//---
//DEFAULT OBJECTS
//---
//Default Rectangled Simple Surface (no shifts)
public static Technique DefaultRectangledSimple(SizeF tileSize, HatchingMode hatching)
{
Technique t;
t = new Technique(tileSize, new Point(1, 1), new Point(1, 1));
t.SetTileHatching(0, 0, hatching);
t.SetPointShift(0, 0, new PointF(0, 0));
return(t);
}
//Default Triangled Surface (shifts used to make the surface triangle-oriented)
public static Technique DefaultTriangledSimple(SizeF tileSize, bool shiftOnRow0)
{
Technique t;
t = new Technique(tileSize, new Point(1, 2), new Point(1, 2));
if (shiftOnRow0 == false)
{
t.SetTileHatching(0, 0, HatchingMode.NWSE);
t.SetTileHatching(0, 1, HatchingMode.NESW);
t.SetPointShift(0, 0, new PointF(0, 0));
t.SetPointShift(0, 1, new PointF(+tileSize.Width / 2, 0));
}
else
{
t.SetTileHatching(0, 0, HatchingMode.NESW);
t.SetTileHatching(0, 1, HatchingMode.NWSE);
t.SetPointShift(0, 0, new PointF(+tileSize.Width / 2, 0));
t.SetPointShift(0, 1, new PointF(0, 0));
}
return(t);
}
//Default Rectangled Alternated Surface (no shifts) / hatching00 represents the hatching of tile (0,0). the rest are alternated to this
public static Technique DefaultRectangledAlternated(SizeF tileSize, HatchingMode hatchingOnTile00)
{
Technique t;
t = new Technique(tileSize, new Point(2, 2), new Point(1, 1));
t.SetTileHatching(0, 0, hatchingOnTile00);
t.SetTileHatching(0, 1, (HatchingMode)(1 - (int)hatchingOnTile00)); //1-x does bool negation
t.SetTileHatching(1, 0, (HatchingMode)(1 - (int)hatchingOnTile00)); // --''--
t.SetTileHatching(1, 1, hatchingOnTile00);
t.SetPointShift(0, 0, new PointF(0, 0));
return(t);
}