void UI_Mainwindow::adjdial_timer_handler()
{
char str[512];
adjdial_timer->stop();
adjDialLabel->setStyleSheet(def_stylesh);
adjDialLabel->setStyleSheet("font: 7pt;");
adjDialLabel->setText("");
if(adjDialFunc == ADJ_DIAL_FUNC_HOLDOFF)
{
strcpy(str, "Trigger holdoff: ");
convert_to_metric_suffix(str + strlen(str), devparms.triggerholdoff, 2);
strcat(str, "s");
statusLabel->setText(str);
sprintf(str, ":TRIG:HOLD %e", devparms.triggerholdoff);
set_cue_cmd(str);
if(devparms.modelserie == 6)
{
usleep(20000);
set_cue_cmd(":CLE");
}
}
else if(adjDialFunc == ADJ_DIAL_FUNC_ACQ_AVG)
{
sprintf(str, "Acquire averages: %i", devparms.acquireaverages);
statusLabel->setText(str);
sprintf(str, ":ACQ:AVER %i", devparms.acquireaverages);
set_cue_cmd(str);
}
adjDialFunc = ADJ_DIAL_FUNC_NONE;
if(navDial_timer->isActive() == false)
{
navDialFunc = NAV_DIAL_FUNC_NONE;
}
}
void UI_FreqSpectrumWindow::thr_finished_func()
{
char str[1024];
if(spectrumdialog_is_destroyed)
{
return;
}
if(malloc_err)
{
QApplication::restoreOverrideCursor();
QMessageBox messagewindow(QMessageBox::Critical, "Error", "The system was not able to provide enough resources (memory) to perform the requested action.");
messagewindow.exec();
curve1->clear();
busy = 0;
return;
}
strcpy(str, "FFT resolution: ");
convert_to_metric_suffix(str + strlen(str), freqstep, 3);
remove_trailing_zeros(str);
sprintf(str + strlen(str), "Hz %i blocks of %i samples", dftblocks, dftblocksize);
curve1->setUpperLabel1(str);
curve1->setUpperLabel2(signallabel);
sliderMoved(0);
curve1->setUpdatesEnabled(true);
busy = 0;
QApplication::restoreOverrideCursor();
}
void UI_FreqSpectrumWindow::sliderMoved(int)
{
long long startstep,
stopstep,
spanstep;
double max_freq,
start_freq;
char str[1024];
if(VlogCheckBox->checkState() == Qt::Checked)
{
mainwindow->spectrum_vlog = 1;
log_minslider->setVisible(true);
}
else
{
mainwindow->spectrum_vlog = 0;
log_minslider->setVisible(false);
}
if(sqrtCheckBox->checkState() == Qt::Checked)
{
mainwindow->spectrum_sqrt = 1;
sprintf(str, "Amplitude Spectrum %s", signallabel);
SpectrumDialog->setWindowTitle(str);
if(mainwindow->spectrum_vlog)
{
sprintf(str, "log10(%s)", physdimension);
curve1->setV_label(str);
}
else
{
curve1->setV_label(physdimension);
}
}
else
{
mainwindow->spectrum_sqrt = 0;
sprintf(str, "Power Spectral Density %s", signallabel);
SpectrumDialog->setWindowTitle(str);
if(mainwindow->spectrum_vlog)
{
sprintf(str, "log10((%s)^2/Hz)", physdimension);
}
else
{
sprintf(str, "(%s)^2/Hz", physdimension);
}
curve1->setV_label(str);
}
if(BWCheckBox->isChecked() == true)
{
curve1->setSignalColor(Qt::black);
curve1->setBackgroundColor(Qt::white);
curve1->setRasterColor(Qt::black);
curve1->setMarker1Color(Qt::black);
curve1->setBorderColor(Qt::white);
curve1->setTextColor(Qt::black);
curve1->setCrosshairColor(Qt::black);
mainwindow->spectrum_bw = 1;
}
else
{
curve1->setSignalColor(Qt::green);
curve1->setBackgroundColor(Qt::black);
curve1->setRasterColor(Qt::gray);
curve1->setMarker1Color(Qt::yellow);
curve1->setBorderColor(Qt::lightGray);
curve1->setTextColor(Qt::black);
curve1->setCrosshairColor(Qt::red);
mainwindow->spectrum_bw = 0;
}
spanstep = (long long)spanSlider->value() * (long long)steps / 1000LL;
startstep = (long long)centerSlider->value() * ((long long)steps - spanstep) / 1000LL;
stopstep = startstep + spanstep;
if(mainwindow->spectrum_sqrt)
{
if(mainwindow->spectrum_vlog)
{
curve1->drawCurve(buf5 + startstep, stopstep - startstep, (maxvalue_sqrt_vlog * ((double)flywheel_value / 1000.0) * (double)amplitudeSlider->value()) / 1000.0, minvalue_sqrt_vlog * (double)log_minslider->value() / 1000.0);
}
else
{
curve1->drawCurve(buf3 + startstep, stopstep - startstep, (maxvalue_sqrt * ((double)flywheel_value / 1000.0) * (double)amplitudeSlider->value()) / 1000.0, 0.0);
}
}
else
{
if(mainwindow->spectrum_vlog)
{
curve1->drawCurve(buf4 + startstep, stopstep - startstep, (maxvalue_vlog * ((double)flywheel_value / 1000.0) * (double)amplitudeSlider->value()) / 1000.0, minvalue_vlog * (double)log_minslider->value() / 1000.0);
}
else
{
curve1->drawCurve(buf2 + startstep, stopstep - startstep, (maxvalue * ((double)flywheel_value / 1000.0) * (double)amplitudeSlider->value()) / 1000.0, 0.0);
}
}
max_freq = ((double)samplefreq / 2.0) * stopstep / steps;
start_freq = ((double)samplefreq / 2.0) * startstep / steps;
// printf("steps: %i\n"
// "startstep: %lli\n"
// "stopstep: %lli\n"
// "spanstep: %lli\n"
// "samplefreq: %f\n"
// "max_freq: %f\n"
// "start_freq: %f\n",
// steps,
// startstep,
// stopstep,
// spanstep,
// samplefreq,
// max_freq,
// start_freq);
curve1->setH_RulerValues(start_freq, max_freq);
strcpy(str, "Center ");
convert_to_metric_suffix(str + strlen(str), start_freq + ((max_freq - start_freq) / 2.0), 3);
remove_trailing_zeros(str);
strcat(str, "Hz");
centerLabel->setText(str);
strcpy(str, "Span ");
convert_to_metric_suffix(str + strlen(str), max_freq - start_freq, 3);
remove_trailing_zeros(str);
strcat(str, "Hz");
spanLabel->setText(str);
}
