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Settings.cpp
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Settings.cpp
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/*
* The MIT License (MIT)
*
* Copyright (c) 2015 Charles J. Cliffe
* Copyright (c) 2020 Franco Venturi - changes for SDRplay API version 3
* and Dual Tuner for RSPduo
* Permission is hereby granted, free of charge, to any person obtaining a copy
* of this software and associated documentation files (the "Software"), to deal
* in the Software without restriction, including without limitation the rights
* to use, copy, modify, merge, publish, distribute, sublicense, and/or sell
* copies of the Software, and to permit persons to whom the Software is
* furnished to do so, subject to the following conditions:
* The above copyright notice and this permission notice shall be included in
* all copies or substantial portions of the Software.
* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
* IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
* FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE
* AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
* LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
* OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN
* THE SOFTWARE.
*/
#include "SoapySDRPlay.hpp"
#if defined(_M_X64) || defined(_M_IX86)
#define strcasecmp _stricmp
#elif defined (__GNUC__)
#include <strings.h>
#endif
std::unordered_map<std::string, sdrplay_api_DeviceT*> SoapySDRPlay::selectedRSPDevices;
std::set<std::string> &SoapySDRPlay_getClaimedSerials(void)
{
static std::set<std::string> serials;
return serials;
}
SoapySDRPlay::SoapySDRPlay(const SoapySDR::Kwargs &args)
{
if (args.count("serial") == 0) throw std::runtime_error("no available RSP devices found");
selectDevice(args.at("serial"),
args.count("mode") ? args.at("mode") : "",
args.count("antenna") ? args.at("antenna") : "");
// keep all the default settings:
// - rf: 200MHz
// - fs: 2MHz
// - decimation: off
// - IF: 0kHz (zero IF)
// - bw: 200kHz
// - attenuation: 50dB
// - LNA state: 0
// - AGC: 50Hz
// - DC correction: on
// - IQ balance: on
// change the default AGC set point to -30dBfs
chParams->ctrlParams.agc.setPoint_dBfs = -30;
// process additional device string arguments
for (std::pair<std::string, std::string> arg : args) {
// ignore 'driver', 'label', 'mode', 'serial', and 'soapy'
if (arg.first == "driver" || arg.first == "label" ||
arg.first == "mode" || arg.first == "serial" ||
arg.first == "soapy") {
continue;
}
writeSetting(arg.first, arg.second);
}
// streaming settings
// this may change later according to format
shortsPerWord = 1;
bufferLength = bufferElems * elementsPerSample * shortsPerWord;
_streams[0] = 0;
_streams[1] = 0;
_streamsRefCount[0] = 0;
_streamsRefCount[1] = 0;
useShort = true;
streamActive = false;
device_unavailable = false;
cacheKey = serNo;
if (hwVer == SDRPLAY_RSPduo_ID) cacheKey += "@" + args.at("mode");
SoapySDRPlay_getClaimedSerials().insert(cacheKey);
}
SoapySDRPlay::~SoapySDRPlay(void)
{
SoapySDRPlay_getClaimedSerials().erase(cacheKey);
std::lock_guard <std::mutex> lock(_general_state_mutex);
releaseDevice();
_streams[0] = 0;
_streams[1] = 0;
_streamsRefCount[0] = 0;
_streamsRefCount[1] = 0;
}
/*******************************************************************
* Identification API
******************************************************************/
std::string SoapySDRPlay::getDriverKey(void) const
{
return "SDRplay";
}
std::string SoapySDRPlay::getHardwareKey(void) const
{
if (hwVer == SDRPLAY_RSP1_ID) return "RSP1";
if (hwVer == SDRPLAY_RSP1A_ID) return "RSP1A";
if (hwVer == SDRPLAY_RSP1B_ID) return "RSP1B";
if (hwVer == SDRPLAY_RSP2_ID) return "RSP2";
if (hwVer == SDRPLAY_RSPduo_ID) return "RSPduo";
if (hwVer == SDRPLAY_RSPdx_ID) return "RSPdx";
if (hwVer == SDRPLAY_RSPdxR2_ID) return "RSPdx-R2";
return "UNKNOWN";
}
SoapySDR::Kwargs SoapySDRPlay::getHardwareInfo(void) const
{
// key/value pairs for any useful information
// this also gets printed in --probe
SoapySDR::Kwargs hwArgs;
float ver = SoapySDRPlay::sdrplay_api::get_version();
hwArgs["sdrplay_api_api_version"] = std::to_string(ver);
hwArgs["sdrplay_api_hw_version"] = std::to_string(device.hwVer);
return hwArgs;
}
/*******************************************************************
* Channels API
******************************************************************/
size_t SoapySDRPlay::getNumChannels(const int dir) const
{
if (device.hwVer == SDRPLAY_RSPduo_ID && device.rspDuoMode == sdrplay_api_RspDuoMode_Dual_Tuner) {
return (dir == SOAPY_SDR_RX) ? 2 : 0;
}
return (dir == SOAPY_SDR_RX) ? 1 : 0;
}
/*******************************************************************
* Antenna API
******************************************************************/
std::vector<std::string> SoapySDRPlay::listAntennas(const int direction, const size_t channel) const
{
std::vector<std::string> antennas;
if (direction == SOAPY_SDR_TX) {
return antennas;
}
if (device.hwVer == SDRPLAY_RSP1_ID || device.hwVer == SDRPLAY_RSP1A_ID || device.hwVer == SDRPLAY_RSP1B_ID) {
antennas.push_back("RX");
}
else if (device.hwVer == SDRPLAY_RSP2_ID) {
antennas.push_back("Antenna A");
antennas.push_back("Antenna B");
antennas.push_back("Hi-Z");
}
else if (device.hwVer == SDRPLAY_RSPdx_ID) {
antennas.push_back("Antenna A");
antennas.push_back("Antenna B");
antennas.push_back("Antenna C");
}
else if (device.hwVer == SDRPLAY_RSPdxR2_ID) {
antennas.push_back("Antenna A");
antennas.push_back("Antenna B");
antennas.push_back("Antenna C");
}
else if (device.hwVer == SDRPLAY_RSPduo_ID) {
if (device.rspDuoMode == sdrplay_api_RspDuoMode_Single_Tuner ||
device.rspDuoMode == sdrplay_api_RspDuoMode_Master) {
antennas.push_back("Tuner 1 50 ohm");
antennas.push_back("Tuner 1 Hi-Z");
antennas.push_back("Tuner 2 50 ohm");
}
else if (device.rspDuoMode == sdrplay_api_RspDuoMode_Dual_Tuner) {
if (channel == 0) {
// No Hi-Z antenna in Dual Tuner mode
// For diversity reception you would want the two tuner inputs
// to be the same otherwise there is a mismatch in the gain
// control.
antennas.push_back("Tuner 1 50 ohm");
}
else if (channel == 1) {
antennas.push_back("Tuner 2 50 ohm");
}
}
else if (device.rspDuoMode == sdrplay_api_RspDuoMode_Slave) {
if (device.tuner == sdrplay_api_Tuner_A) {
antennas.push_back("Tuner 1 50 ohm");
antennas.push_back("Tuner 1 Hi-Z");
}
else if (device.tuner == sdrplay_api_Tuner_B) {
antennas.push_back("Tuner 2 50 ohm");
}
}
}
return antennas;
}
void SoapySDRPlay::setAntenna(const int direction, const size_t channel, const std::string &name)
{
// Check direction
if ((direction != SOAPY_SDR_RX) || (device.hwVer == SDRPLAY_RSP1_ID) || (device.hwVer == SDRPLAY_RSP1A_ID) || (device.hwVer == SDRPLAY_RSP1B_ID)) {
return;
}
std::lock_guard <std::mutex> lock(_general_state_mutex);
if (device.hwVer == SDRPLAY_RSP2_ID)
{
bool changeToAntennaA_B = false;
if (name == "Antenna A")
{
chParams->rsp2TunerParams.antennaSel = sdrplay_api_Rsp2_ANTENNA_A;
changeToAntennaA_B = true;
}
else if (name == "Antenna B")
{
chParams->rsp2TunerParams.antennaSel = sdrplay_api_Rsp2_ANTENNA_B;
changeToAntennaA_B = true;
}
else if (name == "Hi-Z")
{
chParams->rsp2TunerParams.amPortSel = sdrplay_api_Rsp2_AMPORT_1;
if (streamActive)
{
sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_Rsp2_AmPortSelect, sdrplay_api_Update_Ext1_None);
}
}
if (changeToAntennaA_B)
{
//if we are currently High_Z, make the switch first.
if (chParams->rsp2TunerParams.amPortSel == sdrplay_api_Rsp2_AMPORT_1)
{
chParams->rsp2TunerParams.amPortSel = sdrplay_api_Rsp2_AMPORT_2;
if (streamActive)
{
sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_Rsp2_AmPortSelect, sdrplay_api_Update_Ext1_None);
}
}
else
{
if (streamActive)
{
sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_Rsp2_AntennaControl, sdrplay_api_Update_Ext1_None);
}
}
}
}
else if (device.hwVer == SDRPLAY_RSPdx_ID)
{
if (name == "Antenna A")
{
deviceParams->devParams->rspDxParams.antennaSel = sdrplay_api_RspDx_ANTENNA_A;
}
else if (name == "Antenna B")
{
deviceParams->devParams->rspDxParams.antennaSel = sdrplay_api_RspDx_ANTENNA_B;
}
else if (name == "Antenna C")
{
deviceParams->devParams->rspDxParams.antennaSel = sdrplay_api_RspDx_ANTENNA_C;
}
if (streamActive)
{
sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_None, sdrplay_api_Update_RspDx_AntennaControl);
}
}
else if (device.hwVer == SDRPLAY_RSPdxR2_ID)
{
if (name == "Antenna A")
{
deviceParams->devParams->rspDxParams.antennaSel = sdrplay_api_RspDx_ANTENNA_A;
}
else if (name == "Antenna B")
{
deviceParams->devParams->rspDxParams.antennaSel = sdrplay_api_RspDx_ANTENNA_B;
}
else if (name == "Antenna C")
{
deviceParams->devParams->rspDxParams.antennaSel = sdrplay_api_RspDx_ANTENNA_C;
}
if (streamActive)
{
sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_None, sdrplay_api_Update_RspDx_AntennaControl);
}
}
else if (device.hwVer == SDRPLAY_RSPduo_ID)
{
bool changeToTunerA_B = false;
bool changeAmPort = false;
bool isTunerChangeAllowed = device.rspDuoMode == sdrplay_api_RspDuoMode_Single_Tuner || device.rspDuoMode == sdrplay_api_RspDuoMode_Master;
if (name == "Tuner 1 50 ohm")
{
changeAmPort = chParams->rspDuoTunerParams.tuner1AmPortSel != sdrplay_api_RspDuo_AMPORT_2;
chParams->rspDuoTunerParams.tuner1AmPortSel = sdrplay_api_RspDuo_AMPORT_2;
changeToTunerA_B = isTunerChangeAllowed && device.tuner != sdrplay_api_Tuner_A;
}
else if (name == "Tuner 2 50 ohm")
{
changeAmPort = chParams->rspDuoTunerParams.tuner1AmPortSel != sdrplay_api_RspDuo_AMPORT_2;
changeToTunerA_B = isTunerChangeAllowed && device.tuner != sdrplay_api_Tuner_B;
}
else if (name == "Tuner 1 Hi-Z")
{
changeAmPort = chParams->rspDuoTunerParams.tuner1AmPortSel != sdrplay_api_RspDuo_AMPORT_1;
chParams->rspDuoTunerParams.tuner1AmPortSel = sdrplay_api_RspDuo_AMPORT_1;
changeToTunerA_B = isTunerChangeAllowed && device.tuner != sdrplay_api_Tuner_A;
}
if (!changeToTunerA_B)
{
if (changeAmPort)
{
//if we are currently High_Z, make the switch first.
if (streamActive)
{
sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_RspDuo_AmPortSelect, sdrplay_api_Update_Ext1_None);
}
}
}
else
{
if (streamActive)
{
if (device.rspDuoMode == sdrplay_api_RspDuoMode_Single_Tuner)
{
sdrplay_api_ErrT err;
err = sdrplay_api_SwapRspDuoActiveTuner(device.dev,
&device.tuner, chParams->rspDuoTunerParams.tuner1AmPortSel);
if (err != sdrplay_api_Success)
{
SoapySDR_logf(SOAPY_SDR_WARNING, "SwapRspDuoActiveTuner Error: %s", sdrplay_api_GetErrorString(err));
}
chParams = device.tuner == sdrplay_api_Tuner_B ?
deviceParams->rxChannelB : deviceParams->rxChannelA;
}
else if (device.rspDuoMode == sdrplay_api_RspDuoMode_Master)
{
// not sure what is the best way to handle this case - fv
SoapySDR_log(SOAPY_SDR_WARNING, "tuner change not allowed in RSPduo Master mode while the device is streaming");
}
}
else
{
// preserve all the device and tuner settings
// when changing tuner/antenna
sdrplay_api_DevParamsT devParams = *deviceParams->devParams;
sdrplay_api_RxChannelParamsT rxChannelParams = *chParams;
sdrplay_api_TunerSelectT other_tuner = (device.tuner == sdrplay_api_Tuner_A) ? sdrplay_api_Tuner_B : sdrplay_api_Tuner_A;
selectDevice(other_tuner, device.rspDuoMode,
device.rspDuoSampleFreq, nullptr);
// restore device and tuner settings
*deviceParams->devParams = devParams;
*chParams = rxChannelParams;
}
}
}
}
std::string SoapySDRPlay::getAntenna(const int direction, const size_t channel) const
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
if (direction == SOAPY_SDR_TX)
{
return "";
}
if (device.hwVer == SDRPLAY_RSP2_ID)
{
if (chParams->rsp2TunerParams.amPortSel == sdrplay_api_Rsp2_AMPORT_1) {
return "Hi-Z";
}
else if (chParams->rsp2TunerParams.antennaSel == sdrplay_api_Rsp2_ANTENNA_A) {
return "Antenna A";
}
else {
return "Antenna B";
}
}
else if (device.hwVer == SDRPLAY_RSPduo_ID)
{
if (device.tuner == sdrplay_api_Tuner_A ||
(device.tuner == sdrplay_api_Tuner_Both && channel == 0)) {
if (chParams->rspDuoTunerParams.tuner1AmPortSel == sdrplay_api_RspDuo_AMPORT_1) {
return "Tuner 1 Hi-Z";
} else {
return "Tuner 1 50 ohm";
}
} else if (device.tuner == sdrplay_api_Tuner_B ||
(device.tuner == sdrplay_api_Tuner_Both && channel == 1)) {
return "Tuner 2 50 ohm";
}
}
else if (device.hwVer == SDRPLAY_RSPdx_ID)
{
if (deviceParams->devParams->rspDxParams.antennaSel == sdrplay_api_RspDx_ANTENNA_A) {
return "Antenna A";
}
else if (deviceParams->devParams->rspDxParams.antennaSel == sdrplay_api_RspDx_ANTENNA_B) {
return "Antenna B";
}
else if (deviceParams->devParams->rspDxParams.antennaSel == sdrplay_api_RspDx_ANTENNA_C) {
return "Antenna C";
}
}
else if (device.hwVer == SDRPLAY_RSPdxR2_ID)
{
if (deviceParams->devParams->rspDxParams.antennaSel == sdrplay_api_RspDx_ANTENNA_A) {
return "Antenna A";
}
else if (deviceParams->devParams->rspDxParams.antennaSel == sdrplay_api_RspDx_ANTENNA_B) {
return "Antenna B";
}
else if (deviceParams->devParams->rspDxParams.antennaSel == sdrplay_api_RspDx_ANTENNA_C) {
return "Antenna C";
}
}
return "RX";
}
/*******************************************************************
* Frontend corrections API
******************************************************************/
bool SoapySDRPlay::hasDCOffsetMode(const int direction, const size_t channel) const
{
return true;
}
void SoapySDRPlay::setDCOffsetMode(const int direction, const size_t channel, const bool automatic)
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
//enable/disable automatic DC removal
chParams->ctrlParams.dcOffset.DCenable = (unsigned char)automatic;
chParams->ctrlParams.dcOffset.IQenable = (unsigned char)automatic;
}
bool SoapySDRPlay::getDCOffsetMode(const int direction, const size_t channel) const
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
return (bool)chParams->ctrlParams.dcOffset.DCenable;
}
bool SoapySDRPlay::hasDCOffset(const int direction, const size_t channel) const
{
//is a specific DC removal value configurable?
return false;
}
bool SoapySDRPlay::hasFrequencyCorrection(const int direction, const size_t channel) const {
return true;
}
void SoapySDRPlay::setFrequencyCorrection(const int direction, const size_t channel, const double value) {
setFrequency(direction, channel, "CORR", value);
}
double SoapySDRPlay::getFrequencyCorrection(const int direction, const size_t channel) const {
return getFrequency(direction, channel, "CORR");
}
/*******************************************************************
* Gain API
******************************************************************/
std::vector<std::string> SoapySDRPlay::listGains(const int direction, const size_t channel) const
{
//list available gain elements,
//the functions below have a "name" parameter
std::vector<std::string> results;
results.push_back("IFGR");
results.push_back("RFGR");
return results;
}
bool SoapySDRPlay::hasGainMode(const int direction, const size_t channel) const
{
return true;
}
void SoapySDRPlay::setGainMode(const int direction, const size_t channel, const bool automatic)
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
sdrplay_api_AgcControlT agc_control = automatic ? sdrplay_api_AGC_CTRL_EN : sdrplay_api_AGC_DISABLE;
if (chParams->ctrlParams.agc.enable != agc_control)
{
chParams->ctrlParams.agc.enable = agc_control;
if (streamActive)
{
sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_Ctrl_Agc, sdrplay_api_Update_Ext1_None);
}
}
}
bool SoapySDRPlay::getGainMode(const int direction, const size_t channel) const
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
return chParams->ctrlParams.agc.enable != sdrplay_api_AGC_DISABLE;
}
void SoapySDRPlay::setGain(const int direction, const size_t channel, const std::string &name, const double value)
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
bool doUpdate = false;
if (name == "IFGR")
{
if (chParams->ctrlParams.agc.enable == sdrplay_api_AGC_DISABLE)
{
//apply the change if the required value is different from gRdB
if (chParams->tunerParams.gain.gRdB != (int)value)
{
chParams->tunerParams.gain.gRdB = (int)value;
doUpdate = true;
}
}
else
{
SoapySDR_log(SOAPY_SDR_WARNING, "Not updating IFGR gain because AGC is enabled");
}
}
else if (name == "RFGR")
{
if (chParams->tunerParams.gain.LNAstate != (int)value) {
chParams->tunerParams.gain.LNAstate = (int)value;
doUpdate = true;
}
}
if ((doUpdate == true) && (streamActive))
{
gr_changed = 0;
sdrplay_api_ErrT err = sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_Tuner_Gr, sdrplay_api_Update_Ext1_None);
if (err != sdrplay_api_Success)
{
SoapySDR_logf(SOAPY_SDR_WARNING, "sdrplay_api_Update(Tuner_Gr) Error: %s", sdrplay_api_GetErrorString(err));
return;
}
for (int i = 0; i < updateTimeout; ++i)
{
if (gr_changed != 0) {
break;
}
std::this_thread::sleep_for(std::chrono::milliseconds(1));
}
if (gr_changed == 0)
{
SoapySDR_log(SOAPY_SDR_WARNING, "Gain reduction update timeout.");
}
}
}
double SoapySDRPlay::getGain(const int direction, const size_t channel, const std::string &name) const
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
if (name == "IFGR")
{
return chParams->tunerParams.gain.gRdB;
}
else if (name == "RFGR")
{
return chParams->tunerParams.gain.LNAstate;
}
return 0;
}
SoapySDR::Range SoapySDRPlay::getGainRange(const int direction, const size_t channel, const std::string &name) const
{
if (name == "IFGR")
{
return SoapySDR::Range(20, 59);
}
else if ((name == "RFGR") && (device.hwVer == SDRPLAY_RSP1_ID))
{
return SoapySDR::Range(0, 3);
}
else if ((name == "RFGR") && (device.hwVer == SDRPLAY_RSP2_ID))
{
return SoapySDR::Range(0, 8);
}
else if ((name == "RFGR") && (device.hwVer == SDRPLAY_RSPduo_ID))
{
return SoapySDR::Range(0, 9);
}
else if ((name == "RFGR") && (device.hwVer == SDRPLAY_RSP1A_ID))
{
return SoapySDR::Range(0, 9);
}
else if ((name == "RFGR") && (device.hwVer == SDRPLAY_RSP1B_ID))
{
return SoapySDR::Range(0, 9);
}
else if ((name == "RFGR") && (device.hwVer == SDRPLAY_RSPdx_ID))
{
return SoapySDR::Range(0, 27);
}
else if ((name == "RFGR") && (device.hwVer == SDRPLAY_RSPdxR2_ID))
{
return SoapySDR::Range(0, 27);
}
return SoapySDR::Range(20, 59);
}
/*******************************************************************
* Frequency API
******************************************************************/
void SoapySDRPlay::setFrequency(const int direction,
const size_t channel,
const double frequency,
const SoapySDR::Kwargs &args)
{
// default to RF
setFrequency(direction, channel, "RF", frequency, args);
}
void SoapySDRPlay::setFrequency(const int direction,
const size_t channel,
const std::string &name,
const double frequency,
const SoapySDR::Kwargs &args)
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
if (direction == SOAPY_SDR_RX)
{
if (name == "RF")
{
SoapySDR::RangeList frequencyRange = getFrequencyRange(direction, channel, name);
if (!(frequency >= frequencyRange.front().minimum() && frequency <= frequencyRange.back().maximum()))
{
SoapySDR_logf(SOAPY_SDR_WARNING, "RF center frequency out of range - frequency=%lg", frequency);
return;
}
if (chParams->tunerParams.rfFreq.rfHz != (uint32_t)frequency)
{
chParams->tunerParams.rfFreq.rfHz = (uint32_t)frequency;
if (streamActive)
{
rf_changed = 0;
sdrplay_api_ErrT err = sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_Tuner_Frf, sdrplay_api_Update_Ext1_None);
if (err != sdrplay_api_Success)
{
SoapySDR_logf(SOAPY_SDR_WARNING, "sdrplay_api_Update(Tuner_FrF) Error: %s", sdrplay_api_GetErrorString(err));
return;
}
for (int i = 0; i < updateTimeout; ++i)
{
if (rf_changed != 0) {
break;
}
std::this_thread::sleep_for(std::chrono::milliseconds(1));
}
if (rf_changed == 0)
{
SoapySDR_log(SOAPY_SDR_WARNING, "RF center frequency update timeout.");
}
}
}
}
// can't set ppm for RSPduo slaves
else if ((name == "CORR") && deviceParams->devParams &&
(deviceParams->devParams->ppm != frequency))
{
deviceParams->devParams->ppm = frequency;
if (streamActive)
{
sdrplay_api_Update(device.dev, device.tuner, sdrplay_api_Update_Dev_Ppm, sdrplay_api_Update_Ext1_None);
}
}
}
}
double SoapySDRPlay::getFrequency(const int direction, const size_t channel) const
{
// default to RF
return getFrequency(direction, channel, "RF");
}
double SoapySDRPlay::getFrequency(const int direction, const size_t channel, const std::string &name) const
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
if (name == "RF")
{
return (double)chParams->tunerParams.rfFreq.rfHz;
}
else if (name == "CORR")
{
if (deviceParams->devParams)
{
return deviceParams->devParams->ppm;
} else {
return 0;
}
}
return 0;
}
std::vector<std::string> SoapySDRPlay::listFrequencies(const int direction, const size_t channel) const
{
std::vector<std::string> names;
names.push_back("RF");
names.push_back("CORR");
return names;
}
SoapySDR::RangeList SoapySDRPlay::getFrequencyRange(const int direction, const size_t channel) const
{
return getFrequencyRange(direction, channel, "RF");
}
SoapySDR::RangeList SoapySDRPlay::getFrequencyRange(const int direction, const size_t channel, const std::string &name) const
{
SoapySDR::RangeList results;
if (name == "RF")
{
if(device.hwVer == SDRPLAY_RSP1_ID)
{
results.push_back(SoapySDR::Range(10000, 2000000000));
}
else
{
results.push_back(SoapySDR::Range(1000, 2000000000));
}
}
return results;
}
SoapySDR::ArgInfoList SoapySDRPlay::getFrequencyArgsInfo(const int direction, const size_t channel) const
{
SoapySDR::ArgInfoList freqArgs;
return freqArgs;
}
/*******************************************************************
* Sample Rate API
******************************************************************/
/* input_sample_rate: sample rate used by the SDR
* output_sample_rate: sample rate as seen by the client app
* (<= input_sample_rate because of decimation)
*/
void SoapySDRPlay::setSampleRate(const int direction, const size_t channel, const double output_sample_rate)
{
std::lock_guard <std::mutex> lock(_general_state_mutex);
SoapySDR_logf(SOAPY_SDR_DEBUG, "Requested output sample rate: %lf", output_sample_rate);
if (direction == SOAPY_SDR_RX)
{
unsigned int decM;
unsigned int decEnable;
sdrplay_api_If_kHzT ifType;
double input_sample_rate = getInputSampleRateAndDecimation(output_sample_rate, &decM, &decEnable, &ifType);
if (input_sample_rate < 0) {
SoapySDR_logf(SOAPY_SDR_WARNING, "invalid sample rate. Sample rate unchanged.");
return;
}
sdrplay_api_Bw_MHzT bwType = getBwEnumForRate(output_sample_rate);
sdrplay_api_ReasonForUpdateT reasonForUpdate = sdrplay_api_Update_None;
bool waitForUpdate = false;
if (deviceParams->devParams && input_sample_rate != deviceParams->devParams->fsFreq.fsHz)
{
deviceParams->devParams->fsFreq.fsHz = input_sample_rate;
reasonForUpdate = (sdrplay_api_ReasonForUpdateT)(reasonForUpdate | sdrplay_api_Update_Dev_Fs);
waitForUpdate = true;
}
if (ifType != chParams->tunerParams.ifType)
{
chParams->tunerParams.ifType = ifType;
reasonForUpdate = (sdrplay_api_ReasonForUpdateT)(reasonForUpdate | sdrplay_api_Update_Tuner_IfType);
}
if (decM != chParams->ctrlParams.decimation.decimationFactor)
{
chParams->ctrlParams.decimation.enable = decEnable;
chParams->ctrlParams.decimation.decimationFactor = decM;
if (ifType == sdrplay_api_IF_Zero) {
chParams->ctrlParams.decimation.wideBandSignal = 1;
}
else {
chParams->ctrlParams.decimation.wideBandSignal = 0;
}
reasonForUpdate = (sdrplay_api_ReasonForUpdateT)(reasonForUpdate | sdrplay_api_Update_Ctrl_Decimation);
}
if (bwType != chParams->tunerParams.bwType)
{
chParams->tunerParams.bwType = bwType;
reasonForUpdate = (sdrplay_api_ReasonForUpdateT)(reasonForUpdate | sdrplay_api_Update_Tuner_BwType);
}
if (reasonForUpdate != sdrplay_api_Update_None)
{
if (_streams[0]) { _streams[0]->reset = true; }
if (_streams[1]) { _streams[1]->reset = true; }
if (streamActive)
{
// beware that when the fs change crosses the boundary between
// 2,685,312 and 2,685,313 the rx_callbacks stop for some
// reason
fs_changed = 0;
sdrplay_api_ErrT err = sdrplay_api_Update(device.dev, device.tuner, reasonForUpdate, sdrplay_api_Update_Ext1_None);
if (err != sdrplay_api_Success)
{
SoapySDR_logf(SOAPY_SDR_WARNING, "sdrplay_api_Update(%08x) Error: %s", reasonForUpdate, sdrplay_api_GetErrorString(err));
return;
}
if (waitForUpdate)
{
for (int i = 0; i < updateTimeout; ++i)
{
if (fs_changed != 0) {
break;
}
std::this_thread::sleep_for(std::chrono::milliseconds(1));
}
if (fs_changed == 0)
{
SoapySDR_log(SOAPY_SDR_WARNING, "Sample rate update timeout.");
}
}
}
}
}
}
double SoapySDRPlay::getSampleRate(const int direction, const size_t channel) const
{
double fsHz = deviceParams->devParams ? deviceParams->devParams->fsFreq.fsHz : device.rspDuoSampleFreq;
if ((fsHz == 6.0e6 && chParams->tunerParams.ifType == sdrplay_api_IF_1_620) ||
(fsHz == 8.0e6 && chParams->tunerParams.ifType == sdrplay_api_IF_2_048))
{
fsHz = 2.0e6;
}
else if (!(fsHz >= 2.0e6 &&
chParams->tunerParams.ifType == sdrplay_api_IF_Zero &&
(device.hwVer != SDRPLAY_RSPduo_ID || device.rspDuoMode == sdrplay_api_RspDuoMode_Single_Tuner)
))
{
SoapySDR_logf(SOAPY_SDR_ERROR, "Invalid sample rate and/or IF setting - fsHz=%lf ifType=%d hwVer=%d rspDuoMode=%d rspDuoSampleFreq=%lf", fsHz, chParams->tunerParams.ifType, device.hwVer, device.rspDuoMode, device.rspDuoSampleFreq);
throw std::runtime_error("Invalid sample rate and/or IF setting");
}
if (!chParams->ctrlParams.decimation.enable)
{
return fsHz;
}
else
{
return fsHz / chParams->ctrlParams.decimation.decimationFactor;
}
}
std::vector<double> SoapySDRPlay::listSampleRates(const int direction, const size_t channel) const
{
std::vector<double> output_sample_rates;
if (device.hwVer == SDRPLAY_RSPduo_ID && device.rspDuoMode != sdrplay_api_RspDuoMode_Single_Tuner)
{
output_sample_rates.push_back(62500);
output_sample_rates.push_back(125000);
output_sample_rates.push_back(250000);
output_sample_rates.push_back(500000);
output_sample_rates.push_back(1000000);
output_sample_rates.push_back(2000000);
return output_sample_rates;
}
output_sample_rates.push_back(62500);
output_sample_rates.push_back(96000);
output_sample_rates.push_back(125000);
output_sample_rates.push_back(192000);
output_sample_rates.push_back(250000);
output_sample_rates.push_back(384000);
output_sample_rates.push_back(500000);
output_sample_rates.push_back(768000);
output_sample_rates.push_back(1000000);
output_sample_rates.push_back(2000000);
output_sample_rates.push_back(2048000);
output_sample_rates.push_back(3000000);
output_sample_rates.push_back(4000000);
output_sample_rates.push_back(5000000);
output_sample_rates.push_back(6000000);
output_sample_rates.push_back(7000000);
output_sample_rates.push_back(8000000);
output_sample_rates.push_back(9000000);
output_sample_rates.push_back(10000000);
return output_sample_rates;
}
SoapySDR::RangeList SoapySDRPlay::getSampleRateRange(const int direction, const size_t channel) const
{
SoapySDR::RangeList output_sample_rates;
if (device.hwVer == SDRPLAY_RSPduo_ID && device.rspDuoMode != sdrplay_api_RspDuoMode_Single_Tuner)
{
output_sample_rates.push_back(SoapySDR::Range(62500, 62500));
output_sample_rates.push_back(SoapySDR::Range(125000, 125000));
output_sample_rates.push_back(SoapySDR::Range(250000, 250000));
output_sample_rates.push_back(SoapySDR::Range(500000, 500000));
output_sample_rates.push_back(SoapySDR::Range(1000000, 1000000));
output_sample_rates.push_back(SoapySDR::Range(2000000, 2000000));
return output_sample_rates;
}
output_sample_rates.push_back(SoapySDR::Range(62500, 62500));
output_sample_rates.push_back(SoapySDR::Range(96000, 96000));
output_sample_rates.push_back(SoapySDR::Range(125000, 125000));
output_sample_rates.push_back(SoapySDR::Range(192000, 192000));
output_sample_rates.push_back(SoapySDR::Range(250000, 250000));
output_sample_rates.push_back(SoapySDR::Range(384000, 384000));
output_sample_rates.push_back(SoapySDR::Range(500000, 500000));
output_sample_rates.push_back(SoapySDR::Range(768000, 768000));
output_sample_rates.push_back(SoapySDR::Range(1000000, 1000000));
output_sample_rates.push_back(SoapySDR::Range(2000000, 10660000));
return output_sample_rates;
}
double SoapySDRPlay::getInputSampleRateAndDecimation(uint32_t output_sample_rate, unsigned int *decM, unsigned int *decEnable, sdrplay_api_If_kHzT *ifType) const
{
sdrplay_api_If_kHzT lif = sdrplay_api_IF_1_620;
double lif_input_sample_rate = 6000000;
if (device.hwVer == SDRPLAY_RSPduo_ID && device.rspDuoSampleFreq == 8000000)
{
lif = sdrplay_api_IF_2_048;
lif_input_sample_rate = 8000000;
}
// all RSPs should support these sample rates
switch (output_sample_rate) {
case 62500:
*ifType = lif; *decM = 32; *decEnable = 1;
return lif_input_sample_rate;
case 125000:
*ifType = lif; *decM = 16; *decEnable = 1;
return lif_input_sample_rate;
case 250000:
*ifType = lif; *decM = 8; *decEnable = 1;
return lif_input_sample_rate;
case 500000:
*ifType = lif; *decM = 4; *decEnable = 1;
return lif_input_sample_rate;
case 1000000:
*ifType = lif; *decM = 2; *decEnable = 1;
return lif_input_sample_rate;
case 2000000:
*ifType = lif; *decM = 1; *decEnable = 0;
return lif_input_sample_rate;
}
if (device.hwVer == SDRPLAY_RSPduo_ID && device.rspDuoMode != sdrplay_api_RspDuoMode_Single_Tuner)
{
return -1;
}
if (output_sample_rate <= 2000000)
{