static void Main(string[] args)
{
test1();
CaculateTimes caculate = new CaculateTimes();
caculate.StartTime();
//4 3 2 6 7 8 9 0
int[] nums = { 4, 3, 2, 6, 7, 8, 9, 0 };
int[] nums_2 = { 1, 2, 5, 4, 8, 6, 4, 5, 2, 3, 1 };
Complex[] complices = new Complex[nums.Length];
for (int i = 0; i < nums.Length; i++)
{
complices[i] = new Complex(nums[i], 0);
}
FourierTransform.DFT(complices, FourierTransform.Direction.Backward);
for (int i = 0; i < nums.Length; i++)
{
Console.WriteLine(complices[i].Re + " " + complices[i].Im);
}
Console.WriteLine();
Console.WriteLine("====================");
Console.WriteLine();
for (int i = 0; i < nums.Length; i++)
{
complices[i].Re = nums[i];
complices[i].Im = 0;
}
FourierTransform.FFT(complices, FourierTransform.Direction.Backward);
for (int i = 0; i < nums.Length; i++)
{
Console.WriteLine(complices[i].Re + " " + complices[i].Im);
}
Console.WriteLine(caculate.EndTime());
Console.ReadKey();
}
protected BSDataObject ProcessUsingFourierDirection(BSDataObject iObject, FourierTransform.Direction iDir)
{
Complex[] complexDataArray = (from tmp in iObject.DataArray select new Complex(tmp, 0)).ToArray();
FourierTransform.DFT(complexDataArray, iDir);
double[] resultingArray = (from tmp in complexDataArray select Math.Sqrt(tmp.Re * tmp.Re + tmp.Im * tmp.Im)).ToArray();
return(new BSDataObject(resultingArray, iObject.ObjName + "_Fouirer"));
}
public static double[] Transform(double[] functionPoints, string transformate)
{
var copyofFunctionsPoints = functionPoints;
switch (transformate)
{
case "FFT":
var complexArray = Array.ConvertAll(copyofFunctionsPoints, x => new Complex(x, 0));
FourierTransform.DFT(complexArray, FourierTransform.Direction.Forward);
copyofFunctionsPoints = Array.ConvertAll(complexArray, z => z.Real);
break;
case "IFFT":
var complexArray2 = Array.ConvertAll(copyofFunctionsPoints, x => new Complex(x, 0));
FourierTransform.DFT(complexArray2, FourierTransform.Direction.Backward);
copyofFunctionsPoints = Array.ConvertAll(complexArray2, z => z.Real);
break;
case "DST":
SineTransform.DST(copyofFunctionsPoints);
break;
case "IDST":
SineTransform.IDST(copyofFunctionsPoints);
break;
case "DCT":
CosineTransform.DCT(copyofFunctionsPoints);
break;
case "IDCT":
CosineTransform.IDCT(copyofFunctionsPoints);
break;
case "DHT":
HartleyTransform.DHT(copyofFunctionsPoints);
break;
case "FHT":
HilbertTransform.FHT(copyofFunctionsPoints,
FourierTransform.Direction.Forward);
break;
case "IFHT":
HilbertTransform.FHT(copyofFunctionsPoints,
FourierTransform.Direction.Backward);
break;
default:
throw new ArgumentException("Unknown transformation!");
}
return(copyofFunctionsPoints); //athenia programuje//dididididi//di/kocham PaciA// JJKAKAKK K
}
public (double[] real, double[] imaginary) CalculateDFT()
{
var data = GetComplexData().ToArray();
FourierTransform.DFT(data, FourierTransform.Direction.Forward);
return(data.Re(), data.Im());
}
public static void DFT(Complex[] x, int mode = 1)
{
var dir = FourierTransform.Direction.Forward;
if (mode == -1)
{
dir = FourierTransform.Direction.Backward;
}
FourierTransform.DFT(x, dir);
}
public ActionResult fftC1(Data[] json)
{
Complex[] data = new Complex[json.Length];
for (int i = 0; i < json.Length; i++)
{
var com = new Complex(json[i].Re, json[i].Im);
data[i] = com;
}
FourierTransform.DFT(data, FourierTransform.Direction.Backward);
var result = data.ToList().Select(s => new
{
Im = s.Im,
Re = s.Re,
Magnitude = s.Magnitude
}).ToArray();
return(new OkObjectResult(result));
}
private Point[] Init()
{
WAVReader wAVReader = new WAVReader();
wAVReader.ReadWAVFile(fileName);
Complex[] complices = new Complex[frame];
canvasOs.Width = this.Width;
canvasOs.Height = this.Height;
int i_0 = 0;//前面为0的部分
while (wAVReader.stereos[i_0].Left == 0 && wAVReader.stereos[i_0].Right == 0)
{
i_0++;
}
for (int i = 0; i < complices.Length; i++)
{
complices[i] = new Complex(wAVReader.stereos[i + i_0 + startNumber].Right * Hamming(i, frame), 0);
}
FourierTransform.DFT(complices, FourierTransform.Direction.Backward);
double max = 0;
Point[] points = new Point[frame];
for (int i = 0; i < points.Length; i++)
{
double x = (i * 1.0 / 44100) * unitOfOneSecond;
if (complices[i].Magnitude > max)
{
max = complices[i].Magnitude;
}
double y = TranY(complices[i].Magnitude / heightZipCount);
points[i] = new Point(x, y);
}
return(points);
}
public ActionResult fft1(string[] json)
{
Complex[] data = new Complex[json.Length];
Complex[] fft = new Complex[json.Length];
for (int i = 0; i < json.Length; i++)
{
var com = this.ParceCom(json[i]);
data[i] = com;
}
Array.Copy(data, fft, data.Length);
FourierTransform.DFT(data, FourierTransform.Direction.Backward);
var result = new
{
time = data.Select(d => new { real = d.Re, imag = d.Im }).ToArray(),
fft = fft.Select(d => new { real = d.Re, imag = d.Im }).ToArray()
};
return(Json(result));
}
private void CompileForm()
{
if (!GuideLogFilePath.Text.Contains(".log"))
{
MessageBox.Show("File not a log file");
return;
}
PrepGraphs();
//Acquire header object (XML)
LogHeaderXML xH = new LogHeaderXML(GuideLogFilePath.Text);
//Fill in basic information
BuildBox.Text = xH.Detail(xH.TheSkyXBuild);
MountBox.Text = xH.Detail(xH.Mount);
CameraBox.Text = xH.Detail(xH.Camera);
DateBox.Text = (xH.Detail(xH.LocalStartDateTime)).Split(' ')[0];
TimeBox.Text = (xH.Detail(xH.LocalStartDateTime)).Split(' ')[1];
ExposureBox.Text = (xH.Detail(xH.ExposureTime));
BinningBox.Text = (xH.Detail(xH.BinX) + " x " + xH.Detail(xH.BinY));
CalDecBox.Text = (xH.Detail(xH.Calibrationdeclination));
CurrentDecBox.Text = (xH.Detail(xH.Declinationnow));
CalPABox.Text = (xH.Detail(xH.Calibrationpositionangle));
CurrentPABox.Text = (xH.Detail(xH.Positionanglenow));
AxisControlBox.Text = xH.Detail(xH.XPlusAxis) +
" / " +
xH.Detail(xH.XMinusAxis) +
" / " +
xH.Detail(xH.YPlusAxis) +
" / " +
xH.Detail(xH.YMinusAxis);
AxisControlBox.Text = AxisControlBox.Text.Replace("Not Enabled", "Off");
AxisControlBox.Text = AxisControlBox.Text.Replace("Enabled", "On");
MountControlGroup.Text = xH.Detail(xH.Autoguide);
AggressivenessBox.Text = xH.Detail(xH.AggressivenessFactorXPlus) +
" / " +
xH.Detail(xH.AggressivenessFactorXMinus) +
" / " +
xH.Detail(xH.AggressivenessFactorYPlus) +
" / " +
xH.Detail(xH.AggressivenessFactorYMinus);
MoveBox.Text = xH.Detail(xH.MinimumMove) + " (sec) / " + xH.Detail(xH.MaximumMove) + " (sec)";
//if (Convert.ToInt16(xH.Detail("BinX") != 0) int binY = Convert.ToInt16(xH.Detail("BinY"));
// int binX = if (Convert.ToInt16(xH.Detail("BinX"));
//int binY = Convert.ToInt16(xH.Detail("BinY"));
int binX = Convert.ToInt16(xH.Detail("BinX"));
int binY = Convert.ToInt16(xH.Detail("BinY"));
double scaleX; // = 1.0 / (double)binX;
double scaleY; // = 1.0 / (double)binY;
double scaleT;
double xSlope = 0;
double ySlope = 0;
double tSlope = 0;
string scaleXString = xH.Detail("ImageScaleXatbinning" + binX.ToString("0"));
string scaleYString = xH.Detail("ImageScaleYatbinning" + binY.ToString("0"));
if (scaleXString.Contains("NA"))
{
scaleX = enteredImageScale;
}
else
{
scaleX = Convert.ToDouble(scaleXString);
}
if (scaleYString.Contains("NA"))
{
scaleY = enteredImageScale;
}
else
{
scaleY = Convert.ToDouble(scaleYString);
}
scaleT = Math.Sqrt(Math.Pow(scaleX, 2) + Math.Pow(scaleY, 2));
//double scaleT = scaleX;
ImageScaleBox.Text = scaleXString + " / " + scaleYString;
AOAggressivenessBox.Text = xH.Detail(xH.AOAggressiveness);
AORelayBumpSizeBox.Text = xH.Detail(xH.AORelayBumpSize);
AORelayThresholdBox.Text = xH.Detail(xH.AORelayThreshold);
AOSlewRateBox.Text = xH.Detail(xH.AOSlewRate);
AOTrackSizeBox.Text = xH.Detail(xH.AOTrackBoxSize);
//Acquire data from log
LogReader guideLog = new LogReader(GuideLogFilePath.Text);
//Make a complex vector of guideLog data
int vLen = guideLog.GetLogSize() - 1;
Complex[] errorValsTcplx = new Complex[vLen];
Complex[] errorValsXcplx = new Complex[vLen];
Complex[] errorValsYcplx = new Complex[vLen];
double[] errorValsTdbl = new double[vLen];
double[] errorValsXdbl = new double[vLen];
double[] errorValsYdbl = new double[vLen];
Double[] correctionXPlus = new double[vLen];
Double[] correctionXMinus = new double[vLen];
Double[] correctionYPlus = new double[vLen];
Double[] correctionYMinus = new double[vLen];
double[] wormIndexRA = new double[vLen];
double[] wormIndexDec = new double[vLen];
double[] guideStarSignal = new double[vLen];
double FFTTimeIncrement = 0; //time per sample in sec
double nowTime = 0;
//time domain plot of log data, total, X and Y, mean, and guidestarsignal
for (int i = 0; i < vLen; i++)
{
errorValsTdbl[i] = guideLog.GetLogValue(i, LogReader.LogVal.TotGuideErr) * scaleT;
errorValsXdbl[i] = guideLog.GetLogValue(i, LogReader.LogVal.GuideErrX) * scaleX;
errorValsYdbl[i] = guideLog.GetLogValue(i, LogReader.LogVal.GuideErrY) * scaleY;
correctionXPlus[i] = guideLog.GetLogValue(i, LogReader.LogVal.XPlusRelay);
correctionXMinus[i] = guideLog.GetLogValue(i, LogReader.LogVal.XMinusRelay);
correctionYPlus[i] = guideLog.GetLogValue(i, LogReader.LogVal.XPlusRelay);
correctionYMinus[i] = guideLog.GetLogValue(i, LogReader.LogVal.YMinusRelay);
wormIndexRA[i] = guideLog.GetLogValue(i, LogReader.LogVal.PECIndexRA);
wormIndexDec[i] = guideLog.GetLogValue(i, LogReader.LogVal.PECIndexDec);
guideStarSignal[i] = guideLog.GetLogValue(i, LogReader.LogVal.GuideStarSignal);
}
if (RemoveDriftCheckBox.Checked)
{
tSlope = Analysis.RemoveOffsetAndSlope(ref errorValsTdbl, false);
xSlope = Analysis.RemoveOffsetAndSlope(ref errorValsXdbl, false);
ySlope = Analysis.RemoveOffsetAndSlope(ref errorValsYdbl, false);
}
else
{
tSlope = Analysis.RemoveOffsetAndSlope(ref errorValsTdbl, true); //Slope only
xSlope = Analysis.RemoveOffsetAndSlope(ref errorValsXdbl, true); //Slope only
ySlope = Analysis.RemoveOffsetAndSlope(ref errorValsYdbl, true); //Slope only
}
for (int i = 0; i < vLen; i++)
{
errorValsTcplx[i] = new Complex(errorValsTdbl[i], 0);
errorValsXcplx[i] = new Complex(errorValsXdbl[i], 0);
errorValsYcplx[i] = new Complex(errorValsYdbl[i], 0);
}
for (int i = 0; i < vLen; i++)
{
nowTime = guideLog.GetLogValue(i, LogReader.LogVal.ElapsedSecs);
if (i < (vLen - 1))
{
FFTTimeIncrement += guideLog.GetLogValue(i + 1, LogReader.LogVal.ElapsedSecs) - nowTime;
}
tGraphT.Points.AddXY((nowTime / 60), errorValsTcplx[i].Real);
tGraphX.Points.AddXY((nowTime / 60), errorValsXcplx[i].Real);
tGraphY.Points.AddXY((nowTime / 60), errorValsYcplx[i].Real);
}
tGraphT.Color = Color.Red;
tGraphX.Color = Color.Blue;
tGraphY.Color = Color.Green;
Show();
//Determine if wormIndex data is present and post results
double pesum = 0;
for (int i = 0; i < vLen; i++)
{
pesum += (wormIndexDec[i] + wormIndexRA[i]);
}
if (pesum == 0)
{
PEIndexTextBox.Text = "No";
}
else
{
PEIndexTextBox.Text = "Yes";
}
//frequency domain plot of log data, long period and short period
FourierTransform.DFT(errorValsTcplx, FourierTransform.Direction.Forward);
FourierTransform.DFT(errorValsXcplx, FourierTransform.Direction.Forward);
FourierTransform.DFT(errorValsYcplx, FourierTransform.Direction.Forward);
//
int FFTLen = errorValsTcplx.Length;
FFTTimeIncrement /= (vLen - 1);
double FFTSampleRate = 1 / FFTTimeIncrement; //frequency increment per sample in cycles/sec
SampleRateBox.Text = FFTTimeIncrement.ToString("00.00") + " (sec) / " + FFTSampleRate.ToString("0.00") + " (cps)";
double FFTmagT = 0;
double FFTmagX = 0;
double FFTmagY = 0;
double FFTperiod = 0;
//double maxFreq = FFTFreqIncrement * (FFTLen / 2);
int maxLongPeriod = 6; //minutes
double maxShortPeriod = .5; //minutes
double[,] errorFreq = new double[FFTLen / 2, 3];
for (int i = 1; i < (FFTLen / 2); i++)
{
//fGraph.Points.Add(XPlusVals[i].Real);
//FFTmagT = Math.Pow(errorValsTcplx[i].Real, 2) + Math.Pow(errorValsTcplx[i].Imaginary, 2);
//FFTmagX = Math.Pow(errorValsXcplx[i].Real, 2) + Math.Pow(errorValsTcplx[i].Imaginary, 2);
//FFTmagY = Math.Pow(errorValsYcplx[i].Real, 2) + Math.Pow(errorValsTcplx[i].Imaginary, 2);
FFTmagT = errorValsTcplx[i].Magnitude;
FFTmagX = errorValsXcplx[i].Magnitude;
FFTmagY = errorValsYcplx[i].Magnitude;
errorFreq[i, 0] = FFTmagT;
errorFreq[i, 1] = FFTmagX;
errorFreq[i, 2] = FFTmagY;
FFTperiod = FFTLen / (i * FFTSampleRate * 60);
if (FFTperiod <= maxLongPeriod)
{
fGraphT.Points.AddXY(FFTperiod, FFTmagT);
fGraphX.Points.AddXY(FFTperiod, FFTmagX);
fGraphY.Points.AddXY(FFTperiod, FFTmagY);
fGraphT.Color = Color.Red;
fGraphX.Color = Color.Blue;
fGraphY.Color = Color.Green;
}
if (FFTperiod <= maxShortPeriod)
{
mGraphT.Points.AddXY((FFTperiod * 60), FFTmagT);
mGraphX.Points.AddXY((FFTperiod * 60), FFTmagX);
mGraphY.Points.AddXY((FFTperiod * 60), FFTmagY);
mGraphT.Color = Color.Red;
mGraphX.Color = Color.Blue;
mGraphY.Color = Color.Green;
}
}
//Calibration Plot
double xpAngle = guideLog.GetMountVelocityVector(LogReader.Calibration.XPlus, LogReader.Vector.Angle);
double xmAngle = guideLog.GetMountVelocityVector(LogReader.Calibration.XMinus, LogReader.Vector.Angle);
double ypAngle = guideLog.GetMountVelocityVector(LogReader.Calibration.YPlus, LogReader.Vector.Angle);
double ymAngle = guideLog.GetMountVelocityVector(LogReader.Calibration.YMinus, LogReader.Vector.Angle);
double xpSpeed = Math.Abs(guideLog.GetMountVelocityVector(LogReader.Calibration.XPlus, LogReader.Vector.XSpeed));
double xmSpeed = Math.Abs(guideLog.GetMountVelocityVector(LogReader.Calibration.XMinus, LogReader.Vector.XSpeed));
double ypSpeed = Math.Abs(guideLog.GetMountVelocityVector(LogReader.Calibration.YPlus, LogReader.Vector.YSpeed));
double ymSpeed = Math.Abs(guideLog.GetMountVelocityVector(LogReader.Calibration.YMinus, LogReader.Vector.YSpeed));
cGraphPX.Points.Add(0, 0);
cGraphPX.Points.AddXY(xpAngle, xpSpeed);
cGraphPX.Points[cGraphPX.Points.Count - 1].MarkerStyle = MarkerStyle.Cross;
cGraphPX.Points.Add(0, 0);
cGraphPX.Points.AddXY(xmAngle, xmSpeed);
cGraphPX.Points[cGraphPX.Points.Count - 1].MarkerStyle = MarkerStyle.Circle;
cGraphPY.Points.Add(0, 0);
cGraphPY.Points.AddXY(ypAngle, ypSpeed);
cGraphPY.Points[cGraphPY.Points.Count - 1].MarkerStyle = MarkerStyle.Cross;
cGraphPY.Points.Add(0, 0);
cGraphPY.Points.AddXY(ymAngle, ymSpeed);
cGraphPY.Points[cGraphPY.Points.Count - 1].MarkerStyle = MarkerStyle.Circle;
foreach (System.Windows.Forms.DataVisualization.Charting.DataPoint point in cGraphPX.Points)
{
if ((double)point.YValues.GetValue(0) == 0)
{
point.IsValueShownAsLabel = false;
point.MarkerStyle = MarkerStyle.None;
}
else
{
point.IsValueShownAsLabel = true;
}
}
foreach (System.Windows.Forms.DataVisualization.Charting.DataPoint point in cGraphPY.Points)
{
if ((double)point.YValues.GetValue(0) == 0)
{
point.IsValueShownAsLabel = false;
point.MarkerStyle = MarkerStyle.None;
}
else
{
point.IsValueShownAsLabel = true;
}
}
//Add vertical lines for Paramount
ChartArea CA = chart2.ChartAreas[0];
double hPeriod = 0;
if (MountBox.Text.Contains("MX"))
{
hPeriod = 229.77;
}
else if (MountBox.Text.Contains("MYT"))
{
hPeriod = 269.26;
}
else if (MountBox.Text.Contains("ME"))
{
hPeriod = 149.99;
}
if (hPeriod != 0)
{
chart2.Annotations.Clear();
double harmonic0 = hPeriod / 60;
double harmonic1 = harmonic0 / 2;
double harmonic2 = harmonic0 / 3;
double harmonic3 = harmonic0 / 4;
double harmonic4 = harmonic0 / 5;
double harmonic5 = harmonic0 / 6;
double harmonic6 = harmonic0 / 7;
double harmonic7 = harmonic0 / 8;
VerticalLineAnnotation VA0 = new VerticalLineAnnotation
{
AxisX = CA.AxisX,
AllowMoving = false,
IsInfinitive = true,
ClipToChartArea = CA.Name,
Name = "myLine0",
LineColor = Color.DarkOrange,
LineWidth = 2,
X = harmonic0
};
VerticalLineAnnotation VA1 = new VerticalLineAnnotation
{
AxisX = CA.AxisX,
AllowMoving = false,
IsInfinitive = true,
ClipToChartArea = CA.Name,
Name = "myLine1",
LineColor = Color.DarkOrange,
LineWidth = 2,
X = harmonic1
};
VerticalLineAnnotation VA2 = new VerticalLineAnnotation
{
AxisX = CA.AxisX,
AllowMoving = false,
IsInfinitive = true,
ClipToChartArea = CA.Name,
Name = "myLine2",
LineColor = Color.DarkOrange,
LineWidth = 2,
X = harmonic2
};
VerticalLineAnnotation VA3 = new VerticalLineAnnotation
{
AxisX = CA.AxisX,
AllowMoving = false,
IsInfinitive = true,
ClipToChartArea = CA.Name,
Name = "myLine3",
LineColor = Color.DarkOrange,
LineWidth = 2, // use your numbers!
X = harmonic3
};
VerticalLineAnnotation VA4 = new VerticalLineAnnotation
{
AxisX = CA.AxisX,
AllowMoving = false,
IsInfinitive = true,
ClipToChartArea = CA.Name,
Name = "myLine4",
LineColor = Color.DarkOrange,
LineWidth = 2, // use your numbers!
X = harmonic4
};
VerticalLineAnnotation VA5 = new VerticalLineAnnotation
{
AxisX = CA.AxisX,
AllowMoving = false,
IsInfinitive = true,
ClipToChartArea = CA.Name,
Name = "myLine5",
LineColor = Color.DarkOrange,
LineWidth = 2, // use your numbers!
X = harmonic5
};
VerticalLineAnnotation VA6 = new VerticalLineAnnotation
{
AxisX = CA.AxisX,
AllowMoving = false,
IsInfinitive = true,
ClipToChartArea = CA.Name,
Name = "myLine6",
LineColor = Color.DarkOrange,
LineWidth = 2, // use your numbers!
X = harmonic6
};
VerticalLineAnnotation VA7 = new VerticalLineAnnotation
{
AxisX = CA.AxisX,
AllowMoving = false,
IsInfinitive = true,
ClipToChartArea = CA.Name,
Name = "myLine7",
LineColor = Color.DarkOrange,
LineWidth = 2, // use your numbers!
X = harmonic7
};
chart2.Annotations.Add(VA0);
chart2.Annotations.Add(VA1);
chart2.Annotations.Add(VA2);
chart2.Annotations.Add(VA3);
chart2.Annotations.Add(VA4);
chart2.Annotations.Add(VA5);
chart2.Annotations.Add(VA6);
chart2.Annotations.Add(VA7);
}
Show();
//Determine the percentage of saturated star observations
double percentSat = Analysis.PercentSaturated(guideStarSignal);
double percentLost = Analysis.PercentLost(guideStarSignal);
SaturatedTextBox.Text = percentSat.ToString("0.0") + "% / " + percentLost.ToString("0.0") + "%";
//Determine percentage of moves vrs non-moves in X and Y
double movePointsXPlus = Analysis.PercentErrorsCorrected(correctionXPlus);
double movePointsXMinus = Analysis.PercentErrorsCorrected(correctionXMinus);
double movePointsYPlus = Analysis.PercentErrorsCorrected(correctionYPlus);
double movePointsYMinus = Analysis.PercentErrorsCorrected(correctionYMinus);
CorrectionEachPercentBox.Text = movePointsXPlus.ToString("0") + "% / " +
movePointsXMinus.ToString("0") + "% / " +
movePointsYPlus.ToString("0") + "% / " +
movePointsYMinus.ToString("0") + "%";
double movePointsX = Analysis.PercentErrorsCorrected(correctionXPlus, correctionXMinus);
double movePointsY = Analysis.PercentErrorsCorrected(correctionYPlus, correctionYMinus);
CorrectionXorYPercentBox.Text = movePointsX.ToString("0") + "% / " + movePointsY.ToString("0") + "%";
double movePoints = Analysis.PercentErrorsCorrected(correctionXPlus, correctionXMinus, correctionYPlus, correctionYMinus);
CorrectionXandYPercentBox.Text = movePoints.ToString("0") + "%";
Show();
double switchBackX = Analysis.PercentSwitchBacks(correctionXPlus, correctionXMinus);
double switchBackY = Analysis.PercentSwitchBacks(correctionYPlus, correctionYMinus);
SwitchBackPercentBox.Text = switchBackX.ToString("0") + "% / " + switchBackY.ToString("0") + "%";
Show();
double TrackingX = Analysis.PercentTracking(correctionXPlus, correctionXMinus);
double TrackingY = Analysis.PercentTracking(correctionYPlus, correctionYMinus);
TrackingPercentBox.Text = TrackingX.ToString("0") + "% / " + TrackingY.ToString("0") + "%";
Show();
double overshootX = Analysis.PercentOvershoot(errorValsXdbl);
double overshootY = Analysis.PercentOvershoot(errorValsYdbl);
OvershootPercentBox.Text = overshootX.ToString("0") + "% / " + overshootY.ToString("0") + "%";
Show();
double[] RMSStats = Analysis.RMSError(errorValsXdbl, errorValsYdbl, errorValsTdbl);
ErrorRMSBox.Text = RMSStats[0].ToString("0.0") + " / " + RMSStats[1].ToString("0.0") + " / " + RMSStats[2].ToString("0.0");
Show();
double[] mdrStats = Analysis.MDRStats(errorValsXcplx, errorValsYcplx, errorValsTcplx, FFTSampleRate);
//double sigToNoiseAvg = (mdrStats[0] - mdrStats[1]) / mdrStats[1];
MDRBox.Text = (mdrStats[2] * 100).ToString("0") + " %";
double[] FreqMedStats = Analysis.FrequencyMedian(errorFreq);
double iToF = FFTSampleRate / FFTLen;
FrequencyBalanceBox.Text = (1 / (iToF * FreqMedStats[0])).ToString("0") + " sec / " + (1 / (iToF * FreqMedStats[1])).ToString("0") + " sec";
AvgDriftTextBox.Text = (xSlope * 60.0 / FFTTimeIncrement).ToString("0.0") + " / " + (ySlope * 60.0 / FFTTimeIncrement).ToString("0.0") + " / " + (tSlope * 60.0 / FFTTimeIncrement).ToString("0.0");
Show();
}
private void button1_Click(object sender, EventArgs e)
{
functionXValues.Clear();
functionYValues.Clear();
spectrumXValues.Clear();
spectrumYValues.Clear();
movementXValues.Clear();
movementYValues.Clear();
this.MouseWheel += new MouseEventHandler(chart1_MouseWheel);
dynamic funcScript = CSScript.Evaluator.LoadMethod(@"double func(double t)
{" + functionScript + "}");
double func(double t)
{
return(4 * Math.Sin(2 * Math.PI * t) * Math.Sin(2 * Math.PI * t));
//return 10 * Math.Sin(200 * Math.PI * t) + 10 * Math.Sin(800 * Math.PI * t) + 10 * Math.Sin(2000 * Math.PI * t);
//return 10 * Math.Sin(100 * t) + 10 * Math.Sin(400 * t) + 10 * Math.Sin(1000 * t);
/*
* if(Math.Sin(t * Math.PI * 2) > 0)
* {
* return 1;
* }
* else
* {
* return -1;
* }
*/
//return 10 * Math.Sin(t * Math.PI * 200);
}
//FOURIER
dynamic funcPeriodScript = CSScript.Evaluator.LoadMethod(@"double period()
{" + functionPeriod + "}");
double period = funcPeriodScript.period();
const double intervals = 2;
const int howMany = 2048;
Complex[] data = new Complex[howMany];
for (int i = 0; i < howMany; ++i)
{
double functionResult = funcScript.func(period * intervals * (i / Convert.ToDouble(howMany)));
data[i] = new Complex(functionResult, 0);
}
for (double i = period / 100.0; i < period * intervals; i += period / 100.0)
{
functionYValues.Add(funcScript.func(i));
functionXValues.Add(i);
}
FourierTransform.DFT(data, FourierTransform.Direction.Forward);
double[] bins = new double[howMany];
double maxBin = 0;
for (int i = 0; i < howMany; ++i)
{
bins[i] = Math.Sqrt(data[i].Re * data[i].Re + data[i].Im * data[i].Im);
if (bins[i] > maxBin)
{
maxBin = bins[i];
}
}
double sr = howMany / (period * intervals);
for (int i = 0; i < maxXInterval; ++i)
{
movementYValues.Add(Math.Atan2(data[i].Re, data[i].Im));
movementXValues.Add((double)i * sr / howMany);
spectrumYValues.Add(bins[i] * 2);
spectrumXValues.Add((double)i * sr / howMany);
}
Spectrum.Series["Transformation"].Points.DataBindXY(spectrumXValues, spectrumYValues);
FunctionChart.Series["Function"].Points.DataBindXY(functionXValues, functionYValues);
chart1.Series["Movement"].Points.DataBindXY(movementXValues, movementYValues);
}
private void DoFourier(List <double> Data, out List <Wave> Waves, out double[] TimeVector)
{
int n = (int)Math.Floor(Data.Count * _zeroPaddingFactor);
Complex[] timeDomainSignal = new Complex[n];
Complex[] freqDomainTransform = new Complex[n];
int index = 0;
int dataIndex = 0;
for (; index < Data.Count; index++, dataIndex++)
{
timeDomainSignal[index].Re = Data[dataIndex] * _window.ValueAt(n, dataIndex);
freqDomainTransform[index].Re = timeDomainSignal[index].Re;
}
for (; index < (n - Data.Count); index++)
{
timeDomainSignal[index].Re = 0.0;
freqDomainTransform[index].Re = 0.0;
}
TimeVector = new double[(int)Math.Floor(n * _zeroPaddingFactor)];
for (int i = 0; i < n; i++)
{
TimeVector[i] = (double)i / (double)_zeroPaddingFactor;
}
switch (_fourierType)
{
case FourierType.DFT:
FourierTransform.DFT(freqDomainTransform, FourierTransform.Direction.Forward);
break;
case FourierType.FFT:
case FourierType.NotSet:
default:
FourierTransform.FFT(freqDomainTransform, FourierTransform.Direction.Forward);
break;
}
// nyquist frequency
int cutOff = (int)Math.Ceiling(n / (double)2);
// FFT is symmetric, take first half
Complex[] y1 = new Complex[cutOff];
for (int i = 0; i < cutOff; i++)
{
y1[i] = freqDomainTransform[i];
}
// compensate for the energy of the other half
for (int i = 1; i < cutOff - 1; i++)
{
y1[i] = y1[i] * 2;
}
double[] p = new double[cutOff];
for (int i = 0; i < cutOff; i++)
{
double phase = Math.Atan2(y1[i].Im, y1[i].Re);
if (i != 0)
{
if (Math.Abs(p[i - 1] - phase) > Math.PI)
{
phase = (phase > p[i - 1]) ? phase - (2 * Math.PI) : phase + (2 * Math.PI); // unwrap
}
}
p[i] = phase;
}
double[] f = new double[n]; // Frequency vector
int fIndex = 0;
for (double i = 0; fIndex < n; i += _samplingFrequency / (double)(n - 1))
{
f[fIndex] = i;
fIndex++;
}
#if DEBUG
StringBuilder sbPlot = new StringBuilder();
sbPlot.AppendLine(String.Format("{0},{1},{2},{3},{4}", "Time", "Amplitude", "Frequency", "Magnitude", "Phase (rad)"));
for (int i = 0; i < n; i++)
{
sbPlot.AppendLine(String.Format("{0},{1},{2},{3},{4}",
TimeVector[i],
timeDomainSignal[i].Re,
(i < cutOff) ? Convert.ToString(f[i]) : "",
(i < cutOff) ? Convert.ToString(Math.Sqrt(Math.Pow(y1[i].Re, 2) + Math.Pow(y1[i].Im, 2))) : "",
(i < cutOff) ? Convert.ToString(p[i]) : ""));
}
#endif
Waves = new List <Wave>();
for (int i = 0; i < cutOff; i++)
{
Wave wave = new Wave(WaveType.Cosine);
wave.Frequency = f[i];
wave.Magnitude = Math.Sqrt(Math.Pow(y1[i].Re, 2) + Math.Pow(y1[i].Im, 2));
wave.Phase = p[i];
Waves.Add(wave);
}
Waves.Sort(new WaveComparer(true));
}
private void btnCalculate_Click(object sender, EventArgs e)
{
double ka = (double)nudFWHM.Value;
// remove all computed curves
mDeconvolutedSpectra.Clear();
mFourierTransforms.Clear();
mModifiedFourierTransforms.Clear();
mFittingCurves.Clear();
foreach (var experimentalSpectrum in mSpectra)
{
// define cutoff position using narrowing factor
int cutoffPosition = (int)(experimentalSpectrum.mAbsoluteIntensities.Value.Length / (double)nudNarrowingFactor.Value);
// absolute intensities alias
var spectrum = experimentalSpectrum.mAbsoluteIntensities.Value;
// copy spectrum absolute intensities into array of complex numbers
Complex[] cdata = new Complex[spectrum.Length];
for (int i = 0; i < spectrum.Length; ++i)
{
cdata[i] = spectrum[i];
}
// do inverse fourier transform to go to time domain
FourierTransform.DFT(cdata, FourierTransform.Direction.Backward);
// add inverse fourier transform plot to the fourier chart
var fourierTransform = new RawSpectrum();
for (int i = 0; i < spectrum.Length; ++i)
{
fourierTransform.mAbsoluteIntensities.Add(cdata[i].Real);
fourierTransform.mWavelengths.Add(i);
}
mFourierTransforms.Add(fourierTransform);
// deconvolve exponential decay
for (int i = 0; i < spectrum.Length; ++i)
{
cdata[i] /= ExponentialDeconvolution(cutoffPosition * ka, i);
}
// apply apodization function
double constantScaler = 2.0f;
for (int i = 0; i < spectrum.Length; ++i)
{
double a = Apodization(cutoffPosition, i);
cdata[i] *= a * a * constantScaler;
}
// add modified fourier transform plot to the fourier chart
var modifiedFourierTransform = new RawSpectrum();
for (int i = 0; i < spectrum.Length; ++i)
{
modifiedFourierTransform.mAbsoluteIntensities.Add(cdata[i].Real);
modifiedFourierTransform.mWavelengths.Add(i);
}
mModifiedFourierTransforms.Add(modifiedFourierTransform);
// do forward fourier transform to go back to frequency domain
FourierTransform.DFT(cdata, FourierTransform.Direction.Forward);
// add deconvolved spectrum to the chart
var deconvolution = new RawSpectrum();
for (int i = 0; i < spectrum.Length; ++i)
{
deconvolution.mAbsoluteIntensities.Add(cdata[i].Real);
deconvolution.mWavelengths.Add(experimentalSpectrum.mWaveLengths.Value[i]);
}
mDeconvolutedSpectra.Add(deconvolution);
}
UpdateChart();
}
public bool Run()
{
Report = "";
DateTime from = new DateTime(DateTime.Now.Ticks);
SpectrCondition cond = new SpectrCondition(Common.Dev.Tick,
SpectrCondition.GetDefaultCondition(false, false, 0.1F, 0.1F, 20));
int[] ss = Common.Dev.Reg.GetSensorSizes();
do
{
Common.Dev.Measuring(cond, null);
for (int s = 0; s < ss.Length; s++)
{
for (int sh = 0; sh < Common.Dev.LetestResult.Count; sh++)
{
float[] dt = Common.Dev.LetestResult[sh].GetFullData()[s];
Complex[] cdt = new Complex[dt.Length];
for (int i = 0; i < dt.Length; i++)
{
cdt[i] = new Complex(dt[i]);
}
FourierTransform.DFT(cdt, FourierTransform.Direction.Forward);
double max = cdt[0].Length;
int max_ind = 0;
for (int i = 1; i < dt.Length / 2 - 1; i++)
{
if (max < cdt[i].Length)
{
max = cdt[i].Length;
max_ind = i;
}
}
if (max_ind > 0)
{
Report = "Found garmonic with period " + cdt.Length / max_ind +
" pixels on sensor " + s + " and exposition " + sh + serv.Endl;
}
}
for (int p = 0; p < ss[s]; p++)
{
double[] data = new double[Common.Dev.LetestResult.Count];
for (int sh = 0; sh < Common.Dev.LetestResult.Count; sh++)
{
data[sh] = Common.Dev.LetestResult[sh].GetFullDataNoClone()[s][p];
}
double ever = 0;
for (int i = 0; i < data.Length; i++)
{
ever += data[i];
}
ever /= data.Length;
double dlt = 0;
for (int i = 0; i < data.Length; i++)
{
dlt += Math.Sqrt(Math.Abs(data[i] - ever));
}
dlt *= dlt;
dlt /= data.Length;
dlt *= (int)nmStep.Value;
for (int i = 0; i < data.Length && Report.Length < 4000; i++)
{
if (Math.Abs(ever - data[i]) > dlt)
{
Report += "Splash found at " + (i) + " on data [";
for (int j = 0; j < data.Length; j++)
{
if (i != j)
{
Report += " " + data[j] + " ";
}
else
{
Report += "!" + data[j] + "!";
}
}
Report += "]" + serv.Endl;
}
}
}
}
} while ((DateTime.Now.Ticks - from.Ticks) / 10000000 < nmTimeOut.Value && Report.Length == 0);
Spectr sp = new Spectr(cond, Common.Env.DefaultDisp, Common.Env.DefaultOpticFk, "RundomSplashTest");
for (int i = 0; i < Common.Dev.LetestResult.Count; i++)
{
sp.Add(Common.Dev.LetestResult[i]);
}
sp.SaveAs(Common.DbNameSienceSensFolder + "\\null_noise_test");
spView.ClearSpectrList();
spView.AddSpectr(sp, "");
if (Report.Length == 0)
{
return(true);
}
else
{
return(false);
}
}//*/