public BarCodeRenderInfo(XGraphics gfx, XBrush brush, XFont font, XPoint position)
{
Gfx = gfx;
Brush = brush;
Font = font;
Position = position;
}
/// <summary>
/// Demonstrates the use of XGraphics.DrawBeziers.
/// </summary>
public override void RenderPage(XGraphics gfx)
{
base.RenderPage(gfx);
int n = 2;
int count = 1 + 3 * n;
XPoint[] points = new XPoint[count];
Random rnd = new Random(42);
for (int idx = 0; idx < count; idx++)
{
points[idx].X = 20 + rnd.Next(600);
points[idx].Y = 50 + rnd.Next(800);
}
// Draw the points
XPen pen = new XPen(XColors.Red, 0.5);
pen.DashStyle = XDashStyle.Dash;
for (int idx = 0; idx + 3 < count; idx += 3)
{
gfx.DrawEllipse(XBrushes.Red, MakeRect(points[idx]));
gfx.DrawEllipse(XBrushes.Red, MakeRect(points[idx + 1]));
gfx.DrawEllipse(XBrushes.Red, MakeRect(points[idx + 2]));
gfx.DrawEllipse(XBrushes.Red, MakeRect(points[idx + 3]));
gfx.DrawLine(pen, points[idx], points[idx + 1]);
gfx.DrawLine(pen, points[idx + 2], points[idx + 3]);
}
// Draw the curve
gfx.DrawBeziers(properties.Pen2.Pen, points);
}
/// <summary>
/// Initializes a new instance of the <see cref="XLinearGradientBrush"/> class.
/// </summary>
public XLinearGradientBrush(XPoint point1, XPoint point2, XColor color1, XColor color2)
{
this.point1 = point1;
this.point2 = point2;
this.color1 = color1;
this.color2 = color2;
}
/// <summary>
/// Calculates the space used for the axis title.
/// </summary>
internal override void Format()
{
XGraphics gfx = _rendererParms.Graphics;
AxisTitleRendererInfo atri = ((AxisRendererInfo)_rendererParms.RendererInfo)._axisTitleRendererInfo;
if (atri.AxisTitleText != "")
{
XSize size = gfx.MeasureString(atri.AxisTitleText, atri.AxisTitleFont);
if (atri.AxisTitleOrientation != 0)
{
XPoint[] points = new XPoint[2];
points[0].X = 0;
points[0].Y = 0;
points[1].X = size.Width;
points[1].Y = size.Height;
XMatrix matrix = new XMatrix();
matrix.RotatePrepend(-atri.AxisTitleOrientation);
matrix.TransformPoints(points);
size.Width = Math.Abs(points[1].X - points[0].X);
size.Height = Math.Abs(points[1].Y - points[0].Y);
}
atri.X = 0;
atri.Y = 0;
atri.Height = size.Height;
atri.Width = size.Width;
}
}
/// <summary>
/// Demonstrates the use of XGraphics.DrawRoundedRectangle.
/// </summary>
public override void RenderPage(XGraphics gfx)
{
base.RenderPage(gfx);
// Stroke ellipse
gfx.DrawEllipse(properties.Pen1.Pen, 50, 100, 450, 150);
// Fill ellipse
gfx.DrawEllipse(properties.Brush2.Brush, new Rectangle(50, 300, 450, 150));
// Stroke and fill ellipse
gfx.DrawEllipse(properties.Pen2.Pen, properties.Brush2.Brush, new RectangleF(50, 500, 450, 150));
// Stroke circle
gfx.DrawEllipse(properties.Pen2.Pen, new XRect(100, 200, 400, 400));
#if DEBUG
int count = 360;
XPoint[] circle = new XPoint[count];
for (int idx = 0; idx < count; idx++)
{
double rad = idx * 2 * Math.PI / count;
circle[idx].X = Math.Cos(rad) * 200 + 300;
circle[idx].Y = Math.Sin(rad) * 200 + 400;
}
gfx.DrawPolygon(properties.Pen3.Pen, circle);
#endif
}
/// <summary>
/// Initializes a new instance of the XRect class.
/// </summary>
public XRect(XPoint location, XSize size)
{
this.x = location.X;
this.y = location.Y;
this.width = size.Width;
this.height = size.Height;
}
/// <summary>
/// Initializes a new instance of the XRect class.
/// </summary>
public XRect(XPoint point1, XPoint point2)
{
_x = Math.Min(point1.X, point2.X);
_y = Math.Min(point1.Y, point2.Y);
_width = Math.Max(Math.Max(point1.X, point2.X) - _x, 0);
_height = Math.Max(Math.Max(point1.Y, point2.Y) - _y, 0);
}
/// <summary>
/// Appends a Bézier segment from a curve.
/// </summary>
public static BezierSegment CreateCurveSegment(XPoint pt0, XPoint pt1, XPoint pt2, XPoint pt3, double tension3)
{
return new BezierSegment(
new System.Windows.Point(pt1.X + tension3 * (pt2.X - pt0.X), pt1.Y + tension3 * (pt2.Y - pt0.Y)),
new System.Windows.Point(pt2.X - tension3 * (pt3.X - pt1.X), pt2.Y - tension3 * (pt3.Y - pt1.Y)),
new System.Windows.Point(pt2.X, pt2.Y), true);
}
/// <summary>
/// Convert from WinForms point to core point.
/// </summary>
public static XPoint[] Convert(RPoint[] points)
{
XPoint[] myPoints = new XPoint[points.Length];
for (int i = 0; i < points.Length; i++)
myPoints[i] = Convert(points[i]);
return myPoints;
}
/// <summary>
/// Initializes a new instance of the XRect class.
/// </summary>
public XRect(XPoint point1, XPoint point2)
{
this.x = Math.Min(point1.x, point2.x);
this.y = Math.Min(point1.y, point2.y);
this.width = Math.Max((double)(Math.Max(point1.x, point2.x) - this.x), 0);
this.height = Math.Max((double)(Math.Max(point1.y, point2.y) - this.y), 0);
}
/// <summary>
/// Draws the content of the area plot area.
/// </summary>
internal override void Draw()
{
ChartRendererInfo cri = (ChartRendererInfo)this.rendererParms.RendererInfo;
XRect plotAreaRect = cri.plotAreaRendererInfo.Rect;
if (plotAreaRect.IsEmpty)
return;
XGraphics gfx = this.rendererParms.Graphics;
XGraphicsState state = gfx.Save();
//gfx.SetClip(plotAreaRect, XCombineMode.Intersect);
gfx.IntersectClip(plotAreaRect);
XMatrix matrix = cri.plotAreaRendererInfo.matrix;
double xMajorTick = cri.xAxisRendererInfo.MajorTick;
foreach (SeriesRendererInfo sri in cri.seriesRendererInfos)
{
int count = sri.series.Elements.Count;
XPoint[] points = new XPoint[count + 2];
points[0] = new XPoint(xMajorTick / 2, 0);
for (int idx = 0; idx < count; idx++)
{
double pointValue = sri.series.Elements[idx].Value;
if (double.IsNaN(pointValue))
pointValue = 0;
points[idx + 1] = new XPoint(idx + xMajorTick / 2, pointValue);
}
points[count + 1] = new XPoint(count - 1 + xMajorTick / 2, 0);
matrix.TransformPoints(points);
gfx.DrawPolygon(sri.LineFormat, sri.FillFormat, points, XFillMode.Winding);
}
//gfx.ResetClip();
gfx.Restore(state);
}
public Pagel(Pagel parent, XRect percetileRectangle)
{
parent.AddChild(this);
this.minPoint = new XPoint(parent.Rectangle.X * percetileRectangle.X, parent.Rectangle.Y * percetileRectangle.Y);
this.maxPoint = minPoint + new XPoint(parent.Rectangle.Width * percetileRectangle.Width,
parent.Rectangle.Height * percetileRectangle.Height);
this.Rectangle = new XRect(minPoint, maxPoint);
}
/// <summary>
/// Gets a five-pointed star with the specified size and center.
/// </summary>
public static XPoint[] GetPentagram(double size, XPoint center)
{
XPoint[] points = Pentagram.Clone() as XPoint[];
for (int idx = 0; idx < 5; idx++)
{
points[idx].X = points[idx].X * size + center.X;
points[idx].Y = points[idx].Y * size + center.Y;
}
return points;
}
public void DrawBarCharts(XGraphics gfx)
{
XPoint backgroundPoint = new XPoint(20, page_.Height * 0.55);
XRect backgroundRect = new XRect(backgroundPoint.X, backgroundPoint.Y, page_.Width - 40, page_.Height * 0.425);
double quarterRectWidth = backgroundRect.Width * 0.25;
double offset = quarterRectWidth * 0.25;
DrawingUtil.DrawOutlineRect(backgroundRect, gfx, new XSize(40,40));
gfx.DrawRoundedRectangle(new XSolidBrush(XColor.FromKnownColor(XKnownColor.Gray)),
backgroundRect,
new XSize(40, 40));
DoubleBar ShoulderFlexionBar = new DoubleBar(userParameters_[dataReadStart + 4], userParameters_[dataReadStart + 9], gfx);
ShoulderFlexionBar.Draw(new XPoint(quarterRectWidth - offset, backgroundPoint.Y + 20),
backgroundRect,
XImage.FromFile(Directory.GetCurrentDirectory() + @"\Content\DOS.png"));
DoubleBar hipFlexionBar = new DoubleBar(userParameters_[dataReadStart + 5], userParameters_[dataReadStart + 10], gfx);
hipFlexionBar.Draw(new XPoint(quarterRectWidth * 2 - offset, backgroundPoint.Y + 20),
backgroundRect,
XImage.FromFile(Directory.GetCurrentDirectory() + @"\Content\DOS.png"));
DoubleBar kneeFlexionBar = new DoubleBar(userParameters_[dataReadStart + 6], userParameters_[dataReadStart + 11], gfx);
kneeFlexionBar.Draw(new XPoint(quarterRectWidth * 3 - offset, backgroundPoint.Y + 20),
backgroundRect,
XImage.FromFile(Directory.GetCurrentDirectory() + @"\Content\DOS.png"));
DoubleBar ankleFlexionBar = new DoubleBar(userParameters_[dataReadStart + 7], userParameters_[dataReadStart + 12], gfx);
ankleFlexionBar.Draw(new XPoint(quarterRectWidth * 4 - offset, backgroundPoint.Y + 20),
backgroundRect,
XImage.FromFile(Directory.GetCurrentDirectory() + @"\Content\DOS.png"));
gfx.DrawString("Degrees :",
new XFont("Arial", 10),
XBrushes.Black,
(backgroundPoint + new XPoint(0, 20)) + new XPoint(backgroundRect.Width * 0.05, backgroundRect.Height * 0.05),
XStringFormats.Center);
gfx.DrawString("LSI % :",
new XFont("Arial", 10),
XBrushes.Black,
(backgroundPoint + new XPoint(0, 20)) + new XPoint(backgroundRect.Width * 0.05, backgroundRect.Height * 0.125),
XStringFormats.Center);
XPoint top = new XPoint(backgroundPoint.X, backgroundPoint.Y + backgroundRect.Height * 0.2);
XPoint bottom = new XPoint(backgroundPoint.X, backgroundPoint.Y + backgroundRect.Height * 0.8);
for (int i = 11; i > 0; i--)
{
float increment = -i * 0.1f;
XPoint percentagePoint = DrawingUtil.Instance.Interpolate(top, bottom, increment);
percentagePoint = new XPoint(percentagePoint.X, Math.Floor(percentagePoint.Y));
gfx.DrawString(((11 - i) * 10).ToString() + "%", new XFont("Arial", 8), XBrushes.Black, percentagePoint + new XPoint(5, -2));
gfx.DrawLine(XPens.LightGray, percentagePoint, percentagePoint + new XPoint(backgroundRect.Width, 0));
}
}
/// <summary>
/// Appends a Bézier segment from a curve.
/// </summary>
public static BezierSegment CreateCurveSegment(XPoint pt0, XPoint pt1, XPoint pt2, XPoint pt3, double tension3)
{
#if !SILVERLIGHT
return new BezierSegment(
new System.Windows.Point(pt1.X + tension3 * (pt2.X - pt0.X), pt1.Y + tension3 * (pt2.Y - pt0.Y)),
new System.Windows.Point(pt2.X - tension3 * (pt3.X - pt1.X), pt2.Y - tension3 * (pt3.Y - pt1.Y)),
new System.Windows.Point(pt2.X, pt2.Y), true);
#else
return new BezierSegment(); // AGHACK
#endif
}
public override void RenderPage(XGraphics gfx)
{
base.RenderPage(gfx);
XPoint[] points = new XPoint[]
{
new XPoint(50, 100),
new XPoint(450, 120),
new XPoint(550, 300),
new XPoint(150, 380),
};
gfx.DrawCurve(properties.Pen2.Pen, points, properties.General.Tension);
}
public void Draw(XPoint basePoint, XRect baseRect, XImage img)
{
XFont headerFont = new XFont("Arial", 16);
XFont subfont = new XFont("Arial", 10);
char degree = Convert.ToChar('\u00b0');
gfx.DrawString(parameterLeft.Name.Substring(5, parameterLeft.Name.Length - 5), headerFont, XBrushes.Black, basePoint, XStringFormats.Center);
gfx.DrawString(parameterLeft.Value.ToString() + degree, subfont, XBrushes.Black, basePoint + new XPoint(-15, baseRect.Height * 0.05),XStringFormats.Center);
gfx.DrawString(parameterRight.Value.ToString() + degree, subfont, XBrushes.Black, basePoint + new XPoint(20, baseRect.Height * 0.05), XStringFormats.Center);
XBrush brush = XBrushes.Black;
brush = DrawingUtil.Instance.ChooseBrushColor(parameterLeft.LSI, 49, 74);
XRect r = new XRect(basePoint + new XPoint(-baseRect.Width * 0.05, baseRect.Height * 0.075),
new XSize(baseRect.Width * 0.1, baseRect.Height * 0.075));
DrawingUtil.DrawOutlineRect(r, gfx, new XSize(10, 10));
gfx.DrawRoundedRectangle(brush, r, new XSize(10,10));
gfx.DrawString(parameterLeft.LSI.ToString("0") + "%",
subfont,
XBrushes.Black,
basePoint + new XPoint(baseRect.Width * -0.025, baseRect.Height * 0.125));
XSolidBrush blue = new XSolidBrush(XColor.FromArgb(127, 0, 0, 255));
XSolidBrush yellow = new XSolidBrush(XColor.FromArgb(127, 255, 255, 0));
XPoint top = new XPoint(basePoint.X - 20,Math.Ceiling( basePoint.Y + baseRect.Height * 0.2));
XPoint bottom = new XPoint(basePoint.X - 20, Math.Ceiling(basePoint.Y + baseRect.Height * 0.8));
XPoint leftRectPoint = Interpolate(bottom, top, -parameterLeft.Percentage);
XRect leftBar = new XRect(leftRectPoint, new XSize(20, bottom.Y - leftRectPoint.Y ));
gfx.DrawRectangle(blue, leftBar);
XPoint rigthRectPoint = Interpolate(bottom, top, -parameterRight.Percentage);
XRect rightBar = new XRect(rigthRectPoint + new XPoint(30,0), new XSize(20, bottom.Y - rigthRectPoint.Y));
gfx.DrawRectangle(yellow, rightBar);
XPoint offset = new XPoint(25, 0);
gfx.DrawLine(XPens.Green, top + offset, bottom + offset);
gfx.DrawLine(XPens.Yellow, Interpolate(bottom, top, - parameterLeft.AmberVal) + offset, bottom + offset);
gfx.DrawLine(XPens.Red, Interpolate(bottom, top, -parameterLeft.RedVal) + offset, bottom + offset);
gfx.DrawString("L", subfont, XBrushes.Black, bottom + new XPoint(5, -2));
gfx.DrawString("R", subfont, XBrushes.Black, bottom + new XPoint(35, -2));
double wRatio = (double)img.PixelWidth / (double)img.PixelHeight;
gfx.DrawImage(img, new XRect(new XPoint(bottom.X, bottom.Y), new XSize(wRatio * 50, 50)));
img.Dispose();
}
public void DrawStats(XGraphics gfx)
{
XFont large = new XFont("Arial", 20);
XFont small = new XFont("Arial", 12);
double yOff = page_.Height * 0.11;
XRect rect = new XRect(20, yOff, page_.Width - 40, page_.Height - (yOff + 20));
DrawingUtil.DrawOutlineRect(rect, gfx, cornerRadius);
gfx.DrawRoundedRectangle(backgroundBrush, rect, cornerRadius);
XPoint center = new XPoint(page_.Width * 0.5, page_.Height * 0.45);
XImage sideLunge = XImage.FromFile(Directory.GetCurrentDirectory() + @"\Content\SideLunge.png");
XImage frontLunge = XImage.FromFile(Directory.GetCurrentDirectory() + @"\Content\FrontLunge.png");
gfx.DrawString("Left Lunge", large, XBrushes.Black, new XPoint(center.X - page_.Width * 0.25, page_.Height * 0.25), XStringFormats.Center);
gfx.DrawString("Right Lunge", large, XBrushes.Black, new XPoint(center.X + page_.Width * 0.25, page_.Height * 0.25), XStringFormats.Center);
for (int i = 0; i < 4; i++)
{
Parameter param1 = userParameters_.ElementAt(dataReadStart + i);
Parameter param2 = userParameters_.ElementAt(dataReadStart + i + 4);
char degree = Convert.ToChar('\u00b0');
XBrush leftParamCol = XBrushes.Green;
XBrush rightParamCol = XBrushes.Green;
double y = (i * page_.Height * 0.15f) + page_.Height * 0.35;
gfx.DrawString(param1.Name, small, XBrushes.Black, new XPoint(center.X - page_.Width * 0.25, y), XStringFormats.Center);
leftParamCol = DrawingUtil.Instance.ChooseBrushColor(param1.Color);
XRect infoRect = new XRect(center.X - page_.Width * 0.25 - 25, y + 20, 50, 35);
DrawingUtil.DrawOutlineRect(infoRect, gfx, new XSize(10, 10));
gfx.DrawRoundedRectangle(leftParamCol, infoRect, new XSize(10, 10));
gfx.DrawString(param1.Value.ToString() + degree, small, XBrushes.Black, new XPoint(infoRect.X + 25, infoRect.Y + 17.5), XStringFormats.Center);
gfx.DrawString(param2.Name, small, XBrushes.Black, new XPoint(center.X + page_.Width * 0.25, y), XStringFormats.Center);
rightParamCol = DrawingUtil.Instance.ChooseBrushColor(param2.Color);
infoRect = new XRect(center.X + page_.Width * 0.25 - 25, y + 20, 50, 35);
DrawingUtil.DrawOutlineRect(infoRect, gfx, new XSize(10, 10));
gfx.DrawRoundedRectangle(rightParamCol, infoRect, new XSize(10, 10));
gfx.DrawString(param2.Value.ToString() + degree, small, XBrushes.Black, new XPoint(infoRect.X + 25, infoRect.Y + 17.5), XStringFormats.Center);
XImage img = i > 1 ? frontLunge : sideLunge;
double wRatio = (double)img.PixelWidth / (double)sideLunge.PixelHeight;
XRect imgRect = new XRect(center.X - wRatio * 40, y, wRatio * 80, 80);
gfx.DrawImage(img, imgRect);
}
}
/// <summary>
/// Demonstrates the use of XGraphics.DrawLines.
/// </summary>
public override void RenderPage(XGraphics gfx)
{
//base.RenderPage(gfx);
XPoint[] points = new XPoint[]
{
new XPoint(50, 100),
new XPoint(450, 120),
new XPoint(550, 300),
new XPoint(150, 380),
new XPoint(120, 190),
};
gfx.DrawLines(properties.Pen2.Pen, points);
}
/// <summary>
/// Appends a Bézier segment from a curve.
/// </summary>
public static BezierSegment CreateCurveSegment(XPoint pt0, XPoint pt1, XPoint pt2, XPoint pt3, double tension3)
{
#if !SILVERLIGHT && !NETFX_CORE
return new BezierSegment(
new SysPoint(pt1.X + tension3 * (pt2.X - pt0.X), pt1.Y + tension3 * (pt2.Y - pt0.Y)),
new SysPoint(pt2.X - tension3 * (pt3.X - pt1.X), pt2.Y - tension3 * (pt3.Y - pt1.Y)),
new SysPoint(pt2.X, pt2.Y), true);
#else
BezierSegment bezierSegment = new BezierSegment();
bezierSegment.Point1 = new SysPoint(pt1.X + tension3 * (pt2.X - pt0.X), pt1.Y + tension3 * (pt2.Y - pt0.Y));
bezierSegment.Point2 = new SysPoint(pt2.X - tension3 * (pt3.X - pt1.X), pt2.Y - tension3 * (pt3.Y - pt1.Y));
bezierSegment.Point3 = new SysPoint(pt2.X, pt2.Y);
return bezierSegment;
#endif
}
void DrawCodePage(XGraphics gfx, XPoint origin)
{
const double dx = 25;
const double dy = 25;
XFont labelFont = new XFont("Verdana", 10, XFontStyle.Bold);
//XFont font = new XFont("Bauhaus", 16);
XFont font = this.properties.Font1.Font;
//XFont labelFont = font;
//font = new XFont("Symbol", 16);
Encoding encoding = Encoding.GetEncoding(1252);
double asdf = XColors.LightGray.GS;
//XBrush lighter = new XSolidBrush(XColor.FromGrayScale(XColor.LightGray.GS * 1.1));
XBrush lighter = new XSolidBrush(XColor.FromGrayScale(0.9));
XFontStyle style = font.Style;
double lineSpace = font.GetHeight(gfx);
int cellSpace = font.FontFamily.GetLineSpacing(style);
int cellAscent = font.FontFamily.GetCellAscent(style);
int cellDescent = font.FontFamily.GetCellDescent(style);
int cellLeading = cellSpace - cellAscent - cellDescent;
double ascent = lineSpace * cellAscent / cellSpace;
double descent = lineSpace * cellDescent / cellSpace;
double leading = lineSpace * cellLeading / cellSpace;
double x = origin.X + dx;
double y = origin.Y;
//for (int idx = 0; idx < 16; idx++)
// gfx.DrawString("x" + idx.ToString("X"), labelFont, XBrushes.DarkGray, x + idx * dx, y);
for (int row = 0; row < 16; row++)
{
x = origin.X;
y += dy;
//gfx.DrawString(row.ToString("X") + "x", labelFont, XBrushes.DarkGray, x, y);
for (int clm = 0; clm < 16; clm++)
{
x += dx;
string glyph = encoding.GetString(new byte[1]{Convert.ToByte(row * 16 + clm)});
glyph += "!";
XSize size = gfx.MeasureString(glyph, font);
gfx.DrawRectangle(XBrushes.LightGray, x, y - size.Height + descent, size.Width, size.Height);
gfx.DrawRectangle(lighter, x, y - size.Height + descent, size.Width, leading);
gfx.DrawRectangle(lighter, x, y, size.Width, descent);
gfx.DrawString(glyph, font, XBrushes.Black, x, y);
}
}
}
/// <summary>
/// Renders the OMR code.
/// </summary>
protected internal override void Render(XGraphics gfx, XBrush brush, XFont font, XPoint position)
{
XGraphicsState state = gfx.Save();
switch (this.direction)
{
case CodeDirection.RightToLeft:
gfx.RotateAtTransform(180, position);
break;
case CodeDirection.TopToBottom:
gfx.RotateAtTransform(90, position);
break;
case CodeDirection.BottomToTop:
gfx.RotateAtTransform(-90, position);
break;
}
//XPoint pt = center - this.size / 2;
XPoint pt = position - CodeBase.CalcDistance(AnchorType.TopLeft, this.anchor, this.size);
uint value;
uint.TryParse(this.text, out value);
#if true
// HACK: Project Wallenwein: set LK
value |= 1;
this.synchronizeCode = true;
#endif
if (this.synchronizeCode)
{
XRect rect = new XRect(pt.x, pt.y, this.makerThickness, this.size.height);
gfx.DrawRectangle(brush, rect);
pt.x += 2 * this.makerDistance;
}
for (int idx = 0; idx < 32; idx++)
{
if ((value & 1) == 1)
{
XRect rect = new XRect(pt.x + idx * this.makerDistance, pt.y, this.makerThickness, this.size.height);
gfx.DrawRectangle(brush, rect);
}
value = value >> 1;
}
gfx.Restore(state);
}
public void Draw(XPoint basePoint, XRect baseRect, XImage image)
{
XFont headerFont = new XFont("Arial", 16);
XFont subfont = new XFont("Arial", 10);
char degree = Convert.ToChar('\u00b0');
gfx.DrawString(parameterLeft.Name.Substring(5, parameterLeft.Name.Length - 5), headerFont, XBrushes.Black, basePoint, XStringFormats.Center);
gfx.DrawString(parameterLeft.Value.ToString() + degree, subfont, XBrushes.Black, basePoint + new XPoint(-25, baseRect.Height * 0.05),XStringFormats.Center);
gfx.DrawString(parameterRight.Value.ToString() + degree, subfont, XBrushes.Black, basePoint + new XPoint(25, baseRect.Height * 0.05), XStringFormats.Center);
XBrush brush = XBrushes.Black;
if (parameterLeft.LSI >= 75)
brush = XBrushes.Green;
else
brush = XBrushes.Gold;
gfx.DrawRoundedRectangle(brush,
new XRect(basePoint + new XPoint(-baseRect.Width * 0.05, baseRect.Height * 0.075),
new XSize(baseRect.Width * 0.1, baseRect.Height * 0.075)),
new XSize(10,10));
gfx.DrawString(parameterLeft.LSI.ToString("0") + "%",
subfont,
XBrushes.Black,
basePoint + new XPoint(baseRect.Width * -0.025, baseRect.Height * 0.125));
XSolidBrush blue = new XSolidBrush(XColor.FromArgb(127, 0, 0, 255));
XSolidBrush yellow = new XSolidBrush(XColor.FromArgb(127, 255, 255, 0));
XPoint top = new XPoint(basePoint.X - 20, basePoint.Y + baseRect.Height * 0.2);
XPoint bottom = new XPoint(basePoint.X - 20, basePoint.Y + baseRect.Height * 0.8);
XPoint leftRectPoint = Interpolate(bottom, top, -parameterLeft.Percentage);
XRect leftBar = new XRect(leftRectPoint, new XSize(20, bottom.Y - leftRectPoint.Y ));
gfx.DrawRectangle(blue, leftBar);
XPoint rigthRectPoint = Interpolate(bottom, top, -parameterRight.Percentage);
XRect rightBar = new XRect(rigthRectPoint + new XPoint(30,0), new XSize(20, bottom.Y - rigthRectPoint.Y));
gfx.DrawRectangle(yellow, rightBar);
gfx.DrawString("L", subfont, XBrushes.Black, bottom + new XPoint(5, -2));
gfx.DrawString("R", subfont, XBrushes.Black, bottom + new XPoint(35, -2));
gfx.DrawImage(image, new XRect(bottom.X, bottom.Y, 50, 50));
image.Dispose();
}
private static void DrawLineCurveInternal(XGraphics gfx, XPen pen, bool isStroked, ref XPoint pt1, ref XPoint pt2, double curvature, Core2D.Style.CurveOrientation orientation, Core2D.Shape.PointAlignment pt1a, Core2D.Shape.PointAlignment pt2a)
{
if (isStroked)
{
var path = new XGraphicsPath();
double p1x = pt1.X;
double p1y = pt1.Y;
double p2x = pt2.X;
double p2y = pt2.Y;
Core2D.Shapes.XLineExtensions.GetCurvedLineBezierControlPoints(orientation, curvature, pt1a, pt2a, ref p1x, ref p1y, ref p2x, ref p2y);
path.AddBezier(
pt1.X, pt1.Y,
p1x, p1y,
p2x, p2y,
pt2.X, pt2.Y);
gfx.DrawPath(pen, path);
}
}
public XPoint[] GeneratePoints(XPoint center, float size, int sides, XGraphics gfx, int angleOffset = 270)
{
XPoint[] points = new XPoint[sides + 1];
float degreeSegments = 360.0f / sides;
//calculte all of the point in the polygon
for (int i = 0; i < sides; i++)
{
float angle = i * degreeSegments + angleOffset;
angle *= ((float)Math.PI / 180);
XPoint location = new XPoint(size * Math.Cos(angle) + center.X,
size * Math.Sin(angle) + center.Y);
points[i] = location;
}
points[sides] = points[0];
return points;
}
/// <summary>
/// Source and more infos: http://www.math.dartmouth.edu/~dlittle/java/SpiroGraph/
/// </summary>
public override void RenderPage(XGraphics gfx)
{
base.RenderPage(gfx);
//int R = 60, r = 60, p = 60, N = 270; // Cardioid
//int R = 60, r = -45, p = -101, N = 270; // Rounded Square
//int R = 75, r = -25, p = 85, N = 270; // Gold fish
//int R = 75, r = -30, p = 60, N = 270; // Star fish
//int R = 100, r = 49, p = 66, N = 7; // String of Pearls
//int R = 90, r = 1, p = 105, N = 105; // Rotating Triangle
//int R = 90, r = 1, p = 105, N = 105;
int R = 60, r = 2, p = 122, N = 490;
int revs = Math.Abs(r) / Gcd(R, Math.Abs(r));
XPoint[] points = new XPoint[revs * N + 1];
for (int i = 0; i <= revs * N; i++)
{
double t = 4 * i * Math.PI / N;
points[i].X = ((R+r)*Math.Cos(t) - p * Math.Cos((R+r)* t / r));
points[i].Y = ((R+r)*Math.Sin(t) - p * Math.Sin((R+r)* t / r));
}
#if true
// Draw as lines
gfx.TranslateTransform(300, 250);
gfx.DrawLines(properties.Pen2.Pen, points);
//gfx.DrawPolygon(properties.Pen2.Pen, properties.Brush2.Brush, points, properties.General.FillMode);
// Draw as closed curve
gfx.TranslateTransform(0, 400);
gfx.DrawClosedCurve(properties.Pen2.Pen, properties.Brush2.Brush, points, properties.General.FillMode,
properties.General.Tension);
#else
gfx.TranslateTransform(300, 400);
XSolidBrush dotBrush = new XSolidBrush(properties.Pen2.Pen.Color);
float width = properties.Pen2.Width;
for (int i = 0; i < revs * N; i++)
gfx.DrawEllipse(dotBrush,points[i].X, points[i].Y, width, width);
#endif
}
/// <summary>
/// Draws the content of the line plot area.
/// </summary>
internal override void Draw()
{
ChartRendererInfo cri = (ChartRendererInfo)this.rendererParms.RendererInfo;
XRect plotAreaRect = cri.plotAreaRendererInfo.Rect;
if (plotAreaRect.IsEmpty)
return;
XGraphics gfx = this.rendererParms.Graphics;
XGraphicsState state = gfx.Save();
//gfx.SetClip(plotAreaRect, XCombineMode.Intersect);
gfx.IntersectClip(plotAreaRect);
//TODO null-Values müssen berücksichtigt werden.
// Verbindungspunkte können fehlen, je nachdem wie null-Values behandelt werden sollen.
// (NotPlotted, Interpolate etc.)
// Draw lines and markers for each data series.
XMatrix matrix = cri.plotAreaRendererInfo.matrix;
double xMajorTick = cri.xAxisRendererInfo.MajorTick;
foreach (SeriesRendererInfo sri in cri.seriesRendererInfos)
{
int count = sri.series.Elements.Count;
XPoint[] points = new XPoint[count];
for (int idx = 0; idx < count; idx++)
{
double v = sri.series.Elements[idx].Value;
if (double.IsNaN(v))
v = 0;
points[idx] = new XPoint(idx + xMajorTick / 2, v);
}
matrix.TransformPoints(points);
gfx.DrawLines(sri.LineFormat, points);
DrawMarker(gfx, points, sri);
}
//gfx.ResetClip();
gfx.Restore(state);
}
public void DrawBarCharts(XGraphics gfx)
{
XPoint backgroundPoint = new XPoint(20, page.Height * 0.585);
XRect backgroundRect = new XRect(backgroundPoint.X, backgroundPoint.Y, page.Width - 40, page.Height * 0.41);
gfx.DrawRoundedRectangle(new XSolidBrush(XColor.FromKnownColor(XKnownColor.Gray)),
backgroundRect,
new XSize(40, 40));
DoubleBar ShoulderFlexionBar = new DoubleBar(userParameters["LEFT Shoulder Flexion"], userParameters["RIGHT Shoulder Flexion"], gfx);
ShoulderFlexionBar.Draw(new XPoint(quaterWidth * 0.5 - 10,backgroundPoint.Y + 20),
backgroundRect,
XImage.FromFile(@"C:\Users\kevin\Desktop\PDFsharp\samples\Samples C#\Based on WPF\HelloWorld\Content\Shoulder Flexion.png"));
DoubleBar hipFlexionBar = new DoubleBar(userParameters["LEFT Hip Flexion"], userParameters["RIGHT Hip Flexion"], gfx);
hipFlexionBar.Draw(new XPoint(quaterWidth * 2 - (quaterWidth * 0.5) - 10, backgroundPoint.Y + 20),
backgroundRect,
XImage.FromFile(@"C:\Users\kevin\Desktop\PDFsharp\samples\Samples C#\Based on WPF\HelloWorld\Content\Hip Flexion.png"));
DoubleBar kneeFlexionBar = new DoubleBar(userParameters["LEFT Knee Flexion"], userParameters["RIGHT Knee Flexion"], gfx);
kneeFlexionBar.Draw(new XPoint(quaterWidth * 3 - (quaterWidth * 0.5) - 10, backgroundPoint.Y + 20),
backgroundRect,
XImage.FromFile(@"C:\Users\kevin\Desktop\PDFsharp\samples\Samples C#\Based on WPF\HelloWorld\Content\Knee Flexion.png"));
DoubleBar ankleFlexionBar = new DoubleBar(userParameters["LEFT Ankle Flexion"], userParameters["RIGHT Ankle Flexion"], gfx);
ankleFlexionBar.Draw(new XPoint(quaterWidth * 4 - (quaterWidth * 0.5) - 10, backgroundPoint.Y + 20),
backgroundRect,
XImage.FromFile(@"C:\Users\kevin\Desktop\PDFsharp\samples\Samples C#\Based on WPF\HelloWorld\Content\Ankle Flexion.png"));
XPoint top = new XPoint(backgroundPoint.X, backgroundPoint.Y + backgroundRect.Height * 0.2);
XPoint bottom = new XPoint(backgroundPoint.X, backgroundPoint.Y + backgroundRect.Height * 0.8);
for (int i = 11; i > 0; i--)
{
float increment = -i * 0.1f;
XPoint percentagePoint = Interpolate(top, bottom, increment);
gfx.DrawString(((11 - i) * 10).ToString() + "%", new XFont("Arial", 8), XBrushes.Black, percentagePoint + new XPoint(5, 0));
gfx.DrawLine(XPens.Black, percentagePoint, percentagePoint + new XPoint(backgroundRect.Width, 0));
}
}
/// <summary>
/// Draws the content of the line plot area.
/// </summary>
internal override void Draw()
{
ChartRendererInfo cri = (ChartRendererInfo)_rendererParms.RendererInfo;
XRect plotAreaRect = cri.plotAreaRendererInfo.Rect;
if (plotAreaRect.IsEmpty)
return;
XGraphics gfx = _rendererParms.Graphics;
XGraphicsState state = gfx.Save();
//gfx.SetClip(plotAreaRect, XCombineMode.Intersect);
gfx.IntersectClip(plotAreaRect);
//TODO Treat null values correctly.
// Points can be missing. Treat null values accordingly (NotPlotted, Interpolate etc.)
// Draw lines and markers for each data series.
XMatrix matrix = cri.plotAreaRendererInfo._matrix;
double xMajorTick = cri.xAxisRendererInfo.MajorTick;
foreach (SeriesRendererInfo sri in cri.seriesRendererInfos)
{
int count = sri._series.Elements.Count;
XPoint[] points = new XPoint[count];
for (int idx = 0; idx < count; idx++)
{
double v = sri._series.Elements[idx].Value;
if (double.IsNaN(v))
v = 0;
points[idx] = new XPoint(idx + xMajorTick / 2, v);
}
matrix.TransformPoints(points);
gfx.DrawLines(sri.LineFormat, points);
DrawMarker(gfx, points, sri);
}
//gfx.ResetClip();
gfx.Restore(state);
}
/// <summary>
/// Indicates whether the rectangle contains the specified point.
/// </summary>
public bool Contains(XPoint point)
{
return(Contains(point.X, point.Y));
}
/// <summary>
/// Adds a point and a vector.
/// </summary>
public static XPoint Add(XPoint point, XVector vector)
{
return(new XPoint(point._x + vector.X, point._y + vector.Y));
}
/// <summary>
/// Adds a point and a vector.
/// </summary>
public static XPoint Add(XPoint point, XVector vector)
{
return(new XPoint(point.x + vector.x, point.y + vector.y));
}
public static PDF.XGraphicsPath ToXGraphicsPath(this IPathGeometry pg, Func <double, double> scale)
{
var gp = new PDF.XGraphicsPath()
{
FillMode = pg.FillRule == FillRule.EvenOdd ? PDF.XFillMode.Alternate : PDF.XFillMode.Winding
};
foreach (var pf in pg.Figures)
{
var startPoint = pf.StartPoint;
foreach (var segment in pf.Segments)
{
if (segment is IArcSegment arcSegment)
{
#if WPF
var point1 = new PDF.XPoint(
scale(startPoint.X),
scale(startPoint.Y));
var point2 = new PDF.XPoint(
scale(arcSegment.Point.X),
scale(arcSegment.Point.Y));
var size = new PDF.XSize(
scale(arcSegment.Size.Width),
scale(arcSegment.Size.Height));
gp.AddArc(
point1,
point2,
size, arcSegment.RotationAngle, arcSegment.IsLargeArc,
arcSegment.SweepDirection == SweepDirection.Clockwise ? PDF.XSweepDirection.Clockwise : PDF.XSweepDirection.Counterclockwise);
startPoint = arcSegment.Point;
#else
// TODO: Convert WPF/SVG elliptical arc segment format to GDI+ bezier curves.
startPoint = arcSegment.Point;
#endif
}
else if (segment is ICubicBezierSegment cubicBezierSegment)
{
gp.AddBezier(
scale(startPoint.X),
scale(startPoint.Y),
scale(cubicBezierSegment.Point1.X),
scale(cubicBezierSegment.Point1.Y),
scale(cubicBezierSegment.Point2.X),
scale(cubicBezierSegment.Point2.Y),
scale(cubicBezierSegment.Point3.X),
scale(cubicBezierSegment.Point3.Y));
startPoint = cubicBezierSegment.Point3;
}
else if (segment is ILineSegment)
{
var lineSegment = segment as ILineSegment;
gp.AddLine(
scale(startPoint.X),
scale(startPoint.Y),
scale(lineSegment.Point.X),
scale(lineSegment.Point.Y));
startPoint = lineSegment.Point;
}
else if (segment is IQuadraticBezierSegment quadraticBezierSegment)
{
var p1 = startPoint;
var p2 = quadraticBezierSegment.Point1;
var p3 = quadraticBezierSegment.Point2;
double x1 = p1.X;
double y1 = p1.Y;
double x2 = p1.X + (2.0 * (p2.X - p1.X)) / 3.0;
double y2 = p1.Y + (2.0 * (p2.Y - p1.Y)) / 3.0;
double x3 = x2 + (p3.X - p1.X) / 3.0;
double y3 = y2 + (p3.Y - p1.Y) / 3.0;
double x4 = p3.X;
double y4 = p3.Y;
gp.AddBezier(
scale(x1),
scale(y1),
scale(x2),
scale(y2),
scale(x3),
scale(y3),
scale(x4),
scale(y4));
startPoint = quadraticBezierSegment.Point2;
}
else
{
throw new NotSupportedException("Not supported segment type: " + segment.GetType());
}
}
if (pf.IsClosed)
{
gp.CloseFigure();
}
else
{
gp.StartFigure();
}
}
return(gp);
}
/// <summary>
/// Creates between 1 and 5 Béziers curves from parameters specified like in WPF.
/// </summary>
public static List <XPoint> BezierCurveFromArc(XPoint point1, XPoint point2, XSize size,
double rotationAngle, bool isLargeArc, bool clockwise, PathStart pathStart)
{
// See also http://www.charlespetzold.com/blog/blog.xml from January 2, 2008:
// http://www.charlespetzold.com/blog/2008/01/Mathematics-of-ArcSegment.html
double δx = size.Width;
double δy = size.Height;
Debug.Assert(δx * δy > 0);
double factor = δy / δx;
bool isCounterclockwise = !clockwise;
// Adjust for different radii and rotation angle.
XMatrix matrix = new XMatrix();
matrix.RotateAppend(-rotationAngle);
matrix.ScaleAppend(δy / δx, 1);
XPoint pt1 = matrix.Transform(point1);
XPoint pt2 = matrix.Transform(point2);
// Get info about chord that connects both points.
XPoint midPoint = new XPoint((pt1.X + pt2.X) / 2, (pt1.Y + pt2.Y) / 2);
XVector vect = pt2 - pt1;
double halfChord = vect.Length / 2;
// Get vector from chord to center.
XVector vectRotated;
// (comparing two Booleans here!)
if (isLargeArc == isCounterclockwise)
{
vectRotated = new XVector(-vect.Y, vect.X);
}
else
{
vectRotated = new XVector(vect.Y, -vect.X);
}
vectRotated.Normalize();
// Distance from chord to center.
double centerDistance = Math.Sqrt(δy * δy - halfChord * halfChord);
if (double.IsNaN(centerDistance))
{
centerDistance = 0;
}
// Calculate center point.
XPoint center = midPoint + centerDistance * vectRotated;
// Get angles from center to the two points.
double α = Math.Atan2(pt1.Y - center.Y, pt1.X - center.X);
double β = Math.Atan2(pt2.Y - center.Y, pt2.X - center.X);
// (another comparison of two Booleans!)
if (isLargeArc == (Math.Abs(β - α) < Math.PI))
{
if (α < β)
{
α += 2 * Math.PI;
}
else
{
β += 2 * Math.PI;
}
}
// Invert matrix for final point calculation.
matrix.Invert();
double sweepAngle = β - α;
// Let the algorithm of GDI+ DrawArc to Bézier curves do the rest of the job
return(BezierCurveFromArc(center.X - δx * factor, center.Y - δy, 2 * δx * factor, 2 * δy,
α / Calc.Deg2Rad, sweepAngle / Calc.Deg2Rad, pathStart, ref matrix));
}
/// <summary>
/// Multiplies a point with a matrix.
/// </summary>
public static XPoint Multiply(XPoint point, XMatrix matrix)
{
return(matrix.Transform(point));
}
/// <summary>
/// Indicates whether this instance and a specified point are equal.
/// </summary>
public bool Equals(XPoint value)
{
return(Equals(this, value));
}
public static XPoint Add(XVector vector, XPoint point)
{
return(new XPoint(point.X + vector._x, point.Y + vector._y));
}
/// <summary>
/// Appends a Bézier segment from a curve.
/// </summary>
public static BezierSegment CreateCurveSegment(XPoint pt0, XPoint pt1, XPoint pt2, XPoint pt3, double tension3)
{
#if !SILVERLIGHT && !NETFX_CORE
return(new BezierSegment(
new SysPoint(pt1.X + tension3 * (pt2.X - pt0.X), pt1.Y + tension3 * (pt2.Y - pt0.Y)),
new SysPoint(pt2.X - tension3 * (pt3.X - pt1.X), pt2.Y - tension3 * (pt3.Y - pt1.Y)),
new SysPoint(pt2.X, pt2.Y), true));
#else
BezierSegment bezierSegment = new BezierSegment();
bezierSegment.Point1 = new SysPoint(pt1.X + tension3 * (pt2.X - pt0.X), pt1.Y + tension3 * (pt2.Y - pt0.Y));
bezierSegment.Point2 = new SysPoint(pt2.X - tension3 * (pt3.X - pt1.X), pt2.Y - tension3 * (pt3.Y - pt1.Y));
bezierSegment.Point3 = new SysPoint(pt2.X, pt2.Y);
return(bezierSegment);
#endif
}
/// <summary>
/// Sets current rectangle to the union of the current rectangle and the specified point.
/// </summary>
public void Union(XPoint point)
{
Union(new XRect(point, point));
}
GetArcAngle(
XPoint startPoint, // Start point
XPoint endPoint, // End point
bool isLargeArc, // Choose the larger of the 2 possible arcs if TRUE
//SweepDirection sweepDirection, // Direction n which to sweep the arc.
bool isClockwise,
out double cosArcAngle, // Cosine of a the sweep angle of one arc piece
out double sinArcAngle, // Sine of a the sweep angle of one arc piece
out int pieces) // Out: The number of pieces
{
double angle;
// The points are on the unit circle, so:
cosArcAngle = startPoint.X * endPoint.X + startPoint.Y * endPoint.Y;
sinArcAngle = startPoint.X * endPoint.Y - startPoint.Y * endPoint.X;
if (cosArcAngle >= 0)
{
if (isLargeArc)
{
// The angle is between 270 and 360 degrees, so
pieces = 4;
}
else
{
// The angle is between 0 and 90 degrees, so
pieces = 1;
return; // We already have the cosine and sine of the angle
}
}
else
{
if (isLargeArc)
{
// The angle is between 180 and 270 degrees, so
pieces = 3;
}
else
{
// The angle is between 90 and 180 degrees, so
pieces = 2;
}
}
// We have to chop the arc into the computed number of pieces. For cPieces=2 and 4 we could
// have uses the half-angle trig formulas, but for pieces=3 it requires solving a cubic
// equation; the performance difference is not worth the extra code, so we'll get the angle,
// divide it, and get its sine and cosine.
Debug.Assert(pieces > 0);
angle = Math.Atan2(sinArcAngle, cosArcAngle);
if (isClockwise)
{
if (angle < 0)
{
angle += Math.PI * 2;
}
}
else
{
if (angle > 0)
{
angle -= Math.PI * 2;
}
}
angle /= pieces;
cosArcAngle = Math.Cos(angle);
sinArcAngle = Math.Sin(angle);
}
/// <summary>
/// Returns the intersection of a rectangle and a point.
/// </summary>
public static XRect Union(XRect rect, XPoint point)
{
rect.Union(new XRect(point, point));
return(rect);
}
/// <summary>
/// Initializes a new instance of the XRect class.
/// </summary>
public XRect(XPoint point, XVector vector)
: this(point, point + vector)
{
}
//+-------------------------------------------------------------------------------------------------
//
// Function: ArcToBezier
//
// Synopsis: Compute the Bezier approximation of an arc
//
// Notes: This utilitycomputes the Bezier approximation for an elliptical arc as it is defined
// in the SVG arc spec. The ellipse from which the arc is carved is axis-aligned in its
// own coordinates, and defined there by its x and y radii. The rotation angle defines
// how the ellipse's axes are rotated relative to our x axis. The start and end points
// define one of 4 possible arcs; the sweep and large-arc flags determine which one of
// these arcs will be chosen. See SVG spec for details.
//
// Returning pieces = 0 indicates a line instead of an arc
// pieces = -1 indicates that the arc degenerates to a point
//
//--------------------------------------------------------------------------------------------------
public static PointCollection ArcToBezier(double xStart, double yStart, double xRadius, double yRadius, double rotationAngle,
bool isLargeArc, bool isClockwise, double xEnd, double yEnd, out int pieces)
{
double cosArcAngle, sinArcAngle, xCenter, yCenter, r, bezDist;
XVector vecToBez1, vecToBez2;
XMatrix matToEllipse;
double fuzz2 = FUZZ * FUZZ;
bool isZeroCenter = false;
pieces = -1;
// In the following, the line segment between between the arc's start and
// end points is referred to as "the chord".
// Transform 1: Shift the origin to the chord's midpoint
double x = (xEnd - xStart) / 2;
double y = (yEnd - yStart) / 2;
double halfChord2 = x * x + y * y; // (half chord length)^2
// Degenerate case: single point
if (halfChord2 < fuzz2)
{
// The chord degeneartes to a point, the arc will be ignored
return(null);
}
// Degenerate case: straight line
if (!AcceptRadius(halfChord2, fuzz2, ref xRadius) || !AcceptRadius(halfChord2, fuzz2, ref yRadius))
{
// We have a zero radius, add a straight line segment instead of an arc
pieces = 0;
return(null);
}
if (xRadius == 0 || yRadius == 0)
{
// We have a zero radius, add a straight line segment instead of an arc
pieces = 0;
return(null);
}
// Transform 2: Rotate to the ellipse's coordinate system
rotationAngle = -rotationAngle * Calc.Deg2Rad;
double cos = Math.Cos(rotationAngle);
double sin = Math.Sin(rotationAngle);
r = x * cos - y * sin;
y = x * sin + y * cos;
x = r;
// Transform 3: Scale so that the ellipse will become a unit circle
x /= xRadius;
y /= yRadius;
// We get to the center of that circle along a verctor perpendicular to the chord
// from the origin, which is the chord's midpoint. By Pythagoras, the length of that
// vector is sqrt(1 - (half chord)^2).
halfChord2 = x * x + y * y; // now in the circle coordinates
if (halfChord2 > 1)
{
// The chord is longer than the circle's diameter; we scale the radii uniformly so
// that the chord will be a diameter. The center will then be the chord's midpoint,
// which is now the origin.
r = Math.Sqrt(halfChord2);
xRadius *= r;
yRadius *= r;
xCenter = yCenter = 0;
isZeroCenter = true;
// Adjust the unit-circle coordinates x and y
x /= r;
y /= r;
}
else
{
// The length of (-y,x) or (x,-y) is sqrt(rHalfChord2), and we want a vector
// of length sqrt(1 - rHalfChord2), so we'll multiply it by:
r = Math.Sqrt((1 - halfChord2) / halfChord2);
//if (isLargeArc != (eSweepDirection == SweepDirection.Clockwise))
if (isLargeArc != isClockwise)
// Going to the center from the origin=chord-midpoint
{
// in the direction of (-y, x)
xCenter = -r * y;
yCenter = r * x;
}
else
{
// in the direction of (y, -x)
xCenter = r * y;
yCenter = -r * x;
}
}
// Transformation 4: shift the origin to the center of the circle, which then becomes
// the unit circle. Since the chord's midpoint is the origin, the start point is (-x, -y)
// and the endpoint is (x, y).
XPoint ptStart = new XPoint(-x - xCenter, -y - yCenter);
XPoint ptEnd = new XPoint(x - xCenter, y - yCenter);
// Set up the matrix that will take us back to our coordinate system. This matrix is
// the inverse of the combination of transformation 1 thru 4.
matToEllipse = new XMatrix(cos * xRadius, -sin * xRadius,
sin * yRadius, cos * yRadius,
(xEnd + xStart) / 2, (yEnd + yStart) / 2);
if (!isZeroCenter)
{
// Prepend the translation that will take the origin to the circle's center
matToEllipse.OffsetX += (matToEllipse.M11 * xCenter + matToEllipse.M21 * yCenter);
matToEllipse.OffsetY += (matToEllipse.M12 * xCenter + matToEllipse.M22 * yCenter);
}
// Get the sine & cosine of the angle that will generate the arc pieces
GetArcAngle(ptStart, ptEnd, isLargeArc, isClockwise, out cosArcAngle, out sinArcAngle, out pieces);
// Get the vector to the first Bezier control point
bezDist = GetBezierDistance(cosArcAngle, 1);
//if (eSweepDirection == SweepDirection.Counterclockwise)
if (!isClockwise)
{
bezDist = -bezDist;
}
vecToBez1 = new XVector(-bezDist * ptStart.Y, bezDist * ptStart.X);
PointCollection result = new PointCollection();
// Add the arc pieces, except for the last
for (int idx = 1; idx < pieces; idx++)
{
// Get the arc piece's endpoint
XPoint ptPieceEnd = new XPoint(ptStart.X * cosArcAngle - ptStart.Y * sinArcAngle, ptStart.X * sinArcAngle + ptStart.Y * cosArcAngle);
vecToBez2 = new XVector(-bezDist * ptPieceEnd.Y, bezDist * ptPieceEnd.X);
result.Add(matToEllipse.Transform(ptStart + vecToBez1));
result.Add(matToEllipse.Transform(ptPieceEnd - vecToBez2));
result.Add(matToEllipse.Transform(ptPieceEnd));
// Move on to the next arc
ptStart = ptPieceEnd;
vecToBez1 = vecToBez2;
}
// Last arc - we know the endpoint
vecToBez2 = new XVector(-bezDist * ptEnd.Y, bezDist * ptEnd.X);
result.Add(matToEllipse.Transform(ptStart + vecToBez1));
result.Add(matToEllipse.Transform(ptEnd - vecToBez2));
result.Add(new XPoint(xEnd, yEnd));
return(result);
}
public XSize(XPoint pt) // DELETE: 08-12-31
{
width = pt.X;
height = pt.Y;
}
/// <summary>
/// Appends a Bézier segment from a curve.
/// </summary>
public static BezierSegment CreateCurveSegment(XPoint pt0, XPoint pt1, XPoint pt2, XPoint pt3, double tension3)
{
#if !SILVERLIGHT
return(new BezierSegment(
new Point(pt1.X + tension3 * (pt2.X - pt0.X), pt1.Y + tension3 * (pt2.Y - pt0.Y)),
new Point(pt2.X - tension3 * (pt3.X - pt1.X), pt2.Y - tension3 * (pt3.Y - pt1.Y)),
new Point(pt2.X, pt2.Y), true));
#else
return(new BezierSegment()); // AGHACK
#endif
}
/// <summary>
/// Subtracts a vector from a point.
/// </summary>
public static XPoint Subtract(XPoint point, XVector vector)
{
return(new XPoint(point._x - vector.X, point._y - vector.Y));
}
/// <summary>
/// Subtracts a vector from a point.
/// </summary>
public static XPoint Subtract(XPoint point, XVector vector)
{
return(new XPoint(point.x - vector.x, point.y - vector.y));
}
/// <summary>
/// Subtracts a point from a point.
/// </summary>
public static XVector Subtract(XPoint point1, XPoint point2)
{
return(new XVector(point1._x - point2._x, point1._y - point2._y));
}
/// <summary>
/// Indicates whether the specified points are equal.
/// </summary>
public static bool Equals(XPoint point1, XPoint point2)
{
return(point1.X.Equals(point2.X) && point1.Y.Equals(point2.Y));
}
/// <summary>
///
/// </summary>
/// <param name="pg"></param>
/// <param name="dx"></param>
/// <param name="dy"></param>
/// <param name="scale"></param>
/// <returns></returns>
public static PDF.XGraphicsPath ToXGraphicsPath(this IPathGeometry pg, double dx, double dy, Func <double, double> scale)
{
var gp = new PDF.XGraphicsPath()
{
FillMode = pg.FillRule == FillRule.EvenOdd ? PDF.XFillMode.Alternate : PDF.XFillMode.Winding
};
foreach (var pf in pg.Figures)
{
var startPoint = pf.StartPoint;
foreach (var segment in pf.Segments)
{
if (segment is IArcSegment arcSegment)
{
#if WPF
var point1 = new PDF.XPoint(
scale(startPoint.X + dx),
scale(startPoint.Y + dy));
var point2 = new PDF.XPoint(
scale(arcSegment.Point.X + dx),
scale(arcSegment.Point.Y + dy));
var size = new PDF.XSize(
scale(arcSegment.Size.Width),
scale(arcSegment.Size.Height));
gp.AddArc(
point1,
point2,
size, arcSegment.RotationAngle, arcSegment.IsLargeArc,
arcSegment.SweepDirection == SweepDirection.Clockwise ? PDF.XSweepDirection.Clockwise : PDF.XSweepDirection.Counterclockwise);
startPoint = arcSegment.Point;
#else
throw new NotSupportedException("Not supported segment type: " + segment.GetType());
// TODO: Convert WPF/SVG elliptical arc segment format to GDI+ bezier curves.
//startPoint = arcSegment.Point;
#endif
}
else if (segment is ICubicBezierSegment cubicBezierSegment)
{
gp.AddBezier(
scale(startPoint.X + dx),
scale(startPoint.Y + dy),
scale(cubicBezierSegment.Point1.X + dx),
scale(cubicBezierSegment.Point1.Y + dy),
scale(cubicBezierSegment.Point2.X + dx),
scale(cubicBezierSegment.Point2.Y + dy),
scale(cubicBezierSegment.Point3.X + dx),
scale(cubicBezierSegment.Point3.Y + dy));
startPoint = cubicBezierSegment.Point3;
}
else if (segment is ILineSegment)
{
var lineSegment = segment as ILineSegment;
gp.AddLine(
scale(startPoint.X + dx),
scale(startPoint.Y + dy),
scale(lineSegment.Point.X + dx),
scale(lineSegment.Point.Y + dy));
startPoint = lineSegment.Point;
}
else if (segment is IPolyCubicBezierSegment polyCubicBezierSegment)
{
if (polyCubicBezierSegment.Points.Length >= 3)
{
gp.AddBezier(
scale(startPoint.X + dx),
scale(startPoint.Y + dy),
scale(polyCubicBezierSegment.Points[0].X + dx),
scale(polyCubicBezierSegment.Points[0].Y + dy),
scale(polyCubicBezierSegment.Points[1].X + dx),
scale(polyCubicBezierSegment.Points[1].Y + dy),
scale(polyCubicBezierSegment.Points[2].X + dx),
scale(polyCubicBezierSegment.Points[2].Y + dy));
}
if (polyCubicBezierSegment.Points.Length > 3 &&
polyCubicBezierSegment.Points.Length % 3 == 0)
{
for (int i = 3; i < polyCubicBezierSegment.Points.Length; i += 3)
{
gp.AddBezier(
scale(polyCubicBezierSegment.Points[i - 1].X + dx),
scale(polyCubicBezierSegment.Points[i - 1].Y + dy),
scale(polyCubicBezierSegment.Points[i].X + dx),
scale(polyCubicBezierSegment.Points[i].Y + dy),
scale(polyCubicBezierSegment.Points[i + 1].X + dx),
scale(polyCubicBezierSegment.Points[i + 1].Y + dy),
scale(polyCubicBezierSegment.Points[i + 2].X + dx),
scale(polyCubicBezierSegment.Points[i + 2].Y + dy));
}
}
startPoint = polyCubicBezierSegment.Points.Last();
}
else if (segment is IPolyLineSegment polyLineSegment)
{
if (polyLineSegment.Points.Length >= 1)
{
gp.AddLine(
scale(startPoint.X + dx),
scale(startPoint.Y + dy),
scale(polyLineSegment.Points[0].X + dx),
scale(polyLineSegment.Points[0].Y + dy));
}
if (polyLineSegment.Points.Length > 1)
{
for (int i = 1; i < polyLineSegment.Points.Length; i++)
{
gp.AddLine(
scale(polyLineSegment.Points[i - 1].X + dx),
scale(polyLineSegment.Points[i - 1].Y + dy),
scale(polyLineSegment.Points[i].X + dx),
scale(polyLineSegment.Points[i].Y + dy));
}
}
startPoint = polyLineSegment.Points.Last();
}
else if (segment is IPolyQuadraticBezierSegment polyQuadraticSegment)
{
if (polyQuadraticSegment.Points.Length >= 2)
{
var p1 = startPoint;
var p2 = polyQuadraticSegment.Points[0];
var p3 = polyQuadraticSegment.Points[1];
double x1 = p1.X;
double y1 = p1.Y;
double x2 = p1.X + (2.0 * (p2.X - p1.X)) / 3.0;
double y2 = p1.Y + (2.0 * (p2.Y - p1.Y)) / 3.0;
double x3 = x2 + (p3.X - p1.X) / 3.0;
double y3 = y2 + (p3.Y - p1.Y) / 3.0;
double x4 = p3.X;
double y4 = p3.Y;
gp.AddBezier(
scale(x1 + dx),
scale(y1 + dy),
scale(x2 + dx),
scale(y2 + dy),
scale(x3 + dx),
scale(y3 + dy),
scale(x4 + dx),
scale(y4 + dy));
}
if (polyQuadraticSegment.Points.Length > 2 &&
polyQuadraticSegment.Points.Length % 2 == 0)
{
for (int i = 3; i < polyQuadraticSegment.Points.Length; i += 3)
{
var p1 = polyQuadraticSegment.Points[i - 1];
var p2 = polyQuadraticSegment.Points[i];
var p3 = polyQuadraticSegment.Points[i + 1];
double x1 = p1.X;
double y1 = p1.Y;
double x2 = p1.X + (2.0 * (p2.X - p1.X)) / 3.0;
double y2 = p1.Y + (2.0 * (p2.Y - p1.Y)) / 3.0;
double x3 = x2 + (p3.X - p1.X) / 3.0;
double y3 = y2 + (p3.Y - p1.Y) / 3.0;
double x4 = p3.X;
double y4 = p3.Y;
gp.AddBezier(
scale(x1 + dx),
scale(y1 + dy),
scale(x2 + dx),
scale(y2 + dy),
scale(x3 + dx),
scale(y3 + dy),
scale(x4 + dx),
scale(y4 + dy));
}
}
startPoint = polyQuadraticSegment.Points.Last();
}
else if (segment is IQuadraticBezierSegment quadraticBezierSegment)
{
var p1 = startPoint;
var p2 = quadraticBezierSegment.Point1;
var p3 = quadraticBezierSegment.Point2;
double x1 = p1.X;
double y1 = p1.Y;
double x2 = p1.X + (2.0 * (p2.X - p1.X)) / 3.0;
double y2 = p1.Y + (2.0 * (p2.Y - p1.Y)) / 3.0;
double x3 = x2 + (p3.X - p1.X) / 3.0;
double y3 = y2 + (p3.Y - p1.Y) / 3.0;
double x4 = p3.X;
double y4 = p3.Y;
gp.AddBezier(
scale(x1 + dx),
scale(y1 + dy),
scale(x2 + dx),
scale(y2 + dy),
scale(x3 + dx),
scale(y3 + dy),
scale(x4 + dx),
scale(y4 + dy));
startPoint = quadraticBezierSegment.Point2;
}
else
{
throw new NotSupportedException("Not supported segment type: " + segment.GetType());
}
}
if (pf.IsClosed)
{
gp.CloseFigure();
}
else
{
gp.StartFigure();
}
}
return(gp);
}
public XSize(XPoint pt) // DELETE: 08-12-31
{
this.width = pt.X;
this.height = pt.Y;
}
private static void DrawLineInternal(XGraphics gfx, XPen pen, bool isStroked, ref XPoint p0, ref XPoint p1)
{
if (isStroked)
{
gfx.DrawLine(pen, p0, p1);
}
}
