public FrequencyResponseTest(
Transceiver transceiver,
double startFrequency = 995E6,
double stopFrequency = 1.005E9,
int steps = 60,
double sgPowerLevel = -10,
double saReferenceLevel = 0,
double bandwidth = 1E6, //10E3,
double dwellTime = 1E-3,
double deskew = 0,
string triggerLine = "PXI_Trig0",
double timeout = 10)
{
this.transceiver = transceiver;
this.startFrequency = startFrequency;
this.stopFrequency = stopFrequency;
this.steps = steps;
this.sgPowerLevel = sgPowerLevel;
this.saReferenceLevel = saReferenceLevel;
this.bandwidth = bandwidth;
this.dwellTime = dwellTime;
this.deskew = deskew;
this.triggerLine = triggerLine;
this.timeout = new PrecisionTimeSpan(timeout);
transceiver.Initialize(); // initializing the hardware ahead of time can dramatically speed up execution of the caller
}
public NoiseFloorTest(
Transceiver transceiver,
string band,
string waveformName,
ComplexWaveform <ComplexDouble> waveform,
double txStartFrequency = 1920E6,
double txStopFrequency = 1980E6,
double rxStartFrequency = 2110E6,
double rxStopFrequency = 2170E6,
double frequencyStep = 1E6,
int numberOfRuns = 1,
string referenceTriggerLine = "PXI_Trig0",
double sgPowerLevel = -10,
double saReferenceLevel = 10,
double vbw = 10000,
bool preSoakSweep = false,
double soakFrequency = 1955E6,
double soakTime = 0,
double dwellTime = 1E-3,
double idleTime = 300E-6,
double referenceTriggerDelay = 15E-6,
double timeout = 10)
{
this.transceiver = transceiver;
this.band = band;
this.waveformName = waveformName;
this.waveform = waveform;
this.txStartFrequency = txStartFrequency;
this.txStopFrequency = txStopFrequency;
this.rxStartFrequency = rxStartFrequency;
this.rxStopFrequency = rxStopFrequency;
this.frequencyStep = frequencyStep;
this.numberOfRuns = numberOfRuns;
this.referenceTriggerLine = referenceTriggerLine;
this.sgPowerLevel = sgPowerLevel;
this.saReferenceLevel = saReferenceLevel;
this.vbw = vbw;
this.preSoakSweep = preSoakSweep;
this.soakFrequency = soakFrequency;
this.soakTime = soakTime;
this.dwellTime = dwellTime;
this.idleTime = idleTime;
this.referenceTriggerDelay = referenceTriggerDelay;
this.timeout = new PrecisionTimeSpan(timeout);
ThreadPool.QueueUserWorkItem(o => LVFilters.Initialize()); // this is launched asynchronously and will never be waited on
transceiver.Initialize();
}
private static void Main(string[] args)
{
using (var communicationInterface = new UsbInterface("COM3"))
{
var logger = new ConsoleLogger();
var transceiver = new Transceiver(communicationInterface, logger);
var observable = transceiver.Receive();
observable.Subscribe(@event =>
{
if (!(@event is ErrorEvent))
{
logger.Info(@event.ToString());
}
else
{
logger.Error(@event.ToString());
}
});
observable.MessagesOf <ChimeMessage>().Subscribe(Handle);
observable.Connect();
transceiver.Initialize().Wait();
transceiver.SetMode(Protocol.ByronSx).Wait();
var soundMap = new Dictionary <ConsoleKey, ChimeSound>
{
{ ConsoleKey.D0, ChimeSound.BigBen },
{ ConsoleKey.D1, ChimeSound.Clarinet },
{ ConsoleKey.D2, ChimeSound.Solo },
{ ConsoleKey.D3, ChimeSound.Tubular2Notes },
{ ConsoleKey.D4, ChimeSound.Tubular3Notes },
{ ConsoleKey.D5, ChimeSound.TubularMix },
{ ConsoleKey.D6, ChimeSound.Saxophone },
{ ConsoleKey.D7, ChimeSound.MorningDew }
};
while (true)
{
foreach (var sound in soundMap)
{
Console.WriteLine("Press [{0}] for {1}", sound.Key.ToString().Replace("D", ""), sound.Value.Description);
}
Console.WriteLine("Press Q to quit");
var result = Console.ReadKey();
if (soundMap.ContainsKey(result.Key))
{
var sound = soundMap[result.Key];
logger.Info("Playing {0} ", sound);
transceiver.SendChime(ChimeSubType.ByronSx, sound).Wait();
}
else if ((result.KeyChar == 'Q' || result.KeyChar == 'q'))
{
Console.WriteLine("Quit");
break;
}
}
}
}
