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add support for channel selection for MacOS

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This commit is contained in:
Volker Fischer 2015-11-19 19:36:47 +00:00
parent d5bcb0fc1a
commit 3d647400db
4 changed files with 304 additions and 77 deletions
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11
ChangeLog
View file

@ -1,3 +1,14 @@
3.3.11
- changed the MacOS audio interface to be future proof (do not use
the Carbon Component Manager anymore)
3.3.10
- changed the default central server URL

341
mac/sound.cpp
View file

@ -66,7 +66,7 @@ CSound::CSound ( void (*fpNewProcessCallback) ( CVector<short>& psData, void* ar
NULL,
&iPropertySize );
AudioDeviceID* audioDevices = (AudioDeviceID*) malloc ( iPropertySize );
CVector<AudioDeviceID> vAudioDevices ( iPropertySize );
// now actually query all devices present in the system
AudioObjectGetPropertyData ( kAudioObjectSystemObject,
@ -74,10 +74,10 @@ CSound::CSound ( void (*fpNewProcessCallback) ( CVector<short>& psData, void* ar
0,
NULL,
&iPropertySize,
audioDevices );
&vAudioDevices[0] );
// calculate device count based on size of returned data array
const UInt32 deviceCount = iPropertySize / sizeof ( AudioDeviceID );
const UInt32 iDeviceCount = iPropertySize / sizeof ( AudioDeviceID );
// always add system default devices for input and output as first entry
lNumDevs = 0;
@ -118,9 +118,9 @@ CSound::CSound ( void (*fpNewProcessCallback) ( CVector<short>& psData, void* ar
// we add combined entries for input and output for each device so that we
// do not need two combo boxes in the GUI for input and output (therefore
// all possible combinations are required which can be a large number)
for ( UInt32 i = 0; i < deviceCount; i++ )
for ( UInt32 i = 0; i < iDeviceCount; i++ )
{
for ( UInt32 j = 0; j < deviceCount; j++ )
for ( UInt32 j = 0; j < iDeviceCount; j++ )
{
// get device infos for both current devices
QString strDeviceName_i;
@ -130,12 +130,12 @@ CSound::CSound ( void (*fpNewProcessCallback) ( CVector<short>& psData, void* ar
bool bIsOutput_i;
bool bIsOutput_j;
GetAudioDeviceInfos ( audioDevices[i],
GetAudioDeviceInfos ( vAudioDevices[i],
strDeviceName_i,
bIsInput_i,
bIsOutput_i );
GetAudioDeviceInfos ( audioDevices[j],
GetAudioDeviceInfos ( vAudioDevices[j],
strDeviceName_j,
bIsInput_j,
bIsOutput_j );
@ -149,19 +149,18 @@ CSound::CSound ( void (*fpNewProcessCallback) ( CVector<short>& psData, void* ar
strDeviceName_j;
// store audio device IDs
audioInputDevice[lNumDevs] = audioDevices[i];
audioOutputDevice[lNumDevs] = audioDevices[j];
audioInputDevice[lNumDevs] = vAudioDevices[i];
audioOutputDevice[lNumDevs] = vAudioDevices[j];
lNumDevs++; // next device
}
}
}
free ( audioDevices );
// init device index as not initialized (invalid)
lCurDev = INVALID_SNC_CARD_DEVICE;
CurrentAudioInputDeviceID = 0;
lCurDev = INVALID_SNC_CARD_DEVICE;
CurrentAudioInputDeviceID = 0;
CurrentAudioOutputDeviceID = 0;
}
void CSound::GetAudioDeviceInfos ( const AudioDeviceID DeviceID,
@ -173,15 +172,15 @@ void CSound::GetAudioDeviceInfos ( const AudioDeviceID DeviceID,
AudioObjectPropertyAddress stPropertyAddress;
// init return values
strDeviceName = "UNKNOWN"; // init value in case no name is available
bIsInput = false;
bIsOutput = false;
bIsInput = false;
bIsOutput = false;
// check if device is input or output or both (is that possible?)
stPropertyAddress.mSelector = kAudioDevicePropertyStreams;
stPropertyAddress.mElement = kAudioObjectPropertyElementMaster;
// input check
iPropertySize = 0;
stPropertyAddress.mScope = kAudioDevicePropertyScopeInput;
AudioObjectGetPropertyDataSize ( DeviceID,
@ -193,6 +192,7 @@ void CSound::GetAudioDeviceInfos ( const AudioDeviceID DeviceID,
bIsInput = ( iPropertySize > 0 ); // check if any input streams are available
// output check
iPropertySize = 0;
stPropertyAddress.mScope = kAudioDevicePropertyScopeOutput;
AudioObjectGetPropertyDataSize ( DeviceID,
@ -217,22 +217,11 @@ void CSound::GetAudioDeviceInfos ( const AudioDeviceID DeviceID,
&iPropertySize,
&sPropertyStringValue );
// first check if the string is not empty
if ( CFStringGetLength ( sPropertyStringValue ) > 0 )
// convert string
if ( !ConvertCFStringToQString ( sPropertyStringValue, strDeviceName ) )
{
// convert CFString in c-string (quick hack!) and then in QString
char* sC_strPropValue =
(char*) malloc ( CFStringGetLength ( sPropertyStringValue ) + 1 );
if ( CFStringGetCString ( sPropertyStringValue,
sC_strPropValue,
CFStringGetLength ( sPropertyStringValue ) + 1,
kCFStringEncodingISOLatin1 ) )
{
strDeviceName = sC_strPropValue;
}
free ( sC_strPropValue );
// use a default name in case the conversion did not succeed
strDeviceName = "UNKNOWN";
}
}
@ -245,8 +234,16 @@ QString CSound::LoadAndInitializeDriver ( int iDriverIdx )
if ( strStat.isEmpty() )
{
// store ID of selected driver if initialization was successful
lCurDev = iDriverIdx;
CurrentAudioInputDeviceID = audioInputDevice[iDriverIdx];
lCurDev = iDriverIdx;
CurrentAudioInputDeviceID = audioInputDevice[iDriverIdx];
CurrentAudioOutputDeviceID = audioOutputDevice[iDriverIdx];
// the device has changed, per definition we reset the channel
// mapping to the defaults (first two available channels)
iSelInputLeftChannel = 0;
iSelInputRightChannel = min ( iNumInChan - 1, 1 );
iSelOutputLeftChannel = 0;
iSelOutputRightChannel = min ( iNumOutChan - 1, 1 );
}
return strStat;
@ -319,59 +316,208 @@ QString CSound::CheckDeviceCapabilities ( const int iDriverIdx )
}
}
// According to the AudioHardware documentation: "If the format is a linear PCM
// format, the data will always be presented as 32 bit, native endian floating
// point. All conversions to and from the true physical format of the hardware
// is handled by the devices driver."
// So we check for the fixed values here.
iPropertySize = sizeof ( AudioStreamBasicDescription );
stPropertyAddress.mSelector = kAudioStreamPropertyVirtualFormat;
// get the stream ID of the input device (at least one stream must always exist)
iPropertySize = 0;
stPropertyAddress.mSelector = kAudioDevicePropertyStreams;
stPropertyAddress.mScope = kAudioObjectPropertyScopeInput;
AudioObjectGetPropertyDataSize ( audioInputDevice[iDriverIdx],
&stPropertyAddress,
0,
NULL,
&iPropertySize );
CVector<AudioStreamID> vInputStreamIDList ( iPropertySize );
AudioObjectGetPropertyData ( audioInputDevice[iDriverIdx],
&stPropertyAddress,
0,
NULL,
&iPropertySize,
&vInputStreamIDList[0] );
const AudioStreamID inputStreamID = vInputStreamIDList[0];
// get the stream ID of the output device (at least one stream must always exist)
iPropertySize = 0;
stPropertyAddress.mSelector = kAudioDevicePropertyStreams;
stPropertyAddress.mScope = kAudioObjectPropertyScopeOutput;
AudioObjectGetPropertyDataSize ( audioOutputDevice[iDriverIdx],
&stPropertyAddress,
0,
NULL,
&iPropertySize );
CVector<AudioStreamID> vOutputStreamIDList ( iPropertySize );
AudioObjectGetPropertyData ( audioOutputDevice[iDriverIdx],
&stPropertyAddress,
0,
NULL,
&iPropertySize,
&vOutputStreamIDList[0] );
const AudioStreamID outputStreamID = vOutputStreamIDList[0];
// According to the AudioHardware documentation: "If the format is a linear PCM
// format, the data will always be presented as 32 bit, native endian floating
// point. All conversions to and from the true physical format of the hardware
// is handled by the devices driver.".
// check the input
iPropertySize = sizeof ( AudioStreamBasicDescription );
stPropertyAddress.mSelector = kAudioStreamPropertyVirtualFormat;
stPropertyAddress.mScope = kAudioObjectPropertyScopeGlobal;
AudioObjectGetPropertyData ( inputStreamID,
&stPropertyAddress,
0,
NULL,
&iPropertySize,
&CurDevStreamFormat );
if ( ( CurDevStreamFormat.mFormatID != kAudioFormatLinearPCM ) ||
( CurDevStreamFormat.mFramesPerPacket != 1 ) ||
( CurDevStreamFormat.mBytesPerFrame != 8 ) ||
( CurDevStreamFormat.mBytesPerPacket != 8 ) ||
( CurDevStreamFormat.mChannelsPerFrame != 2 ) ||
( CurDevStreamFormat.mBitsPerChannel != 32 ) ||
if ( ( CurDevStreamFormat.mFormatID != kAudioFormatLinearPCM ) ||
( CurDevStreamFormat.mFramesPerPacket != 1 ) ||
( CurDevStreamFormat.mBitsPerChannel != 32 ) ||
( !( CurDevStreamFormat.mFormatFlags & kAudioFormatFlagIsFloat ) ) ||
( !( CurDevStreamFormat.mFormatFlags & kAudioFormatFlagIsPacked ) ) )
{
return QString ( tr ( "The audio stream format for this audio device is "
"not compatible with the requirements. Maybe the "
"number of channels is incompatible, e.g., if the "
"device is a mono device or has too many channels. "
"This software requires a stereo device.") );
return tr ( "The audio input stream format for this audio device is "
"not compatible with this software." );
}
/*
// TODO check input device, too!
// It seems that all queried values are zero somehow so the check does not work...
AudioObjectGetPropertyData ( audioInputDevice[iDriverIdx],
&stPropertyAddress,
0,
NULL,
&iPropertySize,
&CurDevStreamFormat );
// store the input number of channels for this stream
iNumInChan = CurDevStreamFormat.mChannelsPerFrame;
qDebug() << "mBitsPerChannel" << CurDevStreamFormat.mBitsPerChannel;
qDebug() << "mBytesPerFrame" << CurDevStreamFormat.mBytesPerFrame;
qDebug() << "mBytesPerPacket" << CurDevStreamFormat.mBytesPerPacket;
qDebug() << "mChannelsPerFrame" << CurDevStreamFormat.mChannelsPerFrame;
qDebug() << "mFramesPerPacket" << CurDevStreamFormat.mFramesPerPacket;
qDebug() << "mSampleRate" << CurDevStreamFormat.mSampleRate;
*/
// check the output
AudioObjectGetPropertyData ( outputStreamID,
&stPropertyAddress,
0,
NULL,
&iPropertySize,
&CurDevStreamFormat );
if ( ( CurDevStreamFormat.mFormatID != kAudioFormatLinearPCM ) ||
( CurDevStreamFormat.mFramesPerPacket != 1 ) ||
( CurDevStreamFormat.mBitsPerChannel != 32 ) ||
( !( CurDevStreamFormat.mFormatFlags & kAudioFormatFlagIsFloat ) ) ||
( !( CurDevStreamFormat.mFormatFlags & kAudioFormatFlagIsPacked ) ) )
{
return tr ( "The audio output stream format for this audio device is "
"not compatible with this software." );
}
// store the output number of channels for this stream
iNumOutChan = CurDevStreamFormat.mChannelsPerFrame;
// clip the number of input/output channels to our allowed maximum
if ( iNumInChan > MAX_NUM_IN_OUT_CHANNELS )
{
iNumInChan = MAX_NUM_IN_OUT_CHANNELS;
}
if ( iNumOutChan > MAX_NUM_IN_OUT_CHANNELS )
{
iNumOutChan = MAX_NUM_IN_OUT_CHANNELS;
}
// get the channel names of the input device
for ( int iCurInCH = 0; iCurInCH < iNumInChan; iCurInCH++ )
{
CFStringRef sPropertyStringValue;
stPropertyAddress.mSelector = kAudioObjectPropertyElementName;
stPropertyAddress.mElement = iCurInCH + 1;
stPropertyAddress.mScope = kAudioObjectPropertyScopeInput;
iPropertySize = sizeof ( CFStringRef );
AudioObjectGetPropertyData ( audioInputDevice[iDriverIdx],
&stPropertyAddress,
0,
NULL,
&iPropertySize,
&sPropertyStringValue );
// convert string
const bool bConvOK = ConvertCFStringToQString ( sPropertyStringValue,
sChannelNamesInput[iCurInCH] );
// use a defalut name in case there was an error or the name is empty
if ( !bConvOK || ( iPropertySize == 0 ) )
{
sChannelNamesInput[iCurInCH] =
QString ( "Channel %1" ).arg ( iCurInCH + 1 );
}
}
// get the channel names of the output device
for ( int iCurOutCH = 0; iCurOutCH < iNumOutChan; iCurOutCH++ )
{
CFStringRef sPropertyStringValue;
stPropertyAddress.mSelector = kAudioObjectPropertyElementName;
stPropertyAddress.mElement = iCurOutCH + 1;
stPropertyAddress.mScope = kAudioObjectPropertyScopeOutput;
iPropertySize = sizeof ( CFStringRef );
AudioObjectGetPropertyData ( audioOutputDevice[iDriverIdx],
&stPropertyAddress,
0,
NULL,
&iPropertySize,
&sPropertyStringValue );
// convert string
const bool bConvOK = ConvertCFStringToQString ( sPropertyStringValue,
sChannelNamesOutput[iCurOutCH] );
// use a defalut name in case there was an error or the name is empty
if ( !bConvOK || ( iPropertySize == 0 ) )
{
sChannelNamesOutput[iCurOutCH] =
QString ( "Channel %1" ).arg ( iCurOutCH + 1 );
}
}
// everything is ok, return empty string for "no error" case
return "";
}
void CSound::SetLeftInputChannel ( const int iNewChan )
{
// apply parameter after input parameter check
if ( ( iNewChan >= 0 ) && ( iNewChan < iNumInChan ) )
{
iSelInputLeftChannel = iNewChan;
}
}
void CSound::SetRightInputChannel ( const int iNewChan )
{
// apply parameter after input parameter check
if ( ( iNewChan >= 0 ) && ( iNewChan < iNumInChan ) )
{
iSelInputRightChannel = iNewChan;
}
}
void CSound::SetLeftOutputChannel ( const int iNewChan )
{
// apply parameter after input parameter check
if ( ( iNewChan >= 0 ) && ( iNewChan < iNumOutChan ) )
{
iSelOutputLeftChannel = iNewChan;
}
}
void CSound::SetRightOutputChannel ( const int iNewChan )
{
// apply parameter after input parameter check
if ( ( iNewChan >= 0 ) && ( iNewChan < iNumOutChan ) )
{
iSelOutputRightChannel = iNewChan;
}
}
void CSound::Start()
{
// setup callback for xruns (only for input is enough)
@ -553,20 +699,33 @@ OSStatus CSound::callbackIO ( AudioDeviceID inDevice,
// both, the input and output device use the same callback function
QMutexLocker locker ( &pSound->Mutex );
const int iCoreAudioBufferSizeMono = pSound->iCoreAudioBufferSizeMono;
const int iNumInChan = pSound->iNumInChan;
const int iNumOutChan = pSound->iNumOutChan;
const int iSelInputLeftChannel = pSound->iSelInputLeftChannel;
const int iSelInputRightChannel = pSound->iSelInputRightChannel;
const int iSelOutputLeftChannel = pSound->iSelOutputLeftChannel;
const int iSelOutputRightChannel = pSound->iSelOutputRightChannel;
if ( inDevice == pSound->CurrentAudioInputDeviceID )
{
// check size (float32 has four bytes)
if ( inInputData->mBuffers[0].mDataByteSize ==
static_cast<UInt32> ( pSound->iCoreAudioBufferSizeStereo * 4 ) )
static_cast<UInt32> ( iCoreAudioBufferSizeMono * iNumInChan * 4 ) )
{
// get a pointer to the input data of the correct type
Float32* pInData = static_cast<Float32*> ( inInputData->mBuffers[0].mData );
// copy input data
for ( int i = 0; i < pSound->iCoreAudioBufferSizeStereo; i++ )
for ( int i = 0; i < iCoreAudioBufferSizeMono; i++ )
{
pSound->vecsTmpAudioSndCrdStereo[i] =
(short) ( pInData[i] * _MAXSHORT );
// left
pSound->vecsTmpAudioSndCrdStereo[2 * i] =
(short) ( pInData[iNumInChan * i + iSelInputLeftChannel] * _MAXSHORT );
// right
pSound->vecsTmpAudioSndCrdStereo[2 * i + 1] =
(short) ( pInData[iNumInChan * i + iSelInputRightChannel] * _MAXSHORT );
}
}
else
@ -578,23 +737,53 @@ OSStatus CSound::callbackIO ( AudioDeviceID inDevice,
// call processing callback function
pSound->ProcessCallback ( pSound->vecsTmpAudioSndCrdStereo );
}
else
if ( inDevice == pSound->CurrentAudioOutputDeviceID )
{
// check size (float32 has four bytes)
if ( outOutputData->mBuffers[0].mDataByteSize ==
static_cast<UInt32> ( pSound->iCoreAudioBufferSizeStereo * 4 ) )
static_cast<UInt32> ( iCoreAudioBufferSizeMono * iNumOutChan * 4 ) )
{
// get a pointer to the input data of the correct type
Float32* pOutData = static_cast<Float32*> ( outOutputData->mBuffers[0].mData );
// copy output data
for ( int i = 0; i < pSound->iCoreAudioBufferSizeStereo; i++ )
for ( int i = 0; i < iCoreAudioBufferSizeMono; i++ )
{
pOutData[i] =
(Float32) pSound->vecsTmpAudioSndCrdStereo[i] / _MAXSHORT;
// left
pOutData[iNumOutChan * i + iSelOutputLeftChannel] =
(Float32) pSound->vecsTmpAudioSndCrdStereo[2 * i] / _MAXSHORT;
// right
pOutData[iNumOutChan * i + iSelOutputRightChannel] =
(Float32) pSound->vecsTmpAudioSndCrdStereo[2 * i + 1] / _MAXSHORT;
}
}
}
return kAudioHardwareNoError;
}
bool CSound::ConvertCFStringToQString ( const CFStringRef stringRef, QString& sOut )
{
// first check if the string is not empty
if ( CFStringGetLength ( stringRef ) > 0 )
{
// convert CFString in c-string (quick hack!) and then in QString
char* sC_strPropValue =
(char*) malloc ( CFStringGetLength ( stringRef ) * 3 + 1 );
if ( CFStringGetCString ( stringRef,
sC_strPropValue,
CFStringGetLength ( stringRef ) * 3 + 1,
kCFStringEncodingUTF8 ) )
{
sOut = sC_strPropValue;
free ( sC_strPropValue );
return true; // OK
}
}
return false; // not OK
}

27
mac/sound.h
View file

@ -41,12 +41,34 @@ public:
virtual void Start();
virtual void Stop();
// channel selection
virtual int GetNumInputChannels() { return iNumInChan; }
virtual QString GetInputChannelName ( const int iDiD ) { return sChannelNamesInput[iDiD]; }
virtual void SetLeftInputChannel ( const int iNewChan );
virtual void SetRightInputChannel ( const int iNewChan );
virtual int GetLeftInputChannel() { return iSelInputLeftChannel; }
virtual int GetRightInputChannel() { return iSelInputRightChannel; }
virtual int GetNumOutputChannels() { return iNumOutChan; }
virtual QString GetOutputChannelName ( const int iDiD ) { return sChannelNamesOutput[iDiD]; }
virtual void SetLeftOutputChannel ( const int iNewChan );
virtual void SetRightOutputChannel ( const int iNewChan );
virtual int GetLeftOutputChannel() { return iSelOutputLeftChannel; }
virtual int GetRightOutputChannel() { return iSelOutputRightChannel; }
// these variables should be protected but cannot since we want
// to access them from the callback function
CVector<short> vecsTmpAudioSndCrdStereo;
int iCoreAudioBufferSizeMono;
int iCoreAudioBufferSizeStereo;
AudioDeviceID CurrentAudioInputDeviceID;
AudioDeviceID CurrentAudioOutputDeviceID;
int iNumInChan;
int iNumOutChan;
int iSelInputLeftChannel;
int iSelInputRightChannel;
int iSelOutputLeftChannel;
int iSelOutputRightChannel;
protected:
virtual QString LoadAndInitializeDriver ( int iIdx );
@ -62,6 +84,8 @@ protected:
bool& bIsInput,
bool& bIsOutput );
bool ConvertCFStringToQString ( const CFStringRef stringRef, QString& sOut );
// callbacks
static OSStatus deviceNotification ( AudioDeviceID,
UInt32,
@ -81,6 +105,9 @@ protected:
AudioDeviceIOProcID audioInputProcID;
AudioDeviceIOProcID audioOutputProcID;
QString sChannelNamesInput[MAX_NUM_IN_OUT_CHANNELS];
QString sChannelNamesOutput[MAX_NUM_IN_OUT_CHANNELS];
QMutex Mutex;
};

2
src/clientsettingsdlg.cpp
View file

@ -497,7 +497,7 @@ void CClientSettingsDlg::UpdateSoundCardFrame()
void CClientSettingsDlg::UpdateSoundChannelSelectionFrame()
{
#ifdef _WIN32
#if defined ( _WIN32 ) || defined ( __APPLE__ ) || defined ( __MACOSX )
int iSndChanIdx;
// Definition: The channel selection frame shall only be visible,