void CTrack_DSP::Stop()
{
tint32 iInsert;
for (iInsert = 0; iInsert < giNumber_Of_Inserts; iInsert++) {
if (mppInsert[iInsert]) {
mppInsert[iInsert]->Stop();
}
}
if (mpFileRecording) {
mpFileRecording->Destroy();
mpFileRecording = NULL;
tbool bSuccess = true;
tbool bAbortOperation = false;
tchar pszErrMsg[1024];
*pszErrMsg = '\0';
tint64 iSamples = 0;
ac::EQuality eQuality = ac::geQualityUnknown;
tint64 iAccumOverflows = 0;
tfloat32 fNormalizationFactor = 1.0f / mfPeak;
tfloat32 fNormalizationFactorMono = 1.0f / mfPeakMono;
{
CAutoDelete<IFile> pFileSrc(IFile::Create());
CAutoDelete<IFile> pFileDest(IFile::Create());
// read from file
bSuccess &= pFileSrc->Open((msRecordingName + std::string(".tmp")).c_str(), IFile::FileRead);
// write to file
bSuccess &= pFileDest->Open(msRecordingName.c_str(), IFile::FileCreate);
if (!bSuccess) {
sprintf(pszErrMsg, "File open operation(s) failed");
}
else {
tint64 iDataBytes = pFileSrc->GetSizeWhenOpened();
iSamples = (iDataBytes / sizeof(tfloat32)) / miRecordingChannels;
if (iSamples <= 0)
bSuccess = false;
}
if (bSuccess) {
CAutoDelete<ac::IEncoder> pEncoder(ac::IEncoder::Create(ac::geAudioCodecWave, pszErrMsg, 1024));
if (!pEncoder) {
bSuccess = false;
}
else {
if (bSuccess) {
/*
std::string sMsg =
std::string("Do you want to import the recorded part as 24 bit Wave?\n")
+
//sName
//+
//"\n"
"\n"
"- Yes: \t24 bits = no quality loss\n"
"- No: \t16 bits = maybe quality loss\n"
"- Cancel:\tAbort";
ge::IWindow::EMsgBoxReturn eRc = ge::IWindow::ShowMessageBox(
sMsg.c_str(), "Select bit depth", ge::IWindow::MsgBoxYesNoCancel);
//bAskedAboutBits = true;
switch (eRc) {
case ge::IWindow::MsgBoxRetYes: eQuality = ac::geQualityLossless24; break;
case ge::IWindow::MsgBoxRetNo: eQuality = ac::geQualityLossless16; break;
default: bAbortOperation = true; break;
}
*/
eQuality = ac::geQualityLossless16;
}
tbool bDownMix = false;
if (bSuccess && !bAbortOperation) {
/*
tchar pszMsg[] =
"Do you want to import as stereo?\n"
"\n"
"- Yes: \tStereo\n"
"- No: \tDownmix to mono\n"
"- Cancel:\tAbort";
ge::IWindow::EMsgBoxReturn eRc = ge::IWindow::ShowMessageBox(
pszMsg, "Import as stereo", ge::IWindow::MsgBoxYesNoCancel);
switch (eRc) {
case ge::IWindow::MsgBoxRetYes: break;
case ge::IWindow::MsgBoxRetNo: bDownMix = true; break;
default: bAbortOperation = true; break;
}
*/
}
if (bSuccess && !bAbortOperation) {
tint32 iDestChannels = (bDownMix) ? 1 : miRecordingChannels;
if (
(!pEncoder->Init(pFileDest, eQuality))
||
(!pEncoder->SetRawMode(true, iDestChannels, false, 32, gpDSPEngine->GetSampleRate()))
) {
bSuccess = false;
}
}
if (bSuccess && !bAbortOperation) {
tint64 iSkipExtraLatencySamples = gpApplication->AudioInput_IntermediateBuffer_CalcExtraLatency();
pEncoder->SetNormalizationFactor((bDownMix) ? fNormalizationFactorMono : fNormalizationFactor);
if (miRecordingChannels == 1) {
// Mono recording
tint32 iSamplesLeft = iSamples;
while ((bSuccess) && (iSamplesLeft > 0)) {
tfloat32 pSrc[32];
tint32 iBytesRead = (tint32)pFileSrc->Read((tchar*)pSrc, 32 * sizeof(tfloat32));
tint32 iSamplesRead = iBytesRead / sizeof(tfloat32);
if (iSkipExtraLatencySamples > 0) {
if (iSamplesRead <= iSkipExtraLatencySamples) {
// Latency - eat them all
iSkipExtraLatencySamples -= iSamplesRead;
iSamplesRead = 0;
}
else {
// Partial latency - eat some
iSamplesRead -= iSkipExtraLatencySamples;
iBytesRead = iSamplesRead * sizeof(tfloat32);
tfloat32* pfAfterLatency = pSrc + iSkipExtraLatencySamples;
iSkipExtraLatencySamples = 0;
if (!pEncoder->ProcessRaw((tchar*)pfAfterLatency, NULL, iBytesRead, &iAccumOverflows)) {
bSuccess = false;
}
}
}
else {
if (!pEncoder->ProcessRaw((tchar*)pSrc, NULL, iBytesRead, &iAccumOverflows)) {
bSuccess = false;
}
}
iSamplesLeft -= 32;
}
}
else {
// Stereo recording (maybe it gets down-mixed to mono)
tint32 iSamplesLeft = iSamples;
while ((bSuccess) && (iSamplesLeft > 0)) {
tfloat32 pSrc[2 * 32];
tint32 iBytesRead = (tint32)pFileSrc->Read((tchar*)pSrc, 2 * 32 * sizeof(tfloat32));
iBytesRead /= 2;
tint32 iSamplesRead = iBytesRead / sizeof(tfloat32);
tfloat32* pSrcR = pSrc + iSamplesRead;
if (iSkipExtraLatencySamples > 0) {
if (iSamplesRead <= iSkipExtraLatencySamples) {
// Latency - eat them all
iSkipExtraLatencySamples -= iSamplesRead;
iSamplesRead = 0;
}
else {
// Partial latency - eat some
iSamplesRead -= iSkipExtraLatencySamples;
iBytesRead = iSamplesRead * sizeof(tfloat32);
tfloat32* pfAfterLatencyL = pSrc + iSkipExtraLatencySamples;
tfloat32* pfAfterLatencyR = pSrcR + iSkipExtraLatencySamples;
iSkipExtraLatencySamples = 0;
if (!pEncoder->ProcessRaw((tchar*)pfAfterLatencyL, (tchar*)pfAfterLatencyR, iBytesRead, &iAccumOverflows)) {
bSuccess = false;
}
}
}
else {
if (!pEncoder->ProcessRaw((tchar*)pSrc, (tchar*)pSrcR, iBytesRead, &iAccumOverflows)) {
bSuccess = false;
}
}
iSamplesLeft -= 32;
}
}
}
if (!bSuccess) {
pEncoder->GetErrMsg(pszErrMsg, 1024);
}
}
}
}
IFile::DeleteFile((msRecordingName + std::string(".tmp")).c_str());
if (!bSuccess) {
ge::IWindow::ShowMessageBox( std::string("Error").c_str(),
"recording",
ge::IWindow::MsgBoxOK);
/*
gpApplication->ShowMessageBox_NonModal(pszErrMsg, "Error recording");
*/
}
else if (!bAbortOperation) {
gpApplication->QueueAudioFileImport(msRecordingName.c_str(), true, miTrack, miRecordingSongPos);
}
/* must wait for queued operation to complete before doing these operations
IFile::DeleteFile(msRecordingName.c_str());
std::string sName = msRecordingName.substr(0, msRecordingName.size() - 4);
tint iPos = sName.rfind(':');
sName = sName.substr(iPos + 1);
mpDSP->CreateRegion(sName, miTrack, miRecordingSongPos, 0);
*/
}
} // Stop
BOOL BEEncoder::encode(LPBEOBJECT pObject, ISequentialStream *pStream)
{
BEEncoderPtr pEncoder(new BEEncoder(pStream));
return pEncoder->EncodeObject(pObject);
}
