/// <summary>Renders the inverse of this corner for the border.</summary>
public void RenderInverse(float cornerX, float cornerY)
{
// Grab the renderer:
Renderman renderer = RoundCorners.Renderer;
// Get the z-Index:
float zIndex = renderer.Depth + 0.004f;
// Grab the size of the outer arc array:
int arcSize = OuterArc.Length;
int currentIndex = 0;
// Resolve the corner:
Vector3 corner = renderer.PixelToWorldUnit(cornerX, cornerY, zIndex);
// Ensure a batch is available:
InverseBorder.SetupBatch(null, null);
// For each inverse block:
for (int i = 0; i < InverseBlocksRequired; i++)
{
// Get a block:
MeshBlock block = InverseBorder.Add();
// Set the clear colour:
block.SetColour(Color.clear);
// Always going to be space to sample two. Sample the first:
Vector2 outerPoint = OuterArc[currentIndex];
// Apply the triangle:
block.VertexTopRight = corner;
// Apply the first:
block.VertexTopLeft = renderer.PixelToWorldUnit(cornerX + outerPoint.x, cornerY + outerPoint.y, zIndex);
// Sample the second:
outerPoint = OuterArc[currentIndex + 1];
// Apply the second:
block.VertexBottomLeft = renderer.PixelToWorldUnit(cornerX + outerPoint.x, cornerY + outerPoint.y, zIndex);
if ((currentIndex + 2) >= arcSize)
{
// Match the previous vertex:
block.VertexBottomRight = block.VertexBottomLeft;
}
else
{
// Grab the next point along:
outerPoint = OuterArc[currentIndex + 2];
// Resolve and apply the third:
block.VertexBottomRight = renderer.PixelToWorldUnit(cornerX + outerPoint.x, cornerY + outerPoint.y, zIndex);
}
// Move index along:
currentIndex += 2;
}
}
