public void Render(Graphics g, WorldTransform t)
{
Coordinates wll = t.WorldLowerLeft;
Coordinates wur = t.WorldUpperRight;
PointF ll = new PointF((float)wll.X, (float)wll.Y);
PointF ur = new PointF((float)wur.X, (float)wur.Y);
float startX = (float)Math.Floor(wll.X / spacing) * spacing;
float endX = (float)Math.Ceiling(wur.X / spacing) * spacing;
float startY = (float)Math.Floor(wll.Y / spacing) * spacing;
float endY = (float)Math.Ceiling(wur.Y / spacing) * spacing;
using (Pen p = new Pen(color, 1 / t.Scale))
{
if (endX - startX / spacing < 400 && endY - startY / spacing < 400)
{
for (float x = startX; x <= endX; x += spacing)
{
g.DrawLine(p, x, ll.Y, x, ur.Y);
}
for (float y = startY; y <= endY; y += spacing)
{
g.DrawLine(p, ll.X, y, ur.X, y);
}
}
}
}
public DragScreenHelper(IDrawingSurface drawingSurface, Coordinates worldPoint)
{
this.drawingSurface = drawingSurface;
this.originalTransform = drawingSurface.Transform.Clone();
this.originalCenter = originalTransform.CenterPoint;
this.moveOrigin = worldPoint + originalCenter;
}
public void SetupTransform(WorldTransform transform)
{
// figure out if the height or width is more constraining
Coordinates lowerLeft = transform.WorldLowerLeft;
Coordinates upperRight = transform.WorldUpperRight;
double width = Math.Abs(upperRight.X - lowerLeft.X);
double height = Math.Abs(upperRight.Y - lowerLeft.Y);
double rad;
if (width < height) {
rad = width / 2;
}
else {
rad = height / 2;
}
// get the heading
double heading = Services.VehicleStateService.Heading;
// calculate the offset vector
Coordinates offsetVector = Coordinates.FromAngle(heading)*rad*offsetFrac;
// calculate the vehicle center position
transform.CenterPoint = Services.VehicleStateService.Location - offsetVector;
}
/// <summary>
/// Constructor
/// </summary>
public RoadDisplay()
{
// initialize the tranform before calling InitializeComponent so the OnResize method works properly
transform = new WorldTransform();
// initialize the form
InitializeComponent();
// set our style
base.SetStyle(ControlStyles.UserPaint, true);
base.SetStyle(ControlStyles.AllPaintingInWmPaint, true);
base.SetStyle(ControlStyles.Opaque, true);
base.SetStyle(ControlStyles.OptimizedDoubleBuffer, true);
base.SetStyle(ControlStyles.ResizeRedraw, true);
base.SetStyle(ControlStyles.Selectable, true);
// list of object to display
displayObjects = new List<IDisplayObject>();
// don't draw things in design mode
if (!this.DesignMode)
{
// initialize the grid
this.AddDisplayObject(new DisplayGrid());
}
}
public HitBase GetHit(Vector position, ICamera camera, WorldTransform worldTransform)
{
var newTransform = worldTransform.Compose(this.Offset, this.ParallaxScrollingVector);
return this.Sprites.OfType<IHitTarget>()
.Select(sprite => sprite.GetHit(position, camera, newTransform))
.FirstOrDefault(spriteHit => spriteHit != null);
}
public void Render(System.Drawing.Graphics g, WorldTransform t)
{
if(Current != null && rndf != null && DrawingUtility.DisplayCurrentGoal)
{
// draw goal
DrawingUtility.DrawControlPoint(rndf.Waypoints[Current].Position, DrawingUtility.CurrentGoalColor,
"Goal", System.Drawing.ContentAlignment.TopCenter, ControlPointStyle.SmallCircle, g, t);
}
}
public WorldTransform Compose(Vector newOffset, Vector newParallaxScrollingVector)
{
var newTransform = new WorldTransform(this)
{
offset = newOffset,
parallaxScrollingVector = newParallaxScrollingVector
};
return newTransform;
}
public static void DrawControlLine(IGraphics g, Color c, DashStyle style, Coordinates loc1, Coordinates loc2, WorldTransform wt)
{
float pw = 1.25f / wt.Scale;
using (IPen p = g.CreatePen()) {
p.Color = c;
p.Width = pw;
p.DashStyle = style;
g.DrawLine(p, Utility.ToPointF(loc1), Utility.ToPointF(loc2));
}
}
public void Render(Graphics g, WorldTransform t)
{
if (DrawingUtility.DrawArbiterLanePath && arbiterState != null && this.path is Path)
{
this.RenderRelativePath(arbiterState, (Path)this.path, g, t, true);
}
if (DrawingUtility.DrawOperationalLanePath && updatedState != null && this.path is Path)
{
this.RenderRelativePath(updatedState, (Path)this.path, g, t, false);
}
}
public void Render(System.Drawing.Graphics g, WorldTransform t)
{
if (DrawingUtility.DisplayFullRoute)
{
for (int i = 0; i < route.RouteNodes.Count - 1; i++)
{
RndfWayPoint initial = rndf.Waypoints[route.RouteNodes[i]];
RndfWayPoint final = rndf.Waypoints[route.RouteNodes[i + 1]];
DrawingUtility.DrawControlLine(initial.Position, final.Position, DrawingUtility.RouteColor, g, t);
}
}
}
public void Render(System.Drawing.Graphics g, WorldTransform t)
{
for (int i = 0; i < Poly.points.Count; i++)
{
if (i == Poly.points.Count - 1)
{
DrawingUtility.DrawColoredControlLine(Color.Orange, Poly.points[i], Poly.points[0], g, t);
}
else
{
DrawingUtility.DrawColoredControlLine(Color.Orange, Poly.points[i], Poly.points[i + 1], g, t);
}
}
}
public HitBase GetHit(Vector position, ICamera camera, WorldTransform worldTransform)
{
var rectangle =
new Rectangle(
worldTransform.Offset.X + this.x,
worldTransform.Offset.Y + this.y,
this.width,
this.height)
.Scale(camera.ZoomFactor)
.Translate(camera.GetSceneTranslationVector(worldTransform.ParallaxScrollingVector));
return rectangle.Intercept(position)
? new RectangleHit(this)
: null;
}
private void RenderRelativePath(VehicleState vs, Path transPath, Graphics g, WorldTransform t, bool isArbiterPath)
{
if((isArbiterPath && DrawingUtility.DrawArbiterLanePath) ||
(!isArbiterPath && DrawingUtility.DrawOperationalLanePath))
{
// compute the rotation matrix to add in our vehicles rotation
/*Matrix3 rotMatrix = new Matrix3(
Math.Cos(vs.heading.ArcTan), -Math.Sin(vs.heading.ArcTan), 0,
Math.Sin(vs.heading.ArcTan), Math.Cos(vs.heading.ArcTan), 0,
0, 0, 1);
// compute the translation matrix to move our vehicle's location
Matrix3 transMatrix = new Matrix3(
1, 0, vs.xyPosition.X,
0, 1, vs.xyPosition.Y,
0, 0, 1);
// compute the combined transformation matrix
Matrix3 m = rotMatrix * transMatrix;
// clone, transform and add each segment to our path
transPath.Transform(m);*/
float nomPixelWidth = 2.0f;
float penWidth = nomPixelWidth / t.Scale;
Pen arbiterPen = new Pen(Color.FromArgb(100, DrawingUtility.ArbiterLanePath), penWidth);
Pen operationalPen = new Pen(Color.FromArgb(100, DrawingUtility.OperationalLanePath), penWidth);
// display path
foreach (IPathSegment ps in transPath)
{
if (ps is BezierPathSegment)
{
BezierPathSegment seg = (BezierPathSegment)ps;
CubicBezier cb = seg.cb;
if (isArbiterPath)
{
g.DrawBezier(arbiterPen, DrawingUtility.ToPointF(cb.P0), DrawingUtility.ToPointF(cb.P1), DrawingUtility.ToPointF(cb.P2), DrawingUtility.ToPointF(cb.P3));
}
else
{
g.DrawBezier(operationalPen, DrawingUtility.ToPointF(cb.P0), DrawingUtility.ToPointF(cb.P1), DrawingUtility.ToPointF(cb.P2), DrawingUtility.ToPointF(cb.P3));
}
}
}
}
}
public void Render(System.Drawing.Graphics g, WorldTransform t)
{
Coordinates[] coordArray = log.ToArray();
Coordinates wll = t.WorldLowerLeft;
Coordinates wur = t.WorldUpperRight;
if (DrawingUtility.DisplayPoseLog)
{
if (log.Count > 1)
{
for (int i = 0; i < coordArray.Length - 1; i++)
{
if(wll.X < coordArray[i].X && wll.Y < coordArray[i].Y && wur.X > coordArray[i].X && wur.Y > coordArray[i].Y)
DrawingUtility.DrawControlLine(coordArray[i], coordArray[i + 1], Color.OrangeRed, g, t);
}
}
}
}
public static void DrawArrow(IGraphics g, Coordinates startingLoc, Coordinates direction, double len, double headSize, Color lineColor, WorldTransform wt)
{
Coordinates endingLoc = startingLoc + direction.Normalize(len);
Coordinates headPt0 = endingLoc + direction.Rotate(135*Math.PI/180.0).Normalize(headSize);
Coordinates headPt1 = endingLoc + direction.Rotate(-135*Math.PI/180.0).Normalize(headSize);
IPen pen = g.CreatePen();
pen.Width = 3/wt.Scale;
pen.Color = Color.White;
PointF ptfStart = Utility.ToPointF(startingLoc);
PointF ptfEnd = Utility.ToPointF(endingLoc);
PointF ptfHeadPt0 = Utility.ToPointF(headPt0);
PointF ptfHeadPt1 = Utility.ToPointF(headPt1);
PointF[] headPts = new PointF[] { ptfHeadPt0, ptfEnd, ptfHeadPt1 };
g.DrawLine(pen, ptfStart, ptfEnd);
g.DrawLines(pen, headPts);
pen.Width = 1/wt.Scale;
pen.Color = lineColor;
g.DrawLine(pen, ptfStart, ptfEnd);
g.DrawLines(pen, headPts);
}
public void OnPreRender(UrbanChallenge.OperationalUI.Common.GraphicsWrapper.IGraphics g, WorldTransform transform)
{
}
public void InitScene(WorldTransform wt, Color background)
{
this.transform = wt;
Coordinates ll = transform.WorldLowerLeft;
Coordinates ur = transform.WorldUpperRight;
Gl.glViewport(0, 0, (int)transform.ScreenSize.Width, (int)transform.ScreenSize.Height);
Gl.glLoadIdentity();
Gl.glOrtho(ll.X, ur.X, ll.Y, ur.Y, 1.0, -1.0);
Gl.glClear(Gl.GL_COLOR_BUFFER_BIT | Gl.GL_DEPTH_BUFFER_BIT);
}
public void CompleteMove(Coordinates orig, Coordinates offset, WorldTransform t)
{
throw new Exception("The method or operation is not implemented.");
}
public HitTestResult HitTest(UrbanChallenge.Common.Coordinates loc, float tol, WorldTransform wt, DisplayObjectFilter filter)
{
// check filter
if (filter.Target == null || filter.Target is ArbiterPerimeterWaypoint)
{
// get bounding box dependent on tolerance
RectangleF bounding = this.GetBoundingBox(wt);
bounding.Inflate(tol, tol);
// check if contains point
if (bounding.Contains(DrawingUtility.ToPointF(loc)))
{
return(new HitTestResult(this, true, (float)loc.DistanceTo(this.Position)));
}
}
return(new HitTestResult(this, false, float.MaxValue));
}
public abstract void CompleteMove(Coordinates orig, Coordinates offset, WorldTransform t);
public void CancelMove(UrbanChallenge.Common.Coordinates orig, WorldTransform t)
{
this.position = orig;
}
public HitTestResult HitTest(UrbanChallenge.Common.Coordinates loc, float tol, WorldTransform wt, DisplayObjectFilter filter)
{
if (filter(this))
{
Coordinates closest = this.GetClosest(loc);
if ((float)loc.DistanceTo(closest) < 5 + tol)
{
return(new HitTestResult(this, true, (float)loc.DistanceTo(closest)));
}
}
return(new HitTestResult(this, false, float.MaxValue));
}
public System.Drawing.RectangleF GetBoundingBox(WorldTransform wt)
{
throw new Exception("The method or operation is not implemented.");
}
public RulerTool(bool snap, ArbiterRoadNetwork arn, WorldTransform wt)
{
this.snapToWaypoints = snap;
this.roadNetwork = arn;
this.wt = wt;
}
public void Render(System.Drawing.Graphics g, WorldTransform t)
{
throw new Exception("The method or operation is not implemented.");
}
public void Render(System.Drawing.Graphics g, WorldTransform t)
{
if (!this.snapToWaypoints || this.roadNetwork == null)
{
if (this.Current != null)
{
LLACoord lla = GpsTools.XyToLlaDegrees(Current, projection);
string locString = Current.X.ToString("F6") + ", " + Current.Y.ToString("F6") + "\n" +
lla.lat.ToString("F6") + ", " + lla.lon.ToString("F6") + "\n" + GpsTools.LlaDegreesToArcMinSecs(lla);
DrawingUtility.DrawControlPoint(this.Current, DrawingUtility.ColorToolPointAnalysis, locString,
ContentAlignment.BottomCenter, ControlPointStyle.SmallCircle, g, t);
}
if (Save != null && Save.Count > 0)
{
foreach (Coordinates tmp in Save)
{
LLACoord lla = GpsTools.XyToLlaDegrees(tmp, projection);
string locString = tmp.X.ToString("F6") + ", " + tmp.Y.ToString("F6") + "\n" +
lla.lat.ToString("F6") + ", " + lla.lon.ToString("F6") + "\n" + GpsTools.LlaDegreesToArcMinSecs(lla);
DrawingUtility.DrawControlPoint(tmp, DrawingUtility.ColorToolPointAnalysis, locString,
ContentAlignment.BottomCenter, ControlPointStyle.SmallCircle, g, t);
}
}
}
else
{
if (this.Current != null)
{
Coordinates c = this.Current;
double minDist = Double.MaxValue;
Coordinates?closest = null;
foreach (IArbiterWaypoint iaw in this.roadNetwork.ArbiterWaypoints.Values)
{
double d = iaw.Position.DistanceTo(c);
if (d < minDist && ((IDisplayObject)iaw).HitTest(c, (float)0.2, wt, DrawingUtility.DefaultFilter).Hit)
{
minDist = d;
closest = iaw.Position;
}
}
if (closest != null)
{
c = closest.Value;
}
LLACoord lla = GpsTools.XyToLlaDegrees(c, projection);
string locString = c.X.ToString("F6") + ", " + c.Y.ToString("F6") + "\n" +
lla.lat.ToString("F6") + ", " + lla.lon.ToString("F6") + "\n" + GpsTools.LlaDegreesToArcMinSecs(lla);
DrawingUtility.DrawControlPoint(c, DrawingUtility.ColorToolPointAnalysis, locString,
ContentAlignment.BottomCenter, ControlPointStyle.SmallCircle, g, t);
}
}
}
public PointAnalysisTool(PlanarProjection projection, bool snap, ArbiterRoadNetwork arn, WorldTransform wt)
{
this.projection = projection;
this.snapToWaypoints = snap;
this.roadNetwork = arn;
this.wt = wt;
}
public void CancelMove(Coordinates orig, WorldTransform t)
{
throw new NotSupportedException();
}
public void Render(Graphics g, WorldTransform t)
{
Coordinates wll = t.WorldLowerLeft;
Coordinates wup = t.WorldUpperRight;
if ((position.X < wll.X || position.X > wup.X || position.Y < wll.Y || position.Y > wup.Y))
{
return;
}
Matrix bodyTrans = new Matrix();
bodyTrans.Rotate((float)(this.Heading) * 180 / (float)Math.PI - 90);
bodyTrans.Translate((float)position.X, (float)position.Y, MatrixOrder.Append);
Matrix origTrans = g.Transform.Clone();
bodyTrans.Multiply(g.Transform, MatrixOrder.Append);
g.Transform = bodyTrans;
float penWidth = nomPixelWidth / t.Scale;
using (Pen p = new Pen(color, penWidth))
{
DrawRectangle(g, p, bodyRect);
// build the transform for the rear wheels
// do the left wheel
Matrix wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(-wheelOffset, 0, MatrixOrder.Prepend);
try
{
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectL);
DrawRectangle(g, p, wheelRectL);
}
catch (Exception)
{
}
// do the right wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(wheelOffset, 0, MatrixOrder.Prepend);
try
{
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectR);
DrawRectangle(g, p, wheelRectR);
}
catch (Exception)
{
}
// do the front wheels
// do the left wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(-wheelOffset, wheelbase, MatrixOrder.Prepend);
wheelTransform.Rotate(steeringAngle * 180 / (float)Math.PI, MatrixOrder.Prepend);
try
{
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectL);
DrawRectangle(g, p, wheelRectL);
}
catch (Exception)
{
}
// do the right wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(wheelOffset, wheelbase, MatrixOrder.Prepend);
wheelTransform.Rotate(steeringAngle * 180 / (float)Math.PI, MatrixOrder.Prepend);
try
{
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectR);
DrawRectangle(g, p, wheelRectR);
}
catch (Exception)
{
}
}
g.Transform = origTrans;
// draw Position
DrawingUtility.DrawControlPoint(this.position, color, null, ContentAlignment.MiddleCenter, ControlPointStyle.LargeX, g, t);
}
public static void DrawArrow(IGraphics g, Coordinates startingLoc, Coordinates direction, double len, double headSize, Color lineColor, WorldTransform wt)
{
Coordinates endingLoc = startingLoc + direction.Normalize(len);
Coordinates headPt0 = endingLoc + direction.Rotate(135 * Math.PI / 180.0).Normalize(headSize);
Coordinates headPt1 = endingLoc + direction.Rotate(-135 * Math.PI / 180.0).Normalize(headSize);
IPen pen = g.CreatePen();
pen.Width = 3 / wt.Scale;
pen.Color = Color.White;
PointF ptfStart = Utility.ToPointF(startingLoc);
PointF ptfEnd = Utility.ToPointF(endingLoc);
PointF ptfHeadPt0 = Utility.ToPointF(headPt0);
PointF ptfHeadPt1 = Utility.ToPointF(headPt1);
PointF[] headPts = new PointF[] { ptfHeadPt0, ptfEnd, ptfHeadPt1 };
g.DrawLine(pen, ptfStart, ptfEnd);
g.DrawLines(pen, headPts);
pen.Width = 1 / wt.Scale;
pen.Color = lineColor;
g.DrawLine(pen, ptfStart, ptfEnd);
g.DrawLines(pen, headPts);
}
public abstract void BeginMove(Coordinates orig, WorldTransform t);
public static void DrawControlLine(IGraphics g, Color c, DashStyle style, Coordinates loc1, Coordinates loc2, WorldTransform wt)
{
float pw = 1.25f / wt.Scale;
using (IPen p = g.CreatePen()) {
p.Color = c;
p.Width = pw;
p.DashStyle = style;
g.DrawLine(p, Utility.ToPointF(loc1), Utility.ToPointF(loc2));
}
}
public abstract void CancelMove(Coordinates orig, WorldTransform t);
public static void DrawControlPoint(IGraphics g, Coordinates loc, Color color, string label, ContentAlignment align, ControlPointStyle style, WorldTransform wt)
{
DrawControlPoint(g, loc, color, label, align, style, true, wt);
}
public static void DrawControlPoint(IGraphics g, Coordinates loc, Color color, string label, ContentAlignment align, ControlPointStyle style, bool drawTextBox, WorldTransform wt)
{
// figure out the size the control box needs to be in world coordinates to make it
// show up as appropriate in view coordinates
// invert the scale
float scaled_size = 0;
if (style == ControlPointStyle.LargeBox || style == ControlPointStyle.LargeCircle || style == ControlPointStyle.LargeX)
{
scaled_size = cp_large_size / wt.Scale;
}
else
{
scaled_size = cp_small_size / wt.Scale;
}
float scaled_offset = 1 / wt.Scale;
// assume that the world transform is currently applied correctly to the graphics
RectangleF rect = new RectangleF(-scaled_size / 2, -scaled_size / 2, scaled_size, scaled_size);
rect.Offset(Utility.ToPointF(loc));
if (style == ControlPointStyle.LargeBox)
{
g.FillRectangle(Color.White, rect);
// shrink the rect down a little (nominally 1 pixel)
rect.Inflate(-scaled_offset, -scaled_offset);
g.FillRectangle(color, rect);
}
else if (style == ControlPointStyle.LargeCircle)
{
g.FillEllipse(Color.White, rect);
// shrink the rect down a little (nominally 1 pixel)
rect.Inflate(-scaled_offset, -scaled_offset);
g.FillEllipse(color, rect);
}
else if (style == ControlPointStyle.LargeX)
{
using (IPen p = g.CreatePen()) {
p.Width = 3 / wt.Scale;
p.Color = Color.White;
g.DrawLine(p, new PointF(rect.Left, rect.Top), new PointF(rect.Right, rect.Bottom));
g.DrawLine(p, new PointF(rect.Left, rect.Bottom), new PointF(rect.Right, rect.Top));
p.Width = scaled_offset;
p.Color = color;
g.DrawLine(p, new PointF(rect.Left, rect.Top), new PointF(rect.Right, rect.Bottom));
g.DrawLine(p, new PointF(rect.Left, rect.Bottom), new PointF(rect.Right, rect.Top));
}
}
else if (style == ControlPointStyle.SmallBox)
{
g.FillRectangle(color, rect);
}
else if (style == ControlPointStyle.SmallCircle)
{
g.FillEllipse(color, rect);
}
else if (style == ControlPointStyle.SmallX)
{
using (IPen p = g.CreatePen()) {
p.Width = 3 / wt.Scale;
p.Color = color;
g.DrawLine(p, new PointF(rect.Left, rect.Top), new PointF(rect.Right, rect.Bottom));
g.DrawLine(p, new PointF(rect.Left, rect.Bottom), new PointF(rect.Right, rect.Top));
}
}
if (!string.IsNullOrEmpty(label))
{
SizeF strSize = g.MeasureString(label, label_font);
float x = 0, y = 0;
if (align == ContentAlignment.BottomRight || align == ContentAlignment.MiddleRight || align == ContentAlignment.TopRight)
{
x = (float)loc.X + cp_label_space / wt.Scale;
}
else if (align == ContentAlignment.BottomCenter || align == ContentAlignment.MiddleCenter || align == ContentAlignment.TopCenter)
{
x = (float)loc.X - strSize.Width / (2 * wt.Scale);
}
else if (align == ContentAlignment.BottomLeft || align == ContentAlignment.MiddleLeft || align == ContentAlignment.TopLeft)
{
x = (float)loc.X - (strSize.Width + cp_label_space) / wt.Scale;
}
if (align == ContentAlignment.BottomCenter || align == ContentAlignment.BottomLeft || align == ContentAlignment.BottomRight)
{
y = (float)loc.Y - cp_label_space / wt.Scale;
}
else if (align == ContentAlignment.MiddleCenter || align == ContentAlignment.MiddleLeft || align == ContentAlignment.MiddleRight)
{
y = (float)loc.Y + strSize.Height / (2 * wt.Scale);
}
else if (align == ContentAlignment.TopCenter || align == ContentAlignment.TopLeft || align == ContentAlignment.TopRight)
{
y = (float)loc.Y + (strSize.Height + cp_label_space) / wt.Scale;
}
PointF text_loc = new PointF(x, y);
if (drawTextBox)
{
RectangleF text_rect = new RectangleF(text_loc.X - 4 / wt.Scale, text_loc.Y - 4 / wt.Scale, strSize.Width / wt.Scale, strSize.Height / wt.Scale);
g.FillRectangle(Color.FromArgb(127, Color.White), text_rect);
}
g.DrawString(label, label_font, color, text_loc);
}
}
public void OnPreRender(IGraphics g, WorldTransform transform)
{
}
public void Render(Graphics g, WorldTransform t)
{
if (this.observedVehicle.ObservationState != ObservedVehicleState.Deleted ||
(this.observedVehicle.ObservationState == ObservedVehicleState.Deleted &&
DrawingUtility.DisplayDeletedVehicles))
{
Coordinates wll = t.WorldLowerLeft;
Coordinates wup = t.WorldUpperRight;
if ((Position.X < wll.X || Position.X > wup.X || Position.Y < wll.Y || Position.Y > wup.Y))
{
return;
}
Matrix bodyTrans = new Matrix();
bodyTrans.Rotate((float)(this.Heading) * 180 / (float)Math.PI - 90);
bodyTrans.Translate((float)Position.X, (float)Position.Y, MatrixOrder.Append);
Matrix origTrans = g.Transform.Clone();
bodyTrans.Multiply(g.Transform, MatrixOrder.Append);
g.Transform = bodyTrans;
float penWidth = nomPixelWidth / t.Scale;
using (Pen p = new Pen(color, penWidth))
{
DrawRectangle(g, p, bodyRect);
// build the transform for the rear wheels
// do the left wheel
Matrix wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(-WheelOffset, 0, MatrixOrder.Prepend);
try
{
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectL);
DrawRectangle(g, p, wheelRectL);
}
catch (Exception)
{
}
// do the right wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(WheelOffset, 0, MatrixOrder.Prepend);
try
{
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectR);
DrawRectangle(g, p, wheelRectR);
}
catch (Exception)
{
}
// do the front wheels
// do the left wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(-WheelOffset, WheelBase, MatrixOrder.Prepend);
wheelTransform.Rotate(steeringAngle * 180 / (float)Math.PI, MatrixOrder.Prepend);
try
{
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectL);
DrawRectangle(g, p, wheelRectL);
}
catch (Exception)
{
}
// do the right wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(WheelOffset, WheelBase, MatrixOrder.Prepend);
wheelTransform.Rotate(steeringAngle * 180 / (float)Math.PI, MatrixOrder.Prepend);
try
{
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectR);
DrawRectangle(g, p, wheelRectR);
}
catch (Exception)
{
}
}
g.Transform = origTrans;
// draw Position
DrawingUtility.DrawControlPoint(this.Position, color, this.observedVehicle.Id.ToString(), ContentAlignment.MiddleCenter, ControlPointStyle.LargeBox, g, t);
Coordinates head = this.Position + this.observedVehicle.Heading.Normalize(this.observedVehicle.Length / 2.0);
DrawingUtility.DrawControlLine(this.Position, head, color, g, t);
}
}
public void OnPreRender(IGraphics g, WorldTransform transform)
{
}
public HitBase GetHit(Vector position, ICamera camera, WorldTransform worldTransform, Sprite sprite)
{
var source = this.definitions[sprite.SpriteName];
var spriteRectangle =
new Rectangle(
worldTransform.Offset.X + sprite.Position.X,
worldTransform.Offset.X + sprite.Position.Y,
source.Rectangle.Width,
source.Rectangle.Height)
.Scale(camera.ZoomFactor)
.Translate(camera.GetSceneTranslationVector(worldTransform.ParallaxScrollingVector));
return spriteRectangle.Intercept(position)
? new SpriteHit(sprite)
: null;
}
public HitBase GetHit(Vector position, ICamera camera, WorldTransform worldTransform)
{
return this.SpriteSheet.GetHit(position, camera, worldTransform, this);
}
public void SetupTransform(WorldTransform transform)
{
}
// Compute contact points for edge versus circle.
// This accounts for edge connectivity.
public static bool CollideEdgeAndCircle(
Fixture fixtureA,
WorldTransform xfA,
Fixture fixtureB,
WorldTransform xfB,
out Manifold manifold)
{
manifold = new Manifold();
var edgeA = fixtureA as EdgeFixture;
var circleB = fixtureB as CircleFixture;
System.Diagnostics.Debug.Assert(edgeA != null);
System.Diagnostics.Debug.Assert(circleB != null);
// Compute circle in frame of edge
var q = xfA.ToLocal(xfB.ToGlobal(circleB.Center));
var a = edgeA.Vertex1;
var b = edgeA.Vertex2;
var e = b - a;
// Barycentric coordinates
var u = Vector2Util.Dot(e, b - q);
var v = Vector2Util.Dot(e, q - a);
var radius = edgeA.Radius + circleB.Radius;
ContactFeature cf;
cf.IndexB = 0;
cf.TypeB = (byte)ContactFeature.FeatureType.Vertex;
// Region A
if (v <= 0.0f)
{
var p = a;
var d = q - p;
var dd = Vector2Util.Dot(ref d, ref d);
if (dd > radius * radius)
{
return(false);
}
// Is there an edge connected to A?
if (edgeA.HasVertex0)
{
var a1 = edgeA.Vertex0;
var b1 = a;
var e1 = b1 - a1;
var u1 = Vector2Util.Dot(e1, b1 - q);
// Is the circle in Region AB of the previous edge?
if (u1 > 0.0f)
{
return(false);
}
}
cf.IndexA = 0;
cf.TypeA = (byte)ContactFeature.FeatureType.Vertex;
manifold.Type = Manifold.ManifoldType.Circles;
manifold.LocalPoint = p;
manifold.LocalNormal = Vector2.Zero;
manifold.PointCount = 1;
manifold.Points.Item1.Id.Key = 0;
manifold.Points.Item1.Id.Feature = cf;
manifold.Points.Item1.LocalPoint = circleB.Center;
return(true);
}
// Region B
if (u <= 0.0f)
{
var p = b;
var d = q - p;
var dd = Vector2Util.Dot(ref d, ref d);
if (dd > radius * radius)
{
return(false);
}
// Is there an edge connected to B?
if (edgeA.HasVertex3)
{
var a2 = b;
var b2 = edgeA.Vertex3;
var e2 = b2 - a2;
var v2 = Vector2Util.Dot(e2, q - a2);
// Is the circle in Region AB of the next edge?
if (v2 > 0.0f)
{
return(false);
}
}
cf.IndexA = 1;
cf.TypeA = (byte)ContactFeature.FeatureType.Vertex;
manifold.Type = Manifold.ManifoldType.Circles;
manifold.LocalPoint = p;
manifold.LocalNormal = Vector2.Zero;
manifold.PointCount = 1;
manifold.Points.Item1.Id.Key = 0;
manifold.Points.Item1.Id.Feature = cf;
manifold.Points.Item1.LocalPoint = circleB.Center;
return(true);
}
// Region AB
var den = Vector2Util.Dot(ref e, ref e);
System.Diagnostics.Debug.Assert(den > 0.0f);
{
var p = (1.0f / den) * (u * a + v * b);
var d = q - p;
var dd = Vector2Util.Dot(ref d, ref d);
if (dd > radius * radius)
{
return(false);
}
}
Vector2 n;
n.X = -e.Y;
n.Y = e.X;
if (Vector2Util.Dot(n, q - a) < 0.0f)
{
n = -n;
}
n.Normalize();
cf.IndexA = 0;
cf.TypeA = (byte)ContactFeature.FeatureType.Face;
manifold.Type = Manifold.ManifoldType.FaceA;
manifold.LocalPoint = a;
manifold.LocalNormal = n;
manifold.PointCount = 1;
manifold.Points.Item1.Id.Key = 0;
manifold.Points.Item1.Id.Feature = cf;
manifold.Points.Item1.LocalPoint = circleB.Center;
return(true);
}
// This function collides and edge and a polygon.
// This takes into account edge adjacency.
// Algorithm:
// 1. Classify v1 and v2
// 2. Classify polygon centroid as front or back
// 3. Flip normal if necessary
// 4. Initialize normal range to [-pi, pi] about face normal
// 5. Adjust normal range according to adjacent edges
// 6. Visit each separating axes, only accept axes within the range
// 7. Return if _any_ axis indicates separation
// 8. Clip
public static bool CollideEdgeAndPolygon(
Fixture fixtureA,
WorldTransform xfA,
Fixture fixtureB,
WorldTransform xfB,
out Manifold manifold)
{
manifold = new Manifold();
var edgeA = fixtureA as EdgeFixture;
var polygonB = fixtureB as PolygonFixture;
System.Diagnostics.Debug.Assert(edgeA != null);
System.Diagnostics.Debug.Assert(polygonB != null);
// This holds polygon B expressed in frame A.
var tpv = new Vector2[Settings.MaxPolygonVertices];
var tpn = new Vector2[Settings.MaxPolygonVertices];
Vector2 normal0 = Vector2.Zero, normal1, normal2 = Vector2.Zero;
var xf = xfA.MulT(xfB);
var centroidB = xf.ToOther(polygonB.Centroid);
var v0 = edgeA.Vertex0;
var v1 = edgeA.Vertex1;
var v2 = edgeA.Vertex2;
var v3 = edgeA.Vertex3;
var hasVertex0 = edgeA.HasVertex0;
var hasVertex3 = edgeA.HasVertex3;
var edge1 = v2 - v1;
edge1.Normalize();
normal1.X = edge1.Y;
normal1.Y = -edge1.X;
var offset1 = Vector2Util.Dot(normal1, centroidB - v1);
var offset0 = 0.0f;
var offset2 = 0.0f;
var convex1 = false;
var convex2 = false;
// Is there a preceding edge?
if (hasVertex0)
{
var edge0 = v1 - v0;
edge0.Normalize();
normal0.X = edge0.Y;
normal0.Y = -edge0.X;
convex1 = Vector2Util.Cross(ref edge0, ref edge1) >= 0.0f;
offset0 = Vector2Util.Dot(normal0, centroidB - v0);
}
// Is there a following edge?
if (hasVertex3)
{
var edge2 = v3 - v2;
edge2.Normalize();
normal2.X = edge2.Y;
normal2.Y = -edge2.X;
convex2 = Vector2Util.Cross(ref edge1, ref edge2) > 0.0f;
offset2 = Vector2Util.Dot(normal2, centroidB - v2);
}
// Determine front or back collision. Determine collision normal limits.
bool front;
Vector2 normal, lowerLimit, upperLimit;
if (hasVertex0 && hasVertex3)
{
if (convex1 && convex2)
{
front = offset0 >= 0.0f || offset1 >= 0.0f || offset2 >= 0.0f;
if (front)
{
normal = normal1;
lowerLimit = normal0;
upperLimit = normal2;
}
else
{
normal = -normal1;
lowerLimit = -normal1;
upperLimit = -normal1;
}
}
else if (convex1)
{
front = offset0 >= 0.0f || (offset1 >= 0.0f && offset2 >= 0.0f);
if (front)
{
normal = normal1;
lowerLimit = normal0;
upperLimit = normal1;
}
else
{
normal = -normal1;
lowerLimit = -normal2;
upperLimit = -normal1;
}
}
else if (convex2)
{
front = offset2 >= 0.0f || (offset0 >= 0.0f && offset1 >= 0.0f);
if (front)
{
normal = normal1;
lowerLimit = normal1;
upperLimit = normal2;
}
else
{
normal = -normal1;
lowerLimit = -normal1;
upperLimit = -normal0;
}
}
else
{
front = offset0 >= 0.0f && offset1 >= 0.0f && offset2 >= 0.0f;
if (front)
{
normal = normal1;
lowerLimit = normal1;
upperLimit = normal1;
}
else
{
normal = -normal1;
lowerLimit = -normal2;
upperLimit = -normal0;
}
}
}
else if (hasVertex0)
{
if (convex1)
{
front = offset0 >= 0.0f || offset1 >= 0.0f;
if (front)
{
normal = normal1;
lowerLimit = normal0;
upperLimit = -normal1;
}
else
{
normal = -normal1;
lowerLimit = normal1;
upperLimit = -normal1;
}
}
else
{
front = offset0 >= 0.0f && offset1 >= 0.0f;
if (front)
{
normal = normal1;
lowerLimit = normal1;
upperLimit = -normal1;
}
else
{
normal = -normal1;
lowerLimit = normal1;
upperLimit = -normal0;
}
}
}
else if (hasVertex3)
{
if (convex2)
{
front = offset1 >= 0.0f || offset2 >= 0.0f;
if (front)
{
normal = normal1;
lowerLimit = -normal1;
upperLimit = normal2;
}
else
{
normal = -normal1;
lowerLimit = -normal1;
upperLimit = normal1;
}
}
else
{
front = offset1 >= 0.0f && offset2 >= 0.0f;
if (front)
{
normal = normal1;
lowerLimit = -normal1;
upperLimit = normal1;
}
else
{
normal = -normal1;
lowerLimit = -normal2;
upperLimit = normal1;
}
}
}
else
{
front = offset1 >= 0.0f;
if (front)
{
normal = normal1;
lowerLimit = -normal1;
upperLimit = -normal1;
}
else
{
normal = -normal1;
lowerLimit = normal1;
upperLimit = normal1;
}
}
// Get polygonB in frameA.
var tpc = polygonB.Count;
for (var i = 0; i < tpc; ++i)
{
tpv[i] = xf.ToOther(polygonB.Vertices[i]);
tpn[i] = xf.Rotation * polygonB.Normals[i];
}
const float radius = 2.0f * Settings.PolygonRadius;
Axis edgeAxis;
edgeAxis.Type = Axis.AxisType.EdgeA;
edgeAxis.Index = front ? 0 : 1;
edgeAxis.Separation = float.MaxValue;
for (var i = 0; i < tpc; ++i)
{
var s = Vector2Util.Dot(normal, tpv[i] - v1);
if (s < edgeAxis.Separation)
{
edgeAxis.Separation = s;
}
}
// If no valid normal can be found than this edge should not collide.
if (edgeAxis.Type == Axis.AxisType.None)
{
return(false);
}
if (edgeAxis.Separation > radius)
{
return(false);
}
Axis polygonAxis;
polygonAxis.Type = Axis.AxisType.None;
polygonAxis.Index = -1;
polygonAxis.Separation = float.MinValue;
Vector2 perp;
perp.X = -normal.Y;
perp.Y = normal.X;
for (var i = 0; i < tpc; ++i)
{
var n = -tpn[i];
var s1 = Vector2Util.Dot(n, tpv[i] - v1);
var s2 = Vector2Util.Dot(n, tpv[i] - v2);
var s = System.Math.Min(s1, s2);
if (s > radius)
{
// No collision
polygonAxis.Type = Axis.AxisType.EdgeB;
polygonAxis.Index = i;
polygonAxis.Separation = s;
break;
}
// Adjacency
if (Vector2Util.Dot(ref n, ref perp) >= 0.0f)
{
if (Vector2Util.Dot(n - upperLimit, normal) < -Settings.AngularSlop)
{
continue;
}
}
else
{
if (Vector2Util.Dot(n - lowerLimit, normal) < -Settings.AngularSlop)
{
continue;
}
}
if (s > polygonAxis.Separation)
{
polygonAxis.Type = Axis.AxisType.EdgeB;
polygonAxis.Index = i;
polygonAxis.Separation = s;
}
}
if (polygonAxis.Type != Axis.AxisType.None && polygonAxis.Separation > radius)
{
return(false);
}
// Use hysteresis for jitter reduction.
const float relativeTol = 0.98f;
const float absoluteTol = 0.001f;
Axis primaryAxis;
if (polygonAxis.Type == Axis.AxisType.None)
{
primaryAxis = edgeAxis;
}
else if (polygonAxis.Separation > relativeTol * edgeAxis.Separation + absoluteTol)
{
primaryAxis = polygonAxis;
}
else
{
primaryAxis = edgeAxis;
}
FixedArray2 <ClipVertex> incidentEdge;
// Reference face used for clipping
int rfi1, rfi2;
Vector2 rfv1, rfv2;
Vector2 rfnormal;
Vector2 rfsideNormal1;
if (primaryAxis.Type == Axis.AxisType.EdgeA)
{
manifold.Type = Manifold.ManifoldType.FaceA;
// Search for the polygon normal that is most anti-parallel to the edge normal.
var bestIndex = 0;
var bestValue = Vector2Util.Dot(ref normal, ref tpn[0]);
for (var i = 1; i < tpc; ++i)
{
var value = Vector2Util.Dot(ref normal, ref tpn[i]);
if (value < bestValue)
{
bestValue = value;
bestIndex = i;
}
}
var i1 = bestIndex;
var i2 = i1 + 1 < tpc ? i1 + 1 : 0;
incidentEdge = new FixedArray2 <ClipVertex>
{
Item1 = new ClipVertex
{
Vertex = tpv[i1],
Id =
{
Feature =
{
IndexA = 0,
IndexB = (byte)i1,
TypeA = (byte)ContactFeature.FeatureType.Face,
TypeB = (byte)ContactFeature.FeatureType.Vertex
}
}
},
Item2 = new ClipVertex
{
Vertex = tpv[i2],
Id =
{
Feature =
{
IndexA = 0,
IndexB = (byte)i2,
TypeA = (byte)ContactFeature.FeatureType.Face,
TypeB = (byte)ContactFeature.FeatureType.Vertex
}
}
}
};
if (front)
{
rfi1 = 0;
rfi2 = 1;
rfv1 = v1;
rfv2 = v2;
rfnormal = normal1;
}
else
{
rfi1 = 1;
rfi2 = 0;
rfv1 = v2;
rfv2 = v1;
rfnormal = -normal1;
}
}
else
{
manifold.Type = Manifold.ManifoldType.FaceB;
incidentEdge = new FixedArray2 <ClipVertex>
{
Item1 = new ClipVertex
{
Vertex = v1,
Id =
{
Feature =
{
IndexA = 0,
IndexB = (byte)primaryAxis.Index,
TypeA = (byte)ContactFeature.FeatureType.Vertex,
TypeB = (byte)ContactFeature.FeatureType.Face
}
}
},
Item2 = new ClipVertex
{
Vertex = v2,
Id =
{
Feature =
{
IndexA = 0,
IndexB = (byte)primaryAxis.Index,
TypeA = (byte)ContactFeature.FeatureType.Vertex,
TypeB = (byte)ContactFeature.FeatureType.Face
}
}
}
};
rfi1 = primaryAxis.Index;
rfi2 = rfi1 + 1 < tpc ? rfi1 + 1 : 0;
rfv1 = tpv[rfi1];
rfv2 = tpv[rfi2];
rfnormal = tpn[rfi1];
}
rfsideNormal1.X = rfnormal.Y;
rfsideNormal1.Y = -rfnormal.X;
var rfsideNormal2 = -rfsideNormal1;
var rfsideOffset1 = Vector2Util.Dot(ref rfsideNormal1, ref rfv1);
var rfsideOffset2 = Vector2Util.Dot(ref rfsideNormal2, ref rfv2);
// Clip incident edge against extruded edge1 side edges.
FixedArray2 <ClipVertex> clipPoints1, clipPoints2;
// Clip to box side 1
var np = ClipSegmentToLine(
out clipPoints1,
incidentEdge,
rfsideNormal1,
rfsideOffset1,
rfi1);
if (np < 2)
{
return(false);
}
// Clip to negative box side 1
np = ClipSegmentToLine(
out clipPoints2,
clipPoints1,
rfsideNormal2,
rfsideOffset2,
rfi2);
if (np < 2)
{
return(false);
}
// Now clipPoints2 contains the clipped points.
if (primaryAxis.Type == Axis.AxisType.EdgeA)
{
manifold.LocalPoint = rfv1;
manifold.LocalNormal = rfnormal;
}
else
{
manifold.LocalPoint = polygonB.Vertices[rfi1];
manifold.LocalNormal = polygonB.Normals[rfi1];
}
var pointCount = 0;
for (var i = 0; i < 2; ++i)
{
if (Vector2Util.Dot(rfnormal, clipPoints2[i].Vertex - rfv1) <= radius)
{
var cp = manifold.Points[pointCount];
if (primaryAxis.Type == Axis.AxisType.EdgeA)
{
cp.LocalPoint = xf.FromOther(clipPoints2[i].Vertex);
cp.Id = clipPoints2[i].Id;
}
else
{
cp.LocalPoint = clipPoints2[i].Vertex;
cp.Id.Feature.TypeA = clipPoints2[i].Id.Feature.TypeB;
cp.Id.Feature.TypeB = clipPoints2[i].Id.Feature.TypeA;
cp.Id.Feature.IndexA = clipPoints2[i].Id.Feature.IndexB;
cp.Id.Feature.IndexB = clipPoints2[i].Id.Feature.IndexA;
}
manifold.Points[pointCount] = cp;
++pointCount;
}
}
manifold.PointCount = pointCount;
return(pointCount > 0);
}
public void BeginMove(UrbanChallenge.Common.Coordinates orig, WorldTransform t)
{
}
public void InMove(Coordinates orig, Coordinates offset, WorldTransform t)
{
throw new NotSupportedException();
}
public Transform(Entity parent)
: base(parent)
{
Grid = new GridTransform(this);
World = new WorldTransform(this);
}
private void DrawZoomBox(IGraphics g, WorldTransform transform, Coordinates start, Coordinates end)
{
float x, y;
float width, height;
if (start.X < end.X) {
x = (float)start.X;
width = (float)(end.X - start.X);
}
else {
x = (float)end.X;
width = (float)(start.X - end.X);
}
if (start.Y < end.Y) {
y = (float)start.Y;
height = (float)(end.Y - start.Y);
}
else {
y = (float)end.Y;
height = (float)(start.Y - end.Y);
}
// create the rectangle
RectangleF rect = new RectangleF(x, y, width, height);
// draw the transparent background
g.FillRectangle(Color.FromArgb(50, Color.Purple), rect);
IPen pen = g.CreatePen();
pen.Width = 1.0f/transform.Scale;
pen.Color = Color.Purple;
g.DrawRectangle(pen, rect);
pen.Dispose();
}
public void CompleteMove(UrbanChallenge.Common.Coordinates orig, UrbanChallenge.Common.Coordinates offset, WorldTransform t)
{
this.position = orig + offset;;
}
public HitBase GetHit(Vector position, ICamera camera, WorldTransform worldTransform)
{
for (var i = 0; i < this.MapSize.Width; i++)
for (var j = 0; j < this.MapSize.Height; j++)
{
var tileRectangle =
new Rectangle(
this.Offset.X + i * this.TileSize.Width,
this.Offset.Y + j * this.TileSize.Height,
this.TileSize.Width,
this.TileSize.Height)
.Scale(camera.ZoomFactor)
.Translate(camera.GetSceneTranslationVector(this.ParallaxScrollingVector));
if (tileRectangle.Intercept(position))
return new TileHit(new Point(i, j));
}
return null;
}
public HitTestResult HitTest(Coordinates loc, float tol, WorldTransform wt, DisplayObjectFilter filter)
{
throw new Exception("The method or operation is not implemented.");
}
public void OnPostRender(IGraphics g, WorldTransform transform)
{
if (inZoom) {
DrawZoomBox(g, transform, startPoint, endPoint);
}
}
public System.Drawing.RectangleF GetBoundingBox(WorldTransform wt)
{
return(new System.Drawing.RectangleF());
}
public void SetupTransform(WorldTransform transform)
{
}
public HitTestResult HitTest(UrbanChallenge.Common.Coordinates loc, float tol, WorldTransform wt, DisplayObjectFilter filter)
{
return(new HitTestResult(this, false, float.MaxValue));
}
public Transform(Entity parent)
: base(parent)
{
Grid = new GridTransform(this);
World = new WorldTransform(this);
}
public void Render(System.Drawing.Graphics g, WorldTransform t)
{
}
public HitBase GetHit(Vector position, ICamera camera, WorldTransform worldTransform)
{
for (var i = 0; i < this.MapSize.Width; i++)
for (var j = 0; j < this.MapSize.Height; j++)
{
var hexDistance = this.HexSize.Width - (this.HexSize.Width - this.TopEdgeLength) / 2;
var halfHeight = this.HexSize.Height / 2;
var rectangle = new Rectangle(
this.Offset.X + i * hexDistance,
this.Offset.Y + j * this.HexSize.Height + (i % 2 == 1 ? halfHeight : 0),
this.HexSize.Width, this.HexSize.Height);
var mapPosition = position
.Translate(-camera.GetSceneTranslationVector(this.ParallaxScrollingVector))
.Scale(1.0f / camera.ZoomFactor);
var x1 = (this.HexSize.Width - this.TopEdgeLength) / 2;
var x2 = x1 + this.TopEdgeLength;
var polygone = new[]
{
new Vector(rectangle.X + x1, rectangle.Y),
new Vector(rectangle.X + x2, rectangle.Y),
new Vector(rectangle.X + this.HexSize.Width, rectangle.Y + halfHeight),
new Vector(rectangle.X + x2, rectangle.Y + this.HexSize.Height),
new Vector(rectangle.X + x1, rectangle.Y + this.HexSize.Height),
new Vector(rectangle.X, rectangle.Y + halfHeight)
};
if (MathUtil.IsHitPolygone(polygone, mapPosition))
return new HexHit(new Point(i, j));
}
return null;
}
public void CancelMove(UrbanChallenge.Common.Coordinates orig, WorldTransform t)
{
throw new Exception("The method or operation is not implemented.");
}
public void Render(System.Drawing.Graphics g, WorldTransform t)
{
// width of drawing
float penWidth = nomPixelWidth / t.Scale;
// body rectangle
RectangleF bodyRect = new RectangleF((float)(-this.Width / 2), -rearOffset, (float)Width, (float)Length);
// body transformation matrix
Matrix bodyTrans = new Matrix();
bodyTrans.Rotate((float)(this.Heading.ToDegrees() - 90));
bodyTrans.Translate((float)Position.X, (float)Position.Y, MatrixOrder.Append);
// save original world transformation matrix
Matrix origTrans = g.Transform.Clone();
bodyTrans.Multiply(g.Transform, MatrixOrder.Append);
// set the new transform
g.Transform = bodyTrans;
// make a new pen and draw wheels
using (Pen p = new Pen(color, penWidth))
{
DrawRectangle(g, p, bodyRect);
// build the transform for the rear wheels
// do the left wheel
Matrix wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(-wheelOffset, 0, MatrixOrder.Prepend);
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectL);
DrawRectangle(g, p, wheelRectL);
// do the right wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(wheelOffset, 0, MatrixOrder.Prepend);
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectR);
DrawRectangle(g, p, wheelRectR);
// do the front wheels
// do the left wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(-wheelOffset, wheelbase, MatrixOrder.Prepend);
wheelTransform.Rotate(steeringAngle * 180 / (float)Math.PI, MatrixOrder.Prepend);
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectL);
DrawRectangle(g, p, wheelRectL);
// do the right wheel
wheelTransform = bodyTrans.Clone();
wheelTransform.Translate(wheelOffset, wheelbase, MatrixOrder.Prepend);
wheelTransform.Rotate(steeringAngle * 180 / (float)Math.PI, MatrixOrder.Prepend);
g.Transform = wheelTransform;
g.FillRectangle(Brushes.White, wheelRectR);
DrawRectangle(g, p, wheelRectR);
}
// return to normal transformation
g.Transform = origTrans;
// draw car center point
DrawingUtility.DrawControlPoint(this.Position, this.color, null, ContentAlignment.MiddleCenter, ControlPointStyle.LargeX, g, t);
// check if should draw id
if (DrawingUtility.DrawSimCarId)
{
// get length
double idOffset = this.Length / 2;
if (this.RearAxleType == RearAxleType.Center)
{
idOffset = this.Length / 3;
}
// get label position
Coordinates labelPosition = this.Position + this.Heading.Normalize(idOffset);
// draw label
DrawingUtility.DrawControlLabel(labelPosition, this.color, this.Id, ContentAlignment.MiddleCenter, ControlPointStyle.None, g, t);
}
}
public void Render(IGraphics g, WorldTransform wt)
{
Coordinates wll = wt.WorldLowerLeft;
Coordinates wur = wt.WorldUpperRight;
PointF ll = new PointF((float)wll.X, (float)wll.Y);
PointF ur = new PointF((float)wur.X, (float)wur.Y);
float startX = (float)Math.Floor(wll.X / spacing) * spacing;
float endX = (float)Math.Ceiling(wur.X / spacing) * spacing;
float startY = (float)Math.Floor(wll.Y / spacing) * spacing;
float endY = (float)Math.Ceiling(wur.Y / spacing) * spacing;
IPen p = g.CreatePen();
p.Color = color;
p.Width = nominal_pixel_width / wt.Scale;
string formatString;
if (spacing >= 1)
{
formatString = "F0";
}
else if (spacing >= 0.1)
{
formatString = "F1";
}
else if (spacing >= 0.01)
{
formatString = "F2";
}
else
{
formatString = "F4";
}
// find the largest value (in magnitude) that we'll need to draw, assuming this will be the max length string
float testVal = Math.Max(Math.Max(Math.Abs(startX), Math.Abs(endX)), Math.Max(Math.Abs(startY), Math.Abs(endY)));
string testString = testVal.ToString(formatString);
SizeF nomStringSize = g.MeasureString(testString, labelFont);
SizeF unitStringSize = g.MeasureString(testString + " m", labelFont);
float pixelSpacing = spacing * wt.Scale;
bool drawLabels = showLabels && pixelSpacing >= (nomStringSize.Width + nominal_label_spacing * 2);
bool drawUnits = pixelSpacing >= (unitStringSize.Width + nominal_label_spacing * 2);
float labelSpacing = nominal_label_spacing / wt.Scale;
// don't draw if there are too many lines
if ((endX - startX) / spacing <= max_lines && (endY - startY) / spacing <= max_lines && pixelSpacing >= min_pixel_spacing)
{
for (float x = startX; x <= endX; x += spacing)
{
g.DrawLine(p, new PointF(x, ll.Y), new PointF(x, ur.Y));
}
for (float y = startY; y <= endY; y += spacing)
{
g.DrawLine(p, new PointF(ll.X, y), new PointF(ur.X, y));
}
if (drawLabels)
{
float minX = ll.X + unitStringSize.Width / wt.Scale + 2 * labelSpacing;
for (float x = startX; x <= endX; x += spacing)
{
if (x > minX)
{
g.DrawString(x.ToString(formatString) + (drawUnits ? " m" : ""), labelFont, Color.Black, new PointF(x + labelSpacing, ll.Y + labelSpacing + nomStringSize.Height / wt.Scale));
}
}
for (float y = startY; y <= endY; y += spacing)
{
g.DrawString(y.ToString(formatString) + (drawUnits ? " m" : ""), labelFont, Color.Black, new PointF(ll.X + labelSpacing, y + labelSpacing));
}
}
}
}