/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overridden by
/// any derived class.
/// </summary>
/// <param name="transformer">Represents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
PathFigure figure = new PathFigure();
int startIndex = 0;
int endIndex = AreaPoints.Count - 1;
if (AreaPoints.Count > 0)
{
figure.StartPoint = transformer.TransformToVisible(AreaPoints[0].X, AreaPoints[0].Y);
for (int i = startIndex; i < AreaPoints.Count; i += 2)
{
WindowsLinesegment lineSeg = new WindowsLinesegment();
lineSeg.Point = transformer.TransformToVisible(AreaPoints[i].X, AreaPoints[i].Y);
figure.Segments.Add(lineSeg);
}
for (int i = endIndex; i >= 1; i -= 2)
{
WindowsLinesegment lineSeg = new WindowsLinesegment();
lineSeg.Point = transformer.TransformToVisible(AreaPoints[i].X, AreaPoints[i].Y);
figure.Segments.Add(lineSeg);
}
figure.IsClosed = true;
Series.SeriesRootPanel.Clip = null;
}
PathGeometry segmentGeometry = new PathGeometry();
segmentGeometry.Figures.Add(figure);
segPath.Data = segmentGeometry;
}
public void PlotGrid()
{
GridLines.Children.Clear();
double xStart = 5;
double xEnd = this.ActualWidth - 5;
double y = 0;
double step = GridLines.ActualHeight / (_numberogGridLines + 1);
for (int i = 0; i < _numberogGridLines; i++)
{
y += step;
PathFigure path = new PathFigure();
path.StartPoint = new Point(xStart, y);
path.IsClosed = false;
LineSegment Line = new LineSegment();
Line.Point = new Point(xEnd, y);
path.Segments.Add(Line);
PathGeometry myPath = new PathGeometry();
myPath.Figures.Add(path);
Path output = new Path();
output.Data = myPath;
output.StrokeThickness = 1;
output.Stroke = new SolidColorBrush(Windows.UI.Color.FromArgb(100, 150, 150, 150));
GridLines.Children.Add(output);
}
}
private void DrawPathGeometry()
{
//When the segment is resized the size is maintained.
PathFigure pathFigure = new PathFigure();
pathFigure.StartPoint = new Point(0, 0);
WindowsLineSegment lineSegment1 = new WindowsLineSegment();
WindowsLineSegment lineSegment2 = new WindowsLineSegment();
lineSegment1.Point = new Point(averagePathSize, averagePathSize);
pathFigure.Segments.Add(lineSegment1);
PathFigure pathFigure2 = new PathFigure();
pathFigure2.StartPoint = new Point(averagePathSize, 0);
lineSegment2.Point = new Point(0, averagePathSize);
pathFigure2.Segments.Add(lineSegment2);
PathGeometry geometry = new PathGeometry();
geometry.Figures.Add(pathFigure);
geometry.Figures.Add(pathFigure2);
averagePath.Data = geometry;
}
protected override void OnNavigatedTo(NavigationEventArgs e)
{
// Create the AppBarButton for the 'Triangle' command
AppBarButton triangle = new AppBarButton();
triangle.Label = "Triangle";
// This button will use the PathIcon class for its icon which allows us to
// use vector data to represent the icon
PathIcon trianglePathIcon = new PathIcon();
PathGeometry g = new PathGeometry();
g.FillRule = FillRule.Nonzero;
// Just create a simple triange shape
PathFigure f = new PathFigure();
f.IsFilled = true;
f.IsClosed = true;
f.StartPoint = new Windows.Foundation.Point(20.0, 5.0);
LineSegment s1 = new LineSegment();
s1.Point = new Windows.Foundation.Point(30.0, 30.0);
LineSegment s2 = new LineSegment();
s2.Point = new Windows.Foundation.Point(10.0, 30.0);
LineSegment s3 = new LineSegment();
s3.Point = new Windows.Foundation.Point(20.0, 5.0);
f.Segments.Add(s1);
f.Segments.Add(s2);
f.Segments.Add(s3);
g.Figures.Add(f);
trianglePathIcon.Data = g;
triangle.Icon = trianglePathIcon;
((CommandBar)BottomAppBar).PrimaryCommands.Insert(2, triangle);
}
public void Draw(EasingFunctionBase easingFunction)
{
canvas1.Children.Clear();
var pathSegments = new PathSegmentCollection();
for (double i = 0; i < 1; i += SamplingInterval)
{
double x = i * canvas1.Width;
double y = easingFunction.Ease(i) * canvas1.Height;
var segment = new LineSegment();
segment.Point = new Point(x, y);
pathSegments.Add(segment);
}
var p = new Path();
p.Stroke = new SolidColorBrush(Colors.Black);
p.StrokeThickness = 3;
var figures = new PathFigureCollection();
figures.Add(new PathFigure() { Segments = pathSegments });
p.Data = new PathGeometry() { Figures = figures };
canvas1.Children.Add(p);
}
/// <summary>
/// Initializes a new instance of the <see cref="ArrowLine"/> class.
/// </summary>
public ArrowLine()
{
pathGeometry = new PathGeometry();
pathFigureLine = new PathFigure();
segmentLine = new Windows.UI.Xaml.Media.LineSegment();
pathFigureLine.Segments.Add(segmentLine);
pathFigureHead = new PathFigure();
polySegmentHead = new PolyLineSegment();
pathFigureHead.Segments.Add(polySegmentHead);
}
public PiePath()
{
pathFigure = new PathFigure { IsClosed = true };
lineSegment = new LineSegment();
arcSegment = new ArcSegment { SweepDirection = SweepDirection.Clockwise };
pathFigure.Segments.Add(lineSegment);
pathFigure.Segments.Add(arcSegment);
PathGeometry pathGeometry = new PathGeometry();
pathGeometry.Figures.Add(pathFigure);
this.Data = pathGeometry;
UpdateValues();
}
/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overriden by
/// any derived class.
/// </summary>
/// <param name="transformer">Reresents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
if (!this.IsSegmentVisible)
{
segmentPath.Visibility = Visibility.Collapsed;
}
else
{
segmentPath.Visibility = Visibility.Visible;
}
Rect rect = new Rect(0, 0, transformer.Viewport.Width, transformer.Viewport.Height);
PyramidSeries series = Series as PyramidSeries;
if (rect.IsEmpty)
{
this.segmentPath.Data = null;
}
else
{
if (this.isExploded)
{
rect.X += explodedOffset;
}
double top = y;
double bottom = y + height;
double topRadius = 0.5d * (1d - y);
double bottomRadius = 0.5d * (1d - bottom);
PathFigure figure = new PathFigure();
figure.StartPoint = new Point(rect.X + topRadius * rect.Width, rect.Y + top * rect.Height);
Linesegment lineSeg1 = new Linesegment();
lineSeg1.Point = new Point(rect.X + (1 - topRadius) * rect.Width, rect.Y + top * rect.Height);
figure.Segments.Add(lineSeg1);
Linesegment lineSeg3 = new Linesegment();
lineSeg3.Point = new Point(rect.X + (1 - bottomRadius) * rect.Width, rect.Y + bottom * rect.Height - series.StrokeThickness / 2);
figure.Segments.Add(lineSeg3);
Linesegment lineSeg4 = new Linesegment();
lineSeg4.Point = new Point(rect.X + bottomRadius * rect.Width, rect.Y + bottom * rect.Height - series.StrokeThickness / 2);
figure.Segments.Add(lineSeg4);
figure.IsClosed = true;
this.segmentGeometry = new PathGeometry();
this.segmentGeometry.Figures = new PathFigureCollection()
{
figure
};
segmentPath.Data = segmentGeometry;
height = ((bottom - top) * rect.Height) / 2;
}
}
public void UpdatePath()
{
// ensure variables
if (GetValue(StartAngleProperty) == DependencyProperty.UnsetValue)
throw new ArgumentNullException("Start Angle is required");
if (GetValue(RadiusProperty) == DependencyProperty.UnsetValue)
throw new ArgumentNullException("Radius is required");
if (GetValue(AngleProperty) == DependencyProperty.UnsetValue)
throw new ArgumentNullException("Angle is required");
Width = Height = 2 * (Radius + StrokeThickness);
var endAngle = StartAngle + Angle;
// path container
var figureP = new Point(Radius, Radius);
var figure = new PathFigure
{
StartPoint = figureP,
IsClosed = true,
};
// start angle line
var lineX = Radius + Math.Sin(StartAngle * Math.PI / 180) * Radius;
var lineY = Radius - Math.Cos(StartAngle * Math.PI / 180) * Radius;
var lineP = new Point(lineX, lineY);
var line = new LineSegment { Point = lineP };
figure.Segments.Add(line);
// outer arc
var arcX = Radius + Math.Sin(endAngle * Math.PI / 180) * Radius;
var arcY = Radius - Math.Cos(endAngle * Math.PI / 180) * Radius;
var arcS = new Size(Radius, Radius);
var arcP = new Point(arcX, arcY);
var arc = new ArcSegment
{
IsLargeArc = Angle >= 180.0,
Point = arcP,
Size = arcS,
SweepDirection = SweepDirection.Clockwise,
};
figure.Segments.Add(arc);
// finalé
Data = new PathGeometry { Figures = { figure } };
InvalidateArrange();
}
private static PathGeometry CloneDeep(PathGeometry pathGeometry)
{
var newPathGeometry = new PathGeometry();
foreach (var figure in pathGeometry.Figures)
{
var newFigure = new PathFigure();
newFigure.StartPoint = figure.StartPoint;
foreach (var segment in figure.Segments)
{
var segmentAsPolyLineSegment = segment as PolyLineSegment;
if (segmentAsPolyLineSegment != null)
{
var newSegment = new PolyLineSegment();
foreach (var point in segmentAsPolyLineSegment.Points)
{
newSegment.Points.Add(point);
}
newFigure.Segments.Add(newSegment);
}
var segmentLineSegment = segment as LineSegment;
if (segmentLineSegment != null)
{
var newSegment = new LineSegment();
newSegment.Point = new Point(segmentLineSegment.Point.X, segmentLineSegment.Point.Y);
newFigure.Segments.Add(newSegment);
}
var segmentBezierSegment = segment as BezierSegment;
if (segmentBezierSegment != null)
{
var newSegment = new BezierSegment();
newSegment.Point1 = new Point(segmentBezierSegment.Point1.X, segmentBezierSegment.Point1.Y);
newSegment.Point2 = new Point(segmentBezierSegment.Point2.X, segmentBezierSegment.Point2.Y);
newSegment.Point3 = new Point(segmentBezierSegment.Point3.X, segmentBezierSegment.Point3.Y);
newFigure.Segments.Add(newSegment);
}
}
newPathGeometry.Figures.Add(newFigure);
}
return newPathGeometry;
}
/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overridden by
/// any derived class.
/// </summary>
/// <param name="transformer">Represents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
PathFigure figure = new PathFigure();
if (AreaPoints.Count > 1)
{
int endIndex = AreaPoints.Count - 1;
WindowsLineSegment lineSegment = new WindowsLineSegment();
figure.StartPoint = transformer.TransformToVisible(AreaPoints[0].X, AreaPoints[0].Y);
lineSegment.Point = transformer.TransformToVisible(AreaPoints[1].X, AreaPoints[1].Y);
figure.Segments.Add(lineSegment);
for (int i = 2; i < AreaPoints.Count - 1; i += 6)
{
BezierSegment segment = new BezierSegment();
segment.Point1 = transformer.TransformToVisible(AreaPoints[i].X, AreaPoints[i].Y);
segment.Point2 = transformer.TransformToVisible(AreaPoints[i + 1].X, AreaPoints[i + 1].Y);
segment.Point3 = transformer.TransformToVisible(AreaPoints[i + 2].X, AreaPoints[i + 2].Y);
figure.Segments.Add(segment);
}
lineSegment = new WindowsLineSegment();
lineSegment.Point = transformer.TransformToVisible(AreaPoints[endIndex].X, AreaPoints[endIndex].Y);
figure.Segments.Add(lineSegment);
for (int i = endIndex - 1; i > 1; i -= 6)
{
BezierSegment segment = new BezierSegment();
segment.Point1 = transformer.TransformToVisible(AreaPoints[i].X, AreaPoints[i].Y);
segment.Point2 = transformer.TransformToVisible(AreaPoints[i - 1].X, AreaPoints[i - 1].Y);
segment.Point3 = transformer.TransformToVisible(AreaPoints[i - 2].X, AreaPoints[i - 2].Y);
figure.Segments.Add(segment);
}
}
PathGeometry segmentGeometry = new PathGeometry();
segmentGeometry.Figures.Add(figure);
this.segPath.Data = segmentGeometry;
}
/// <summary>
/// Override for the path's redraw mehtod, controlling how the path is drawns
/// </summary>
protected override void Redraw()
{
Debug.Assert(GetValue(StartAngleProperty) != DependencyProperty.UnsetValue);
Debug.Assert(GetValue(RadiusProperty) != DependencyProperty.UnsetValue);
Debug.Assert(GetValue(AngleProperty) != DependencyProperty.UnsetValue);
Width = Height = 2 * (Radius);
var endAngle = StartAngle + Angle;
// path container
var figure = new PathFigure
{
StartPoint = new Point(Radius, Radius),
IsClosed = true,
IsFilled = true
};
// start angle line
var lineX = Radius + Math.Sin(StartAngle * Math.PI / 180) * Radius;
var lineY = Radius - Math.Cos(StartAngle * Math.PI / 180) * Radius;
var line = new LineSegment { Point = new Point(lineX, lineY) };
figure.Segments.Add(line);
// outer arc
var arcX = Radius + Math.Sin(endAngle * Math.PI / 180) * Radius;
var arcY = Radius - Math.Cos(endAngle * Math.PI / 180) * Radius;
var arc = new ArcSegment
{
IsLargeArc = Angle >= 180.0,
Point = new Point(arcX, arcY),
Size = new Size(Radius, Radius),
SweepDirection = SweepDirection.Clockwise,
};
figure.Segments.Add(arc);
Data = new PathGeometry { Figures = { figure } };
InvalidateArrange();
}
public static Geometry CreateArcGeometry(double minAngle, double maxAngle, double radius, int thickness, SweepDirection sweepDirection)
{
//the range will have 4 segments (arc, line, arc, line)
//if the sweep angle is bigger than 180 use the large arc
//first use the same sweep direction as the control. invert for the second arc.
PathFigure figure = new PathFigure();
figure.IsClosed = true;
figure.StartPoint = new Point((radius - thickness) * Math.Sin(minAngle * Math.PI / 180),
-(radius - thickness) * Math.Cos(minAngle * Math.PI / 180));
//first arc segment
ArcSegment arc = new ArcSegment();
arc.Point = new Point((radius - thickness) * Math.Sin(maxAngle * Math.PI / 180),
-(radius - thickness) * Math.Cos(maxAngle * Math.PI / 180));
arc.Size = new Size(radius - thickness, radius - thickness);
arc.SweepDirection = sweepDirection;
if (Math.Abs(maxAngle - minAngle) > 180) arc.IsLargeArc = true;
figure.Segments.Add(arc);
//first line segment
LineSegment line = new LineSegment();
line.Point = new Point(radius * Math.Sin(maxAngle * Math.PI / 180),
-radius * Math.Cos(maxAngle * Math.PI / 180));
figure.Segments.Add(line);
//second arc segment
arc = new ArcSegment();
arc.Point = new Point(radius * Math.Sin(minAngle * Math.PI / 180),
-radius * Math.Cos(minAngle * Math.PI / 180));
arc.Size = new Size(radius, radius);
arc.SweepDirection = SweepDirection.Counterclockwise;
if (sweepDirection == SweepDirection.Counterclockwise)
arc.SweepDirection = SweepDirection.Clockwise;
if (Math.Abs(maxAngle - minAngle) > 180) arc.IsLargeArc = true;
figure.Segments.Add(arc);
PathGeometry path = new PathGeometry();
path.Figures.Add(figure);
return path;
}
/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overridden by
/// any derived class.
/// </summary>
/// <param name="transformer">Represents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
ChartAxis xAxis = this.Series.ActualXAxis;
double xValue = 0;
int lastIndex = 0;
if (transformer != null)
{
if (segmentUpdated)
{
Series.SeriesRootPanel.Clip = null;
}
PathGeometry segmentGeometry = new PathGeometry();
PathFigure figure = new PathFigure();
WindowsLinesegment lineSegment;
double start = containerSeries.ActualYAxis.ActualRange.Start;
double origin = containerSeries.ActualXAxis.Origin;
if (containerSeries.ActualXAxis != null && containerSeries.ActualXAxis.Origin == 0 &&
containerSeries.ActualYAxis is LogarithmicAxis && (containerSeries.ActualYAxis as LogarithmicAxis).Minimum != null)
{
origin = (double)(containerSeries.ActualYAxis as LogarithmicAxis).Minimum;
}
origin = origin == 0d ? start < 0d ? 0d : start : origin;
figure.StartPoint = transformer.TransformToVisible(XValues[0], origin);
ResetStrokeShapes();
if (Series is PolarRadarSeriesBase && !double.IsNaN(YValues[0]))
{
figure.StartPoint = transformer.TransformToVisible(XValues[0], YValues[0]);
}
if ((Series is AreaSeries) && !(Series as AreaSeries).IsClosed && !double.IsNaN(YValues[0]))
{
this.AddStroke(transformer.TransformToVisible(XValues[0], YValues[0]));
}
else if (isEmpty)
{
this.AddStroke(figure.StartPoint);
}
var logarithmicXAxis = xAxis as LogarithmicAxis;
double rangeStart = logarithmicXAxis != null?Math.Pow(logarithmicXAxis.LogarithmicBase, xAxis.VisibleRange.Start) : xAxis.VisibleRange.Start;
double rangeEnd = logarithmicXAxis != null?Math.Pow(logarithmicXAxis.LogarithmicBase, xAxis.VisibleRange.End) : xAxis.VisibleRange.End;
for (int index = 0; index < XValues.Count; index++)
{
// UWP - 256 Aea series is fuzzy on chart if it is in zoomed state
xValue = XValues[index];
if (!(rangeStart <= xValue && rangeEnd >= xValue))
{
if (rangeStart >= xValue && index + 1 < XValues.Count &&
rangeStart <= XValues[index + 1])
{
figure.StartPoint = transformer.TransformToVisible(xValue, origin);
//To avoid stroke blur when IsClosed & Empty point stroke is false.
if ((Series is AreaSeries) && !(Series as AreaSeries).IsClosed && !double.IsNaN(YValues[0]))
{
ResetStrokeShapes();
this.AddStroke(transformer.TransformToVisible(xValue, YValues[index]));
}
else if (isEmpty)
{
ResetStrokeShapes();
this.AddStroke(figure.StartPoint);
}
}
else if (!(rangeEnd <= xValue && index - 1 > -1 &&
rangeEnd >= XValues[index - 1]))
{
continue;
}
}
if (!double.IsNaN(YValues[index]))
{
Point point = transformer.TransformToVisible(xValue, YValues[index]);
lineSegment = new WindowsLinesegment();
lineSegment.Point = point;
figure.Segments.Add(lineSegment);
if ((isEmpty && !Series.ShowEmptyPoints) || (Series is AreaSeries && !(Series as AreaSeries).IsClosed))
{
if (index > 0 && double.IsNaN(YValues[index - 1]))
{
strokeFigure = new PathFigure();
strokePolyLine = new PolyLineSegment();
strokeFigure.StartPoint = point;
strokeGeometry.Figures.Add(strokeFigure);
strokeFigure.Segments.Add(strokePolyLine);
}
strokePolyLine.Points.Add(point);
}
}
else if (XValues.Count > 1)
{
if (index > 0 && index < XValues.Count - 1)
{
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index - 1], origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(xValue, origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index + 1], origin);
figure.Segments.Add(lineSegment);
}
else if (index == 0)
{
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(xValue, origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index + 1], origin);
figure.Segments.Add(lineSegment);
}
else
{
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index - 1], origin);
figure.Segments.Add(lineSegment);
}
}
lastIndex = index;
}
if (!(Series is PolarRadarSeriesBase))
{
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[lastIndex], origin);
figure.Segments.Add(lineSegment);
if ((Series is AreaSeries && (Series as AreaSeries).IsClosed) && isEmpty && !double.IsNaN(YValues[lastIndex]))
{
strokePolyLine.Points.Add(lineSegment.Point);
}
}
segmentGeometry.Figures.Add(figure);
this.segPath.Data = segmentGeometry;
segmentUpdated = true;
}
}
/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overriden by
/// any derived class.
/// </summary>
/// <param name="transformer">Represents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
if (transformer != null)
{
if (segmentUpdated)
{
Series.SeriesRootPanel.Clip = null;
}
PathFigure figure = new PathFigure();
PathGeometry segmentGeometry = new PathGeometry();
WindowsLinesegment lineSegment;
double origin = containerSeries.ActualXAxis.Origin;
if (containerSeries.ActualXAxis != null && containerSeries.ActualXAxis.Origin == 0 &&
containerSeries.ActualYAxis is LogarithmicAxis && (containerSeries.ActualYAxis as LogarithmicAxis).Minimum != null)
{
origin = (double)(containerSeries.ActualYAxis as LogarithmicAxis).Minimum;
}
figure.StartPoint = transformer.TransformToVisible(XValues[0], origin);
strokeGeometry = new PathGeometry();
strokeFigure = new PathFigure();
strokePolyLine = new PolyLineSegment();
strokePath = new Path();
if (!containerSeries.IsClosed && !double.IsNaN(YValues[YValues.Count / 2]))
{
AddStroke(transformer.TransformToVisible(XValues[YValues.Count / 2], YValues[YValues.Count / 2]));
}
else if (isEmpty)
{
AddStroke(transformer.TransformToVisible(XValues[YValues.Count / 2 - 1], YValues[YValues.Count / 2 - 1]));
}
for (int index = 0; index < XValues.Count; index++)
{
if (!double.IsNaN(YValues[index]))
{
Point point = transformer.TransformToVisible(XValues[index], YValues[index]);
lineSegment = new WindowsLinesegment();
lineSegment.Point = point;
figure.Segments.Add(lineSegment);
if ((isEmpty && !Series.ShowEmptyPoints) || !containerSeries.IsClosed)
{
if (index > (int)(YValues.Count / 2 - 1))
{
if (double.IsNaN(YValues[index - 1]))
{
strokeFigure = new PathFigure();
strokePolyLine = new PolyLineSegment();
strokeFigure.StartPoint = point;
strokeGeometry.Figures.Add(strokeFigure);
strokeFigure.Segments.Add(strokePolyLine);
}
strokePolyLine.Points.Add(point);
}
}
}
else if (XValues.Count > 1)
{
if (index > 0 && index < XValues.Count - 1)
{
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index - 1], origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index], origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index + 1], origin);
figure.Segments.Add(lineSegment);
}
else if (index == YValues.Count - 1)
{
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index - 1], origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index], origin);
figure.Segments.Add(lineSegment);
}
else
{
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index], origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[index + 1], origin);
figure.Segments.Add(lineSegment);
}
}
}
lineSegment = new WindowsLinesegment();
lineSegment.Point = transformer.TransformToVisible(XValues[XValues.Count - 1], origin);
figure.Segments.Add(lineSegment);
if (containerSeries.IsClosed && isEmpty && !double.IsNaN(YValues[YValues.Count - 1]))
{
strokePolyLine.Points.Add(lineSegment.Point);
}
segmentGeometry.Figures.Add(figure);
this.segPath.Data = segmentGeometry;
segmentUpdated = true;
}
}
public static WMedia.Geometry ToWindows(this Geometry geometry)
{
WMedia.Geometry wGeometry = null;
if (geometry is LineGeometry)
{
LineGeometry lineGeometry = geometry as LineGeometry;
wGeometry = new WMedia.LineGeometry
{
StartPoint = lineGeometry.StartPoint.ToWindows(),
EndPoint = lineGeometry.EndPoint.ToWindows()
};
}
else if (geometry is RectangleGeometry)
{
var rect = (geometry as RectangleGeometry).Rect;
wGeometry = new WMedia.RectangleGeometry
{
Rect = new WFoundation.Rect(rect.X, rect.Y, rect.Width, rect.Height)
};
}
else if (geometry is EllipseGeometry)
{
EllipseGeometry ellipseGeometry = geometry as EllipseGeometry;
wGeometry = new WMedia.EllipseGeometry
{
Center = ellipseGeometry.Center.ToWindows(),
RadiusX = ellipseGeometry.RadiusX,
RadiusY = ellipseGeometry.RadiusY
};
}
else if (geometry is GeometryGroup)
{
GeometryGroup geometryGroup = geometry as GeometryGroup;
wGeometry = new WMedia.GeometryGroup
{
FillRule = ConvertFillRule(geometryGroup.FillRule)
};
foreach (Geometry children in geometryGroup.Children)
{
WMedia.Geometry winChild = children.ToWindows();
(wGeometry as WMedia.GeometryGroup).Children.Add(winChild);
}
}
else if (geometry is PathGeometry)
{
PathGeometry pathGeometry = geometry as PathGeometry;
WMedia.PathGeometry wPathGeometry = new WMedia.PathGeometry
{
FillRule = ConvertFillRule(pathGeometry.FillRule)
};
foreach (PathFigure xamPathFigure in pathGeometry.Figures)
{
WMedia.PathFigure wPathFigure = new WMedia.PathFigure
{
StartPoint = xamPathFigure.StartPoint.ToWindows(),
IsFilled = xamPathFigure.IsFilled,
IsClosed = xamPathFigure.IsClosed
};
wPathGeometry.Figures.Add(wPathFigure);
foreach (PathSegment pathSegment in xamPathFigure.Segments)
{
// LineSegment
if (pathSegment is LineSegment)
{
LineSegment lineSegment = pathSegment as LineSegment;
WMedia.LineSegment winSegment = new WMedia.LineSegment
{
Point = lineSegment.Point.ToWindows()
};
wPathFigure.Segments.Add(winSegment);
}
// PolylineSegment
if (pathSegment is PolyLineSegment)
{
PolyLineSegment polyLineSegment = pathSegment as PolyLineSegment;
WMedia.PolyLineSegment wSegment = new WMedia.PolyLineSegment();
foreach (var point in polyLineSegment.Points)
{
wSegment.Points.Add(point.ToWindows());
}
wPathFigure.Segments.Add(wSegment);
}
// BezierSegment
if (pathSegment is BezierSegment)
{
BezierSegment bezierSegment = pathSegment as BezierSegment;
WMedia.BezierSegment wSegment = new WMedia.BezierSegment
{
Point1 = bezierSegment.Point1.ToWindows(),
Point2 = bezierSegment.Point2.ToWindows(),
Point3 = bezierSegment.Point3.ToWindows()
};
wPathFigure.Segments.Add(wSegment);
}
// PolyBezierSegment
else if (pathSegment is PolyBezierSegment)
{
PolyBezierSegment polyBezierSegment = pathSegment as PolyBezierSegment;
WMedia.PolyBezierSegment wSegment = new WMedia.PolyBezierSegment();
foreach (var point in polyBezierSegment.Points)
{
wSegment.Points.Add(point.ToWindows());
}
wPathFigure.Segments.Add(wSegment);
}
// QuadraticBezierSegment
if (pathSegment is QuadraticBezierSegment)
{
QuadraticBezierSegment quadraticBezierSegment = pathSegment as QuadraticBezierSegment;
WMedia.QuadraticBezierSegment wSegment = new WMedia.QuadraticBezierSegment
{
Point1 = quadraticBezierSegment.Point1.ToWindows(),
Point2 = quadraticBezierSegment.Point2.ToWindows()
};
wPathFigure.Segments.Add(wSegment);
}
// PolyQuadraticBezierSegment
else if (pathSegment is PolyQuadraticBezierSegment)
{
PolyQuadraticBezierSegment polyQuadraticBezierSegment = pathSegment as PolyQuadraticBezierSegment;
WMedia.PolyQuadraticBezierSegment wSegment = new WMedia.PolyQuadraticBezierSegment();
foreach (var point in polyQuadraticBezierSegment.Points)
{
wSegment.Points.Add(point.ToWindows());
}
wPathFigure.Segments.Add(wSegment);
}
// ArcSegment
else if (pathSegment is ArcSegment)
{
ArcSegment arcSegment = pathSegment as ArcSegment;
WMedia.ArcSegment wSegment = new WMedia.ArcSegment
{
Size = new WFoundation.Size(arcSegment.Size.Width, arcSegment.Size.Height),
RotationAngle = arcSegment.RotationAngle,
IsLargeArc = arcSegment.IsLargeArc,
SweepDirection = arcSegment.SweepDirection == SweepDirection.Clockwise ? WMedia.SweepDirection.Clockwise : WMedia.SweepDirection.Counterclockwise,
Point = arcSegment.Point.ToWindows()
};
wPathFigure.Segments.Add(wSegment);
}
}
}
wGeometry = wPathGeometry;
}
return(wGeometry);
}
private Windows.UI.Xaml.Shapes.Shape MkPath(int indx, int indy, double inc)
{
double rad = BasicLib.ToRadians;
double deg = BasicLib.ToDegrees;
Path path = new Path();
path.Stroke = new SolidColorBrush(Colors.Red);
path.Name = string.Format("Lattice{0}_{1}", indx, indy);
GeometryGroup g = new GeometryGroup();
path.Data = g;
PathGeometry pg = new PathGeometry();
g.Children.Add(pg);
double startAngle = indx * repeatAngle;
foreach (Line2D ll in ld.Lines)
{
PathFigure pf = new PathFigure();
double angle1 = startAngle + ll.X1 * colAngle;
double angl1 = angle1 * rad;
double angle2 = startAngle + ll.X2 * colAngle;
double angl2 = angle2 * rad;
double rowstart = indy * ld.Layout.Height;
double y1 = ld.Layout.ToolPosition - rowstart - ll.Y1 * rowHeight;
double y2 = ld.Layout.ToolPosition - rowstart - ll.Y2 * rowHeight;
pf.StartPoint = new Point(y1 * Math.Cos(angl1),
y1 * Math.Sin(angl1));
if (ll.IsVertical)
{
LineSegment ls = new LineSegment();
ls.Point = new Point(y2 * Math.Cos(angl1),
y2 * Math.Sin(angl1));
pf.Segments.Add(ls);
}
else if (ll.IsHorizontal)
{
PolyLineSegment pls = new PolyLineSegment();
double a = angl1;
Point pnt;
do
{
pnt = new Point(y2 * Math.Cos(a), y2 * Math.Sin(a));
pls.Points.Add(pnt);
a += (angl1 < angl2) ? inc : -inc;
}
while ((angl1 < angl2) ? (a < angl2) : ( a > angl2));
if ((angl1 < angl2) ? (a != angl2) : (a != angl1))
{
a = (angl1 < angl2) ? angl2 : angl1;
pnt = new Point(y2 * Math.Cos(a), y2 * Math.Sin(a));
pls.Points.Add(pnt);
}
pf.Segments.Add(pls);
}
else // is diagonal
{
double i = 0;
PolyLineSegment pls = new PolyLineSegment();
for (i = 0; i <= 1.0; i += inc)
{
pls.Points.Add(Interp(ll.X1,y1,i,ll.X2,y2,startAngle));
}
pls.Points.Add(Interp(ll.X1, y1, 1.0, ll.X2, y2,startAngle));
pf.Segments.Add(pls);
}
pg.Figures.Add(pf);
}
return path;
}
private void UpdatePath()
{
var innerRadius = this.InnerRadius + this.StrokeThickness / 2;
var outerRadius = this.Radius - this.StrokeThickness / 2;
if (_isUpdating ||
this.ActualWidth == 0 ||
innerRadius <= 0 ||
outerRadius < innerRadius)
{
return;
}
var pathGeometry = new PathGeometry();
var pathFigure = new PathFigure();
pathFigure.IsClosed = true;
var center =
this.Center ??
new Point(
outerRadius + this.StrokeThickness / 2,
outerRadius + this.StrokeThickness / 2);
// Starting Point
pathFigure.StartPoint =
new Point(
center.X + Math.Sin(StartAngle * Math.PI / 180) * innerRadius,
center.Y - Math.Cos(StartAngle * Math.PI / 180) * innerRadius);
// Inner Arc
var innerArcSegment = new ArcSegment();
innerArcSegment.IsLargeArc = (EndAngle - StartAngle) >= 180.0;
innerArcSegment.Point =
new Point(
center.X + Math.Sin(EndAngle * Math.PI / 180) * innerRadius,
center.Y - Math.Cos(EndAngle * Math.PI / 180) * innerRadius);
innerArcSegment.Size = new Size(innerRadius, innerRadius);
innerArcSegment.SweepDirection = SweepDirection.Clockwise;
var lineSegment =
new LineSegment
{
Point = new Point(
center.X + Math.Sin(EndAngle * Math.PI / 180) * outerRadius,
center.Y - Math.Cos(EndAngle * Math.PI / 180) * outerRadius)
};
// Outer Arc
var outerArcSegment = new ArcSegment();
outerArcSegment.IsLargeArc = (EndAngle - StartAngle) >= 180.0;
outerArcSegment.Point =
new Point(
center.X + Math.Sin(StartAngle * Math.PI / 180) * outerRadius,
center.Y - Math.Cos(StartAngle * Math.PI / 180) * outerRadius);
outerArcSegment.Size = new Size(outerRadius, outerRadius);
outerArcSegment.SweepDirection = SweepDirection.Counterclockwise;
pathFigure.Segments.Add(innerArcSegment);
pathFigure.Segments.Add(lineSegment);
pathFigure.Segments.Add(outerArcSegment);
pathGeometry.Figures.Add(pathFigure);
this.InvalidateArrange();
this.Data = pathGeometry;
}
private LineSegment[] CreateSegments(float[] ews, float[] nss)
{
List<LineSegment> segments = new List<LineSegment>();
for (int i = 0; i < ews.Length; i++)
{
LineSegment seg = new LineSegment()
{
Point = new Point()
{
X = ews[i],
Y = nss[i]
}
};
segments.Add(seg);
}
return segments.ToArray();
}
private void buildPath()
{
Point centerPoint;
if (IsExploaded)
centerPoint = calculateExplodedCenterPoint();
else
centerPoint = calculateStartingCenterPoint();
if (RenderAsCircle)
this.Data = buildSingleItemPath(centerPoint);
else
{
var pf = new PathFigure();
if (InnerRadius == 0)
pf.StartPoint = centerPoint;
else
pf.StartPoint = Utils.ComputeCartesianCoordinate(StartAngle, InnerRadius).Offset(centerPoint.X, centerPoint.Y);
pf.Segments = new PathSegmentCollection();
//add start line
var startLine = new LineSegment();
startLine.Point = Utils.ComputeCartesianCoordinate(StartAngle, Radius).Offset(centerPoint.X, centerPoint.Y);
pf.Segments.Add(startLine);
//add arc segment
var arc = new ArcSegment()
{
Point = Utils.ComputeCartesianCoordinate(EndAngle, Radius).Offset(centerPoint.X, centerPoint.Y),
Size = new Windows.Foundation.Size(Radius, Radius),
SweepDirection = SweepDirection.Clockwise,
IsLargeArc = (EndAngle - StartAngle > 180),
};
pf.Segments.Add(arc);
//add closing line
var endLine = new LineSegment();
if (InnerRadius == 0)
endLine.Point = centerPoint;
else
endLine.Point = Utils.ComputeCartesianCoordinate(EndAngle, InnerRadius).Offset(centerPoint.X, centerPoint.Y);
pf.Segments.Add(endLine);
if (InnerRadius != 0)
{
//add inner arc segment
var innerArc = new ArcSegment()
{
Point = Utils.ComputeCartesianCoordinate(StartAngle, InnerRadius).Offset(centerPoint.X, centerPoint.Y),
Size = new Windows.Foundation.Size(InnerRadius, InnerRadius),
SweepDirection = SweepDirection.Counterclockwise,
IsLargeArc = (EndAngle - StartAngle > 180)
};
pf.Segments.Add(innerArc);
}
this.Data = new PathGeometry()
{
Figures = new PathFigureCollection()
{
pf
}
};
}
}
private void AddLine(Point point) //在图形中添加一条线段
{
LineSegment segment = new LineSegment();
segment.Point = point;
figure.Segments.Add(segment);
}
private void AddPoint(double x, double y) //在图形中添加一个点
{
LineSegment segment = new LineSegment();
segment.Point = new Point(x + 0.5 * StrokeThickness, y + 0.5 * StrokeThickness);
figure.Segments.Add(segment);
}
/// <summary>
/// Draws an interval for the meter
/// </summary>
/// <param name="interval">The MeterRangeInteraval which represents this range of the meter</param>
/// <param name="tickLength">The length of the ticks for this range</param>
/// <param name="group">The geometry group to add this to add this to</param>
/// <param name="startAngle"></param>
private void DrawInterval(MeterRangeInterval interval, double tickLength, GeometryGroup group, double startAngle = 0.0)
{
double startRad = interval.StartDegree*(Math.PI/180), endRad = interval.EndDegree*(Math.PI/180);
double radianInterval = (endRad - startRad) * (interval.TickInterval / (interval.EndValue - interval.StartValue));
var tickCount = (uint)((endRad - startRad)/ radianInterval);
for (var i = 0; i <= tickCount; i++)
{
var pathGeometry = new PathGeometry();
var figure = new PathFigure();
// draw tick line
double x1 = MeterRadius * Math.Sin(startAngle),
y1 = MeterRadius * Math.Cos(startAngle),
x2 = (MeterRadius + tickLength) * Math.Sin(startAngle),
y2 = (MeterRadius + tickLength) * Math.Cos(startAngle),
labelX = (MeterRadius + LabelOffset + (tickLength / 2)) * Math.Sin(startAngle),
labelY = (MeterRadius + LabelOffset + (tickLength / 2)) * Math.Cos(startAngle);
figure.StartPoint = new Point(Radius + x1, Radius - y1);
var line = new LineSegment
{
Point = new Point(Radius + x2, Radius - y2)
};
MeterTickPoints?.Add(new TickPoint() {
// midway point in the tick - the point the tick crosses the meter circle
Point = new Point(Radius + (MeterRadius * Math.Sin(startAngle)), Radius - (MeterRadius * Math.Cos(startAngle))),
LabelPoint = new Point(Radius + labelX, Radius - labelY),
Value = i * interval.TickInterval + interval.StartValue
});
figure.Segments.Add(line);
pathGeometry.Figures.Add(figure);
group.Children.Add(pathGeometry);
startAngle += radianInterval;
}
}
private void DrawLine(Serie serie)
{
//this.InvalidateMeasure(); not sure why anymore...
RemoveLine(serie);
var height = ActualHeight - (2*DrawAreaVerticalOffset);
var width = ActualWidth - (2*DrawAreaHorizontalOffset);
_drawAreaBottom = 0 + height + DrawAreaVerticalOffset;
// bottom left of drawing area, add 1 so the offset gets added below
_drawAreaLeft = 0 + DrawAreaHorizontalOffset; // left of drawing area, add 1 so the offset gets added left
_divisionX = (width/(_seriesMaxX - _seriesMinX));
Debug.WriteLine("{0} : {1} / ({2} - {3}) = {4}", Name, width, _seriesMaxX, _seriesMinX, _divisionX);
_divisionY = (height/(_seriesMaxY - _seriesMinY));
var myPath = new Path();
var myPathFigure = new PathFigure();
var myPathSegmentCollection = new PathSegmentCollection();
var myPathFigureCollection = new PathFigureCollection();
var myPathGeometry = new PathGeometry();
Point p;
// prepare for drawing by modifying y value
for (var i = 0; i < serie.Data.Count; i++) // for every datapoint in the serie
{
p = serie.Data[i];
p.X = _drawAreaLeft + (_divisionX*i);
p.Y = _drawAreaBottom - ((p.Y - _seriesMinY)*_divisionY);
// data[i] = p; NO - Keep serie data unchanged
Debug.WriteLine("{0} : ({1}) * {2} = {3}", Name, serie.Data[i], i, p.X);
if (i == 0)
{
myPathFigure.StartPoint = p;
}
else
{
var segment = new LineSegment {Point = p};
myPathSegmentCollection.Add(segment);
}
}
if (Fill) // not fully tested
{
p.Y = _drawAreaBottom - 0;
var endsegment = new LineSegment {Point = p};
myPathSegmentCollection.Add(endsegment);
}
myPathFigure.Segments = myPathSegmentCollection;
myPathFigureCollection.Add(myPathFigure);
myPathGeometry.Figures = myPathFigureCollection;
myPath.Stroke = serie.Color;
myPath.StrokeThickness = 2;
if (Fill)
{
myPath.Fill = serie.Color;
}
myPath.Data = myPathGeometry;
SetZIndex(myPath, 10);
Children.Add(myPath);
serie.UiElement = myPath;
}
public override Path CreateGrid()
{
Path _outline = base.CreateGrid();
_outline.Name = "CARTESIAN_GRID";
PathGeometry pg = new PathGeometry();
double startx = Math.Floor(_dim1.Start / _dim1.Inc) * _dim1.Inc;
double starty = Math.Floor(_dim2.Start / _dim2.Inc) * _dim2.Inc;
double endx = Math.Ceiling(_dim1.End / _dim1.Inc) * _dim1.Inc;
double endy = Math.Ceiling(_dim2.End / _dim2.Inc) * _dim2.Inc;
pg.Figures = new PathFigureCollection();
// Here we start to create the rows which are horizontal
// and range over Y which is dim2
// from (dim1.Start,y) -> (dim1.end,y)
// where y ranges from dim2.start to dim2.end
#region Create rows
if (_dim2.Start >= 0)
{
for (double y = starty; y <= endy; y += _dim2.Inc)
{
PathFigure pf = new PathFigure();
pf.StartPoint = new Point(startx, y);
pf.Segments = new PathSegmentCollection();
LineSegment l = new LineSegment();
l.Point = new Point(endx, y);
pf.Segments.Add(l);
pg.Figures.Add(pf);
}
}
else
{
for (double y = 0; y >= starty; y -= _dim2.Inc)
{
PathFigure pf = new PathFigure();
pf.StartPoint = new Point(startx, y);
pf.Segments = new PathSegmentCollection();
LineSegment l = new LineSegment();
l.Point = new Point(endx, y);
pf.Segments.Add(l);
pg.Figures.Add(pf);
}
if (_dim2.End > 0)
{
for (double y = 0; y <= endy; y += _dim2.Inc)
{
PathFigure pf = new PathFigure();
pf.StartPoint = new Point(startx, y);
pf.Segments = new PathSegmentCollection();
LineSegment l = new LineSegment();
l.Point = new Point(endx, y);
pf.Segments.Add(l);
pg.Figures.Add(pf);
}
}
}
#endregion
// Here we create the columns which are vertical
// and range over X which is dim1
// from (x,dim2.start) -> (x,dim2.End)
// where x ranges from dim1.start to dim1.end
#region Create Columns
if (_dim1.Start >= 0)
{ // both are positive so start at 0
for (double x = startx; x <= endx; x += _dim1.Inc)
{
PathFigure pf = new PathFigure();
pf.StartPoint = new Point(x, starty);
pf.Segments = new PathSegmentCollection();
LineSegment l = new LineSegment();
l.Point = new Point(x, endy);
pf.Segments.Add(l);
pg.Figures.Add(pf);
}
}
else // starting value is negative
{ // here go from 0 down to negative starting value
for (double x = 0; x >= startx; x -= _dim1.Inc)
{
PathFigure pf = new PathFigure();
pf.StartPoint = new Point(x, starty);
pf.Segments = new PathSegmentCollection();
LineSegment l = new LineSegment();
l.Point = new Point(x, endy);
pf.Segments.Add(l);
pg.Figures.Add(pf);
}
if (_dim1.End > 0)
{
//go from 0 to End
for (double x = 0; x <= endx; x += _dim1.Inc)
{
PathFigure pf = new PathFigure();
pf.StartPoint = new Point(x, starty);
pf.Segments = new PathSegmentCollection();
LineSegment l = new LineSegment();
l.Point = new Point(x, endy);
pf.Segments.Add(l);
pg.Figures.Add(pf);
}
}
}
#endregion
_outline.Data = pg;
return _outline;
}
private void DrawGridLines(double width, double height, double overhangX, double overhangY, double spacingX = 10, double spacingY = 10) {
if (width == 0 || height == 0) return;
PathFigureCollection myPathFigureCollection = new PathFigureCollection();
//horizontal
var max = ((height + overhangY) / spacingY);
for (int y = 0; y < max; y++) {
var yPos = y * spacingY;
LineSegment myLineSegment = new LineSegment();
PathFigure myPathFigure = new PathFigure();
PathSegmentCollection myPathSegmentCollection = new PathSegmentCollection();
myPathFigure.StartPoint = new Point(0, yPos);
myLineSegment.Point = new Point(width + overhangX, yPos);
myPathSegmentCollection.Add(myLineSegment);
myPathFigure.Segments = myPathSegmentCollection;
if (y > 0 && y < max-1) myPathFigureCollection.Add(myPathFigure);
}
//vertical
max = ((width + overhangX) / spacingX);
for (int x = 0; x < max; x++)
{
var xPos = x * spacingX;
LineSegment myLineSegment = new LineSegment();
PathFigure myPathFigure = new PathFigure();
PathSegmentCollection myPathSegmentCollection = new PathSegmentCollection();
myPathFigure.StartPoint = new Point(xPos, 0);
myLineSegment.Point = new Point(xPos, height + overhangY);
myPathSegmentCollection.Add(myLineSegment);
myPathFigure.Segments = myPathSegmentCollection;
if (x > 0 && x < max-1) myPathFigureCollection.Add(myPathFigure);
}
PathGeometry myPathGeometry = new PathGeometry();
myPathGeometry.Figures = myPathFigureCollection;
pthGridLines.Stroke = new SolidColorBrush(Colors.CornflowerBlue);
pthGridLines.StrokeThickness = 1;
pthGridLines.Data = myPathGeometry;
}
private void Draw()
{
if (ActualHeight > 0)
{
FreeLabel.FontSize = ActualHeight*0.25;
}
var value = double.NaN;
var lot = ParkingLot;
if (lot != null && lot.TotalLots != 0)
{
value = ((double)lot.FreeLots) / ((double)lot.TotalLots);
}
if (double.IsNaN(value) || double.IsInfinity(value))
{
ValueInvertedCircle.Visibility = ValuePath.Visibility = Visibility.Collapsed;
FreeLabel.Text = "?";
if (lot != null)
{
PlayAnimation();
}
return;
}
if (value < 0)
{
value = 0;
}else if (value > 1)
{
value = 1;
}
ValueInvertedCircle.Visibility = ValuePath.Visibility = Visibility.Visible;
FreeLabel.Text = Math.Round(value * 100) + "%";
ValuePath.SetValue(Path.DataProperty, null);
var pg = new PathGeometry();
var fig = new PathFigure();
var height = ActualHeight;
var width = ActualWidth;
var radius = height / 2;
var theta = (360 * value) - 90;
var xC = radius;
var yC = radius;
if (value == 1) theta += 1;
var finalPointX = xC + (radius * Math.Cos(theta * 0.0174));
var finalPointY = yC + (radius * Math.Sin(theta * 0.0174));
fig.StartPoint = new Point(radius, radius);
var firstLine = new LineSegment {Point = new Point(radius, 0)};
fig.Segments.Add(firstLine);
if (value > 0.25)
{
var firstQuart = new ArcSegment
{
Point = new Point(width, radius),
SweepDirection = SweepDirection.Clockwise,
Size = new Size(radius, radius)
};
fig.Segments.Add(firstQuart);
}
if (value > 0.5)
{
var secondQuart = new ArcSegment
{
Point = new Point(radius, height),
SweepDirection = SweepDirection.Clockwise,
Size = new Size(radius, radius)
};
fig.Segments.Add(secondQuart);
}
if (value > 0.75)
{
var thirdQuart = new ArcSegment
{
Point = new Point(0, radius),
SweepDirection = SweepDirection.Clockwise,
Size = new Size(radius, radius)
};
fig.Segments.Add(thirdQuart);
}
var finalQuart = new ArcSegment
{
Point = new Point(finalPointX, finalPointY),
SweepDirection = SweepDirection.Clockwise,
Size = new Size(radius, radius)
};
fig.Segments.Add(finalQuart);
var lastLine = new LineSegment {Point = new Point(radius, radius)};
fig.Segments.Add(lastLine);
pg.Figures.Add(fig);
ValuePath.SetValue(Path.DataProperty, pg);
PlayAnimation();
}
/// <summary>
/// Main parser routine, which loops over each char in received string, and performs actions according to command/parameter being passed
/// </summary>
/// <param name="path">String with path data definition</param>
/// <returns>PathGeometry object created from string definition</returns>
private PathGeometry Parse(string path)
{
PathGeometry pathGeometry = null;
_formatProvider = CultureInfo.InvariantCulture;
_pathString = path;
_pathLength = path.Length;
_curIndex = 0;
_secondLastPoint = new Point(0, 0);
_lastPoint = new Point(0, 0);
_lastStart = new Point(0, 0);
_figureStarted = false;
var first = true;
var lastCmd = ' ';
while (ReadToken()) // Empty path is allowed in XAML
{
char cmd = _token;
if (first)
{
if ((cmd != 'M') && (cmd != 'm') && (cmd != 'f') && (cmd != 'F')) // Path starts with M|m
{
ThrowBadToken();
}
first = false;
}
switch (cmd)
{
case 'f':
case 'F':
pathGeometry = new PathGeometry();
var num = ReadNumber(!AllowComma);
// ReSharper disable once CompareOfFloatsByEqualityOperator
pathGeometry.FillRule = num == 0 ? FillRule.EvenOdd : FillRule.Nonzero;
break;
case 'm':
case 'M':
// XAML allows multiple points after M/m
_lastPoint = ReadPoint(cmd, !AllowComma);
_figure = new PathFigure
{
StartPoint = _lastPoint,
IsFilled = IsFilled,
IsClosed = !IsClosed
};
//context.BeginFigure(_lastPoint, IsFilled, !IsClosed);
_figureStarted = true;
_lastStart = _lastPoint;
lastCmd = 'M';
while (IsNumber(AllowComma))
{
_lastPoint = ReadPoint(cmd, !AllowComma);
var lineSegment = new LineSegment {Point = _lastPoint};
_figure.Segments.Add(lineSegment);
//context.LineTo(_lastPoint, IsStroked, !IsSmoothJoin);
lastCmd = 'L';
}
break;
case 'l':
case 'L':
case 'h':
case 'H':
case 'v':
case 'V':
EnsureFigure();
do
{
switch (cmd)
{
case 'l': _lastPoint = ReadPoint(cmd, !AllowComma); break;
case 'L': _lastPoint = ReadPoint(cmd, !AllowComma); break;
case 'h': _lastPoint.X += ReadNumber(!AllowComma); break;
case 'H': _lastPoint.X = ReadNumber(!AllowComma); break;
case 'v': _lastPoint.Y += ReadNumber(!AllowComma); break;
case 'V': _lastPoint.Y = ReadNumber(!AllowComma); break;
}
var lineSegment = new LineSegment {Point = _lastPoint};
_figure.Segments.Add(lineSegment);
//context.LineTo(_lastPoint, IsStroked, !IsSmoothJoin);
}
while (IsNumber(AllowComma));
lastCmd = 'L';
break;
case 'c':
case 'C': // cubic Bezier
case 's':
case 'S': // smooth cublic Bezier
EnsureFigure();
do
{
Point p;
if ((cmd == 's') || (cmd == 'S'))
{
p = lastCmd == 'C' ? Reflect() : _lastPoint;
_secondLastPoint = ReadPoint(cmd, !AllowComma);
}
else
{
p = ReadPoint(cmd, !AllowComma);
_secondLastPoint = ReadPoint(cmd, AllowComma);
}
_lastPoint = ReadPoint(cmd, AllowComma);
var bizierSegment = new BezierSegment
{
Point1 = p,
Point2 = _secondLastPoint,
Point3 = _lastPoint
};
_figure.Segments.Add(bizierSegment);
//context.BezierTo(p, _secondLastPoint, _lastPoint, IsStroked, !IsSmoothJoin);
lastCmd = 'C';
}
while (IsNumber(AllowComma));
break;
case 'q':
case 'Q': // quadratic Bezier
case 't':
case 'T': // smooth quadratic Bezier
EnsureFigure();
do
{
if ((cmd == 't') || (cmd == 'T'))
{
_secondLastPoint = lastCmd == 'Q' ? Reflect() : _lastPoint;
_lastPoint = ReadPoint(cmd, !AllowComma);
}
else
{
_secondLastPoint = ReadPoint(cmd, !AllowComma);
_lastPoint = ReadPoint(cmd, AllowComma);
}
var quadraticBezierSegment = new QuadraticBezierSegment
{
Point1 = _secondLastPoint,
Point2 = _lastPoint
};
_figure.Segments.Add(quadraticBezierSegment);
//context.QuadraticBezierTo(_secondLastPoint, _lastPoint, IsStroked, !IsSmoothJoin);
lastCmd = 'Q';
}
while (IsNumber(AllowComma));
break;
case 'a':
case 'A':
EnsureFigure();
do
{
// A 3,4 5, 0, 0, 6,7
var w = ReadNumber(!AllowComma);
var h = ReadNumber(AllowComma);
var rotation = ReadNumber(AllowComma);
var large = ReadBool();
var sweep = ReadBool();
_lastPoint = ReadPoint(cmd, AllowComma);
var arcSegment = new ArcSegment
{
Point = _lastPoint,
Size = new Size(w, h),
RotationAngle = rotation,
IsLargeArc = large,
SweepDirection = sweep ? SweepDirection.Clockwise : SweepDirection.Counterclockwise
};
_figure.Segments.Add(arcSegment);
//context.ArcTo(
// _lastPoint,
// new Size(w, h),
// rotation,
// large,
// sweep ? SweepDirection.Clockwise : SweepDirection.Counterclockwise,
// IsStroked,
// !IsSmoothJoin
// );
}
while (IsNumber(AllowComma));
lastCmd = 'A';
break;
case 'z':
case 'Z':
EnsureFigure();
_figure.IsClosed = IsClosed;
//context.SetClosedState(IsClosed);
_figureStarted = false;
lastCmd = 'Z';
_lastPoint = _lastStart; // Set reference point to be first point of current figure
break;
default:
ThrowBadToken();
break;
}
if (null != _figure)
{
if (_figure.IsClosed)
{
if (null == pathGeometry)
pathGeometry = new PathGeometry();
pathGeometry.Figures.Add(_figure);
_figure = null;
first = true;
}
}
}
if (null != _figure)
{
if (null == pathGeometry)
pathGeometry = new PathGeometry();
if (!pathGeometry.Figures.Contains(_figure))
pathGeometry.Figures.Add(_figure);
}
return pathGeometry;
}
private Point DrawLine(Grid container, Brush Palette, double linethickness, Point prevPoint, LineDataPoint DataPoint)
{
Point Current = getLinePlottingPoint(DataPoint);
Point[] LinePoints = Utilities.GetLinePointsOnCircle(prevPoint, Current, DataPoint.CircleRadius);
PathFigure path = new PathFigure();
path.StartPoint = LinePoints[0];
path.IsClosed = false;
LineSegment Line = new LineSegment();
Line.Point = LinePoints[1];
path.Segments.Add(Line);
PathGeometry myPath = new PathGeometry();
myPath.Figures.Add(path);
Path output = new Path();
output.Data = myPath;
output.StrokeThickness = linethickness;
output.Stroke = Palette;
container.Children.Add(output);
prevPoint = Current;
return prevPoint;
}
/// <summary>
/// Initializes a new instance of the <see cref="Arc"/> class"
/// </summary>
public Arc()
{
this.Stroke = new SolidColorBrush(Colors.White);
this.StrokeThickness = 2;
this.Fill = new SolidColorBrush(Colors.Red);
this.UseLayoutRounding = true;
this.pathGeometry = new PathGeometry();
this.pathFigure = new PathFigure();
this.pathFigure.IsClosed = true;
this.pathFigure.IsFilled = true;
this.arcSegment = new ArcSegment();
this.arcSegment.IsLargeArc = false;
this.arcSegment.SweepDirection = SweepDirection.Clockwise;
this.lineSegment = new LineSegment();
this.pathFigure.Segments.Add(this.arcSegment);
this.pathFigure.Segments.Add(this.lineSegment);
this.pathGeometry.Figures.Add(this.pathFigure);
this.Data = this.pathGeometry;
this.ellipseGeometry = new EllipseGeometry();
this.Tapped += this.OnArcTapped;
}
/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overriden by
/// any derived class.
/// </summary>
/// <param name="transformer">Reresents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
if (!this.IsSegmentVisible)
{
segmentPath.Visibility = Visibility.Collapsed;
}
else
{
segmentPath.Visibility = Visibility.Visible;
}
Rect rect = new Rect(0, 0, transformer.Viewport.Width, transformer.Viewport.Height);
if (rect.IsEmpty)
{
segmentPath.Data = null;
}
else
{
if (this.IsExploded)
{
rect.X = this.explodedOffset;
}
PathFigure figure = new PathFigure();
FunnelSeries series = Series as FunnelSeries;
if (series == null)
{
return;
}
double minRadius = 0.5 * (1d - minimumWidth / rect.Width);
bool isBroken = (topRadius >= minRadius) ^ (bottomRadius > minRadius) && series.FunnelMode == ChartFunnelMode.ValueIsHeight;
double bottomY = minRadius * (bottom - top) / (bottomRadius - topRadius);
topRadius = Math.Min(topRadius, minRadius);
bottomRadius = Math.Min(bottomRadius, minRadius);
figure.StartPoint = new Point(rect.X + topRadius * rect.Width, rect.Y + top * rect.Height);
Linesegment lineSeg1 = new Linesegment();
lineSeg1.Point = new Point(rect.X + (1 - topRadius) * rect.Width, rect.Y + top * rect.Height);
figure.Segments.Add(lineSeg1);
if (isBroken)
{
Linesegment lineSeg2 = new Linesegment();
lineSeg2.Point = new Point(rect.X + (1 - minRadius) * rect.Width, rect.Y + bottomY * rect.Height);
figure.Segments.Add(lineSeg2);
}
Linesegment lineSeg3 = new Linesegment();
lineSeg3.Point = new Point(rect.X + (1 - bottomRadius) * rect.Width, rect.Y + bottom * rect.Height - series.StrokeThickness / 2);
figure.Segments.Add(lineSeg3);
Linesegment lineSeg4 = new Linesegment();
lineSeg4.Point = new Point(rect.X + bottomRadius * rect.Width, rect.Y + bottom * rect.Height - series.StrokeThickness / 2);
figure.Segments.Add(lineSeg4);
if (isBroken)
{
Linesegment lineSeg5 = new Linesegment();
lineSeg5.Point = new Point(rect.X + minRadius * rect.Width, rect.Y + bottomY * rect.Height);
figure.Segments.Add(lineSeg5);
}
figure.IsClosed = true;
this.segmentGeometry = new PathGeometry();
this.segmentGeometry.Figures = new PathFigureCollection()
{
figure
};
segmentPath.Data = segmentGeometry;
height = ((bottom - top) * rect.Height) / 2;
}
}
/// <summary>
/// Main parser routine, which loops over each char in received string, and performs actions according to command/parameter being passed
/// </summary>
/// <param name="path">String with path data definition</param>
/// <returns>PathGeometry object created from string definition</returns>
private PathGeometry parse(string path)
{
PathGeometry _pathGeometry = null;
_formatProvider = CultureInfo.InvariantCulture;
_pathString = path;
_pathLength = path.Length;
_curIndex = 0;
_secondLastPoint = new Point(0, 0);
_lastPoint = new Point(0, 0);
_lastStart = new Point(0, 0);
_figureStarted = false;
bool first = true;
char last_cmd = ' ';
while (ReadToken()) // Empty path is allowed in XAML
{
char cmd = _token;
if (first)
{
if ((cmd != 'M') && (cmd != 'm')) // Path starts with M|m
{
ThrowBadToken();
}
first = false;
}
switch (cmd)
{
case 'm':
case 'M':
// XAML allows multiple points after M/m
_lastPoint = ReadPoint(cmd, !AllowComma);
_figure = new PathFigure();
_figure.StartPoint = _lastPoint;
_figure.IsFilled = IsFilled;
_figure.IsClosed = !IsClosed;
//context.BeginFigure(_lastPoint, IsFilled, !IsClosed);
_figureStarted = true;
_lastStart = _lastPoint;
last_cmd = 'M';
while (IsNumber(AllowComma))
{
_lastPoint = ReadPoint(cmd, !AllowComma);
LineSegment _lineSegment = new LineSegment();
_lineSegment.Point = _lastPoint;
_figure.Segments.Add(_lineSegment);
//context.LineTo(_lastPoint, IsStroked, !IsSmoothJoin);
last_cmd = 'L';
}
break;
case 'l':
case 'L':
case 'h':
case 'H':
case 'v':
case 'V':
EnsureFigure();
do
{
switch (cmd)
{
case 'l': _lastPoint = ReadPoint(cmd, !AllowComma); break;
case 'L': _lastPoint = ReadPoint(cmd, !AllowComma); break;
case 'h': _lastPoint.X += ReadNumber(!AllowComma); break;
case 'H': _lastPoint.X = ReadNumber(!AllowComma); break;
case 'v': _lastPoint.Y += ReadNumber(!AllowComma); break;
case 'V': _lastPoint.Y = ReadNumber(!AllowComma); break;
}
LineSegment _lineSegment = new LineSegment();
_lineSegment.Point = _lastPoint;
_figure.Segments.Add(_lineSegment);
//context.LineTo(_lastPoint, IsStroked, !IsSmoothJoin);
}
while (IsNumber(AllowComma));
last_cmd = 'L';
break;
case 'c':
case 'C': // cubic Bezier
case 's':
case 'S': // smooth cublic Bezier
EnsureFigure();
do
{
Point p;
if ((cmd == 's') || (cmd == 'S'))
{
if (last_cmd == 'C')
{
p = Reflect();
}
else
{
p = _lastPoint;
}
_secondLastPoint = ReadPoint(cmd, !AllowComma);
}
else
{
p = ReadPoint(cmd, !AllowComma);
_secondLastPoint = ReadPoint(cmd, AllowComma);
}
_lastPoint = ReadPoint(cmd, AllowComma);
BezierSegment _bizierSegment = new BezierSegment();
_bizierSegment.Point1 = p;
_bizierSegment.Point2 = _secondLastPoint;
_bizierSegment.Point3 = _lastPoint;
_figure.Segments.Add(_bizierSegment);
//context.BezierTo(p, _secondLastPoint, _lastPoint, IsStroked, !IsSmoothJoin);
last_cmd = 'C';
}
while (IsNumber(AllowComma));
break;
case 'q':
case 'Q': // quadratic Bezier
case 't':
case 'T': // smooth quadratic Bezier
EnsureFigure();
do
{
if ((cmd == 't') || (cmd == 'T'))
{
if (last_cmd == 'Q')
{
_secondLastPoint = Reflect();
}
else
{
_secondLastPoint = _lastPoint;
}
_lastPoint = ReadPoint(cmd, !AllowComma);
}
else
{
_secondLastPoint = ReadPoint(cmd, !AllowComma);
_lastPoint = ReadPoint(cmd, AllowComma);
}
QuadraticBezierSegment _quadraticBezierSegment = new QuadraticBezierSegment();
_quadraticBezierSegment.Point1 = _secondLastPoint;
_quadraticBezierSegment.Point2 = _lastPoint;
_figure.Segments.Add(_quadraticBezierSegment);
//context.QuadraticBezierTo(_secondLastPoint, _lastPoint, IsStroked, !IsSmoothJoin);
last_cmd = 'Q';
}
while (IsNumber(AllowComma));
break;
case 'a':
case 'A':
EnsureFigure();
do
{
// A 3,4 5, 0, 0, 6,7
double w = ReadNumber(!AllowComma);
double h = ReadNumber(AllowComma);
double rotation = ReadNumber(AllowComma);
bool large = ReadBool();
bool sweep = ReadBool();
_lastPoint = ReadPoint(cmd, AllowComma);
ArcSegment _arcSegment = new ArcSegment();
_arcSegment.Point = _lastPoint;
_arcSegment.Size = new Size(w, h);
_arcSegment.RotationAngle = rotation;
_arcSegment.IsLargeArc = large;
_arcSegment.SweepDirection = sweep ? SweepDirection.Clockwise : SweepDirection.Counterclockwise;
_figure.Segments.Add(_arcSegment);
//context.ArcTo(
// _lastPoint,
// new Size(w, h),
// rotation,
// large,
// sweep ? SweepDirection.Clockwise : SweepDirection.Counterclockwise,
// IsStroked,
// !IsSmoothJoin
// );
}
while (IsNumber(AllowComma));
last_cmd = 'A';
break;
case 'z':
case 'Z':
EnsureFigure();
_figure.IsClosed = IsClosed;
//context.SetClosedState(IsClosed);
_figureStarted = false;
last_cmd = 'Z';
_lastPoint = _lastStart; // Set reference point to be first point of current figure
break;
default:
ThrowBadToken();
break;
}
}
if (null != _figure)
{
_pathGeometry = new PathGeometry();
_pathGeometry.Figures.Add(_figure);
}
return _pathGeometry;
}
public object ConvertToNative(Geometry geometry)
{
winMedia.Geometry winGeometry = null;
// Determine what type of geometry we're dealing with.
if (geometry is LineGeometry)
{
LineGeometry xamGeometry = geometry as LineGeometry;
winGeometry = new winMedia.LineGeometry
{
StartPoint = ConvertPoint(xamGeometry.StartPoint),
EndPoint = ConvertPoint(xamGeometry.EndPoint)
};
}
else if (geometry is RectangleGeometry)
{
Rect rect = (geometry as RectangleGeometry).Rect;
winGeometry = new winMedia.RectangleGeometry
{
Rect = new winFound.Rect(rect.X, rect.Y, rect.Width, rect.Height)
};
}
else if (geometry is EllipseGeometry)
{
EllipseGeometry xamGeometry = geometry as EllipseGeometry;
winGeometry = new winMedia.EllipseGeometry
{
Center = ConvertPoint(xamGeometry.Center),
RadiusX = xamGeometry.RadiusX,
RadiusY = xamGeometry.RadiusY
};
}
else if (geometry is GeometryGroup)
{
GeometryGroup xamGeometry = geometry as GeometryGroup;
winGeometry = new winMedia.GeometryGroup
{
FillRule = ConvertFillRule(xamGeometry.FillRule)
};
foreach (Geometry xamChild in xamGeometry.Children)
{
winMedia.Geometry winChild = ConvertToNative(xamChild) as winMedia.Geometry;
(winGeometry as winMedia.GeometryGroup).Children.Add(winChild);
}
}
else if (geometry is PathGeometry)
{
PathGeometry xamPathGeometry = geometry as PathGeometry;
winMedia.PathGeometry winPathGeometry = new winMedia.PathGeometry
{
FillRule = ConvertFillRule(xamPathGeometry.FillRule)
};
foreach (PathFigure xamPathFigure in xamPathGeometry.Figures)
{
winMedia.PathFigure winPathFigure = new winMedia.PathFigure
{
StartPoint = ConvertPoint(xamPathFigure.StartPoint),
IsFilled = xamPathFigure.IsFilled,
IsClosed = xamPathFigure.IsClosed
};
winPathGeometry.Figures.Add(winPathFigure);
foreach (PathSegment xamPathSegment in xamPathFigure.Segments)
{
// LineSegment
if (xamPathSegment is LineSegment)
{
LineSegment xamSegment = xamPathSegment as LineSegment;
winMedia.LineSegment winSegment = new winMedia.LineSegment
{
Point = ConvertPoint(xamSegment.Point)
};
winPathFigure.Segments.Add(winSegment);
}
// PolylineSegment
if (xamPathSegment is PolyLineSegment)
{
PolyLineSegment xamSegment = xamPathSegment as PolyLineSegment;
winMedia.PolyLineSegment winSegment = new winMedia.PolyLineSegment();
foreach (Point point in xamSegment.Points)
{
winSegment.Points.Add(ConvertPoint(point));
}
winPathFigure.Segments.Add(winSegment);
}
// BezierSegment
if (xamPathSegment is BezierSegment)
{
BezierSegment xamSegment = xamPathSegment as BezierSegment;
winMedia.BezierSegment winSegment = new winMedia.BezierSegment
{
Point1 = ConvertPoint(xamSegment.Point1),
Point2 = ConvertPoint(xamSegment.Point2),
Point3 = ConvertPoint(xamSegment.Point3)
};
winPathFigure.Segments.Add(winSegment);
}
// PolyBezierSegment
else if (xamPathSegment is PolyBezierSegment)
{
PolyBezierSegment xamSegment = xamPathSegment as PolyBezierSegment;
winMedia.PolyBezierSegment winSegment = new winMedia.PolyBezierSegment();
foreach (Point point in xamSegment.Points)
{
winSegment.Points.Add(ConvertPoint(point));
}
winPathFigure.Segments.Add(winSegment);
}
// QuadraticBezierSegment
if (xamPathSegment is QuadraticBezierSegment)
{
QuadraticBezierSegment xamSegment = xamPathSegment as QuadraticBezierSegment;
winMedia.QuadraticBezierSegment winSegment = new winMedia.QuadraticBezierSegment
{
Point1 = ConvertPoint(xamSegment.Point1),
Point2 = ConvertPoint(xamSegment.Point2),
};
winPathFigure.Segments.Add(winSegment);
}
// PolyQuadraticBezierSegment
else if (xamPathSegment is PolyQuadraticBezierSegment)
{
PolyQuadraticBezierSegment xamSegment = xamPathSegment as PolyQuadraticBezierSegment;
winMedia.PolyQuadraticBezierSegment winSegment = new winMedia.PolyQuadraticBezierSegment();
foreach (Point point in xamSegment.Points)
{
winSegment.Points.Add(ConvertPoint(point));
}
winPathFigure.Segments.Add(winSegment);
}
// ArcSegment
else if (xamPathSegment is ArcSegment)
{
ArcSegment xamSegment = xamPathSegment as ArcSegment;
winMedia.ArcSegment winSegment = new winMedia.ArcSegment();
winSegment.Size = new winFound.Size(xamSegment.Size.Width, xamSegment.Size.Height);
winSegment.RotationAngle = xamSegment.RotationAngle;
winSegment.IsLargeArc = xamSegment.IsLargeArc;
winSegment.SweepDirection = xamSegment.SweepDirection == SweepDirection.Clockwise ? winMedia.SweepDirection.Clockwise : winMedia.SweepDirection.Counterclockwise;
winSegment.Point = ConvertPoint(xamSegment.Point);
winPathFigure.Segments.Add(winSegment);
}
}
}
winGeometry = winPathGeometry;
}
// Set transform.
if (geometry.Transform != null)
{
winGeometry.Transform = (winMedia.Transform)geometry.Transform.GetNativeObject();
}
return(winGeometry);
}
/// <summary>
/// Create a path object based on a list of vertices - used when creating geometry
/// </summary>
public static UIShapes.Shape CreatePathFromVertices(Body body, PhysicsSprite element, WinUI.Color colorFill)
{
List<Fixture> vertices = body.FixtureList;
// is this an ellipse?
if (vertices[0].Shape is CircleShape)
{
CircleShape cs = vertices[0].Shape as CircleShape;
UIShapes.Ellipse el = new UIShapes.Ellipse();
Vector2 screenSize = PhysicsCanvas.BoundaryHelper.WorldSizeToScreenSize(new Vector2(cs.Radius * 2, cs.Radius * 2));
el.Width = screenSize.X;
el.Height = screenSize.Y;
el.Stroke = new SysWinMedia.SolidColorBrush(new WinUI.Color() { A = 255, R = 76, G = 108, B = 76 });
el.StrokeThickness = 4;
el.StrokeStartLineCap = SysWinMedia.PenLineCap.Round;
el.Fill = new SysWinMedia.SolidColorBrush(colorFill);
return el;
}
else
{
UIShapes.Path path = new UIShapes.Path();
path.Stroke = new SysWinMedia.SolidColorBrush(new WinUI.Color() { A = 255, R = 76, G = 108, B = 76 });
path.StrokeThickness = 4;
path.StrokeStartLineCap = SysWinMedia.PenLineCap.Round;
path.Fill = new SysWinMedia.SolidColorBrush(colorFill);
SysWinMedia.PathGeometry pathGeom = new SysWinMedia.PathGeometry();
SysWinMedia.PathFigureCollection figures = new SysWinMedia.PathFigureCollection();
pathGeom.Figures = figures;
double halfWidth = element.Width / 2d;
double halfHeight = element.Height / 2d;
if (halfWidth == 0) halfWidth = element.ActualWidth / 2d;
if (halfHeight == 0) halfHeight = element.ActualHeight / 2d;
foreach (Fixture f in vertices)
{
if (f.Shape is PolygonShape)
{
SysWinMedia.PathFigure figure = new SysWinMedia.PathFigure();
PolygonShape p = f.Shape as PolygonShape;
// first vertex, create the startpoint
Vector2 ptStart = new Vector2((float)p.Vertices[0].X, (float)p.Vertices[0].Y);
ptStart = PhysicsCanvas.BoundaryHelper.WorldSizeToScreenSize(ptStart);
ptStart.X += (float)(halfWidth);
ptStart.Y += (float)(halfHeight);
figure.StartPoint = new SysWin.Point(ptStart.X, ptStart.Y);
figure.Segments = new SysWinMedia.PathSegmentCollection();
pathGeom.Figures.Add(figure);
for (int i = 1; i < p.Vertices.Count; i++)
{
SysWinMedia.LineSegment line = new SysWinMedia.LineSegment();
Vector2 pt = new Vector2((float)p.Vertices[i].X, (float)p.Vertices[i].Y);
pt = PhysicsCanvas.BoundaryHelper.WorldSizeToScreenSize(pt);
pt.X += (float)(halfWidth);
pt.Y += (float)(halfHeight);
line.Point = new SysWin.Point(pt.X, pt.Y); ;
figure.Segments.Add(line);
}
}
}
path.Data = pathGeom;
return path;
}
}
// Plots a graph of the passed easing function using the given sampling interval on the "Graph" Canvas control
private void PlotEasingFunctionGraph(EasingFunctionBase easingFunction, double samplingInterval)
{
UISettings UserSettings = new UISettings();
Graph.Children.Clear();
Path path = new Path();
PathGeometry pathGeometry = new PathGeometry();
PathFigure pathFigure = new PathFigure() { StartPoint = new Point(0, 0) };
PathSegmentCollection pathSegmentCollection = new PathSegmentCollection();
// Note that an easing function is just like a regular function that operates on doubles.
// Here we plot the range of the easing function's output on the y-axis of a graph.
for (double i = 0; i < 1; i += samplingInterval)
{
double x = i * GraphContainer.Width;
double y = easingFunction.Ease(i) * GraphContainer.Height;
LineSegment segment = new LineSegment();
segment.Point = new Point(x, y);
pathSegmentCollection.Add(segment);
}
pathFigure.Segments = pathSegmentCollection;
pathGeometry.Figures.Add(pathFigure);
path.Data = pathGeometry;
path.Stroke = new SolidColorBrush(UserSettings.UIElementColor(UIElementType.ButtonText));
path.StrokeThickness = 1;
// Add the path to the Canvas
Graph.Children.Add(path);
}
/// <summary>
/// Override for the path's redraw mehtod, controlling how the path is drawns
/// </summary>
protected override void Redraw()
{
Debug.Assert(GetValue(StartAngleProperty) != DependencyProperty.UnsetValue);
Debug.Assert(GetValue(RadiusProperty) != DependencyProperty.UnsetValue);
Debug.Assert(GetValue(AngleProperty) != DependencyProperty.UnsetValue);
if (Radius == 0 || !(Thickness > 0)) return;
Width = Height = 2 * (Radius);
var endAngle = StartAngle + Angle;
var smallRadius = Radius - Thickness;
var startX = Radius + Math.Sin(StartAngle * Math.PI / 180) * Radius;
var startY = Radius - Math.Cos(StartAngle * Math.PI / 180) * Radius;
// path container
var figure = new PathFigure
{
StartPoint = new Point(startX, startY),
IsClosed = true,
IsFilled = true
};
// outer arc
var outerArcX = Radius + Math.Sin(endAngle * Math.PI / 180) * Radius;
var outerArcY = Radius - Math.Cos(endAngle * Math.PI / 180) * Radius;
var outerArc = new ArcSegment
{
IsLargeArc = Angle >= 180.0,
Point = new Point(outerArcX, outerArcY),
Size = new Size(Radius, Radius),
SweepDirection = SweepDirection.Clockwise,
};
figure.Segments.Add(outerArc);
// start angle line
var lineX = smallRadius + Math.Sin(endAngle * Math.PI / 180) * smallRadius;
var lineY = smallRadius - Math.Cos(endAngle * Math.PI / 180) * smallRadius;
var line = new LineSegment { Point = new Point(lineX + Thickness, lineY + Thickness) };
figure.Segments.Add(line);
// inner arc
var innerArcX = smallRadius + Math.Sin(StartAngle * Math.PI / 180) * smallRadius ;
var innerArcY = smallRadius - Math.Cos(StartAngle * Math.PI / 180) * smallRadius;
var innerArc = new ArcSegment
{
IsLargeArc = Angle >= 180.0,
Point = new Point(innerArcX + Thickness, innerArcY + Thickness),
Size = new Size(smallRadius, smallRadius),
SweepDirection = SweepDirection.Counterclockwise,
};
figure.Segments.Add(innerArc);
Data = new PathGeometry { Figures = { figure } };
InvalidateArrange();
}
/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overridden by
/// any derived class.
/// </summary>
/// <param name="transformer">Represents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
if (isSegmentUpdated)
{
Series.SeriesRootPanel.Clip = null;
}
ChartTransform.ChartCartesianTransformer cartesianTransformer = transformer as ChartTransform.ChartCartesianTransformer;
double xEnd = cartesianTransformer.XAxis.VisibleRange.End;
DoubleRange range = cartesianTransformer.XAxis.VisibleRange;
PathFigure figure = new PathFigure();
PathGeometry segmentGeometry = new PathGeometry();
double origin = containerSeries.ActualXAxis != null ? containerSeries.ActualXAxis.Origin : 0;//setting origin value for splinearea segment
WindowsLineSegment lineSegment;
figure.StartPoint = transformer.TransformToVisible(segmentPoints[0].X, segmentPoints[0].Y);
lineSegment = new WindowsLineSegment();
lineSegment.Point = transformer.TransformToVisible(segmentPoints[1].X, segmentPoints[1].Y);
figure.Segments.Add(lineSegment);
strokeGeometry = new PathGeometry();
strokeFigure = new PathFigure();
strokePath = new Path();
if (containerSeries.IsClosed && isEmpty)
{
AddStroke(figure.StartPoint);
lineSegment = new WindowsLineSegment();
lineSegment.Point = transformer.TransformToVisible(segmentPoints[1].X, segmentPoints[1].Y);
strokeFigure.Segments.Add(lineSegment);
}
else if (!containerSeries.IsClosed)
{
AddStroke(transformer.TransformToVisible(segmentPoints[1].X, segmentPoints[1].Y));
}
int i;
for (i = 2; i < segmentPoints.Count; i += 3)
{
double xVal = segmentPoints[i].X;
if (xVal >= range.Start && xVal <= range.End || xEnd >= range.Start && xEnd <= range.End)
{
if (Series.ShowEmptyPoints || ((!double.IsNaN(segmentPoints[i].Y) && !double.IsNaN(segmentPoints[i + 1].Y) && !double.IsNaN(segmentPoints[i + 2].Y))))
{
BezierSegment segment = new BezierSegment();
segment.Point1 = transformer.TransformToVisible(segmentPoints[i].X, segmentPoints[i].Y);
segment.Point2 = transformer.TransformToVisible(segmentPoints[i + 1].X, segmentPoints[i + 1].Y);
segment.Point3 = transformer.TransformToVisible(segmentPoints[i + 2].X, segmentPoints[i + 2].Y);
figure.Segments.Add(segment);
if ((isEmpty && !Series.ShowEmptyPoints) || !containerSeries.IsClosed)
{
BezierSegment strokeSegment = new BezierSegment();
strokeSegment.Point1 = segment.Point1;
strokeSegment.Point2 = segment.Point2;
strokeSegment.Point3 = segment.Point3;
strokeFigure.Segments.Add(strokeSegment);
}
}
else
{
if ((double.IsNaN(segmentPoints[i].Y) && double.IsNaN(segmentPoints[i + 1].Y) && double.IsNaN(segmentPoints[i + 2].Y)))
{
lineSegment = new WindowsLineSegment();
lineSegment.Point = transformer.TransformToVisible(segmentPoints[i - 1].X, origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLineSegment();
lineSegment.Point = transformer.TransformToVisible(segmentPoints[i + 2].X, origin);
figure.Segments.Add(lineSegment);
}
else if (i > 0 && (double.IsNaN(segmentPoints[i - 1].Y) || double.IsNaN(segmentPoints[i].Y)))
{
lineSegment = new WindowsLineSegment();
lineSegment.Point = transformer.TransformToVisible(segmentPoints[i + 2].X, origin);
figure.Segments.Add(lineSegment);
lineSegment = new WindowsLineSegment();
lineSegment.Point = transformer.TransformToVisible(segmentPoints[i + 2].X, double.IsNaN(segmentPoints[i + 2].Y) ? origin : segmentPoints[i + 2].Y);
if ((!Series.ShowEmptyPoints && !double.IsNaN(segmentPoints[i + 2].Y)) || !containerSeries.IsClosed)
{
strokeFigure = new PathFigure();
strokeFigure.StartPoint = lineSegment.Point;
strokeGeometry.Figures.Add(strokeFigure);
}
figure.Segments.Add(lineSegment);
}
}
}
}
Point point = transformer.TransformToVisible(segmentPoints[i - 1].X, origin);
lineSegment = new WindowsLineSegment();
lineSegment.Point = point;
figure.Segments.Add(lineSegment);
if (containerSeries.IsClosed && !double.IsNaN(segmentPoints[i - 1].Y))
{
lineSegment = new WindowsLineSegment();
lineSegment.Point = point;
strokeFigure.Segments.Add(lineSegment);
}
//figure.IsClosed = true;
isSegmentUpdated = true;
segmentGeometry.Figures.Add(figure);
this.segPath.Data = segmentGeometry;
}
private void UpdatePath()
{
var pathGeometry = new PathGeometry();
var pathFigure = new PathFigure();
pathFigure.StartPoint = new Point(Radius, Radius);
pathFigure.IsClosed = true;
// Starting Point
var lineSegment =
new LineSegment
{
Point = new Point(
Radius + Math.Sin(StartAngle * Math.PI / 180) * Radius,
Radius - Math.Cos(StartAngle * Math.PI / 180) * Radius)
};
// Arc
var arcSegment = new ArcSegment();
arcSegment.IsLargeArc = (EndAngle - StartAngle) >= 180.0;
arcSegment.Point =
new Point(
Radius + Math.Sin(EndAngle * Math.PI / 180) * Radius,
Radius - Math.Cos(EndAngle * Math.PI / 180) * Radius);
arcSegment.Size = new Size(Radius, Radius);
arcSegment.SweepDirection = SweepDirection.Clockwise;
pathFigure.Segments.Add(lineSegment);
pathFigure.Segments.Add(arcSegment);
pathGeometry.Figures.Add(pathFigure);
this.Data = pathGeometry;
this.InvalidateArrange();
}
private PathGeometry GetArcGeometry(Point center, double radius, double innerRadius, double segmentStartAngle, double segmentEndAngle, bool isUnfilledPath)
{
if (this.IsExploded)
{
center = new Point(center.X + (parentSeries.ExplodeRadius * Math.Cos(AngleOfSlice)), center.Y + (parentSeries.ExplodeRadius * Math.Sin(AngleOfSlice)));
}
var isclockWise = segmentEndAngle > segmentStartAngle;
var outerSegmentStartAngle = segmentStartAngle;
var outerSegmentEndAngle = segmentEndAngle;
var innerSegmentStartAngle = segmentStartAngle;
var innerSegmentEndAngle = segmentEndAngle;
double midRadius = 0d;
if (parentSeries.CapStyle != DoughnutCapStyle.BothFlat && !isUnfilledPath)
{
var segmentRadius = (radius - innerRadius) / 2;
midRadius = radius - segmentRadius;
UpdateSegmentAngleForCurvePosition(ref outerSegmentStartAngle, ref outerSegmentEndAngle, ref innerSegmentStartAngle, ref innerSegmentEndAngle, segmentStartAngle, segmentEndAngle, radius, innerRadius, segmentRadius, isclockWise);
}
startPoint = new Point(center.X + radius * Math.Cos(outerSegmentStartAngle), center.Y + radius * Math.Sin(outerSegmentStartAngle));
Point endPoint = new Point(center.X + radius * Math.Cos(outerSegmentEndAngle), center.Y + radius * Math.Sin(outerSegmentEndAngle));
Point startDPoint = new Point(center.X + innerRadius * Math.Cos(innerSegmentStartAngle), center.Y + innerRadius * Math.Sin(innerSegmentStartAngle));
Point endDPoint = new Point(center.X + innerRadius * Math.Cos(innerSegmentEndAngle), center.Y + innerRadius * Math.Sin(innerSegmentEndAngle));
var isOuterDirectionClockWise = outerSegmentEndAngle > outerSegmentStartAngle;
var isInnerDirectionClockWise = innerSegmentEndAngle > innerSegmentStartAngle;
PathFigure figure = new PathFigure();
figure.StartPoint = startPoint;
ArcSegment seg = new ArcSegment();
seg.Point = endPoint;
seg.Size = new Size(radius, radius);
seg.RotationAngle = outerSegmentEndAngle - outerSegmentStartAngle;
seg.IsLargeArc = (!isOuterDirectionClockWise ? outerSegmentStartAngle - outerSegmentEndAngle : outerSegmentEndAngle - outerSegmentStartAngle) > Math.PI;
seg.SweepDirection = !isOuterDirectionClockWise ? SweepDirection.Counterclockwise : SweepDirection.Clockwise;
figure.Segments.Add(seg);
if ((parentSeries.CapStyle == DoughnutCapStyle.EndCurve || parentSeries.CapStyle == DoughnutCapStyle.BothCurve) && !isUnfilledPath)
{
Point midEndPoint = new Point(center.X + midRadius * Math.Cos(segmentEndAngle), center.Y + midRadius * Math.Sin(segmentEndAngle));
var bezierEndPoint = new Point(center.X + radius * Math.Cos(segmentEndAngle), center.Y + radius * Math.Sin(segmentEndAngle));
var bezSeg = new QuadraticBezierSegment()
{
Point1 = bezierEndPoint, Point2 = midEndPoint
};
figure.Segments.Add(bezSeg);
var bezierEndDPoint = new Point(center.X + innerRadius * Math.Cos(segmentEndAngle), center.Y + innerRadius * Math.Sin(segmentEndAngle));
bezSeg = new QuadraticBezierSegment()
{
Point1 = bezierEndDPoint, Point2 = endDPoint
};
figure.Segments.Add(bezSeg);
}
else
{
WindowsLineSegment line = new WindowsLineSegment()
{
Point = endDPoint
};
figure.Segments.Add(line);
}
seg = new ArcSegment();
seg.Point = startDPoint;
seg.Size = new Size(innerRadius, innerRadius);
seg.RotationAngle = innerSegmentEndAngle - innerSegmentStartAngle;
seg.IsLargeArc = (!isInnerDirectionClockWise ? innerSegmentStartAngle - innerSegmentEndAngle : innerSegmentEndAngle - innerSegmentStartAngle) > Math.PI;
seg.SweepDirection = isInnerDirectionClockWise ? SweepDirection.Counterclockwise : SweepDirection.Clockwise;
figure.Segments.Add(seg);
if ((parentSeries.CapStyle == DoughnutCapStyle.StartCurve || parentSeries.CapStyle == DoughnutCapStyle.BothCurve) && !isUnfilledPath)
{
Point midStartPoint = new Point(center.X + midRadius * Math.Cos(segmentStartAngle), center.Y + midRadius * Math.Sin(segmentStartAngle));
var bezierStartDPoint = new Point(center.X + innerRadius * Math.Cos(segmentStartAngle), center.Y + innerRadius * Math.Sin(segmentStartAngle));
var bezSeg = new QuadraticBezierSegment()
{
Point1 = bezierStartDPoint, Point2 = midStartPoint
};
figure.Segments.Add(bezSeg);
var bezierStartPoint = new Point(center.X + radius * Math.Cos(segmentStartAngle), center.Y + radius * Math.Sin(segmentStartAngle));
bezSeg = new QuadraticBezierSegment()
{
Point1 = bezierStartPoint, Point2 = startPoint
};
figure.Segments.Add(bezSeg);
}
figure.IsClosed = true;
var geometry = new PathGeometry();
geometry.Figures = new PathFigureCollection()
{
figure
};
return(geometry);
}
/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overridden by
/// any derived class.
/// </summary>
/// <param name="transformer">Represents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
if (!this.IsSegmentVisible)
{
segmentPath.Visibility = Visibility.Collapsed;
}
else
{
segmentPath.Visibility = Visibility.Visible;
}
segmentPath.StrokeLineJoin = PenLineJoin.Round;
segmentPath.Width = transformer.Viewport.Width;
segmentPath.Height = transformer.Viewport.Height;
segmentPath.VerticalAlignment = VerticalAlignment.Center;
segmentPath.HorizontalAlignment = HorizontalAlignment.Center;
double actualRadius = Math.Min(transformer.Viewport.Width, transformer.Viewport.Height) / 2;
double equalParts = actualRadius / (pieSeriesCount);
if (pieIndex == 0)
{
Point center;
if (pieSeriesCount == 1)
{
center = (Series as CircularSeriesBase).Center;
}
else
{
center = ChartLayoutUtils.GetCenter(transformer.Viewport);
}
double radius = parentSeries.InternalPieCoefficient * (equalParts);
parentSeries.Radius = radius;
if (Math.Round((ActualEndAngle - ActualStartAngle), 2) == 6.28)
{
EllipseGeometry ellipseGeometry = new EllipseGeometry()
{
Center = center,
RadiusX = radius,
RadiusY = radius
};
this.segmentPath.Data = ellipseGeometry;
}
else if ((ActualEndAngle - ActualStartAngle) != 0)
{
if (this.IsExploded)
{
center = new Point(center.X + (parentSeries.ExplodeRadius * Math.Cos(AngleOfSlice)), center.Y + (parentSeries.ExplodeRadius * Math.Sin(AngleOfSlice)));
}
startPoint = new Point(center.X + radius * Math.Cos(ActualStartAngle), center.Y + radius * Math.Sin(ActualStartAngle));
Point endPoint = new Point(center.X + radius * Math.Cos(ActualEndAngle), center.Y + radius * Math.Sin(ActualEndAngle));
PathFigure figure = new PathFigure();
figure.StartPoint = center;
WindowsLineSegment line = new WindowsLineSegment();
line.Point = startPoint;
figure.Segments.Add(line);
ArcSegment seg = new ArcSegment();
seg.Point = endPoint;
seg.Size = new Size(radius, radius);
seg.RotationAngle = ActualEndAngle + ActualStartAngle;
seg.IsLargeArc = ActualEndAngle - ActualStartAngle > Math.PI;
seg.SweepDirection = StartAngle > EndAngle ? SweepDirection.Counterclockwise : SweepDirection.Clockwise;
figure.Segments.Add(seg);
figure.IsClosed = true;
this.segmentGeometry = new PathGeometry();
segmentGeometry.Figures = new PathFigureCollection()
{
figure
};
this.segmentPath.Data = segmentGeometry;
}
else
{
this.segmentPath.Data = null;
}
}
else if (pieIndex >= 1)
{
double radius = (equalParts * (pieIndex + 1)) - (equalParts * (1 - parentSeries.InternalPieCoefficient));
double innerRadius = equalParts * pieIndex;
parentSeries.Radius = radius;
Point center = ChartLayoutUtils.GetCenter(transformer.Viewport);
if (this.IsExploded)
{
center = new Point(center.X + (parentSeries.ExplodeRadius * Math.Cos(AngleOfSlice)), center.Y + (parentSeries.ExplodeRadius * Math.Sin(AngleOfSlice)));
}
startPoint = new Point(center.X + radius * Math.Cos(ActualStartAngle), center.Y + radius * Math.Sin(ActualStartAngle));
Point endPoint = new Point(center.X + radius * Math.Cos(ActualEndAngle), center.Y + radius * Math.Sin(ActualEndAngle));
if (Math.Round((ActualEndAngle - ActualStartAngle), 2) == 6.28)
{
GeometryGroup geometryGroup = new GeometryGroup();
geometryGroup.Children.Add(new EllipseGeometry()
{
Center = center,
RadiusX = radius,
RadiusY = radius
});
geometryGroup.Children.Add(new EllipseGeometry()
{
Center = center,
RadiusX = innerRadius,
RadiusY = innerRadius
});
this.segmentPath.Data = geometryGroup;
}
else if ((ActualEndAngle - ActualStartAngle) != 0)
{
Point startDPoint = new Point(center.X + innerRadius * Math.Cos(ActualStartAngle), center.Y + innerRadius * Math.Sin(ActualStartAngle));
Point endDPoint = new Point(center.X + innerRadius * Math.Cos(ActualEndAngle), center.Y + innerRadius * Math.Sin(ActualEndAngle));
PathFigure figure = new PathFigure();
figure.StartPoint = startPoint;
ArcSegment arcseg = new ArcSegment();
arcseg.Point = endPoint;
arcseg.Size = new Size(radius, radius);
arcseg.RotationAngle = ActualEndAngle - ActualStartAngle;
arcseg.IsLargeArc = ActualEndAngle - ActualStartAngle > Math.PI;
arcseg.SweepDirection = StartAngle > EndAngle ? SweepDirection.Counterclockwise : SweepDirection.Clockwise;
figure.Segments.Add(arcseg);
WindowsLineSegment line = new WindowsLineSegment();
line.Point = endDPoint;
figure.Segments.Add(line);
arcseg = new ArcSegment();
arcseg.Point = startDPoint;
arcseg.Size = new Size(innerRadius, innerRadius);
arcseg.RotationAngle = ActualEndAngle - ActualStartAngle;
arcseg.IsLargeArc = ActualEndAngle - ActualStartAngle > Math.PI;
arcseg.SweepDirection = StartAngle < EndAngle ? SweepDirection.Counterclockwise : SweepDirection.Clockwise;
figure.Segments.Add(arcseg);
figure.IsClosed = true;
this.segmentGeometry = new PathGeometry();
segmentGeometry.Figures = new PathFigureCollection()
{
figure
};
this.segmentPath.Data = segmentGeometry;
}
else
{
this.segmentPath.Data = null;
}
}
}
private void DrawChart()
{
if ((dataSet != null) && (dataSet.Length > 0))
{
var path = new Windows.UI.Xaml.Shapes.Path();
path.Stroke = chartColor;
path.StrokeThickness = 15;
path.StrokeLineJoin = PenLineJoin.Round;
path.StrokeStartLineCap = PenLineCap.Round;
path.StrokeEndLineCap = PenLineCap.Round;
var geometry = new PathGeometry();
var figure = new PathFigure();
figure.IsClosed = false;
figure.StartPoint = new Point(offsetList[0].OffsetX, offsetList[0].OffsetY);
for (int i = 0; i < offsetList.Count; i++)
{
var segment = new LineSegment();
segment.Point = new Point(offsetList[i].OffsetX, offsetList[i].OffsetY);
figure.Segments.Add(segment);
}
geometry.Figures.Add(figure);
path.Data = geometry;
Children.Add(path);
}
}
/// <summary>
/// Updates the segments based on its data point value. This method is not
/// intended to be called explicitly outside the Chart but it can be overriden by
/// any derived class.
/// </summary>
/// <param name="transformer">Reresents the view port of chart control.(refer <see cref="IChartTransformer"/>)</param>
public override void Update(IChartTransformer transformer)
{
PathFigure figure = new PathFigure();
if (this.stepAreaPoints.Count > 0)
{
if (isSegmentUpdated)
{
Series.SeriesRootPanel.Clip = null;
}
figure.StartPoint = transformer.TransformToVisible(this.stepAreaPoints[1].X, this.stepAreaPoints[1].Y);
PathGeometry segmentGeometry = new PathGeometry();
WindowsLinesegment linesegment;
double origin = Series.ActualXAxis != null ? Series.ActualXAxis.Origin : 0;
strokeGeometry = new PathGeometry();
strokeFigure = new PathFigure();
strokePolyLine = new PolyLineSegment();
strokePath = new Path();
if (!(Series as StepAreaSeries).IsClosed && !double.IsNaN(this.stepAreaPoints[3].Y))
{
AddStroke(transformer.TransformToVisible(this.stepAreaPoints[2].X, this.stepAreaPoints[3].Y));
}
else if (isEmpty)
{
AddStroke(figure.StartPoint);
}
for (int i = 1; i < this.stepAreaPoints.Count; i += 2)
{
if (!double.IsNaN(stepAreaPoints[i].Y) && !double.IsNaN(stepAreaPoints[i + 1].Y))
{
Point point1 = transformer.TransformToVisible(this.stepAreaPoints[i].X, stepAreaPoints[i].Y);
Point point2 = transformer.TransformToVisible(this.stepAreaPoints[i + 1].X, stepAreaPoints[i + 1].Y);
linesegment = new WindowsLinesegment();
linesegment.Point = point1;
figure.Segments.Add(linesegment);
linesegment = new WindowsLinesegment();
linesegment.Point = point2;
figure.Segments.Add(linesegment);
if (isEmpty && !Series.ShowEmptyPoints && (Series as StepAreaSeries).IsClosed)
{
strokePolyLine.Points.Add(point1);
if (i <= stepAreaPoints.Count - 3 && !double.IsNaN(stepAreaPoints[i + 3].Y))
{
strokePolyLine.Points.Add(point2);
}
}
else if (!(Series as StepAreaSeries).IsClosed)
{
if (i > 1)
{
strokePolyLine.Points.Add(point1);
if (i <= stepAreaPoints.Count - 3 && !double.IsNaN(stepAreaPoints[i + 3].Y))
{
strokePolyLine.Points.Add(point2);
}
}
}
}
else
{
linesegment = new WindowsLinesegment();
linesegment.Point = transformer.TransformToVisible(this.stepAreaPoints[i - 1].X, origin);
figure.Segments.Add(linesegment);
if (double.IsNaN(stepAreaPoints[i - 1].Y))
{
linesegment = new WindowsLinesegment();
linesegment.Point = transformer.TransformToVisible(this.stepAreaPoints[i - 1].X, origin);
figure.Segments.Add(linesegment);
}
if (i < stepAreaPoints.Count - 1) //WPF-14682
{
linesegment = new WindowsLinesegment();
linesegment.Point = transformer.TransformToVisible(this.stepAreaPoints[i + 1].X, origin);
figure.Segments.Add(linesegment);
if (double.IsNaN(stepAreaPoints[i - 1].Y) && !double.IsNaN(stepAreaPoints[i + 1].Y))
{
Point point1 = transformer.TransformToVisible(this.stepAreaPoints[i].X,
stepAreaPoints[i + 1].Y);
if (!Series.ShowEmptyPoints && (Series as StepAreaSeries).IsClosed)
{
strokeFigure = new PathFigure();
strokePolyLine = new PolyLineSegment();
strokeFigure.StartPoint = point1;
strokeGeometry.Figures.Add(strokeFigure);
strokeFigure.Segments.Add(strokePolyLine);
}
else if (!(Series as StepAreaSeries).IsClosed)
{
if (i > 1)
{
strokeFigure = new PathFigure();
strokePolyLine = new PolyLineSegment();
strokeFigure.StartPoint = point1;
strokeGeometry.Figures.Add(strokeFigure);
strokeFigure.Segments.Add(strokePolyLine);
}
}
linesegment = new WindowsLinesegment();
linesegment.Point = point1;
figure.Segments.Add(linesegment);
}
}
}
}
linesegment = new WindowsLinesegment();
linesegment.Point = transformer.TransformToVisible(this.stepAreaPoints[stepAreaPoints.Count - 1].X, origin);
figure.Segments.Add(linesegment);
if ((Series as StepAreaSeries).IsClosed && (isEmpty && !double.IsNaN(stepAreaPoints[stepAreaPoints.Count - 1].Y)))
{
strokePolyLine.Points.Add(linesegment.Point);
}
segmentGeometry.Figures.Add(figure);
this.segPath.Data = segmentGeometry;
isSegmentUpdated = true;
}
}
private void UpdatePath()
{
var radius = this.Radius - this.StrokeThickness / 2;
if (_isUpdating ||
this.ActualWidth == 0 ||
radius <= 0)
{
return;
}
var pathGeometry = new PathGeometry();
var pathFigure = new PathFigure();
pathFigure.StartPoint = new Point(radius, radius);
pathFigure.IsClosed = true;
// Starting Point
var lineSegment =
new LineSegment
{
Point = new Point(
radius + Math.Sin(StartAngle * Math.PI / 180) * radius,
radius - Math.Cos(StartAngle * Math.PI / 180) * radius)
};
// Arc
var arcSegment = new ArcSegment();
arcSegment.IsLargeArc = (EndAngle - StartAngle) >= 180.0;
arcSegment.Point =
new Point(
radius + Math.Sin(EndAngle * Math.PI / 180) * radius,
radius - Math.Cos(EndAngle * Math.PI / 180) * radius);
arcSegment.Size = new Size(radius, radius);
arcSegment.SweepDirection = SweepDirection.Clockwise;
pathFigure.Segments.Add(lineSegment);
pathFigure.Segments.Add(arcSegment);
pathGeometry.Figures.Add(pathFigure);
this.Data = pathGeometry;
this.InvalidateArrange();
}
/// <summary>
/// Invoked when this page is about to be displayed in a Frame.
/// </summary>
/// <param name="e">Event data that describes how this page was reached. The Parameter
/// property is typically used to configure the page.</param>
protected override void OnNavigatedTo(NavigationEventArgs e)
{
// Find the stack panels that host our AppBarButtons within the AppBar
leftPanel = rootPage.FindName("LeftPanel") as StackPanel;
rightPanel = rootPage.FindName("RightPanel") as StackPanel;
CopyButtons(leftPanel, leftItems);
CopyButtons(rightPanel, rightItems);
// Remove existing AppBarButtons
leftPanel.Children.Clear();
rightPanel.Children.Clear();
// Create the AppBarToggle button for the 'Shuffle' command
AppBarToggleButton shuffle = new AppBarToggleButton();
shuffle.Label = "Shuffle";
shuffle.Icon = new SymbolIcon(Symbol.Shuffle);
rightPanel.Children.Add(shuffle);
// Create the AppBarButton for the 'Sun' command
AppBarButton sun = new AppBarButton();
sun.Label = "Sun";
// This button will use the FontIcon class for its icon which allows us to choose
// any glyph from any FontFamily
FontIcon sunIcon = new FontIcon();
sunIcon.FontFamily = new Windows.UI.Xaml.Media.FontFamily("Wingdings");
sunIcon.FontSize = 30.0;
sunIcon.Glyph = "\u0052";
sun.Icon = sunIcon;
rightPanel.Children.Add(sun);
// Create the AppBarButton for the 'Triangle' command
AppBarButton triangle = new AppBarButton();
triangle.Label = "Triangle";
// This button will use the PathIcon class for its icon which allows us to
// use vector data to represent the icon
PathIcon trianglePathIcon = new PathIcon();
PathGeometry g = new PathGeometry();
g.FillRule = FillRule.Nonzero;
// Just create a simple triange shape
PathFigure f = new PathFigure();
f.IsFilled = true;
f.IsClosed = true;
f.StartPoint = new Windows.Foundation.Point(20.0, 5.0);
LineSegment s1 = new LineSegment();
s1.Point = new Windows.Foundation.Point(30.0, 30.0);
LineSegment s2 = new LineSegment();
s2.Point = new Windows.Foundation.Point(10.0, 30.0);
LineSegment s3 = new LineSegment();
s3.Point = new Windows.Foundation.Point(20.0, 5.0);
f.Segments.Add(s1);
f.Segments.Add(s2);
f.Segments.Add(s3);
g.Figures.Add(f);
trianglePathIcon.Data = g;
triangle.Icon = trianglePathIcon;
rightPanel.Children.Add(triangle);
// Create the AppBarButton for the 'Smiley' command
AppBarButton smiley = new AppBarButton();
smiley.Label = "Smiley";
smiley.Icon = new BitmapIcon { UriSource = new Uri("ms-appx:/Assets/smiley.png") };
rightPanel.Children.Add(smiley);
}
