public void AddSignal()
{
SignalGenerator generator = new SignalGenerator()
{
Amplitude = A,
FillFactor = Kw,
Period = T,
StartTime = T1,
JumpTime = Ts,
JumpN = Ns,
Probability = P
};
List <double> pointsX = new List <double>();
List <double> pointsY = new List <double>();
List <double> samples = new List <double>();
Func <double, double> func = null;
switch (SelectedSignalType.Substring(1, 3))
{
case "S00":
func = generator.GenerateSignalForTransform;
break;
case "S01":
func = generator.GenerateUniformDistributionNoise;
break;
case "S02":
func = generator.GenerateGaussianNoise;
break;
case "S03":
func = generator.GenerateSinusoidalSignal;
break;
case "S04":
func = generator.GenerateSinusoidal1PSignal;
break;
case "S05":
func = generator.GenerateSinusoidal2PSignal;
break;
case "S06":
func = generator.GenerateRectangularSignal;
break;
case "S07":
func = generator.GenerateRectangularSymmetricalSignal;
break;
case "S08":
func = generator.GenerateTriangularSignal;
break;
case "S09":
func = generator.GenerateUnitJump;
break;
case "S10":
func = generator.GenerateUnitPulse;
break;
case "S11":
func = generator.GenerateImpulseNoise;
break;
}
if (func != null)
{
generator.Func = func;
if (func.Method.Name.Contains("GenerateUnitPulse"))
{
for (double i = N1 * F; i <= (D + N1) * F; i++)
{
pointsX.Add(i / F);
pointsY.Add(func(i / F));
}
SampledSignal signal = new SampledSignal();
signal.Frequency = F;
signal.StartTime = N1;
signal.PointsY = pointsY;
signal.PointsX = pointsX;
signal.Name = SignalName + " - S";
AddSignal(signal);
}
else if (func.Method.Name.Contains("GenerateImpulseNoise"))
{
for (double i = N1; i <= D + N1; i += 1 / F)
{
pointsX.Add(i);
pointsY.Add(func(0));
}
SampledSignal signal = new SampledSignal();
signal.Frequency = F;
signal.StartTime = N1;
signal.PointsY = pointsY;
signal.PointsX = pointsX;
signal.Name = SignalName + " - S";
AddSignal(signal);
}
else
{
if (IsContinuous)
{
for (double i = T1; i < T1 + D; i += D / 5000)
{
pointsX.Add(i);
pointsY.Add(func(i));
}
ContinuousSignal signal = new ContinuousSignal();
signal.PointsY = pointsY;
signal.PointsX = pointsX;
signal.Name = SignalName + " - C";
AddSignal(signal);
}
if (IsSampled)
{
for (double i = T1; i < T1 + D; i += 1 / Fp)
{
samples.Add(func(i));
}
SampledSignal signal = new SampledSignal();
signal.Frequency = Fp;
signal.StartTime = T1;
signal.PointsY = samples;
signal.Name = SignalName + " - S";
signal.CalculateSamplesX();
AddSignal(signal);
}
}
}
}
public void Draw()
{
MWViewModel.SelectedTab = SelectedTab;
SignalGenerator generator = new SignalGenerator()
{
Amplitude = A,
FillFactor = Kw,
Period = T,
StartTime = T1,
JumpTime = Ts,
JumpN = Ns,
Probability = P
};
List <double> pointsX = new List <double>();
List <double> pointsY = new List <double>();
List <double> samples = new List <double>();
Func <double, double> func = null;
switch (SelectedSignalType.Substring(1, 3))
{
case "S01":
func = generator.GenerateUniformDistributionNoise;
break;
case "S02":
func = generator.GenerateGaussianNoise;
break;
case "S03":
func = generator.GenerateSinusoidalSignal;
break;
case "S04":
func = generator.GenerateSinusoidal1PSignal;
break;
case "S05":
func = generator.GenerateSinusoidal2PSignal;
break;
case "S06":
func = generator.GenerateRectangularSignal;
break;
case "S07":
func = generator.GenerateRectangularSymmetricalSignal;
break;
case "S08":
func = generator.GenerateTriangularSignal;
break;
case "S09":
func = generator.GenerateUnitJump;
break;
case "S10":
func = generator.GenerateUnitPulse;
break;
case "S11":
func = generator.GenerateImpulseNoise;
break;
case "S12":
func = generator.GenerateSignalForTransformS1;
break;
case "S13":
func = generator.GenerateSignalForTransformS2;
break;
case "S14":
func = generator.GenerateSignalForTransformS3;
break;
}
if (func != null)
{
generator.Func = func;
bool isScattered = false;
if (func.Method.Name.Contains("GenerateUnitPulse"))
{
isScattered = true;
for (double i = N1 * F; i < (D + N1) * F; i++)
{
pointsX.Add(i / F);
pointsY.Add(func(i / F));
}
MWViewModel.SelectedTab.TabContent.Data.Samples = pointsY;
MWViewModel.SelectedTab.TabContent.Data.Frequency = F;
MWViewModel.SelectedTab.TabContent.Data.StartTime = N1;
MWViewModel.SelectedTab.TabContent.LoadData(pointsX, pointsY, false);
MWViewModel.SelectedTab.TabContent.CalculateSignalInfo(N1, N1 + D, true);
}
else if (func.Method.Name.Contains("GenerateImpulseNoise"))
{
isScattered = true;
for (double i = N1; i < D + N1; i += 1 / F)
{
pointsX.Add(i);
pointsY.Add(func(0));
}
MWViewModel.SelectedTab.TabContent.Data.Samples = pointsY;
MWViewModel.SelectedTab.TabContent.Data.Frequency = F;
MWViewModel.SelectedTab.TabContent.Data.StartTime = N1;
MWViewModel.SelectedTab.TabContent.LoadData(pointsX, pointsY, false);
MWViewModel.SelectedTab.TabContent.CalculateSignalInfo(N1, N1 + D, true);
}
else
{
for (double i = T1; i < T1 + D; i += 1 / Fp)
{
samples.Add(func(i));
}
for (double i = T1; i < T1 + D; i += D / 5000)
{
pointsX.Add(i);
pointsY.Add(func(i));
}
MWViewModel.SelectedTab.TabContent.Data.Samples = samples;
MWViewModel.SelectedTab.TabContent.Data.Frequency = Fp;
MWViewModel.SelectedTab.TabContent.Data.StartTime = T1;
MWViewModel.SelectedTab.TabContent.LoadData(pointsX, pointsY, false);
MWViewModel.SelectedTab.TabContent.CalculateSignalInfo(T1, T1 + D);
}
MWViewModel.SelectedTab.TabContent.IsScattered = isScattered;
SelectedTab.TabContent.AddOriginal = false;
SelectedTab.TabContent.AddSamples = false;
MWViewModel.SelectedTab.TabContent.DrawCharts();
}
//TODO
}