/// <summary>
/// evenly spaced
/// </summary>
/// <param name="rows"></param>
/// <param name="columns"></param>
/// <param name="max"></param>
/// <param name="min"></param>
/// <returns></returns>
//public List<double[]> GetMeshPointsInX(int rows, int columns, double[] max, double[] min)
//{
// List<double[]> vals = new List<double[]>();
// double deltax = max[0] - min[0];
// double deltay = max[1] - min[1];
// int i, j;
// double x, y;
// for (i = 0; i < rows; i++)
// {
// y = (double)i / (double)(rows - 1) * deltay + min[1];
// for (j = 0; j < columns; j++)
// {
// x = (double)j / (double)(columns - 1) * deltax + min[0];
// double[] p = new double[3] { x, y, 0 };
// Value(ref p);
// vals.Add(p);
// }
// }
// return vals;
//}
/// <summary>
/// unevenly spaced
/// </summary>
/// <param name="rows"></param>
/// <param name="columns"></param>
/// <param name="max"></param>
/// <param name="min"></param>
/// <returns></returns>
public List<double[]> GetMeshPointsInXUneven(int rows, int columns, double[] max, double[] min)
{
List<double[]> vals = new List<double[]>();
double deltax = max[0] - min[0];
double deltay = max[1] - min[1];
int i, j;
double y, sx;
List<double[]> points = new List<double[]>();
points.Add(new double[] { 0, 0 });
points.Add(new double[] { 1.0, 0.5 });
points.Add(new double[] { 8.0, 5.0 });
points.Add(new double[] { 10.0, 10.0 });
RBFCurve rbf = new RBFCurve(null, "shaper", points, new RBFBasis.ThinPlateSpline(null), new RBFPolynomials.Linear(null), 0.0);
shaper Shape = ((double value) =>
{
double[] pnt = new double[] { 10.0*value, 0 };
rbf.Value(ref pnt);
return pnt[1]/10.0;
});
if (m_threaded)
{
try
{
int start, end;
meshArray.Clear();
for (i = 0; i < meshThreadcount; i++)
{
meshDoneEvents[i] = new ManualResetEvent(false);
start = (rows * i) / meshThreadcount;
end = ((i + 1) * rows) / meshThreadcount;
MeshThread mt = new MeshThread(this, rows, start, end, columns, deltax, deltay, min, null, meshDoneEvents[i], Shape, null);
meshArray.Add(mt);
ThreadPool.QueueUserWorkItem(mt.ThreadPoolCallback, i);
}
// Wait for all threads in pool to calculate.
foreach (var e in meshDoneEvents) e.WaitOne();
meshArray.ForEach(delegate(MeshThread m) { vals.AddRange(m.Result); });
}
catch (Exception e)
{
string message = e.Message;
}
}
else
{
for (i = 0; i < rows; i++)
{
y = (double)i / (double)(rows - 1) * deltay + min[1];
for (j = 0; j < columns; j++)
{
//x = (double)j / (double)(columns - 1) * deltax + min[0];
sx = Shape((double)j / (double)(columns - 1)) * deltax + min[0];
double[] p = new double[3] { sx, y, 0 };
Value(ref p);
vals.Add(p);
}
}
}
return vals;
}
void p1BRW_ProgressChanged(object sender, ProgressChangedEventArgs e)
{
if (p1BRW.CancellationPending == true)
Algo.Stop();
m_progBar.Value = e.ProgressPercentage;
if (e.UserState == null)
return;
List<int> bestChromo = (List<int>)e.UserState;
if (bestChromo.Count > 0)
{
List<double[]> GAPnts = new List<double[]>();
double[] result = EvalChromosome(ref bestChromo, ref GAPnts);
object curve = new object();
object plot = new object();
for (int j = 0; j < 1; j++)
{
switch (j + 1)
{
case 1:
curve = p1Curve;
plot = plotSurface2D1;
break;
case 2:
curve = p2Curve;
plot = plotSurface2D2;
break;
case 3:
curve = p3Curve;
plot = plotSurface2D3;
break;
case 4:
curve = p4Curve;
plot = plotSurface2D4;
break;
case 5:
curve = p5Curve;
plot = plotSurface2D5;
break;
case 6:
curve = p6Curve;
plot = plotSurface2D6;
break;
}
RBFCurve oldRBF = curve as RBFCurve;
CustomBasis GeneticBasis = new CustomBasis(16.383 / 2.0 - result[0], 16.383 / 2.0 - result[1], 16.383 / 2.0 - result[2], 16.383 / 2.0 - result[3]);
//List<double[]> fitpoints = new List<double[]>(oldRBF.OriginalFitPoints);
List<double[]> fitpoints = new List<double[]>(GAPnts);
if (RemoveExtraFitPoints)
{
fitpoints.RemoveAt(1);
fitpoints.RemoveAt(2);
}
RBFCurve GaRBF = new RBFCurve(null, "GA RBF", fitpoints, GeneticBasis, new Linear(null), 0.0);
NPlot.Windows.PlotSurface2D plotter = (NPlot.Windows.PlotSurface2D)plot;
plotter.Clear();
plotter.SmoothingMode = System.Drawing.Drawing2D.SmoothingMode.HighSpeed;
//Add a background grid for better chart readability.
NPlot.Grid grid = new NPlot.Grid();
grid.VerticalGridType = NPlot.Grid.GridType.Coarse;
grid.HorizontalGridType = NPlot.Grid.GridType.Coarse;
grid.MinorGridPen = new Pen(Color.Blue, 1.0f);
grid.MajorGridPen = new Pen(Color.LightGray, 1.0f);
plotter.Add(grid);
int length = oldRBF.FitPoints.Count * 5;
//Create a step plot instance for the balance chart.
LinePlot speed = new LinePlot();
LinePlot speed2 = new LinePlot();
PointPlot pplot = new PointPlot();
PointPlot pplot2 = new PointPlot();
pplot2.Marker = new Marker(Marker.MarkerType.Cross1, 10, System.Drawing.Color.Red);
speed.Pen = new Pen(Color.Blue, 1);
//Create the lists from which to pull data.
List<Int32> countaxis = new List<Int32>();
List<Int32> Pplotcountaxis = new List<Int32>();
List<Int32> Pplotcountaxis2 = new List<Int32>();
List<decimal> speedlist = new List<decimal>();
List<decimal> speedlist2 = new List<decimal>();
for (int i = 0; i < length; i++)
countaxis.Add(i);
for (int i = 0; i < oldRBF.FitPoints.Count; i++)
Pplotcountaxis.Add((int)oldRBF.OriginalFitPoints[i][0]);
for (int i = 0; i < GaRBF.FitPoints.Count; i++)
Pplotcountaxis2.Add((int)GaRBF.OriginalFitPoints[i][0]);
//Populate the balanceAmount list
double[] pnt;
List<decimal> pointsList = oldRBF.OriginalFitPoints.ConvertAll(new Converter<double[], decimal>((double[] dd) => { return Convert.ToDecimal(dd[1]); }));
List<decimal> pointsList2 = GaRBF.OriginalFitPoints.ConvertAll(new Converter<double[], decimal>((double[] dd) => { return Convert.ToDecimal(dd[1]); }));
for (int i = 0; i < length; i++)
{
pnt = new double[] { (double)i, 0 };
oldRBF.Value(ref pnt);
speedlist.Add(Convert.ToDecimal(pnt[1]));
pnt = new double[] { (double)i, 0 };
GaRBF.Value(ref pnt);
speedlist2.Add(Convert.ToDecimal(pnt[1]));
}
pplot.AbscissaData = Pplotcountaxis;
pplot.DataSource = pointsList;
pplot2.AbscissaData = Pplotcountaxis2;
pplot2.DataSource = pointsList2;
speed.AbscissaData = countaxis;
speed.DataSource = speedlist;
speed2.AbscissaData = countaxis;
speed2.DataSource = speedlist2;
//Add stepBalance to plotSurfaceBalance.
plotter.Add(speed);
plotter.Add(speed2);
plotter.Add(pplot);
plotter.Add(pplot2);
//Balance plot general settings.
plotter.ShowCoordinates = true;
plotter.AutoScaleAutoGeneratedAxes = true;
plotter.AddAxesConstraint(new AxesConstraint.AxisPosition(NPlot.PlotSurface2D.YAxisPosition.Left, 60));
plotter.YAxis1.Label = "Y";
plotter.YAxis1.LabelFont = new Font(this.Font, FontStyle.Bold);
plotter.YAxis1.LabelOffsetAbsolute = true;
plotter.XAxis1.Label = "X";
plotter.XAxis1.LabelFont = new Font(this.Font, FontStyle.Bold);
plotter.YAxis1.LabelOffset = 40;
plotter.XAxis1.HideTickText = false;
plotter.Padding = 5;
plotter.RightMenu = NPlot.Windows.PlotSurface2D.DefaultContextMenu;
plotter.AddInteraction(new NPlot.Windows.PlotSurface2D.Interactions.AxisDrag(false));
plotter.AddInteraction(new NPlot.Windows.PlotSurface2D.Interactions.HorizontalDrag());
plotter.AddInteraction(new NPlot.Windows.PlotSurface2D.Interactions.VerticalDrag());
plotter.Title = GeneticBasis.ToString();
plotter.TitleFont = new Font(this.Font, FontStyle.Bold);
//}
//Refresh surfaces.
plotter.Refresh();
}
Application.DoEvents();
}
}