X)", nStatus);
pURB->SetStatus (0);
DisableChannelInterrupt (nChannel);
delete pStageData;
m_pStageData[nChannel] = 0;
FreeChannel (nChannel);
pURB->CallCompletionRoutine ();
break;
}
pStageData->GetFrameScheduler ()->TransactionComplete (nStatus);
pStageData->SetState (StageStateCompleteSplit);
pStageData->SetSplitComplete (TRUE);
if (!pStageData->GetFrameScheduler ()->CompleteSplit ())
{
goto LeaveCompleteSplit;
}
StartTransaction (pStageData);
break;
case StageStateCompleteSplit:
nStatus = pStageData->GetTransactionStatus ();
if (nStatus & DWHCI_HOST_CHAN_INT_ERROR_MASK)
{
CLogger::Get ()->Write (FromDWHCI, LogError,
"Transaction failed (status 0x%X)", nStatus);
pURB->SetStatus (0);
DisableChannelInterrupt (nChannel);
delete pStageData;
m_pStageData[nChannel] = 0;
FreeChannel (nChannel);
pURB->CallCompletionRoutine ();
break;
}
pStageData->GetFrameScheduler ()->TransactionComplete (nStatus);
if (pStageData->GetFrameScheduler ()->CompleteSplit ())
{
StartTransaction (pStageData);
break;
}
LeaveCompleteSplit:
if (!pStageData->IsStageComplete ())
{
if (!pStageData->BeginSplitCycle ())
{
pURB->SetStatus (0);
DisableChannelInterrupt (nChannel);
delete pStageData;
m_pStageData[nChannel] = 0;
FreeChannel (nChannel);
pURB->CallCompletionRoutine ();
break;
}
if (!pStageData->IsPeriodic ())
{
pStageData->SetState (StageStateStartSplit);
pStageData->SetSplitComplete (FALSE);
pStageData->GetFrameScheduler ()->StartSplit ();
StartTransaction (pStageData);
}
else
{
pStageData->SetState (StageStatePeriodicDelay);
unsigned nInterval = pURB->GetEndpoint ()->GetInterval ();
m_pTimer->StartKernelTimer (MSEC2HZ (nInterval),
TimerStub, pStageData, this);
}
break;
}
DisableChannelInterrupt (nChannel);
if (!pStageData->IsStatusStage ())
{
pURB->SetResultLen (pStageData->GetResultLen ());
}
pURB->SetStatus (1);
delete pStageData;
m_pStageData[nChannel] = 0;
FreeChannel (nChannel);
pURB->CallCompletionRoutine ();
break;
default:
assert (0);
break;
}
}
void PlayField::MessageReceived(void){
int cnt = GetReceivedCount();
char *buf = (char*)GetReceivedBuffer();
for(int n=0; n<cnt; n++){
switch(GetReceivedCommand(n)){
case INPUT_DIGITAL_DOWN:{
if(!buf){
printf("PlayField::MessageReceived: No buffer!\n");
break;
}
int len = *(int16*)buf;
buf+=sizeof(int16);
char *str = new char[len+1];
for(int n=0; n<len; n++) str[n]=*buf++;
str[len]='\0';
// printf("%s down\n",str);
char *key = &str[1];
int chan = 0;
bool done = false;
do{
switch(*key++){
case '0': chan*=10; break;
case '1': chan*=10; chan+=1; break;
case '2': chan*=10; chan+=2; break;
case '3': chan*=10; chan+=3; break;
case '4': chan*=10; chan+=4; break;
case '5': chan*=10; chan+=5; break;
case '6': chan*=10; chan+=6; break;
case '7': chan*=10; chan+=7; break;
case '8': chan*=10; chan+=8; break;
case '9': chan*=10; chan+=9; break;
default: done=true;
}
}while(!done);
if(chan>=channels->GetCount()){
// printf("PlayField::MessageReceived(): Channel overflow!\n");
delete str;
return;
}
// printf("%s(%d) down\n",key,chan);
if(!strcmp(key,"!Hook")){
//printf("PlayField: hookof %d\n",chan);
#ifndef SINGLE_LINE_TEST
if(GetChannel(chan)) printf("PlayField: Channel allready active (%d)!\n",chan);
else{
#endif
//((Player*)players->GetItem(0))->Logon();
Player *player = AllocateChannel(chan);
player->Logon();
#ifndef SINGLE_LINE_TEST
}
#endif
}
else if(!strcmp(key,"1")){ if(GetChannel(chan)) ((Player*)GetChannel(chan))->Lock(0); }
else if(!strcmp(key,"2")){ if(GetChannel(chan)) ((Player*)GetChannel(chan))->Lock(1); }
else if(!strcmp(key,"3")){ if(GetChannel(chan)) ((Player*)GetChannel(chan))->Lock(2); }
else if(!strcmp(key,"4")){ if(GetChannel(chan)) ((Player*)GetChannel(chan))->Lock(3); }
else if(!strcmp(key,"5")){ if(GetChannel(chan)) ((Player*)GetChannel(chan))->Spinn(); }
if(GetChannel(chan)) ((Player*)GetChannel(chan))->DigitDown(key);
/*
if(!strcmp(key,"!Hook")) state[chan] = '!';
if(!strcmp(key,"0")) state[chan] = '0';
if(!strcmp(key,"1")) state[chan] = '1';
if(!strcmp(key,"2")) state[chan] = '2';
if(!strcmp(key,"3")) state[chan] = '3';
if(!strcmp(key,"4")) state[chan] = '4';
if(!strcmp(key,"5")) state[chan] = '5';
if(!strcmp(key,"6")) state[chan] = '6';
if(!strcmp(key,"7")) state[chan] = '7';
if(!strcmp(key,"8")) state[chan] = '8';
if(!strcmp(key,"9")) state[chan] = '9';
if(!strcmp(key,"#")) state[chan] = '#';
if(!strcmp(key,"*")) state[chan] = '*';
*/
delete str;
}break;
case INPUT_DIGITAL_UP:{
if(!buf){
printf("PlayField::MessageReceived: No buffer!\n");
break;
}
int len = *(int16*)buf;
buf+=sizeof(int16);
char *str = new char[len+1];
for(int n=0; n<len; n++) str[n]=*buf++;
str[len]='\0';
// printf("%s up\n",str);
char *key = &str[1];
int chan = 0;
bool done = false;
do{
switch(*key++){
case '0': chan*=10; break;
case '1': chan*=10; chan+=1; break;
case '2': chan*=10; chan+=2; break;
case '3': chan*=10; chan+=3; break;
case '4': chan*=10; chan+=4; break;
case '5': chan*=10; chan+=5; break;
case '6': chan*=10; chan+=6; break;
case '7': chan*=10; chan+=7; break;
case '8': chan*=10; chan+=8; break;
case '9': chan*=10; chan+=9; break;
default: done=true;
}
}while(!done);
if(chan>=channels->GetCount()){
// printf("PlayField::MessageReceived(): Channel overflow!\n");
delete str;
return;
}
// printf("%s(%d) up\n",key,chan);
// if(!strcmp(key,"!Hook")) ((Player*)players->GetItem(0))->Logout();
if(GetChannel(chan)) ((Player*)GetChannel(chan))->DigitUp(key);
#ifndef SINGLE_LINE_TEST
if(!strcmp(key,"!Hook")){
//printf("PlayField: hookon %d\n",chan);
Player *player = GetChannel(chan);
if(player){
player->Logout();
FreeChannel(chan);
}else printf("PlayField: No player in channel %d!\n",chan);
}
#endif
/*
if(!strcmp(key,"!Hook")) state[chan] = '-';
else
if(!strcmp(key,"0")) state[chan] = '!';
if(!strcmp(key,"1")) state[chan] = '!';
if(!strcmp(key,"2")) state[chan] = '!';
if(!strcmp(key,"3")) state[chan] = '!';
if(!strcmp(key,"4")) state[chan] = '!';
if(!strcmp(key,"5")) state[chan] = '!';
if(!strcmp(key,"6")) state[chan] = '!';
if(!strcmp(key,"7")) state[chan] = '!';
if(!strcmp(key,"8")) state[chan] = '!';
if(!strcmp(key,"9")) state[chan] = '!';
if(!strcmp(key,"#")) state[chan] = '!';
if(!strcmp(key,"*")) state[chan] = '!';
*/
delete str;
}break;
}
}
}
void BassSoundEngine::StopAllMusic(bool alphaout)
{
for(int i = 0; i < nowChannel; i++)
FreeChannel(i, !alphaout);
}
void BassSoundEngine::StopMusic(CHANNEL Ichannel, bool alphaout)
{
FreeChannel(Ichannel, !alphaout);
}
/********************************************************************************************
* OpenChannel
* purpose : Open an outgoing channel
* input : Call - Call to associate with the channel
* MediaType - Type of media to use for the channel
* DataType - Data type parameter for the channel
* MimicChannel - Pointer of a channel we mimic. NULL if not mimicing
* ReplaceChannel - Pointer of a channel we replace. NULL not replacing
* output : none
* return : TCL_OK on success
********************************************************************************************/
int OpenChannel(CallInfo * Call,
char * DataType,
ChannelInfo * MimicChannel,
ChannelInfo * ReplaceChannel)
{
ChannelInfo* NewChan;
int status;
/* Make sure we're not in an endless loop of mimicing channels */
if (MimicChannel != NULL)
{
HAPPCHAN haSameSession = NULL;
HCHAN hsSameSession = NULL;
cmChannelSameSession(MimicChannel->hChan, &haSameSession, &hsSameSession);
if(haSameSession != NULL) return 0;
}
/* Increase the number of channels for this call */
NewChan = ChannelCreate(NULL, TRUE, FALSE, Call);
/* Create and open channel */
status = cmChannelNew(Call->hsCall, (HAPPCHAN) NewChan, (LPHCHAN)&NewChan->hChan);
if (status >= 0)
{
/* See if we're mimicing this channel */
if (MimicChannel == NULL)
{
/* Open an RTP session for this channel */
if(Call->action == RTP_Replay)
NewChan->rtpSession = RTP_TestOpen("testChannel");
if (ReplaceChannel != NULL)
cmChannelReplace(NewChan->hChan, ReplaceChannel->hChan);
}
else
{
/* Channel is mimiced */
NewChan->rtpSession = MimicChannel->rtpSession;
RTP_TestSetAction(NewChan->rtpSession, Call->action);
RTP_TestOpenSecondChannel(NewChan->rtpSession);
}
/* set RTCP address and open the channel*/
if (DataType[0] == 't')
{
/* Data channel (Duplex) */
cmTransportAddress ta={0,0x0e2472c0,(UINT16)1503/*port*/,cmTransportTypeIP};
cmChannelDuplex(NewChan->hChan);
cmChannelSetDuplexAddress(NewChan->hChan,ta,1,(char *)"1",FALSE);
}
else
cmChannelSetRTCPAddress(NewChan->hChan, 0,
(UINT16) (RTP_TestGetLocalPort(NewChan->rtpSession) + 1));
/* set data type */
strncpy(NewChan->dataType, DataType, sizeof(NewChan->dataType));
if (MimicChannel)
{
if (MimicChannel->dynPayloadType != 0)
cmChannelSetDynamicRTPPayloadType(NewChan->hChan, MimicChannel->dynPayloadType);
/* Since this is a mimiced channel, we'll open it in exactly the same manner as the original channel */
status = cmChannelOpenDynamic(NewChan->hChan, MimicChannel->dataTypeNode, MimicChannel->hChan, NULL, FALSE);
}
else
status = cmChannelOpen(NewChan->hChan, DataType, NULL, NULL, 0);
TclExecute("call:Log %d {ChannelOpen. result=%s}", Call->counter, Status2String(status));
}
else
{
FreeChannel(NewChan);
TclExecute("call:Log %d {ChannelNew. result=%s}", Call->counter, Status2String(status));
}
/* Add the new channel to the channels list on the main window */
return DisplayChannelList(Call, NULL);
}
/********************************************************************************************
* cmEvChannelStateChanged
* purpose : the function that invoked when event ChannelStateChange occurs
* input : haChan - Channel struct of the application
* : hsChan - handle for the channel
* : state - current state of the channel
* : stateMode - New state mode. This parameter describes why or how the channel
* enters a new state
* output : none
* return : negative on error
********************************************************************************************/
int RVCALLCONV cmEvChannelStateChanged(IN HAPPCHAN haChan,
IN HCHAN hsChan,
IN UINT32 state,
IN UINT32 stateMode)
{
ChannelInfo* CurrentChannel;
CallInfo* Call;
int AutoAction;
int isDuplex;
BOOL isOutgoing;
CurrentChannel = (ChannelInfo *)haChan;
Call = CurrentChannel->call;
CurrentChannel->state = (cmChannelState_e)state;
if (CurrentChannel->scriptChannel == TRUE)
{
/* Advanced script handling */
TclExecute("script:cb {cb:cm:EvChannelStateChanged 0x%p %s %s}",
CurrentChannel,
CMChannelState2String((cmChannelState_e)state),
CMChannelStateMode2String((cmChannelStateMode_e)stateMode));
if (state == cmChannelStateIdle)
{
FreeChannel(CurrentChannel);
if(Call->numOfChannels >= 0)
/* Redisplay the list of channels */
DisplayChannelList(Call, NULL);
}
return 0;
}
/* get channelid and direction and afterwards searching the channel in the channels array */
cmChannelGetOrigin(hsChan, &isOutgoing);
isDuplex = cmChannelIsDuplex(hsChan);
switch (state)
{
case cmChannelStateOffering:
{
HCHAN hsChanSS = NULL;
HAPPCHAN haChanSS = NULL;
CurrentChannel->channelId = cmChannelSessionId(hsChan);
cmChannelSameSession(hsChan, &haChanSS, &hsChanSS);
/* Check to see if this channel has another of the same session, which was not already
connected to it in cmEvCallNewChannel, and which has an RTP session */
if((hsChanSS) && (Call->action == RTP_Replay) &&
(CurrentChannel->rtpSession != ((ChannelInfo *) haChanSS)->rtpSession) &&
(((ChannelInfo *) haChanSS)->rtpSession >= 0))
{
if (CurrentChannel->rtpSession >= 0)
{
/* We've got an open session already - add it as a second channel to that session.
This happens when we're the side that initiated the OLC, which never happens for
the test application with real media. */
RTP_TestClose(CurrentChannel->rtpSession);
}
CurrentChannel->rtpSession = ((ChannelInfo *) haChanSS)->rtpSession;
RTP_TestSetAction(CurrentChannel->rtpSession, Call->action);
RTP_TestOpenSecondChannel(CurrentChannel->rtpSession);
}
/* Make sure we open the incoming channel window */
AutoAction = atoi(TclGetVariable("app(options,autoAccept)"));
if (AutoAction == 1)
{
/* Automatically accept the channel */
cmChannelSetAddress(CurrentChannel->hChan,0,(UINT16)(RTP_TestGetLocalPort(CurrentChannel->rtpSession)));
cmChannelSetRTCPAddress(CurrentChannel->hChan,0,(UINT16)(RTP_TestGetLocalPort(CurrentChannel->rtpSession) + 1));
cmChannelAnswer(CurrentChannel->hChan);
/* Mimic channel opening if we have to */
AutoMimic(CurrentChannel);
}
else if (atoi(TclGetVariable("app(options,popUp)")) != 0)
{
/* Manually open the channel (ask user to accept it) */
TclExecute("Window open .inchan");
TclExecute(".inchan.callInfo configure -text {0x%p}",
CurrentChannel);
TclExecute("Call:addWindowToList 0x%p .inchan", Call);
/* Display channel information inside the listbox */
DisplayChannelInfo(CurrentChannel, (char *)".inchan.chanInfo.txt");
}
break;
}
case cmChannelStateConnected:
{
/* Update the channel ID now that the channel is connected */
CurrentChannel->channelId = cmChannelSessionId(hsChan);
/* terminate the inchan window */
TclExecute("inchan:terminate {0x%p}", CurrentChannel);
if (CurrentChannel->isOutgoing)
{
/* todo: Put RTP information here using a timer of 4/5 seconds */
}
break;
}
case cmChannelStateDisconnected:
{
break;
}
case cmChannelStateDialtone:
{
break;
}
case cmChannelStateRingBack:
{
break;
}
case cmChannelStateIdle:
{
/* terminate the dropchan window */
TclExecute("inchan:terminate {0x%p}", CurrentChannel);
/* free and close the channel */
FreeChannel(CurrentChannel);
break;
}
default:
{
break;
}
}
/* Redisplay the list of channels */
DisplayChannelList(Call, NULL);
return 0;
}
void NetManager::ProcNewConnection()
{
std::deque<NetChannelBase*> tmpQueue;
{
AUTOLOCK( m_mutexChannels);
tmpQueue.swap(m_newSocketQueue);
}
while (!tmpQueue.empty())
{
NetChannelBase* pChannel = tmpQueue.front();
assert( pChannel);
int32 nSocketID = AddChannel( pChannel );
if(nSocketID < 0)
{
// channel list is full , can't add another one
MyLog::warning("NetManager::ProcNewConnection() socket list is full");
break;
}
pChannel->StartChannel();
OnChannelStart( pChannel );
if(pChannel->m_bCreateByAccept)
{
if(m_AcceptCallBack)
(*m_AcceptCallBack)(nSocketID);
}
else
{
if(m_ConnectCallBack)
(*m_ConnectCallBack)(nSocketID);
}
tmpQueue.pop_front();
if(pChannel->m_hProcNewNotify.IsValid())
pChannel->m_hProcNewNotify.SetEvent();
FreeChannel( pChannel );
}
// failed process
while (!tmpQueue.empty())
{
NetChannelBase* pChannel = tmpQueue.front();
tmpQueue.pop_front();
assert(pChannel);
if(pChannel->m_hProcNewNotify.IsValid())
{
AUTOLOCK(m_mutexChannels);
m_newSocketQueue.push_back( pChannel );
}
else
{
SockAddr addr;
pChannel->GetAddr( addr );
MyLog::warning("NetManager::ProcNewConnection() drop new socket (%s:%d)", addr.GetIP().c_str(), addr.GetPort());
FreeChannel(pChannel);
}
}
}
