AudioInput::~AudioInput() {
bRunning = false;
wait();
speex_bits_destroy(&sbBits);
speex_encoder_destroy(esEncState);
mumble_drft_clear(&fftTable);
jitter_buffer_destroy(jb);
if (sppPreprocess)
speex_preprocess_state_destroy(sppPreprocess);
if (sesEcho)
speex_echo_state_destroy(sesEcho);
if (srsMic)
speex_resampler_destroy(srsMic);
if (srsEcho)
speex_resampler_destroy(srsEcho);
delete [] psMic;
delete [] psSpeaker;
delete [] psClean;
if (pfMicInput)
delete [] pfMicInput;
if (pfEchoInput)
delete [] pfEchoInput;
if (pfOutput)
delete [] pfOutput;
}
AudioInput::~AudioInput() {
bRunning = false;
wait();
if (ceEncoder) {
cCodec->celt_encoder_destroy(ceEncoder);
} else if (esSpeex) {
speex_bits_destroy(&sbBits);
speex_encoder_destroy(esSpeex);
}
foreach(short *buf, qlEchoFrames)
delete [] buf;
if (sppPreprocess)
speex_preprocess_state_destroy(sppPreprocess);
if (sesEcho)
speex_echo_state_destroy(sesEcho);
if (srsMic)
speex_resampler_destroy(srsMic);
if (srsEcho)
speex_resampler_destroy(srsEcho);
delete [] psMic;
delete [] psClean;
delete [] psSpeaker;
delete [] pfMicInput;
delete [] pfEchoInput;
delete [] pfOutput;
}
AudioInput::~AudioInput() {
bRunning = false;
wait();
#ifdef USE_OPUS
if (opusState)
opus_encoder_destroy(opusState);
#endif
if (ceEncoder) {
cCodec->celt_encoder_destroy(ceEncoder);
}
foreach(short *buf, qlEchoFrames)
delete [] buf;
if (sppPreprocess)
speex_preprocess_state_destroy(sppPreprocess);
if (sesEcho)
speex_echo_state_destroy(sesEcho);
if (srsMic)
speex_resampler_destroy(srsMic);
if (srsEcho)
speex_resampler_destroy(srsEcho);
delete [] psMic;
delete [] psClean;
delete [] psSpeaker;
delete [] pfMicInput;
delete [] pfEchoInput;
delete [] pfOutput;
}
COggVorbisFileHelper::~COggVorbisFileHelper()
{
stop();
bStopDecoding = true;
while(mDecThread.thread_status == CThread::TRUNNING)
{
s3eDebugTracePrintf("waiting decoding thread terminating\n");
s3eDeviceYield(10);
}
if(mDecBuffer != NULL)
{
delete mDecBuffer;
mDecBuffer = NULL;
}
//cleanup();
if(res_contR) speex_resampler_destroy(res_contR);
if(res_contL) speex_resampler_destroy(res_contL);
delete [] iFilterBufferL;
delete [] iFilterBufferR;
delete [] dFilterCoefficients;
delete [] m_outL;
delete [] m_outR;
/*if(nStatus != OH_NAN) ov_clear(&vf);*/
}
RtpAudioStream::~RtpAudioStream()
{
for (int i = 0; i < rtp_packets_.size(); i++) {
rtp_packet_t *rtp_packet = rtp_packets_[i];
g_free(rtp_packet->info);
g_free(rtp_packet->payload_data);
g_free(rtp_packet);
}
g_hash_table_destroy(decoders_hash_);
if (audio_resampler_) speex_resampler_destroy (audio_resampler_);
speex_resampler_destroy (visual_resampler_);
}
void kill_filter_audio(Filter_Audio *f_a)
{
if (!f_a) {
return;
}
WebRtcNsx_Free(f_a->noise_sup_x);
WebRtcAgc_Free(f_a->gain_control);
WebRtcAec_Free(f_a->echo_cancellation);
WebRtcVad_Free(f_a->Vad_handle);
speex_resampler_destroy(f_a->upsampler);
speex_resampler_destroy(f_a->downsampler);
speex_resampler_destroy(f_a->downsampler_echo);
free(f_a);
}
void Resampler::destroyResampler()
{
if(NULL != resampler_){
speex_resampler_destroy(resampler_);
resampler_ = NULL;
}
}
static void
AudioQualityImprovement_free(AudioQualityImprovement *aqi)
{
/* mutex */
Mutex_free(aqi->mutex);
/* preprocess */
if (aqi->preprocess)
speex_preprocess_state_destroy(aqi->preprocess);
/* echo */
if (aqi->echo)
speex_echo_state_destroy(aqi->echo);
/* out */
if (aqi->out)
free(aqi->out);
/* play */
if (aqi->play)
free(aqi->play);
/* resampler */
if (aqi->resampler)
speex_resampler_destroy(aqi->resampler);
/* stringID */
free(aqi->stringID);
free(aqi);
}
Channel::~Channel()
{
if (resampler) {
speex_resampler_destroy(resampler);
resampler = 0;
}
}
static void Close (vlc_object_t *obj)
{
filter_t *filter = (filter_t *)obj;
SpeexResamplerState *st = (SpeexResamplerState *)filter->p_sys;
speex_resampler_destroy (st);
}
AudioOutputSample::~AudioOutputSample() {
if (srs)
speex_resampler_destroy(srs);
delete sfHandle;
sfHandle = NULL;
}
JNIEXPORT void JNICALL Native_NATIVE(speex_1resampler_1destroy)
(JNIEnv *env, jclass that, jlong arg0)
{
Native_NATIVE_ENTER(env, that, Native_speex_1resampler_1destroy_FUNC);
speex_resampler_destroy((SpeexResamplerState *)(intptr_t)arg0);
Native_NATIVE_EXIT(env, that, Native_speex_1resampler_1destroy_FUNC);
}
void rl_resampler_destroy( rl_resampler_t* resampler )
{
if ( resampler != (rl_resampler_t*)&passthrough )
{
speex_resampler_destroy( (SpeexResamplerState*)resampler );
}
}
static void ebur128_destroy_resampler(ebur128_state* st) {
free(st->d->resampler_buffer_input);
st->d->resampler_buffer_input = NULL;
free(st->d->resampler_buffer_output);
st->d->resampler_buffer_output = NULL;
speex_resampler_destroy(st->d->resampler);
st->d->resampler = NULL;
}
bool ResamplePCM(uint32 NumChannels, const TArray<uint8>& InBuffer, uint32 InSampleRate, TArray<uint8>& OutBuffer, uint32 OutSampleRate) const
{
// Initialize resampler to convert to desired rate for Opus
int32 err = 0;
SpeexResamplerState* resampler = speex_resampler_init(NumChannels, InSampleRate, OutSampleRate, SPEEX_RESAMPLER_QUALITY_DESKTOP, &err);
if (err != RESAMPLER_ERR_SUCCESS)
{
speex_resampler_destroy(resampler);
return false;
}
// Calculate extra space required for sample rate
const uint32 SampleStride = SAMPLE_SIZE * NumChannels;
const float Duration = (float)InBuffer.Num() / (InSampleRate * SampleStride);
const int32 SafeCopySize = (Duration + 1) * OutSampleRate * SampleStride;
OutBuffer.Empty(SafeCopySize);
OutBuffer.AddUninitialized(SafeCopySize);
uint32 InSamples = InBuffer.Num() / SampleStride;
uint32 OutSamples = OutBuffer.Num() / SampleStride;
// Do resampling and check results
if (NumChannels == 1)
{
err = speex_resampler_process_int(resampler, 0, (const short*)(InBuffer.GetData()), &InSamples, (short*)(OutBuffer.GetData()), &OutSamples);
}
else
{
err = speex_resampler_process_interleaved_int(resampler, (const short*)(InBuffer.GetData()), &InSamples, (short*)(OutBuffer.GetData()), &OutSamples);
}
speex_resampler_destroy(resampler);
if (err != RESAMPLER_ERR_SUCCESS)
{
return false;
}
// reduce the size of Out Buffer if more space than necessary was allocated
const int32 WrittenBytes = (int32)(OutSamples * SampleStride);
if (WrittenBytes < OutBuffer.Num())
{
OutBuffer.SetNum(WrittenBytes, true);
}
return true;
}
void AudioInput::initializeMixer() {
int err;
if (srsMic)
speex_resampler_destroy(srsMic);
if (srsEcho)
speex_resampler_destroy(srsEcho);
if (pfMicInput)
delete [] pfMicInput;
if (pfEchoInput)
delete [] pfEchoInput;
if (pfOutput)
delete [] pfOutput;
if (iMicFreq != iSampleRate)
srsMic = speex_resampler_init(1, iMicFreq, iSampleRate, 3, &err);
iMicLength = (iFrameSize * iMicFreq) / iSampleRate;
pfMicInput = new float[iMicLength];
pfOutput = new float[iFrameSize * max(1U,iEchoChannels)];
if (iEchoChannels > 0) {
bEchoMulti = g_struct.s.bEchoMulti;
if (iEchoFreq != iSampleRate)
srsEcho = speex_resampler_init(bEchoMulti ? iEchoChannels : 1, iEchoFreq, iSampleRate, 3, &err);
iEchoLength = (iFrameSize * iEchoFreq) / iSampleRate;
iEchoMCLength = bEchoMulti ? iEchoLength * iEchoChannels : iEchoLength;
iEchoFrameSize = bEchoMulti ? iFrameSize * iEchoChannels : iFrameSize;
pfEchoInput = new float[iEchoMCLength];
} else {
srsEcho = NULL;
pfEchoInput = NULL;
}
imfMic = chooseMixer(iMicChannels, eMicFormat);
imfEcho = chooseMixer(iEchoChannels, eEchoFormat);
iMicSampleSize = static_cast<int>(iMicChannels * ((eMicFormat == SampleFloat) ? sizeof(float) : sizeof(short)));
iEchoSampleSize = static_cast<int>(iEchoChannels * ((eEchoFormat == SampleFloat) ? sizeof(float) : sizeof(short)));
bResetProcessor = true;
Trace("AudioInput: Initialized mixer for %d channel %d hz mic and %d channel %d hz echo", iMicChannels, iMicFreq, iEchoChannels, iEchoFreq);
}
/*
* close resampler.
* @param resampler
*/
void ttLibC_SpeexdspResampler_close(ttLibC_SpeexdspResampler **resampler) {
ttLibC_SpeexdspResampler_ *target = (ttLibC_SpeexdspResampler_ *)*resampler;
if(target == NULL) {
return;
}
speex_resampler_destroy(target->resampler);
ttLibC_free(target);
*resampler = NULL;
}
AudioResampler::~AudioResampler() {
if (conversion_state) {
#if defined(HAVE_LIBSPEEXDSP)
speex_resampler_destroy(conversion_state);
#elif defined(HAVE_LIBSAMPLERATE)
src_delete(conversion_state);
#endif
}
}
AudioInput::~AudioInput() {
g_pWaveFile.Close();
bRunning = false;
if (ceEncoder) {
cCodec->encoder_destroy(ceEncoder);
} else if (esSpeex) {
speex_bits_destroy(&sbBits);
speex_encoder_destroy(esSpeex);
}
// mumble_drft_clear(&fftTable);
std::deque<short*>::iterator dit;
for (dit = qlEchoFrames.begin(); dit != qlEchoFrames.end();)
{
delete [] *dit;
dit = qlEchoFrames.erase(dit);
}
if (sppPreprocess)
speex_preprocess_state_destroy(sppPreprocess);
if (sesEcho)
speex_echo_state_destroy(sesEcho);
if (srsMic)
speex_resampler_destroy(srsMic);
if (srsEcho)
speex_resampler_destroy(srsEcho);
delete [] psMic;
delete [] psClean;
if (psSpeaker)
delete [] psSpeaker;
if (pfMicInput)
delete [] pfMicInput;
if (pfEchoInput)
delete [] pfEchoInput;
if (pfOutput)
delete [] pfOutput;
}
static void resample_process_ms2(MSFilter *obj) {
ResampleData *dt=(ResampleData*)obj->data;
mblk_t *m;
if (dt->output_rate==dt->input_rate) {
while((m=ms_queue_get(obj->inputs[0]))!=NULL) {
ms_queue_put(obj->outputs[0],m);
}
return;
}
ms_filter_lock(obj);
if (dt->handle!=NULL) {
unsigned int inrate=0, outrate=0;
speex_resampler_get_rate(dt->handle,&inrate,&outrate);
if (inrate!=dt->input_rate || outrate!=dt->output_rate) {
speex_resampler_destroy(dt->handle);
dt->handle=0;
}
}
if (dt->handle==NULL) {
int err=0;
dt->handle=speex_resampler_init(dt->nchannels, dt->input_rate, dt->output_rate, SPEEX_RESAMPLER_QUALITY_VOIP, &err);
}
while((m=ms_queue_get(obj->inputs[0]))!=NULL) {
unsigned int inlen=(m->b_wptr-m->b_rptr)/(2*dt->nchannels);
unsigned int outlen=((inlen*dt->output_rate)/dt->input_rate)+1;
unsigned int inlen_orig=inlen;
mblk_t *om=allocb(outlen*2*dt->nchannels,0);
if (dt->nchannels==1) {
speex_resampler_process_int(dt->handle,
0,
(int16_t*)m->b_rptr,
&inlen,
(int16_t*)om->b_wptr,
&outlen);
} else {
speex_resampler_process_interleaved_int(dt->handle,
(int16_t*)m->b_rptr,
&inlen,
(int16_t*)om->b_wptr,
&outlen);
}
if (inlen_orig!=inlen) {
ms_error("Bug in resampler ! only %u samples consumed instead of %u, out=%u",
inlen,inlen_orig,outlen);
}
om->b_wptr+=outlen*2*dt->nchannels;
mblk_set_timestamp_info(om,dt->ts);
dt->ts+=outlen;
ms_queue_put(obj->outputs[0],om);
freemsg(m);
}
ms_filter_unlock(obj);
}
AudioDecoderSpeex::~AudioDecoderSpeex()
{
speex_bits_destroy(&_speex_bits);
speex_decoder_destroy(_speex_dec_state);
#ifdef RESAMPLING_SPEEX
speex_resampler_destroy(_resampler);
#endif
}
OpusTrackEncoder::~OpusTrackEncoder()
{
if (mEncoder) {
opus_encoder_destroy(mEncoder);
}
if (mResampler) {
speex_resampler_destroy(mResampler);
mResampler = nullptr;
}
}
Channel::~Channel()
{
if (resampler) {
speex_resampler_destroy(resampler);
resampler = 0;
}
if (deletesourceondone) {
delete source;
}
}
void AudioInput::initializeMixer() {
int err;
if (srsMic)
speex_resampler_destroy(srsMic);
if (srsEcho)
speex_resampler_destroy(srsEcho);
if (pfMicInput)
delete [] pfMicInput;
if (pfEchoInput)
delete [] pfEchoInput;
if (pfOutput)
delete [] pfOutput;
if (iMicFreq != SAMPLE_RATE)
srsMic = speex_resampler_init(1, iMicFreq, SAMPLE_RATE, 3, &err);
iMicLength = (iFrameSize * iMicFreq) / SAMPLE_RATE;
pfMicInput = new float[iMicLength];
pfOutput = new float[iFrameSize];
if (iEchoChannels > 0) {
if (iEchoFreq != SAMPLE_RATE)
srsEcho = speex_resampler_init(1, iEchoFreq, SAMPLE_RATE, 3, &err);
iEchoLength = (iFrameSize * iEchoFreq) / SAMPLE_RATE;
pfEchoInput = new float[iEchoLength];
} else {
srsEcho = NULL;
pfEchoInput = NULL;
}
imfMic = chooseMixer(iMicChannels, eMicFormat);
imfEcho = chooseMixer(iEchoChannels, eEchoFormat);
iMicSampleSize = iMicChannels * ((eMicFormat == SampleFloat) ? sizeof(float) : sizeof(short));
iEchoSampleSize = iEchoChannels * ((eEchoFormat == SampleFloat) ? sizeof(float) : sizeof(short));
bResetProcessor = true;
qWarning("AudioInput: Initialized mixer for %d channel %d hz mic and %d channel %d hz echo", iMicChannels, iMicFreq, iEchoChannels, iEchoFreq);
}
~AudioChannelImpl() override
{
if (_resampler != nullptr)
{
speex_resampler_destroy(_resampler);
_resampler = nullptr;
}
if (_deletesourceondone)
{
delete _source;
}
}
static int set_nchannels(MSFilter *f, void *arg) {
ResampleData *dt=(ResampleData*)f->data;
int chans=*(int*)arg;
ms_filter_lock(f);
if (dt->nchannels!=chans && dt->handle!=NULL) {
speex_resampler_destroy(dt->handle);
dt->handle=NULL;
}
dt->nchannels=*(int*)arg;
ms_filter_unlock(f);
return 0;
}
static void destructor(void *arg)
{
struct audec_state *ads = arg;
if (ads->resampler)
speex_resampler_destroy(ads->resampler);
mpg123_close(ads->dec);
mpg123_delete(ads->dec);
#ifdef DEBUG
debug("MPA dec destroyed\n");
#endif
}
void cras_fmt_conv_destroy(struct cras_fmt_conv *conv)
{
unsigned i;
if (conv->ch_conv_mtx)
cras_channel_conv_matrix_destroy(conv->ch_conv_mtx,
conv->out_fmt.num_channels);
if (conv->speex_state)
speex_resampler_destroy(conv->speex_state);
if (conv->resampler)
linear_resampler_destroy(conv->resampler);
for (i = 0; i < MAX_NUM_CONVERTERS - 1; i++)
free(conv->tmp_bufs[i]);
free(conv);
}
void release_resampler(struct resampler_itfe *resampler)
{
struct resampler *rsmp = (struct resampler *)resampler;
if (rsmp == NULL) {
return;
}
free(rsmp->in_buf);
if (rsmp->speex_resampler != NULL) {
speex_resampler_destroy(rsmp->speex_resampler);
}
free(rsmp);
}
AudioOutputSpeech::~AudioOutputSpeech() {
if (cdDecoder) {
cCodec->celt_decoder_destroy(cdDecoder);
} else if (dsSpeex) {
speex_bits_destroy(&sbBits);
speex_decoder_destroy(dsSpeex);
}
if (srs)
speex_resampler_destroy(srs);
jitter_buffer_destroy(jbJitter);
delete [] fFadeIn;
delete [] fFadeOut;
}
