Initial Commit

This commit is contained in:
Jordan Sherer
2018-02-08 21:28:33 -05:00
commit 678c1d3966
14352 changed files with 3176737 additions and 0 deletions
@@ -0,0 +1,522 @@
#include "widegraph.h"
#include <algorithm>
#include <QApplication>
#include <QSettings>
#include "ui_widegraph.h"
#include "commons.h"
#include "Configuration.hpp"
#include "MessageBox.hpp"
#include "SettingsGroup.hpp"
#include "moc_widegraph.cpp"
namespace
{
auto user_defined = QObject::tr ("User Defined");
float swide[MAX_SCREENSIZE];
}
WideGraph::WideGraph(QSettings * settings, QWidget *parent) :
QDialog(parent),
ui(new Ui::WideGraph),
m_settings (settings),
m_palettes_path {":/Palettes"},
m_ntr0 {0},
m_lockTxFreq {false},
m_bHaveTransmitted {false},
m_n {0}
{
ui->setupUi(this);
setWindowTitle (QApplication::applicationName () + " - " + tr ("Wide Graph"));
setWindowFlags (Qt::WindowCloseButtonHint | Qt::WindowMinimizeButtonHint);
setMaximumWidth (MAX_SCREENSIZE);
setMaximumHeight (880);
ui->widePlot->setCursor(Qt::CrossCursor);
ui->widePlot->setMaximumHeight(800);
ui->widePlot->setCurrent(false);
connect(ui->widePlot, SIGNAL(freezeDecode1(int)),this,
SLOT(wideFreezeDecode(int)));
connect(ui->widePlot, SIGNAL(setFreq1(int,int)),this,
SLOT(setFreq2(int,int)));
{
//Restore user's settings
SettingsGroup g {m_settings, "WideGraph"};
restoreGeometry (m_settings->value ("geometry", saveGeometry ()).toByteArray ());
ui->widePlot->setPlotZero(m_settings->value("PlotZero", 0).toInt());
ui->widePlot->setPlotGain(m_settings->value("PlotGain", 0).toInt());
ui->widePlot->setPlot2dGain(m_settings->value("Plot2dGain", 0).toInt());
ui->widePlot->setPlot2dZero(m_settings->value("Plot2dZero", 0).toInt());
ui->zeroSlider->setValue(ui->widePlot->plotZero());
ui->gainSlider->setValue(ui->widePlot->plotGain());
ui->gain2dSlider->setValue(ui->widePlot->plot2dGain());
ui->zero2dSlider->setValue(ui->widePlot->plot2dZero());
int n = m_settings->value("BinsPerPixel",2).toInt();
m_bFlatten=m_settings->value("Flatten",true).toBool();
m_bRef=m_settings->value("UseRef",false).toBool();
ui->cbFlatten->setChecked(m_bFlatten);
ui->widePlot->setFlatten(m_bFlatten,m_bRef);
ui->cbRef->setChecked(m_bRef);
ui->widePlot->setBreadth(m_settings->value("PlotWidth",1000).toInt());
ui->bppSpinBox->setValue(n);
m_nsmo=m_settings->value("SmoothYellow",1).toInt();
ui->smoSpinBox->setValue(m_nsmo);
m_Percent2DScreen=m_settings->value("Percent2D",30).toInt();
ui->sbPercent2dPlot->setValue(m_Percent2DScreen);
m_waterfallAvg = m_settings->value("WaterfallAvg",5).toInt();
ui->waterfallAvgSpinBox->setValue(m_waterfallAvg);
ui->widePlot->setWaterfallAvg(m_waterfallAvg);
ui->widePlot->setCurrent(m_settings->value("Current",false).toBool());
ui->widePlot->setCumulative(m_settings->value("Cumulative",true).toBool());
ui->widePlot->setLinearAvg(m_settings->value("LinearAvg",false).toBool());
ui->widePlot->setReference(m_settings->value("Reference",false).toBool());
if(ui->widePlot->current()) ui->spec2dComboBox->setCurrentIndex(0);
if(ui->widePlot->cumulative()) ui->spec2dComboBox->setCurrentIndex(1);
if(ui->widePlot->linearAvg()) ui->spec2dComboBox->setCurrentIndex(2);
if(ui->widePlot->Reference()) ui->spec2dComboBox->setCurrentIndex(3);
int nbpp=m_settings->value("BinsPerPixel",2).toInt();
ui->widePlot->setBinsPerPixel(nbpp);
ui->widePlot->setStartFreq(m_settings->value("StartFreq",0).toInt());
ui->fStartSpinBox->setValue(ui->widePlot->startFreq());
m_waterfallPalette=m_settings->value("WaterfallPalette","Default").toString();
m_userPalette = WFPalette {m_settings->value("UserPalette").value<WFPalette::Colours> ()};
int m_fMin = m_settings->value ("Fmin", 2500).toInt ();
ui->fSplitSpinBox->setValue (m_fMin);
setRxRange ();
ui->controls_widget->setVisible(!m_settings->value("HideControls", false).toBool ());
}
saveSettings (); // update config with defaults
int index=0;
for (QString const& file:
m_palettes_path.entryList(QDir::NoDotAndDotDot |
QDir::System | QDir::Hidden |
QDir::AllDirs | QDir::Files,
QDir::DirsFirst)) {
QString t=file.mid(0,file.length()-4);
ui->paletteComboBox->addItem(t);
if(t==m_waterfallPalette) ui->paletteComboBox->setCurrentIndex(index);
index++;
}
ui->paletteComboBox->addItem (user_defined);
if (user_defined == m_waterfallPalette) ui->paletteComboBox->setCurrentIndex(index);
readPalette ();
}
WideGraph::~WideGraph ()
{
}
void WideGraph::closeEvent (QCloseEvent * e)
{
saveSettings ();
QDialog::closeEvent (e);
}
void WideGraph::saveSettings() //saveSettings
{
SettingsGroup g {m_settings, "WideGraph"};
m_settings->setValue ("geometry", saveGeometry ());
m_settings->setValue ("PlotZero", ui->widePlot->plotZero());
m_settings->setValue ("PlotGain", ui->widePlot->plotGain());
m_settings->setValue ("Plot2dGain", ui->widePlot->plot2dGain());
m_settings->setValue ("Plot2dZero", ui->widePlot->plot2dZero());
m_settings->setValue ("PlotWidth", ui->widePlot->plotWidth ());
m_settings->setValue ("BinsPerPixel", ui->bppSpinBox->value ());
m_settings->setValue ("SmoothYellow", ui->smoSpinBox->value ());
m_settings->setValue ("Percent2D",m_Percent2DScreen);
m_settings->setValue ("WaterfallAvg", ui->waterfallAvgSpinBox->value ());
m_settings->setValue ("Current", ui->widePlot->current());
m_settings->setValue ("Cumulative", ui->widePlot->cumulative());
m_settings->setValue ("LinearAvg", ui->widePlot->linearAvg());
m_settings->setValue ("Reference", ui->widePlot->Reference());
m_settings->setValue ("BinsPerPixel", ui->widePlot->binsPerPixel ());
m_settings->setValue ("StartFreq", ui->widePlot->startFreq ());
m_settings->setValue ("WaterfallPalette", m_waterfallPalette);
m_settings->setValue ("UserPalette", QVariant::fromValue (m_userPalette.colours ()));
m_settings->setValue("Flatten",m_bFlatten);
m_settings->setValue("UseRef",m_bRef);
m_settings->setValue ("HideControls", ui->controls_widget->isHidden ());
}
void WideGraph::drawRed(int ia, int ib)
{
ui->widePlot->drawRed(ia,ib,swide);
}
void WideGraph::dataSink2(float s[], float df3, int ihsym, int ndiskdata) //dataSink2
{
static float splot[NSMAX];
int nbpp = ui->widePlot->binsPerPixel();
//Average spectra over specified number, m_waterfallAvg
if (m_n==0) {
for (int i=0; i<NSMAX; i++)
splot[i]=s[i];
} else {
for (int i=0; i<NSMAX; i++)
splot[i] += s[i];
}
m_n++;
if (m_n>=m_waterfallAvg) {
for (int i=0; i<NSMAX; i++)
splot[i] /= m_n; //Normalize the average
m_n=0;
int i=int(ui->widePlot->startFreq()/df3 + 0.5);
int jz=5000.0/(nbpp*df3);
if(jz>MAX_SCREENSIZE) jz=MAX_SCREENSIZE;
for (int j=0; j<jz; j++) {
float ss=0;
for (int k=0; k<nbpp; k++) {
if(splot[i]>ss) ss=splot[i];
i++;
}
swide[j]=nbpp*ss;
}
// Time according to this computer
qint64 ms = QDateTime::currentMSecsSinceEpoch() % 86400000;
int ntr = (ms/1000) % m_TRperiod;
if((ndiskdata && ihsym <= m_waterfallAvg) || (!ndiskdata && ntr<m_ntr0)) {
float flagValue=1.0e30;
if(m_bHaveTransmitted) flagValue=2.0e30;
for (int i=0; i<2048; i++) {
swide[i] = flagValue;
}
m_bHaveTransmitted=false;
}
m_ntr0=ntr;
ui->widePlot->draw(swide,true,false);
}
}
void WideGraph::on_bppSpinBox_valueChanged(int n) //bpp
{
ui->widePlot->setBinsPerPixel(n);
}
void WideGraph::on_waterfallAvgSpinBox_valueChanged(int n) //Navg
{
m_waterfallAvg = n;
ui->widePlot->setWaterfallAvg(n);
}
void WideGraph::keyPressEvent(QKeyEvent *e) //F11, F12
{
switch(e->key())
{
int n;
case Qt::Key_F11:
n=11;
if(e->modifiers() & Qt::ControlModifier) n+=100;
emit f11f12(n);
break;
case Qt::Key_F12:
n=12;
if(e->modifiers() & Qt::ControlModifier) n+=100;
emit f11f12(n);
break;
case Qt::Key_M:
if(e->modifiers() & Qt::ControlModifier) {
ui->controls_widget->setVisible(!ui->controls_widget->isVisible());
}
break;
default:
QDialog::keyPressEvent (e);
}
}
void WideGraph::setRxFreq(int n) //setRxFreq
{
ui->widePlot->setRxFreq(n);
ui->widePlot->draw(swide,false,false);
if(m_lockTxFreq) setTxFreq(n);
}
int WideGraph::rxFreq() //rxFreq
{
return ui->widePlot->rxFreq();
}
int WideGraph::nStartFreq() //nStartFreq
{
return ui->widePlot->startFreq();
}
void WideGraph::wideFreezeDecode(int n) //wideFreezeDecode
{
emit freezeDecode2(n);
}
void WideGraph::setRxRange ()
{
ui->widePlot->setRxRange (Fmin ());
ui->widePlot->DrawOverlay();
ui->widePlot->update();
}
int WideGraph::Fmin() //Fmin
{
return "60m" == m_rxBand ? 0 : m_fMin;
}
int WideGraph::Fmax() //Fmax
{
return std::min(5000,ui->widePlot->Fmax());
}
int WideGraph::fSpan()
{
return ui->widePlot->fSpan ();
}
void WideGraph::setPeriod(int ntrperiod, int nsps) //SetPeriod
{
m_TRperiod=ntrperiod;
m_nsps=nsps;
ui->widePlot->setNsps(ntrperiod, nsps);
}
void WideGraph::setTxFreq(int n) //setTxFreq
{
emit setXIT2(n);
ui->widePlot->setTxFreq(n);
}
void WideGraph::setMode(QString mode) //setMode
{
m_mode=mode;
ui->fSplitSpinBox->setEnabled(m_mode=="JT9+JT65");
ui->widePlot->setMode(mode);
ui->widePlot->DrawOverlay();
ui->widePlot->update();
}
void WideGraph::setSubMode(int n) //setSubMode
{
m_nSubMode=n;
ui->widePlot->setSubMode(n);
ui->widePlot->DrawOverlay();
ui->widePlot->update();
}
void WideGraph::setModeTx(QString modeTx) //setModeTx
{
m_modeTx=modeTx;
ui->widePlot->setModeTx(modeTx);
ui->widePlot->DrawOverlay();
ui->widePlot->update();
}
//Current-Cumulative-Yellow
void WideGraph::on_spec2dComboBox_currentIndexChanged(const QString &arg1)
{
ui->widePlot->setCurrent(false);
ui->widePlot->setCumulative(false);
ui->widePlot->setLinearAvg(false);
ui->widePlot->setReference(false);
ui->smoSpinBox->setEnabled(false);
if(arg1=="Current") ui->widePlot->setCurrent(true);
if(arg1=="Cumulative") ui->widePlot->setCumulative(true);
if(arg1=="Linear Avg") {
ui->widePlot->setLinearAvg(true);
ui->smoSpinBox->setEnabled(true);
}
if(arg1=="Reference") {
ui->widePlot->setReference(true);
}
if(ui->widePlot->m_bScaleOK) ui->widePlot->draw(swide,false,false);
}
void WideGraph::on_fSplitSpinBox_valueChanged(int n) //fSplit
{
if (m_rxBand != "60m") m_fMin=n;
setRxRange ();
}
void WideGraph::setLockTxFreq(bool b) //LockTxFreq
{
m_lockTxFreq=b;
ui->widePlot->setLockTxFreq(b);
}
void WideGraph::setFreq2(int rxFreq, int txFreq) //setFreq2
{
emit setFreq3(rxFreq,txFreq);
}
void WideGraph::setDialFreq(double d) //setDialFreq
{
ui->widePlot->setDialFreq(d);
}
void WideGraph::setRxBand (QString const& band)
{
m_rxBand = band;
if ("60m" == m_rxBand)
{
ui->fSplitSpinBox->setEnabled (false);
ui->fSplitSpinBox->setValue (0);
}
else
{
ui->fSplitSpinBox->setValue (m_fMin);
ui->fSplitSpinBox->setEnabled (true);
}
ui->widePlot->setRxBand(band);
setRxRange ();
}
void WideGraph::on_fStartSpinBox_valueChanged(int n) //fStart
{
ui->widePlot->setStartFreq(n);
}
void WideGraph::readPalette () //readPalette
{
try
{
if (user_defined == m_waterfallPalette)
{
ui->widePlot->setColours (WFPalette {m_userPalette}.interpolate ());
}
else
{
ui->widePlot->setColours (WFPalette {m_palettes_path.absoluteFilePath (m_waterfallPalette + ".pal")}.interpolate());
}
}
catch (std::exception const& e)
{
MessageBox::warning_message (this, tr ("Read Palette"), e.what ());
}
}
void WideGraph::on_paletteComboBox_activated (QString const& palette) //palette selector
{
m_waterfallPalette = palette;
readPalette();
}
void WideGraph::on_cbFlatten_toggled(bool b) //Flatten On/Off
{
m_bFlatten=b;
if(m_bRef and m_bFlatten) {
m_bRef=false;
ui->cbRef->setChecked(false);
}
ui->widePlot->setFlatten(m_bFlatten,m_bRef);
}
void WideGraph::on_cbRef_toggled(bool b)
{
m_bRef=b;
if(m_bRef and m_bFlatten) {
m_bFlatten=false;
ui->cbFlatten->setChecked(false);
}
ui->widePlot->setFlatten(m_bFlatten,m_bRef);
}
void WideGraph::on_cbControls_toggled(bool b)
{
ui->controls_widget->setVisible(b);
}
void WideGraph::on_adjust_palette_push_button_clicked (bool) //Adjust Palette
{
try
{
if (m_userPalette.design ())
{
m_waterfallPalette = user_defined;
ui->paletteComboBox->setCurrentText (m_waterfallPalette);
readPalette ();
}
}
catch (std::exception const& e)
{
MessageBox::warning_message (this, tr ("Read Palette"), e.what ());
}
}
bool WideGraph::flatten() //Flatten
{
return m_bFlatten;
}
bool WideGraph::useRef() //Flatten
{
return m_bRef;
}
void WideGraph::on_gainSlider_valueChanged(int value) //Gain
{
ui->widePlot->setPlotGain(value);
}
void WideGraph::on_zeroSlider_valueChanged(int value) //Zero
{
ui->widePlot->setPlotZero(value);
}
void WideGraph::on_gain2dSlider_valueChanged(int value) //Gain2
{
ui->widePlot->setPlot2dGain(value);
if(ui->widePlot->m_bScaleOK) {
ui->widePlot->draw(swide,false,false);
if(m_mode=="QRA64") ui->widePlot->draw(swide,false,true);
}
}
void WideGraph::on_zero2dSlider_valueChanged(int value) //Zero2
{
ui->widePlot->setPlot2dZero(value);
if(ui->widePlot->m_bScaleOK) {
ui->widePlot->draw(swide,false,false);
if(m_mode=="QRA64") ui->widePlot->draw(swide,false,true);
}
}
void WideGraph::setTol(int n) //setTol
{
ui->widePlot->setTol(n);
ui->widePlot->DrawOverlay();
ui->widePlot->update();
}
void WideGraph::on_smoSpinBox_valueChanged(int n)
{
m_nsmo=n;
}
int WideGraph::smoothYellow()
{
return m_nsmo;
}
void WideGraph::setWSPRtransmitted()
{
m_bHaveTransmitted=true;
}
void WideGraph::setVHF(bool bVHF)
{
ui->widePlot->setVHF(bVHF);
}
void WideGraph::on_sbPercent2dPlot_valueChanged(int n)
{
m_Percent2DScreen=n;
ui->widePlot->SetPercent2DScreen(n);
}
void WideGraph::setRedFile(QString fRed)
{
ui->widePlot->setRedFile(fRed);
}
@@ -0,0 +1,726 @@
#include "OmniRigTransceiver.hpp"
#include <QTimer>
#include <QDebug>
#include <objbase.h>
#include <QThread>
#include "qt_helpers.hpP"
#include "moc_OmniRigTransceiver.cpp"
namespace
{
auto constexpr OmniRig_transceiver_one_name = "OmniRig Rig 1";
auto constexpr OmniRig_transceiver_two_name = "OmniRig Rig 2";
}
auto OmniRigTransceiver::map_mode (OmniRig::RigParamX param) -> MODE
{
if (param & OmniRig::PM_CW_U)
{
return CW_R;
}
else if (param & OmniRig::PM_CW_L)
{
return CW;
}
else if (param & OmniRig::PM_SSB_U)
{
return USB;
}
else if (param & OmniRig::PM_SSB_L)
{
return LSB;
}
else if (param & OmniRig::PM_DIG_U)
{
return DIG_U;
}
else if (param & OmniRig::PM_DIG_L)
{
return DIG_L;
}
else if (param & OmniRig::PM_AM)
{
return AM;
}
else if (param & OmniRig::PM_FM)
{
return FM;
}
TRACE_CAT ("OmniRigTransceiver", "unrecognized mode");
throw_qstring (tr ("OmniRig: unrecognized mode"));
return UNK;
}
OmniRig::RigParamX OmniRigTransceiver::map_mode (MODE mode)
{
switch (mode)
{
case AM: return OmniRig::PM_AM;
case CW: return OmniRig::PM_CW_L;
case CW_R: return OmniRig::PM_CW_U;
case USB: return OmniRig::PM_SSB_U;
case LSB: return OmniRig::PM_SSB_L;
case FSK: return OmniRig::PM_DIG_L;
case FSK_R: return OmniRig::PM_DIG_U;
case DIG_L: return OmniRig::PM_DIG_L;
case DIG_U: return OmniRig::PM_DIG_U;
case FM: return OmniRig::PM_FM;
case DIG_FM: return OmniRig::PM_FM;
default: break;
}
return OmniRig::PM_SSB_U; // quieten compiler grumble
}
void OmniRigTransceiver::register_transceivers (TransceiverFactory::Transceivers * registry, int id1, int id2)
{
(*registry)[OmniRig_transceiver_one_name] = TransceiverFactory::Capabilities {
id1
, TransceiverFactory::Capabilities::none // COM isn't serial or network
, true // does PTT
, false // doesn't select mic/data (use OmniRig config file)
, true // can remote control RTS nd DTR
, true // asynchronous interface
};
(*registry)[OmniRig_transceiver_two_name] = TransceiverFactory::Capabilities {
id2
, TransceiverFactory::Capabilities::none // COM isn't serial or network
, true // does PTT
, false // doesn't select mic/data (use OmniRig config file)
, true // can remote control RTS nd DTR
, true // asynchronous interface
};
}
OmniRigTransceiver::OmniRigTransceiver (std::unique_ptr<TransceiverBase> wrapped,
RigNumber n, TransceiverFactory::PTTMethod ptt_type,
QString const& ptt_port, QObject * parent)
: TransceiverBase {parent}
, wrapped_ {std::move (wrapped)}
, use_for_ptt_ {TransceiverFactory::PTT_method_CAT == ptt_type || ("CAT" == ptt_port && (TransceiverFactory::PTT_method_RTS == ptt_type || TransceiverFactory::PTT_method_DTR == ptt_type))}
, ptt_type_ {ptt_type}
, rig_number_ {n}
, readable_params_ {0}
, writable_params_ {0}
, send_update_signal_ {false}
, reversed_ {false}
{
}
int OmniRigTransceiver::do_start ()
{
TRACE_CAT ("OmniRigTransceiver", "starting");
if (wrapped_) wrapped_->start (0);
CoInitializeEx (nullptr, 0 /*COINIT_APARTMENTTHREADED*/); // required because Qt only does this for GUI thread
omni_rig_.reset (new OmniRig::OmniRigX {this});
if (omni_rig_->isNull ())
{
TRACE_CAT ("OmniRigTransceiver", "failed to start COM server");
throw_qstring (tr ("Failed to start OmniRig COM server"));
}
// COM/OLE exceptions get signaled
connect (&*omni_rig_, SIGNAL (exception (int, QString, QString, QString)), this, SLOT (handle_COM_exception (int, QString, QString, QString)));
// IOmniRigXEvent interface signals
connect (&*omni_rig_, SIGNAL (VisibleChange ()), this, SLOT (handle_visible_change ()));
connect (&*omni_rig_, SIGNAL (RigTypeChange (int)), this, SLOT (handle_rig_type_change (int)));
connect (&*omni_rig_, SIGNAL (StatusChange (int)), this, SLOT (handle_status_change (int)));
connect (&*omni_rig_, SIGNAL (ParamsChange (int, int)), this, SLOT (handle_params_change (int, int)));
connect (&*omni_rig_
, SIGNAL (CustomReply (int, QVariant const&, QVariant const&))
, this, SLOT (handle_custom_reply (int, QVariant const&, QVariant const&)));
TRACE_CAT ("OmniRigTransceiver", "OmniRig s/w version:" << QString::number (omni_rig_->SoftwareVersion ()).toLocal8Bit ()
<< "i/f version:" << QString::number (omni_rig_->InterfaceVersion ()).toLocal8Bit ());
// fetch the interface of the RigX CoClass and instantiate a proxy object
switch (rig_number_)
{
case One: rig_.reset (new OmniRig::RigX (omni_rig_->Rig1 ())); break;
case Two: rig_.reset (new OmniRig::RigX (omni_rig_->Rig2 ())); break;
}
Q_ASSERT (rig_);
Q_ASSERT (!rig_->isNull ());
if (use_for_ptt_ && (TransceiverFactory::PTT_method_DTR == ptt_type_ || TransceiverFactory::PTT_method_RTS == ptt_type_))
{
// fetch the interface for the serial port if we need it for PTT
port_.reset (new OmniRig::PortBits (rig_->PortBits ()));
Q_ASSERT (port_);
Q_ASSERT (!port_->isNull ());
TRACE_CAT ("OmniRigTransceiver", "OmniRig RTS state:" << port_->Rts ());
if (!port_->Lock ()) // try to take exclusive use of the OmniRig serial port for PTT
{
TRACE_CAT ("OmniRigTransceiver", "Failed to get exclusive use of serial port for PTT from OmniRig");
}
// start off so we don't accidentally key the radio
if (TransceiverFactory::PTT_method_DTR == ptt_type_)
{
port_->SetDtr (false);
}
else // RTS
{
port_->SetRts (false);
}
}
rig_type_ = rig_->RigType ();
readable_params_ = rig_->ReadableParams ();
writable_params_ = rig_->WriteableParams ();
TRACE_CAT ("OmniRigTransceiver", QString {"OmniRig initial rig type: %1 readable params = 0x%2 writable params = 0x%3 for rig %4"}
.arg (rig_type_)
.arg (readable_params_, 8, 16, QChar ('0'))
.arg (writable_params_, 8, 16, QChar ('0'))
.arg (rig_number_).toLocal8Bit ());
offline_timer_.reset (new QTimer);
offline_timer_->setSingleShot (true);
offline_timer_->setInterval (5 * 1000);
connect (&*offline_timer_, &QTimer::timeout, this, &OmniRigTransceiver::timeout_check);
for (unsigned tries {0}; tries < 10; ++tries)
{
QThread::msleep (100); // wait until OmniRig polls the rig
auto f = rig_->GetRxFrequency ();
int resolution {0};
if (f)
{
if (OmniRig::PM_UNKNOWN == rig_->Vfo ()
&& (writable_params_ & (OmniRig::PM_VFOA | OmniRig::PM_VFOB))
== (OmniRig::PM_VFOA | OmniRig::PM_VFOB))
{
// start with VFO A (probably MAIN) on rigs that we
// can't query VFO but can set explicitly
rig_->SetVfo (OmniRig::PM_VFOA);
}
if (f % 10) return resolution; // 1Hz resolution
auto test_frequency = f - f % 100 + 55;
if (OmniRig::PM_FREQ & writable_params_)
{
rig_->SetFreq (test_frequency);
}
else if (reversed_ && (OmniRig::PM_FREQB & writable_params_))
{
rig_->SetFreqB (test_frequency);
}
else if (!reversed_ && (OmniRig::PM_FREQA & writable_params_))
{
rig_->SetFreqA (test_frequency);
}
else
{
throw_qstring (tr ("OmniRig: don't know how to set rig frequency"));
}
switch (rig_->GetRxFrequency () - test_frequency)
{
case -5: resolution = -1; break; // 10Hz truncated
case 5: resolution = 1; break; // 10Hz rounded
case -15: resolution = -2; break; // 20Hz truncated
case -55: resolution = -2; break; // 100Hz truncated
case 45: resolution = 2; break; // 100Hz rounded
}
if (1 == resolution) // may be 20Hz rounded
{
test_frequency = f - f % 100 + 51;
if (OmniRig::PM_FREQ & writable_params_)
{
rig_->SetFreq (test_frequency);
}
else if (reversed_ && (OmniRig::PM_FREQB & writable_params_))
{
rig_->SetFreqB (test_frequency);
}
else if (!reversed_ && (OmniRig::PM_FREQA & writable_params_))
{
rig_->SetFreqA (test_frequency);
}
if (9 == rig_->GetRxFrequency () - test_frequency)
{
resolution = 2; // 20Hz rounded
}
}
if (OmniRig::PM_FREQ & writable_params_)
{
rig_->SetFreq (f);
}
else if (reversed_ && (OmniRig::PM_FREQB & writable_params_))
{
rig_->SetFreqB (f);
}
else if (!reversed_ && (OmniRig::PM_FREQA & writable_params_))
{
rig_->SetFreqA (f);
}
update_rx_frequency (f);
return resolution;
}
}
throw_qstring (tr ("OmniRig: Initialization timed out"));
return 0; // keep compiler happy
}
void OmniRigTransceiver::do_stop ()
{
if (offline_timer_)
{
offline_timer_->stop ();
offline_timer_.reset ();
}
QThread::msleep (200); // leave some time for pending
// commands at the server end
if (port_)
{
port_->Unlock (); // release serial port
port_->clear ();
port_.reset ();
}
if (omni_rig_)
{
if (rig_)
{
rig_->clear ();
rig_.reset ();
}
omni_rig_->clear ();
omni_rig_.reset ();
CoUninitialize ();
}
if (wrapped_) wrapped_->stop ();
TRACE_CAT ("OmniRigTransceiver", "stopped");
}
void OmniRigTransceiver::do_sync (bool force_signal, bool /*no_poll*/)
{
// nothing much we can do here, we just have to let OmniRig do its
// stuff and its first poll should send us and update that will
// trigger a update signal from us. Any attempt to query OmniRig
// leads to a whole mess of trouble since its internal state is
// garbage until it has done its first rig poll.
send_update_signal_ = force_signal;
update_complete ();
}
void OmniRigTransceiver::handle_COM_exception (int code, QString source, QString desc, QString help)
{
TRACE_CAT ("OmniRigTransceiver", QString::number (code) + " at " + source + ": " + desc + " (" + help + ')');
throw_qstring (tr ("OmniRig COM/OLE error: %1 at %2: %3 (%4)").arg (QString::number (code)).arg (source). arg (desc). arg (help));
}
void OmniRigTransceiver::handle_visible_change ()
{
TRACE_CAT ("OmniRigTransceiver", "visibility change: visibility =" << omni_rig_->DialogVisible ());
}
void OmniRigTransceiver::handle_rig_type_change (int rig_number)
{
if (rig_number_ == rig_number)
{
readable_params_ = rig_->ReadableParams ();
writable_params_ = rig_->WriteableParams ();
TRACE_CAT ("OmniRigTransceiver", QString {"OmniRig rig type change to: %1 readable params = 0x%2 writable params = 0x%3 for rig %4"}
.arg (rig_->RigType ())
.arg (readable_params_, 8, 16, QChar ('0'))
.arg (writable_params_, 8, 16, QChar ('0'))
.arg (rig_number).toLocal8Bit ());
}
}
void OmniRigTransceiver::handle_status_change (int rig_number)
{
if (rig_number_ == rig_number)
{
auto const& status = rig_->StatusStr ().toLocal8Bit ();
TRACE_CAT ("OmniRigTransceiver", QString {"OmniRig status change: new status for rig %1 = "}.arg (rig_number).toLocal8Bit () << status);
if (OmniRig::ST_ONLINE != rig_->Status ())
{
if (!offline_timer_->isActive ())
{
offline_timer_->start (); // give OmniRig time to recover
}
}
else
{
offline_timer_->stop ();
update_rx_frequency (rig_->GetRxFrequency ());
update_complete ();
TRACE_CAT ("OmniRigTransceiver", "OmniRig frequency:" << state ().frequency ());
}
}
}
void OmniRigTransceiver::timeout_check ()
{
offline ("Rig went offline");
}
void OmniRigTransceiver::handle_params_change (int rig_number, int params)
{
if (rig_number_ == rig_number)
{
TRACE_CAT ("OmniRigTransceiver", QString {"OmniRig params change: params = 0x%1 for rig %2"}
.arg (params, 8, 16, QChar ('0'))
.arg (rig_number).toLocal8Bit ()
<< "state before:" << state ());
// starting_ = false;
TransceiverState old_state {state ()};
auto need_frequency = false;
// state_.online = true; // sometimes we don't get an initial
// // OmniRig::ST_ONLINE status change
// // event
if (params & OmniRig::PM_VFOAA)
{
update_split (false);
reversed_ = false;
update_rx_frequency (rig_->FreqA ());
update_other_frequency (rig_->FreqB ());
}
if (params & OmniRig::PM_VFOAB)
{
update_split (true);
reversed_ = false;
update_rx_frequency (rig_->FreqA ());
update_other_frequency (rig_->FreqB ());
}
if (params & OmniRig::PM_VFOBA)
{
update_split (true);
reversed_ = true;
update_other_frequency (rig_->FreqA ());
update_rx_frequency (rig_->FreqB ());
}
if (params & OmniRig::PM_VFOBB)
{
update_split (false);
reversed_ = true;
update_other_frequency (rig_->FreqA ());
update_rx_frequency (rig_->FreqB ());
}
if (params & OmniRig::PM_VFOA)
{
reversed_ = false;
need_frequency = true;
}
if (params & OmniRig::PM_VFOB)
{
reversed_ = true;
need_frequency = true;
}
if (params & OmniRig::PM_FREQ)
{
need_frequency = true;
}
if (params & OmniRig::PM_FREQA)
{
if (reversed_)
{
update_other_frequency (rig_->FreqA ());
}
else
{
update_rx_frequency (rig_->FreqA ());
}
}
if (params & OmniRig::PM_FREQB)
{
if (reversed_)
{
update_rx_frequency (rig_->FreqB ());
}
else
{
update_other_frequency (rig_->FreqB ());
}
}
if (need_frequency)
{
if (readable_params_ & OmniRig::PM_FREQA)
{
if (reversed_)
{
update_other_frequency (rig_->FreqA ());
}
else
{
update_rx_frequency (rig_->FreqA ());
}
need_frequency = false;
}
if (readable_params_ & OmniRig::PM_FREQB)
{
if (reversed_)
{
update_rx_frequency (rig_->FreqB ());
}
else
{
update_other_frequency (rig_->FreqB ());
}
need_frequency = false;
}
}
if (need_frequency && (readable_params_ & OmniRig::PM_FREQ)
&& !state ().ptt ())
{
update_rx_frequency (rig_->Freq ());
}
if (params & OmniRig::PM_PITCH)
{
}
if (params & OmniRig::PM_RITOFFSET)
{
}
if (params & OmniRig::PM_RIT0)
{
}
if (params & OmniRig::PM_VFOEQUAL)
{
auto f = readable_params_ & OmniRig::PM_FREQA ? rig_->FreqA () : rig_->Freq ();
update_rx_frequency (f);
update_other_frequency (f);
update_mode (map_mode (rig_->Mode ()));
}
if (params & OmniRig::PM_VFOSWAP)
{
auto temp = state ().tx_frequency ();
update_other_frequency (state ().frequency ());
update_rx_frequency (temp);
update_mode (map_mode (rig_->Mode ()));
}
if (params & OmniRig::PM_SPLITON)
{
update_split (true);
}
if (params & OmniRig::PM_SPLITOFF)
{
update_split (false);
}
if (params & OmniRig::PM_RITON)
{
}
if (params & OmniRig::PM_RITOFF)
{
}
if (params & OmniRig::PM_XITON)
{
}
if (params & OmniRig::PM_XITOFF)
{
}
if (params & OmniRig::PM_RX)
{
update_PTT (false);
}
if (params & OmniRig::PM_TX)
{
update_PTT ();
}
if (params & OmniRig::PM_CW_U)
{
update_mode (CW_R);
}
if (params & OmniRig::PM_CW_L)
{
update_mode (CW);
}
if (params & OmniRig::PM_SSB_U)
{
update_mode (USB);
}
if (params & OmniRig::PM_SSB_L)
{
update_mode (LSB);
}
if (params & OmniRig::PM_DIG_U)
{
update_mode (DIG_U);
}
if (params & OmniRig::PM_DIG_L)
{
update_mode (DIG_L);
}
if (params & OmniRig::PM_AM)
{
update_mode (AM);
}
if (params & OmniRig::PM_FM)
{
update_mode (FM);
}
if (old_state != state () || send_update_signal_)
{
update_complete ();
send_update_signal_ = false;
}
TRACE_CAT ("OmniRigTransceiver", "OmniRig params change: state after:" << state ());
}
}
void OmniRigTransceiver::handle_custom_reply (int rig_number, QVariant const& command, QVariant const& reply)
{
(void)command;
(void)reply;
if (rig_number_ == rig_number)
{
TRACE_CAT ("OmniRigTransceiver", "custom command" << command.toString ().toLocal8Bit ()
<< "with reply" << reply.toString ().toLocal8Bit ()
<< QString ("for rig %1").arg (rig_number).toLocal8Bit ());
TRACE_CAT ("OmniRigTransceiver", "rig number:" << rig_number_ << ':' << state ());
}
}
void OmniRigTransceiver::do_ptt (bool on)
{
TRACE_CAT ("OmniRigTransceiver", on << state ());
if (use_for_ptt_ && TransceiverFactory::PTT_method_CAT == ptt_type_)
{
TRACE_CAT ("OmniRigTransceiver", "set PTT");
rig_->SetTx (on ? OmniRig::PM_TX : OmniRig::PM_RX);
}
else
{
if (port_)
{
if (TransceiverFactory::PTT_method_RTS == ptt_type_)
{
TRACE_CAT ("OmniRigTransceiver", "set RTS");
port_->SetRts (on);
}
else // "DTR"
{
TRACE_CAT ("OmniRigTransceiver", "set DTR");
port_->SetDtr (on);
}
}
else
{
TRACE_CAT ("OmniRigTransceiver", "set PTT using basic transceiver");
Q_ASSERT (wrapped_);
TransceiverState new_state {wrapped_->state ()};
new_state.ptt (on);
wrapped_->set (new_state, 0);
}
}
update_PTT (on);
}
void OmniRigTransceiver::do_frequency (Frequency f, MODE m, bool /*no_ignore*/)
{
TRACE_CAT ("OmniRigTransceiver", f << state ());
if (UNK != m)
{
do_mode (m);
}
if (OmniRig::PM_FREQ & writable_params_)
{
rig_->SetFreq (f);
update_rx_frequency (f);
}
else if (reversed_ && (OmniRig::PM_FREQB & writable_params_))
{
rig_->SetFreqB (f);
update_rx_frequency (f);
}
else if (!reversed_ && (OmniRig::PM_FREQA & writable_params_))
{
rig_->SetFreqA (f);
update_rx_frequency (f);
}
else
{
throw_qstring (tr ("OmniRig: don't know how to set rig frequency"));
}
}
void OmniRigTransceiver::do_tx_frequency (Frequency tx, MODE m, bool /*no_ignore*/)
{
TRACE_CAT ("OmniRigTransceiver", tx << state ());
bool split {tx != 0};
if (split)
{
if (UNK != m)
{
do_mode (m);
if (OmniRig::PM_UNKNOWN == rig_->Vfo ())
{
if (writable_params_ & OmniRig::PM_VFOEQUAL)
{
// nothing to do here because OmniRig will use VFO
// equalize to set the mode of the Tx VFO for us
}
else if ((writable_params_ & (OmniRig::PM_VFOA | OmniRig::PM_VFOB))
== (OmniRig::PM_VFOA | OmniRig::PM_VFOB))
{
rig_->SetVfo (OmniRig::PM_VFOB);
do_mode (m);
rig_->SetVfo (OmniRig::PM_VFOA);
}
else if (writable_params_ & OmniRig::PM_VFOSWAP)
{
rig_->SetVfo (OmniRig::PM_VFOSWAP);
do_mode (m);
rig_->SetVfo (OmniRig::PM_VFOSWAP);
}
}
}
TRACE_CAT ("OmniRigTransceiver", "set SPLIT mode on");
rig_->SetSplitMode (state ().frequency (), tx);
update_other_frequency (tx);
update_split (true);
}
else
{
TRACE_CAT ("OmniRigTransceiver", "set SPLIT mode off");
rig_->SetSimplexMode (state ().frequency ());
update_split (false);
}
bool notify {false};
if (readable_params_ & OmniRig::PM_FREQ || !(readable_params_ & (OmniRig::PM_FREQA | OmniRig::PM_FREQB)))
{
update_other_frequency (tx); // async updates won't return this
// so just store it and hope
// operator doesn't change the
// "back" VFO on rig
notify = true;
}
if (!((OmniRig::PM_VFOAB | OmniRig::PM_VFOBA | OmniRig::PM_SPLITON) & readable_params_))
{
TRACE_CAT ("OmniRigTransceiver", "setting SPLIT manually");
update_split (split); // we can't read it so just set and
// hope op doesn't change it
notify = true;
}
if (notify)
{
update_complete ();
}
}
void OmniRigTransceiver::do_mode (MODE mode)
{
TRACE_CAT ("OmniRigTransceiver", mode << state ());
// TODO: G4WJS OmniRig doesn't seem to have any capability of tracking/setting VFO B mode
auto mapped = map_mode (mode);
if (mapped & writable_params_)
{
rig_->SetMode (mapped);
update_mode (mode);
}
else
{
offline ("OmniRig invalid mode");
}
}
@@ -0,0 +1,546 @@
#include "PhaseEqualizationDialog.hpp"
#include <iterator>
#include <algorithm>
#include <fstream>
#include <limits>
#include <cmath>
#include <QDir>
#include <QVector>
#include <QHBoxLayout>
#include <QDialog>
#include <QDialogButtonBox>
#include <QPushButton>
#include <QFileDialog>
#include <QSettings>
#include "SettingsGroup.hpp"
#include "qcustomplot.h"
#include "pimpl_impl.hpp"
namespace
{
float constexpr PI = 3.1415927f;
char const * const title = "Phase Equalization";
size_t constexpr intervals = 144;
// plot data loaders - wraps a plot providing value_type and
// push_back so that a std::back_inserter output iterator can be
// used to load plot data
template<typename T, typename A>
struct plot_data_loader
{
public:
typedef T value_type;
// the adjust argument is a function that is passed the plot
// pointer, the graph index and a data point, it returns a
// possibly adjusted data point and can modify the graph including
// adding extra points or gaps (quiet_NaN)
plot_data_loader (QCustomPlot * plot, int graph_index, A adjust)
: plot_ {plot}
, index_ {graph_index}
, adjust_ (adjust)
{
}
// load point into graph
void push_back (value_type const& d)
{
plot_->graph (index_)->data ()->add (adjust_ (plot_, index_, d));
}
private:
QCustomPlot * plot_;
int index_;
A adjust_;
};
// helper function template to make a plot_data_loader instance
template<typename A>
auto make_plot_data_loader (QCustomPlot * plot, int index, A adjust)
-> plot_data_loader<QCPGraphData, decltype (adjust)>
{
return plot_data_loader<QCPGraphData, decltype (adjust)> {plot, index, adjust};
}
// identity adjust function when no adjustment is needed with the
// above instantiation helper
QCPGraphData adjust_identity (QCustomPlot *, int, QCPGraphData const& v) {return v;}
// a plot_data_loader adjustment function that wraps Y values of
// (-1..+1) plotting discontinuities as gaps in the graph data
auto wrap_pi = [] (QCustomPlot * plot, int index, QCPGraphData d)
{
double constexpr limit {1};
static unsigned wrap_count {0};
static double last_x {std::numeric_limits<double>::lowest ()};
d.value += 2 * limit * wrap_count;
if (d.value > limit)
{
// insert a gap in the graph
plot->graph (index)->data ()->add ({last_x + (d.key - last_x) / 2
, std::numeric_limits<double>::quiet_NaN ()});
while (d.value > limit)
{
--wrap_count;
d.value -= 2 * limit;
}
}
else if (d.value < -limit)
{
// insert a gap into the graph
plot->graph (index)->data ()->add ({last_x + (d.key - last_x) / 2
, std::numeric_limits<double>::quiet_NaN ()});
while (d.value < -limit)
{
++wrap_count;
d.value += 2 * limit;
}
}
last_x = d.key;
return d;
};
// generate points of type R from a function of type F for X in
// (-1..+1) with N intervals and function of type SX to scale X and
// of type SY to scale Y
//
// it is up to the user to call the generator sufficient times which
// is interval+1 times to reach +1
template<typename R, typename F, typename SX, typename SY>
struct graph_generator
{
public:
graph_generator (F f, size_t intervals, SX x_scaling, SY y_scaling)
: x_ {0}
, f_ (f)
, intervals_ {intervals}
, x_scaling_ (x_scaling)
, y_scaling_ (y_scaling)
{
}
R operator () ()
{
typename F::value_type x {x_++ * 2.f / intervals_ - 1.f};
return {x_scaling_ (x), y_scaling_ (f_ (x))};
}
private:
int x_;
F f_;
size_t intervals_;
SX x_scaling_;
SY y_scaling_;
};
// helper function template to make a graph_generator instance for
// QCPGraphData type points with intervals intervals
template<typename F, typename SX, typename SY>
auto make_graph_generator (F function, SX x_scaling, SY y_scaling)
-> graph_generator<QCPGraphData, F, decltype (x_scaling), decltype (y_scaling)>
{
return graph_generator<QCPGraphData, F, decltype (x_scaling), decltype (y_scaling)>
{function, intervals, x_scaling, y_scaling};
}
// template function object for a polynomial with coefficients
template<typename C>
class polynomial
{
public:
typedef typename C::value_type value_type;
explicit polynomial (C const& coefficients)
: c_ {coefficients}
{
}
value_type operator () (value_type const& x)
{
value_type y {};
for (typename C::size_type i = c_.size (); i > 0; --i)
{
y = c_[i - 1] + x * y;
}
return y;
}
private:
C c_;
};
// helper function template to instantiate a polynomial instance
template<typename C>
auto make_polynomial (C const& coefficients) -> polynomial<C>
{
return polynomial<C> (coefficients);
}
// template function object for a group delay with coefficients
template<typename C>
class group_delay
{
public:
typedef typename C::value_type value_type;
explicit group_delay (C const& coefficients)
: c_ {coefficients}
{
}
value_type operator () (value_type const& x)
{
value_type tau {};
for (typename C::size_type i = 2; i < c_.size (); ++i)
{
tau += i * c_[i] * std::pow (x, i - 1);
}
return -1 / (2 * PI) * tau;
}
private:
C c_;
};
// helper function template to instantiate a group_delay function
// object
template<typename C>
auto make_group_delay (C const& coefficients) -> group_delay<C>
{
return group_delay<C> (coefficients);
}
// handy identity function
template<typename T> T identity (T const& v) {return v;}
// a lambda that scales the X axis from normalized to (500..2500)Hz
auto freq_scaling = [] (float v) -> float {return 1500.f + 1000.f * v;};
// a lambda that scales the phase Y axis from radians to units of Pi
auto pi_scaling = [] (float v) -> float {return v / PI;};
}
class PhaseEqualizationDialog::impl final
: public QDialog
{
Q_OBJECT
public:
explicit impl (PhaseEqualizationDialog * self, QSettings * settings
, QDir const& data_directory, QVector<double> const& coefficients
, QWidget * parent);
~impl () {save_window_state ();}
protected:
void closeEvent (QCloseEvent * e) override
{
save_window_state ();
QDialog::closeEvent (e);
}
private:
void save_window_state ()
{
SettingsGroup g (settings_, title);
settings_->setValue ("geometry", saveGeometry ());
}
void plot_current ();
void plot_phase ();
void plot_amplitude ();
PhaseEqualizationDialog * self_;
QSettings * settings_;
QDir data_directory_;
QHBoxLayout layout_;
QVector<double> current_coefficients_;
QVector<double> new_coefficients_;
unsigned amp_poly_low_;
unsigned amp_poly_high_;
QVector<double> amp_coefficients_;
QCustomPlot plot_;
QDialogButtonBox button_box_;
};
#include "PhaseEqualizationDialog.moc"
PhaseEqualizationDialog::PhaseEqualizationDialog (QSettings * settings
, QDir const& data_directory
, QVector<double> const& coefficients
, QWidget * parent)
: m_ {this, settings, data_directory, coefficients, parent}
{
}
void PhaseEqualizationDialog::show ()
{
m_->show ();
}
PhaseEqualizationDialog::impl::impl (PhaseEqualizationDialog * self
, QSettings * settings
, QDir const& data_directory
, QVector<double> const& coefficients
, QWidget * parent)
: QDialog {parent}
, self_ {self}
, settings_ {settings}
, data_directory_ {data_directory}
, current_coefficients_ {coefficients}
, amp_poly_low_ {0}
, amp_poly_high_ {6000}
, button_box_ {QDialogButtonBox::Discard | QDialogButtonBox::Apply
| QDialogButtonBox::RestoreDefaults | QDialogButtonBox::Close
, Qt::Vertical}
{
setWindowTitle (windowTitle () + ' ' + tr (title));
resize (500, 600);
{
SettingsGroup g {settings_, title};
restoreGeometry (settings_->value ("geometry", saveGeometry ()).toByteArray ());
}
auto legend_title = new QCPTextElement {&plot_, tr ("Phase"), QFont {"sans", 9, QFont::Bold}};
legend_title->setLayer (plot_.legend->layer ());
plot_.legend->addElement (0, 0, legend_title);
plot_.legend->setVisible (true);
plot_.xAxis->setLabel (tr ("Freq (Hz)"));
plot_.xAxis->setRange (500, 2500);
plot_.yAxis->setLabel (tr ("Phase (Π)"));
plot_.yAxis->setRange (-1, +1);
plot_.yAxis2->setLabel (tr ("Delay (ms)"));
plot_.axisRect ()->setRangeDrag (Qt::Vertical);
plot_.axisRect ()->setRangeZoom (Qt::Vertical);
plot_.yAxis2->setVisible (true);
plot_.axisRect ()->setRangeDragAxes (nullptr, plot_.yAxis2);
plot_.axisRect ()->setRangeZoomAxes (nullptr, plot_.yAxis2);
plot_.axisRect ()->insetLayout ()->setInsetAlignment (0, Qt::AlignBottom|Qt::AlignRight);
plot_.setInteractions (QCP::iRangeDrag | QCP::iRangeZoom | QCP::iSelectPlottables);
plot_.addGraph ()->setName (tr ("Measured"));
plot_.graph ()->setPen (QPen {Qt::blue});
plot_.graph ()->setVisible (false);
plot_.graph ()->removeFromLegend ();
plot_.addGraph ()->setName (tr ("Proposed"));
plot_.graph ()->setPen (QPen {Qt::red});
plot_.graph ()->setVisible (false);
plot_.graph ()->removeFromLegend ();
plot_.addGraph ()->setName (tr ("Current"));
plot_.graph ()->setPen (QPen {Qt::green});
plot_.addGraph (plot_.xAxis, plot_.yAxis2)->setName (tr ("Group Delay"));
plot_.graph ()->setPen (QPen {Qt::darkGreen});
plot_.plotLayout ()->addElement (new QCPAxisRect {&plot_});
plot_.plotLayout ()->setRowStretchFactor (1, 0.5);
auto amp_legend = new QCPLegend;
plot_.axisRect (1)->insetLayout ()->addElement (amp_legend, Qt::AlignTop | Qt::AlignRight);
plot_.axisRect (1)->insetLayout ()->setMargins (QMargins {12, 12, 12, 12});
amp_legend->setVisible (true);
amp_legend->setLayer (QLatin1String {"legend"});
legend_title = new QCPTextElement {&plot_, tr ("Amplitude"), QFont {"sans", 9, QFont::Bold}};
legend_title->setLayer (amp_legend->layer ());
amp_legend->addElement (0, 0, legend_title);
plot_.axisRect (1)->axis (QCPAxis::atBottom)->setLabel (tr ("Freq (Hz)"));
plot_.axisRect (1)->axis (QCPAxis::atBottom)->setRange (0, 6000);
plot_.axisRect (1)->axis (QCPAxis::atLeft)->setLabel (tr ("Relative Power (dB)"));
plot_.axisRect (1)->axis (QCPAxis::atLeft)->setRangeLower (0);
plot_.axisRect (1)->setRangeDragAxes (nullptr, nullptr);
plot_.axisRect (1)->setRangeZoomAxes (nullptr, nullptr);
plot_.addGraph (plot_.axisRect (1)->axis (QCPAxis::atBottom)
, plot_.axisRect (1)->axis (QCPAxis::atLeft))->setName (tr ("Reference"));
plot_.graph ()->setPen (QPen {Qt::blue});
plot_.graph ()->removeFromLegend ();
plot_.graph ()->addToLegend (amp_legend);
layout_.addWidget (&plot_);
auto load_phase_button = button_box_.addButton (tr ("Phase ..."), QDialogButtonBox::ActionRole);
auto refresh_button = button_box_.addButton (tr ("Refresh"), QDialogButtonBox::ActionRole);
layout_.addWidget (&button_box_);
setLayout (&layout_);
connect (&button_box_, &QDialogButtonBox::rejected, this, &QDialog::reject);
connect (&button_box_, &QDialogButtonBox::clicked, [=] (QAbstractButton * button) {
if (button == load_phase_button)
{
plot_phase ();
}
else if (button == refresh_button)
{
plot_current ();
}
else if (button == button_box_.button (QDialogButtonBox::Apply))
{
if (plot_.graph (0)->dataCount ()) // something loaded
{
current_coefficients_ = new_coefficients_;
Q_EMIT self_->phase_equalization_changed (current_coefficients_);
plot_current ();
}
}
else if (button == button_box_.button (QDialogButtonBox::RestoreDefaults))
{
current_coefficients_ = QVector<double> {0., 0., 0., 0., 0.};
Q_EMIT self_->phase_equalization_changed (current_coefficients_);
plot_current ();
}
else if (button == button_box_.button (QDialogButtonBox::Discard))
{
new_coefficients_ = QVector<double> {0., 0., 0., 0., 0.};
plot_.graph (0)->data ()->clear ();
plot_.graph (0)->setVisible (false);
plot_.graph (0)->removeFromLegend ();
plot_.graph (1)->data ()->clear ();
plot_.graph (1)->setVisible (false);
plot_.graph (1)->removeFromLegend ();
plot_.replot ();
}
});
plot_current ();
}
struct PowerSpectrumPoint
{
operator QCPGraphData () const
{
return QCPGraphData {freq_, power_};
}
float freq_;
float power_;
};
// read an amplitude point line from a stream (refspec.dat)
std::istream& operator >> (std::istream& is, PowerSpectrumPoint& r)
{
float y1, y3, y4; // discard these
is >> r.freq_ >> y1 >> r.power_ >> y3 >> y4;
return is;
}
void PhaseEqualizationDialog::impl::plot_current ()
{
auto phase_graph = make_plot_data_loader (&plot_, 2, wrap_pi);
plot_.graph (2)->data ()->clear ();
std::generate_n (std::back_inserter (phase_graph), intervals + 1
, make_graph_generator (make_polynomial (current_coefficients_), freq_scaling, pi_scaling));
auto group_delay_graph = make_plot_data_loader (&plot_, 3, adjust_identity);
plot_.graph (3)->data ()->clear ();
std::generate_n (std::back_inserter (group_delay_graph), intervals + 1
, make_graph_generator (make_group_delay (current_coefficients_), freq_scaling, identity<double>));
plot_.graph (3)->rescaleValueAxis ();
QFileInfo refspec_file_info {data_directory_.absoluteFilePath ("refspec.dat")};
std::ifstream refspec_file (refspec_file_info.absoluteFilePath ().toLatin1 ().constData (), std::ifstream::in);
unsigned n;
if (refspec_file >> amp_poly_low_ >> amp_poly_high_ >> n)
{
std::istream_iterator<double> isi {refspec_file};
amp_coefficients_.clear ();
std::copy_n (isi, n, std::back_inserter (amp_coefficients_));
}
else
{
// may be old format refspec.dat with no header so rewind
refspec_file.clear ();
refspec_file.seekg (0);
}
auto reference_spectrum_graph = make_plot_data_loader (&plot_, 4, adjust_identity);
plot_.graph (4)->data ()->clear ();
std::copy (std::istream_iterator<PowerSpectrumPoint> {refspec_file},
std::istream_iterator<PowerSpectrumPoint> {},
std::back_inserter (reference_spectrum_graph));
plot_.graph (4)->rescaleValueAxis (true);
plot_.replot ();
}
struct PhasePoint
{
operator QCPGraphData () const
{
return QCPGraphData {freq_, phase_};
}
double freq_;
double phase_;
};
// read a phase point line from a stream (pcoeff file)
std::istream& operator >> (std::istream& is, PhasePoint& c)
{
double pp, sigmay; // discard these
if (is >> c.freq_ >> pp >> c.phase_ >> sigmay)
{
c.freq_ = 1500. + 1000. * c.freq_; // scale frequency to Hz
c.phase_ /= PI; // scale to units of Pi
}
return is;
}
void PhaseEqualizationDialog::impl::plot_phase ()
{
auto const& phase_file_name = QFileDialog::getOpenFileName (this
, "Select Phase Response Coefficients"
, data_directory_.absolutePath ()
, "Phase Coefficient Files (*.pcoeff)");
if (!phase_file_name.size ()) return;
std::ifstream phase_file (phase_file_name.toLatin1 ().constData (), std::ifstream::in);
int n;
float chi;
float rmsdiff;
unsigned freq_low;
unsigned freq_high;
unsigned terms;
// read header information
if (phase_file >> n >> chi >> rmsdiff >> freq_low >> freq_high >> terms)
{
std::istream_iterator<double> isi {phase_file};
new_coefficients_.clear ();
std::copy_n (isi, terms, std::back_inserter (new_coefficients_));
if (phase_file)
{
plot_.graph (0)->data ()->clear ();
plot_.graph (1)->data ()->clear ();
// read the phase data and plot as graph 0
auto graph = make_plot_data_loader (&plot_, 0, adjust_identity);
std::copy_n (std::istream_iterator<PhasePoint> {phase_file},
intervals + 1, std::back_inserter (graph));
if (phase_file)
{
plot_.graph(0)->setLineStyle(QCPGraph::lsNone);
plot_.graph(0)->setScatterStyle(QCPScatterStyle(QCPScatterStyle::ssDisc, 4));
plot_.graph (0)->setVisible (true);
plot_.graph (0)->addToLegend ();
// generate the proposed polynomial plot as graph 1
auto graph = make_plot_data_loader (&plot_, 1, wrap_pi);
std::generate_n (std::back_inserter (graph), intervals + 1
, make_graph_generator (make_polynomial (new_coefficients_)
, freq_scaling, pi_scaling));
plot_.graph (1)->setVisible (true);
plot_.graph (1)->addToLegend ();
}
plot_.replot ();
}
}
}
#include "moc_PhaseEqualizationDialog.cpp"
@@ -0,0 +1,181 @@
// -*- Mode: C++ -*-
///////////////////////////////////////////////////////////////////////////
// Some code in this file and accompanying files is based on work by
// Moe Wheatley, AE4Y, released under the "Simplified BSD License".
// For more details see the accompanying file LICENSE_WHEATLEY.TXT
///////////////////////////////////////////////////////////////////////////
#ifndef PLOTTER_H
#define PLOTTER_H
#ifdef QT5
#include <QtWidgets>
#else
#include <QtGui>
#endif
#include <QFrame>
#include <QImage>
#include <QVector>
#include <cstring>
#define VERT_DIVS 7 //specify grid screen divisions
#define HORZ_DIVS 20
extern bool g_single_decode;
class CPlotter : public QFrame
{
Q_OBJECT;
public:
explicit CPlotter(QWidget *parent = 0);
~CPlotter();
QSize minimumSizeHint() const;
QSize sizeHint() const;
bool m_bScaleOK;
void draw(float swide[], bool bScroll, bool bRed); //Update the waterfall
void SetRunningState(bool running);
void setPlotZero(int plotZero);
int plotZero();
void setPlotGain(int plotGain);
int plotGain();
int plot2dGain();
void setPlot2dGain(int n);
int plot2dZero();
void setPlot2dZero(int plot2dZero);
void setStartFreq(int f);
int startFreq();
int plotWidth();
void UpdateOverlay();
void setDataFromDisk(bool b);
void setRxRange(int fMin);
void setBinsPerPixel(int n);
int binsPerPixel();
void setWaterfallAvg(int n);
void setRxFreq(int n);
void DrawOverlay();
int rxFreq();
void setFsample(int n);
void setNsps(int ntrperiod, int nsps);
void setTxFreq(int n);
void setMode(QString mode);
void setSubMode(int n);
void setModeTx(QString modeTx);
void SetPercent2DScreen(int percent);
int Fmax();
void setDialFreq(double d);
void setCurrent(bool b) {m_bCurrent = b;}
bool current() const {return m_bCurrent;}
void setCumulative(bool b) {m_bCumulative = b;}
bool cumulative() const {return m_bCumulative;}
void setLinearAvg(bool b) {m_bLinearAvg = b;}
bool linearAvg() const {return m_bLinearAvg;}
void setBreadth(qint32 w) {m_w = w;}
qint32 breadth() const {return m_w;}
float fSpan() const {return m_fSpan;}
void setColours(QVector<QColor> const& cl);
void setFlatten(bool b1, bool b2);
void setTol(int n);
void setRxBand(QString band);
void setReference(bool b) {m_bReference = b;}
bool Reference() const {return m_bReference;}
void drawRed(int ia, int ib, float swide[]);
void setVHF(bool bVHF);
void setRedFile(QString fRed);
signals:
void freezeDecode1(int n);
void setFreq1(int rxFreq, int txFreq);
protected:
//re-implemented widget event handlers
void paintEvent(QPaintEvent *event);
void resizeEvent(QResizeEvent* event);
private:
void MakeFrequencyStrs();
int XfromFreq(float f);
float FreqfromX(int x);
bool m_bCurrent;
bool m_bCumulative;
bool m_bLinearAvg;
bool m_bReference;
bool m_bReference0;
bool m_bVHF;
float m_fSpan;
qint32 m_plotZero;
qint32 m_plotGain;
qint32 m_plot2dGain;
qint32 m_plot2dZero;
qint32 m_binsPerPixel;
qint32 m_waterfallAvg;
qint32 m_w;
qint32 m_Flatten;
qint32 m_nSubMode;
qint32 m_ia;
qint32 m_ib;
QPixmap m_WaterfallPixmap;
QPixmap m_2DPixmap;
QPixmap m_ScalePixmap;
QPixmap m_OverlayPixmap;
QSize m_Size;
QString m_Str;
QString m_HDivText[483];
QString m_mode;
QString m_modeTx;
QString m_rxBand;
QString m_redFile;
bool m_Running;
bool m_paintEventBusy;
bool m_dataFromDisk;
double m_fftBinWidth;
double m_dialFreq;
double m_xOffset;
float m_sum[2048];
qint32 m_dBStepSize;
qint32 m_FreqUnits;
qint32 m_hdivs;
qint32 m_line;
qint32 m_fSample;
qint32 m_xClick;
qint32 m_freqPerDiv;
qint32 m_nsps;
qint32 m_Percent2DScreen;
qint32 m_Percent2DScreen0;
qint32 m_h;
qint32 m_h1;
qint32 m_h2;
qint32 m_TRperiod;
qint32 m_rxFreq;
qint32 m_txFreq;
qint32 m_fMin;
qint32 m_fMax;
qint32 m_startFreq;
qint32 m_tol;
char m_sutc[6];
private slots:
void mousePressEvent(QMouseEvent *event);
void mouseDoubleClickEvent(QMouseEvent *event);
};
extern QVector<QColor> g_ColorTbl;
extern "C" {
void flat4_(float swide[], int* iz, int* nflatten);
}
#endif // PLOTTER_H
@@ -0,0 +1,144 @@
// Boost.Units - A C++ library for zero-overhead dimensional analysis and
// unit/quantity manipulation and conversion
//
// Copyright (C) 2003-2008 Matthias Christian Schabel
// Copyright (C) 2008 Steven Watanabe
//
// Distributed under the Boost Software License, Version 1.0. (See
// accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
#ifndef BOOST_UNITS_SCALED_BASE_UNIT_HPP_INCLUDED
#define BOOST_UNITS_SCALED_BASE_UNIT_HPP_INCLUDED
#include <string>
#include <boost/mpl/bool.hpp>
#include <boost/mpl/less.hpp>
#include <boost/type_traits/is_same.hpp>
#include <boost/units/config.hpp>
#include <boost/units/dimension.hpp>
#include <boost/units/static_rational.hpp>
#include <boost/units/units_fwd.hpp>
namespace boost {
namespace units {
template<class T>
struct heterogeneous_system;
template<class T, class D, class Scale>
struct heterogeneous_system_impl;
template<class T, class E>
struct heterogeneous_system_dim;
template<class T>
struct base_unit_info;
/// INTERNAL ONLY
struct scaled_base_unit_tag {};
template<class S, class Scale>
struct scaled_base_unit
{
/// INTERNAL ONLY
typedef void boost_units_is_base_unit_type;
typedef scaled_base_unit type;
typedef scaled_base_unit_tag tag;
typedef S system_type;
typedef Scale scale_type;
typedef typename S::dimension_type dimension_type;
#ifdef BOOST_UNITS_DOXYGEN
typedef detail::unspecified unit_type;
#else
typedef unit<
dimension_type,
heterogeneous_system<
heterogeneous_system_impl<
list<
heterogeneous_system_dim<scaled_base_unit,static_rational<1> >,
dimensionless_type
>,
dimension_type,
dimensionless_type
>
>
> unit_type;
#endif
static std::string symbol()
{
return(Scale::symbol() + base_unit_info<S>::symbol());
}
static std::string name()
{
return(Scale::name() + base_unit_info<S>::name());
}
};
} // namespace units
} // namespace boost
#if BOOST_UNITS_HAS_BOOST_TYPEOF
#include BOOST_TYPEOF_INCREMENT_REGISTRATION_GROUP()
BOOST_TYPEOF_REGISTER_TEMPLATE(boost::units::scaled_base_unit, (class)(class))
#endif
namespace boost {
#ifndef BOOST_UNITS_DOXYGEN
namespace mpl {
/// INTERNAL ONLY
template<class Tag>
struct less_impl<boost::units::scaled_base_unit_tag, Tag>
{
template<class T0, class T1>
struct apply : mpl::bool_<
mpl::less<typename T0::system_type, T1>::value ||
(boost::is_same<typename T0::system_type, T1>::value && ((T0::scale_type::exponent::Numerator) < 0)) > {};
};
/// INTERNAL ONLY
template<class Tag>
struct less_impl<Tag, boost::units::scaled_base_unit_tag>
{
template<class T0, class T1>
struct apply : mpl::bool_<
mpl::less<T0, typename T1::system_type>::value ||
(boost::is_same<T0, typename T1::system_type>::value && ((T1::scale_type::exponent::Numerator) > 0)) > {};
};
/// INTERNAL ONLY
template<>
struct less_impl<boost::units::scaled_base_unit_tag, boost::units::scaled_base_unit_tag>
{
template<class T0, class T1>
struct apply : mpl::bool_<
mpl::less<typename T0::system_type, typename T1::system_type>::value ||
((boost::is_same<typename T0::system_type, typename T1::system_type>::value) &&
((T0::scale_type::base) < (T1::scale_type::base) ||
((T0::scale_type::base) == (T1::scale_type::base) &&
mpl::less<typename T0::scale_type::exponent, typename T1::scale_type::exponent>::value))) > {};
};
} // namespace mpl
#endif
} // namespace boost
#endif
@@ -0,0 +1,45 @@
subroutine fil6521(c1,n1,c2,n2)
! FIR lowpass filter designed using ScopeFIR
! Pass #1 Pass #2
! -----------------------------------------------
! fsample (Hz) 1378.125 Input sample rate
! Ntaps 21 Number of filter taps
! fc (Hz) 40 Cutoff frequency
! fstop (Hz) 172.266 Lower limit of stopband
! Ripple (dB) 0.1 Ripple in passband
! Stop Atten (dB) 38 Stopband attenuation
! fout (Hz) 344.531 Output sample rate
parameter (NTAPS=21)
parameter (NH=NTAPS/2)
parameter (NDOWN=4) !Downsample ratio = 1/4
complex c1(n1)
complex c2(n1/NDOWN)
! Filter coefficients:
real a(-NH:NH+NTAPS/3)
data a/ &
-0.011958606980,-0.013888627387,-0.015601306443,-0.010602249570, &
0.003804023436, 0.028320058273, 0.060903935217, 0.096841904411, &
0.129639871228, 0.152644580853, 0.160917511283, 0.152644580853, &
0.129639871228, 0.096841904411, 0.060903935217, 0.028320058273, &
0.003804023436,-0.010602249570,-0.015601306443,-0.013888627387, &
-0.011958606980,1.43370769e-019,2.64031087e-006,6.25548654e+028, &
2.44565251e+020,4.74227538e+030,10497312.0e0000,7.74079654e-039/
n2=(n1-NTAPS+NDOWN)/NDOWN
k0=NH-NDOWN+1
! Loop over all output samples
do i=1,n2
c2(i)=0.
k=k0 + NDOWN*i
do j=-NH,NH
c2(i)=c2(i) + c1(j+k)*a(j)
enddo
enddo
return
end subroutine fil6521
@@ -0,0 +1,192 @@
//---------------------------------------------------------------------------//
// Copyright (c) 2013 Kyle Lutz <kyle.r.lutz@gmail.com>
//
// Distributed under the Boost Software License, Version 1.0
// See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt
//
// See http://boostorg.github.com/compute for more information.
//---------------------------------------------------------------------------//
#ifndef BOOST_COMPUTE_ITERATOR_PERMUTATION_ITERATOR_HPP
#define BOOST_COMPUTE_ITERATOR_PERMUTATION_ITERATOR_HPP
#include <string>
#include <cstddef>
#include <iterator>
#include <boost/config.hpp>
#include <boost/iterator/iterator_adaptor.hpp>
#include <boost/compute/functional.hpp>
#include <boost/compute/detail/meta_kernel.hpp>
#include <boost/compute/detail/is_buffer_iterator.hpp>
#include <boost/compute/detail/read_write_single_value.hpp>
#include <boost/compute/iterator/detail/get_base_iterator_buffer.hpp>
#include <boost/compute/type_traits/is_device_iterator.hpp>
namespace boost {
namespace compute {
// forward declaration for transform_iterator
template<class ElementIterator, class IndexIterator>
class permutation_iterator;
namespace detail {
// helper class which defines the iterator_adaptor super-class
// type for permutation_iterator
template<class ElementIterator, class IndexIterator>
class permutation_iterator_base
{
public:
typedef ::boost::iterator_adaptor<
::boost::compute::permutation_iterator<ElementIterator, IndexIterator>,
ElementIterator
> type;
};
template<class ElementIterator, class IndexIterator, class IndexExpr>
struct permutation_iterator_access_expr
{
typedef typename std::iterator_traits<ElementIterator>::value_type result_type;
permutation_iterator_access_expr(const ElementIterator &e,
const IndexIterator &i,
const IndexExpr &expr)
: m_element_iter(e),
m_index_iter(i),
m_expr(expr)
{
}
ElementIterator m_element_iter;
IndexIterator m_index_iter;
IndexExpr m_expr;
};
template<class ElementIterator, class IndexIterator, class IndexExpr>
inline meta_kernel& operator<<(meta_kernel &kernel,
const permutation_iterator_access_expr<ElementIterator,
IndexIterator,
IndexExpr> &expr)
{
return kernel << expr.m_element_iter[expr.m_index_iter[expr.m_expr]];
}
} // end detail namespace
/// \class permutation_iterator
/// \brief The permutation_iterator class provides a permuation iterator
///
/// A permutation iterator iterates over a value range and an index range. When
/// dereferenced, it returns the value from the value range using the current
/// index from the index range.
///
/// For example, to reverse a range using the copy() algorithm and a permutation
/// sequence:
///
/// \snippet test/test_permutation_iterator.cpp reverse_range
///
/// \see make_permutation_iterator()
template<class ElementIterator, class IndexIterator>
class permutation_iterator
: public detail::permutation_iterator_base<ElementIterator,
IndexIterator>::type
{
public:
typedef typename
detail::permutation_iterator_base<ElementIterator,
IndexIterator>::type super_type;
typedef typename super_type::value_type value_type;
typedef typename super_type::reference reference;
typedef typename super_type::base_type base_type;
typedef typename super_type::difference_type difference_type;
typedef IndexIterator index_iterator;
permutation_iterator(ElementIterator e, IndexIterator i)
: super_type(e),
m_map(i)
{
}
permutation_iterator(const permutation_iterator<ElementIterator,
IndexIterator> &other)
: super_type(other),
m_map(other.m_map)
{
}
permutation_iterator<ElementIterator, IndexIterator>&
operator=(const permutation_iterator<ElementIterator,
IndexIterator> &other)
{
if(this != &other){
super_type::operator=(other);
m_map = other.m_map;
}
return *this;
}
~permutation_iterator()
{
}
size_t get_index() const
{
return super_type::base().get_index();
}
const buffer& get_buffer() const
{
return detail::get_base_iterator_buffer(*this);
}
template<class IndexExpr>
detail::permutation_iterator_access_expr<ElementIterator,
IndexIterator,
IndexExpr>
operator[](const IndexExpr &expr) const
{
return detail::permutation_iterator_access_expr<ElementIterator,
IndexIterator,
IndexExpr>(super_type::base(),
m_map,
expr);
}
private:
friend class ::boost::iterator_core_access;
reference dereference() const
{
return reference();
}
private:
IndexIterator m_map;
};
/// Returns a permutation_iterator for \p e using indices from \p i.
///
/// \param e the element range iterator
/// \param i the index range iterator
///
/// \return a \c permutation_iterator for \p e using \p i
template<class ElementIterator, class IndexIterator>
inline permutation_iterator<ElementIterator, IndexIterator>
make_permutation_iterator(ElementIterator e, IndexIterator i)
{
return permutation_iterator<ElementIterator, IndexIterator>(e, i);
}
/// \internal_ (is_device_iterator specialization for permutation_iterator)
template<class ElementIterator, class IndexIterator>
struct is_device_iterator<
permutation_iterator<ElementIterator, IndexIterator> > : boost::true_type {};
} // end compute namespace
} // end boost namespace
#endif // BOOST_COMPUTE_ITERATOR_PERMUTATION_ITERATOR_HPP
@@ -0,0 +1,39 @@
#ifndef BOOST_MPL_POP_BACK_HPP_INCLUDED
#define BOOST_MPL_POP_BACK_HPP_INCLUDED
// Copyright Aleksey Gurtovoy 2000-2004
//
// Distributed under the Boost Software License, Version 1.0.
// (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
//
// See http://www.boost.org/libs/mpl for documentation.
// $Id$
// $Date$
// $Revision$
#include <boost/mpl/pop_back_fwd.hpp>
#include <boost/mpl/aux_/pop_back_impl.hpp>
#include <boost/mpl/sequence_tag.hpp>
#include <boost/mpl/aux_/na_spec.hpp>
#include <boost/mpl/aux_/lambda_support.hpp>
namespace boost { namespace mpl {
template<
typename BOOST_MPL_AUX_NA_PARAM(Sequence)
>
struct pop_back
: pop_back_impl< typename sequence_tag<Sequence>::type >
::template apply< Sequence >
{
BOOST_MPL_AUX_LAMBDA_SUPPORT(1,pop_back,(Sequence))
};
BOOST_MPL_AUX_NA_SPEC(1, pop_back)
}}
#endif // BOOST_MPL_POP_BACK_HPP_INCLUDED
@@ -0,0 +1,197 @@
program msk144sd
!
! A simple decoder for slow msk144.
! Can be used as a (slow) brute-force multi-decoder by looping
! over a set of carrier frequencies.
!
use options
use timer_module, only: timer
use timer_impl, only: init_timer
use readwav
parameter (NRECENT=10)
parameter (NSPM=864)
parameter (NPATTERNS=4)
character ch
character*80 line
character*500 infile
character*12 mycall,hiscall
character*6 mygrid
character(len=500) optarg
character*22 msgreceived
character*12 recent_calls(NRECENT)
complex cdat(30*375)
complex c(NSPM)
complex ct(NSPM)
real softbits(144)
real xmc(NPATTERNS)
logical :: display_help=.false.
type(wav_header) :: wav
integer iavmask(8)
integer iavpatterns(8,NPATTERNS)
integer npkloc(10)
integer*2 id2(30*12000)
integer*2 ichunk(7*1024)
data iavpatterns/ &
1,1,1,1,0,0,0,0, &
0,1,1,1,1,0,0,0, &
0,0,1,1,1,1,0,0, &
1,1,1,1,1,1,0,0/
data xmc/2.0,4.5,2.5,3.0/
type (option) :: long_options(2) = [ &
option ('frequency',.true.,'f','rxfreq',''), &
option ('help',.false.,'h','Display this help message','') &
]
t0=0.0
ntol=100
nrxfreq=1500
do
call getopt('f:h',long_options,ch,optarg,narglen,nstat,noffset,nremain,.true.)
if( nstat .ne. 0 ) then
exit
end if
select case (ch)
case ('f')
read (optarg(:narglen), *) nrxfreq
case ('h')
display_help = .true.
end select
end do
if(display_help .or. nstat.lt.0 .or. nremain.lt.1) then
print *, ''
print *, 'Usage: msk144sd [OPTIONS] file1 [file2 ...]'
print *, ''
print *, ' decode pre-recorded .WAV file(s)'
print *, ''
print *, 'OPTIONS:'
do i = 1, size (long_options)
call long_options(i) % print (6)
end do
go to 999
endif
call init_timer ('timer.out')
call timer('msk144 ',0)
ndecoded=0
do ifile=noffset+1,noffset+nremain
call get_command_argument(ifile,optarg,narglen)
infile=optarg(:narglen)
call timer('read ',0)
call wav%read (infile)
i1=index(infile,'.wav')
if( i1 .eq. 0 ) i1=index(infile,'.WAV')
read(infile(i1-6:i1-1),*,err=998) nutc
inquire(FILE=infile,SIZE=isize)
npts=min((isize-216)/2,360000)
read(unit=wav%lun) id2(1:npts)
close(unit=wav%lun)
call timer('read ',1)
! do if=1,89 ! brute force multi-decoder
fo=nrxfreq
! fo=(if-1)*25.0+300.0
call msksddc(id2,npts,fo,cdat)
np=npts/32
ntol=200 ! actual ntol is ntol/32=6.25 Hz. Detection window is 12.5 Hz wide
fc=1500.0
call msk144spd(cdat,np,ntol,ndecodesuccess,msgreceived,fc,fest,tdec,navg,ct, &
softbits,recent_calls,nrecent)
nsnr=0 ! need an snr estimate
if( ndecodesuccess .eq. 1 ) then
fest=fo+fest-fc ! fudging because spd thinks input signal is at 1500 Hz
goto 900
endif
! If short ping decoder doesn't find a decode
npat=NPATTERNS
do iavg=1,npat
iavmask=iavpatterns(1:8,iavg)
navg=sum(iavmask)
deltaf=4.0/real(navg) ! search increment for frequency sync
npeaks=4
ntol=200
fc=1500.0
call msk144sync(cdat(1:6*NSPM),6,ntol,deltaf,iavmask,npeaks,fc, &
fest,npkloc,nsyncsuccess,xmax,c)
if( nsyncsuccess .eq. 0 ) cycle
do ipk=1,npeaks
do is=1,3
ic0=npkloc(ipk)
if(is.eq.2) ic0=max(1,ic0-1)
if(is.eq.3) ic0=min(NSPM,ic0+1)
ct=cshift(c,ic0-1)
call msk144decodeframe(ct,softbits,msgreceived,ndecodesuccess, &
recent_calls,nrecent)
if(ndecodesuccess .gt. 0) then
tdec=tsec+xmc(iavg)*tframe
fest=fo+(fest-fc)/32.0
goto 900
endif
enddo !Slicer dither
enddo !Peak loop
enddo
! enddo
900 continue
if( ndecodesuccess .gt. 0 ) then
write(*,1020) nutc,nsnr,tdec,nint(fest),' % ',msgreceived,navg
1020 format(i6.6,i4,f5.1,i5,a3,a22,i4)
endif
enddo
call timer('msk144 ',1)
call timer('msk144 ',101)
go to 999
998 print*,'Cannot read from file:'
print*,infile
999 continue
end program msk144sd
subroutine msksddc(id2,npts,fc,cdat)
! The msk144 detector/demodulator/decoder will decode signals
! with carrier frequency, fc, in the range fN/4 +/- 0.03333*fN.
!
! For slow MSK144 with nslow=32:
! fs=12000/32=375 Hz, fN=187.5 Hz
!
! This routine accepts input samples with fs=12000 Hz. It
! downconverts and decimates by 32 to center a signal with input carrier
! frequency fc at new carrier frequency 1500/32=46.875 Hz.
! The analytic signal is returned.
parameter (NFFT1=30*12000,NFFT2=30*375)
integer*2 id2(npts)
complex cx(0:NFFT1)
complex cdat(30*375)
dt=1.0/12000.0
df=1.0/(NFFT1*dt)
icenter=int(fc/df+0.5)
i46p875=int(46.875/df+0.5)
ishift=icenter-i46p875
cx=cmplx(0.0,0.0)
cx(1:npts)=id2
call four2a(cx,NFFT1,1,-1,1)
cx=cshift(cx,ishift)
cx(1)=0.5*cx(1)
cx(2*i46p875+1:)=cmplx(0.0,0.0)
call four2a(cx,NFFT2,1,1,1)
cdat(1:npts/32)=cx(0:npts/32-1)/NFFT1
return
end subroutine msksddc
@@ -0,0 +1,34 @@
// chrono_io
//
// (C) Copyright Howard Hinnant
// (C) Copyright 2010-2011 Vicente J. Botet Escriba
// Use, modification and distribution are subject to the Boost Software License,
// Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt).
//
// This code was adapted by Vicente from Howard Hinnant's experimental work
// on chrono i/o under lvm/libc++ to Boost
#ifndef BOOST_CHRONO_CHRONO_IO_HPP
#define BOOST_CHRONO_CHRONO_IO_HPP
#include <boost/chrono/config.hpp>
//#if BOOST_CHRONO_VERSION == 2
//#include <boost/chrono/io/time_point_io.hpp>
//#include <boost/chrono/io/duration_io.hpp>
//#elif BOOST_CHRONO_VERSION == 1
//#include <boost/chrono/io_v1/chrono_io.hpp>
//#endif
#if defined BOOST_CHRONO_DONT_PROVIDES_DEPRECATED_IO_SINCE_V2_0_0
#include <boost/chrono/io/time_point_io.hpp>
#include <boost/chrono/io/duration_io.hpp>
#else
#include <boost/chrono/io_v1/chrono_io.hpp>
#endif
#include <boost/chrono/io/utility/to_string.hpp>
#endif // BOOST_CHRONO_CHRONO_IO_HPP
@@ -0,0 +1,354 @@
// boost process_cpu_clocks.cpp -----------------------------------------------------------//
// Copyright Beman Dawes 1994, 2006, 2008
// Copyright Vicente J. Botet Escriba 2009
// Distributed under the Boost Software License, Version 1.0.
// See http://www.boost.org/LICENSE_1_0.txt
// See http://www.boost.org/libs/chrono for documentation.
//--------------------------------------------------------------------------------------//
#include <boost/chrono/config.hpp>
#include <boost/chrono/process_cpu_clocks.hpp>
#include <boost/assert.hpp>
#include <sys/times.h>
#include <unistd.h>
#include <time.h> // for clock_gettime
namespace boost { namespace chrono {
namespace chrono_detail
{
inline nanoseconds::rep tick_factor() // multiplier to convert ticks
// to nanoseconds; -1 if unknown
{
long factor = 0;
if ( !factor )
{
if ( (factor = ::sysconf( _SC_CLK_TCK )) <= 0 )
factor = -1;
else
{
BOOST_ASSERT( factor <= 1000000000l ); // doesn't handle large ticks
factor = 1000000000l / factor; // compute factor
if ( !factor ) factor = -1;
}
}
return factor;
}
}
process_real_cpu_clock::time_point process_real_cpu_clock::now() BOOST_NOEXCEPT
{
tms tm;
clock_t c = ::times( &tm );
if ( c == clock_t(-1) ) // error
{
BOOST_ASSERT(0 && "Boost::Chrono - Internal Error");
}
else
{
if ( chrono_detail::tick_factor() != -1 )
{
return time_point(
nanoseconds(c*chrono_detail::tick_factor()));
}
else
{
BOOST_ASSERT(0 && "Boost::Chrono - Internal Error");
}
}
return time_point();
}
#if !defined BOOST_CHRONO_DONT_PROVIDE_HYBRID_ERROR_HANDLING
process_real_cpu_clock::time_point process_real_cpu_clock::now(
system::error_code & ec)
{
tms tm;
clock_t c = ::times( &tm );
if ( c == clock_t(-1) ) // error
{
if (BOOST_CHRONO_IS_THROWS(ec))
{
boost::throw_exception(
system::system_error(
errno,
BOOST_CHRONO_SYSTEM_CATEGORY,
"chrono::process_real_cpu_clock" ));
}
else
{
ec.assign( errno, BOOST_CHRONO_SYSTEM_CATEGORY );
return time_point();
}
}
else
{
if ( chrono_detail::tick_factor() != -1 )
{
if (!BOOST_CHRONO_IS_THROWS(ec))
{
ec.clear();
}
return time_point(
nanoseconds(c*chrono_detail::tick_factor()));
}
else
{
if (BOOST_CHRONO_IS_THROWS(ec))
{
boost::throw_exception(
system::system_error(
errno,
BOOST_CHRONO_SYSTEM_CATEGORY,
"chrono::process_real_cpu_clock" ));
}
else
{
ec.assign( errno, BOOST_CHRONO_SYSTEM_CATEGORY );
return time_point();
}
}
}
}
#endif
process_user_cpu_clock::time_point process_user_cpu_clock::now() BOOST_NOEXCEPT
{
tms tm;
clock_t c = ::times( &tm );
if ( c == clock_t(-1) ) // error
{
BOOST_ASSERT(0 && "Boost::Chrono - Internal Error");
}
else
{
if ( chrono_detail::tick_factor() != -1 )
{
return time_point(
nanoseconds((tm.tms_utime + tm.tms_cutime)*chrono_detail::tick_factor()));
}
else
{
BOOST_ASSERT(0 && "Boost::Chrono - Internal Error");
}
}
return time_point();
}
#if !defined BOOST_CHRONO_DONT_PROVIDE_HYBRID_ERROR_HANDLING
process_user_cpu_clock::time_point process_user_cpu_clock::now(
system::error_code & ec)
{
tms tm;
clock_t c = ::times( &tm );
if ( c == clock_t(-1) ) // error
{
if (BOOST_CHRONO_IS_THROWS(ec))
{
boost::throw_exception(
system::system_error(
errno,
BOOST_CHRONO_SYSTEM_CATEGORY,
"chrono::process_user_cpu_clock" ));
}
else
{
ec.assign( errno, BOOST_CHRONO_SYSTEM_CATEGORY );
return time_point();
}
}
else
{
if ( chrono_detail::tick_factor() != -1 )
{
if (!BOOST_CHRONO_IS_THROWS(ec))
{
ec.clear();
}
return time_point(
nanoseconds((tm.tms_utime + tm.tms_cutime)*chrono_detail::tick_factor()));
}
else
{
if (BOOST_CHRONO_IS_THROWS(ec))
{
boost::throw_exception(
system::system_error(
errno,
BOOST_CHRONO_SYSTEM_CATEGORY,
"chrono::process_user_cpu_clock" ));
}
else
{
ec.assign( errno, BOOST_CHRONO_SYSTEM_CATEGORY );
return time_point();
}
}
}
}
#endif
process_system_cpu_clock::time_point process_system_cpu_clock::now() BOOST_NOEXCEPT
{
tms tm;
clock_t c = ::times( &tm );
if ( c == clock_t(-1) ) // error
{
BOOST_ASSERT(0 && "Boost::Chrono - Internal Error");
return time_point();
}
else
{
if ( chrono_detail::tick_factor() != -1 )
{
return time_point(
nanoseconds((tm.tms_stime + tm.tms_cstime)*chrono_detail::tick_factor()));
}
else
{
BOOST_ASSERT(0 && "Boost::Chrono - Internal Error");
return time_point();
}
}
}
#if !defined BOOST_CHRONO_DONT_PROVIDE_HYBRID_ERROR_HANDLING
process_system_cpu_clock::time_point process_system_cpu_clock::now(
system::error_code & ec)
{
tms tm;
clock_t c = ::times( &tm );
if ( c == clock_t(-1) ) // error
{
if (BOOST_CHRONO_IS_THROWS(ec))
{
boost::throw_exception(
system::system_error(
errno,
BOOST_CHRONO_SYSTEM_CATEGORY,
"chrono::process_system_cpu_clock" ));
}
else
{
ec.assign( errno, BOOST_CHRONO_SYSTEM_CATEGORY );
return time_point();
}
}
else
{
if ( chrono_detail::tick_factor() != -1 )
{
if (!BOOST_CHRONO_IS_THROWS(ec))
{
ec.clear();
}
return time_point(
nanoseconds((tm.tms_stime + tm.tms_cstime)*chrono_detail::tick_factor()));
}
else
{
if (BOOST_CHRONO_IS_THROWS(ec))
{
boost::throw_exception(
system::system_error(
errno,
BOOST_CHRONO_SYSTEM_CATEGORY,
"chrono::process_system_cpu_clock" ));
}
else
{
ec.assign( errno, BOOST_CHRONO_SYSTEM_CATEGORY );
return time_point();
}
}
}
}
#endif
process_cpu_clock::time_point process_cpu_clock::now() BOOST_NOEXCEPT
{
tms tm;
clock_t c = ::times( &tm );
if ( c == clock_t(-1) ) // error
{
BOOST_ASSERT(0 && "Boost::Chrono - Internal Error");
}
else
{
nanoseconds::rep factor = chrono_detail::tick_factor();
if ( factor != -1 )
{
time_point::rep r(
c*factor,
(tm.tms_utime + tm.tms_cutime)*factor,
(tm.tms_stime + tm.tms_cstime)*factor);
return time_point(duration(r));
}
else
{
BOOST_ASSERT(0 && "Boost::Chrono - Internal Error");
}
}
return time_point();
}
#if !defined BOOST_CHRONO_DONT_PROVIDE_HYBRID_ERROR_HANDLING
process_cpu_clock::time_point process_cpu_clock::now(
system::error_code & ec )
{
tms tm;
clock_t c = ::times( &tm );
if ( c == clock_t(-1) ) // error
{
if (BOOST_CHRONO_IS_THROWS(ec))
{
boost::throw_exception(
system::system_error(
errno,
BOOST_CHRONO_SYSTEM_CATEGORY,
"chrono::process_clock" ));
}
else
{
ec.assign( errno, BOOST_CHRONO_SYSTEM_CATEGORY );
return time_point();
}
}
else
{
if ( chrono_detail::tick_factor() != -1 )
{
time_point::rep r(
c*chrono_detail::tick_factor(),
(tm.tms_utime + tm.tms_cutime)*chrono_detail::tick_factor(),
(tm.tms_stime + tm.tms_cstime)*chrono_detail::tick_factor());
return time_point(duration(r));
}
else
{
if (BOOST_CHRONO_IS_THROWS(ec))
{
boost::throw_exception(
system::system_error(
errno,
BOOST_CHRONO_SYSTEM_CATEGORY,
"chrono::process_clock" ));
}
else
{
ec.assign( errno, BOOST_CHRONO_SYSTEM_CATEGORY );
return time_point();
}
}
}
}
#endif
} }
@@ -0,0 +1,29 @@
#ifndef DATE_TIME_PARSE_FORMAT_BASE__
#define DATE_TIME_PARSE_FORMAT_BASE__
/* Copyright (c) 2002,2003 CrystalClear Software, Inc.
* Use, modification and distribution is subject to the
* Boost Software License, Version 1.0. (See accompanying
* file LICENSE_1_0.txt or http://www.boost.org/LICENSE_1_0.txt)
* Author: Jeff Garland
* $Date$
*/
namespace boost {
namespace date_time {
//! Enum for distinguishing parsing and formatting options
enum month_format_spec {month_as_integer, month_as_short_string,
month_as_long_string};
//! Enum for distinguishing the order of Month, Day, & Year.
/*! Enum for distinguishing the order in which Month, Day, & Year
* will appear in a date string */
enum ymd_order_spec {ymd_order_iso, //order is year-month-day
ymd_order_dmy, //day-month-year
ymd_order_us}; //order is month-day-year
} }//namespace date_time
#endif
@@ -0,0 +1,278 @@
#include "astro.h"
#include <stdio.h>
#include <QApplication>
#include <QFile>
#include <QTextStream>
#include <QSettings>
#include <QDateTime>
#include <QDir>
#include <QDebug>
#include "commons.h"
#include "MessageBox.hpp"
#include "Configuration.hpp"
#include "SettingsGroup.hpp"
#include "qt_helpers.hpp"
#include "ui_astro.h"
#include "moc_astro.cpp"
extern "C" {
void astrosub_(int* nyear, int* month, int* nday, double* uth, double* freqMoon,
const char* mygrid, const char* hisgrid, double* azsun,
double* elsun, double* azmoon, double* elmoon, double* azmoondx,
double* elmoondx, int* ntsky, int* ndop, int* ndop00,
double* ramoon, double* decmoon, double* dgrd, double* poloffset,
double* xnr, double* techo, double* width1, double* width2,
bool* bTx, const char* AzElFileName, const char* jpleph,
int len1, int len2, int len3, int len4);
}
Astro::Astro(QSettings * settings, Configuration const * configuration, QWidget * parent)
: QDialog {parent, Qt::WindowTitleHint}
, settings_ {settings}
, configuration_ {configuration}
, ui_ {new Ui::Astro}
, m_DopplerMethod {0}
{
ui_->setupUi (this);
setWindowTitle (QApplication::applicationName () + " - " + tr ("Astronomical Data"));
setStyleSheet ("QWidget {background: white;}");
connect (ui_->cbDopplerTracking, &QAbstractButton::toggled, ui_->doppler_widget, &QWidget::setVisible);
read_settings ();
ui_->text_label->clear ();
}
Astro::~Astro ()
{
ui_->cbDopplerTracking->setChecked (false);
Q_EMIT tracking_update ();
if (isVisible ()) write_settings ();
}
void Astro::closeEvent (QCloseEvent * e)
{
write_settings ();
QWidget::closeEvent (e);
}
void Astro::read_settings ()
{
SettingsGroup g (settings_, "Astro");
ui_->doppler_widget->setVisible (ui_->cbDopplerTracking->isChecked ());
m_DopplerMethod=settings_->value("DopplerMethod",0).toInt();
switch (m_DopplerMethod)
{
case 0: ui_->rbNoDoppler->setChecked (true); break;
case 1: ui_->rbFullTrack->setChecked (true); break;
case 2: ui_->rbConstFreqOnMoon->setChecked (true); break;
case 3: ui_->rbRxOnly->setChecked (true); break;
}
move (settings_->value ("window/pos", pos ()).toPoint ());
}
void Astro::write_settings ()
{
SettingsGroup g (settings_, "Astro");
//settings_->setValue ("DopplerTracking", ui_->cbDopplerTracking->isChecked ());
settings_->setValue ("DopplerMethod",m_DopplerMethod);
settings_->setValue ("window/pos", pos ());
}
auto Astro::astroUpdate(QDateTime const& t, QString const& mygrid, QString const& hisgrid, Frequency freq,
bool dx_is_self, bool bTx, bool no_tx_QSY, int TR_period) -> Correction
{
Frequency freq_moon {freq};
double azsun,elsun,azmoon,elmoon,azmoondx,elmoondx;
double ramoon,decmoon,dgrd,poloffset,xnr,techo,width1,width2;
int ntsky;
QString date {t.date().toString("yyyy MMM dd").trimmed ()};
QString utc {t.time().toString().trimmed ()};
int nyear {t.date().year()};
int month {t.date().month()};
int nday {t.date().day()};
int nhr {t.time().hour()};
int nmin {t.time().minute()};
double sec {t.time().second() + 0.001*t.time().msec()};
double uth {nhr + nmin/60.0 + sec/3600.0};
if(freq_moon < 1) freq_moon = 144000000;
int nfreq {static_cast<int> (freq_moon / 1000000u)};
double freq8 {static_cast<double> (freq_moon)};
auto const& AzElFileName = QDir::toNativeSeparators (configuration_->azel_directory ().absoluteFilePath ("azel.dat"));
auto const& jpleph = configuration_->data_dir ().absoluteFilePath ("JPLEPH");
int ndop;
int ndop00;
QString mygrid_padded {(mygrid + " ").left (6)};
QString hisgrid_padded {(hisgrid + " ").left (6)};
astrosub_(&nyear, &month, &nday, &uth, &freq8, mygrid_padded.toLatin1().constData(),
hisgrid_padded.toLatin1().constData(), &azsun, &elsun, &azmoon, &elmoon,
&azmoondx, &elmoondx, &ntsky, &ndop, &ndop00, &ramoon, &decmoon,
&dgrd, &poloffset, &xnr, &techo, &width1, &width2, &bTx,
AzElFileName.toLatin1().constData(), jpleph.toLatin1().constData(), 6, 6,
AzElFileName.length(), jpleph.length());
if(hisgrid_padded==" ") {
azmoondx=0.0;
elmoondx=0.0;
ndop=0;
width2=0.0;
}
QString message;
{
QTextStream out {&message};
out << " " << date << "\n"
"UTC: " << utc << "\n"
<< fixed
<< qSetFieldWidth (6)
<< qSetRealNumberPrecision (1)
<< "Az: " << azmoon << "\n"
"El: " << elmoon << "\n"
"SelfDop:" << ndop00 << "\n"
"Width: " << int(width1) << "\n"
<< qSetRealNumberPrecision (2)
<< "Delay: " << techo << "\n"
<< qSetRealNumberPrecision (1)
<< "DxAz: " << azmoondx << "\n"
"DxEl: " << elmoondx << "\n"
"DxDop: " << ndop << "\n"
"DxWid: " << int(width2) << "\n"
"Dec: " << decmoon << "\n"
"SunAz: " << azsun << "\n"
"SunEl: " << elsun << "\n"
"Freq: " << nfreq << "\n";
if(nfreq>=50) { //Suppress data not relevant below VHF
out << "Tsky: " << ntsky << "\n"
"Dpol: " << poloffset << "\n"
"MNR: " << xnr << "\n"
"Dgrd: " << dgrd;
}
}
ui_->text_label->setText(message);
Correction correction;
if (ui_->cbDopplerTracking->isChecked ()) {
switch (m_DopplerMethod)
{
case 1: // All Doppler correction done here; DX station stays at nominal dial frequency.
case 3: // Both stations do full correction on Rx and none on Tx
correction.rx = dx_is_self ? ndop00 : ndop;
break;
case 2:
// Doppler correction to constant frequency on Moon
correction.rx = ndop00 / 2;
break;
}
if (3 != m_DopplerMethod) correction.tx = -correction.rx;
if(dx_is_self && m_DopplerMethod == 1) correction.rx = 0;
if (no_tx_QSY && 3 != m_DopplerMethod && 0 != m_DopplerMethod)
{
// calculate a single correction for transmit half way through
// the period as a compromise for rigs that can't CAT QSY
// while transmitting
//
// use a base time of (secs-since-epoch + 2) so as to be sure
// we do the next period if we calculate just before it starts
auto sec_since_epoch = t.toMSecsSinceEpoch () / 1000 + 2;
auto target_sec = sec_since_epoch - sec_since_epoch % TR_period + TR_period / 2;
auto target_date_time = QDateTime::fromMSecsSinceEpoch (target_sec * 1000);
QString date {target_date_time.date().toString("yyyy MMM dd").trimmed ()};
QString utc {target_date_time.time().toString().trimmed ()};
int nyear {target_date_time.date().year()};
int month {target_date_time.date().month()};
int nday {target_date_time.date().day()};
int nhr {target_date_time.time().hour()};
int nmin {target_date_time.time().minute()};
double sec {target_date_time.time().second() + 0.001*target_date_time.time().msec()};
double uth {nhr + nmin/60.0 + sec/3600.0};
astrosub_(&nyear, &month, &nday, &uth, &freq8, mygrid_padded.toLatin1().constData(),
hisgrid_padded.toLatin1().constData(), &azsun, &elsun, &azmoon, &elmoon,
&azmoondx, &elmoondx, &ntsky, &ndop, &ndop00, &ramoon, &decmoon,
&dgrd, &poloffset, &xnr, &techo, &width1, &width2, &bTx,
"", jpleph.toLatin1().constData(), 6, 6,
0, jpleph.length());
FrequencyDelta offset {0};
switch (m_DopplerMethod)
{
case 1:
// All Doppler correction done here; DX station stays at nominal dial frequency.
offset = dx_is_self ? ndop00 : ndop;
break;
case 2:
// Doppler correction to constant frequency on Moon
offset = ndop00 / 2;
break;
}
correction.tx = -offset;
}
}
return correction;
}
void Astro::check_split ()
{
if (doppler_tracking () && !configuration_->split_mode ())
{
MessageBox::warning_message (this, tr ("Doppler Tracking Error"),
tr ("Split operating is required for Doppler tracking"),
tr ("Go to \"Menu->File->Settings->Radio\" to enable split operation"));
ui_->rbNoDoppler->click ();
}
}
void Astro::on_rbFullTrack_clicked()
{
m_DopplerMethod = 1;
check_split ();
Q_EMIT tracking_update ();
}
void Astro::on_rbRxOnly_clicked()
{
m_DopplerMethod = 3;
check_split ();
Q_EMIT tracking_update ();
}
void Astro::on_rbConstFreqOnMoon_clicked()
{
m_DopplerMethod = 2;
check_split ();
Q_EMIT tracking_update ();
}
void Astro::on_rbNoDoppler_clicked()
{
m_DopplerMethod = 0;
Q_EMIT tracking_update ();
}
bool Astro::doppler_tracking () const
{
return ui_->cbDopplerTracking->isChecked () && m_DopplerMethod;
}
void Astro::on_cbDopplerTracking_toggled(bool)
{
check_split ();
Q_EMIT tracking_update ();
}
void Astro::nominal_frequency (Frequency rx, Frequency tx)
{
ui_->sked_frequency_label->setText (Radio::pretty_frequency_MHz_string (rx));
ui_->sked_tx_frequency_label->setText (Radio::pretty_frequency_MHz_string (tx));
}
void Astro::hideEvent (QHideEvent * e)
{
Q_EMIT tracking_update ();
QWidget::hideEvent (e);
}
@@ -0,0 +1,93 @@
/*=============================================================================
Copyright (c) 1998-2003 Joel de Guzman
Copyright (c) 2001 Daniel Nuffer
Copyright (c) 2002 Hartmut Kaiser
http://spirit.sourceforge.net/
Use, modification and distribution is subject to the Boost Software
License, Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
http://www.boost.org/LICENSE_1_0.txt)
=============================================================================*/
#if !defined(BOOST_SPIRIT_LIST_IPP)
#define BOOST_SPIRIT_LIST_IPP
namespace boost { namespace spirit {
BOOST_SPIRIT_CLASSIC_NAMESPACE_BEGIN
///////////////////////////////////////////////////////////////////////////
//
// operator% is defined as:
// a % b ---> a >> *(b >> a)
//
///////////////////////////////////////////////////////////////////////////
template <typename A, typename B>
inline sequence<A, kleene_star<sequence<B, A> > >
operator%(parser<A> const& a, parser<B> const& b)
{
return a.derived() >> *(b.derived() >> a.derived());
}
template <typename A>
inline sequence<A, kleene_star<sequence<chlit<char>, A> > >
operator%(parser<A> const& a, char b)
{
return a.derived() >> *(b >> a.derived());
}
template <typename B>
inline sequence<chlit<char>, kleene_star<sequence<B, chlit<char> > > >
operator%(char a, parser<B> const& b)
{
return a >> *(b.derived() >> a);
}
template <typename A>
inline sequence<A, kleene_star<sequence<strlit<char const*>, A> > >
operator%(parser<A> const& a, char const* b)
{
return a.derived() >> *(b >> a.derived());
}
template <typename B>
inline sequence<strlit<char const*>,
kleene_star<sequence<B, strlit<char const*> > > >
operator%(char const* a, parser<B> const& b)
{
return a >> *(b.derived() >> a);
}
template <typename A>
inline sequence<A, kleene_star<sequence<chlit<wchar_t>, A> > >
operator%(parser<A> const& a, wchar_t b)
{
return a.derived() >> *(b >> a.derived());
}
template <typename B>
inline sequence<chlit<wchar_t>, kleene_star<sequence<B, chlit<wchar_t> > > >
operator%(wchar_t a, parser<B> const& b)
{
return a >> *(b.derived() >> a);
}
template <typename A>
inline sequence<A, kleene_star<sequence<strlit<wchar_t const*>, A> > >
operator%(parser<A> const& a, wchar_t const* b)
{
return a.derived() >> *(b >> a.derived());
}
template <typename B>
inline sequence<strlit<wchar_t const*>,
kleene_star<sequence<B, strlit<wchar_t const*> > > >
operator%(wchar_t const* a, parser<B> const& b)
{
return a >> *(b.derived() >> a);
}
BOOST_SPIRIT_CLASSIC_NAMESPACE_END
}} // namespace boost::spirit
#endif
@@ -0,0 +1,43 @@
#ifndef BOOST_MPL_LIST_LIST10_HPP_INCLUDED
#define BOOST_MPL_LIST_LIST10_HPP_INCLUDED
// Copyright Aleksey Gurtovoy 2000-2004
//
// Distributed under the Boost Software License, Version 1.0.
// (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt)
//
// See http://www.boost.org/libs/mpl for documentation.
// $Id$
// $Date$
// $Revision$
#if !defined(BOOST_MPL_PREPROCESSING_MODE)
# include <boost/mpl/list/list0.hpp>
#endif
#include <boost/mpl/aux_/config/use_preprocessed.hpp>
#if !defined(BOOST_MPL_CFG_NO_PREPROCESSED_HEADERS) \
&& !defined(BOOST_MPL_PREPROCESSING_MODE)
# define BOOST_MPL_PREPROCESSED_HEADER list10.hpp
# include <boost/mpl/list/aux_/include_preprocessed.hpp>
#else
# include <boost/preprocessor/iterate.hpp>
namespace boost { namespace mpl {
# define BOOST_PP_ITERATION_PARAMS_1 \
(3,(1, 10, <boost/mpl/list/aux_/numbered.hpp>))
# include BOOST_PP_ITERATE()
}}
#endif // BOOST_MPL_CFG_NO_PREPROCESSED_HEADERS
#endif // BOOST_MPL_LIST_LIST10_HPP_INCLUDED
@@ -0,0 +1,40 @@
//---------------------------------------------------------------------------//
// Copyright (c) 2013 Kyle Lutz <kyle.r.lutz@gmail.com>
//
// Distributed under the Boost Software License, Version 1.0
// See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt
//
// See http://boostorg.github.com/compute for more information.
//---------------------------------------------------------------------------//
#ifndef BOOST_COMPUTE_ALGORITHM_ANY_OF_HPP
#define BOOST_COMPUTE_ALGORITHM_ANY_OF_HPP
#include <boost/compute/system.hpp>
#include <boost/compute/algorithm/find_if.hpp>
namespace boost {
namespace compute {
/// Returns \c true if \p predicate returns \c true for any of the elements in
/// the range [\p first, \p last).
///
/// For example, to test if a vector contains any negative values:
///
/// \snippet test/test_any_all_none_of.cpp any_of
///
/// \see all_of(), none_of()
template<class InputIterator, class UnaryPredicate>
inline bool any_of(InputIterator first,
InputIterator last,
UnaryPredicate predicate,
command_queue &queue = system::default_queue())
{
return ::boost::compute::find_if(first, last, predicate, queue) != last;
}
} // end compute namespace
} // end boost namespace
#endif // BOOST_COMPUTE_ALGORITHM_ANY_OF_HPP
@@ -0,0 +1,49 @@
// (C) Copyright 2009-2011 Frederic Bron.
//
// Use, modification and distribution are subject to the Boost Software License,
// Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at
// http://www.boost.org/LICENSE_1_0.txt).
//
// See http://www.boost.org/libs/type_traits for most recent version including documentation.
#ifndef BOOST_TT_HAS_LEFT_SHIFT_HPP_INCLUDED
#define BOOST_TT_HAS_LEFT_SHIFT_HPP_INCLUDED
#define BOOST_TT_TRAIT_NAME has_left_shift
#define BOOST_TT_TRAIT_OP <<
#define BOOST_TT_FORBIDDEN_IF\
(\
/* Lhs==fundamental and Rhs==fundamental and (Lhs!=integral or Rhs!=integral) */\
(\
::boost::is_fundamental< Lhs_nocv >::value && \
::boost::is_fundamental< Rhs_nocv >::value && \
( \
(! ::boost::is_integral< Lhs_noref >::value ) || \
(! ::boost::is_integral< Rhs_noref >::value )\
)\
)||\
/* Lhs==fundamental and Rhs==pointer */\
(\
::boost::is_fundamental< Lhs_nocv >::value && \
::boost::is_pointer< Rhs_noref >::value\
)||\
/* Rhs==fundamental and Lhs==pointer */\
(\
::boost::is_fundamental< Rhs_nocv >::value && \
::boost::is_pointer< Lhs_noref >::value\
)||\
/* Lhs==pointer and Rhs==pointer */\
(\
::boost::is_pointer< Lhs_noref >::value && \
::boost::is_pointer< Rhs_noref >::value\
)\
)
#include <boost/type_traits/detail/has_binary_operator.hpp>
#undef BOOST_TT_TRAIT_NAME
#undef BOOST_TT_TRAIT_OP
#undef BOOST_TT_FORBIDDEN_IF
#endif
@@ -0,0 +1,40 @@
/*=============================================================================
Copyright (c) 2001-2011 Joel de Guzman
Distributed under the Boost Software License, Version 1.0. (See accompanying
file LICENSE_1_0.txt or copy at http://www.boost.org/LICENSE_1_0.txt)
==============================================================================*/
#if !defined(FUSION_POP_BACK_10022005_1801)
#define FUSION_POP_BACK_10022005_1801
#include <boost/fusion/support/config.hpp>
#include <boost/mpl/pop_back.hpp>
#include <boost/fusion/support/tag_of.hpp>
#include <boost/fusion/algorithm/transformation/pop_back.hpp>
#include <boost/fusion/sequence/convert.hpp>
namespace boost { namespace mpl
{
template <typename Tag>
struct pop_back_impl;
template <>
struct pop_back_impl<fusion::fusion_sequence_tag>
{
template <typename Sequence>
struct apply
{
typedef typename
fusion::result_of::pop_back<Sequence>::type
result;
typedef typename
fusion::result_of::convert<
typename fusion::detail::tag_of<Sequence>::type, result>::type
type;
};
};
}}
#endif
@@ -0,0 +1,66 @@
/*=============================================================================
Copyright (c) 1999-2003 Jaakko Jarvi
Copyright (c) 2001-2011 Joel de Guzman
Distributed under the Boost Software License, Version 1.0. (See accompanying
file LICENSE_1_0.txt or copy at http://www.boost.org/LICENSE_1_0.txt)
==============================================================================*/
#if !defined(FUSION_NOT_EQUAL_TO_05052005_1141)
#define FUSION_NOT_EQUAL_TO_05052005_1141
#include <boost/fusion/support/config.hpp>
#include <boost/mpl/bool.hpp>
#include <boost/fusion/iterator/deref.hpp>
#include <boost/fusion/iterator/next.hpp>
#include <boost/fusion/iterator/equal_to.hpp>
#include <boost/fusion/support/as_const.hpp>
namespace boost { namespace fusion { namespace detail
{
template <typename Seq1, typename Seq2, bool same_size>
struct sequence_not_equal_to
{
typedef typename result_of::end<Seq1>::type end1_type;
typedef typename result_of::end<Seq2>::type end2_type;
template <typename I1, typename I2>
BOOST_CONSTEXPR BOOST_FUSION_GPU_ENABLED
static bool
call(I1 const&, I2 const&, mpl::true_)
{
return false;
}
template <typename I1, typename I2>
BOOST_CONSTEXPR BOOST_FUSION_GPU_ENABLED
static bool
call(I1 const& a, I2 const& b, mpl::false_)
{
return extension::as_const(*a) != extension::as_const(*b)
|| call(fusion::next(a), fusion::next(b));
}
template <typename I1, typename I2>
BOOST_CONSTEXPR BOOST_FUSION_GPU_ENABLED
static bool
call(I1 const& a, I2 const& b)
{
typename result_of::equal_to<I1, end1_type>::type eq;
return call(a, b, eq);
}
};
template <typename Seq1, typename Seq2>
struct sequence_not_equal_to<Seq1, Seq2, false>
{
template <typename I1, typename I2>
BOOST_CONSTEXPR BOOST_FUSION_GPU_ENABLED
static bool
call(I1 const& a, I2 const& b)
{
return true;
}
};
}}}
#endif