void SDRPostThread::run() {
#ifdef __APPLE__
pthread_t tID = pthread_self(); // ID of this thread
int priority = sched_get_priority_max( SCHED_FIFO);
sched_param prio = {priority}; // scheduling priority of thread
pthread_setschedparam(tID, SCHED_FIFO, &prio);
#endif
std::cout << "SDR post-processing thread started.." << std::endl;
iqDataInQueue = (SDRThreadIQDataQueue*)getInputQueue("IQDataInput");
iqDataOutQueue = (DemodulatorThreadInputQueue*)getOutputQueue("IQDataOutput");
iqVisualQueue = (DemodulatorThreadInputQueue*)getOutputQueue("IQVisualDataOutput");
iqActiveDemodVisualQueue = (DemodulatorThreadInputQueue*)getOutputQueue("IQActiveDemodVisualDataOutput");
iqDataInQueue->set_max_num_items(0);
while (!terminated) {
SDRThreadIQData *data_in;
iqDataInQueue->pop(data_in);
// std::lock_guard < std::mutex > lock(data_in->m_mutex);
busy_demod.lock();
if (data_in && data_in->data.size()) {
if(data_in->numChannels > 1) {
runPFBCH(data_in);
} else {
runSingleCH(data_in);
}
}
data_in->decRefCount();
bool doUpdate = false;
for (size_t j = 0; j < nRunDemods; j++) {
DemodulatorInstance *demod = runDemods[j];
if (abs(frequency - demod->getFrequency()) > (sampleRate / 2)) {
doUpdate = true;
}
}
if (doUpdate) {
updateActiveDemodulators();
}
busy_demod.unlock();
}
if (iqVisualQueue && !iqVisualQueue->empty()) {
DemodulatorThreadIQData *visualDataDummy;
iqVisualQueue->pop(visualDataDummy);
}
// buffers.purge();
// visualDataBuffers.purge();
std::cout << "SDR post-processing thread done." << std::endl;
}
void SDRPostThread::run() {
#ifdef __APPLE__
pthread_t tID = pthread_self(); // ID of this thread
int priority = sched_get_priority_max( SCHED_FIFO);
sched_param prio = {priority}; // scheduling priority of thread
pthread_setschedparam(tID, SCHED_FIFO, &prio);
#endif
// std::cout << "SDR post-processing thread started.." << std::endl;
iqDataInQueue = static_cast<SDRThreadIQDataQueue*>(getInputQueue("IQDataInput"));
iqDataOutQueue = static_cast<DemodulatorThreadInputQueue*>(getOutputQueue("IQDataOutput"));
iqVisualQueue = static_cast<DemodulatorThreadInputQueue*>(getOutputQueue("IQVisualDataOutput"));
iqActiveDemodVisualQueue = static_cast<DemodulatorThreadInputQueue*>(getOutputQueue("IQActiveDemodVisualDataOutput"));
while (!stopping) {
SDRThreadIQData *data_in;
iqDataInQueue->pop(data_in);
// std::lock_guard < std::mutex > lock(data_in->m_mutex);
std::lock_guard < std::mutex > lock(busy_demod);
if (data_in && data_in->data.size()) {
if(data_in->numChannels > 1) {
runPFBCH(data_in);
} else {
runSingleCH(data_in);
}
}
if (data_in) {
data_in->decRefCount();
}
bool doUpdate = false;
for (size_t j = 0; j < nRunDemods; j++) {
DemodulatorInstance *demod = runDemods[j];
if (abs(frequency - demod->getFrequency()) > (sampleRate / 2)) {
doUpdate = true;
}
}
//Only update the list of demodulators here
if (doUpdate) {
updateActiveDemodulators();
}
} //end while
//Be safe, remove as many elements as possible
DemodulatorThreadIQData *visualDataDummy;
while (iqVisualQueue && iqVisualQueue->try_pop(visualDataDummy)) {
visualDataDummy->decRefCount();
}
// buffers.purge();
// visualDataBuffers.purge();
// std::cout << "SDR post-processing thread done." << std::endl;
}
IOReturn HoRNDIS::enable(IONetworkInterface *netif) {
IONetworkMedium *medium;
IOReturn rtn = kIOReturnSuccess;
if (fNetifEnabled) {
LOG(V_ERROR, "already enabled?");
return kIOReturnSuccess;
}
if (!allocateResources())
return kIOReturnNoMemory;
if (!fMediumDict)
if (!createMediumTables()) {
rtn = kIOReturnNoMemory;
goto bailout;
}
setCurrentMedium(IONetworkMedium::medium(kIOMediumEthernetAuto, 480 * 1000000));
/* Kick off the first read. */
inbuf.comp.target = this;
inbuf.comp.action = dataReadComplete;
inbuf.comp.parameter = NULL;
rtn = fInPipe->Read(inbuf.mdp, &inbuf.comp, NULL);
if (rtn != kIOReturnSuccess)
goto bailout;
/* Tell the world that the link is up... */
medium = IONetworkMedium::getMediumWithType(fMediumDict, kIOMediumEthernetAuto);
setLinkStatus(kIONetworkLinkActive | kIONetworkLinkValid, medium, 480 * 1000000);
/* ... and then listen for packets! */
getOutputQueue()->setCapacity(TRANSMIT_QUEUE_SIZE);
getOutputQueue()->start();
LOG(V_DEBUG, "txqueue started");
/* Tell the other end to start transmitting. */
if (!rndisSetPacketFilter(RNDIS_DEFAULT_FILTER))
goto bailout;
/* Now we can say we're alive. */
fNetifEnabled = true;
return kIOReturnSuccess;
bailout:
LOG(V_ERROR, "setting up the pipes failed");
releaseResources();
return rtn;
}
void AudioThread::run() {
#ifdef __APPLE__
pthread_t tID = pthread_self(); // ID of this thread
int priority = sched_get_priority_max( SCHED_RR) - 1;
sched_param prio = {priority}; // scheduling priority of thread
pthread_setschedparam(tID, SCHED_RR, &prio);
#endif
std::cout << "Audio thread initializing.." << std::endl;
if (dac.getDeviceCount() < 1) {
std::cout << "No audio devices found!" << std::endl;
return;
}
setupDevice((outputDevice.load() == -1) ? (dac.getDefaultOutputDevice()) : outputDevice.load());
std::cout << "Audio thread started." << std::endl;
inputQueue = (AudioThreadInputQueue *)getInputQueue("AudioDataInput");
threadQueueNotify = (DemodulatorThreadCommandQueue*)getOutputQueue("NotifyQueue");
while (!terminated) {
AudioThreadCommand command;
cmdQueue.pop(command);
if (command.cmd == AudioThreadCommand::AUDIO_THREAD_CMD_SET_DEVICE) {
setupDevice(command.int_value);
}
if (command.cmd == AudioThreadCommand::AUDIO_THREAD_CMD_SET_SAMPLE_RATE) {
setSampleRate(command.int_value);
}
}
if (deviceController[parameters.deviceId] != this) {
deviceController[parameters.deviceId]->removeThread(this);
} else {
try {
if (dac.isStreamOpen()) {
if (dac.isStreamRunning()) {
dac.stopStream();
}
dac.closeStream();
}
} catch (RtAudioError& e) {
e.printMessage();
}
}
if (threadQueueNotify != NULL) {
DemodulatorThreadCommand tCmd(DemodulatorThreadCommand::DEMOD_THREAD_CMD_AUDIO_TERMINATED);
tCmd.context = this;
threadQueueNotify->push(tCmd);
}
std::cout << "Audio thread done." << std::endl;
}
bool RTL8139::initEventSources( IOService *provider )
{
ELG( 0, 0, 'InES', "RTL8139::initEventSources - " );
DEBUG_LOG( "initEventSources() ===>\n" );
IOWorkLoop *wl = getWorkLoop();
if ( 0 == wl )
return false;
fTransmitQueue = getOutputQueue();
if ( 0 == fTransmitQueue )
return false;
fTransmitQueue->setCapacity( kTransmitQueueCapacity );
// Create an interrupt event source to handle hardware interrupts.
interruptSrc = IOInterruptEventSource::interruptEventSource(
this,
OSMemberFunctionCast( IOInterruptEventAction,
this,
&RTL8139::interruptOccurred ),
provider );
if ( !interruptSrc || (wl->addEventSource( interruptSrc ) != kIOReturnSuccess) )
return false;
// This is important. If the interrupt line is shared with other devices,
// then the interrupt vector will be enabled only if all corresponding
// interrupt event sources are enabled. To avoid masking interrupts for
// other devices that are sharing the interrupt line, the event source
// is enabled immediately. Hardware interrupt sources remain disabled.
interruptSrc->enable();
// Register a timer event source used as a watchdog timer:
timerSrc = IOTimerEventSource::timerEventSource(
this,
OSMemberFunctionCast( IOTimerEventSource::Action,
this,
&RTL8139::timeoutOccurred ) );
if ( !timerSrc || (wl->addEventSource( timerSrc ) != kIOReturnSuccess) )
return false;
// Create a dictionary to hold IONetworkMedium objects:
mediumDict = OSDictionary::withCapacity( 5 );
if ( 0 == mediumDict )
return false;
DEBUG_LOG( "initEventSources() <===\n" );
return true;
}/* end initEventSources */
void IOVideoSampleStream::postFreeInputBuffer(UInt64 vbiTime, UInt64 outputTime, UInt64 totalFrameCount, UInt64 droppedFrameCount,UInt64 lastDisplayedSequenceNumber)
{
IOStreamBuffer* buf = OSDynamicCast(IOStreamBuffer, _freeBuffers->getObject(0));
if (NULL == buf)
{
USBLog(1, "IOVideoSampleStream::postFreeInputBuffer - no free buffers\n");
if ((getOutputQueue())->entryCount > 0)
{
//all the free buffers are in the queue already so just alert the host
(void) sendOutputNotification();
}
return;
}
_freeBuffers->removeObject(0);
IOMemoryDescriptor *ctrlDescriptor = OSDynamicCast(IOMemoryDescriptor, buf->getControlBuffer());
if (NULL != ctrlDescriptor)
{
USBLog(1, "IOVideoSampleStream got control buffer descriptor\n");
SampleVideoDeviceControlBuffer theBuffControl, readBackControl;
USBLog(1, "IOVideoSampleStream::postFreeInputBuffer - passed in vbiTime = %lld outputTime = %lld framecount = %lld droppedframecount = %lld lastDisplayedSequenceNumber = %lld \n", vbiTime, outputTime, totalFrameCount, droppedFrameCount, lastDisplayedSequenceNumber);
theBuffControl.vbiTime = vbiTime;
theBuffControl.outputTime = outputTime;
theBuffControl.totalFrameCount = totalFrameCount;
theBuffControl.droppedFrameCount = droppedFrameCount;
theBuffControl.firstVBITime = 0;
theBuffControl.sequenceNumber = lastDisplayedSequenceNumber;
theBuffControl.discontinuityFlags = 0;
(void) ctrlDescriptor->prepare();
ctrlDescriptor->writeBytes(0, &theBuffControl, buf->getControlBuffer()->getLength());
ctrlDescriptor->readBytes(0, &readBackControl, buf->getControlBuffer()->getLength());
USBLog(1, "IOVideoSampleStream::postFreeInputBuffer - control buffer info vbiTime = %lld outputTime = %lld framecount = %lld droppedframecount = %lld sequencenumber = %lld\n", readBackControl.vbiTime, readBackControl.outputTime, readBackControl.totalFrameCount, readBackControl.droppedFrameCount,readBackControl.sequenceNumber);
(void) ctrlDescriptor->complete();
}
IOReturn result = enqueueOutputBuffer(buf, 0, buf->getDataBuffer()->getLength(), 0, buf->getControlBuffer()->getLength());
if (result != kIOReturnSuccess)
{
USBLog(1, "IOVideoSampleStream::postFreeInputBuffer help enqueueOutputBuffer failed! (%x)\n", result);
return;
}
result = sendOutputNotification();
if (result != kIOReturnSuccess)
{
USBLog(1, "IOVideoSampleStream::postFreeInputBuffer help sendOutputNotification failed! (%x)\n", result);
return;
}
}
IOReturn HoRNDIS::disable(IONetworkInterface * netif) {
/* Disable the queue (no more outputPacket), and then flush everything in the queue. */
getOutputQueue()->stop();
getOutputQueue()->setCapacity(0);
getOutputQueue()->flush();
/* Other end should stop xmitting, too. */
rndisSetPacketFilter(0);
setLinkStatus(0, 0);
/* Release all resources */
releaseResources();
fNetifEnabled = false;
/* Terminates also close the device in 'disable'. */
if (fTerminate) {
fpDevice->close(this);
fpDevice = NULL;
}
return kIOReturnSuccess;
}
void SDRThread::readLoop() {
SDRThreadIQDataQueue* iqDataOutQueue = static_cast<SDRThreadIQDataQueue*>( getOutputQueue("IQDataOutput"));
if (iqDataOutQueue == NULL) {
return;
}
updateGains();
while (!stopping.load()) {
updateSettings();
readStream(iqDataOutQueue);
}
buffers.purge();
}
//---------------------------------------------------------------------------
bool AgereET131x::initEventSources( IOService* provider )
{
// Get a handle to our superclass' workloop.
//
IOWorkLoop* myWorkLoop = (IOWorkLoop *) getWorkLoop();
if (myWorkLoop == NULL) {
IOLog(" myWorkLoop is NULL.\n");
return false;
}
transmitQueue = getOutputQueue();
if (transmitQueue == NULL) {
IOLog("getOutputQueue failed.\n");
return false;
}
transmitQueue->setCapacity(NUM_TCB);
interruptSource = IOFilterInterruptEventSource::filterInterruptEventSource( this, &AgereET131x::interruptHandler, &AgereET131x::interruptFilter, provider);
if (!interruptSource ||
(myWorkLoop->addEventSource(interruptSource) != kIOReturnSuccess)) {
IOLog("workloop add eventsource interrupt source.\n");
return false;
}
// This is important. If the interrupt line is shared with other devices,
// then the interrupt vector will be enabled only if all corresponding
// interrupt event sources are enabled. To avoid masking interrupts for
// other devices that are sharing the interrupt line, the event source
// is enabled immediately.
interruptSource->enable();
// Register a timer event source. This is used as a watchdog timer.
//
watchdogSource = IOTimerEventSource::timerEventSource(this, &AgereET131x::timeoutHandler );
if (!watchdogSource || (myWorkLoop->addEventSource(watchdogSource) != kIOReturnSuccess)) {
IOLog("watchdogSource create failed.\n");
return false;
}
mediumDict = OSDictionary::withCapacity(MEDIUM_INDEX_COUNT + 1);
if (mediumDict == NULL) {
return false;
}
return true;
}
void FFTVisualDataThread::run() {
DemodulatorThreadInputQueue *pipeIQDataIn = static_cast<DemodulatorThreadInputQueue *>(getInputQueue("IQDataInput"));
SpectrumVisualDataQueue *pipeFFTDataOut = static_cast<SpectrumVisualDataQueue *>(getOutputQueue("FFTDataOutput"));
fftQueue.set_max_num_items(100);
pipeFFTDataOut->set_max_num_items(100);
fftDistrib.setInput(pipeIQDataIn);
fftDistrib.attachOutput(&fftQueue);
wproc.setInput(&fftQueue);
wproc.attachOutput(pipeFFTDataOut);
wproc.setup(DEFAULT_FFT_SIZE);
// std::cout << "FFT visual data thread started." << std::endl;
while(!stopping) {
std::this_thread::sleep_for(std::chrono::milliseconds(10));
// std::this_thread::yield();
int fftSize = wproc.getDesiredInputSize();
if (fftSize) {
fftDistrib.setFFTSize(fftSize);
} else {
fftDistrib.setFFTSize(DEFAULT_FFT_SIZE * SPECTRUM_VZM);
}
if (lpsChanged.load()) {
fftDistrib.setLinesPerSecond(linesPerSecond.load());
// pipeIQDataIn->set_max_num_items(linesPerSecond.load());
lpsChanged.store(false);
}
fftDistrib.run();
while (!wproc.isInputEmpty()) {
wproc.run();
}
}
// std::cout << "FFT visual data thread done." << std::endl;
}
void FFTVisualDataThread::run() {
DemodulatorThreadInputQueue *pipeIQDataIn = (DemodulatorThreadInputQueue *)getInputQueue("IQDataInput");
SpectrumVisualDataQueue *pipeFFTDataOut = (SpectrumVisualDataQueue *)getOutputQueue("FFTDataOutput");
fftDistrib.setInput(pipeIQDataIn);
fftDistrib.attachOutput(&fftQueue);
wproc.setInput(&fftQueue);
wproc.attachOutput(pipeFFTDataOut);
wproc.setup(2048);
std::cout << "FFT visual data thread started." << std::endl;
while(!terminated) {
std::this_thread::sleep_for(std::chrono::milliseconds(12));
int fftSize = wproc.getDesiredInputSize();
if (fftSize) {
fftDistrib.setFFTSize(fftSize);
} else {
fftDistrib.setFFTSize(DEFAULT_FFT_SIZE);
}
if (lpsChanged.load()) {
fftDistrib.setLinesPerSecond(linesPerSecond.load());
pipeIQDataIn->set_max_num_items(linesPerSecond.load());
lpsChanged.store(false);
}
fftDistrib.run();
while (!wproc.isInputEmpty()) {
wproc.run();
}
}
std::cout << "FFT visual data thread done." << std::endl;
}
void DemodulatorPreThread::run() {
#ifdef __APPLE__
pthread_t tID = pthread_self(); // ID of this thread
int priority = sched_get_priority_max( SCHED_FIFO) - 1;
sched_param prio = {priority}; // scheduling priority of thread
pthread_setschedparam(tID, SCHED_FIFO, &prio);
#endif
if (!initialized) {
initialize();
}
std::cout << "Demodulator preprocessor thread started.." << std::endl;
t_Worker = new std::thread(&DemodulatorWorkerThread::threadMain, workerThread);
ReBuffer<DemodulatorThreadPostIQData> buffers;
iqInputQueue = (DemodulatorThreadInputQueue*)getInputQueue("IQDataInput");
iqOutputQueue = (DemodulatorThreadPostInputQueue*)getOutputQueue("IQDataOutput");
threadQueueNotify = (DemodulatorThreadCommandQueue*)getOutputQueue("NotifyQueue");
commandQueue = ( DemodulatorThreadCommandQueue*)getInputQueue("CommandQueue");
std::vector<liquid_float_complex> in_buf_data;
std::vector<liquid_float_complex> out_buf_data;
// liquid_float_complex carrySample; // Keep the stream count even to simplify some demod operations
// bool carrySampleFlag = false;
while (!terminated) {
DemodulatorThreadIQData *inp;
iqInputQueue->pop(inp);
bool bandwidthChanged = false;
bool rateChanged = false;
DemodulatorThreadParameters tempParams = params;
if (!commandQueue->empty()) {
while (!commandQueue->empty()) {
DemodulatorThreadCommand command;
commandQueue->pop(command);
switch (command.cmd) {
case DemodulatorThreadCommand::DEMOD_THREAD_CMD_SET_BANDWIDTH:
if (command.llong_value < 1500) {
command.llong_value = 1500;
}
if (command.llong_value > params.sampleRate) {
tempParams.bandwidth = params.sampleRate;
} else {
tempParams.bandwidth = command.llong_value;
}
bandwidthChanged = true;
break;
case DemodulatorThreadCommand::DEMOD_THREAD_CMD_SET_FREQUENCY:
params.frequency = tempParams.frequency = command.llong_value;
break;
case DemodulatorThreadCommand::DEMOD_THREAD_CMD_SET_AUDIO_RATE:
tempParams.audioSampleRate = (int)command.llong_value;
rateChanged = true;
break;
default:
break;
}
}
}
if (inp->sampleRate != tempParams.sampleRate && inp->sampleRate) {
tempParams.sampleRate = inp->sampleRate;
rateChanged = true;
}
if (bandwidthChanged || rateChanged) {
DemodulatorWorkerThreadCommand command(DemodulatorWorkerThreadCommand::DEMOD_WORKER_THREAD_CMD_BUILD_FILTERS);
command.sampleRate = tempParams.sampleRate;
command.audioSampleRate = tempParams.audioSampleRate;
command.bandwidth = tempParams.bandwidth;
command.frequency = tempParams.frequency;
workerQueue->push(command);
}
if (!initialized) {
inp->decRefCount();
continue;
}
// Requested frequency is not center, shift it into the center!
if ((params.frequency - inp->frequency) != shiftFrequency || rateChanged) {
shiftFrequency = params.frequency - inp->frequency;
if (abs(shiftFrequency) <= (int) ((double) (inp->sampleRate / 2) * 1.5)) {
nco_crcf_set_frequency(freqShifter, (2.0 * M_PI) * (((double) abs(shiftFrequency)) / ((double) inp->sampleRate)));
}
}
if (abs(shiftFrequency) > (int) ((double) (inp->sampleRate / 2) * 1.5)) {
inp->decRefCount();
continue;
}
// std::lock_guard < std::mutex > lock(inp->m_mutex);
std::vector<liquid_float_complex> *data = &inp->data;
if (data->size() && (inp->sampleRate == params.sampleRate)) {
int bufSize = data->size();
if (in_buf_data.size() != bufSize) {
if (in_buf_data.capacity() < bufSize) {
in_buf_data.reserve(bufSize);
out_buf_data.reserve(bufSize);
}
in_buf_data.resize(bufSize);
out_buf_data.resize(bufSize);
}
in_buf_data.assign(inp->data.begin(), inp->data.end());
liquid_float_complex *in_buf = &in_buf_data[0];
liquid_float_complex *out_buf = &out_buf_data[0];
liquid_float_complex *temp_buf = NULL;
if (shiftFrequency != 0) {
if (shiftFrequency < 0) {
nco_crcf_mix_block_up(freqShifter, in_buf, out_buf, bufSize);
} else {
nco_crcf_mix_block_down(freqShifter, in_buf, out_buf, bufSize);
}
temp_buf = in_buf;
in_buf = out_buf;
out_buf = temp_buf;
}
DemodulatorThreadPostIQData *resamp = buffers.getBuffer();
int out_size = ceil((double) (bufSize) * iqResampleRatio) + 512;
if (resampledData.size() != out_size) {
if (resampledData.capacity() < out_size) {
resampledData.reserve(out_size);
}
resampledData.resize(out_size);
}
unsigned int numWritten;
msresamp_crcf_execute(iqResampler, in_buf, bufSize, &resampledData[0], &numWritten);
resamp->setRefCount(1);
resamp->data.assign(resampledData.begin(), resampledData.begin() + numWritten);
// bool uneven = (numWritten % 2 != 0);
// if (!carrySampleFlag && !uneven) {
// resamp->data.assign(resampledData.begin(), resampledData.begin() + numWritten);
// carrySampleFlag = false;
// } else if (!carrySampleFlag && uneven) {
// resamp->data.assign(resampledData.begin(), resampledData.begin() + (numWritten-1));
// carrySample = resampledData.back();
// carrySampleFlag = true;
// } else if (carrySampleFlag && uneven) {
// resamp->data.resize(numWritten+1);
// resamp->data[0] = carrySample;
// memcpy(&resamp->data[1],&resampledData[0],sizeof(liquid_float_complex)*numWritten);
// carrySampleFlag = false;
// } else if (carrySampleFlag && !uneven) {
// resamp->data.resize(numWritten);
// resamp->data[0] = carrySample;
// memcpy(&resamp->data[1],&resampledData[0],sizeof(liquid_float_complex)*(numWritten-1));
// carrySample = resampledData.back();
// carrySampleFlag = true;
// }
resamp->audioResampleRatio = audioResampleRatio;
resamp->audioResampler = audioResampler;
resamp->audioSampleRate = params.audioSampleRate;
resamp->stereoResampler = stereoResampler;
resamp->firStereoLeft = firStereoLeft;
resamp->firStereoRight = firStereoRight;
resamp->iirStereoPilot = iirStereoPilot;
resamp->sampleRate = params.bandwidth;
iqOutputQueue->push(resamp);
}
inp->decRefCount();
if (!terminated && !workerResults->empty()) {
while (!workerResults->empty()) {
DemodulatorWorkerThreadResult result;
workerResults->pop(result);
switch (result.cmd) {
case DemodulatorWorkerThreadResult::DEMOD_WORKER_THREAD_RESULT_FILTERS:
msresamp_crcf_destroy(iqResampler);
if (result.iqResampler) {
iqResampler = result.iqResampler;
iqResampleRatio = result.iqResampleRatio;
}
if (result.firStereoLeft) {
firStereoLeft = result.firStereoLeft;
}
if (result.firStereoRight) {
firStereoRight = result.firStereoRight;
}
if (result.iirStereoPilot) {
iirStereoPilot = result.iirStereoPilot;
}
if (result.audioResampler) {
audioResampler = result.audioResampler;
audioResampleRatio = result.audioResamplerRatio;
stereoResampler = result.stereoResampler;
}
if (result.audioSampleRate) {
params.audioSampleRate = result.audioSampleRate;
}
if (result.bandwidth) {
params.bandwidth = result.bandwidth;
}
if (result.sampleRate) {
params.sampleRate = result.sampleRate;
}
break;
default:
break;
}
}
}
}
buffers.purge();
DemodulatorThreadCommand tCmd(DemodulatorThreadCommand::DEMOD_THREAD_CMD_DEMOD_PREPROCESS_TERMINATED);
tCmd.context = this;
threadQueueNotify->push(tCmd);
std::cout << "Demodulator preprocessor thread done." << std::endl;
}
bool AtherosL1Ethernet::start(IOService *provider)
{
DbgPrint("start()\n");
at_adapter *adapter=&adapter_;
if (!BASE::start(provider))
{
ErrPrint("Couldn't start BASE\n");
return false;
}
adapter->pdev = OSDynamicCast(IOPCIDevice, provider);
if (!adapter->pdev)
{
ErrPrint("Unable to cast provider\n");
return false;
}
adapter->pdev->retain();
adapter->pdev->open(this);
//Adding Mac OS X PHY's
mediumDict = OSDictionary::withCapacity(MEDIUM_INDEX_COUNT + 1);
OSAddNetworkMedium(kIOMediumEthernetAuto, 0, MEDIUM_INDEX_AUTO);
OSAddNetworkMedium(kIOMediumEthernet10BaseT | kIOMediumOptionHalfDuplex, 10 * MBit, MEDIUM_INDEX_10HD);
OSAddNetworkMedium(kIOMediumEthernet10BaseT | kIOMediumOptionFullDuplex, 10 * MBit, MEDIUM_INDEX_10FD);
OSAddNetworkMedium(kIOMediumEthernet100BaseTX | kIOMediumOptionHalfDuplex, 100 * MBit, MEDIUM_INDEX_100HD);
OSAddNetworkMedium(kIOMediumEthernet100BaseTX | kIOMediumOptionFullDuplex, 100 * MBit, MEDIUM_INDEX_100FD);
OSAddNetworkMedium(kIOMediumEthernet1000BaseTX | kIOMediumOptionHalfDuplex, 1000 * MBit, MEDIUM_INDEX_1000HD);
OSAddNetworkMedium(kIOMediumEthernet1000BaseTX | kIOMediumOptionFullDuplex, 1000 * MBit, MEDIUM_INDEX_1000FD);
if (!publishMediumDictionary(mediumDict)) return false;
if (!atProbe()) //Fix false reporting int probe function
{
ErrPrint("Couldn't probe adapter\n");
stop(provider);
return false;
}
workLoop_ = getWorkLoop();
if (!workLoop_)
{
ErrPrint("workLoop is not exists\n");
stop(provider);
return false;
}
transmitQueue_ = getOutputQueue();
if (!transmitQueue_)
{
ErrPrint("transmitQueue is not exists\n");
stop(provider);
return false;
}
//Looking for MSI interrupt index
int msi_index = -1;
int intr_index = 0, intr_type = 0;
IOReturn intr_ret;
while (true)
{
intr_ret = provider->getInterruptType(intr_index, &intr_type);
if (intr_ret != kIOReturnSuccess) break;
if (intr_type & kIOInterruptTypePCIMessaged) msi_index = intr_index;
intr_index++;
}
if (msi_index != -1)
{
DbgPrint("MSI interrupt index %d\n", msi_index);
intSource_ = IOInterruptEventSource::interruptEventSource(this,
OSMemberFunctionCast(IOInterruptEventSource::Action, this, &AtherosL1Ethernet::atIntr),
adapter->pdev, msi_index);
}
if (msi_index == -1 || intSource_ == NULL)
{
DbgPrint("MSI index was not found or MSI interrupt couldn't be enabled\n");
intSource_ = IOInterruptEventSource::interruptEventSource(this,
OSMemberFunctionCast(IOInterruptEventSource::Action, this, &AtherosL1Ethernet::atIntr),
adapter->pdev);
}
//Adding interrupt to our workloop event sources
if (!intSource_ || workLoop_->addEventSource(intSource_) != kIOReturnSuccess)
{
if (!intSource_) ErrPrint("Couldn't create interrupt source\n");
else ErrPrint("Couldn't attach interrupt source\n");
stop(provider);
return false;
}
//Attaching dynamic link layer
if (!this->attachInterface(reinterpret_cast<IONetworkInterface **>(&netIface_)), false)
{
DbgPrint("Failed to attach data link layer\n");
return false;
}
intSource_->enable();
/* allocate Tx / RX descriptor resources */
if (at_setup_ring_resources(adapter))
{
ErrPrint("Couldn't allocate ring descriptors\n");
adapter->pdev->close(this);
return kIOReturnError;
}
netIface_->registerService();
adapter->pdev->close(this);
return true;
}
void SDRPostThread::run() {
#ifdef __APPLE__
pthread_t tID = pthread_self(); // ID of this thread
int priority = sched_get_priority_max( SCHED_FIFO) - 1;
sched_param prio = {priority}; // scheduling priority of thread
pthread_setschedparam(tID, SCHED_FIFO, &prio);
#endif
dcFilter = iirfilt_crcf_create_dc_blocker(0.0005);
std::cout << "SDR post-processing thread started.." << std::endl;
iqDataInQueue = (SDRThreadIQDataQueue*)getInputQueue("IQDataInput");
iqDataOutQueue = (DemodulatorThreadInputQueue*)getOutputQueue("IQDataOutput");
iqVisualQueue = (DemodulatorThreadInputQueue*)getOutputQueue("IQVisualDataOutput");
ReBuffer<DemodulatorThreadIQData> buffers;
std::vector<liquid_float_complex> fpData;
std::vector<liquid_float_complex> dataOut;
iqDataInQueue->set_max_num_items(0);
while (!terminated) {
SDRThreadIQData *data_in;
iqDataInQueue->pop(data_in);
// std::lock_guard < std::mutex > lock(data_in->m_mutex);
if (data_in && data_in->data.size()) {
int dataSize = data_in->data.size()/2;
if (dataSize > fpData.capacity()) {
fpData.reserve(dataSize);
dataOut.reserve(dataSize);
}
if (dataSize != fpData.size()) {
fpData.resize(dataSize);
dataOut.resize(dataSize);
}
if (swapIQ) {
for (int i = 0; i < dataSize; i++) {
fpData[i] = _lut_swap[*((uint16_t*)&data_in->data[2*i])];
}
} else {
for (int i = 0; i < dataSize; i++) {
fpData[i] = _lut[*((uint16_t*)&data_in->data[2*i])];
}
}
iirfilt_crcf_execute_block(dcFilter, &fpData[0], dataSize, &dataOut[0]);
if (iqVisualQueue != NULL && !iqVisualQueue->full()) {
DemodulatorThreadIQData *visualDataOut = visualDataBuffers.getBuffer();
visualDataOut->setRefCount(1);
int num_vis_samples = dataOut.size();
// if (visualDataOut->data.size() < num_vis_samples) {
// if (visualDataOut->data.capacity() < num_vis_samples) {
// visualDataOut->data.reserve(num_vis_samples);
// }
// visualDataOut->data.resize(num_vis_samples);
// }
//
visualDataOut->frequency = data_in->frequency;
visualDataOut->sampleRate = data_in->sampleRate;
visualDataOut->data.assign(dataOut.begin(), dataOut.begin() + num_vis_samples);
iqVisualQueue->push(visualDataOut);
}
busy_demod.lock();
int activeDemods = 0;
bool pushedData = false;
if (demodulators.size() || iqDataOutQueue != NULL) {
std::vector<DemodulatorInstance *>::iterator demod_i;
for (demod_i = demodulators.begin(); demod_i != demodulators.end(); demod_i++) {
DemodulatorInstance *demod = *demod_i;
if (demod->getFrequency() != data_in->frequency
&& abs(data_in->frequency - demod->getFrequency()) > (wxGetApp().getSampleRate() / 2)) {
continue;
}
activeDemods++;
}
if (iqDataOutQueue != NULL) {
activeDemods++;
}
DemodulatorThreadIQData *demodDataOut = buffers.getBuffer();
// std::lock_guard < std::mutex > lock(demodDataOut->m_mutex);
demodDataOut->frequency = data_in->frequency;
demodDataOut->sampleRate = data_in->sampleRate;
demodDataOut->setRefCount(activeDemods);
demodDataOut->data.assign(dataOut.begin(), dataOut.end());
for (demod_i = demodulators.begin(); demod_i != demodulators.end(); demod_i++) {
DemodulatorInstance *demod = *demod_i;
DemodulatorThreadInputQueue *demodQueue = demod->getIQInputDataPipe();
if (abs(data_in->frequency - demod->getFrequency()) > (wxGetApp().getSampleRate() / 2)) {
if (demod->isActive() && !demod->isFollow() && !demod->isTracking()) {
demod->setActive(false);
DemodulatorThreadIQData *dummyDataOut = new DemodulatorThreadIQData;
dummyDataOut->frequency = data_in->frequency;
dummyDataOut->sampleRate = data_in->sampleRate;
demodQueue->push(dummyDataOut);
}
if (demod->isFollow() && wxGetApp().getFrequency() != demod->getFrequency()) {
wxGetApp().setFrequency(demod->getFrequency());
}
} else if (!demod->isActive()) {
demod->setActive(true);
if (wxGetApp().getDemodMgr().getLastActiveDemodulator() == NULL) {
wxGetApp().getDemodMgr().setActiveDemodulator(demod);
}
}
if (!demod->isActive()) {
continue;
}
if (demod->isFollow()) {
demod->setFollow(false);
}
demodQueue->push(demodDataOut);
pushedData = true;
}
if (iqDataOutQueue != NULL) {
if (!iqDataOutQueue->full()) {
iqDataOutQueue->push(demodDataOut);
pushedData = true;
} else {
demodDataOut->decRefCount();
}
}
if (!pushedData && iqDataOutQueue == NULL) {
demodDataOut->setRefCount(0);
}
}
busy_demod.unlock();
}
data_in->decRefCount();
}
// buffers.purge();
if (iqVisualQueue && !iqVisualQueue->empty()) {
DemodulatorThreadIQData *visualDataDummy;
iqVisualQueue->pop(visualDataDummy);
}
// visualDataBuffers.purge();
std::cout << "SDR post-processing thread done." << std::endl;
}
bool CLASS::allocateSupportObjects( IOService * provider )
{
fTransmitQueue = OSDynamicCast(IOOutputQueue, getOutputQueue());
if (fTransmitQueue == 0)
return false;
fKDPQueue = IOPacketQueue::withCapacity(~0);
if (!fKDPQueue)
return false;
// Allocate two Mbuf Cursors. One dedicated for transmit and
// the other for receive. NOTE types are different.
fRxMbufCursor = IOMbufLittleMemoryCursor::withSpecification(
kRxMaxBufferSize, 1);
fTxMbufCursor = IOMbufNaturalMemoryCursor::withSpecification(
kTxMaxBufferSize, 1);
if (!fRxMbufCursor || !fTxMbufCursor)
{
ERROR_LOG("%s: mbuf cursor allocation error\n", getName());
return false;
}
IOWorkLoop * workLoop = (IOWorkLoop *) getWorkLoop();
if (!workLoop)
{
ERROR_LOG("%s: no work loop\n", getName());
return false;
}
// Create an interrupt event source to dispatch interrupts.
// FIXME: Use interrupt filter event source
fInterruptSource = IOInterruptEventSource::interruptEventSource(
this,
&AppleDP83816Ethernet::interruptHandler,
provider);
if (!fInterruptSource ||
(workLoop->addEventSource(fInterruptSource) != kIOReturnSuccess))
{
ERROR_LOG("%s: IOInterruptEventSource error\n", getName());
return false;
}
fWatchdogTimer = IOTimerEventSource::timerEventSource(
this,
&AppleDP83816Ethernet::timeoutHandler);
if (!fWatchdogTimer ||
(workLoop->addEventSource(fWatchdogTimer) != kIOReturnSuccess))
{
ERROR_LOG("%s: IOTimerEventSource error\n", getName());
return false;
}
// Very important. If the interrupt line is shared with other devices,
// then the interrupt vector will be enabled only if all corresponding
// interrupt event sources are enabled. To avoid masking interrupts for
// other devices that are sharing the interrupt line, the event source
// is enabled immediately.
fInterruptSource->enable();
return true;
}
void DemodulatorWorkerThread::run() {
std::cout << "Demodulator worker thread started.." << std::endl;
commandQueue = (DemodulatorThreadWorkerCommandQueue *)getInputQueue("WorkerCommandQueue");
resultQueue = (DemodulatorThreadWorkerResultQueue *)getOutputQueue("WorkerResultQueue");
while (!terminated) {
bool filterChanged = false;
bool makeDemod = false;
DemodulatorWorkerThreadCommand filterCommand, demodCommand;
DemodulatorWorkerThreadCommand command;
bool done = false;
while (!done) {
commandQueue->pop(command);
switch (command.cmd) {
case DemodulatorWorkerThreadCommand::DEMOD_WORKER_THREAD_CMD_BUILD_FILTERS:
filterChanged = true;
filterCommand = command;
break;
case DemodulatorWorkerThreadCommand::DEMOD_WORKER_THREAD_CMD_MAKE_DEMOD:
makeDemod = true;
demodCommand = command;
break;
default:
break;
}
done = commandQueue->empty();
}
if ((makeDemod || filterChanged) && !terminated) {
DemodulatorWorkerThreadResult result(DemodulatorWorkerThreadResult::DEMOD_WORKER_THREAD_RESULT_FILTERS);
if (filterCommand.sampleRate) {
result.sampleRate = filterCommand.sampleRate;
}
if (makeDemod) {
cModem = Modem::makeModem(demodCommand.demodType);
cModemName = cModem->getName();
cModemType = cModem->getType();
if (demodCommand.settings.size()) {
cModem->writeSettings(demodCommand.settings);
}
result.sampleRate = demodCommand.sampleRate;
wxGetApp().getAppFrame()->updateModemProperties(cModem->getSettings());
}
result.modem = cModem;
if (makeDemod && demodCommand.bandwidth && demodCommand.audioSampleRate) {
if (cModem != nullptr) {
result.bandwidth = cModem->checkSampleRate(demodCommand.bandwidth, demodCommand.audioSampleRate);
cModemKit = cModem->buildKit(result.bandwidth, demodCommand.audioSampleRate);
} else {
cModemKit = nullptr;
}
} else if (filterChanged && filterCommand.bandwidth && filterCommand.audioSampleRate) {
if (cModem != nullptr) {
result.bandwidth = cModem->checkSampleRate(filterCommand.bandwidth, filterCommand.audioSampleRate);
cModemKit = cModem->buildKit(result.bandwidth, filterCommand.audioSampleRate);
} else {
cModemKit = nullptr;
}
} else if (makeDemod) {
cModemKit = nullptr;
}
if (cModem != nullptr) {
cModem->clearRebuildKit();
}
float As = 60.0f; // stop-band attenuation [dB]
if (result.sampleRate && result.bandwidth) {
result.bandwidth = cModem->checkSampleRate(result.bandwidth, makeDemod?demodCommand.audioSampleRate:filterCommand.audioSampleRate);
result.iqResampleRatio = (double) (result.bandwidth) / (double) result.sampleRate;
result.iqResampler = msresamp_crcf_create(result.iqResampleRatio, As);
}
result.modemKit = cModemKit;
result.modemType = cModemType;
result.modemName = cModemName;
resultQueue->push(result);
}
}
std::cout << "Demodulator worker thread done." << std::endl;
}
void DemodulatorThread::run() {
#ifdef __APPLE__
pthread_t tID = pthread_self(); // ID of this thread
int priority = sched_get_priority_max( SCHED_FIFO )-1;
sched_param prio = {priority}; // scheduling priority of thread
pthread_setschedparam(tID, SCHED_FIFO, &prio);
#endif
ReBuffer<AudioThreadInput> audioVisBuffers;
std::cout << "Demodulator thread started.." << std::endl;
iqInputQueue = (DemodulatorThreadPostInputQueue*)getInputQueue("IQDataInput");
audioOutputQueue = (AudioThreadInputQueue*)getOutputQueue("AudioDataOutput");
threadQueueControl = (DemodulatorThreadControlCommandQueue *)getInputQueue("ControlQueue");
threadQueueNotify = (DemodulatorThreadCommandQueue*)getOutputQueue("NotifyQueue");
ModemIQData modemData;
while (!terminated) {
DemodulatorThreadPostIQData *inp;
iqInputQueue->pop(inp);
// std::lock_guard < std::mutex > lock(inp->m_mutex);
audioSampleRate = demodInstance->getAudioSampleRate();
int bufSize = inp->data.size();
if (!bufSize) {
inp->decRefCount();
continue;
}
if (inp->modemKit && inp->modemKit != cModemKit) {
if (cModemKit != nullptr) {
cModem->disposeKit(cModemKit);
}
cModemKit = inp->modemKit;
}
if (inp->modem && inp->modem != cModem) {
delete cModem;
cModem = inp->modem;
}
if (!cModem || !cModemKit) {
inp->decRefCount();
continue;
}
float currentSignalLevel = 0;
float accum = 0;
for (std::vector<liquid_float_complex>::iterator i = inp->data.begin(); i != inp->data.end(); i++) {
accum += abMagnitude(0.948059448969, 0.392699081699, i->real, i->imag);
}
currentSignalLevel = linearToDb(accum / float(inp->data.size()));
if (currentSignalLevel < DEMOD_SIGNAL_MIN+1) {
currentSignalLevel = DEMOD_SIGNAL_MIN+1;
}
std::vector<liquid_float_complex> *inputData;
inputData = &inp->data;
modemData.sampleRate = inp->sampleRate;
modemData.data.assign(inputData->begin(), inputData->end());
modemData.setRefCount(1);
AudioThreadInput *ati = NULL;
ModemAnalog *modemAnalog = (cModem->getType() == "analog")?((ModemAnalog *)cModem):nullptr;
// ModemDigital *modemDigital = (cModem->getType() == "digital")?((ModemDigital *)cModem):nullptr;
if (modemAnalog != nullptr) {
ati = outputBuffers.getBuffer();
ati->sampleRate = audioSampleRate;
ati->inputRate = inp->sampleRate;
ati->setRefCount(1);
}
cModem->demodulate(cModemKit, &modemData, ati);
if (currentSignalLevel > signalLevel) {
signalLevel = signalLevel + (currentSignalLevel - signalLevel) * 0.5;
} else {
signalLevel = signalLevel + (currentSignalLevel - signalLevel) * 0.05;
}
bool squelched = (squelchEnabled && (signalLevel < squelchLevel));
if (audioOutputQueue != NULL && ati && !squelched) {
std::vector<float>::iterator data_i;
ati->peak = 0;
for (data_i = ati->data.begin(); data_i != ati->data.end(); data_i++) {
float p = fabs(*data_i);
if (p > ati->peak) {
ati->peak = p;
}
}
} else if (ati) {
ati->decRefCount();
ati = nullptr;
}
if (ati && audioVisOutputQueue != NULL && audioVisOutputQueue->empty()) {
AudioThreadInput *ati_vis = audioVisBuffers.getBuffer();
ati_vis->setRefCount(1);
ati_vis->sampleRate = inp->sampleRate;
ati_vis->inputRate = inp->sampleRate;
int num_vis = DEMOD_VIS_SIZE;
if (ati->channels==2) {
ati_vis->channels = 2;
int stereoSize = ati->data.size();
if (stereoSize > DEMOD_VIS_SIZE * 2) {
stereoSize = DEMOD_VIS_SIZE * 2;
}
ati_vis->data.resize(stereoSize);
if (inp->modemType == "I/Q") {
for (int i = 0; i < stereoSize / 2; i++) {
ati_vis->data[i] = (*inputData)[i].real * 0.75;
ati_vis->data[i + stereoSize / 2] = (*inputData)[i].imag * 0.75;
}
} else {
for (int i = 0; i < stereoSize / 2; i++) {
ati_vis->inputRate = audioSampleRate;
ati_vis->sampleRate = 36000;
ati_vis->data[i] = ati->data[i * 2];
ati_vis->data[i + stereoSize / 2] = ati->data[i * 2 + 1];
}
}
} else {
int numAudioWritten = ati->data.size();
ati_vis->channels = 1;
std::vector<float> *demodOutData = (modemAnalog != nullptr)?modemAnalog->getDemodOutputData():nullptr;
if ((numAudioWritten > bufSize) || (demodOutData == nullptr)) {
ati_vis->inputRate = audioSampleRate;
if (num_vis > numAudioWritten) {
num_vis = numAudioWritten;
}
ati_vis->data.assign(ati->data.begin(), ati->data.begin() + num_vis);
} else {
if (num_vis > demodOutData->size()) {
num_vis = demodOutData->size();
}
ati_vis->data.assign(demodOutData->begin(), demodOutData->begin() + num_vis);
}
}
audioVisOutputQueue->push(ati_vis);
}
if (ati != NULL) {
if (!muted.load()) {
audioOutputQueue->push(ati);
} else {
ati->setRefCount(0);
}
}
if (!threadQueueControl->empty()) {
while (!threadQueueControl->empty()) {
DemodulatorThreadControlCommand command;
threadQueueControl->pop(command);
switch (command.cmd) {
case DemodulatorThreadControlCommand::DEMOD_THREAD_CMD_CTL_SQUELCH_ON:
squelchEnabled = true;
break;
case DemodulatorThreadControlCommand::DEMOD_THREAD_CMD_CTL_SQUELCH_OFF:
squelchEnabled = false;
break;
default:
break;
}
}
}
inp->decRefCount();
}
// end while !terminated
outputBuffers.purge();
if (audioVisOutputQueue && !audioVisOutputQueue->empty()) {
AudioThreadInput *dummy_vis;
audioVisOutputQueue->pop(dummy_vis);
}
audioVisBuffers.purge();
DemodulatorThreadCommand tCmd(DemodulatorThreadCommand::DEMOD_THREAD_CMD_DEMOD_TERMINATED);
tCmd.context = this;
threadQueueNotify->push(tCmd);
std::cout << "Demodulator thread done." << std::endl;
}
bool
MolEnet::start( IOService * provider )
{
IOPhysicalAddress tx_phys, rx_phys;
IOPhysicalAddress tx_of_phys, rx_of_phys;
int i, result;
if( !super::start(provider) )
return false;
if( OSI_Enet2Open() ) {
is_open = 1;
return false;
}
//transmitQueue = OSDynamicCast( IOGatedOutputQueue, getOutputQueue() );
transmitQueue = OSDynamicCast( IOBasicOutputQueue, getOutputQueue() );
if( !transmitQueue ) {
printm("MolEnet: output queue initialization failed\n");
return false;
}
transmitQueue->retain();
// Allocate a IOMbufBigMemoryCursor instance. Currently, the maximum
// number of segments is set to 2. The maximum length for each segment
// is set to the maximum ethernet frame size (plus padding).
txMBufCursor = IOMbufBigMemoryCursor::withSpecification( NETWORK_BUFSIZE, 2 );
rxMBufCursor = IOMbufBigMemoryCursor::withSpecification( NETWORK_BUFSIZE, 2 );
if( !txMBufCursor || !rxMBufCursor ) {
printm("MolEnet: IOMbufBigMemoryCursor allocation failure\n");
return false;
}
// Get a reference to the IOWorkLoop in our superclass.
IOWorkLoop * myWorkLoop = getWorkLoop();
assert(myWorkLoop);
// Allocate a IOInterruptEventSources.
_irq = IOInterruptEventSource::interruptEventSource( this,
(IOInterruptEventAction)&MolEnet::rxIRQ, provider, 0);
if( !_irq || (myWorkLoop->addEventSource(_irq) != kIOReturnSuccess )) {
printm("MolEnet: _irq init failure\n");
return false;
}
// Allocate the ring descriptors
rx_ring = (enet2_ring_t*)IOMallocContiguous( 2 * RX_NUM_EL * sizeof(enet2_ring_t),
sizeof(enet2_ring_t), &rx_phys );
tx_ring = (enet2_ring_t*)IOMallocContiguous( 2 * TX_NUM_EL * sizeof(enet2_ring_t),
sizeof(enet2_ring_t), &tx_phys );
if( !rx_ring || !tx_ring )
return false;
rx_of_ring = rx_ring + RX_NUM_EL;
tx_of_ring = tx_ring + TX_NUM_EL;
rx_of_phys = rx_phys + sizeof(enet2_ring_t) * RX_NUM_EL;
tx_of_phys = tx_phys + sizeof(enet2_ring_t) * TX_NUM_EL;
// Allocate receive buffers
for( i=0; i<RX_NUM_EL; i++ ) {
if( !(rxMBuf[i]=allocatePacket( NETWORK_BUFSIZE )) ) {
printm("MolEnet: packet allocation failed\n");
return false;
}
// reserve 2 bytes before the actual packet
rxMBuf[i]->m_data += 2;
rxMBuf[i]->m_len -= 2;
}
OSI_Enet2Cntrl( kEnet2Reset );
result = OSI_Enet2RingSetup( kEnet2SetupRXRing, rx_phys, RX_NUM_EL )
|| OSI_Enet2RingSetup( kEnet2SetupTXRing, tx_phys, TX_NUM_EL )
|| OSI_Enet2RingSetup( kEnet2SetupRXOverflowRing, rx_of_phys, RX_NUM_EL )
|| OSI_Enet2RingSetup( kEnet2SetupTXOverflowRing, tx_of_phys, TX_NUM_EL );
if( result )
return false;
if( !resetAndEnable(false) )
return false;
// Create a table of supported media types.
if( !createMediumTables() )
return false;
// Attach an IOEthernetInterface client.
if( !attachInterface( (IONetworkInterface**)&networkInterface, false ) )
return false;
// Ready to service interface requests.
networkInterface->registerService();
printm("Ethernet driver 1.1\n");
return true;
}
