public override bool Stroke(Ray ray, BrickTree tree, VoxelMaterial voxelMaterial, VoxelMaterialAtlas materialAtlas, List <byte> blackList, Queue <OctreeEntry <Brick> > outChangedBricks, Bounds bounds)
{
// Find the brick intersected
OctreeEntry <Brick> brickEntry = FirstBrickIntersected(ray, tree, blackList);
// If we can't find one return
if (brickEntry == null)
{
return(false);
}
Brick brick = brickEntry.entry;
Vector3 brickPosition = brickEntry.bounds.min;
dummyVector3.Set(brickEntry.cell.x, brickEntry.cell.y, brickEntry.cell.z);
// Make sure the brick is within the legal paining bounds
if (!bounds.Contains(dummyVector3))
{
// return false;
}
// Clear the resused found queue
found.Clear();
// Find which cells are intersected within the grid
selector.Select(ray, brick, brickPosition, blackList, found);
if (found.Count == 0)
{
return(false);
}
Vector3i firstIntersection = found.Dequeue();
Ray offsetRay = new Ray(new Vector3(ray.origin.x - brickPosition.x, ray.origin.y - brickPosition.y, ray.origin.z - brickPosition.z), ray.direction);
float distance;
RayEntersCellFromCell(offsetRay, firstIntersection, dummyVector3i, out distance);
Vector3i adjacentLocal = dummyVector3i;
Vector3i adjacentWorld = adjacentLocal + brickEntry.bounds.min;
dummyVector3.Set(adjacentWorld.x, adjacentWorld.y, adjacentWorld.z);
if (!bounds.Contains(dummyVector3))
{
return(false);
}
tree.SetVoxelAt(adjacentWorld.x, adjacentWorld.y, adjacentWorld.z, materialAtlas.GetMaterialId(voxelMaterial));
Vector3i cellModified = new Vector3i(adjacentWorld.x / tree.BrickDimensionX, adjacentWorld.y / tree.BrickDimensionY, adjacentWorld.z / tree.BrickDimensionZ);
OctreeEntry <Brick> modified = tree.GetAt(cellModified.x, cellModified.y, cellModified.z);
outChangedBricks.Enqueue(modified);
if (adjacentLocal.x == 0)
{
modified = tree.GetAt(cellModified.x - 1, cellModified.y, cellModified.z);
outChangedBricks.Enqueue(modified);
}
if (adjacentLocal.y == 0)
{
modified = tree.GetAt(cellModified.x, cellModified.y - 1, cellModified.z);
outChangedBricks.Enqueue(modified);
}
if (adjacentLocal.z == 0)
{
modified = tree.GetAt(cellModified.x, cellModified.y, cellModified.z - 1);
outChangedBricks.Enqueue(modified);
}
return(true);
}
public abstract bool Stroke(Ray ray, BrickTree tree, VoxelMaterial voxelMaterial, VoxelMaterialAtlas materialAtlas, List <byte> blackList, Queue <OctreeEntry <Brick> > outChangedBricks, Bounds bounds);
public CubicChunkExtractor(VoxelMaterialAtlas materialAtlas)
{
this.materialAtlas = materialAtlas;
}
public override bool Stroke(Ray ray, BrickTree tree, VoxelMaterial voxelMaterial, VoxelMaterialAtlas materialAtlas, List <byte> blackList, Queue <OctreeEntry <Brick> > outChangedBricks, Bounds bounds)
{
OctreeEntry <Brick> brickEntry = FirstBrickIntersected(ray, tree, blackList);
Brick brick = brickEntry.entry;
Vector3 brickPosition = brickEntry.bounds.min;
found.Clear();
selector.Select(ray, brick, brickPosition, blackList, found);
if (found.Count == 0)
{
return(false);
}
Vector3i cell = found.Dequeue();
brick.SetValue(cell.x, cell.y, cell.z, materialAtlas.GetMaterialId(voxelMaterial));
outChangedBricks.Enqueue(brickEntry);
if (cell.x == 0)
{
OctreeEntry <Brick> modified = tree.GetAt(brickEntry.cell.x - 1, brickEntry.cell.y, brickEntry.cell.z);
outChangedBricks.Enqueue(modified);
}
if (cell.y == 0)
{
OctreeEntry <Brick> modified = tree.GetAt(brickEntry.cell.x, brickEntry.cell.y - 1, brickEntry.cell.z);
outChangedBricks.Enqueue(modified);
}
if (cell.z == 0)
{
OctreeEntry <Brick> modified = tree.GetAt(brickEntry.cell.x, brickEntry.cell.y, brickEntry.cell.z - 1);
outChangedBricks.Enqueue(modified);
}
return(true);
}
