ASCEE/lasp
ASCEE/lasp
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Inbetween pybind11 commit. Nothing working.

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This commit is contained in:
Anne de Jong 2022-06-13 19:35:41 +02:00
parent f635cac209
commit 7eaaf43653
4 changed files with 417 additions and 448 deletions
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5
CMakeLists.txt
View File

@ -144,8 +144,9 @@ set(SETUP_PY "${CMAKE_CURRENT_BINARY_DIR}/setup.py")
set(DEPS "${CMAKE_CURRENT_SOURCE_DIR}/*.py"
"${CMAKE_CURRENT_SOURCE_DIR}/lasp/*.py"
"wrappers"
"lasp_daq")
# "wrappers"
# "lasp_device_lib")
)
set(OUTPUT "${CMAKE_CURRENT_BINARY_DIR}/build/timestamp")

17
lasp/device/lasp_daq.h
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@ -9,8 +9,8 @@
#include <optional>
/**
* @brief Data coming from / going to DAQ. Non-interleaved format, which means
* data in buffer is ordered by channel: _ptr[sample+channel*nsamples]
* @brief Data coming from / going to DAQ. **Non-interleaved format**, which means
* data in buffer is ordered by channel: _ptr[sample+channel*nframes]
*/
class DaqData {
protected:
@ -38,24 +38,13 @@ public:
us size_bytes() const { return _data.size(); }
};
/**
* @brief Typed DaqData, in which the type is specified
*
* @tparam T
*/
template <typename T> class TypedDaqData : public DaqData {
T *data() { return static_cast<T *>(_data.data()); }
};
/**
* @brief Callback of DAQ. Called with arguments of a vector of data
* spans for each channel, and a datatype descriptor. Callback should return
* false for a stop request.
*/
using ChannelView = std::vector<gsl::span<uint8_t>>;
using DaqCallback =
std::function<bool(ChannelView channel_data,
const DataTypeDescriptor &dtype_descr)>;
std::function<bool(std::unique_ptr<DaqData>)>;
/**
* @brief Base cass for all DAQ instances

390
lasp/device/lasp_rtaudiodaq.cpp
View File

@ -1,14 +1,17 @@
#if LASP_HAS_RTAUDIO == 1
#include "lasp_rtaudiodaq.h"
#if LASP_HAS_RTAUDIO == 1
#include "lasp_daqconfig.h"
#include <RtAudio.h>
#include <atomic>
#include <cassert>
#include <cstdint>
#include <thread>
using std::atomic;
using std::cerr;
using std::endl;
using std::atomic;
using std::runtime_error;
using std::vector;
void fillRtAudioDeviceInfo(vector<DeviceInfo> &devinfolist) {
@ -25,6 +28,7 @@ void fillRtAudioDeviceInfo(vector<DeviceInfo> &devinfolist) {
// Device capabilities not successfully probed. Continue to next
continue;
}
// "Our device info struct"
DeviceInfo d;
switch (api) {
case RtAudio::LINUX_ALSA:
@ -66,19 +70,24 @@ void fillRtAudioDeviceInfo(vector<DeviceInfo> &devinfolist) {
RtAudioFormat formats = devinfo.nativeFormats;
if (formats & RTAUDIO_SINT8) {
d.availableDataTypes.push_back(dtype_int8);
d.availableDataTypes.push_back(
DataTypeDescriptor::DataType::dtype_int8);
}
if (formats & RTAUDIO_SINT16) {
d.availableDataTypes.push_back(dtype_int16);
d.availableDataTypes.push_back(
DataTypeDescriptor::DataType::dtype_int16);
}
/* if (formats & RTAUDIO_SINT32) { */
/* d.availableDataTypes.push_back(DataTypeDescriptor::DataType::dtype_int24);
*/
/* } */
if (formats & RTAUDIO_SINT32) {
d.availableDataTypes.push_back(dtype_int24);
}
if (formats & RTAUDIO_SINT32) {
d.availableDataTypes.push_back(dtype_fl32);
d.availableDataTypes.push_back(
DataTypeDescriptor::DataType::dtype_fl32);
}
if (formats & RTAUDIO_FLOAT64) {
d.availableDataTypes.push_back(dtype_fl64);
d.availableDataTypes.push_back(
DataTypeDescriptor::DataType::dtype_fl64);
}
if (d.availableDataTypes.size() == 0) {
std::cerr << "RtAudio: No data types found in device!" << endl;
@ -86,11 +95,7 @@ void fillRtAudioDeviceInfo(vector<DeviceInfo> &devinfolist) {
d.prefDataTypeIndex = d.availableDataTypes.size() - 1;
d.availableFramesPerBlock.push_back(512);
d.availableFramesPerBlock.push_back(1024);
d.availableFramesPerBlock.push_back(2048);
d.availableFramesPerBlock.push_back(4096);
d.availableFramesPerBlock.push_back(8192);
d.availableFramesPerBlock = {512, 1024, 2048, 4096, 8192};
d.prefFramesPerBlockIndex = 1;
devinfolist.push_back(d);
@ -103,162 +108,206 @@ int mycallback(void *outputBuffer, void *inputBuffer, unsigned int nFrames,
void myerrorcallback(RtAudioError::Type, const string &errorText);
class AudioDaq : public Daq {
class RtAudioDaq : public Daq {
SafeQueue<void *> *inqueue = NULL;
SafeQueue<void *> *outqueue = NULL;
SafeQueue<void *> *outDelayqueue = NULL;
RtAudio rtaudio;
const us nFramesPerBlock;
RtAudio *rtaudio = NULL;
RtAudio::StreamParameters *instreamparams = nullptr;
RtAudio::StreamParameters *outstreamparams = nullptr;
us nFramesPerBlock;
RtAudioDaq(const RtAudioDaq &) = delete;
RtAudioDaq &operator=(const RtAudioDaq &) = delete;
public:
AudioDaq(const DeviceInfo &devinfo, const DaqConfiguration &config)
: Daq(devinfo, config) {
RtAudioDaq(const DeviceInfo &devinfo, const DaqConfiguration &config)
: Daq(devinfo, config),
rtaudio(static_cast<RtAudio::Api>(devinfo.api.api_specific_subcode)),
nFramesPerBlock(Daq::framesPerBlock()) {
nFramesPerBlock = this->framesPerBlock();
std::unique_ptr<RtAudio::StreamParameters> inParams, outParams;
// We make sure not to run RtAudio in duplex mode. This seems to be buggy
// and untested. Better to use a hardware-type loopback into the system.
if (neninchannels(false) > 0 && nenoutchannels() > 0) {
throw runtime_error("RtAudio backend cannot run in duplex mode.");
}
assert(!monitorOutput);
if (neninchannels(false) > 0) {
instreamparams = new RtAudio::StreamParameters();
instreamparams->nChannels = getHighestInChannel() + 1;
if (instreamparams->nChannels < 1) {
if (neninchannels() > 0) {
inParams = std::make_unique<RtAudio::StreamParameters>();
// +1 to get the count.
inParams->nChannels = getHighestInChannel() + 1;
if (inParams->nChannels < 1) {
throw runtime_error("Invalid input number of channels");
}
instreamparams->firstChannel = 0;
instreamparams->deviceId = devinfo.api_specific_devindex;
}
inParams->firstChannel = 0;
inParams->deviceId = devinfo.api_specific_devindex;
if (nenoutchannels() > 0) {
outstreamparams = new RtAudio::StreamParameters();
outstreamparams->nChannels = getHighestOutChannel() + 1;
if (outstreamparams->nChannels < 1) {
} else {
outParams = std::make_unique<RtAudio::StreamParameters>();
outParams->nChannels = getHighestOutChannel() + 1;
if (outParams->nChannels < 1) {
throw runtime_error("Invalid output number of channels");
}
outstreamparams->firstChannel = 0;
outstreamparams->deviceId = devinfo.api_specific_devindex;
outParams->firstChannel = 0;
outParams->deviceId = devinfo.api_specific_devindex;
}
RtAudio::StreamOptions streamoptions;
streamoptions.flags = RTAUDIO_NONINTERLEAVED | RTAUDIO_HOG_DEVICE;
streamoptions.flags = RTAUDIO_HOG_DEVICE;
streamoptions.numberOfBuffers = 2;
streamoptions.streamName = "RtAudio stream";
streamoptions.priority = 0;
RtAudioFormat format;
const DataType dtype = DataType();
using Dtype = DataTypeDescriptor::DataType;
const Dtype dtype = dataType();
switch (dtype) {
case dtype_fl32:
case Dtype::dtype_fl32:
format = RTAUDIO_FLOAT32;
break;
case dtype_fl64:
case Dtype::dtype_fl64:
format = RTAUDIO_FLOAT64;
break;
case dtype_int8:
case Dtype::dtype_int8:
format = RTAUDIO_SINT8;
break;
case dtype_int16:
case Dtype::dtype_int16:
format = RTAUDIO_SINT16;
break;
case dtype_int32:
case Dtype::dtype_int32:
format = RTAUDIO_SINT32;
break;
default:
throw runtime_error("Invalid data type");
throw runtime_error("Invalid data type specified for DAQ stream.");
break;
}
try {
rtaudio = new RtAudio((RtAudio::Api)devinfo.api.api_specific_subcode);
if (!rtaudio) {
throw runtime_error("RtAudio allocation failed");
// Copy here, as it is used to return the *actual* number of frames per
// block.
unsigned int nFramesPerBlock_copy = nFramesPerBlock;
// Final step: open the stream.
rtaudio.openStream(&(*outParams), &(*inParams), format,
static_cast<us>(samplerate()), &nFramesPerBlock_copy,
&mycallback, (void *)this, &streamoptions,
&myerrorcallback);
}
int streamCallback(void *outputBuffer, void *inputBuffer,
unsigned int nFrames, double streamTime,
RtAudioStreamStatus status) {
auto dtype = dataType();
us neninchannels_inc_mon = neninchannels();
us nenoutchannels = this->nenoutchannels();
us bytesperchan = dtype_map.at(dtype).sw * nFrames;
us monitorOffset = ((us)monitorOutput) * bytesperchan;
if (inputBuffer) {
u_int8_t *inbuffercpy =
(u_int8_t *)malloc(bytesperchan * neninchannels_inc_mon);
if (inputBuffer) {
us j = 0; // OUR buffer channel counter
us i = 0; // RtAudio channel counter
for (int ch = getLowestInChannel(); ch <= getHighestInChannel(); ch++) {
if (eninchannels[ch]) {
memcpy(&(inbuffercpy[monitorOffset + j * bytesperchan]),
&(inputBuffer[i * bytesperchan]), bytesperchan);
j++;
}
i++;
}
}
rtaudio->openStream(outstreamparams, instreamparams, format,
(us)samplerate(), (unsigned *)&nFramesPerBlock,
&mycallback, (void *)this, &streamoptions,
&myerrorcallback);
} catch (RtAudioError &e) {
if (rtaudio)
delete rtaudio;
if (instreamparams)
delete instreamparams;
if (outstreamparams)
delete outstreamparams;
throw;
}
if (monitorOutput) {
outDelayqueue = new SafeQueue<void *>();
if (outputBuffer) {
if (!outqueue->empty()) {
u_int8_t *outbuffercpy = (u_int8_t *)outqueue->dequeue();
us j = 0; // OUR buffer channel counter
us i = 0; // RtAudio channel counter
for (us ch = 0; ch <= daq->getHighestOutChannel(); ch++) {
/* cerr << "Copying from queue... " << endl; */
if (enoutchannels[ch]) {
memcpy(&(outputBuffer[i * bytesperchan]),
&(outbuffercpy[j * bytesperchan]), bytesperchan);
j++;
} else {
/* cerr << "unused output channel in list" << endl; */
memset(&(outputBuffer[i * bytesperchan]), 0, bytesperchan);
}
i++;
}
if (!monitorOutput) {
free(outbuffercpy);
} else {
assert(outDelayqueue);
outDelayqueue->enqueue((void *)outbuffercpy);
}
} else {
cerr << "RtAudio backend: stream output buffer underflow!" << endl;
}
}
return 0;
}
}
virtual void
start(std::optional<DaqCallback> inCallback,
std::optional<DaqCallback> outCallback) {
assert(!monitorOutput);
if (isRunning()) {
throw runtime_error("Stream already running");
}
friend int mycallback(void *outputBuffer, void *inputBuffer,
unsigned int nFrames, double streamTime,
RtAudioStreamStatus status, void *userData);
if (neninchannels(false) > 0 && !inqueue) {
throw runtime_error("inqueue argument not given");
}
if (nenoutchannels() > 0 && !outqueue) {
throw runtime_error("outqueue argument not given");
}
assert(rtaudio);
rtaudio->startStream();
}
void start(SafeQueue<void *> *inqueue, SafeQueue<void *> *outqueue) {
this->inqueue = inqueue;
this->outqueue = outqueue;
if (monitorOutput) {
this->outDelayqueue = new SafeQueue<void *>();
}
if (isRunning()) {
throw runtime_error("Stream already running");
}
if (neninchannels(false) > 0 && !inqueue) {
throw runtime_error("inqueue argument not given");
}
if (nenoutchannels() > 0 && !outqueue) {
throw runtime_error("outqueue argument not given");
}
void stop() {
if (!isRunning()) {
cerr << "Stream is already stopped" << endl;
} else {
assert(rtaudio);
rtaudio->startStream();
rtaudio->stopStream();
}
void stop() {
if (!isRunning()) {
cerr << "Stream is already stopped" << endl;
} else {
assert(rtaudio);
rtaudio->stopStream();
}
if (inqueue) {
inqueue = nullptr;
}
if (outqueue) {
outqueue = nullptr;
}
if (outDelayqueue) {
delete outDelayqueue;
outDelayqueue = nullptr;
}
if (inqueue) {
inqueue = nullptr;
}
bool isRunning() const { return (rtaudio && rtaudio->isStreamRunning()); }
~AudioDaq() {
assert(rtaudio);
if (isRunning()) {
stop();
}
if (rtaudio->isStreamOpen()) {
rtaudio->closeStream();
}
if (rtaudio)
delete rtaudio;
if (outDelayqueue)
delete outDelayqueue;
if (instreamparams)
delete instreamparams;
if (outstreamparams)
delete outstreamparams;
if (outqueue) {
outqueue = nullptr;
}
};
if (outDelayqueue) {
delete outDelayqueue;
outDelayqueue = nullptr;
}
}
bool isRunning() const { return (rtaudio && rtaudio->isStreamRunning()); }
~RtAudioDaq() {
assert(rtaudio);
if (isRunning()) {
stop();
}
if (rtaudio->isStreamOpen()) {
rtaudio->closeStream();
}
}
}
;
Daq *createRtAudioDevice(const DeviceInfo &devinfo,
const DaqConfiguration &config) {
@ -280,90 +329,15 @@ int mycallback(void *outputBuffervoid, void *inputBuffervoid,
unsigned int nFrames, double streamTime,
RtAudioStreamStatus status, void *userData) {
u_int8_t *inputBuffer = (u_int8_t *)inputBuffervoid;
u_int8_t *outputBuffer = (u_int8_t *)outputBuffervoid;
void myerrorcallback(RtAudioError::Type, const string &errorText) {
cerr << errorText << endl;
}
int mycallback(void *outputBuffer, void *inputBuffer, unsigned int nFrames,
double streamTime, RtAudioStreamStatus status,
void *userData) {
AudioDaq *daq = (AudioDaq *)userData;
DataType dtype = daq->dataType();
us neninchannels_inc_mon = daq->neninchannels();
us nenoutchannels = daq->nenoutchannels();
bool monitorOutput = daq->monitorOutput;
us bytesperchan = dtype_map.at(dtype).sw * nFrames;
us monitorOffset = ((us)monitorOutput) * bytesperchan;
SafeQueue<void *> *inqueue = daq->inqueue;
SafeQueue<void *> *outqueue = daq->outqueue;
SafeQueue<void *> *outDelayqueue = daq->outDelayqueue;
const boolvec &eninchannels = daq->eninchannels;
const boolvec &enoutchannels = daq->enoutchannels;
if (inputBuffer || monitorOutput) {
u_int8_t *inbuffercpy =
(u_int8_t *)malloc(bytesperchan * neninchannels_inc_mon);
if (inputBuffer) {
us j = 0; // OUR buffer channel counter
us i = 0; // RtAudio channel counter
for (int ch = daq->getLowestInChannel(); ch <= daq->getHighestInChannel();
ch++) {
if (eninchannels[ch]) {
memcpy(&(inbuffercpy[monitorOffset + j * bytesperchan]),
&(inputBuffer[i * bytesperchan]), bytesperchan);
j++;
}
i++;
}
}
if (monitorOutput) {
assert(outDelayqueue);
if (!daq->outDelayqueue->empty()) {
void *dat = daq->outDelayqueue->dequeue();
memcpy((void *)inbuffercpy, dat, bytesperchan);
free(dat);
} else {
cerr << "Warning: output delay queue appears empty!" << endl;
memset(inbuffercpy, 0, bytesperchan);
}
}
assert(inqueue);
inqueue->enqueue(inbuffercpy);
return static_cast<RtAudioDaq *>(userData)->streamCallback(
outputBuffer, inputBuffer, nFrames, streamTime, status);
}
if (outputBuffer) {
assert(outqueue);
if (!outqueue->empty()) {
u_int8_t *outbuffercpy = (u_int8_t *)outqueue->dequeue();
us j = 0; // OUR buffer channel counter
us i = 0; // RtAudio channel counter
for (us ch = 0; ch <= daq->getHighestOutChannel(); ch++) {
/* cerr << "Copying from queue... " << endl; */
if (enoutchannels[ch]) {
memcpy(&(outputBuffer[i * bytesperchan]),
&(outbuffercpy[j * bytesperchan]), bytesperchan);
j++;
} else {
/* cerr << "unused output channel in list" << endl; */
memset(&(outputBuffer[i * bytesperchan]), 0, bytesperchan);
}
i++;
}
if (!monitorOutput) {
free(outbuffercpy);
} else {
assert(outDelayqueue);
outDelayqueue->enqueue((void *)outbuffercpy);
}
} else {
cerr << "RtAudio backend: stream output buffer underflow!" << endl;
}
}
return 0;
}
void myerrorcallback(RtAudioError::Type, const string &errorText) {
cerr << errorText << endl;
}
#endif // LASP_HAS_RTAUDIO == 1

453
lasp/device/lasp_uldaq.cpp
View File

@ -60,9 +60,9 @@ class DT9837A : public Daq {
const us _nFramesPerBlock;
void threadFcn(std::optional<DaqCallback> inCallback,
std::optional<DaqCallback> outcallback);
std::optional<DaqCallback> outcallback);
public:
public:
DT9837A(const DeviceInfo &devinfo, const DaqConfiguration &config);
~DT9837A() {
@ -81,7 +81,7 @@ class DT9837A : public Daq {
bool isRunning() const override final { return _thread.joinable(); }
virtual void start(std::optional<DaqCallback> inCallback,
std::optional<DaqCallback> outCallback) override final;
std::optional<DaqCallback> outCallback) override final;
void stop() override final {
DEBUGTRACE_ENTER;
@ -100,7 +100,7 @@ class DT9837A : public Daq {
};
void DT9837A::start(std::optional<DaqCallback> inCallback,
std::optional<DaqCallback> outCallback) {
std::optional<DaqCallback> outCallback) {
DEBUGTRACE_ENTER;
if (isRunning()) {
throw runtime_error("DAQ is already running");
@ -118,37 +118,38 @@ void DT9837A::start(std::optional<DaqCallback> inCallback,
}
class BufHandler {
protected:
DaqDeviceHandle _handle;
const DataTypeDescriptor dtype_descr;
us nchannels, nFramesPerBlock;
DaqCallback cb;
double samplerate;
dvec buf;
bool topenqueued, botenqueued;
us increment = 0;
us totalFramesCount = 0;
long long buffer_mid_idx;
protected:
DaqDeviceHandle _handle;
const DataTypeDescriptor dtype_descr;
us nchannels, nFramesPerBlock;
DaqCallback cb;
double samplerate;
dvec buf;
bool topenqueued, botenqueued;
us increment = 0;
us totalFramesCount = 0;
long long buffer_mid_idx;
public:
BufHandler(DaqDeviceHandle handle, const DataTypeDescriptor dtype_descr,
const us nchannels, const us nFramesPerBlock, DaqCallback cb,
const double samplerate)
public:
BufHandler(DaqDeviceHandle handle, const DataTypeDescriptor dtype_descr,
const us nchannels, const us nFramesPerBlock, DaqCallback cb,
const double samplerate)
: _handle(handle), dtype_descr(dtype_descr), nchannels(nchannels),
nFramesPerBlock(nFramesPerBlock), cb(cb), samplerate(samplerate),
buf(2 * nchannels *
nFramesPerBlock, // Watch the two here, the top and the bottom!
0),
buffer_mid_idx(nchannels * nFramesPerBlock) {
assert(nchannels > 0);
}
nFramesPerBlock(nFramesPerBlock), cb(cb), samplerate(samplerate),
buf(2 * nchannels *
nFramesPerBlock, // Watch the two here, the top and the bottom!
0),
buffer_mid_idx(nchannels * nFramesPerBlock) {
assert(nchannels > 0);
}
};
class InBufHandler : public BufHandler {
bool monitorOutput;
public:
public:
InBufHandler(DT9837A &daq, DaqCallback cb)
: BufHandler(daq._handle, daq.dtypeDescr(), daq.neninchannels(),
daq._nFramesPerBlock, cb, daq.samplerate())
: BufHandler(daq._handle, daq.dtypeDescr(), daq.neninchannels(),
daq._nFramesPerBlock, cb, daq.samplerate())
{
DEBUGTRACE_ENTER;
@ -196,40 +197,45 @@ class InBufHandler : public BufHandler {
assert(indescs.size() == nchannels);
DEBUGTRACE_MESSAGE("Starting input scan");
err = ulDaqInScan(_handle, indescs.data(), nchannels,
2 * nFramesPerBlock, // Watch the 2 here!
&samplerate, scanoptions, inscanflags, buf.data());
2 * nFramesPerBlock, // Watch the 2 here!
&samplerate, scanoptions, inscanflags, buf.data());
if (err != ERR_NO_ERROR) {
showErr(err);
throw std::runtime_error("Could not start input DAQ");
}
botenqueued = false;
botenqueued = false;
topenqueued = false;
}
void operator()() {
ChannelView cv(nchannels);
bool operator()() {
auto runCallback = ([&](us totalOffset) {
us monitoroffset = monitorOutput ? 1 : 0;
for (us channel = monitoroffset; channel < (nchannels - monitoroffset);
channel++) {
cv[channel] =
gsl::span(reinterpret_cast<uint8_t *>(
&buf[totalOffset + channel * nFramesPerBlock]),
nFramesPerBlock * sizeof(double));
}
if (monitorOutput) {
us monitoroffset = monitorOutput ? 1 : 0;
cv[0] = gsl::span(
reinterpret_cast<uint8_t *>(
&buf[totalOffset + (nchannels - 1) * nFramesPerBlock]),
nFramesPerBlock * sizeof(double));
}
cb(cv, dtype_descr);
});
DaqData data(nchannels, nFramesPerBlock,
DataTypeDescriptor::DataType::dtype_fl64);
us ch_no = 0;
if (monitorOutput) {
reinterpret_cast<uint8_t *>(
&buf[totalOffset + (nchannels - 1) * nFramesPerBlock]),
nFramesPerBlock * sizeof(double));
}
/* if(mon */
/* for (us channel = monitoroffset; channel < (nchannels - monitoroffset);
*/
/* channel++) { */
/* cv[channel] = */
/* gsl::span(reinterpret_cast<uint8_t *>( */
/* &buf[totalOffset + channel * nFramesPerBlock]), */
/* nFramesPerBlock * sizeof(double)); */
/* } */
/* cv[0] = gsl::span( */
/* cb(cv, dtype_descr); */
});
ScanStatus status;
TransferStatus transferStatus;
@ -240,124 +246,123 @@ class InBufHandler : public BufHandler {
return;
}
increment = transferStatus.currentTotalCount - totalFramesCount;
totalFramesCount += increment;
increment = transferStatus.currentTotalCount - totalFramesCount;
totalFramesCount += increment;
if (increment > nFramesPerBlock) {
cerr << "Error: overrun for input of DAQ!" << endl;
return;
}
assert(status == SS_RUNNING);
if (transferStatus.currentIndex < (long long)buffer_mid_idx) {
topenqueued = false;
if (!botenqueued) {
runCallback(nchannels * nFramesPerBlock);
botenqueued = true;
if (increment > nFramesPerBlock) {
cerr << "Error: overrun for input of DAQ!" << endl;
return;
}
} else {
botenqueued = false;
if (!topenqueued) {
runCallback(0);
topenqueued = true;
assert(status == SS_RUNNING);
if (transferStatus.currentIndex < (long long)buffer_mid_idx) {
topenqueued = false;
if (!botenqueued) {
runCallback(nchannels * nFramesPerBlock);
botenqueued = true;
}
} else {
botenqueued = false;
if (!topenqueued) {
runCallback(0);
topenqueued = true;
}
}
}
}
~InBufHandler() {
// At exit of the function, stop scanning.
DEBUGTRACE_ENTER;
UlError err = ulDaqInScanStop(_handle);
if (err != ERR_NO_ERROR) {
showErr(err);
~InBufHandler() {
// At exit of the function, stop scanning.
DEBUGTRACE_ENTER;
UlError err = ulDaqInScanStop(_handle);
if (err != ERR_NO_ERROR) {
showErr(err);
}
}
}
};
class OutBufHandler : public BufHandler {
public:
OutBufHandler(DT9837A &daq, DaqCallback cb)
public:
OutBufHandler(DT9837A &daq, DaqCallback cb)
: BufHandler(daq._handle, daq.dtypeDescr(), daq.neninchannels(),
daq._nFramesPerBlock, cb, daq.samplerate()) {
daq._nFramesPerBlock, cb, daq.samplerate()) {
DEBUGTRACE_MESSAGE("Starting output scan");
AOutScanFlag outscanflags = AOUTSCAN_FF_DEFAULT;
ScanOption scanoptions = SO_CONTINUOUS;
UlError err =
ulAOutScan(_handle, 0, 0, BIP10VOLTS,
2 * nFramesPerBlock, // Watch the 2 here!
&samplerate, scanoptions, outscanflags, buf.data());
if (err != ERR_NO_ERROR) {
showErr(err);
throw runtime_error("Unable to start output on DAQ");
}
DEBUGTRACE_MESSAGE("Starting output scan");
AOutScanFlag outscanflags = AOUTSCAN_FF_DEFAULT;
ScanOption scanoptions = SO_CONTINUOUS;
UlError err =
ulAOutScan(_handle, 0, 0, BIP10VOLTS,
2 * nFramesPerBlock, // Watch the 2 here!
&samplerate, scanoptions, outscanflags, buf.data());
if (err != ERR_NO_ERROR) {
showErr(err);
throw runtime_error("Unable to start output on DAQ");
}
botenqueued = false, topenqueued = true;
botenqueued = false, topenqueued = true;
// Run callback to first fill top part
ChannelView cv{gsl::span(reinterpret_cast<uint8_t *>(&buf[0]),
nFramesPerBlock * sizeof(double))};
cb(cv, dtype_descr);
}
void operator()() {
// Run callback to first fill top part
ChannelView cv{gsl::span(reinterpret_cast<uint8_t *>(&buf[0]),
nFramesPerBlock * sizeof(double))};
cb(cv, dtype_descr);
}
void operator()() {
assert(_handle != 0);
assert(_handle != 0);
UlError err = ERR_NO_ERROR;
UlError err = ERR_NO_ERROR;
ScanStatus status;
TransferStatus transferStatus;
ScanStatus status;
TransferStatus transferStatus;
err = ulAOutScanStatus(_handle, &status, &transferStatus);
if (err != ERR_NO_ERROR) {
showErr(err);
return;
}
if (status != SS_RUNNING) {
return;
}
increment = transferStatus.currentTotalCount - totalFramesCount;
totalFramesCount += increment;
err = ulAOutScanStatus(_handle, &status, &transferStatus);
if (err != ERR_NO_ERROR) {
showErr(err);
return;
}
if (status != SS_RUNNING) {
return;
}
increment = transferStatus.currentTotalCount - totalFramesCount;
totalFramesCount += increment;
if (increment > nFramesPerBlock) {
cerr << "Error: underrun for output of DAQ!" << endl;
return;
}
if (increment > nFramesPerBlock) {
cerr << "Error: underrun for output of DAQ!" << endl;
return;
}
if (transferStatus.currentIndex < buffer_mid_idx) {
topenqueued = false;
if (!botenqueued) {
if (transferStatus.currentIndex < buffer_mid_idx) {
topenqueued = false;
if (!botenqueued) {
ChannelView cv{
ChannelView cv{
gsl::span(reinterpret_cast<uint8_t *>(&buf[buffer_mid_idx]),
nFramesPerBlock * sizeof(double))};
cb(cv, dtype_descr);
botenqueued = true;
}
} else {
botenqueued = false;
if (!topenqueued) {
nFramesPerBlock * sizeof(double))};
cb(cv, dtype_descr);
botenqueued = true;
}
} else {
botenqueued = false;
if (!topenqueued) {
ChannelView cv{gsl::span(reinterpret_cast<uint8_t *>(&buf[0]),
nFramesPerBlock * sizeof(double))};
cb(cv, dtype_descr);
ChannelView cv{gsl::span(reinterpret_cast<uint8_t *>(&buf[0]),
nFramesPerBlock * sizeof(double))};
cb(cv, dtype_descr);
topenqueued = true;
}
topenqueued = true;
}
}
}
~OutBufHandler() {
DEBUGTRACE_ENTER;
UlError err = ulAOutScanStop(_handle);
if (err != ERR_NO_ERROR) {
showErr(err);
}
~OutBufHandler() {
DEBUGTRACE_ENTER;
UlError err = ulAOutScanStop(_handle);
if (err != ERR_NO_ERROR) {
showErr(err);
}
}
};
void DT9837A::threadFcn(std::optional<DaqCallback> inCallback,
std::optional<DaqCallback> outCallback) {
std::optional<DaqCallback> outCallback) {
DEBUGTRACE_ENTER;
std::unique_ptr<InBufHandler> ibh;
@ -371,7 +376,7 @@ void DT9837A::threadFcn(std::optional<DaqCallback> inCallback,
}
const double sleeptime =
static_cast<double>(_nFramesPerBlock) / (16 * samplerate());
static_cast<double>(_nFramesPerBlock) / (16 * samplerate());
const us sleeptime_us = static_cast<us>(sleeptime * 1e6);
while (!_stopThread) {
@ -386,92 +391,92 @@ void DT9837A::threadFcn(std::optional<DaqCallback> inCallback,
}
std::unique_ptr<Daq> createUlDaqDevice(const DeviceInfo &devinfo,
const DaqConfiguration &config) {
const DaqConfiguration &config) {
return std::make_unique<DT9837A>(devinfo, config);
}
DT9837A::DT9837A(const DeviceInfo &devinfo, const DaqConfiguration &config)
: Daq(devinfo, config),
_nFramesPerBlock(availableFramesPerBlock.at(framesPerBlockIndex)) {
: Daq(devinfo, config),
_nFramesPerBlock(availableFramesPerBlock.at(framesPerBlockIndex)) {
// Some sanity checks
if (eninchannels.size() != 4) {
throw runtime_error("Invalid length of enabled inChannels vector");
}
// Some sanity checks
if (eninchannels.size() != 4) {
throw runtime_error("Invalid length of enabled inChannels vector");
}
if (enoutchannels.size() != 1) {
throw runtime_error("Invalid length of enabled outChannels vector");
}
if (enoutchannels.size() != 1) {
throw runtime_error("Invalid length of enabled outChannels vector");
}
if (_nFramesPerBlock < 24 || _nFramesPerBlock > 8192) {
throw runtime_error("Unsensible number of samples per block chosen");
}
if (_nFramesPerBlock < 24 || _nFramesPerBlock > 8192) {
throw runtime_error("Unsensible number of samples per block chosen");
}
if (samplerate() < 10000 || samplerate() > 51000) {
throw runtime_error("Invalid sample rate");
}
if (samplerate() < 10000 || samplerate() > 51000) {
throw runtime_error("Invalid sample rate");
}
DaqDeviceDescriptor devdescriptors[MAX_DEV_COUNT_PER_API];
DaqDeviceDescriptor descriptor;
DaqDeviceInterface interfaceType = ANY_IFC;
DaqDeviceDescriptor devdescriptors[MAX_DEV_COUNT_PER_API];
DaqDeviceDescriptor descriptor;
DaqDeviceInterface interfaceType = ANY_IFC;
UlError err;
UlError err;
us numdevs = MAX_DEV_COUNT_PER_API;
err = ulGetDaqDeviceInventory(interfaceType, devdescriptors,
(unsigned *)&numdevs);
us numdevs = MAX_DEV_COUNT_PER_API;
err = ulGetDaqDeviceInventory(interfaceType, devdescriptors,
(unsigned *)&numdevs);
if (err != ERR_NO_ERROR) {
throw runtime_error("Device inventarization failed");
}
if ((us)api_specific_devindex >= numdevs) {
throw runtime_error("Device number {deviceno} too high {err}. This could "
"happen when the device is currently not connected");
}
descriptor = devdescriptors[api_specific_devindex];
// get a handle to the DAQ device associated with the first descriptor
_handle = ulCreateDaqDevice(descriptor);
if (_handle == 0) {
throw runtime_error(
"Unable to create a handle to the specified DAQ "
"device. Is the device currently in use? Please make sure to set "
"the DAQ configuration in duplex mode if simultaneous input and "
"output is required.");
}
err = ulConnectDaqDevice(_handle);
if (err != ERR_NO_ERROR) {
ulReleaseDaqDevice(_handle);
_handle = 0;
throw runtime_error(string("Unable to connect to device: " + showErr(err)));
}
for (us ch = 0; ch < 4; ch++) {
err = ulAISetConfigDbl(_handle, AI_CFG_CHAN_SENSOR_SENSITIVITY, ch, 1.0);
showErr(err);
if (err != ERR_NO_ERROR) {
throw runtime_error("Device inventarization failed");
throw runtime_error("Fatal: could normalize channel sensitivity");
}
if ((us)api_specific_devindex >= numdevs) {
throw runtime_error("Device number {deviceno} too high {err}. This could "
"happen when the device is currently not connected");
}
descriptor = devdescriptors[api_specific_devindex];
// get a handle to the DAQ device associated with the first descriptor
_handle = ulCreateDaqDevice(descriptor);
if (_handle == 0) {
throw runtime_error(
"Unable to create a handle to the specified DAQ "
"device. Is the device currently in use? Please make sure to set "
"the DAQ configuration in duplex mode if simultaneous input and "
"output is required.");
}
err = ulConnectDaqDevice(_handle);
CouplingMode cm = inputACCouplingMode[ch] ? CM_AC : CM_DC;
err = ulAISetConfig(_handle, AI_CFG_CHAN_COUPLING_MODE, ch, cm);
if (err != ERR_NO_ERROR) {
ulReleaseDaqDevice(_handle);
_handle = 0;
throw runtime_error(string("Unable to connect to device: " + showErr(err)));
}
for (us ch = 0; ch < 4; ch++) {
err = ulAISetConfigDbl(_handle, AI_CFG_CHAN_SENSOR_SENSITIVITY, ch, 1.0);
showErr(err);
if (err != ERR_NO_ERROR) {
throw runtime_error("Fatal: could normalize channel sensitivity");
}
throw runtime_error("Fatal: could not set AC/DC coupling mode");
}
CouplingMode cm = inputACCouplingMode[ch] ? CM_AC : CM_DC;
err = ulAISetConfig(_handle, AI_CFG_CHAN_COUPLING_MODE, ch, cm);
if (err != ERR_NO_ERROR) {
showErr(err);
throw runtime_error("Fatal: could not set AC/DC coupling mode");
}
IepeMode iepe = inputIEPEEnabled[ch] ? IEPE_ENABLED : IEPE_DISABLED;
err = ulAISetConfig(_handle, AI_CFG_CHAN_IEPE_MODE, ch, iepe);
if (err != ERR_NO_ERROR) {
showErr(err);
throw runtime_error("Fatal: could not set IEPE mode");
}
IepeMode iepe = inputIEPEEnabled[ch] ? IEPE_ENABLED : IEPE_DISABLED;
err = ulAISetConfig(_handle, AI_CFG_CHAN_IEPE_MODE, ch, iepe);
if (err != ERR_NO_ERROR) {
showErr(err);
throw runtime_error("Fatal: could not set IEPE mode");
}
}
}
void fillUlDaqDeviceInfo(std::vector<DeviceInfo> &devinfolist) {
DEBUGTRACE_ENTER;
@ -484,7 +489,7 @@ void fillUlDaqDeviceInfo(std::vector<DeviceInfo> &devinfolist) {
DaqDeviceInterface interfaceType = ANY_IFC;
err = ulGetDaqDeviceInventory(interfaceType, devdescriptors,
static_cast<unsigned *>(&numdevs));
static_cast<unsigned *>(&numdevs));
if (err != ERR_NO_ERROR) {
throw runtime_error("UlDaq device inventarization failed");
@ -502,20 +507,20 @@ void fillUlDaqDeviceInfo(std::vector<DeviceInfo> &devinfolist) {
}
switch (descriptor.devInterface) {
case USB_IFC:
name = "USB - ";
break;
case BLUETOOTH_IFC:
/* devinfo. */
name = "Bluetooth - ";
break;
case USB_IFC:
name = "USB - ";
break;
case BLUETOOTH_IFC:
/* devinfo. */
name = "Bluetooth - ";
break;
case ETHERNET_IFC:
/* devinfo. */
name = "Ethernet - ";
break;
default:
name = "Uknown interface = ";
case ETHERNET_IFC:
/* devinfo. */
name = "Ethernet - ";
break;
default:
name = "Uknown interface = ";
}
name += string(descriptor.productName) + " " + string(descriptor.uniqueId);
@ -527,8 +532,8 @@ void fillUlDaqDeviceInfo(std::vector<DeviceInfo> &devinfolist) {
devinfo.prefDataTypeIndex = 0;
devinfo.availableSampleRates = {8000, 10000, 11025, 16000, 20000,
22050, 24000, 32000, 44056, 44100,
47250, 48000, 50000, 50400, 51000};
22050, 24000, 32000, 44056, 44100,
47250, 48000, 50000, 50400, 51000};
devinfo.prefSampleRateIndex = 11;