public static void Test(AUTD autd)
{
const double x = AUTD.TransSpacing * (AUTD.NumTransInX - 1) / 2.0;
const double y = AUTD.TransSpacing * (AUTD.NumTransInY - 1) / 2.0;
const double z = 150.0;
var mod = Modulation.Sine(150);
var center = new Vector3d(x, y, z);
var focuses = new[] {
center + 20.0 * Vector3d.UnitX,
center - 20.0 * Vector3d.UnitX
};
var amps = new[] {
1.0,
1.0
};
var backend = Gain.Eigen3Backend();
var gain = Gain.HoloSDP(focuses, amps, backend);
autd.Send(gain, mod);
Gain.DeleteBackend(backend);
}
/// <summary>
/// Initialize a new instance of the TuningSpec class for a DVB cable frequency.
/// </summary>
/// <param name="frequency">The frequency to tune to.</param>
public TuningSpec(CableFrequency frequency)
{
this.frequency = frequency;
symbolRate = frequency.SymbolRate;
fec = frequency.FEC;
modulation = frequency.Modulation;
}
public void PlaySoundEffectEndTransmit(int transmitOnRadio, float volume, Modulation modulation)
{
if (!_globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.RadioTxEffects_End))
{
return;
}
bool midsTone = _globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.MIDSRadioEffect);
var _effectBuffer = _effectsOutputBuffer[transmitOnRadio];
if (modulation == Modulation.MIDS && midsTone)
{
_effectBuffer.VolumeSampleProvider.Volume = volume;
var effect = _cachedAudioEffectsProvider.MIDSEndTone;
if (effect.Loaded)
{
_effectBuffer.AddAudioSamples(
effect.AudioEffectBytes,
transmitOnRadio);
}
}
else
{
_effectBuffer.VolumeSampleProvider.Volume = volume;
var effect = _cachedAudioEffectsProvider.SelectedRadioTransmissionEndEffect;
if (effect.Loaded)
{
_effectBuffer.AddAudioSamples(
effect.AudioEffectBytes,
transmitOnRadio);
}
}
}
public void PlaySoundEffectEndTransmit(int transmitOnRadio, float volume, Modulation modulation)
{
if (!_globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.RadioTxEffects_End))
{
return;
}
bool midsTone = _globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.MIDSRadioEffect);
var _effectBuffer = _effectsOutputBuffer[transmitOnRadio];
if (modulation == Modulation.MIDS && midsTone)
{
_effectBuffer.VolumeSampleProvider.Volume = volume;
_effectBuffer.AddAudioSamples(
_cachedAudioEffects[(int)CachedAudioEffect.AudioEffectTypes.MIDS_TX_END].AudioEffectBytes,
transmitOnRadio);
}
else
{
_effectBuffer.VolumeSampleProvider.Volume = volume;
_effectBuffer.AddAudioSamples(
_cachedAudioEffects[(int)CachedAudioEffect.AudioEffectTypes.RADIO_RX].AudioEffectBytes,
transmitOnRadio);
}
}
public static void Test(AUTD autd)
{
const double x = AUTD.DeviceWidth / 2;
const double y = AUTD.DeviceHeight / 2;
const double z = 150;
var center = new Vector3d(x, y, z);
var g1 = Gain.FocalPoint(center);
var focuses = new[] {
center + 30.0 * Vector3d.UnitX,
center - 30.0 * Vector3d.UnitX
};
var amps = new[] {
1.0,
1.0
};
var backend = Gain.Eigen3Backend();
var g2 = Gain.HoloGSPAT(focuses, amps, backend);
var gainMap = new Dictionary <int, Gain>
{
[0] = g1,
[1] = g2
};
var gain = Gain.Grouped(autd, gainMap);
var mod = Modulation.Sine(150); // AM sin 150 Hz
autd.Send(gain, mod);
Gain.DeleteBackend(backend);
}
public static void Test(AUTD autd)
{
autd.SilentMode = false;
var delays = new byte[autd.NumDevices, AUTD.NumTransInDevice];
delays[0, 0] = 4;
autd.SetDelayOffset(delays, null);
var uniform = new ushort[autd.NumDevices, AUTD.NumTransInDevice];
for (var i = 0; i < autd.NumDevices; i++)
{
for (var j = 0; j < AUTD.NumTransInDevice; j++)
{
uniform[i, j] = 0xFFFF;
}
}
var burst = new byte[4000];
burst[0] = 0xFF;
var g = Gain.Custom(uniform);
var m = Modulation.Custom(burst);
autd.Send(g, m);
}
public static void Test(AUTD autd)
{
const double x = AUTD.DeviceWidth / 2;
const double y = AUTD.DeviceHeight / 2;
const double z = 150;
autd.SilentMode = false;
var mod = Modulation.Static();
autd.Send(mod);
var center = new Vector3d(x, y, z);
var seq = PointSequence.Create();
const int pointNum = 200;
for (var i = 0; i < pointNum; i++)
{
const double radius = 30.0;
var theta = 2.0 * Math.PI * i / pointNum;
var p = radius * new Vector3d(Math.Cos(theta), Math.Sin(theta), 0);
seq.AddPoint(center + p);
}
seq.Frequency = 1;
Console.WriteLine($"Actual frequency is {seq.Frequency}");
autd.Send(seq, mod);
}
public static void Test(AUTD autd)
{
const double x = AUTD.DeviceWidth / 2;
const double y = AUTD.DeviceHeight / 2;
const double z = 150.0;
autd.SilentMode = false;
var mod = Modulation.Static();
autd.Send(mod);
const double radius = 30.0;
const int size = 100;
var center = new Vector3d(x, y, z);
var stm = autd.STM();
for (var i = 0; i < size; i++)
{
var theta = 2 * AUTD.Pi * i / size;
var r = new Vector3d(Math.Cos(theta), Math.Sin(theta), 0);
var f = Gain.FocalPoint(center + radius * r);
stm.AddSTMGain(f);
}
stm.StartSTM(0.5);
Console.WriteLine("press any key to stop...");
Console.ReadKey(true);
stm.StopSTM();
stm.FinishSTM();
}
private void btnCreateSignal_Click(object sender, EventArgs e)
{
CheckSignalInputParams();
Signal temp = CreatePropriateSignal(_selectedSignalIndex);
if (_poligarmonicMode)
{
(temp as GarmonicSignal).Generate();
(_signal as PoligarmonicSignal).AddSignal(temp);
MessageBox.Show("Signal was added!");
return;
}
else if (_modulationMode)
{
Modulation modulation = new Modulation(((sender as Control).Tag as IModulationMethod).Modulate);
modulation((GarmonicSignal)_signal, (GarmonicSignal)temp);
(_signal as GarmonicSignal).Generate();
MessageBox.Show("Signal was modulated!");
return;
}
(temp as GarmonicSignal).Generate();
_signal = temp;
MessageBox.Show("Created!");
_signalWasCreated = true;
chckBoxModulationMode.Enabled = true;
}
/// <summary>
/// Initialize a new instance of the TuningSpec class for a Clear QAM frequency.
/// </summary>
/// <param name="frequency">The frequency to tune to.</param>
public TuningSpec(ClearQamFrequency frequency)
{
this.frequency = frequency;
symbolRate = frequency.SymbolRate;
fec = frequency.FEC;
modulation = frequency.Modulation;
channelNumber = frequency.ChannelNumber;
}
/// <summary>
/// Initialize a new instance of the TuningSpec class for a DVB satellite frequency.
/// </summary>
/// <param name="satellite">The satellite to tune to.</param>
/// <param name="frequency">The frequency to tune to.</param>
public TuningSpec(Satellite satellite, SatelliteFrequency frequency)
{
this.frequency = frequency;
this.satellite = satellite;
symbolRate = frequency.SymbolRate;
fec = frequency.FEC;
signalPolarization = frequency.Polarization;
modulation = frequency.Modulation;
}
/// <summary>
/// Initialize a new instance of the TuningSpec class for a DVB satellite frequency.
/// </summary>
/// <param name="satellite">The satellite to tune to.</param>
/// <param name="frequency">The frequency to tune to.</param>
public TuningSpec(Satellite satellite, SatelliteFrequency frequency)
{
this.frequency = frequency;
this.satellite = satellite;
symbolRate = frequency.SymbolRate;
fec = frequency.FEC;
signalPolarization = frequency.Polarization;
modulation = frequency.Modulation;
}
public static void Test(AUTD autd)
{
const double x = AUTD.DeviceWidth / 2;
const double y = AUTD.DeviceHeight / 2;
const double z = 150;
var mod = Modulation.Sine(150);
var gain = Focus(autd, new Vector3d(x, y, z));
autd.Send(gain, mod);
}
public static void Test(AUTD autd)
{
const double x = AUTD.DeviceWidth / 2;
const double y = AUTD.DeviceHeight / 2;
const double z = 150;
var mod = Modulation.Sine(150); // AM sin 150 Hz
var gain = Gain.FocalPoint(new Vector3d(x, y, z)); // Focal point @ (x, y, z) [mm]
autd.Send(gain, mod);
}
public static void Test(AUTD autd)
{
const double x = AUTD.DeviceWidth / 2;
const double y = AUTD.DeviceHeight / 2;
var mod = Modulation.Sine(150); // AM sin 150 Hz
var start = new Vector3d(x, y, 0);
var dir = Vector3d.UnitZ;
var gain = Gain.BesselBeam(start, dir, 13.0f / 180f * AUTD.Pi); // BesselBeam from (x, y, 0), theta = 13 deg
autd.Send(gain, mod);
}
void Awake()
{
_autd = new AUTD();
_autd.AddDevice(gameObject.transform.position, gameObject.transform.rotation);
string ifname = @"write your interface name here";
_link = Link.SOEM(ifname, _autd.NumDevices);
_autd.Open(_link);
_autd.Clear();
_autd.Send(Modulation.Sine(150)); // 150 Hz
}
static void Main(string[] args)
{
Data data1 = new Data(1, 2, 0, 0);
Data data2 = new Data(1, 50, 0, 0.9);
Signal signal1 = new SinusSignal(data1);
Signal signal2 = new ImpulseSignal(data2);
var values = Modulation.ApplyFM(signal1, signal2, SampleRate, Seconds);
SoundGenerator soundGenerator = new SoundGenerator(SampleRate, Seconds,
$"MS {signal1.GetType()} A {data1.Amplitude} F {data1.Frequency} phi0 {data1.StartPhase} D {data1.DutyFactor}. " +
$"CS {signal2.GetType()} A {data2.Amplitude} F {data2.Frequency} phi0 {data2.StartPhase} D {data2.DutyFactor}"
);
soundGenerator.Generate(values, true);
}
public double[] GetModulationSignal(Signal modulatorSignal,
Signal carrierSignal)
{
if (IS_AM)
{
#pragma warning disable CS0162 // Unreachable code detected
return(Modulation.ApplyAM(modulatorSignal,
carrierSignal, SAMPLE_RATE, SECONDS));
#pragma warning restore CS0162 // Unreachable code detected
}
else
{
#pragma warning disable CS0162 // Unreachable code detected
return(Modulation.ApplyFM(modulatorSignal,
carrierSignal, SAMPLE_RATE, SECONDS));
#pragma warning restore CS0162 // Unreachable code detected
}
}
public void PlaySoundEffectStartTransmit(int transmitOnRadio, bool encrypted, float volume, Modulation modulation)
{
if (!_globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.RadioTxEffects_Start))
{
return;
}
var _effectBuffer = _effectsOutputBuffer[transmitOnRadio];
bool midsTone = _globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.MIDSRadioEffect);
if (encrypted && (_globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.RadioEncryptionEffects)))
{
_effectBuffer.VolumeSampleProvider.Volume = volume;
_effectBuffer.AddAudioSamples(
_cachedAudioEffects[(int)CachedAudioEffect.AudioEffectTypes.KY_58_TX].AudioEffectBytes,
transmitOnRadio);
}
else if (modulation == Modulation.MIDS && midsTone)
{
_effectBuffer.VolumeSampleProvider.Volume = volume;
_effectBuffer.AddAudioSamples(
_cachedAudioEffects[(int)CachedAudioEffect.AudioEffectTypes.MIDS_TX].AudioEffectBytes,
transmitOnRadio);
}
else
{
_effectBuffer.VolumeSampleProvider.Volume = volume;
_effectBuffer.AddAudioSamples(
_cachedAudioEffects[(int)CachedAudioEffect.AudioEffectTypes.RADIO_TX].AudioEffectBytes,
transmitOnRadio);
}
}
public void Mode_Initialize(Modulation mode ,double DelayTime_in_ms)
{
try
{
if (mode == Modulation.TDSCDMA)
{
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Mod_Waveform_Name.TDSCDMA + "\",\"WFM1:" + Mod_Waveform_Name.TDSCDMA + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Mod_Waveform_Name.TDSCDMA + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:SLOP POS");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT RES");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:DEL " + DelayTime_in_ms + "ms");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:DEL:STAT OFF");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:DEL:STAT ON");
Wait();
}
}
catch (Exception e)
{
throw new Exception(e.Message);
}
}
/// <summary>
/// Ermittelt ein Kürzel für diese Gruppe.
/// </summary>
/// <returns>Das gewünschte Kürzel.</returns>
public override int GetHashCode()
{
// Merge all
return(Frequency.GetHashCode() ^ SymbolRate.GetHashCode() ^ SpectrumInversion.GetHashCode() ^ Bandwidth.GetHashCode() ^ Modulation.GetHashCode());
}
/// <summary>
/// Find a provider given the broadcast parameters.
/// </summary>
/// <param name="channelNumber">The channel number of the provider.</param>
/// <param name="frequency">The frequency of the provider.</param>
/// <param name="symbolRate">The symbol rate of the provider.</param>
/// <param name="fecRate">The FEC rate of the provider.</param>
/// <param name="modulation">The modulation of the provider.</param>
/// <returns>The provider or null if it cannot be located.</returns>
public static AtscProvider FindProvider(int channelNumber, int frequency, int symbolRate, FECRate fecRate, Modulation modulation)
{
if (fecRate == null)
{
throw (new ArgumentException("The FEC rate cannot be null", "fecRate"));
}
foreach (AtscProvider provider in Providers)
{
foreach (AtscFrequency atscFrequency in provider.Frequencies)
{
if (atscFrequency.ChannelNumber == channelNumber &&
atscFrequency.Frequency == frequency &&
atscFrequency.SymbolRate == symbolRate &&
atscFrequency.FEC.Rate == fecRate.Rate &&
atscFrequency.Modulation == modulation)
{
return(provider);
}
}
}
return(null);
}
public void Mod_Initialize(Modulation mode)
{
try
{
if (mode == Modulation.WCDMA)
{
#region --- WCDMA ---
_MXA_N9020A.Write(":INST WCDMA");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":SENS:RAD:STAN:DEV MS");
_MXA_N9020A.Write(":SENS:RAD:CONF:EHSP:STAT OFF");
_MXA_N9020A.Write(":SENS:RAD:CONF:HSDP:STAT OFF");
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 1920 MHz");
_MXA_N9020A.Write(":SENS:FREQ:CENT:STEP 5 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 20");
//_MXA_N9020A.Write("TRIG:SOUR EXT2"); //Set trigger to external 2
//_MXA_N9020A.Write("TRIG:EXT2:SLOP POS"); //Trigger polarity
//_MXA_N9020A.Write("TRIG:EXT2:DEL:STAT OFF"); //Trgger delay on
// ACP
_MXA_N9020A.Write(":CONF:ACP:NDEF");
_MXA_N9020A.Write(":SENS:ACP:AVER ON");
_MXA_N9020A.Write(":SENS:ACP:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:ACP:AVER:COUN 15");
//_MXA_N9020A.Write(":SENS:ACP:BAND 30 kHz");
//_MXA_N9020A.Write(":SENS:ACP:BAND:VID 30 kHz");
_MXA_N9020A.Write(":SENS:ACP:BAND:SHAP GAUS");
_MXA_N9020A.Write(":ACP:SWE:TIME 25 ms");
_MXA_N9020A.Write(":TRAC:ACP:TYPE AVER");
_MXA_N9020A.Write(":TRIG:ACP:SOUR IMM");
// EVM
_MXA_N9020A.Write(":CONF:RHO:NDEF");
_MXA_N9020A.Write(":SENS:RHO:AVER ON");
_MXA_N9020A.Write(":SENS:RHO:AVER:TCON REP");
//_MXA_N9020A.Write(":SENSRHO:CAPT:TIME 1.0");
_MXA_N9020A.Write(":SENS:RHO:AVER:COUN 2");
//_MXA_N9020A.Write(":SENS:RHO:SWE:POIN 2560");
_MXA_N9020A.Write(":CALC:RHO:LIM:RMS 5");
_MXA_N9020A.Write(":CALC:RHO:LIM:FERR 300");
_MXA_N9020A.Write(":SENS:RHO:FILT ON");
_MXA_N9020A.Write(":SENS:RHO:FILT:ALPH 0.22");
_MXA_N9020A.Write(":SENS:RHO:CRAT 3.84 MHz");
_MXA_N9020A.Write(":TRIG:RHO:SOUR IMM");
//_MXA_N9020A.Write(":SENS:RHO:BAND 6 MHz");
// Channel Power
_MXA_N9020A.Write(":CONF:CHP");
_MXA_N9020A.Write(":SENS:CHP:FREQ:SPAN 7.5 MHz");
_MXA_N9020A.Write(":SENS:CHP:AVER ON");
_MXA_N9020A.Write(":SENS:CHP:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:CHP:AVER:COUN 300");
_MXA_N9020A.Write(":SENS:CHP:BAND:INT 3.84MHz");
_MXA_N9020A.Write(":SENS:CHP:FILT OFF");
_MXA_N9020A.Write(":SENS:CHP:FILT:ALPH 0.22");
_MXA_N9020A.Write(":SENS:CHP:FILT:BAND 5MHz");
//_MXA_N9020A.Write(":SENS:CHP:BAND 30 kHz");
//_MXA_N9020A.Write(":SENS:CHP:BAND:VID 1 MHz");
_MXA_N9020A.Write(":SENS:CHP:BAND:SHAP GAUS");
_MXA_N9020A.Write(":CHP:SWE:TIME 1ms");
_MXA_N9020A.Write(":TRAC:CHP:TYPE AVER");
_MXA_N9020A.Write(":TRIG:CHP:SOUR IMM");
Wait();
#endregion --- WCDMA ---
}
else if (mode == Modulation.TDSCDMA)
{
#region --- TDSCDMA ---
//Display_Enable(true);
_MXA_N9020A.Write(":INST TDSCDMA");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":SENS:RAD:STAN:DEV MS");
_MXA_N9020A.Write(":SENS:SLOT TS0");
_MXA_N9020A.Write(":SENS:RAD:CONF:HSDP:STAT OFF");
_MXA_N9020A.Write(":TDEM:SCOD 0");
_MXA_N9020A.Write(":TDEM:UPTS 0");
_MXA_N9020A.Write(":TDEM:SYNC PIL"); // MID / TRI
_MXA_N9020A.Write(":TDEM:ULSP 1"); // Switch Point
_MXA_N9020A.Write(":TDEM:MXUS:TS0 16"); // Max User for slot, 16 is maxinum
_MXA_N9020A.Write(":TDEM:SREF MID"); // Slot freq ref PIL / MID
_MXA_N9020A.Write(":TDEM:CDCH:DET AUTO"); // Code channel dectection
//_MXA_N9020A.Write(":TDEM:MODS:AUTO ON"); // Mode Scheme
//_MXA_N9020A.Write(":TDEM:SCL 1"); // Channel configuration
_MXA_N9020A.Write(":TDEM:TREF UPTS"); // Timing Ref DPTS / UPTS / TRIG
_MXA_N9020A.Write(":TDEM:MCAR OFF"); // Multi-carrier demod
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 2025 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
_MXA_N9020A.Write(":SENS:FREQ:CENT:STEP 1.6 MHz");
_MXA_N9020A.Write(":TRIG:EXT2:SLOP POS"); //Trigger polarity
_MXA_N9020A.Write(":TRIG:EXT2:DEL:STAT ON"); //Trgger delay on
_MXA_N9020A.Write(":TRIG:EXT2:DEL 4.616ms"); //Trgger delay on
//EVM
_MXA_N9020A.Write(":CONF:EVM:NDEF");
_MXA_N9020A.Write(":SENS:EVM:AVER ON");
_MXA_N9020A.Write(":SENS:EVM:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:EVM:AVER:COUN 2");
_MXA_N9020A.Write(":CALC:EVM:LIM:RMS 5");
_MXA_N9020A.Write(":CALC:EVM:LIM:FERR 0.05");
_MXA_N9020A.Write(":SENS:EVM:RINT 1");
_MXA_N9020A.Write(":SENS:EVM:ANAL:SUBF 0");
_MXA_N9020A.Write(":TRIG:EVM:SOUR EXT1");
// Burst Power
_MXA_N9020A.Write(":CONF:TXP:NDEF");
_MXA_N9020A.Write("TXP:AVER:COUN 10");
_MXA_N9020A.Write("TXP:AVER ON");
_MXA_N9020A.Write("TXP:AVER:TCON REP");
_MXA_N9020A.Write("TXP:AVER:TYPE RMS"); // RMS / LOG
_MXA_N9020A.Write("TXP:METH THR"); // Meas method THReshold|BWIDth|SINGle
//_MXA_N9020A.Write("TXP:BURS:AUTO OFF");
//_MXA_N9020A.Write("TXP:BURS:WIDT 662.5us");
_MXA_N9020A.Write(":TRIG:TXP:SOUR EXT1");
// ACP
_MXA_N9020A.Write(":CONF:ACP:NDEF");
_MXA_N9020A.Write("ACP:BAND 75kHz"); //RBW
_MXA_N9020A.Write("ACP:BAND:VID 750kHz"); //VBW
_MXA_N9020A.Write("ACP:AVER ON");
_MXA_N9020A.Write("ACP:AVER:COUN 5");
_MXA_N9020A.Write("ACP:AVER:TCON REP");
_MXA_N9020A.Write("CALC:ACP:LIM:STAT OFF");
_MXA_N9020A.Write("ACP:SWE:TIME:AUTO ON");
_MXA_N9020A.Write("SWE:EGAT ON"); //Gate ON
_MXA_N9020A.Write("SWE:EGAT:VIEW OFF"); //Gate View OFF
_MXA_N9020A.Write("SWE:EGAT:DEL 4.616ms"); //Gate Delay 0ms
_MXA_N9020A.Write("SWE:EGAT:LENG 662.5us"); // Gate Length
_MXA_N9020A.Write("SWE:EGAT:SOUR EXT1");
_MXA_N9020A.Write("SWE:EGAT:CONT EDGE");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
Wait();
#endregion --- TDSCDMA ---
}
else if (mode == Modulation.EDGE)
{
#region --- EDGE ---
//Display_Enable(true);
_MXA_N9020A.Write(":INST EDGEGSM");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write("RAD:STAN:BAND EGSM"); // Band
_MXA_N9020A.Write("RAD:DEV MS"); // Device
_MXA_N9020A.Write("RAD:CARR CONT"); // BURSt|CONTinuous
_MXA_N9020A.Write("CHAN:SLOT 0"); // Demod Slot
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 915 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
_MXA_N9020A.Write(":TRIG:EXT2:SLOP POS"); //Trigger polarity
_MXA_N9020A.Write(":TRIG:EXT2:DEL:STAT ON"); //Trgger delay on
_MXA_N9020A.Write(":TRIG:EXT2:DEL 0us"); //Trgger delay on
//EVM
_MXA_N9020A.Write(":CONF:EEVM:NDEF");
_MXA_N9020A.Write(":SENS:EEVM:AVER ON");
_MXA_N9020A.Write(":SENS:EEVM:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:EEVM:AVER:COUN 10");
_MXA_N9020A.Write(":TRIG:EEVM:SOUR EXT2");
_MXA_N9020A.Write("EEVM:BSYNC:SOUR NONE"); // TSEQuence|RFBurst|PMODulation|NONE
// Burst Power
_MXA_N9020A.Write(":CONF:TXP:NDEF");
_MXA_N9020A.Write("TXP:BAND 510kHz"); // RBW
_MXA_N9020A.Write("TXP:AVER:COUN 5");
_MXA_N9020A.Write("TXP:AVER ON");
_MXA_N9020A.Write("TXP:AVER:TCON REP");
_MXA_N9020A.Write("TXP:AVER:TYPE RMS"); // RMS / LOG
_MXA_N9020A.Write("TXP:METH BWID"); // Meas method THReshold|BWIDth
_MXA_N9020A.Write("TXP:BURS:AUTO OFF");
_MXA_N9020A.Write("TXP:BURS:WIDT 1154us");
_MXA_N9020A.Write(":TRIG:TXP:SOUR EXT2");
// WaveForm Power
_MXA_N9020A.Write(":CONF:WAV:NDEF");
_MXA_N9020A.Write(":TRIG:WAV:SOUR EXT2");
//_MXA_N9020A.Write("WAV:SWE:TIME 562.5 us");
_MXA_N9020A.Write("WAV:SWE:TIME 1154 us");
_MXA_N9020A.Write("WAV:AVER:COUN 5");
_MXA_N9020A.Write("WAV:AVER ON");
_MXA_N9020A.Write("WAV:AVER:TCON REP");
_MXA_N9020A.Write("WAV:AVER:TYPE RMS");
// ORFS (ACP)
_MXA_N9020A.Write(":CONF:EORF:NDEF");
_MXA_N9020A.Write("EORF:AVER ON");
_MXA_N9020A.Write("EORF:AVER:COUN 15");
_MXA_N9020A.Write("EORF:TYPE MOD");
_MXA_N9020A.Write("EORF:AVER:FAST ON");
_MXA_N9020A.Write("EORF:AVER:MOD:TYPE RMS");
_MXA_N9020A.Write("EORF:CARR:PREF:TYPE REF");
_MXA_N9020A.Write("EORF:MEAS MULT"); // MULTiple|SINGle|SWEPt
_MXA_N9020A.Write("EORF:LIST:SEL SHOR"); // CUSTom|SHORt|STANdard
_MXA_N9020A.Write(":TRIG:EORF:SOUR EXT2");
Wait();
#endregion --- EDGE --- }
}
}
catch (Exception e)
{
throw new Exception(e.Message);
}
}
/// <summary>
/// Find a provider given the broadcast parameters.
/// </summary>
/// <param name="frequency">The frequency of the provider.</param>
/// <param name="symbolRate">The symbol rate of the provider.</param>
/// <param name="fecRate">The FEC rate of the provider.</param>
/// <param name="modulation">The modulation of the provider.</param>
/// <returns>The provider or null if it cannot be located.</returns>
public static CableProvider FindProvider(int frequency, int symbolRate, FECRate fecRate, Modulation modulation)
{
foreach (CableProvider provider in Providers)
{
foreach (CableFrequency cableFrequency in provider.Frequencies)
{
if (cableFrequency.Frequency == frequency &&
cableFrequency.SymbolRate == symbolRate &&
cableFrequency.FEC.Rate == fecRate.Rate &&
cableFrequency.Modulation == modulation)
{
return(provider);
}
}
}
return(null);
}
public static byte[] CreateFrame(Command cmd, byte[] data, Mode mode, Modulation modulation, bool FEC)
{
byte[] frame = null;
byte conf = 0x01;
byte[] tempData;
switch (cmd)
{
case Command.BIO_ResetRequest:
frame = ModemCommunication.MakeFrame(0x3C, null);
break;
case Command.MIB_WriteRequest:
if (mode.Equals(Mode.PHY))
{
frame = ModemCommunication.MakeFrame(0x08, new byte[] { 0x00, 0x10 });
}
else
{
frame = ModemCommunication.MakeFrame(0x08, new byte[] { 0x00, 0x11 });
}
break;
case Command.MIB_ReadRequest:
if (data.Length > 0)
{
frame = ModemCommunication.MakeFrame(0x0C, new byte[] { data[0] });
}
break;
case Command.MIB_EraseRequest:
if (data.Length > 0)
{
frame = ModemCommunication.MakeFrame(0x10, new byte[] { data[0] });
}
break;
case Command.PingRequest:
if (data.Length > 0)
{
frame = ModemCommunication.MakeFrame(0x2C, data);
}
break;
case Command.PHY_DataRequest:
if (modulation.Equals(Modulation.BPSK))
{
conf = 0x00;
}
else if (modulation.Equals(Modulation.QPSK))
{
conf <<= 4; // 0001 0000
}
else if (modulation.Equals(Modulation.EIGHT_PSK))
{
conf <<= 5; // 0010 0000
}
else
{
conf = 0x70; // 0111 0000
}
if (FEC)
{
conf |= 0x40; // 0100 0000
}
conf |= 0x04; // 0000 0100
tempData = new byte[data.Length + 1];
tempData[0] = conf;
for (int i = 0; i < data.Length; i++)
{
tempData[i + 1] = data[i];
}
if (data.Length > 0)
{
frame = ModemCommunication.MakeFrame(0x24, tempData);
}
break;
case Command.DL_DataRequest:
if (modulation.Equals(Modulation.BPSK))
{
conf = 0x00;
}
else if (modulation.Equals(Modulation.QPSK))
{
conf <<= 4; // 0001 0000
}
else if (modulation.Equals(Modulation.EIGHT_PSK))
{
conf <<= 5; // 0010 0000
}
else
{
conf = 0x70; // 0111 0000
}
if (FEC)
{
conf |= 0x40; // 0100 0000
}
conf |= 0x04; // 0000 0100
tempData = new byte[data.Length + 1];
tempData[0] = conf;
for (int i = 0; i < data.Length; i++)
{
tempData[i + 1] = data[i];
}
if (data.Length > 0)
{
frame = ModemCommunication.MakeFrame(0x50, tempData);
}
break;
}
return(frame);
}
internal void load(XmlReader reader)
{
switch (reader.Name)
{
case "CarrierFrequency":
Frequency = Int32.Parse(reader.ReadString());
break;
case "Polarisation":
switch (reader.ReadString())
{
case "CircularL":
polarization = new SignalPolarization(SignalPolarization.CircularLeft);
break;
case "CircularR":
polarization = new SignalPolarization(SignalPolarization.CircularRight);
break;
case "LinearH":
polarization = new SignalPolarization(SignalPolarization.LinearHorizontal);
break;
case "LinearV":
polarization = new SignalPolarization(SignalPolarization.LinearVertical);
break;
}
break;
case "SymbolRate":
symbolRate = Int32.Parse(reader.ReadString());
break;
case "InnerFecRate":
switch (reader.ReadString())
{
case "Rate1_2":
fec = new FECRate(FECRate.FECRate12);
break;
case "Rate1_3":
fec = new FECRate(FECRate.FECRate13);
break;
case "Rate1_4":
fec = new FECRate(FECRate.FECRate14);
break;
case "Rate2_3":
fec = new FECRate(FECRate.FECRate23);
break;
case "Rate2_5":
fec = new FECRate(FECRate.FECRate25);
break;
case "Rate3_4":
fec = new FECRate(FECRate.FECRate34);
break;
case "Rate3_5":
fec = new FECRate(FECRate.FECRate35);
break;
case "Rate4_5":
fec = new FECRate(FECRate.FECRate45);
break;
case "Rate5_11":
fec = new FECRate(FECRate.FECRate511);
break;
case "Rate5_6":
fec = new FECRate(FECRate.FECRate56);
break;
case "Rate6_7":
fec = new FECRate(FECRate.FECRate67);
break;
case "Rate7_8":
fec = new FECRate(FECRate.FECRate78);
break;
case "Rate8_9":
fec = new FECRate(FECRate.FECRate89);
break;
case "Rate9_10":
fec = new FECRate(FECRate.FECRate910);
break;
}
break;
case "CollectionType":
switch (reader.ReadString())
{
case "EIT":
CollectionType = CollectionType.EIT;
break;
case "MHEG5":
CollectionType = CollectionType.MHEG5;
break;
case "OPENTV":
CollectionType = CollectionType.OpenTV;
break;
case "MHW1":
CollectionType = CollectionType.MediaHighway1;
break;
case "MHW2":
CollectionType = CollectionType.MediaHighway2;
break;
case "FREESAT":
CollectionType = CollectionType.FreeSat;
break;
case "PSIP":
CollectionType = CollectionType.PSIP;
break;
case "DISHNETWORK":
CollectionType = CollectionType.DishNetwork;
break;
case "BELLTV":
CollectionType = CollectionType.BellTV;
break;
case "SIEHFERNINFO":
CollectionType = CollectionType.SiehfernInfo;
break;
}
break;
case "Pilot":
switch (reader.ReadString())
{
case "NotSet":
pilot = Pilot.NotSet;
break;
case "NotDefined":
pilot = Pilot.NotDefined;
break;
case "On":
pilot = Pilot.On;
break;
case "Off":
pilot = Pilot.Off;
break;
default:
pilot = Pilot.NotSet;
break;
}
break;
case "Rolloff":
switch (reader.ReadString())
{
case "NotSet":
rollOff = RollOff.NotSet;
break;
case "NotDefined":
rollOff = RollOff.NotDefined;
break;
case "Twenty":
rollOff = RollOff.RollOff20;
break;
case "TwentyFive":
rollOff = RollOff.RollOff25;
break;
case "ThirtyFive":
rollOff = RollOff.RollOff35;
break;
default:
rollOff = RollOff.NotSet;
break;
}
break;
case "Modulation":
switch (reader.ReadString())
{
case "ModBPSK":
modulation = Modulation.BPSK;
break;
case "ModOQPSK":
modulation = Modulation.OQPSK;
break;
case "Mod8Psk":
modulation = Modulation.PSK8;
break;
case "Mod1024Qam":
modulation = Modulation.QAM1024;
break;
case "Mod112Qam":
modulation = Modulation.QAM112;
break;
case "Mod128Qam":
modulation = Modulation.QAM128;
break;
case "Mod16Qam":
modulation = Modulation.QAM16;
break;
case "Mod160Qam":
modulation = Modulation.QAM160;
break;
case "Mod192Qam":
modulation = Modulation.QAM192;
break;
case "Mod224Qam":
modulation = Modulation.QAM224;
break;
case "Mod256Qam":
modulation = Modulation.QAM256;
break;
case "Mod32Qam":
modulation = Modulation.QAM32;
break;
case "Mod320Qam":
modulation = Modulation.QAM320;
break;
case "Mod384Qam":
modulation = Modulation.QAM384;
break;
case "Mod448Qam":
modulation = Modulation.QAM448;
break;
case "Mod512Qam":
modulation = Modulation.QAM512;
break;
case "Mod64Qam":
modulation = Modulation.QAM64;
break;
case "Mod640Qam":
modulation = Modulation.QAM640;
break;
case "Mod768Qam":
modulation = Modulation.QAM768;
break;
case "Mod80Qam":
modulation = Modulation.QAM80;
break;
case "Mod896Qam":
modulation = Modulation.QAM896;
break;
case "Mod96Qam":
modulation = Modulation.QAM96;
break;
case "ModQPSK":
modulation = Modulation.QPSK;
break;
}
break;
case "OpenTVCode":
OpenTVCode = reader.ReadString();
break;
default:
break;
}
}
public void PlaySoundEffectStartReceive(int transmitOnRadio, bool encrypted, float volume, Modulation modulation)
{
if (!_globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.RadioRxEffects_Start))
{
return;
}
bool midsTone = _globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.MIDSRadioEffect);
if (modulation == Modulation.MIDS && midsTone)
{
//no tone for MIDS
return;
}
var _effectsBuffer = _effectsOutputBuffer[transmitOnRadio];
if (encrypted && (_globalSettings.ProfileSettingsStore.GetClientSettingBool(ProfileSettingsKeys.RadioEncryptionEffects)))
{
_effectsBuffer.VolumeSampleProvider.Volume = volume;
var effect = _cachedAudioEffectsProvider.KY58EncryptionEndTone;
if (effect.Loaded)
{
_effectsBuffer.AddAudioSamples(
effect.AudioEffectBytes,
transmitOnRadio);
}
}
else
{
_effectsBuffer.VolumeSampleProvider.Volume = volume;
var effect = _cachedAudioEffectsProvider.SelectedRadioTransmissionStartEffect;
if (effect.Loaded)
{
_effectsBuffer.AddAudioSamples(
effect.AudioEffectBytes,
transmitOnRadio);
}
}
}
internal void load(XmlReader reader)
{
switch (reader.Name)
{
case "ChannelNumber":
ChannelNumber = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "Frequency":
Frequency = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "ModulationType":
switch (reader.ReadString())
{
case "ModBPSK":
modulation = Modulation.BPSK;
break;
case "ModOQPSK":
modulation = Modulation.OQPSK;
break;
case "ModPSK8":
modulation = Modulation.PSK8;
break;
case "Mod1024Qam":
modulation = Modulation.QAM1024;
break;
case "Mod112Qam":
modulation = Modulation.QAM112;
break;
case "Mod128Qam":
modulation = Modulation.QAM128;
break;
case "Mod16Qam":
modulation = Modulation.QAM16;
break;
case "Mod160Qam":
modulation = Modulation.QAM160;
break;
case "Mod192Qam":
modulation = Modulation.QAM192;
break;
case "Mod224Qam":
modulation = Modulation.QAM224;
break;
case "Mod256Qam":
modulation = Modulation.QAM256;
break;
case "Mod32Qam":
modulation = Modulation.QAM32;
break;
case "Mod320Qam":
modulation = Modulation.QAM320;
break;
case "Mod384Qam":
modulation = Modulation.QAM384;
break;
case "Mod448Qam":
modulation = Modulation.QAM448;
break;
case "Mod512Qam":
modulation = Modulation.QAM512;
break;
case "Mod64Qam":
modulation = Modulation.QAM64;
break;
case "Mod640Qam":
modulation = Modulation.QAM640;
break;
case "Mod768Qam":
modulation = Modulation.QAM768;
break;
case "Mod80Qam":
modulation = Modulation.QAM80;
break;
case "Mod896Qam":
modulation = Modulation.QAM896;
break;
case "Mod96Qam":
modulation = Modulation.QAM96;
break;
case "ModQPSK":
modulation = Modulation.QPSK;
break;
}
break;
case "SymbolRate":
symbolRate = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "CollectionType":
switch (reader.ReadString())
{
case "EIT":
CollectionType = CollectionType.EIT;
break;
case "MHEG5":
CollectionType = CollectionType.MHEG5;
break;
case "OPENTV":
CollectionType = CollectionType.OpenTV;
break;
case "MHW1":
CollectionType = CollectionType.MediaHighway1;
break;
case "MHW2":
CollectionType = CollectionType.MediaHighway2;
break;
case "FREESAT":
CollectionType = CollectionType.FreeSat;
break;
case "PSIP":
CollectionType = CollectionType.PSIP;
break;
case "DISHNETWORK":
CollectionType = CollectionType.DishNetwork;
break;
case "BELLTV":
CollectionType = CollectionType.BellTV;
break;
case "SIEHFERNINFO":
CollectionType = CollectionType.SiehfernInfo;
break;
}
break;
case "OpenTVCode":
OpenTVCode = reader.ReadString();
break;
default:
break;
}
}
/// <summary>
/// Find a provider given the broadcast parameters.
/// </summary>
/// <param name="frequency">The frequency of the provider.</param>
/// <param name="symbolRate">The symbol rate of the provider.</param>
/// <param name="fecRate">The FEC rate of the provider.</param>
/// <param name="modulation">The modulation of the provider.</param>
/// <returns>The provider or null if it cannot be located.</returns>
public static CableProvider FindProvider(int frequency, int symbolRate, FECRate fecRate, Modulation modulation)
{
foreach (CableProvider provider in Providers)
{
foreach (CableFrequency cableFrequency in provider.Frequencies)
{
if (cableFrequency.Frequency == frequency &&
cableFrequency.SymbolRate == symbolRate &&
cableFrequency.FEC.Rate == fecRate.Rate &&
cableFrequency.Modulation == modulation)
return (provider);
}
}
return (null);
}
/// <summary>
/// Ermittelt ein Kürzel für diese Gruppe.
/// </summary>
/// <returns>Das gewünschte Kürzel.</returns>
public override int GetHashCode()
{
// Core
int hash = (null == OrbitalPosition) ? 0 : OrbitalPosition.GetHashCode();
// Merge all
return(hash ^ Frequency.GetHashCode() ^ SymbolRate.GetHashCode() ^ Polarization.GetHashCode() ^ InnerFEC.GetHashCode() ^ UsesS2Modulation.GetHashCode() ^ Modulation.GetHashCode() ^ RollOff.GetHashCode() ^ IsWestPosition.GetHashCode());
}
internal void load(XmlReader reader)
{
switch (reader.Name)
{
case "ChannelNumber":
ChannelNumber = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "Frequency":
Frequency = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "ModulationType":
switch (reader.ReadString())
{
case "ModBPSK":
modulation = Modulation.BPSK;
break;
case "ModOQPSK":
modulation = Modulation.OQPSK;
break;
case "ModPSK8":
modulation = Modulation.PSK8;
break;
case "Mod1024Qam":
modulation = Modulation.QAM1024;
break;
case "Mod112Qam":
modulation = Modulation.QAM112;
break;
case "Mod128Qam":
modulation = Modulation.QAM128;
break;
case "Mod16Qam":
modulation = Modulation.QAM16;
break;
case "Mod160Qam":
modulation = Modulation.QAM160;
break;
case "Mod192Qam":
modulation = Modulation.QAM192;
break;
case "Mod224Qam":
modulation = Modulation.QAM224;
break;
case "Mod256Qam":
modulation = Modulation.QAM256;
break;
case "Mod32Qam":
modulation = Modulation.QAM32;
break;
case "Mod320Qam":
modulation = Modulation.QAM320;
break;
case "Mod384Qam":
modulation = Modulation.QAM384;
break;
case "Mod448Qam":
modulation = Modulation.QAM448;
break;
case "Mod512Qam":
modulation = Modulation.QAM512;
break;
case "Mod64Qam":
modulation = Modulation.QAM64;
break;
case "Mod640Qam":
modulation = Modulation.QAM640;
break;
case "Mod768Qam":
modulation = Modulation.QAM768;
break;
case "Mod80Qam":
modulation = Modulation.QAM80;
break;
case "Mod896Qam":
modulation = Modulation.QAM896;
break;
case "Mod96Qam":
modulation = Modulation.QAM96;
break;
case "ModQPSK":
modulation = Modulation.QPSK;
break;
}
break;
case "SymbolRate":
symbolRate = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "CollectionType":
switch (reader.ReadString())
{
case "EIT":
CollectionType = CollectionType.EIT;
break;
case "MHEG5":
CollectionType = CollectionType.MHEG5;
break;
case "OPENTV":
CollectionType = CollectionType.OpenTV;
break;
case "MHW1":
CollectionType = CollectionType.MediaHighway1;
break;
case "MHW2":
CollectionType = CollectionType.MediaHighway2;
break;
case "FREESAT":
CollectionType = CollectionType.FreeSat;
break;
case "PSIP":
CollectionType = CollectionType.PSIP;
break;
case "DISHNETWORK":
CollectionType = CollectionType.DishNetwork;
break;
case "BELLTV":
CollectionType = CollectionType.BellTV;
break;
case "SIEHFERNINFO":
CollectionType = CollectionType.SiehfernInfo;
break;
}
break;
case "OpenTVCode":
OpenTVCode = reader.ReadString();
break;
default:
break;
}
}
public void Mode_Initialize(Modulation mode)
{
try
{
if (mode == Modulation.WCDMA)
{
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Mod_Waveform_Name.WCDMA + "\",\"WFM1:" + Mod_Waveform_Name.WCDMA + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Mod_Waveform_Name.WCDMA + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT FREE");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
}
else if (mode == Modulation.TDSCDMA)
{
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Mod_Waveform_Name.TDSCDMA + "\",\"WFM1:" + Mod_Waveform_Name.TDSCDMA + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Mod_Waveform_Name.TDSCDMA + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:SLOP POS");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT RES");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
}
else if (mode == Modulation.EDGE)
{
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Mod_Waveform_Name.EDGE + "\",\"WFM1:" + Mod_Waveform_Name.EDGE + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Mod_Waveform_Name.EDGE + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:SLOP POS");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT FREE");
//ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT RES");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
}
else if (mode == Modulation.CW_BURST)
{
ESG_E4438C.Write(":SOUR:PULM:SOUR INT");
ESG_E4438C.Write(":SOUR:PULM:INT:PER 4.8ms");
ESG_E4438C.Write(":SOUR:PULM:INT:PWID 1.2ms");
ESG_E4438C.Write(":SOUR:PULM:STAT ON ");
ESG_E4438C.Write("OUTP:MOD:STAT OFF");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
}
}
catch (Exception e)
{
throw new Exception(e.Message);
}
}
/// <summary>
/// Find a provider given the broadcast parameters.
/// </summary>
/// <param name="channelNumber">The channel number of the provider.</param>
/// <param name="frequency">The frequency of the provider.</param>
/// <param name="symbolRate">The symbol rate of the provider.</param>
/// <param name="fecRate">The FEC rate of the provider.</param>
/// <param name="modulation">The modulation of the provider.</param>
/// <returns>The provider or null if it cannot be located.</returns>
public static ClearQamProvider FindProvider(int channelNumber, int frequency, int symbolRate, FECRate fecRate, Modulation modulation)
{
foreach (ClearQamProvider provider in Providers)
{
foreach (ClearQamFrequency atscFrequency in provider.Frequencies)
{
if (atscFrequency.ChannelNumber == channelNumber &&
atscFrequency.Frequency == frequency &&
atscFrequency.SymbolRate == symbolRate &&
atscFrequency.FEC.Rate == fecRate.Rate &&
atscFrequency.Modulation == modulation)
{
return(provider);
}
}
}
return(null);
}
public void Mod_Initialize(Modulation mode , bool HSDPA)
{
try
{
if (mode == Modulation.WCDMA)
{
#region --- WCDMA ---
_MXA_N9020A.Write(":INST WCDMA");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":SENS:RAD:STAN:DEV MS");
_MXA_N9020A.Write(":SENS:RAD:CONF:EHSP:STAT OFF");
_MXA_N9020A.Write(":SENS:RAD:CONF:HSDP:STAT OFF");
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 1920 MHz");
_MXA_N9020A.Write(":SENS:FREQ:CENT:STEP 5 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
//_MXA_N9020A.Write("TRIG:SOUR EXT2"); //Set trigger to external 2
//_MXA_N9020A.Write("TRIG:EXT2:SLOP POS"); //Trigger polarity
//_MXA_N9020A.Write("TRIG:EXT2:DEL:STAT OFF"); //Trgger delay on
// ACP
_MXA_N9020A.Write(":CONF:ACP:NDEF");
_MXA_N9020A.Write(":SENS:ACP:AVER ON");
_MXA_N9020A.Write(":SENS:ACP:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:ACP:AVER:COUN 15");
//_MXA_N9020A.Write(":SENS:ACP:BAND 30 kHz");
//_MXA_N9020A.Write(":SENS:ACP:BAND:VID 30 kHz");
_MXA_N9020A.Write(":SENS:ACP:BAND:SHAP GAUS");
_MXA_N9020A.Write(":ACP:SWE:TIME 25 ms");
_MXA_N9020A.Write(":TRAC:ACP:TYPE AVER");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
// EVM
_MXA_N9020A.Write(":CONF:RHO:NDEF");
_MXA_N9020A.Write(":SENS:RHO:AVER ON");
_MXA_N9020A.Write(":SENS:RHO:AVER:TCON REP");
//_MXA_N9020A.Write(":SENSRHO:CAPT:TIME 1.0");
_MXA_N9020A.Write(":SENS:RHO:AVER:COUN 2");
//_MXA_N9020A.Write(":SENS:RHO:SWE:POIN 2560");
_MXA_N9020A.Write(":CALC:RHO:LIM:RMS 5");
_MXA_N9020A.Write(":CALC:RHO:LIM:FERR 300");
_MXA_N9020A.Write(":SENS:RHO:FILT ON");
_MXA_N9020A.Write(":SENS:RHO:FILT:ALPH 0.22");
_MXA_N9020A.Write(":SENS:RHO:CRAT 3.84 MHz");
_MXA_N9020A.Write(":TRIG:RHO:SOUR EXT1");
//_MXA_N9020A.Write(":SENS:RHO:BAND 6 MHz");
// Channel Power
_MXA_N9020A.Write(":CONF:CHP:NDEF");
_MXA_N9020A.Write(":SENS:CHP:FREQ:SPAN 7.5 MHz");
_MXA_N9020A.Write(":SENS:CHP:AVER ON");
_MXA_N9020A.Write(":SENS:CHP:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:CHP:AVER:COUN 30");
_MXA_N9020A.Write(":SENS:CHP:BAND:INT 3.84MHz");
_MXA_N9020A.Write(":SENS:CHP:FILT OFF");
_MXA_N9020A.Write(":SENS:CHP:FILT:ALPH 0.22");
_MXA_N9020A.Write(":SENS:CHP:FILT:BAND 3.84MHz");
//_MXA_N9020A.Write(":SENS:CHP:BAND 30 kHz");
//_MXA_N9020A.Write(":SENS:CHP:BAND:VID 1 MHz");
_MXA_N9020A.Write(":SENS:CHP:BAND:SHAP GAUS");
_MXA_N9020A.Write(":CHP:SWE:TIME 1ms");
_MXA_N9020A.Write(":TRAC:CHP:TYPE AVER");
_MXA_N9020A.Write(":TRIG:CHP:SOUR EXT1");
Wait();
#endregion --- WCDMA ---
}
else if (mode == Modulation.TDSCDMA)
{
if (HSDPA)
{
#region --- HSDPA ---
//Display_Enable(true);
_MXA_N9020A.Write(":INST TDSCDMA");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":SENS:RAD:STAN:DEV MS");
_MXA_N9020A.Write(":SENS:SLOT TS4");
_MXA_N9020A.Write(":SENS:RAD:CONF:HSDP:STAT ON");
_MXA_N9020A.Write(":TDEM:SCOD 0");
_MXA_N9020A.Write(":TDEM:UPTS 0");
_MXA_N9020A.Write(":TDEM:SYNC TRI"); // MID / TRI
_MXA_N9020A.Write(":TDEM:ULSP 1"); // Switch Point
_MXA_N9020A.Write(":TDEM:MXUS:TS0 16"); // Max User for slot, 16 is maxinum
_MXA_N9020A.Write(":TDEM:SREF MID"); // Slot freq ref PIL / MID
_MXA_N9020A.Write(":TDEM:CDCH:DET AUTO"); // Code channel dectection
//_MXA_N9020A.Write(":TDEM:MODS:AUTO ON"); // Mode Scheme
//_MXA_N9020A.Write(":TDEM:SCL 1"); // Channel configuration
_MXA_N9020A.Write(":TDEM:TREF TRIG"); // Timing Ref DPTS / UPTS / TRIG
_MXA_N9020A.Write(":TDEM:MCAR OFF"); // Multi-carrier demod
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 2025 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
_MXA_N9020A.Write(":SENS:FREQ:CENT:STEP 1.6 MHz");
_MXA_N9020A.Write(":TRIG:EXT1:SLOP POS"); //Trigger polarity
//_MXA_N9020A.Write(":TRIG:EXT2:DEL:STAT ON"); //Trgger delay on
//_MXA_N9020A.Write(":TRIG:EXT2:DEL 4.616ms"); //Trgger delay on
//EVM
_MXA_N9020A.Write(":CONF:EVM:NDEF");
_MXA_N9020A.Write(":SENS:EVM:AVER ON");
_MXA_N9020A.Write(":SENS:EVM:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:EVM:AVER:COUN 2");
_MXA_N9020A.Write(":CALC:EVM:LIM:RMS 5");
_MXA_N9020A.Write(":CALC:EVM:LIM:FERR 0.05");
_MXA_N9020A.Write(":SENS:EVM:RINT 1");
_MXA_N9020A.Write(":SENS:EVM:ANAL:SUBF 0");
_MXA_N9020A.Write(":TRIG:EVM:SOUR EXT1");
// Burst Power
_MXA_N9020A.Write(":CONF:TXP:NDEF");
_MXA_N9020A.Write("TXP:AVER:COUN 10");
_MXA_N9020A.Write("TXP:AVER ON");
_MXA_N9020A.Write("TXP:AVER:TCON REP");
_MXA_N9020A.Write("TXP:AVER:TYPE RMS"); // RMS / LOG
_MXA_N9020A.Write("TXP:METH THR"); // Meas method THReshold|BWIDth|SINGle
//_MXA_N9020A.Write("TXP:BURS:AUTO OFF");
//_MXA_N9020A.Write("TXP:BURS:WIDT 662.5us");
_MXA_N9020A.Write(":TRIG:TXP:SOUR EXT1");
// ACP
_MXA_N9020A.Write(":CONF:ACP:NDEF");
_MXA_N9020A.Write("ACP:BAND 75kHz"); //RBW
_MXA_N9020A.Write("ACP:BAND:VID 750kHz"); //VBW
_MXA_N9020A.Write("ACP:AVER ON");
_MXA_N9020A.Write("ACP:AVER:COUN 5");
_MXA_N9020A.Write("ACP:AVER:TCON REP");
_MXA_N9020A.Write("CALC:ACP:LIM:STAT OFF");
_MXA_N9020A.Write("ACP:SWE:TIME:AUTO ON");
_MXA_N9020A.Write("SWE:EGAT ON"); //Gate ON
_MXA_N9020A.Write("SWE:EGAT:VIEW OFF"); //Gate View OFF
_MXA_N9020A.Write("SWE:EGAT:DEL 360ms"); //Gate Delay 0ms
_MXA_N9020A.Write("SWE:EGAT:LENG 662.5us"); // Gate Length
_MXA_N9020A.Write("SWE:EGAT:SOUR EXT2");
_MXA_N9020A.Write("SWE:EGAT:CONT EDGE");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
Wait();
#endregion --- HSDPA ---
}
else
{
#region --- TDSCDMA ---
//Display_Enable(true);
_MXA_N9020A.Write(":INST TDSCDMA");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":SENS:RAD:STAN:DEV MS");
_MXA_N9020A.Write(":SENS:SLOT TS0");
_MXA_N9020A.Write(":SENS:RAD:CONF:HSDP:STAT OFF");
_MXA_N9020A.Write(":TDEM:SCOD 0");
_MXA_N9020A.Write(":TDEM:UPTS 0");
_MXA_N9020A.Write(":TDEM:SYNC PIL"); // MID / TRI
_MXA_N9020A.Write(":TDEM:ULSP 1"); // Switch Point
_MXA_N9020A.Write(":TDEM:MXUS:TS0 16"); // Max User for slot, 16 is maxinum
_MXA_N9020A.Write(":TDEM:SREF MID"); // Slot freq ref PIL / MID
_MXA_N9020A.Write(":TDEM:CDCH:DET AUTO"); // Code channel dectection
//_MXA_N9020A.Write(":TDEM:MODS:AUTO ON"); // Mode Scheme
//_MXA_N9020A.Write(":TDEM:SCL 1"); // Channel configuration
_MXA_N9020A.Write(":TDEM:TREF UPTS"); // Timing Ref DPTS / UPTS / TRIG
_MXA_N9020A.Write(":TDEM:MCAR OFF"); // Multi-carrier demod
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 2025 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
_MXA_N9020A.Write(":SENS:FREQ:CENT:STEP 1.6 MHz");
_MXA_N9020A.Write(":TRIG:EXT2:SLOP POS"); //Trigger polarity
_MXA_N9020A.Write(":TRIG:EXT2:DEL:STAT ON"); //Trgger delay on
_MXA_N9020A.Write(":TRIG:EXT2:DEL 4.616ms"); //Trgger delay on
//EVM
_MXA_N9020A.Write(":CONF:EVM:NDEF");
_MXA_N9020A.Write(":SENS:EVM:AVER ON");
_MXA_N9020A.Write(":SENS:EVM:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:EVM:AVER:COUN 2");
_MXA_N9020A.Write(":CALC:EVM:LIM:RMS 5");
_MXA_N9020A.Write(":CALC:EVM:LIM:FERR 0.05");
_MXA_N9020A.Write(":SENS:EVM:RINT 1");
_MXA_N9020A.Write(":SENS:EVM:ANAL:SUBF 0");
_MXA_N9020A.Write(":TRIG:EVM:SOUR EXT1");
// Burst Power
_MXA_N9020A.Write(":CONF:TXP:NDEF");
_MXA_N9020A.Write("TXP:AVER:COUN 10");
_MXA_N9020A.Write("TXP:AVER ON");
_MXA_N9020A.Write("TXP:AVER:TCON REP");
_MXA_N9020A.Write("TXP:AVER:TYPE RMS"); // RMS / LOG
_MXA_N9020A.Write("TXP:METH THR"); // Meas method THReshold|BWIDth|SINGle
//_MXA_N9020A.Write("TXP:BURS:AUTO OFF");
//_MXA_N9020A.Write("TXP:BURS:WIDT 662.5us");
_MXA_N9020A.Write(":TRIG:TXP:SOUR EXT1");
// ACP
_MXA_N9020A.Write(":CONF:ACP:NDEF");
_MXA_N9020A.Write("ACP:BAND 75kHz"); //RBW
_MXA_N9020A.Write("ACP:BAND:VID 750kHz"); //VBW
_MXA_N9020A.Write("ACP:AVER ON");
_MXA_N9020A.Write("ACP:AVER:COUN 5");
_MXA_N9020A.Write("ACP:AVER:TCON REP");
_MXA_N9020A.Write("CALC:ACP:LIM:STAT OFF");
_MXA_N9020A.Write("ACP:SWE:TIME:AUTO ON");
_MXA_N9020A.Write("SWE:EGAT ON"); //Gate ON
_MXA_N9020A.Write("SWE:EGAT:VIEW OFF"); //Gate View OFF
_MXA_N9020A.Write("SWE:EGAT:DEL 4.616ms"); //Gate Delay 0ms
_MXA_N9020A.Write("SWE:EGAT:LENG 662.5us"); // Gate Length
_MXA_N9020A.Write("SWE:EGAT:SOUR EXT2");
_MXA_N9020A.Write("SWE:EGAT:CONT EDGE");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
Wait();
#endregion --- TDSCDMA --- }
}
}//EDGE_CONTINOUS
else if (mode == Modulation.EDGE_CONTINOUS)
{
#region --- EDGE_CONTINOUS ---
//Display_Enable(true);
_MXA_N9020A.Write(":INST EDGEGSM");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write("RAD:STAN:BAND EGSM"); // Band
_MXA_N9020A.Write("RAD:DEV MS"); // Device
_MXA_N9020A.Write("RAD:CARR CONT"); // BURSt|CONTinuous
_MXA_N9020A.Write("CHAN:SLOT 0"); // Demod Slot
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 915 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
_MXA_N9020A.Write(":TRIG:EXT2:SLOP POS"); //Trigger polarity
_MXA_N9020A.Write(":TRIG:EXT2:DEL:STAT ON"); //Trgger delay on
_MXA_N9020A.Write(":TRIG:EXT2:DEL 0us"); //Trgger delay on
//EVM
_MXA_N9020A.Write(":CONF:EEVM:NDEF");
_MXA_N9020A.Write(":SENS:EEVM:AVER ON");
_MXA_N9020A.Write(":SENS:EEVM:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:EEVM:AVER:COUN 10");
_MXA_N9020A.Write(":TRIG:EEVM:SOUR EXT2");
_MXA_N9020A.Write("EEVM:BSYNC:SOUR NONE"); // TSEQuence|RFBurst|PMODulation|NONE
// Burst Power
_MXA_N9020A.Write(":CONF:TXP:NDEF");
_MXA_N9020A.Write("TXP:BAND 510kHz"); // RBW
_MXA_N9020A.Write("TXP:AVER:COUN 3");
_MXA_N9020A.Write("TXP:AVER ON");
_MXA_N9020A.Write("TXP:AVER:TCON REP");
_MXA_N9020A.Write("TXP:AVER:TYPE RMS"); // RMS / LOG
_MXA_N9020A.Write("TXP:METH BWID"); // Meas method THReshold|BWIDth
_MXA_N9020A.Write("TXP:BURS:AUTO ON");
_MXA_N9020A.Write("TXP:BURS:WIDT 1154us");
_MXA_N9020A.Write(":TRIG:TXP:SOUR EXT2");
// WaveForm Power
_MXA_N9020A.Write(":CONF:WAV:NDEF");
_MXA_N9020A.Write(":TRIG:WAV:SOUR EXT2");
//_MXA_N9020A.Write("WAV:SWE:TIME 562.5 us");
_MXA_N9020A.Write("WAV:SWE:TIME 1154 us");
_MXA_N9020A.Write("WAV:AVER:COUN 5");
_MXA_N9020A.Write("WAV:AVER ON");
_MXA_N9020A.Write("WAV:AVER:TCON REP");
_MXA_N9020A.Write("WAV:AVER:TYPE RMS");
// ORFS (ACP)
_MXA_N9020A.Write(":CONF:EORF:NDEF");
_MXA_N9020A.Write("EORF:AVER ON");
_MXA_N9020A.Write("EORF:AVER:COUN 15");
_MXA_N9020A.Write("EORF:TYPE MOD");
_MXA_N9020A.Write("EORF:AVER:FAST ON");
_MXA_N9020A.Write("EORF:AVER:MOD:TYPE RMS");
_MXA_N9020A.Write("EORF:CARR:PREF:TYPE REF");
_MXA_N9020A.Write("EORF:MEAS MULT"); // MULTiple|SINGle|SWEPt
_MXA_N9020A.Write("EORF:LIST:SEL SHOR"); // CUSTom|SHORt|STANdard
_MXA_N9020A.Write(":TRIG:EORF:SOUR EXT2");
Wait();
#endregion --- EDGE_CONTINOUS --- }
}
else if (mode == Modulation.EDGE)
{
#region --- EDGE ---
//Display_Enable(true);
_MXA_N9020A.Write(":INST EDGEGSM");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write("RAD:STAN:BAND EGSM"); // Band
_MXA_N9020A.Write("RAD:DEV MS"); // Device
_MXA_N9020A.Write("RAD:CARR CONT"); // BURSt|CONTinuous
_MXA_N9020A.Write("CHAN:SLOT 0"); // Demod Slot
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 915 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
_MXA_N9020A.Write(":TRIG:EXT1:SLOP POS"); //Trigger polarity
_MXA_N9020A.Write(":TRIG:EXT1:DEL:STAT ON"); //Trgger delay on
_MXA_N9020A.Write(":TRIG:EXT1:DEL 0us"); //Trgger delay on
//EVM
_MXA_N9020A.Write(":CONF:EEVM:NDEF");
_MXA_N9020A.Write(":SENS:EEVM:AVER ON");
_MXA_N9020A.Write(":SENS:EEVM:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:EEVM:AVER:COUN 10");
_MXA_N9020A.Write(":TRIG:EEVM:SOUR EXT1");
_MXA_N9020A.Write("EEVM:BSYNC:SOUR NONE"); // TSEQuence|RFBurst|PMODulation|NONE
// Burst Power
_MXA_N9020A.Write(":CONF:TXP:NDEF");
_MXA_N9020A.Write("TXP:BAND 510kHz"); // RBW
_MXA_N9020A.Write("TXP:AVER:COUN 3");
_MXA_N9020A.Write("TXP:AVER ON");
_MXA_N9020A.Write("TXP:AVER:TCON REP");
_MXA_N9020A.Write("TXP:AVER:TYPE RMS"); // RMS / LOG
_MXA_N9020A.Write("TXP:METH BWID"); // Meas method THReshold|BWIDth
_MXA_N9020A.Write("TXP:BURS:AUTO ON");
_MXA_N9020A.Write("TXP:BURS:WIDT 577us");
_MXA_N9020A.Write(":TRIG:TXP:SOUR EXT1");
// WaveForm Power
_MXA_N9020A.Write(":CONF:WAV:NDEF");
_MXA_N9020A.Write(":TRIG:WAV:SOUR EXT1");
//_MXA_N9020A.Write("WAV:SWE:TIME 562.5 us");
_MXA_N9020A.Write("WAV:SWE:TIME 577 us");
_MXA_N9020A.Write("WAV:AVER:COUN 5");
_MXA_N9020A.Write("WAV:AVER ON");
_MXA_N9020A.Write("WAV:AVER:TCON REP");
_MXA_N9020A.Write("WAV:AVER:TYPE RMS");
// ORFS (ACP)
_MXA_N9020A.Write(":CONF:EORF:NDEF");
_MXA_N9020A.Write("EORF:AVER ON");
_MXA_N9020A.Write("EORF:AVER:COUN 15");
_MXA_N9020A.Write("EORF:TYPE MOD");
_MXA_N9020A.Write("EORF:AVER:FAST ON");
_MXA_N9020A.Write("EORF:AVER:MOD:TYPE RMS");
_MXA_N9020A.Write("EORF:CARR:PREF:TYPE REF");
_MXA_N9020A.Write("EORF:MEAS MULT"); // MULTiple|SINGle|SWEPt
_MXA_N9020A.Write("EORF:LIST:SEL SHOR"); // CUSTom|SHORt|STANdard
_MXA_N9020A.Write(":TRIG:EORF:SOUR EXT1");
Wait();
#endregion --- EDGE --- }
}
else if (mode == Modulation.LTETDD)
{
#region --- LTETDD ---
//Display_Enable(true);
//_MXA_N9020A.Write(":INIT:CONT OFF");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
// Mode Setup
_MXA_N9020A.Write(":INST LTETDD");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":RAD:STAN:DIR ULIN"); // Uplink ULIN/DLIN
_MXA_N9020A.Write(":RAD:STAN:ULDL CONF1"); // CONF1: Configuration 1 (DSUUDDSUUD)
_MXA_N9020A.Write(":RAD:STAN:PRES B10M"); // Preset to standard B1M4|B3M|B5M|B10M|B15M|B20M
_MXA_N9020A.Write(":RAD:SLOT TS4"); // Analysis slot TS4
_MXA_N9020A.Write(":RAD:MINT 4"); // Measusre interval 2slots
// Channel Power Setup
_MXA_N9020A.Write(":CONF:CHP");
_MXA_N9020A.Write(":TRIG:CHP:SOUR EXT1");
_MXA_N9020A.Write(":SWE:EGAT:SOUR EXT2");
_MXA_N9020A.Write(":SWE:EGAT:DEL 5ms"); //Gate Delay 0ms
//_MXA_N9020A.Write(":CHP:AVER:COUN 5"); // Average count
_MXA_N9020A.Write(":CHP:AVER OFF"); // Average OFF
_MXA_N9020A.Write(":CHP:SWE:TIME 60ms");
// ACPR E-ULTA
_MXA_N9020A.Write(":CONF:ACP");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
_MXA_N9020A.Write(":SWE:EGAT:SOUR EXT1");
_MXA_N9020A.Write(":SWE:EGAT:DEL 5ms"); //Gate Delay 0ms
_MXA_N9020A.Write(":ACP:SWE:TIME 60ms"); // Sweep Time 60ms
_MXA_N9020A.Write(":ACP:AVER:TCON REP"); // Average Mode EXP || REP
_MXA_N9020A.Write(":ACP:AVER:COUN 2"); // Average count
_MXA_N9020A.Write(":ACP:AVER ON"); // Average ON
_MXA_N9020A.Write(":ACP:OFFS2:LIST:STAT 1,0,0,0,0,0"); // Offset State
_MXA_N9020A.Write(":ACP:OFFS2:LIST 10MHz,0,0,0,0,0"); // Offset Frequecny
_MXA_N9020A.Write(":ACP:OFFS2:LIST:BAND 9MHz,9MHz,9MHz,9MHz,9MHz,9MHz"); // Offset Integ BW
_MXA_N9020A.Write(":ACP:OFFS2:LIST:SIDE BOTH"); // Offset Side NEG || BOTH || POS
_MXA_N9020A.Write(":ACP:OFFS2:LIST:FILT 0,0,0,0,0,0"); // Offset Method 1|ON = RRC Weighted, 0|OFF = Integ BW
_MXA_N9020A.Write(":ACP:OFFS2:LIST:FILT:ALPH 0.22, 0.22, 0.22, 0.22, 0.22, 0.22"); // Offset Filter Alpha
_MXA_N9020A.Write(":ACP:OFFS:TYPE CTOC"); // Offset Frequency Define CTOC || CTOE || ETOC || ETOE
_MXA_N9020A.Write(":ACP:FREQ:SPAN 30MHz"); // Span 30MHz
// ACPR ULTA(TD-S)
_MXA_N9020A.Write(":CONF:ACP");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
_MXA_N9020A.Write(":SWE:EGAT:SOUR EXT1");
_MXA_N9020A.Write(":SWE:EGAT:DEL 5ms"); //Gate Delay 0ms
_MXA_N9020A.Write(":ACP:SWE:TIME 60ms"); // Sweep Time 60ms
_MXA_N9020A.Write(":ACP:AVER:TCON REP"); // Average Mode EXP || REP
_MXA_N9020A.Write(":ACP:AVER:COUN 2"); // Average count
_MXA_N9020A.Write(":ACP:AVER ON"); // Average ON
_MXA_N9020A.Write(":ACP:OFFS2:LIST:STAT 1,1,0,0,0,0"); // Offset State
_MXA_N9020A.Write(":ACP:OFFS2:LIST 5.8MHz,7.4MHz,0,0,0,0"); // Offset Frequecny
_MXA_N9020A.Write(":ACP:OFFS2:LIST:BAND 1.28MHz,1.28MHz,9MHz,9MHz,9MHz,9MHz"); // Offset Integ BW
_MXA_N9020A.Write(":ACP:OFFS2:LIST:SIDE NEG,BOTH"); // Offset Side NEG || BOTH || POS
_MXA_N9020A.Write(":ACP:OFFS2:LIST:FILT 1,1,0,0,0,0"); // Offset Method 1|ON = RRC Weighted, 0|OFF = Integ BW
_MXA_N9020A.Write(":ACP:OFFS2:LIST:FILT:ALPH 0.22, 0.22, 0.22, 0.22, 0.22, 0.22"); // Offset Filter Alpha
_MXA_N9020A.Write(":ACP:OFFS:TYPE CTOC"); // Offset Frequency Define CTOC || CTOE || ETOC || ETOE
_MXA_N9020A.Write(":ACP:FREQ:SPAN 17MHz"); // Span 17MHz
// CEVM
_MXA_N9020A.Write(":CONF:CEVM");
_MXA_N9020A.Write(":TRIG:CEVM:SOUR EXT1");
_MXA_N9020A.Write(":SWE:EGAT:SOUR EXT1");
Wait();
#endregion --- LTETDD --- }
}
else if (mode == Modulation.LTEFDD)
{
#region --- LTEFDD ---
//Display_Enable(true);
//_MXA_N9020A.Write(":INIT:CONT OFF");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
// Mode Setup
_MXA_N9020A.Write(":INST LTE");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":RAD:STAN:PRES B10M"); // Preset to standard B1M4|B3M|B5M|B10M|B15M|B20M
_MXA_N9020A.Write(":RAD:STAN:DIR ULIN"); // Uplink ULIN/DLIN
// Channel Power Setup
_MXA_N9020A.Write(":CONF:CHP");
_MXA_N9020A.Write(":TRIG:CHP:SOUR EXT1");
//_MXA_N9020A.Write(":CHP:AVER:COUN 5"); // Average count
_MXA_N9020A.Write(":CHP:AVER OFF"); // Average OFF
_MXA_N9020A.Write(":CHP:SWE:TIME 60ms");
// ACPR E-ULTA
_MXA_N9020A.Write(":CONF:ACP");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
_MXA_N9020A.Write(":ACP:SWE:TIME 60ms"); // Sweep Time 60ms
_MXA_N9020A.Write(":ACP:AVER:TCON REP"); // Average Mode EXP || REP
_MXA_N9020A.Write(":ACP:AVER:COUN 2"); // Average count
_MXA_N9020A.Write(":ACP:AVER ON"); // Average ON
_MXA_N9020A.Write(":ACP:OFFS2:LIST:STAT 1,0,0,0,0,0"); // Offset State
_MXA_N9020A.Write(":ACP:OFFS2:LIST 10MHz,0,0,0,0,0"); // Offset Frequecny
_MXA_N9020A.Write(":ACP:OFFS2:LIST:BAND 9MHz,9MHz,9MHz,9MHz,9MHz,9MHz"); // Offset Integ BW
_MXA_N9020A.Write(":ACP:OFFS2:LIST:SIDE BOTH"); // Offset Side NEG || BOTH || POS
_MXA_N9020A.Write(":ACP:OFFS2:LIST:FILT 0,0,0,0,0,0"); // Offset Method 1|ON = RRC Weighted, 0|OFF = Integ BW
_MXA_N9020A.Write(":ACP:OFFS2:LIST:FILT:ALPH 0.22, 0.22, 0.22, 0.22, 0.22, 0.22"); // Offset Filter Alpha
_MXA_N9020A.Write(":ACP:OFFS:TYPE CTOC"); // Offset Frequency Define CTOC || CTOE || ETOC || ETOE
_MXA_N9020A.Write(":ACP:FREQ:SPAN 30MHz"); // Span 30MHz
// ACPR ULTA(WCDMA)
_MXA_N9020A.Write(":CONF:ACP");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
_MXA_N9020A.Write(":ACP:SWE:TIME 60ms"); // Sweep Time 60ms
_MXA_N9020A.Write(":ACP:AVER:TCON REP"); // Average Mode EXP || REP
_MXA_N9020A.Write(":ACP:AVER:COUN 2"); // Average count
_MXA_N9020A.Write(":ACP:AVER ON"); // Average ON
_MXA_N9020A.Write(":ACP:OFFS2:LIST:STAT 1,1,0,0,0,0"); // Offset State
_MXA_N9020A.Write(":ACP:OFFS2:LIST 7.5MHz,12.5MHz,0,0,0,0"); // Offset Frequecny
_MXA_N9020A.Write(":ACP:OFFS2:LIST:BAND 3.84MHz,3.84MHz,9MHz,9MHz,9MHz,9MHz"); // Offset Integ BW
_MXA_N9020A.Write(":ACP:OFFS2:LIST:SIDE BOTH,BOTH"); // Offset Side NEG || BOTH || POS
_MXA_N9020A.Write(":ACP:OFFS2:LIST:FILT 1,1,0,0,0,0"); // Offset Method 1|ON = RRC Weighted, 0|OFF = Integ BW
_MXA_N9020A.Write(":ACP:OFFS2:LIST:FILT:ALPH 0.22, 0.22, 0.22, 0.22, 0.22, 0.22"); // Offset Filter Alpha
_MXA_N9020A.Write(":ACP:OFFS:TYPE CTOC"); // Offset Frequency Define CTOC || CTOE || ETOC || ETOE
_MXA_N9020A.Write(":ACP:FREQ:SPAN 17MHz"); // Span 17MHz
// CEVM
_MXA_N9020A.Write(":CONF:CEVM");
_MXA_N9020A.Write(":TRIG:CEVM:SOUR EXT1");
Wait();
#endregion --- LTEFDD --- }
}
else if (mode == Modulation.CDMA)
{
#region --- CDMA ---
_MXA_N9020A.Write(":INST CDMA2K");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":SENS:RAD:STAN:DEV MS");
//_MXA_N9020A.Write(":SENS:RAD:CONF:EHSP:STAT OFF");
//_MXA_N9020A.Write(":SENS:RAD:CONF:HSDP:STAT OFF");
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 1920 MHz");
//_MXA_N9020A.Write(":SENS:FREQ:CENT:STEP 5 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
_MXA_N9020A.Write("TRIG:SOUR EXT1"); //Set trigger to external 2
//_MXA_N9020A.Write("TRIG:EXT2:SLOP POS"); //Trigger polarity
//_MXA_N9020A.Write("TRIG:EXT2:DEL:STAT OFF"); //Trgger delay on
// ACP
_MXA_N9020A.Write(":CONF:ACP");
_MXA_N9020A.Write(":SENS:ACP:AVER OFF");
_MXA_N9020A.Write(":SENS:ACP:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:ACP:AVER:COUN 64");
_MXA_N9020A.Write(":ACP:SWE:TIME 59.4 ms");
_MXA_N9020A.Write(":ACP:SWE:TIME:AUTO ON");
_MXA_N9020A.Write(":SENS:ACP:METH RBW");
_MXA_N9020A.Write(":TRAC:ACP:TYPE AVER");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
// EVM
_MXA_N9020A.Write(":CONF:RHO");
_MXA_N9020A.Write(":SENS:RHO:AVER ON");
_MXA_N9020A.Write(":SENS:RHO:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:RHO:AVER:COUN 2");
_MXA_N9020A.Write(":TRIG:RHO:SOUR EXT1");
// Channel Power
_MXA_N9020A.Write(":CONF:CHP");
_MXA_N9020A.Write(":SENS:CHP:AVER ON");
_MXA_N9020A.Write(":SENS:CHP:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:CHP:AVER:COUN 64");
_MXA_N9020A.Write(":CHP:SWE:TIME 5ms");
_MXA_N9020A.Write(":TRAC:CHP:TYPE AVER");
_MXA_N9020A.Write(":TRIG:CHP:SOUR EXT1");
Wait();
#endregion --- CDMA ---
}
else if (mode == Modulation.EVDO)
{
#region --- EVDO ---
_MXA_N9020A.Write(":INST CDMA1XEV");
_MXA_N9020A.Write(":INST:DEF");
_MXA_N9020A.Write(":SENS:RAD:STAN:DEV MS");
_MXA_N9020A.Write(":SENS:FREQ:RF:CENT 1920 MHz");
_MXA_N9020A.Write(":SENS:POW:ATT 10");
// ACP
_MXA_N9020A.Write(":CONF:ACP");
_MXA_N9020A.Write(":SENS:ACP:AVER OFF");
_MXA_N9020A.Write(":SENS:ACP:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:ACP:AVER:COUN 64");
_MXA_N9020A.Write(":ACP:SWE:TIME 59.4 ms");
_MXA_N9020A.Write(":SENS:ACP:METH RBW");
_MXA_N9020A.Write(":TRAC:ACP:TYPE AVER");
_MXA_N9020A.Write(":TRIG:ACP:SOUR EXT1");
// EVM
_MXA_N9020A.Write(":CONF:RHO:MS");
_MXA_N9020A.Write(":SENS:RHO:MS:AVER ON");
_MXA_N9020A.Write(":SENS:RHO:MS:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:RHO:MS:AVER:COUN 2");
_MXA_N9020A.Write(":TRIG:RHO:MS:SOUR EXT1");
// Channel Power
_MXA_N9020A.Write(":CONF:CHP");
_MXA_N9020A.Write(":SENS:CHP:AVER ON");
_MXA_N9020A.Write(":SENS:CHP:AVER:TCON REP");
_MXA_N9020A.Write(":SENS:CHP:AVER:COUN 64");
_MXA_N9020A.Write(":CHP:SWE:TIME 10ms");
_MXA_N9020A.Write(":TRAC:CHP:TYPE AVER");
_MXA_N9020A.Write(":TRIG:CHP:SOUR EXT1");
Wait();
#endregion --- EVDO ---
}
}
catch (Exception e)
{
throw new Exception(e.Message);
}
}
/// <summary>
/// Find a provider given the broadcast parameters.
/// </summary>
/// <param name="channelNumber">The channel number of the provider.</param>
/// <param name="frequency">The frequency of the provider.</param>
/// <param name="symbolRate">The symbol rate of the provider.</param>
/// <param name="fecRate">The FEC rate of the provider.</param>
/// <param name="modulation">The modulation of the provider.</param>
/// <returns>The provider or null if it cannot be located.</returns>
public static AtscProvider FindProvider(int channelNumber, int frequency, int symbolRate, FECRate fecRate, Modulation modulation)
{
if (fecRate == null)
throw (new ArgumentException("The FEC rate cannot be null", "fecRate"));
foreach (AtscProvider provider in Providers)
{
foreach (AtscFrequency atscFrequency in provider.Frequencies)
{
if (atscFrequency.ChannelNumber == channelNumber &&
atscFrequency.Frequency == frequency &&
atscFrequency.SymbolRate == symbolRate &&
atscFrequency.FEC.Rate == fecRate.Rate &&
atscFrequency.Modulation == modulation)
return (provider);
}
}
return (null);
}
/// <summary>
/// Initialize a new instance of the TuningSpec class for a Clear QAM frequency.
/// </summary>
/// <param name="frequency">The frequency to tune to.</param>
public TuningSpec(ClearQamFrequency frequency)
{
this.frequency = frequency;
symbolRate = frequency.SymbolRate;
fec = frequency.FEC;
modulation = frequency.Modulation;
channelNumber = frequency.ChannelNumber;
}
internal void load(XmlReader reader)
{
switch (reader.Name)
{
case "ChannelNumber":
ChannelNumber = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "CarrierFrequency":
Frequency = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "SymbolRate":
symbolRate = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "Modulation":
switch (reader.ReadString())
{
case "BPSK":
modulation = Modulation.BPSK;
break;
case "OQPSK":
modulation = Modulation.OQPSK;
break;
case "PSK8":
modulation = Modulation.PSK8;
break;
case "QAM1024":
modulation = Modulation.QAM1024;
break;
case "QAM112":
modulation = Modulation.QAM112;
break;
case "QAM128":
modulation = Modulation.QAM128;
break;
case "QAM16":
modulation = Modulation.QAM16;
break;
case "QAM160":
modulation = Modulation.QAM160;
break;
case "QAM192":
modulation = Modulation.QAM192;
break;
case "QAM224":
modulation = Modulation.QAM224;
break;
case "QAM256":
modulation = Modulation.QAM256;
break;
case "QAM32":
modulation = Modulation.QAM32;
break;
case "QAM320":
modulation = Modulation.QAM320;
break;
case "QAM384":
modulation = Modulation.QAM384;
break;
case "QAM448":
modulation = Modulation.QAM448;
break;
case "QAM512":
modulation = Modulation.QAM512;
break;
case "QAM64":
modulation = Modulation.QAM64;
break;
case "QAM640":
modulation = Modulation.QAM640;
break;
case "QAM768":
modulation = Modulation.QAM768;
break;
case "QAM80":
modulation = Modulation.QAM80;
break;
case "QAM896":
modulation = Modulation.QAM896;
break;
case "QAM96":
modulation = Modulation.QAM96;
break;
case "QPSK":
modulation = Modulation.QPSK;
break;
case "VSB16":
modulation = Modulation.VSB16;
break;
case "VSB8":
modulation = Modulation.VSB8;
break;
}
break;
case "InnerFecRate":
switch (reader.ReadString())
{
case "Rate1_2":
fec = new FECRate(FECRate.FECRate12);
break;
case "Rate1_3":
fec = new FECRate(FECRate.FECRate13);
break;
case "Rate1_4":
fec = new FECRate(FECRate.FECRate14);
break;
case "Rate2_3":
fec = new FECRate(FECRate.FECRate23);
break;
case "Rate2_5":
fec = new FECRate(FECRate.FECRate25);
break;
case "Rate3_4":
fec = new FECRate(FECRate.FECRate34);
break;
case "Rate3_5":
fec = new FECRate(FECRate.FECRate35);
break;
case "Rate4_5":
fec = new FECRate(FECRate.FECRate45);
break;
case "Rate5_11":
fec = new FECRate(FECRate.FECRate511);
break;
case "Rate5_6":
fec = new FECRate(FECRate.FECRate56);
break;
case "Rate6_7":
fec = new FECRate(FECRate.FECRate67);
break;
case "Rate7_8":
fec = new FECRate(FECRate.FECRate78);
break;
case "Rate8_9":
fec = new FECRate(FECRate.FECRate89);
break;
case "Rate9_10":
fec = new FECRate(FECRate.FECRate910);
break;
}
break;
case "CollectionType":
switch (reader.ReadString())
{
case "EIT":
CollectionType = CollectionType.EIT;
break;
case "MHEG5":
CollectionType = CollectionType.MHEG5;
break;
case "OPENTV":
CollectionType = CollectionType.OpenTV;
break;
case "MHW1":
CollectionType = CollectionType.MediaHighway1;
break;
case "MHW2":
CollectionType = CollectionType.MediaHighway2;
break;
case "FREESAT":
CollectionType = CollectionType.FreeSat;
break;
case "PSIP":
CollectionType = CollectionType.PSIP;
break;
case "DISHNETWORK":
CollectionType = CollectionType.DishNetwork;
break;
case "BELLTV":
CollectionType = CollectionType.BellTV;
break;
case "SIEHFERNINFO":
CollectionType = CollectionType.SiehfernInfo;
break;
}
break;
default:
break;
}
}
/// <summary>
/// Initialize a new instance of the TuningSpec class for a DVB cable frequency.
/// </summary>
/// <param name="frequency">The frequency to tune to.</param>
public TuningSpec(CableFrequency frequency)
{
this.frequency = frequency;
symbolRate = frequency.SymbolRate;
fec = frequency.FEC;
modulation = frequency.Modulation;
}
public void Mode_Initialize(Modulation mode, string Waveform_Name)
{
ESG_E4438C.Write(":SOUR:RAD:ARB OFF");
try
{
if (mode == Modulation.WCDMA)
{
#region Content
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Waveform_Name + "\",\"WFM1:" + Waveform_Name + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Waveform_Name + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT FREE");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
#endregion
}
else if (mode == Modulation.TDSCDMA)
{
#region Content
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Waveform_Name + "\",\"WFM1:" + Waveform_Name + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Waveform_Name + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:SLOP POS");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT TRIG");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
#endregion
}
else if (mode == Modulation.EDGE)
{
#region Content
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Waveform_Name + "\",\"WFM1:" + Waveform_Name + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Waveform_Name + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:SLOP POS");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT FREE");
//ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT RES");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
#endregion Content
}
else if (mode == Modulation.LTETDD)
{
#region Content
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Waveform_Name + "\",\"WFM1:" + Waveform_Name + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Waveform_Name + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:SLOP POS");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT TRIG");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:DEL 3.00ms");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:DEL:STAT OFF");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:EXT:DEL:STAT ON");
Wait();
#endregion Content
}
else if (mode == Modulation.LTEFDD)
{
#region Content
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Waveform_Name + "\",\"WFM1:" + Waveform_Name + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Waveform_Name + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT FREE");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
#endregion
}
else if (mode == Modulation.CDMA)
{
#region Content
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Waveform_Name + "\",\"WFM1:" + Waveform_Name + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Waveform_Name + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT FREE");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
#endregion
}
else if (mode == Modulation.EVDO)
{
#region Content
ESG_E4438C.Write(":MEM:COPY \"NVWFM:" + Waveform_Name + "\",\"WFM1:" + Waveform_Name + "\"");
string cmd = ":SOUR:RAD:ARB:WAV " + '"' + Waveform_Name + '"';
ESG_E4438C.Write(cmd);
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE CONT");
ESG_E4438C.Write(":SOUR:RAD:ARB:TRIG:TYPE:CONT FREE");
ESG_E4438C.Write(":SOUR:RAD:ARB ON");
ESG_E4438C.Write("OUTP:MOD:STAT ON");
ESG_E4438C.Write("OUTP:STAT OFF");
Wait();
#endregion
}
}
catch (Exception e)
{
throw new Exception(e.Message);
}
}
internal void load(XmlReader reader)
{
switch (reader.Name)
{
case "CarrierFrequency":
Frequency = Int32.Parse(reader.ReadString());
break;
case "Polarisation":
switch (reader.ReadString())
{
case "CircularL":
polarization = new SignalPolarization(SignalPolarization.CircularLeft);
break;
case "CircularR":
polarization = new SignalPolarization(SignalPolarization.CircularRight);
break;
case "LinearH":
polarization = new SignalPolarization(SignalPolarization.LinearHorizontal);
break;
case "LinearV":
polarization = new SignalPolarization(SignalPolarization.LinearVertical);
break;
}
break;
case "SymbolRate":
symbolRate = Int32.Parse(reader.ReadString());
break;
case "InnerFecRate":
switch (reader.ReadString())
{
case "Rate1_2":
fec = new FECRate(FECRate.FECRate12);
break;
case "Rate1_3":
fec = new FECRate(FECRate.FECRate13);
break;
case "Rate1_4":
fec = new FECRate(FECRate.FECRate14);
break;
case "Rate2_3":
fec = new FECRate(FECRate.FECRate23);
break;
case "Rate2_5":
fec = new FECRate(FECRate.FECRate25);
break;
case "Rate3_4":
fec = new FECRate(FECRate.FECRate34);
break;
case "Rate3_5":
fec = new FECRate(FECRate.FECRate35);
break;
case "Rate4_5":
fec = new FECRate(FECRate.FECRate45);
break;
case "Rate5_11":
fec = new FECRate(FECRate.FECRate511);
break;
case "Rate5_6":
fec = new FECRate(FECRate.FECRate56);
break;
case "Rate6_7":
fec = new FECRate(FECRate.FECRate67);
break;
case "Rate7_8":
fec = new FECRate(FECRate.FECRate78);
break;
case "Rate8_9":
fec = new FECRate(FECRate.FECRate89);
break;
case "Rate9_10":
fec = new FECRate(FECRate.FECRate910);
break;
}
break;
case "CollectionType":
switch (reader.ReadString())
{
case "EIT":
CollectionType = CollectionType.EIT;
break;
case "MHEG5":
CollectionType = CollectionType.MHEG5;
break;
case "OPENTV":
CollectionType = CollectionType.OpenTV;
break;
case "MHW1":
CollectionType = CollectionType.MediaHighway1;
break;
case "MHW2":
CollectionType = CollectionType.MediaHighway2;
break;
case "FREESAT":
CollectionType = CollectionType.FreeSat;
break;
case "PSIP":
CollectionType = CollectionType.PSIP;
break;
case "DISHNETWORK":
CollectionType = CollectionType.DishNetwork;
break;
case "BELLTV":
CollectionType = CollectionType.BellTV;
break;
case "SIEHFERNINFO":
CollectionType = CollectionType.SiehfernInfo;
break;
}
break;
case "Pilot":
switch (reader.ReadString())
{
case "NotSet":
pilot = Pilot.NotSet;
break;
case "NotDefined":
pilot = Pilot.NotDefined;
break;
case "On":
pilot = Pilot.On;
break;
case "Off":
pilot = Pilot.Off;
break;
default:
pilot = Pilot.NotSet;
break;
}
break;
case "Rolloff":
switch (reader.ReadString())
{
case "NotSet":
rollOff = RollOff.NotSet;
break;
case "NotDefined":
rollOff = RollOff.NotDefined;
break;
case "Twenty":
rollOff = RollOff.RollOff20;
break;
case "TwentyFive":
rollOff = RollOff.RollOff25;
break;
case "ThirtyFive":
rollOff = RollOff.RollOff35;
break;
default:
rollOff = RollOff.NotSet;
break;
}
break;
case "Modulation":
switch (reader.ReadString())
{
case "ModBPSK":
modulation = Modulation.BPSK;
break;
case "ModOQPSK":
modulation = Modulation.OQPSK;
break;
case "Mod8Psk":
modulation = Modulation.PSK8;
break;
case "Mod1024Qam":
modulation = Modulation.QAM1024;
break;
case "Mod112Qam":
modulation = Modulation.QAM112;
break;
case "Mod128Qam":
modulation = Modulation.QAM128;
break;
case "Mod16Qam":
modulation = Modulation.QAM16;
break;
case "Mod160Qam":
modulation = Modulation.QAM160;
break;
case "Mod192Qam":
modulation = Modulation.QAM192;
break;
case "Mod224Qam":
modulation = Modulation.QAM224;
break;
case "Mod256Qam":
modulation = Modulation.QAM256;
break;
case "Mod32Qam":
modulation = Modulation.QAM32;
break;
case "Mod320Qam":
modulation = Modulation.QAM320;
break;
case "Mod384Qam":
modulation = Modulation.QAM384;
break;
case "Mod448Qam":
modulation = Modulation.QAM448;
break;
case "Mod512Qam":
modulation = Modulation.QAM512;
break;
case "Mod64Qam":
modulation = Modulation.QAM64;
break;
case "Mod640Qam":
modulation = Modulation.QAM640;
break;
case "Mod768Qam":
modulation = Modulation.QAM768;
break;
case "Mod80Qam":
modulation = Modulation.QAM80;
break;
case "Mod896Qam":
modulation = Modulation.QAM896;
break;
case "Mod96Qam":
modulation = Modulation.QAM96;
break;
case "ModQPSK":
modulation = Modulation.QPSK;
break;
}
break;
case "OpenTVCode":
OpenTVCode = reader.ReadString();
break;
default:
break;
}
}
public static List<WizardConfig> createWizardDescriptorFromXLS(bool enableAFC, Modulation modulation, double dataRate)
{
List<WizardConfig> list = new List<WizardConfig>();
ResourceManager manager = new ResourceManager("NewWDS.Applications.App_Si4455.App_Si4455_Resource", Assembly.GetExecutingAssembly());
ExcelCalculatorAPISpreadsheetGear gear = new ExcelCalculatorAPISpreadsheetGear((byte[]) manager.GetObject("EZR2WizardData_v0_2B"));
int workSheetNumber = 0;
if (modulation == Modulation.OOK)
{
workSheetNumber = 1;
}
if (!enableAFC)
{
workSheetNumber += 2;
}
gear.WriteCell(workSheetNumber, "B4", dataRate.ToString("0.###"));
int[] numArray = new int[] { 7, 20, 0x1d };
for (int i = 0; i < numArray.Length; i++)
{
for (int j = numArray[i]; gear.ReadCell(workSheetNumber, "B" + j.ToString()) != ""; j++)
{
try
{
WizardConfig item = new WizardConfig {
AFCEnabled = enableAFC,
Modulation = modulation,
DataRate = dataRate,
Region = (UsingRegion) Enum.Parse(typeof(UsingRegion), gear.ReadCell(workSheetNumber, "B" + j.ToString()), true)
};
string[] strArray = gear.ReadCell(workSheetNumber, "C" + j.ToString()).Split(new char[] { '-' });
double[] numArray2 = new double[Math.Min(strArray.Length, 2)];
if (((strArray.Length < 2) || !WDSConverters.ParseDouble(strArray[0], out numArray2[0])) || !WDSConverters.ParseDouble(strArray[1], out numArray2[1]))
{
throw new Exception("Could not parse Frequency band: " + gear.ReadCell(workSheetNumber, "B" + j.ToString()).Split(new char[] { '-' }));
}
item.FrequencyBand = new FreqRange();
item.FrequencyBand.LowEnd = numArray2[0];
item.FrequencyBand.HighEnd = numArray2[1];
string[] strArray2 = gear.ReadCell(workSheetNumber, "D" + j.ToString()).Split(new char[] { '-' });
double[] numArray3 = new double[Math.Min(strArray2.Length, 2)];
if (((strArray2.Length < 2) || !WDSConverters.ParseDouble(strArray2[0], out numArray3[0])) || !WDSConverters.ParseDouble(strArray2[1], out numArray3[1]))
{
throw new Exception("Could not parse Xtal tolerance: " + gear.ReadCell(workSheetNumber, "D" + j.ToString()).Split(new char[] { '-' }));
}
item.CrystalTolerance = (int) ((numArray3[0] + numArray3[1]) / 2.0);
double[] numArray4 = new double[4];
WDSConverters.ParseDouble(gear.ReadCell(workSheetNumber, "F" + j.ToString()), out numArray4[0]);
WDSConverters.ParseDouble(gear.ReadCell(workSheetNumber, "G" + j.ToString()), out numArray4[1]);
WDSConverters.ParseDouble(gear.ReadCell(workSheetNumber, "H" + j.ToString()), out numArray4[2]);
WDSConverters.ParseDouble(gear.ReadCell(workSheetNumber, "I" + j.ToString()), out numArray4[3]);
item.RangeIndorMax = (int) numArray4[0];
item.RangeIndorAllowed = (int) numArray4[1];
item.RangeOutdorMax = (int) numArray4[2];
item.RangeOutdorAllowed = (int) numArray4[3];
string[] strArray3 = gear.ReadCell(workSheetNumber, "J" + j.ToString()).Split(new char[] { ';' });
double[] numArray5 = new double[Math.Min(strArray3.Length, 2)];
if (((strArray3.Length < 3) || !WDSConverters.ParseDouble(strArray3[1], out numArray5[0])) || !WDSConverters.ParseDouble(strArray3[2], out numArray5[1]))
{
throw new Exception("Could not parse TX options: " + gear.ReadCell(workSheetNumber, "J" + j.ToString()).Split(new char[] { '-' }));
}
item.AntennaType = strArray3[0];
item.ConductedPower = numArray5[0];
item.CurrentDriven = numArray5[1];
item.Description = gear.ReadCell(workSheetNumber, "K" + j.ToString());
item.Standards = gear.ReadCell(workSheetNumber, "L" + j.ToString());
if (item.Standards.Contains("~"))
{
string strValue = item.Standards.Split(new char[] { '~' })[1].Trim();
if (strValue.EndsWith("dBm"))
{
strValue = strValue.Substring(0, strValue.Length - 3);
}
double num4 = 0.0;
WDSConverters.ParseDouble(strValue, out num4);
item.DbmDiff = num4;
}
item.AntennaGain = gear.ReadCell(workSheetNumber, "M" + j.ToString());
item.TxEirps = gear.ReadCell(workSheetNumber, "N" + j.ToString());
double doubleValue = 0.0;
WDSConverters.ParseDouble(gear.ReadCell(workSheetNumber, "R" + j.ToString()), out doubleValue);
item.CurrentDriven = doubleValue;
string str2 = gear.ReadCell(workSheetNumber, "Q" + j.ToString());
byte result = 0x4f;
if (str2.StartsWith("0x") && (str2.Length >= 4))
{
byte.TryParse(str2.Substring(2, 2), NumberStyles.HexNumber, (IFormatProvider) null, out result);
}
item.PowerSetting = result;
string str3 = "";
if (item.Standards.Contains("~"))
{
str3 = item.Standards.Split(new char[] { '~' })[1];
}
else if (item.TxEirps.Contains("~"))
{
str3 = item.TxEirps.Split(new char[] { '~' })[1];
}
if ((str3 != "") && str3.EndsWith("dBm"))
{
double num7 = 0.0;
if (WDSConverters.ParseDouble(str3.Substring(0, str3.Length - 3), out num7))
{
item.ConductedPower = num7;
}
}
list.Add(item);
}
catch (Exception exception)
{
_log.Error("Could not create Si4455 Wizard configuration. " + exception.Message);
}
}
}
return list;
}
internal void load(XmlReader reader)
{
switch (reader.Name)
{
case "ChannelNumber":
ChannelNumber = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "CarrierFrequency":
Frequency = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "SymbolRate":
symbolRate = Int32.Parse(reader.ReadString(), CultureInfo.InvariantCulture);
break;
case "Modulation":
switch (reader.ReadString())
{
case "BPSK":
modulation = Modulation.BPSK;
break;
case "OQPSK":
modulation = Modulation.OQPSK;
break;
case "PSK8":
modulation = Modulation.PSK8;
break;
case "QAM1024":
modulation = Modulation.QAM1024;
break;
case "QAM112":
modulation = Modulation.QAM112;
break;
case "QAM128":
modulation = Modulation.QAM128;
break;
case "QAM16":
modulation = Modulation.QAM16;
break;
case "QAM160":
modulation = Modulation.QAM160;
break;
case "QAM192":
modulation = Modulation.QAM192;
break;
case "QAM224":
modulation = Modulation.QAM224;
break;
case "QAM256":
modulation = Modulation.QAM256;
break;
case "QAM32":
modulation = Modulation.QAM32;
break;
case "QAM320":
modulation = Modulation.QAM320;
break;
case "QAM384":
modulation = Modulation.QAM384;
break;
case "QAM448":
modulation = Modulation.QAM448;
break;
case "QAM512":
modulation = Modulation.QAM512;
break;
case "QAM64":
modulation = Modulation.QAM64;
break;
case "QAM640":
modulation = Modulation.QAM640;
break;
case "QAM768":
modulation = Modulation.QAM768;
break;
case "QAM80":
modulation = Modulation.QAM80;
break;
case "QAM896":
modulation = Modulation.QAM896;
break;
case "QAM96":
modulation = Modulation.QAM96;
break;
case "QPSK":
modulation = Modulation.QPSK;
break;
case "VSB16":
modulation = Modulation.VSB16;
break;
case "VSB8":
modulation = Modulation.VSB8;
break;
}
break;
case "InnerFecRate":
switch (reader.ReadString())
{
case "Rate1_2":
fec = new FECRate(FECRate.FECRate12);
break;
case "Rate1_3":
fec = new FECRate(FECRate.FECRate13);
break;
case "Rate1_4":
fec = new FECRate(FECRate.FECRate14);
break;
case "Rate2_3":
fec = new FECRate(FECRate.FECRate23);
break;
case "Rate2_5":
fec = new FECRate(FECRate.FECRate25);
break;
case "Rate3_4":
fec = new FECRate(FECRate.FECRate34);
break;
case "Rate3_5":
fec = new FECRate(FECRate.FECRate35);
break;
case "Rate4_5":
fec = new FECRate(FECRate.FECRate45);
break;
case "Rate5_11":
fec = new FECRate(FECRate.FECRate511);
break;
case "Rate5_6":
fec = new FECRate(FECRate.FECRate56);
break;
case "Rate6_7":
fec = new FECRate(FECRate.FECRate67);
break;
case "Rate7_8":
fec = new FECRate(FECRate.FECRate78);
break;
case "Rate8_9":
fec = new FECRate(FECRate.FECRate89);
break;
case "Rate9_10":
fec = new FECRate(FECRate.FECRate910);
break;
}
break;
case "CollectionType":
switch (reader.ReadString())
{
case "EIT":
CollectionType = CollectionType.EIT;
break;
case "MHEG5":
CollectionType = CollectionType.MHEG5;
break;
case "OPENTV":
CollectionType = CollectionType.OpenTV;
break;
case "MHW1":
CollectionType = CollectionType.MediaHighway1;
break;
case "MHW2":
CollectionType = CollectionType.MediaHighway2;
break;
case "FREESAT":
CollectionType = CollectionType.FreeSat;
break;
case "PSIP":
CollectionType = CollectionType.PSIP;
break;
case "DISHNETWORK":
CollectionType = CollectionType.DishNetwork;
break;
case "BELLTV":
CollectionType = CollectionType.BellTV;
break;
case "SIEHFERNINFO":
CollectionType = CollectionType.SiehfernInfo;
break;
}
break;
default:
break;
}
}
/// <summary>
/// Find a provider given the broadcast parameters.
/// </summary>
/// <param name="channelNumber">The channel number of the provider.</param>
/// <param name="frequency">The frequency of the provider.</param>
/// <param name="symbolRate">The symbol rate of the provider.</param>
/// <param name="fecRate">The FEC rate of the provider.</param>
/// <param name="modulation">The modulation of the provider.</param>
/// <returns>The provider or null if it cannot be located.</returns>
public static ClearQamProvider FindProvider(int channelNumber, int frequency, int symbolRate, FECRate fecRate, Modulation modulation)
{
foreach (ClearQamProvider provider in Providers)
{
foreach (ClearQamFrequency atscFrequency in provider.Frequencies)
{
if (atscFrequency.ChannelNumber == channelNumber &&
atscFrequency.Frequency == frequency &&
atscFrequency.SymbolRate == symbolRate &&
atscFrequency.FEC.Rate == fecRate.Rate &&
atscFrequency.Modulation == modulation)
return (provider);
}
}
return (null);
}
