internal static Bitmap Visualize(IReadOnlyCollection <RectangleF> rectangles)
{
var(bitmapSize, offsetFromCenter) = GetNecessarySizeForBitmapAndOffset(rectangles);
var center = new PointF((float)bitmapSize.Width / 2, (float)bitmapSize.Height / 2);
var offsetForRectangles = center.Add(offsetFromCenter);
var canvas = new Bitmap(bitmapSize.Width, bitmapSize.Height);
var penForRectangles = new Pen(Color.Blue, 1);
var resRectangles = rectangles
.Select(r => new RectangleF(r.Location.Add(offsetForRectangles), r.Size))
.ToArray();
using (var graphics = Graphics.FromImage(canvas))
{
graphics.Clear(Color.Black);
graphics.DrawRectangles(penForRectangles, resRectangles);
}
return(canvas);
}
private static void SetRegion(ref RectangleFSerializable rectangle, PointF?topLeft, PointF?bottomRight)
{
PointF topLeftValue = topLeft ?? rectangle.Location;
PointF bottomRightValue = bottomRight ?? PointF.Add(rectangle.Location, rectangle.Size);
if (topLeftValue.X > bottomRightValue.X)
{
bottomRightValue.X = topLeftValue.X;
}
if (topLeftValue.Y > bottomRightValue.Y)
{
bottomRightValue.Y = topLeftValue.Y;
}
rectangle.X = topLeftValue.X;
rectangle.Y = topLeftValue.Y;
rectangle.Width = bottomRightValue.X - topLeftValue.X;
rectangle.Height = bottomRightValue.Y - topLeftValue.Y;
}
/// <summary>
/// Function to render the symbol
/// </summary>
/// <param name="map">The map</param>
/// <param name="point">The point to symbolize</param>
/// <param name="g">The graphics object</param>
protected void RenderPoint(MapViewport map, Coordinate point, Graphics g)
{
if (point == null)
{
return;
}
PointF pp = map.WorldToImage(point);
if (Rotation != 0f && !Single.IsNaN(Rotation))
{
SizeF offset = GetOffset();
PointF rotationCenter = pp;
using (var origTrans = g.Transform.Clone())
using (var t = g.Transform)
{
t.RotateAt(Rotation, rotationCenter);
t.Translate(offset.Width + 1, offset.Height + 1);
g.Transform = t;
OnRenderInternal(pp, g);
g.Transform = origTrans;
}
using (var symTrans = new Matrix())
{
symTrans.RotateAt(Rotation, rotationCenter);
symTrans.Translate(offset.Width + 1, offset.Height + 1);
var pts = CanvasArea.ToPointArray();
symTrans.TransformPoints(pts);
CanvasArea = pts.ToRectangleF();
}
}
else
{
pp = PointF.Add(pp, GetOffset());
OnRenderInternal(pp, g);
}
}
} //draws the complete actor
private void DrawName(Graphics g, Point p1, string naam)
{
p1.Y = p1.Y + 40;
p1.X = p1.X - 20;
Size grootte = new Size(10, 10);
grootte.Height = 5;
grootte.Width = 5;
FontFamily family = new FontFamily("Arial");
Font font = new Font(family, 10);
if (naam != "")
{
g.DrawString(naam, font, Brushes.Black, PointF.Add(p1, grootte));
}
else
{
this.Naam = "Actor";
g.DrawString(Naam, font, Brushes.Black, PointF.Add(p1, grootte));
}
}
/// <summary>
/// Обработка перемещения указателя
/// </summary>
/// <param name="location"></param>
/// <param name="modifierKeys"></param>
public override void MouseMove(Point location, Keys modifierKeys)
{
base.MouseMove(location, modifierKeys);
if (!mouseDowned)
{
return;
}
// нет выделенного маркера, значит, тянут за фигуру
if (currentMarker != null)
{
// передаём положение перемещаемого маркера маркеру с исходномым номером
markers[currentMarker.Index].Location = new PointF(currentMarker.Location.X, currentMarker.Location.Y);
return;
}
if (OffsetLocation.IsEmpty)
{
return;
}
// корректируем положение всех маркеров на величину смещения
markers.ForEach(x => x.Location = PointF.Add(x.Location, OffsetLocation));
}
private static string DrawChar(char c, int[] hFont, PointF origin, int Angle, float Scale)
{
// Each vector needs to be (a) rotate to the angle of the line of text and (b) Scaled
// One unit vector = 1 second or 90-100 feet. Use the Scale function to adjust.
string result = string.Empty; float X; float Y;
bool isFirst = true; string cr = Environment.NewLine;
int angle = (int)InfoSection.MagneticVariation + Angle;
float scale = Scale / 3600F;
PointF end; PointF start = PointF.Empty;
// Rotate through vectors in usual manner
for (int i = 2; i < hFont.Length; i += 2)
{
Y = hFont[i + 1]; X = hFont[i]; // X-Lon, Y-Lat
if ((X == -1) || (Y == -1)) // Next point is a break
{
end = PointF.Empty;
}
else // Get next vector (which will get moved to Start)
{
SizeF vector = new SizeF(X * scale, Y * scale);
end = PointF.Add(origin, vector);
end = LatLongCalc.RotatePoint(end, origin, angle);
}
if (!(start.IsEmpty) && !(end.IsEmpty))
{
result +=
SCTstrings.CharOut(Conversions.DecDeg2SCT(start.Y, true), Conversions.DecDeg2SCT(start.X, false),
Conversions.DecDeg2SCT(end.Y, true), Conversions.DecDeg2SCT(end.X, false));
if (isFirst)
{
result += ";" + c.ToString();
isFirst = false;
}
result += cr;
}
start = end; // No matter what happened, move End to Start
}
return(result); // Lat Long string to draw ONE character! (Sheesh)
}
private PointF CalculateDotLocation(int dotIndex, ref bool shouldPaintDot)
{
int dotAnglePosition = this.dotAnglePositions[dotIndex];
if (dotAnglePosition < 0 || dotAnglePosition > this.DotSweepAngleLifeCycle)
{
shouldPaintDot = false;
return((PointF)Point.Empty);
}
int rotatedAngle = this.GetRotatedAngle(this.dotAnglePositions[dotIndex]);
double num = (double)rotatedAngle * Math.PI / 180.0;
PointF pt = new PointF((float)this.Radius * (float)Math.Cos(num), (float)(-1 * this.Radius) * (float)Math.Sin(num));
pt = PointF.Add(pt, new Size(this.GetRectangleCenter(this.BoundingRectangle)));
pt.X -= (float)this.DotRadius / 2f;
pt.Y -= (float)this.DotRadius / 2f;
if (dotIndex == 0)
{
this.CurrentLeadingElementAngle = rotatedAngle;
}
return(pt);
}
protected override void OnMouseWheel(MouseEventArgs e)
{
base.OnMouseWheel(e);
var oldZoomValue = m_Zoom;
if (e.Delta > 0)
{
// Zoom in
m_Zoom *= 1 + k_ZoomIntensity;
m_ImagePos = m_ImagePos.Sub(GetImagePositionDeltaFromScroll(e.Location, k_ZoomIntensity));
}
else
{
// Zoom out
m_Zoom *= 1 / (1 + k_ZoomIntensity); // m_Zoom /= 1 + k_ZoomIntensity, or basically opposite of zooming in
var zoomDelta = 1 - 1 / (1 + k_ZoomIntensity); // percentage of how smaller the image should become
m_ImagePos = m_ImagePos.Add(GetImagePositionDeltaFromScroll(e.Location, zoomDelta));
}
Invalidate();
}
public Game()
{
InitializeComponent();
ScreenBounds = ClientRectangle;
new Player(new RectangleF((ScreenBounds.Width / 2) - 5, ScreenBounds.Height * 0.9f, 10, 10), Textures.Ship);
float insetTop = 10, insetBottom = ScreenBounds.Height * 0.5f;
float insetLeft = 10, insetRight = 10;
RectangleF enemySpawnArea = ScreenBounds;
enemySpawnArea.Location = PointF.Add(enemySpawnArea.Location, new SizeF(insetLeft, insetTop));
enemySpawnArea.Size -= new SizeF(insetLeft + insetRight, insetTop + insetBottom);
float enemyWidth = 10;
float enemyHeight = 10;
int enemyRows = 10;
int enemyColumns = 5;
float enemySpaceX = (enemySpawnArea.Width - enemyWidth) / (enemyRows - 1);
float enemySpaceY = (enemySpawnArea.Height - enemyHeight) / (enemyColumns - 1);
for (int x = 0; x < enemyRows; x++)
{
for (int y = 0; y < enemyColumns; y++)
{
new Enemy(new RectangleF(enemySpawnArea.X + x * enemySpaceX, enemySpawnArea.Y + y * enemySpaceY, 10, 10));
}
}
UpdateTimer.Start();
RedrawTimer.Start();
this.KeyDown += new KeyEventHandler(Input.KeyDown);
this.KeyUp += new KeyEventHandler(Input.KeyUp);
}
public static PointF?GetIntersection(PointF a1, PointF a2, PointF b1, PointF b2)
{
PointF a = GetVectorAB(a1, a2), b = GetVectorAB(b1, b2), s = GetVectorAB(a1, b1);
float c1 = Cross(a, b);
float c2 = Cross(s, b);
float c4 = Cross(s, a); // c4方向顛倒
if (c1 < 0)
{
c1 = -c1;
c2 = -c2;
c4 = -c4;
}
if (c1 != 0 && c2 >= 0 && c2 <= c1 && c4 >= 0 && c4 <= c1)
{
return(a1.Add(a.Multi(((float)((decimal)c2 / (decimal)c1)))));
}
else
{
return(null);
}
}
public void Update(float dt)
{
//сила тяжести
var a = new PointF(0, -g);
Velocity = Velocity.Add(a, dt);
//трение об воздух
Velocity = Velocity.Mult(airFriction);
//отскок от земли
if (Position.Y - Size.Height / 2 < 0)
{
Velocity = Velocity.Mult(-groundFriction);
Position = new PointF(Position.X, Image.Height / 2);
}
else
{
//движение
Position = Position.Add(Velocity, dt);
}
}
private void Control(ControlToken token, ref int i)
{
switch (token.Operate)
{
case '\\':
this.updated = true;
SizeF charSize = this.renderer.DrawChars("\\", this.charPosition);
charSize.Height = 0.0f;
this.charPosition = PointF.Add(this.charPosition, charSize);
break;
case 'c':
if (this.renderer.Options.Brushes.Length <= token.Parameter)
Trace.TraceWarning("Out of brush index: {0}", token.Parameter);
else
this.renderer.BrushIndex = token.Parameter;
break;
default:
break;
}
}
public override VerbResult Float(EditableView.ClickPosition position)
{
// let the base class take care of positioning the first line
if (m_DefinedVertices < 2)
{
return(base.Float(position));
}
// need to calculate the coordinates of the fourth point. We can add the 1>2 vector onto point 0
Debug.Assert(Vertices.Count == 4);
PointF pt = position.Snapped;
if (pt.Equals(Vertices[2]))
{
return(VerbResult.Unchanged);
}
Vertices[2] = pt;
SizeF szVector = Vertices[1].VectorTo(Vertices[2]);
Vertices[3] = PointF.Add(Vertices[0], szVector);
m_Bounds = CalculateBounds();
m_Acceptable = !VerticesFormLine(0);
DiscardPath();
return(VerbResult.Continuing);
}
} //获取点被反向旋转后的坐标
//virtual void OnMoveFocus( CFocus Focus,System.Drawing.SizeF Offset) = 0 ;
public virtual RectangleF GetPointsRect()
{
RectangleF rect = new RectangleF();
if (Points.Count > 0)
{
PointF MinP = (PointF)Points[0];
PointF MaxP = (PointF)Points[0];
foreach (PointF P in Points)
{
MinP.X = Math.Min(P.X, MinP.X);
MinP.Y = Math.Min(P.Y, MinP.Y);
MaxP.X = Math.Max(P.X, MaxP.X);
MaxP.Y = Math.Max(P.Y, MaxP.Y);
}
rect.Location = MinP;
rect.Size = new SizeF(MaxP.X - MinP.X, MaxP.Y - MinP.Y);
}
if (this.Parent != null)
{
rect.Location = PointF.Add(rect.Location, this.Parent.m_RotatePosition);
}
return(rect);
}
private Vector3D[] CalculateFaceVertices(Point mapLocation, Size tileSize, int mapTileHeight, SizeF offset, float pos_z)
{
// Location on map is complicated by tiles that are 'higher' than the tile size given for the overall map
mapLocation.Offset(0, -tileSize.Height + mapTileHeight);
PointF pt0 = mapLocation;
PointF pt1 = PointF.Add(mapLocation, new Size(tileSize.Width, 0));
PointF pt2 = PointF.Add(mapLocation, tileSize);
PointF pt3 = PointF.Add(mapLocation, new Size(0, tileSize.Height));
// Apply the tile offset
pt0 = PointF.Add(pt0, offset);
pt1 = PointF.Add(pt1, offset);
pt2 = PointF.Add(pt2, offset);
pt3 = PointF.Add(pt3, offset);
// We need to use ccw winding for Wavefront objects
Vector3D[] vertices = new Vector3D[4];
vertices[3] = PointFToObjVertex(pt0, pos_z);
vertices[2] = PointFToObjVertex(pt1, pos_z);
vertices[1] = PointFToObjVertex(pt2, pos_z);
vertices[0] = PointFToObjVertex(pt3, pos_z);
return(vertices);
}
protected override void OnMouseMove(MouseEventArgs e)
{
base.OnMouseMove(e);
if (!base.Enabled)
{
return;
}
if (down)
{
var dx = e.Location.X - fixRuler.X;
var dy = e.Location.Y - fixRuler.Y;
var test = new PointF(ruler.X + dx, ruler.Y + dy);
using (var path = GetAreaPath())
if (path.IsVisible(test) || path.IsOutlineVisible(test, Pens.Black))
{
ruler = PointF.Add(ruler, new SizeF(dx, dy));
UpdateData();
OnChangeProperties();
fixRuler = e.Location;
Invalidate();
}
}
}
/// <summary>
/// Function that does the actual rendering
/// </summary>
/// <param name="pt">The point</param>
/// <param name="g">The graphics object</param>
protected override void OnRenderInternal(PointF pt, Graphics g)
{
var f = new SizeF(pt);
foreach (var pathDefinition in _paths)
{
var ppts = pathDefinition.Path.PathPoints;
var pptsnew = new PointF[pathDefinition.Path.PointCount];
for (int i = 0; i < pptsnew.Length; i++)
{
pptsnew[i] = PointF.Add(ppts[i], f);
}
GraphicsPath ptmp = new GraphicsPath(pptsnew, pathDefinition.Path.PathTypes, pathDefinition.Path.FillMode);
if (pathDefinition.Fill != null)
{
g.FillPath(pathDefinition.Fill, ptmp);
}
if (pathDefinition.Line != null)
{
g.DrawPath(pathDefinition.Line, ptmp);
}
}
}
void HandleScroll(NSTimer timer)
{
if (scrollingDirection == ScrollingDirection.Unknown)
{
return;
}
SizeF frameSize = this.CollectionView.Bounds.Size;
SizeF contentSize = this.CollectionView.ContentSize;
PointF contentOffset = this.CollectionView.ContentOffset;
float distance = this.ScrollingSpeed / 60.0f;
PointF translation = new PointF(0, 0);
switch (scrollingDirection)
{
case ScrollingDirection.Up:
{
distance = -distance;
if ((contentOffset.Y + distance) <= 0.0f)
{
distance = -contentOffset.Y;
}
translation = new PointF(0.0f, distance);
}
break;
case ScrollingDirection.Down:
{
float maxY = Math.Max(contentSize.Height, frameSize.Height) - frameSize.Height;
if ((contentOffset.Y + distance) >= maxY)
{
distance = maxY - contentOffset.Y;
}
translation = new PointF(0.0f, distance);
}
break;
case ScrollingDirection.Left:
{
distance = -distance;
if ((contentOffset.X + distance) <= 0.0f)
{
distance = -contentOffset.X;
}
translation = new PointF(distance, 0.0f);
}
break;
case ScrollingDirection.Right:
{
float maxX = Math.Max(contentSize.Width, frameSize.Width) - frameSize.Width;
if ((contentOffset.X + distance) >= maxX)
{
distance = maxX - contentOffset.X;
}
translation = new PointF(distance, 0.0f);
}
break;
default:
break;
}
mockCenter = mockCenter.Add(translation);
mockCell.Center = mockCenter.Add(fingerTranslation);
this.CollectionView.ContentOffset = contentOffset.Add(translation);
NSIndexPath indexPath = this.IndexPathForItemClosestToPoint(mockCell.Center);
this.WarpToIndexPath(indexPath);
}
/// <summary>
/// 绘制文字
/// </summary>
/// <param name="S"></param>
/// <param name="FontSize"></param>
/// <param name="B"></param>
void DrawText(String S, int FontSize, Brush B)
{
SizeF SF = TextRenderer.MeasureText(S, new Font("宋体", FontSize));
DrawText(S, FontSize, B, PointF.Add(CENTER_POINT, new SizeF(-SF.Width / 2, -SF.Height / 2)));
}
private Image GenerateThumbnail()
{
if (_Points == null)
{
throw new Exception("You must provide a gesture before trying to generate a thumbnail");
}
if (_DrawingPen == null)
{
throw new Exception("You must provide a drawing pen before trying to generate a thumbnail");
}
// Create a bitmap object so we can draw gesture
Bitmap bmpOutput = new Bitmap(_Size.Width, _Size.Height);
if (_Points.Count() < 2)
{
return(bmpOutput);
}
// Create new size object accounting for pen width
Size szeAdjusted = new Size((int)Math.Floor(_Size.Width - _DrawingPen.Width - 1), (int)Math.Floor(_Size.Height - _DrawingPen.Width - 1));
// Create graphics object from bitmap so we can manipulate it
_Graphics = Graphics.FromImage((Image)bmpOutput);
// Antialias line
_Graphics.SmoothingMode = System.Drawing.Drawing2D.SmoothingMode.AntiAlias;
PointF[] _ScaledPoints = ScaleGesture(_Points, szeAdjusted.Width - 10, szeAdjusted.Height - 10);
// Create variable to hold last point drawn
PointF lastPoint = _ScaledPoints.First();
// Define size that will mark the offset to center the gesture
int iLeftOffset = (int)Math.Floor((double)((_Size.Width / 2) - (_ScaledSize.Width / 2)));
int iTopOffset = (int)Math.Floor((double)((_Size.Height / 2) - (_ScaledSize.Height / 2)));
Size sizOffset = new Size(iLeftOffset, iTopOffset);
for (int i = 0; i < _ScaledPoints.Count(); i++)
{
if (_WithArrow)
{
if (i < _ScaledPoints.Count() - 5)
{
_Graphics.DrawLine(_DrawingPen, PointF.Add(lastPoint, sizOffset), PointF.Add(_ScaledPoints[i], sizOffset));
}
else
{
// Draw arrow on the end of the gesture
_Graphics.DrawLine(_ArrowPen, PointF.Add(lastPoint, sizOffset), PointF.Add(_ScaledPoints.Last(), sizOffset));
break;
}
}
else
{
_Graphics.DrawLine(_DrawingPen, PointF.Add(lastPoint, sizOffset), PointF.Add(_ScaledPoints[i], sizOffset));
}
lastPoint = _ScaledPoints[i];
}
return((Image)bmpOutput);
}
void HandlePanGesture(UIPanGestureRecognizer sender)
{
if (sender.State == UIGestureRecognizerState.Changed)
{
fingerTranslation = sender.TranslationInView(this.CollectionView);
if (_hasShouldAlterTranslationDelegateMethod)
{
((UICollectionViewDataSourceDraggable)this.CollectionView.DataSource).CollectionViewAlterTranslation(this.CollectionView, fingerTranslation);
}
IUICollectionViewLayoutWarpable /*UICollectionViewLayout*/ /*<UICollectionViewLayout_Warpable>*/ layout = (IUICollectionViewLayoutWarpable /*UICollectionViewLayout*/ /*<UICollectionViewLayout_Warpable>*/)this.CollectionView.CollectionViewLayout;
// if (layout.RespondsToSelector(new Selector ("dragDirection")))
{
UICollectionViewScrollDirection direction = (UICollectionViewScrollDirection)layout.DragDirection();
if (direction == UICollectionViewScrollDirection.Horizontal)
{
fingerTranslation.Y = 0;
}
else if (direction == UICollectionViewScrollDirection.Vertical)
{
fingerTranslation.X = 0;
}
}
mockCell.Center = mockCenter.Add(fingerTranslation);
if (canScroll)
{
IUICollectionViewLayoutWarpable /*UICollectionViewLayout*/ /*<UICollectionViewLayout_Warpable>*/ scrollLayout = (IUICollectionViewLayoutWarpable /*UICollectionViewLayout*/ /*<UICollectionViewLayout_Warpable>*/)this.CollectionView.CollectionViewLayout;
if (scrollLayout.ScrollDirection() == UICollectionViewScrollDirection.Vertical)
{
if (mockCell.Center.Y < (this.CollectionView.Bounds.GetMinY() + this.ScrollingEdgeInsets.Top))
{
this.SetupScrollTimerInDirection(ScrollingDirection.Up);
}
else
{
if (mockCell.Center.Y > (this.CollectionView.Bounds.GetMaxY() - this.ScrollingEdgeInsets.Bottom))
{
this.SetupScrollTimerInDirection(ScrollingDirection.Down);
}
else
{
this.InvalidatesScrollTimer();
}
}
}
else
{
if (mockCell.Center.X < (this.CollectionView.Bounds.GetMinX() + this.ScrollingEdgeInsets.Left))
{
this.SetupScrollTimerInDirection(ScrollingDirection.Left);
}
else
{
if (mockCell.Center.X > (this.CollectionView.Bounds.GetMaxX() - this.ScrollingEdgeInsets.Right))
{
this.SetupScrollTimerInDirection(ScrollingDirection.Right);
}
else
{
this.InvalidatesScrollTimer();
}
}
}
}
if (scrollingDirection > ScrollingDirection.Unknown)
{
return;
}
PointF point = sender.LocationInView(this.CollectionView);
NSIndexPath indexPath = this.IndexPathForItemClosestToPoint(point);
this.WarpToIndexPath(indexPath);
if (this.DropOnToDeleteView != null && this.DropOnToDeleteView.Superview != null)
{
bool highlighted = this.DropOnToDeleteView.Frame.Contains(point);
this.DropOnToDeleteView.Highlighted = highlighted;
if (!highlighted)
{
PointF center = this.DropOnToDeleteView.Center;
float distance = (center.X - point.X) * (center.X - point.X) + (center.Y - point.Y) * (center.Y - point.Y);
this.DropOnToDeleteView.Alpha = (float)(2f - Math.Atan(distance / 10000.0f)) / 2f;
}
else
{
this.DropOnToDeleteView.Alpha = 1.0f;
}
}
}
}
public void AddTest()
{
Assert.AreEqual(new PointF(3, 4), PointF.Add(new PointF(1, 1), new Size(2, 3)), "ADDTEST#1");
Assert.AreEqual(new PointF(4, 5), PointF.Add(new PointF(2, 2), new SizeF(2, 3)), "ADDTEST#2");
}
/// <summary>
/// gets points for transform this image
/// </summary>
/// <param name="drawRect">the box where to draw image</param>
/// <param name="imageWidth">image width</param>
/// <param name="imageHeight">image height</param>
/// <param name="scaleX">scale horizontal</param>
/// <param name="scaleY">scale vertical</param>
/// <param name="offsetX">offset of left</param>
/// <param name="offsetY">offset of top</param>
/// <param name="upperLeft">out start of vectors</param>
/// <param name="upperRight">out end of frist vector</param>
/// <param name="lowerLeft">out end of second vector</param>
public void GetImageAngleTransform(RectangleF drawRect, float imageWidth, float imageHeight, float scaleX, float scaleY, float offsetX, float offsetY, out PointF upperLeft, out PointF upperRight, out PointF lowerLeft)
{
RectangleF rect = drawRect;
switch (SizeMode)
{
case PictureBoxSizeMode.Normal:
case PictureBoxSizeMode.AutoSize:
rect.Width = imageWidth * scaleX;
rect.Height = imageHeight * scaleY;
if (Angle == 90 || Angle == 180)
{
rect.X -= rect.Width - drawRect.Width;
}
if (Angle == 180)
{
rect.Y -= rect.Height - drawRect.Height;
}
break;
case PictureBoxSizeMode.CenterImage:
rect.Offset((Width - imageWidth) * scaleX / 2, (Height - imageHeight) * scaleY / 2);
rect.Width = imageWidth * scaleX;
rect.Height = imageHeight * scaleY;
break;
case PictureBoxSizeMode.StretchImage:
break;
case PictureBoxSizeMode.Zoom:
/*float kx = drawRect.Width / imageWidth;
* float ky = drawRect.Height / imageHeight;
* if (kx < ky)
* rect.Height = imageHeight * kx;
* else
* rect.Width = imageWidth * ky;
* rect.Offset(
* (Width * e.ScaleX - rect.Width) / 2,
* (Height * e.ScaleY - rect.Height) / 2);*/
break;
}
float gridCompensationX = offsetX + rect.X;
gridCompensationX = (int)gridCompensationX - gridCompensationX;
float gridCompensationY = offsetY + rect.Y;
gridCompensationY = (int)gridCompensationY - gridCompensationY;
if (gridCompensationX < 0)
{
gridCompensationX = 1 + gridCompensationX;
}
if (gridCompensationY < 0)
{
gridCompensationY = 1 + gridCompensationY;
}
rect.Offset(gridCompensationX, gridCompensationY);
upperLeft = new PointF(0, 0);
upperRight = new PointF(rect.Width, 0);
lowerLeft = new PointF(0, rect.Height);
float angle = Angle;
switch (SizeMode)
{
case PictureBoxSizeMode.Normal:
{
upperLeft = MovePointOnAngle(drawRect.Location, drawRect.Size, Angle);
PointF ur = rotateVector(upperRight, angle);
PointF ll = rotateVector(lowerLeft, angle);
upperRight = PointF.Add(upperLeft, new SizeF(ur));
lowerLeft = PointF.Add(upperLeft, new SizeF(ll));
}
break;
case PictureBoxSizeMode.StretchImage:
{
upperLeft = MovePointOnAngle(drawRect.Location, drawRect.Size, Angle);
upperRight = MovePointOnAngle(
drawRect.Location,
drawRect.Size, Angle + 90);
lowerLeft = MovePointOnAngle(
drawRect.Location,
drawRect.Size, Angle + 270);
}
break;
case PictureBoxSizeMode.CenterImage:
{
PointF rotatedVector;
float w = rect.Left - (drawRect.Left + drawRect.Width / 2);
float h = rect.Top - (drawRect.Top + drawRect.Height / 2);
rotatedVector = rotateVector(new PointF(w, h), Angle);
upperLeft = new PointF(rect.Left + rotatedVector.X - w, rect.Top + rotatedVector.Y - h);
rotatedVector = rotateVector(new PointF(rect.Width, 0), Angle);
upperRight = new PointF(upperLeft.X + rotatedVector.X, upperLeft.Y + rotatedVector.Y);
rotatedVector = rotateVector(new PointF(0, rect.Height), Angle);
lowerLeft = new PointF(upperLeft.X + rotatedVector.X, upperLeft.Y + rotatedVector.Y);
}
break;
case PictureBoxSizeMode.AutoSize:
case PictureBoxSizeMode.Zoom:
{
rect = new RectangleF(0, 0, imageWidth * 100f, imageHeight * 100f);
PointF center = new PointF(drawRect.Left + drawRect.Width / 2,
drawRect.Top + drawRect.Height / 2);
PointF[] p = new PointF[4];
p[0] = new PointF(-rect.Width / 2, -rect.Height / 2);
p[1] = new PointF(rect.Width / 2, -rect.Height / 2);
p[2] = new PointF(rect.Width / 2, rect.Height / 2);
p[3] = new PointF(-rect.Width / 2, rect.Height / 2);
float scaleToMin = 1;
for (int i = 0; i < 4; i++)
{
p[i] = rotateVector(p[i], Angle);
}
for (int i = 0; i < 4; i++)
{
if (p[i].X * scaleToMin < -drawRect.Width / 2)
{
scaleToMin = -drawRect.Width / 2 / p[i].X;
}
if (p[i].X * scaleToMin > drawRect.Width / 2)
{
scaleToMin = drawRect.Width / 2 / p[i].X;
}
if (p[i].Y * scaleToMin < -drawRect.Height / 2)
{
scaleToMin = -drawRect.Height / 2 / p[i].Y;
}
if (p[i].Y * scaleToMin > drawRect.Height / 2)
{
scaleToMin = drawRect.Height / 2 / p[i].Y;
}
}
upperLeft = PointF.Add(center, new SizeF(p[0].X * scaleToMin, p[0].Y * scaleToMin));
upperRight = PointF.Add(center, new SizeF(p[1].X * scaleToMin, p[1].Y * scaleToMin));
lowerLeft = PointF.Add(center, new SizeF(p[3].X * scaleToMin, p[3].Y * scaleToMin));
}
break;
}
if (ImageAlign != ImageAlign.None)
{
UpdateAlign(drawRect, ref upperLeft, ref upperRight, ref lowerLeft);
}
/*switch (Angle)
* {
* case 90:
* upperLeft = new PointF(rect.Right, rect.Top);
* upperRight = new PointF(rect.Right, rect.Bottom);
* lowerLeft = new PointF(rect.Left, rect.Top);
* break;
*
* case 180:
* upperLeft = new PointF(rect.Right, rect.Bottom);
* upperRight = new PointF(rect.Left, rect.Bottom);
* lowerLeft = new PointF(rect.Right, rect.Top);
* break;
*
* case 270:
* upperLeft = new PointF(rect.Left, rect.Bottom);
* upperRight = new PointF(rect.Left, rect.Top);
* lowerLeft = new PointF(rect.Right, rect.Bottom);
* break;
*
* default:
* upperLeft = new PointF(rect.Left, rect.Top);
* upperRight = new PointF(rect.Right, rect.Top);
* lowerLeft = new PointF(rect.Left, rect.Bottom);
* break;
* }*/
/* default:
* PointF rotatedVector;
* float w = rect.Left - (drawRect.Left + drawRect.Width / 2) ;
* float h = rect.Top - (drawRect.Top + drawRect.Height/2);
* rotatedVector = rotateVector(new PointF(w, h), Angle);
* upperLeft = new PointF(rect.Left + rotatedVector.X - w, rect.Top + rotatedVector.Y - h);
* rotatedVector = rotateVector(new PointF(rect.Width, 0), Angle);
* upperRight = new PointF(upperLeft.X + rotatedVector.X, upperLeft.Y + rotatedVector.Y);
* rotatedVector = rotateVector(new PointF(0, rect.Height), Angle);
* lowerLeft = new PointF(upperLeft.X + rotatedVector.X, upperLeft.Y + rotatedVector.Y);
* break;
* }*/
}
public Bitmap DrawMeasurement(Measurement measurement)
{
Graphics graph = Graphics.FromImage(Bmp);
Pen pen = new Pen(Color.Yellow, 8.0F);
pen.Color = System.Drawing.Color.Yellow;
graph.DrawLine(pen, PointF.Add(new Point(0, 0), new Size(height / 2, width / 2)), PointF.Add(measurement.A.EndPoint, new Size(height / 2, width / 2)));
pen.Color = System.Drawing.Color.Green;
graph.DrawLine(pen, PointF.Add(new Point(0, 0), new Size(height / 2, width / 2)), PointF.Add(measurement.B.EndPoint, new Size(height / 2, width / 2)));
pen.Color = System.Drawing.Color.Red;
graph.DrawLine(pen, PointF.Add(new Point(0, 0), new Size(height / 2, width / 2)), PointF.Add(measurement.C.EndPoint, new Size(height / 2, width / 2)));
return(Bmp);
}
/// <summary>
/// Arranges the tags to form the distinctive tag cloud layout.
/// </summary>
public void Arrange()
{
RectangleF totalBounds = RectangleF.Empty;
Random rnd = IsDeterministic ? new Random(0) : new Random();
_renderItems.Clear();
CycleCount = 0;
// sort tags by frequency (highest first)
var orderedItems = Items.OrderByDescending(x => x.Frequency);
int maxFrequency = orderedItems.Select(x => x.Frequency).DefaultIfEmpty(0).First();
int minFrequency = orderedItems.Select(x => x.Frequency).DefaultIfEmpty(0).Last();
foreach (TagItem tag in orderedItems)
{
RectangleF bestBounds = RectangleF.Empty;
int bestDist = 0;
// calculate font size to use
float scale = (maxFrequency != minFrequency)
? ((float)(tag.Frequency - minFrequency) / (float)(maxFrequency - minFrequency))
: 0;
float fontSize = BASE_FONT_SIZE + (BASE_FONT_SIZE * (FontSizeGradient * scale));
// measure text and calculate bounds
SizeF sz;
using (Font font = new Font(FontFamily, fontSize, FontStyle)) {
sz = TextRenderer.MeasureText(tag.Text, font, Size.Empty, TEXT_FORMAT_FLAGS);
}
SizeF offset = new SizeF(-(sz.Width / 2f), -(sz.Height / 2f));
RectangleF tagBounds = new RectangleF(offset.ToPointF(), sz);
// initialise rendering info with what we know so far
TagRenderInfo info = new TagRenderInfo()
{
Item = tag, FontSize = fontSize
};
// try a random subset of the angles between 0 and 360 degrees
foreach (int angle in Enumerable.Range(0, 360).Shuffle(rnd).Take(90))
{
int tagDist = 0;
while (true)
{
// measure outward from the origin
PointF p = PointF.Empty.GetRadialPoint(angle, tagDist);
tagBounds.Location = PointF.Add(p, offset);
// check whether tag would overlap (collide) with previously-placed tags
bool collision = false;
foreach (var other in _renderItems)
{
CycleCount++;
if (other.Bounds.IntersectsWith(tagBounds))
{
collision = true;
break;
}
}
// once there are no collisions this location becomes a candidate angle
if (!collision)
{
break;
}
// ...otherwise, increase distance from origin and try again
tagDist += 5;
// if we've already exceeded the most optimal distance, we can stop here
if ((bestDist != 0) && (tagDist > bestDist))
{
break;
}
}
// determine whether this candidate angle produces the most optimal solution
RectangleF tryBounds = RectangleF.Union(totalBounds, tagBounds);
float tryArea = (tryBounds.Width * tryBounds.Height);
float bestArea = (bestBounds.Width * bestBounds.Height);
float tryAspectDiff = Math.Abs((tryBounds.Width / tryBounds.Height) - PreferredAspectRatio);
float bestAspectDiff = Math.Abs((bestBounds.Width / bestBounds.Height) - PreferredAspectRatio);
bool isBest = (bestBounds.IsEmpty || (tryArea < bestArea)) &&
(bestBounds.IsEmpty || (tryAspectDiff < bestAspectDiff)) &&
((bestDist == 0) || (tagDist <= bestDist));
if (isBest)
{
// this becomes the new most optimal solution (until/if a better one is found)
bestBounds = tryBounds;
bestDist = tagDist;
info.Bounds = tagBounds;
// if the total bounds did not increase at all, skip over the remaining angles
if (bestBounds == totalBounds)
{
break;
}
}
}
// commit the current tag
_renderItems.AddLast(info);
totalBounds = bestBounds;
}
Bounds = totalBounds;
}
/// <summary>
/// Draws a space based on a position given.
/// </summary>
/// <param name="pen">The pen to use. This can change the color of the space drawn.</param>
/// <param name="point">The X and Y coordinate to draw at.</param>
/// <param name="g">Graphics instance to use.</param>
private void DrawSpace(Pen pen, PointF point, Graphics g)
{
PointF point2 = PointF.Add(point, new SizeF(1, 0));
g.DrawLine(pen, point, point2);
}
private void TestImage(IEnumerable <Point> arrayOfTestPoints)
{
if (_trace)
{
string imageType;
if (_sourceImageType == ImageTypes.Mono16)
{
imageType = "Mono16";
}
else if (_sourceImageType == ImageTypes.Mono8)
{
imageType = "Mono8";
}
else if (_sourceImageType == ImageTypes.Mono8Signed)
{
imageType = "Mono8Signed";
}
else if (_sourceImageType == ImageTypes.Mono16Signed)
{
imageType = "Mono16Signed";
}
else
{
imageType = "Rgb";
}
TraceLine("");
TraceLine(imageType);
TraceLine(String.Format("Scale (Fit/Scale): {0}/{1}", _scaleToFit, _scale));
TraceLine(String.Format("Orientation(FH/FV/R): {0}/{1}/{2}", _flipHorizontal, _flipVertical, _rotation));
TraceLine(String.Format("Translation: {0}, {1}", _translationX, _translationY));
}
CreateImageLayer(_sourceImageType);
CreatePhantom();
//render the image to a bitmap
Bitmap dstBitmap = ImageRendererTestUtilities.RenderLayer(_image, _dstWidth, _dstHeight);
if (_traceBitmap)
{
string strTraceBitmap = "Bitmap:\n";
for (int y = 0; y < dstBitmap.Height; y++)
{
for (int x = 0; x < dstBitmap.Width; x++)
{
byte pixelValue = dstBitmap.GetPixel(x, y).R;
strTraceBitmap += String.Format("{0} ", (int)pixelValue);
}
strTraceBitmap += "\n";
}
TraceLine(strTraceBitmap);
}
foreach (Point dstPoint in arrayOfTestPoints)
{
// //The point of the unit test here is to do the same bilinear calculation as is done in the
// //actual interpolation code, but in a more reliable & simpler way (e.g. not using pointer
// //arithmetic, offsets, rectangles, etc).
Rectangle dstViewableRectangle;
RectangleF srcViewableRectangle;
ImageRenderer.CalculateVisibleRectangles(_image, new Rectangle(0, 0, _dstWidth, _dstHeight), out dstViewableRectangle, out srcViewableRectangle);
byte dstValue = dstBitmap.GetPixel(dstPoint.X, dstPoint.Y).R; //just check the value of R.
if (dstViewableRectangle.Contains(dstPoint))
{
PointF dstTestPoint = new PointF(dstPoint.X + 0.5F, dstPoint.Y + 0.5F);
PointF srcTestPoint = _image.SpatialTransform.ConvertToSource(dstTestPoint);
float tolerance = 1 / (8F * _fixedScale);
// We can take advantage of the fact that we are using fixed point arithmetic to do the interpolation
// because it essentially means that there is a discrete set of resulting values for a given 4-pixel
// region (dx,dy between 0.0 -> 1.0 translates to 0/128 -> 128/128 in fixed point).
// Because we use the SpatialTransform class to calculate the source coordinate in the C# world,
// and 2 rectangles in the C++ world, we can't expect to get *exactly* the same answer in both cases.
// Therefore, we calculate the values at source points offset by a tolerance much smaller than 1/128,
// so that if by chance the source coordinates are teetering on a fixed-point boundary (e.g. slight
// changes would result in dx or dy being off by +-1/128) then we can still be confident that the
// source coordinates the interpolator is calculating are reasonable, and thus the interpolated value
// is correct, even if it's not exactly what we calculate in C# with zero-tolerance.
// The tolerance used here is 1/(8*128) ~= 0.001. When the test passes, this means that the C# and
// C++ calculations of the source pixel coordinate (and thus, dx/dy and the interpolated value) agree to
// within one one-thousandth of a pixel.
List <SizeF> offsets = new List <SizeF>();
offsets.Add(new SizeF(0F, 0F));
offsets.Add(new SizeF(-tolerance, -tolerance));
offsets.Add(new SizeF(-tolerance, +tolerance));
offsets.Add(new SizeF(+tolerance, -tolerance));
offsets.Add(new SizeF(+tolerance, +tolerance));
bool success = false;
int i = 0;
foreach (SizeF offset in offsets)
{
PointF srcPoint00 = PointF.Add(srcTestPoint, offset);
byte backCalculateValue = PerformBilinearInterpolationAt(srcPoint00);
if (_trace)
{
string strMessage = String.Format("Test Point #{0} ({1}, {2}): {3}, BackCalculated({4:F16}, {5:F16}): {6}\n",
++i, dstTestPoint.X, dstTestPoint.Y, dstValue, srcPoint00.X, srcPoint00.Y,
backCalculateValue);
TraceLine(strMessage);
}
if (backCalculateValue == dstValue)
{
success = true;
break;
}
}
Assert.IsTrue(success, "Failed for all test points within tolerance range.");
}
else
{
//The bilinear interpolation algorithm should not calculate any values outside the dstViewableRectangle.
string strMessage = String.Format("Point outside rectangle ({0}, {1}) = {2}", dstPoint.X, dstPoint.Y, dstValue);
if (_trace)
{
TraceLine(strMessage);
}
Assert.AreEqual(0, dstValue, strMessage);
}
}
}
public static ClipperLib.PolyTree ExecuteClipper(TmxMap tmxMap, TmxLayer tmxLayer, TransformPointFunc xfFunc, ProgressFunc progFunc)
{
// The "fullClipper" combines the clipper results from the smaller pieces
ClipperLib.Clipper fullClipper = new ClipperLib.Clipper();
// From the perspective of Clipper lines are polygons too
// Closed paths == polygons
// Open paths == lines
var polygonGroups = from y in Enumerable.Range(0, tmxLayer.Height)
from x in Enumerable.Range(0, tmxLayer.Width)
let rawTileId = tmxLayer.GetRawTileIdAt(x, y)
let tileId = TmxMath.GetTileIdWithoutFlags(rawTileId)
where tileId != 0
let tile = tmxMap.Tiles[tileId]
from polygon in tile.ObjectGroup.Objects
where (polygon as TmxHasPoints) != null
let groupX = x / LayerClipper.GroupBySize
let groupY = y / LayerClipper.GroupBySize
group new
{
PositionOnMap = tmxMap.GetMapPositionAt(x, y, tile),
HasPointsInterface = polygon as TmxHasPoints,
TmxObjectInterface = polygon,
IsFlippedDiagnoally = TmxMath.IsTileFlippedDiagonally(rawTileId),
IsFlippedHorizontally = TmxMath.IsTileFlippedHorizontally(rawTileId),
IsFlippedVertically = TmxMath.IsTileFlippedVertically(rawTileId),
TileCenter = new PointF(tile.TileSize.Width * 0.5f, tile.TileSize.Height * 0.5f),
}
by Tuple.Create(groupX, groupY);
int groupIndex = 0;
int groupCount = polygonGroups.Count();
foreach (var polyGroup in polygonGroups)
{
if (groupIndex % 5 == 0)
{
progFunc(String.Format("Clipping '{0}' polygons: {1}%", tmxLayer.Name, (groupIndex / (float)groupCount) * 100));
}
groupIndex++;
// The "groupClipper" clips the polygons in a smaller part of the world
ClipperLib.Clipper groupClipper = new ClipperLib.Clipper();
// Add all our polygons to the Clipper library so it can reduce all the polygons to a (hopefully small) number of paths
foreach (var poly in polyGroup)
{
// Create a clipper library polygon out of each and add it to our collection
ClipperPolygon clipperPolygon = new ClipperPolygon();
// Our points may be transformed due to tile flipping/rotation
// Before we transform them we put all the points into local space relative to the tile
SizeF offset = new SizeF(poly.TmxObjectInterface.Position);
PointF[] transformedPoints = poly.HasPointsInterface.Points.Select(pt => PointF.Add(pt, offset)).ToArray();
// Now transform the points relative to the tile
TmxMath.TransformPoints(transformedPoints, poly.TileCenter, poly.IsFlippedDiagnoally, poly.IsFlippedHorizontally, poly.IsFlippedVertically);
foreach (var pt in transformedPoints)
{
float x = poly.PositionOnMap.X + pt.X;
float y = poly.PositionOnMap.Y + pt.Y;
ClipperLib.IntPoint point = xfFunc(x, y);
clipperPolygon.Add(point);
}
// Because of Unity's cooridnate system, the winding order of the polygons must be reversed
clipperPolygon.Reverse();
// Add the "subject"
groupClipper.AddPath(clipperPolygon, ClipperLib.PolyType.ptSubject, poly.HasPointsInterface.ArePointsClosed());
}
// Get a solution for this group
ClipperLib.PolyTree solution = new ClipperLib.PolyTree();
groupClipper.Execute(ClipperLib.ClipType.ctUnion, solution, LayerClipper.SubjectFillRule, LayerClipper.ClipFillRule);
// Combine the solutions into the full clipper
fullClipper.AddPaths(ClipperLib.Clipper.ClosedPathsFromPolyTree(solution), ClipperLib.PolyType.ptSubject, true);
fullClipper.AddPaths(ClipperLib.Clipper.OpenPathsFromPolyTree(solution), ClipperLib.PolyType.ptSubject, false);
}
progFunc(String.Format("Clipping '{0}' polygons: 100%", tmxLayer.Name));
ClipperLib.PolyTree fullSolution = new ClipperLib.PolyTree();
fullClipper.Execute(ClipperLib.ClipType.ctUnion, fullSolution, LayerClipper.SubjectFillRule, LayerClipper.ClipFillRule);
return(fullSolution);
}
protected override Point GetScreenPosition(PointF position) => position.Add(BoardComp.TILE_SIZE / 2).ToPoint();
public static PointF Add(this PointF inputPoint, PointF point)
{
return(inputPoint.Add(point.X, point.Y));
}