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sdrangel/sdrbase/dsp/dspdevicemimoengine.cpp

1145 lines
44 KiB
C++

///////////////////////////////////////////////////////////////////////////////////
// Copyright (C) 2019 F4EXB //
// written by Edouard Griffiths //
// //
// This program is free software; you can redistribute it and/or modify //
// it under the terms of the GNU General Public License as published by //
// the Free Software Foundation as version 3 of the License, or //
// (at your option) any later version. //
// //
// This program is distributed in the hope that it will be useful, //
// but WITHOUT ANY WARRANTY; without even the implied warranty of //
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the //
// GNU General Public License V3 for more details. //
// //
// You should have received a copy of the GNU General Public License //
// along with this program. If not, see <http://www.gnu.org/licenses/>. //
///////////////////////////////////////////////////////////////////////////////////
#include <QDebug>
#include "dsp/dspcommands.h"
#include "threadedbasebandsamplesource.h"
#include "threadedbasebandsamplesink.h"
#include "devicesamplemimo.h"
#include "dspdevicemimoengine.h"
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::SetSampleMIMO, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::AddSourceStream, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::RemoveLastSourceStream, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::AddSinkStream, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::RemoveLastSinkStream, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::AddThreadedBasebandSampleSource, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::RemoveThreadedBasebandSampleSource, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::AddThreadedBasebandSampleSink, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::RemoveThreadedBasebandSampleSink, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::AddBasebandSampleSink, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::RemoveBasebandSampleSink, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::AddSpectrumSink, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::RemoveSpectrumSink, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::GetErrorMessage, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::GetMIMODeviceDescription, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::ConfigureCorrection, Message)
MESSAGE_CLASS_DEFINITION(DSPDeviceMIMOEngine::SetSpectrumSinkInput, Message)
DSPDeviceMIMOEngine::DSPDeviceMIMOEngine(uint32_t uid, QObject* parent) :
QThread(parent),
m_uid(uid),
m_state(StNotStarted),
m_deviceSampleMIMO(nullptr),
m_spectrumInputSourceElseSink(true),
m_spectrumInputIndex(0)
{
connect(&m_inputMessageQueue, SIGNAL(messageEnqueued()), this, SLOT(handleInputMessages()), Qt::QueuedConnection);
connect(&m_syncMessenger, SIGNAL(messageSent()), this, SLOT(handleSynchronousMessages()), Qt::QueuedConnection);
moveToThread(this);
}
DSPDeviceMIMOEngine::~DSPDeviceMIMOEngine()
{
stop();
wait();
}
void DSPDeviceMIMOEngine::run()
{
qDebug() << "DSPDeviceMIMOEngine::run";
m_state = StIdle;
exec();
}
void DSPDeviceMIMOEngine::start()
{
qDebug() << "DSPDeviceMIMOEngine::start";
QThread::start();
}
void DSPDeviceMIMOEngine::stop()
{
qDebug() << "DSPDeviceMIMOEngine::stop";
gotoIdle();
m_state = StNotStarted;
QThread::exit();
}
bool DSPDeviceMIMOEngine::initProcess()
{
qDebug() << "DSPDeviceMIMOEngine::initGeneration";
DSPGenerationInit cmd;
return m_syncMessenger.sendWait(cmd) == StReady;
}
bool DSPDeviceMIMOEngine::startProcess()
{
qDebug() << "DSPDeviceMIMOEngine::startGeneration";
DSPGenerationStart cmd;
return m_syncMessenger.sendWait(cmd) == StRunning;
}
void DSPDeviceMIMOEngine::stopProcess()
{
qDebug() << "DSPDeviceMIMOEngine::stopGeneration";
DSPGenerationStop cmd;
m_syncMessenger.storeMessage(cmd);
handleSynchronousMessages();
}
void DSPDeviceMIMOEngine::setMIMO(DeviceSampleMIMO* mimo)
{
qDebug() << "DSPDeviceMIMOEngine::setMIMO";
SetSampleMIMO cmd(mimo);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::setMIMOSequence(int sequence)
{
qDebug("DSPDeviceMIMOEngine::setSinkSequence: seq: %d", sequence);
m_sampleMIMOSequence = sequence;
}
void DSPDeviceMIMOEngine::addSourceStream(bool connect)
{
qDebug("DSPDeviceMIMOEngine::addSourceStream");
AddSourceStream cmd(connect);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::removeLastSourceStream()
{
qDebug("DSPDeviceMIMOEngine::removeLastSourceStream");
RemoveLastSourceStream cmd;
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::addSinkStream(bool connect)
{
qDebug("DSPDeviceMIMOEngine::addSinkStream");
AddSinkStream cmd(connect);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::removeLastSinkStream()
{
qDebug("DSPDeviceMIMOEngine::removeLastSinkStream");
RemoveLastSourceStream cmd;
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::addChannelSource(ThreadedBasebandSampleSource* source, int index)
{
qDebug() << "DSPDeviceMIMOEngine::addThreadedSource: "
<< source->objectName().toStdString().c_str()
<< " at: "
<< index;
AddThreadedBasebandSampleSource cmd(source, index);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::removeChannelSource(ThreadedBasebandSampleSource* source, int index)
{
qDebug() << "DSPDeviceMIMOEngine::removeThreadedSource: "
<< source->objectName().toStdString().c_str()
<< " at: "
<< index;
RemoveThreadedBasebandSampleSource cmd(source, index);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::addChannelSink(ThreadedBasebandSampleSink* sink, int index)
{
qDebug() << "DSPDeviceMIMOEngine::addThreadedSink: "
<< sink->objectName().toStdString().c_str()
<< " at: "
<< index;
AddThreadedBasebandSampleSink cmd(sink, index);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::removeChannelSink(ThreadedBasebandSampleSink* sink, int index)
{
qDebug() << "DSPDeviceMIMOEngine::removeThreadedSink: "
<< sink->objectName().toStdString().c_str()
<< " at: "
<< index;
RemoveThreadedBasebandSampleSink cmd(sink, index);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::addAncillarySink(BasebandSampleSink* sink, int index)
{
qDebug() << "DSPDeviceMIMOEngine::addSink: "
<< sink->objectName().toStdString().c_str()
<< " at: "
<< index;
AddBasebandSampleSink cmd(sink, index);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::removeAncillarySink(BasebandSampleSink* sink, int index)
{
qDebug() << "DSPDeviceMIMOEngine::removeSink: "
<< sink->objectName().toStdString().c_str()
<< " at: "
<< index;
RemoveBasebandSampleSink cmd(sink, index);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::addSpectrumSink(BasebandSampleSink* spectrumSink)
{
qDebug() << "DSPDeviceMIMOEngine::addSpectrumSink: " << spectrumSink->objectName().toStdString().c_str();
AddSpectrumSink cmd(spectrumSink);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::removeSpectrumSink(BasebandSampleSink* spectrumSink)
{
qDebug() << "DSPDeviceSinkEngine::removeSpectrumSink: " << spectrumSink->objectName().toStdString().c_str();
DSPRemoveSpectrumSink cmd(spectrumSink);
m_syncMessenger.sendWait(cmd);
}
void DSPDeviceMIMOEngine::setSpectrumSinkInput(bool sourceElseSink, int index)
{
qDebug() << "DSPDeviceSinkEngine::setSpectrumSinkInput: "
<< " sourceElseSink: " << sourceElseSink
<< " index: " << index;
SetSpectrumSinkInput cmd(sourceElseSink, index);
m_syncMessenger.sendWait(cmd);
}
QString DSPDeviceMIMOEngine::errorMessage()
{
qDebug() << "DSPDeviceMIMOEngine::errorMessage";
GetErrorMessage cmd;
m_syncMessenger.sendWait(cmd);
return cmd.getErrorMessage();
}
QString DSPDeviceMIMOEngine::deviceDescription()
{
qDebug() << "DSPDeviceMIMOEngine::deviceDescription";
GetMIMODeviceDescription cmd;
m_syncMessenger.sendWait(cmd);
return cmd.getDeviceDescription();
}
/**
* Routes samples from device source FIFO to sink channels that are registered for the FIFO
* Routes samples from source channels registered for the FIFO to the device sink FIFO
*/
void DSPDeviceMIMOEngine::work(int nbWriteSamples)
{
(void) nbWriteSamples;
// Sources
for (unsigned int isource = 0; isource < m_deviceSampleMIMO->getNbSourceStreams(); isource++)
{
SampleSinkFifo* sampleFifo = m_deviceSampleMIMO->getSampleSinkFifo(isource); // sink FIFO is for Rx
int samplesDone = 0;
bool positiveOnly = false;
while ((sampleFifo->fill() > 0) && (m_inputMessageQueue.size() == 0) && (samplesDone < m_deviceSampleMIMO->getSourceSampleRate(isource)))
{
SampleVector::iterator part1begin;
SampleVector::iterator part1end;
SampleVector::iterator part2begin;
SampleVector::iterator part2end;
std::size_t count = sampleFifo->readBegin(sampleFifo->fill(), &part1begin, &part1end, &part2begin, &part2end);
// first part of FIFO data
if (part1begin != part1end)
{
// TODO: DC and IQ corrections
// feed data to direct sinks
if (isource < m_basebandSampleSinks.size())
{
for (BasebandSampleSinks::const_iterator it = m_basebandSampleSinks[isource].begin(); it != m_basebandSampleSinks[isource].end(); ++it) {
(*it)->feed(part1begin, part1end, positiveOnly);
}
}
// possibly feed data to spectrum sink
if ((m_spectrumSink) && (m_spectrumInputSourceElseSink) && (isource == m_spectrumInputIndex)) {
m_spectrumSink->feed(part1begin, part1end, positiveOnly);
}
// feed data to threaded sinks
if (isource < m_threadedBasebandSampleSinks.size())
{
for (ThreadedBasebandSampleSinks::const_iterator it = m_threadedBasebandSampleSinks[isource].begin(); it != m_threadedBasebandSampleSinks[isource].end(); ++it) {
(*it)->feed(part1begin, part1end, positiveOnly);
}
}
}
// second part of FIFO data (used when block wraps around)
if(part2begin != part2end)
{
// TODO: DC and IQ corrections
// feed data to direct sinks
if (isource < m_basebandSampleSinks.size())
{
for (BasebandSampleSinks::const_iterator it = m_basebandSampleSinks[isource].begin(); it != m_basebandSampleSinks[isource].end(); ++it) {
(*it)->feed(part2begin, part2end, positiveOnly);
}
}
// possibly feed data to spectrum sink
if ((m_spectrumSink) && (m_spectrumInputSourceElseSink) && (isource == m_spectrumInputIndex)) {
m_spectrumSink->feed(part2begin, part2end, positiveOnly);
}
// feed data to threaded sinks
if (isource < m_threadedBasebandSampleSinks.size())
{
for (ThreadedBasebandSampleSinks::const_iterator it = m_threadedBasebandSampleSinks[isource].begin(); it != m_threadedBasebandSampleSinks[isource].end(); ++it) {
(*it)->feed(part2begin, part2end, positiveOnly);
}
}
}
// adjust FIFO pointers
sampleFifo->readCommit((unsigned int) count);
samplesDone += count;
} // while stream FIFO
} // for stream source
// TODO: sinks
}
void DSPDeviceMIMOEngine::workSampleSink(unsigned int sinkIndex)
{
if (m_state != StRunning) {
return;
}
SampleSinkFifo* sampleFifo = m_deviceSampleMIMO->getSampleSinkFifo(sinkIndex);
int samplesDone = 0;
bool positiveOnly = false;
while ((sampleFifo->fill() > 0) && (m_inputMessageQueue.size() == 0) && (samplesDone < m_deviceSampleMIMO->getSourceSampleRate(sinkIndex)))
{
SampleVector::iterator part1begin;
SampleVector::iterator part1end;
SampleVector::iterator part2begin;
SampleVector::iterator part2end;
std::size_t count = sampleFifo->readBegin(sampleFifo->fill(), &part1begin, &part1end, &part2begin, &part2end);
// first part of FIFO data
if (part1begin != part1end)
{
// DC and IQ corrections
if (m_sourcesCorrections[sinkIndex].m_dcOffsetCorrection) {
iqCorrections(part1begin, part1end, sinkIndex, m_sourcesCorrections[sinkIndex].m_iqImbalanceCorrection);
}
// feed data to direct sinks
if (sinkIndex < m_basebandSampleSinks.size())
{
for (BasebandSampleSinks::const_iterator it = m_basebandSampleSinks[sinkIndex].begin(); it != m_basebandSampleSinks[sinkIndex].end(); ++it) {
(*it)->feed(part1begin, part1end, positiveOnly);
}
}
// possibly feed data to spectrum sink
if ((m_spectrumSink) && (m_spectrumInputSourceElseSink) && (sinkIndex == m_spectrumInputIndex)) {
m_spectrumSink->feed(part1begin, part1end, positiveOnly);
}
// feed data to threaded sinks
for (ThreadedBasebandSampleSinks::const_iterator it = m_threadedBasebandSampleSinks[sinkIndex].begin(); it != m_threadedBasebandSampleSinks[sinkIndex].end(); ++it)
{
(*it)->feed(part1begin, part1end, positiveOnly);
}
}
// second part of FIFO data (used when block wraps around)
if(part2begin != part2end)
{
// DC and IQ corrections
if (m_sourcesCorrections[sinkIndex].m_dcOffsetCorrection) {
iqCorrections(part2begin, part2end, sinkIndex, m_sourcesCorrections[sinkIndex].m_iqImbalanceCorrection);
}
// feed data to direct sinks
if (sinkIndex < m_basebandSampleSinks.size())
{
for (BasebandSampleSinks::const_iterator it = m_basebandSampleSinks[sinkIndex].begin(); it != m_basebandSampleSinks[sinkIndex].end(); ++it) {
(*it)->feed(part2begin, part2end, positiveOnly);
}
}
// possibly feed data to spectrum sink
if ((m_spectrumSink) && (m_spectrumInputSourceElseSink) && (sinkIndex == m_spectrumInputIndex)) {
m_spectrumSink->feed(part2begin, part2end, positiveOnly);
}
// feed data to threaded sinks
for (ThreadedBasebandSampleSinks::const_iterator it = m_threadedBasebandSampleSinks[sinkIndex].begin(); it != m_threadedBasebandSampleSinks[sinkIndex].end(); ++it)
{
(*it)->feed(part2begin, part2end, positiveOnly);
}
}
// adjust FIFO pointers
sampleFifo->readCommit((unsigned int) count);
samplesDone += count;
}
}
// notStarted -> idle -> init -> running -+
// ^ |
// +-----------------------+
DSPDeviceMIMOEngine::State DSPDeviceMIMOEngine::gotoIdle()
{
qDebug() << "DSPDeviceMIMOEngine::gotoIdle";
switch(m_state) {
case StNotStarted:
return StNotStarted;
case StIdle:
case StError:
return StIdle;
case StReady:
case StRunning:
break;
}
if (!m_deviceSampleMIMO) {
return StIdle;
}
// stop everything
std::vector<BasebandSampleSinks>::const_iterator vbit = m_basebandSampleSinks.begin();
for (; vbit != m_basebandSampleSinks.end(); ++vbit)
{
for (BasebandSampleSinks::const_iterator it = vbit->begin(); it != vbit->end(); ++it) {
(*it)->stop();
}
}
std::vector<ThreadedBasebandSampleSinks>::const_iterator vtit = m_threadedBasebandSampleSinks.begin();
for (; vtit != m_threadedBasebandSampleSinks.end(); vtit++)
{
for (ThreadedBasebandSampleSinks::const_iterator it = vtit->begin(); it != vtit->end(); ++it) {
(*it)->stop();
}
}
m_deviceSampleMIMO->stop();
m_deviceDescription.clear();
return StIdle;
}
DSPDeviceMIMOEngine::State DSPDeviceMIMOEngine::gotoInit()
{
switch(m_state) {
case StNotStarted:
return StNotStarted;
case StRunning: // FIXME: assumes it goes first through idle state. Could we get back to init from running directly?
return StRunning;
case StReady:
return StReady;
case StIdle:
case StError:
break;
}
if (!m_deviceSampleMIMO) {
return gotoError("No sample MIMO configured");
}
// init: pass sample rate and center frequency to all sample rate and/or center frequency dependent sinks and wait for completion
m_deviceDescription = m_deviceSampleMIMO->getDeviceDescription();
qDebug() << "DSPDeviceMIMOEngine::gotoInit: "
<< " m_deviceDescription: " << m_deviceDescription.toStdString().c_str();
// Rx
for (unsigned int isource = 0; isource < m_deviceSampleMIMO->getNbSinkFifos(); isource++)
{
if (isource < m_sourcesCorrections.size())
{
m_sourcesCorrections[isource].m_iOffset = 0;
m_sourcesCorrections[isource].m_qOffset = 0;
m_sourcesCorrections[isource].m_iRange = 1 << 16;
m_sourcesCorrections[isource].m_qRange = 1 << 16;
}
quint64 sourceCenterFrequency = m_deviceSampleMIMO->getSourceCenterFrequency(isource);
int sourceStreamSampleRate = m_deviceSampleMIMO->getSourceSampleRate(isource);
qDebug("DSPDeviceMIMOEngine::gotoInit: m_sourceCenterFrequencies[%d] = %llu", isource, sourceCenterFrequency);
qDebug("DSPDeviceMIMOEngine::gotoInit: m_sourceStreamSampleRates[%d] = %d", isource, sourceStreamSampleRate);
DSPSignalNotification notif(sourceStreamSampleRate, sourceCenterFrequency);
if (isource < m_basebandSampleSinks.size())
{
for (BasebandSampleSinks::const_iterator it = m_basebandSampleSinks[isource].begin(); it != m_basebandSampleSinks[isource].end(); ++it)
{
qDebug() << "DSPDeviceMIMOEngine::gotoInit: initializing " << (*it)->objectName().toStdString().c_str();
(*it)->handleMessage(notif);
}
}
if (isource < m_threadedBasebandSampleSinks.size())
{
for (ThreadedBasebandSampleSinks::const_iterator it = m_threadedBasebandSampleSinks[isource].begin(); it != m_threadedBasebandSampleSinks[isource].end(); ++it)
{
qDebug() << "DSPDeviceMIMOEngine::gotoInit: initializing ThreadedSampleSink(" << (*it)->getSampleSinkObjectName().toStdString().c_str() << ")";
(*it)->handleSinkMessage(notif);
}
}
// Probably not necessary
// // possibly forward to spectrum sink
// if ((m_spectrumSink) && (m_spectrumInputSourceElseSink) && (isource == m_spectrumInputIndex)) {
// m_spectrumSink->handleMessage(notif);
// }
// // forward changes to MIMO GUI input queue
// MessageQueue *guiMessageQueue = m_deviceSampleMIMO->getMessageQueueToGUI();
// if (guiMessageQueue) {
// DSPMIMOSignalNotification* rep = new DSPMIMOSignalNotification(sourceStreamSampleRate, sourceCenterFrequency, true, isource); // make a copy for the MIMO GUI
// guiMessageQueue->push(rep);
// }
}
//TODO: Tx
return StReady;
}
DSPDeviceMIMOEngine::State DSPDeviceMIMOEngine::gotoRunning()
{
qDebug() << "DSPDeviceMIMOEngine::gotoRunning";
switch(m_state)
{
case StNotStarted:
return StNotStarted;
case StIdle:
return StIdle;
case StRunning:
return StRunning;
case StReady:
case StError:
break;
}
if (!m_deviceSampleMIMO) {
return gotoError("DSPDeviceMIMOEngine::gotoRunning: No sample source configured");
}
qDebug() << "DSPDeviceMIMOEngine::gotoRunning: " << m_deviceDescription.toStdString().c_str() << " started";
// Start everything
if (!m_deviceSampleMIMO->start()) {
return gotoError("Could not start sample source");
}
std::vector<BasebandSampleSinks>::const_iterator vbit = m_basebandSampleSinks.begin();
for (; vbit != m_basebandSampleSinks.end(); ++vbit)
{
for (BasebandSampleSinks::const_iterator it = vbit->begin(); it != vbit->end(); ++it)
{
qDebug() << "DSPDeviceMIMOEngine::gotoRunning: starting " << (*it)->objectName().toStdString().c_str();
(*it)->start();
}
}
std::vector<ThreadedBasebandSampleSinks>::const_iterator vtit = m_threadedBasebandSampleSinks.begin();
for (; vtit != m_threadedBasebandSampleSinks.end(); vtit++)
{
for (ThreadedBasebandSampleSinks::const_iterator it = vtit->begin(); it != vtit->end(); ++it)
{
qDebug() << "DSPDeviceMIMOEngine::gotoRunning: starting ThreadedSampleSink(" << (*it)->getSampleSinkObjectName().toStdString().c_str() << ")";
(*it)->start();
}
}
qDebug() << "DSPDeviceMIMOEngine::gotoRunning:input message queue pending: " << m_inputMessageQueue.size();
return StRunning;
}
DSPDeviceMIMOEngine::State DSPDeviceMIMOEngine::gotoError(const QString& errorMessage)
{
qDebug() << "DSPDeviceMIMOEngine::gotoError: " << errorMessage;
m_errorMessage = errorMessage;
m_deviceDescription.clear();
m_state = StError;
return StError;
}
void DSPDeviceMIMOEngine::handleData()
{
if (m_state == StRunning)
{
work(0); // TODO: implement Tx side
}
}
void DSPDeviceMIMOEngine::handleSetMIMO(DeviceSampleMIMO* mimo)
{
m_deviceSampleMIMO = mimo;
if (mimo)
{
if ((m_sampleSinkConnectionIndexes.size() == 1) && (m_sampleSourceConnectionIndexes.size() == 0)) // true MIMO (synchronous FIFOs)
{
qDebug("DSPDeviceMIMOEngine::handleSetMIMO: synchronous set %s", qPrintable(mimo->getDeviceDescription()));
// connect(m_deviceSampleMIMO->getSampleSinkFifo(m_sampleSinkConnectionIndexes[0]), SIGNAL(dataReady()), this, SLOT(handleData()), Qt::QueuedConnection);
QObject::connect(
m_deviceSampleMIMO->getSampleSinkFifo(m_sampleSinkConnectionIndexes[0]),
&SampleSinkFifo::dataReady,
this,
[=](){ this->handleData(); }, // lambda function is not strictly needed here
Qt::QueuedConnection
);
}
else if (m_sampleSinkConnectionIndexes.size() != 0) // asynchronous FIFOs
{
for (unsigned int isink = 0; isink < m_sampleSinkConnectionIndexes.size(); isink++)
{
qDebug("DSPDeviceMIMOEngine::handleSetMIMO: asynchronous sources set %s channel %u",
qPrintable(mimo->getDeviceDescription()), isink);
QObject::connect(
m_deviceSampleMIMO->getSampleSinkFifo(m_sampleSinkConnectionIndexes[isink]),
&SampleSinkFifo::dataReady,
this,
[=](){ this->workSampleSink(isink); },
Qt::QueuedConnection
);
}
}
}
// TODO: Tx
}
void DSPDeviceMIMOEngine::handleSynchronousMessages()
{
Message *message = m_syncMessenger.getMessage();
qDebug() << "DSPDeviceMIMOEngine::handleSynchronousMessages: " << message->getIdentifier();
if (DSPGenerationInit::match(*message))
{
m_state = gotoIdle();
if(m_state == StIdle) {
m_state = gotoInit(); // State goes ready if init is performed
}
}
else if (DSPGenerationStart::match(*message))
{
if(m_state == StReady) {
m_state = gotoRunning();
}
}
else if (DSPGenerationStop::match(*message))
{
m_state = gotoIdle();
}
else if (GetMIMODeviceDescription::match(*message))
{
((GetMIMODeviceDescription*) message)->setDeviceDescription(m_deviceDescription);
}
else if (DSPGetErrorMessage::match(*message))
{
((DSPGetErrorMessage*) message)->setErrorMessage(m_errorMessage);
}
else if (SetSampleMIMO::match(*message)) {
handleSetMIMO(((SetSampleMIMO*) message)->getSampleMIMO());
}
else if (AddSourceStream::match(*message))
{
m_basebandSampleSinks.push_back(BasebandSampleSinks());
int currentIndex = m_threadedBasebandSampleSinks.size();
m_threadedBasebandSampleSinks.push_back(ThreadedBasebandSampleSinks());
m_sourcesCorrections.push_back(SourceCorrection());
if (((AddSourceStream *) message)->getConnect()) {
m_sampleSinkConnectionIndexes.push_back(currentIndex);
}
}
else if (RemoveLastSourceStream::match(*message))
{
m_basebandSampleSinks.pop_back();
m_threadedBasebandSampleSinks.pop_back();
}
else if (AddSinkStream::match(*message))
{
int currentIndex = m_threadedBasebandSampleSources.size();
m_threadedBasebandSampleSources.push_back(ThreadedBasebandSampleSources());
if (((AddSinkStream *) message)->getConnect()) {
m_sampleSourceConnectionIndexes.push_back(currentIndex);
}
}
else if (RemoveLastSinkStream::match(*message))
{
m_threadedBasebandSampleSources.pop_back();
}
else if (AddBasebandSampleSink::match(*message))
{
const AddBasebandSampleSink *msg = (AddBasebandSampleSink *) message;
BasebandSampleSink* sink = msg->getSampleSink();
unsigned int isource = msg->getIndex();
if (isource < m_basebandSampleSinks.size())
{
m_basebandSampleSinks[isource].push_back(sink);
// initialize sample rate and center frequency in the sink:
int sourceStreamSampleRate = m_deviceSampleMIMO->getSourceSampleRate(isource);
quint64 sourceCenterFrequency = m_deviceSampleMIMO->getSourceCenterFrequency(isource);
DSPSignalNotification msg(sourceStreamSampleRate, sourceCenterFrequency);
sink->handleMessage(msg);
// start the sink:
if(m_state == StRunning) {
sink->start();
}
}
}
else if (RemoveBasebandSampleSink::match(*message))
{
const RemoveBasebandSampleSink *msg = (RemoveBasebandSampleSink *) message;
BasebandSampleSink* sink = ((DSPRemoveBasebandSampleSink*) message)->getSampleSink();
unsigned int isource = msg->getIndex();
if (isource < m_basebandSampleSinks.size())
{
if(m_state == StRunning) {
sink->stop();
}
m_basebandSampleSinks[isource].remove(sink);
}
}
else if (AddThreadedBasebandSampleSink::match(*message))
{
const AddThreadedBasebandSampleSink *msg = (AddThreadedBasebandSampleSink *) message;
ThreadedBasebandSampleSink *threadedSink = msg->getThreadedSampleSink();
unsigned int isource = msg->getIndex();
if (isource < m_threadedBasebandSampleSinks.size())
{
m_threadedBasebandSampleSinks[isource].push_back(threadedSink);
// initialize sample rate and center frequency in the sink:
int sourceStreamSampleRate = m_deviceSampleMIMO->getSourceSampleRate(isource);
quint64 sourceCenterFrequency = m_deviceSampleMIMO->getSourceCenterFrequency(isource);
DSPSignalNotification msg(sourceStreamSampleRate, sourceCenterFrequency);
threadedSink->handleSinkMessage(msg);
// start the sink:
if(m_state == StRunning) {
threadedSink->start();
}
}
}
else if (RemoveThreadedBasebandSampleSink::match(*message))
{
const RemoveThreadedBasebandSampleSink *msg = (RemoveThreadedBasebandSampleSink *) message;
ThreadedBasebandSampleSink* threadedSink = msg->getThreadedSampleSink();
unsigned int isource = msg->getIndex();
if (isource < m_threadedBasebandSampleSinks.size())
{
threadedSink->stop();
m_threadedBasebandSampleSinks[isource].remove(threadedSink);
}
}
else if (AddThreadedBasebandSampleSource::match(*message))
{
const AddThreadedBasebandSampleSource *msg = (AddThreadedBasebandSampleSource *) message;
ThreadedBasebandSampleSource *threadedSource = msg->getThreadedSampleSource();
unsigned int isink = msg->getIndex();
if (isink < m_threadedBasebandSampleSources.size())
{
m_threadedBasebandSampleSources[isink].push_back(threadedSource);
// initialize sample rate and center frequency in the sink:
int sinkStreamSampleRate = m_deviceSampleMIMO->getSinkSampleRate(isink);
quint64 sinkCenterFrequency = m_deviceSampleMIMO->getSinkCenterFrequency(isink);
DSPSignalNotification msg(sinkStreamSampleRate, sinkCenterFrequency);
threadedSource->handleSourceMessage(msg);
// start the sink:
if(m_state == StRunning) {
threadedSource->start();
}
}
}
else if (RemoveThreadedBasebandSampleSource::match(*message))
{
const RemoveThreadedBasebandSampleSource *msg = (RemoveThreadedBasebandSampleSource *) message;
ThreadedBasebandSampleSource* threadedSource = msg->getThreadedSampleSource();
unsigned int isink = msg->getIndex();
if (isink < m_threadedBasebandSampleSources.size())
{
threadedSource->stop();
m_threadedBasebandSampleSources[isink].remove(threadedSource);
}
}
else if (AddSpectrumSink::match(*message))
{
m_spectrumSink = ((AddSpectrumSink*) message)->getSampleSink();
}
else if (RemoveSpectrumSink::match(*message))
{
BasebandSampleSink* spectrumSink = ((DSPRemoveSpectrumSink*) message)->getSampleSink();
spectrumSink->stop();
if (!m_spectrumInputSourceElseSink && m_deviceSampleMIMO && (m_spectrumInputIndex < m_deviceSampleMIMO->getNbSinkStreams()))
{
SampleSourceFifo *inputFIFO = m_deviceSampleMIMO->getSampleSourceFifo(m_spectrumInputIndex);
disconnect(inputFIFO, SIGNAL(dataRead(int)), this, SLOT(handleForwardToSpectrumSink(int)));
}
m_spectrumSink = nullptr;
}
else if (SetSpectrumSinkInput::match(*message))
{
const SetSpectrumSinkInput *msg = (SetSpectrumSinkInput *) message;
bool spectrumInputSourceElseSink = msg->getSourceElseSink();
unsigned int spectrumInputIndex = msg->getIndex();
if ((spectrumInputSourceElseSink != m_spectrumInputSourceElseSink) || (spectrumInputIndex != m_spectrumInputIndex))
{
if (!m_spectrumInputSourceElseSink) // remove the source listener
{
SampleSourceFifo *inputFIFO = m_deviceSampleMIMO->getSampleSourceFifo(m_spectrumInputIndex);
disconnect(inputFIFO, SIGNAL(dataRead(int)), this, SLOT(handleForwardToSpectrumSink(int)));
}
if ((!spectrumInputSourceElseSink) && (spectrumInputIndex < m_deviceSampleMIMO->getNbSinkStreams())) // add the source listener
{
SampleSourceFifo *inputFIFO = m_deviceSampleMIMO->getSampleSourceFifo(spectrumInputIndex);
connect(inputFIFO, SIGNAL(dataRead(int)), this, SLOT(handleForwardToSpectrumSink(int)));
if (m_spectrumSink)
{
DSPSignalNotification notif(
m_deviceSampleMIMO->getSinkSampleRate(spectrumInputIndex),
m_deviceSampleMIMO->getSinkCenterFrequency(spectrumInputIndex));
m_spectrumSink->handleMessage(notif);
}
}
if (m_spectrumSink && (spectrumInputSourceElseSink) && (spectrumInputIndex < m_deviceSampleMIMO->getNbSinkFifos()))
{
DSPSignalNotification notif(
m_deviceSampleMIMO->getSourceSampleRate(spectrumInputIndex),
m_deviceSampleMIMO->getSourceCenterFrequency(spectrumInputIndex));
m_spectrumSink->handleMessage(notif);
}
m_spectrumInputSourceElseSink = spectrumInputSourceElseSink;
m_spectrumInputIndex = spectrumInputIndex;
}
}
m_syncMessenger.done(m_state);
}
void DSPDeviceMIMOEngine::handleInputMessages()
{
Message* message;
while ((message = m_inputMessageQueue.pop()) != 0)
{
qDebug("DSPDeviceMIMOEngine::handleInputMessages: message: %s", message->getIdentifier());
if (ConfigureCorrection::match(*message))
{
ConfigureCorrection* conf = (ConfigureCorrection*) message;
unsigned int isource = conf->getIndex();
if (isource < m_sourcesCorrections.size())
{
m_sourcesCorrections[isource].m_iqImbalanceCorrection = conf->getIQImbalanceCorrection();
if (m_sourcesCorrections[isource].m_dcOffsetCorrection != conf->getDCOffsetCorrection())
{
m_sourcesCorrections[isource].m_dcOffsetCorrection = conf->getDCOffsetCorrection();
m_sourcesCorrections[isource].m_iOffset = 0;
m_sourcesCorrections[isource].m_qOffset = 0;
if (m_sourcesCorrections[isource].m_iqImbalanceCorrection != conf->getIQImbalanceCorrection())
{
m_sourcesCorrections[isource].m_iqImbalanceCorrection = conf->getIQImbalanceCorrection();
m_sourcesCorrections[isource].m_iRange = 1 << 16;
m_sourcesCorrections[isource].m_qRange = 1 << 16;
m_sourcesCorrections[isource].m_imbalance = 65536;
}
}
m_sourcesCorrections[isource].m_iBeta.reset();
m_sourcesCorrections[isource].m_qBeta.reset();
m_sourcesCorrections[isource].m_avgAmp.reset();
m_sourcesCorrections[isource].m_avgII.reset();
m_sourcesCorrections[isource].m_avgII2.reset();
m_sourcesCorrections[isource].m_avgIQ.reset();
m_sourcesCorrections[isource].m_avgPhi.reset();
m_sourcesCorrections[isource].m_avgQQ2.reset();
m_sourcesCorrections[isource].m_iBeta.reset();
m_sourcesCorrections[isource].m_qBeta.reset();
}
delete message;
}
else if (DSPMIMOSignalNotification::match(*message))
{
DSPMIMOSignalNotification *notif = (DSPMIMOSignalNotification *) message;
// update DSP values
bool sourceElseSink = notif->getSourceOrSink();
unsigned int istream = notif->getIndex();
int sampleRate = notif->getSampleRate();
qint64 centerFrequency = notif->getCenterFrequency();
qDebug() << "DeviceMIMOEngine::handleInputMessages: DSPMIMOSignalNotification:"
<< " sourceElseSink: " << sourceElseSink
<< " istream: " << istream
<< " sampleRate: " << sampleRate
<< " centerFrequency: " << centerFrequency;
if (sourceElseSink)
{
if ((istream < m_deviceSampleMIMO->getNbSourceStreams()))
{
DSPSignalNotification *message = new DSPSignalNotification(sampleRate, centerFrequency);
// forward source changes to ancillary sinks with immediate execution (no queuing)
if (istream < m_basebandSampleSinks.size())
{
for (BasebandSampleSinks::const_iterator it = m_basebandSampleSinks[istream].begin(); it != m_basebandSampleSinks[istream].end(); ++it)
{
qDebug() << "DSPDeviceMIMOEngine::gotoRunning: starting " << (*it)->objectName().toStdString().c_str();
(*it)->handleMessage(*message);
}
}
// forward source changes to channel sinks with immediate execution (no queuing)
if (istream < m_threadedBasebandSampleSinks.size())
{
for (ThreadedBasebandSampleSinks::const_iterator it = m_threadedBasebandSampleSinks[istream].begin(); it != m_threadedBasebandSampleSinks[istream].end(); ++it)
{
qDebug() << "DSPDeviceMIMOEngine::handleSourceMessages: forward message to ThreadedSampleSink(" << (*it)->getSampleSinkObjectName().toStdString().c_str() << ")";
(*it)->handleSinkMessage(*message);
}
}
// forward changes to MIMO GUI input queue
MessageQueue *guiMessageQueue = m_deviceSampleMIMO->getMessageQueueToGUI();
qDebug("DeviceMIMOEngine::handleInputMessages: DSPMIMOSignalNotification: guiMessageQueue: %p", guiMessageQueue);
if (guiMessageQueue) {
DSPMIMOSignalNotification* rep = new DSPMIMOSignalNotification(*notif); // make a copy for the MIMO GUI
guiMessageQueue->push(rep);
}
// forward changes to spectrum sink if currently active
if (m_spectrumSink && m_spectrumInputSourceElseSink && (m_spectrumInputIndex == istream))
{
DSPSignalNotification spectrumNotif(sampleRate, centerFrequency);
m_spectrumSink->handleMessage(spectrumNotif);
}
}
}
else
{
if ((istream < m_deviceSampleMIMO->getNbSinkStreams()))
{
DSPSignalNotification *message = new DSPSignalNotification(sampleRate, centerFrequency);
// forward source changes to channel sources with immediate execution (no queuing)
if (istream < m_threadedBasebandSampleSources.size())
{
for (ThreadedBasebandSampleSources::const_iterator it = m_threadedBasebandSampleSources[istream].begin(); it != m_threadedBasebandSampleSources[istream].end(); ++it)
{
qDebug() << "DSPDeviceMIMOEngine::handleSinkMessages: forward message to ThreadedSampleSource(" << (*it)->getSampleSourceObjectName().toStdString().c_str() << ")";
(*it)->handleSourceMessage(*message);
}
}
// forward changes to MIMO GUI input queue
MessageQueue *guiMessageQueue = m_deviceSampleMIMO->getMessageQueueToGUI();
qDebug("DSPDeviceMIMOEngine::handleInputMessages: DSPSignalNotification: guiMessageQueue: %p", guiMessageQueue);
if (guiMessageQueue) {
DSPMIMOSignalNotification* rep = new DSPMIMOSignalNotification(*notif); // make a copy for the source GUI
guiMessageQueue->push(rep);
}
// forward changes to spectrum sink if currently active
if (m_spectrumSink && !m_spectrumInputSourceElseSink && (m_spectrumInputIndex == istream))
{
DSPSignalNotification spectrumNotif(sampleRate, centerFrequency);
m_spectrumSink->handleMessage(spectrumNotif);
}
}
}
delete message;
}
}
}
void DSPDeviceMIMOEngine::configureCorrections(bool dcOffsetCorrection, bool iqImbalanceCorrection, int isource)
{
qDebug() << "DSPDeviceMIMOEngine::configureCorrections";
ConfigureCorrection* cmd = new ConfigureCorrection(dcOffsetCorrection, iqImbalanceCorrection, isource);
m_inputMessageQueue.push(cmd);
}
// This is used for the Tx (sink streams) side
void DSPDeviceMIMOEngine::handleForwardToSpectrumSink(int nbSamples)
{
if ((m_spectrumSink) && (m_spectrumInputIndex < m_deviceSampleMIMO->getNbSinkStreams()))
{
SampleSourceFifo* sampleFifo = m_deviceSampleMIMO->getSampleSourceFifo(m_spectrumInputIndex);
SampleVector::iterator readUntil;
sampleFifo->getReadIterator(readUntil);
m_spectrumSink->feed(readUntil - nbSamples, readUntil, false);
}
}
void DSPDeviceMIMOEngine::iqCorrections(SampleVector::iterator begin, SampleVector::iterator end, int isource, bool imbalanceCorrection)
{
for(SampleVector::iterator it = begin; it < end; it++)
{
m_sourcesCorrections[isource].m_iBeta(it->real());
m_sourcesCorrections[isource].m_qBeta(it->imag());
if (imbalanceCorrection)
{
#if IMBALANCE_INT
// acquisition
int64_t xi = (it->m_real - (int32_t) m_sourcesCorrections[isource].m_iBeta) << 5;
int64_t xq = (it->m_imag - (int32_t) m_sourcesCorrections[isource].m_qBeta) << 5;
// phase imbalance
m_sourcesCorrections[isource].m_avgII((xi*xi)>>28); // <I", I">
m_sourcesCorrections[isource].m_avgIQ((xi*xq)>>28); // <I", Q">
if ((int64_t) m_sourcesCorrections[isource].m_avgII != 0)
{
int64_t phi = (((int64_t) m_sourcesCorrections[isource].m_avgIQ)<<28) / (int64_t) m_sourcesCorrections[isource].m_avgII;
m_sourcesCorrections[isource].m_avgPhi(phi);
}
int64_t corrPhi = (((int64_t) m_sourcesCorrections[isource].m_avgPhi) * xq) >> 28; //(m_avgPhi.asDouble()/16777216.0) * ((double) xq);
int64_t yi = xi - corrPhi;
int64_t yq = xq;
// amplitude I/Q imbalance
m_sourcesCorrections[isource].m_avgII2((yi*yi)>>28); // <I, I>
m_sourcesCorrections[isource].m_avgQQ2((yq*yq)>>28); // <Q, Q>
if ((int64_t) m_sourcesCorrections[isource].m_avgQQ2 != 0)
{
int64_t a = (((int64_t) m_sourcesCorrections[isource].m_avgII2)<<28) / (int64_t) m_sourcesCorrections[isource].m_avgQQ2;
Fixed<int64_t, 28> fA(Fixed<int64_t, 28>::internal(), a);
Fixed<int64_t, 28> sqrtA = sqrt((Fixed<int64_t, 28>) fA);
m_sourcesCorrections[isource].m_avgAmp(sqrtA.as_internal());
}
int64_t zq = (((int64_t) m_sourcesCorrections[isource].m_avgAmp) * yq) >> 28;
it->m_real = yi >> 5;
it->m_imag = zq >> 5;
#else
// DC correction and conversion
float xi = (it->m_real - (int32_t) m_sourcesCorrections[isource].m_iBeta) / SDR_RX_SCALEF;
float xq = (it->m_imag - (int32_t) m_sourcesCorrections[isource].m_qBeta) / SDR_RX_SCALEF;
// phase imbalance
m_sourcesCorrections[isource].m_avgII(xi*xi); // <I", I">
m_sourcesCorrections[isource].m_avgIQ(xi*xq); // <I", Q">
if (m_sourcesCorrections[isource].m_avgII.asDouble() != 0) {
m_sourcesCorrections[isource].m_avgPhi(m_sourcesCorrections[isource].m_avgIQ.asDouble()/m_sourcesCorrections[isource].m_avgII.asDouble());
}
float& yi = xi; // the in phase remains the reference
float yq = xq - m_sourcesCorrections[isource].m_avgPhi.asDouble()*xi;
// amplitude I/Q imbalance
m_sourcesCorrections[isource].m_avgII2(yi*yi); // <I, I>
m_sourcesCorrections[isource].m_avgQQ2(yq*yq); // <Q, Q>
if (m_sourcesCorrections[isource].m_avgQQ2.asDouble() != 0) {
m_sourcesCorrections[isource].m_avgAmp(sqrt(m_sourcesCorrections[isource].m_avgII2.asDouble() / m_sourcesCorrections[isource].m_avgQQ2.asDouble()));
}
// final correction
float& zi = yi; // the in phase remains the reference
float zq = m_sourcesCorrections[isource].m_avgAmp.asDouble() * yq;
// convert and store
it->m_real = zi * SDR_RX_SCALEF;
it->m_imag = zq * SDR_RX_SCALEF;
#endif
}
else
{
// DC correction only
it->m_real -= (int32_t) m_sourcesCorrections[isource].m_iBeta;
it->m_imag -= (int32_t) m_sourcesCorrections[isource].m_qBeta;
}
}
}