private static void CreateNormalsCube(BlockFaces face, List <Vector3F> normals)
{
switch (face)
{
case BlockFaces.Up:
{
normals.AddRange(new[]
{
up, up, up, up, up, up
});
}
break;
case BlockFaces.Down:
{
normals.AddRange(new[]
{
down, down, down, down, down, down
});
}
break;
case BlockFaces.West:
{
normals.AddRange(new[]
{
left, left, left, left, left, left
});
}
break;
case BlockFaces.East:
{
normals.AddRange(new[]
{
right, right, right, right, right, right
});
}
break;
case BlockFaces.North:
{
normals.AddRange(new[]
{
forward, forward, forward, forward, forward, forward
});
}
break;
case BlockFaces.South:
{
normals.AddRange(new[]
{
south, south, south, south, south, south
});
}
break;
}
}
public void SetFace(BlockFaces face)
{
StopAllCoroutines();
foreach (var f in faces)
{
f.SetActive(false);
}
faces[(int)face].SetActive(true);
}
// public object MyProperty { get; }
public Block(Pos pos, ChunkCell parent, ushort type, ushort textureIndex, bool opacity)
{
this.pos = pos;
this.parent = parent;
this.type = type;
this.textureIndex = textureIndex;
this.opacity = opacity;
parent.childrenBinaryGrid.Set(pos.x, pos.y, pos.z);
if (opacity)
parent.childrenOpacityBinaryGreed.Set(pos.x, pos.y, pos.z);
blockFaces = new BlockFaces();
}
/// <summary>
/// Get a <see cref="Vector3D"/> direction from a <see cref="Directions"/> direction.
/// </summary>
/// <param name="face"></param>
/// <returns></returns>
public static Vector3D Direction(this BlockFaces face)
{
switch (face)
{
case BlockFaces.Up: return(Vector3D.Up);
case BlockFaces.Down: return(Vector3D.Down);
case BlockFaces.North: return(Vector3D.Backward);
case BlockFaces.South: return(Vector3D.Forward);
case BlockFaces.West: return(Vector3D.Left);
case BlockFaces.East: return(Vector3D.Right);
default: return(Vector3D.Up);
}
}
public BlockFaces GetVisibleFaces(int x, int y, int z)
{
Contract.Requires(HasAllNeighbors);
Contract.EndContractBlock();
BlockFaces result = BlockFaces.None;
if (Blocks[BlockIndex(x, y, z)].Type != BlockType.Empty)
{
bool isInside = x > 0 && y > 0 && z > 0 && x < ChunkSizeX - 1 && y < ChunkSizeY - 1 && z < ChunkSizeZ - 1;
BlockType leftType, rightType, downType, upType, backwardType, forwardType;
if (isInside)
{
leftType = Blocks[BlockIndex(x - 1, y, z)].Type;
rightType = Blocks[BlockIndex(x + 1, y, z)].Type;
downType = Blocks[BlockIndex(x, y - 1, z)].Type;
upType = Blocks[BlockIndex(x, y + 1, z)].Type;
backwardType = Blocks[BlockIndex(x, y, z + 1)].Type;
forwardType = Blocks[BlockIndex(x, y, z - 1)].Type;
}
else
{
leftType = FindBlock(x - 1, y, z).Type;
rightType = FindBlock(x + 1, y, z).Type;
downType = FindBlock(x, y - 1, z).Type;
upType = FindBlock(x, y + 1, z).Type;
backwardType = FindBlock(x, y, z + 1).Type;
forwardType = FindBlock(x, y, z - 1).Type;
}
if (leftType == BlockType.Empty)
{
result |= BlockFaces.Left;
}
if (rightType == BlockType.Empty)
{
result |= BlockFaces.Right;
}
if (downType == BlockType.Empty)
{
result |= BlockFaces.Down;
}
if (upType == BlockType.Empty)
{
result |= BlockFaces.Up;
}
if (backwardType == BlockType.Empty)
{
result |= BlockFaces.Backward;
}
if (forwardType == BlockType.Empty)
{
result |= BlockFaces.Forward;
}
}
return(result);
}
// goes over the array of block exposed faces counts adds them all up, returns total in an IComponentData to attach to the sector
SectorVisFacesCount CountExposedFaces(NativeArray <Block> blocks, NativeArray <BlockFaces> exposedFaces)
{
// Count vertices and triangles
int faceCount = 0;
int vertCount = 0;
int triCount = 0;
int uvCount = 0;
for (int i = 0; i < exposedFaces.Length; i++)
{
int count = exposedFaces[i].count;
if (count > 0)
{
BlockFaces blockFaces = exposedFaces[i];
// Starting indices in mesh arrays
blockFaces.faceIndex = faceCount;
blockFaces.vertIndex = vertCount;
blockFaces.triIndex = triCount;
blockFaces.uvIndex = uvCount;
exposedFaces[i] = blockFaces;
for (int f = 0; f < 6; f++)
{
switch (f)
{
case 0: // Northface
if (blockFaces.north == 0)
{
break;
}
vertCount += 4;
triCount += 6;
uvCount += 4;
break;
case 1: // Southface
if (blockFaces.south == 0)
{
break;
}
vertCount += 4;
triCount += 6;
uvCount += 4;
break;
case 2: // Eastface
if (blockFaces.east == 0)
{
break;
}
vertCount += 4;
triCount += 6;
uvCount += 4;
break;
case 3: // Westface
if (blockFaces.west == 0)
{
break;
}
vertCount += 4;
triCount += 6;
uvCount += 4;
break;
case 4: // Upface
if (blockFaces.up == 0)
{
break;
}
vertCount += 4;
triCount += 6;
uvCount += 4;
break;
case 5: // Downface
if (blockFaces.down == 0)
{
break;
}
vertCount += 4;
triCount += 6;
uvCount += 4;
break;
}
}
faceCount += count;
}
}
return(new SectorVisFacesCount(faceCount, vertCount, triCount, uvCount));
}
private IEnumerator WaitAndChangeFace(float time, BlockFaces face2)
{
yield return(new WaitForSeconds(time));
SetFace(face2);
}
private void SetFace(BlockFaces face1, BlockFaces face2, float time)
{
SetFace(face1);
StartCoroutine(WaitAndChangeFace(time, face2));
}
private static void CreateVerticesCube(int x, int y, int z, BlockFaces face, List <Vector3F> vertices)
{
const int incr = 1;
switch (face)
{
case BlockFaces.Up:
{
vertices.AddRange(new[] {
new Vector3F(x, y + incr, z) * AntiJitteringCoef,
new Vector3F(x, y + incr, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y + incr, z) * AntiJitteringCoef,
new Vector3F(x + incr, y + incr, z) * AntiJitteringCoef,
new Vector3F(x, y + incr, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y + incr, z + incr) * AntiJitteringCoef
});
}
break;
case BlockFaces.Down:
{
vertices.AddRange(new[] {
new Vector3F(x, y, z + incr) * AntiJitteringCoef,
new Vector3F(x, y, z) * AntiJitteringCoef,
new Vector3F(x + incr, y, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y, z + incr) * AntiJitteringCoef,
new Vector3F(x, y, z) * AntiJitteringCoef,
new Vector3F(x + incr, y, z) * AntiJitteringCoef
});
}
break;
case BlockFaces.West:
{
vertices.AddRange(new[] {
new Vector3F(x, y, z) * AntiJitteringCoef,
new Vector3F(x, y, z + incr) * AntiJitteringCoef,
new Vector3F(x, y + incr, z) * AntiJitteringCoef,
new Vector3F(x, y + incr, z) * AntiJitteringCoef,
new Vector3F(x, y, z + incr) * AntiJitteringCoef,
new Vector3F(x, y + incr, z + incr) * AntiJitteringCoef
});
}
break;
case BlockFaces.East:
{
vertices.AddRange(new[]
{
new Vector3F(x + incr, y + incr, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y + incr, z) * AntiJitteringCoef,
new Vector3F(x + incr, y + incr, z) * AntiJitteringCoef,
new Vector3F(x + incr, y, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y, z) * AntiJitteringCoef
});
}
break;
case BlockFaces.North:
{
vertices.AddRange(new[]
{
new Vector3F(x, y, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y, z + incr) * AntiJitteringCoef,
new Vector3F(x, y + incr, z + incr) * AntiJitteringCoef,
new Vector3F(x, y + incr, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y, z + incr) * AntiJitteringCoef,
new Vector3F(x + incr, y + incr, z + incr) * AntiJitteringCoef
});
}
break;
case BlockFaces.South:
{
vertices.AddRange(new[]
{
new Vector3F(x + incr, y + incr, z) * AntiJitteringCoef,
new Vector3F(x + incr, y, z) * AntiJitteringCoef,
new Vector3F(x, y + incr, z) * AntiJitteringCoef,
new Vector3F(x, y + incr, z) * AntiJitteringCoef,
new Vector3F(x + incr, y, z) * AntiJitteringCoef,
new Vector3F(x, y, z) * AntiJitteringCoef
});
}
break;
}
}
private static void CreateUVsCube(BlockFaces face, List <Vector2F> uvs, int cubeIdx)
{
float faceIDX = 0;
switch (face)
{
case BlockFaces.East:
faceIDX = 0;
break;
case BlockFaces.West:
faceIDX = 1;
break;
case BlockFaces.Up:
faceIDX = 2;
break;
case BlockFaces.Down:
faceIDX = 3;
break;
case BlockFaces.North:
faceIDX = 4;
break;
case BlockFaces.South:
faceIDX = 5;
break;
}
float idx = (float)cubeIdx;
float w = ItemCache.TextureSize / (float)ItemCache.Atlas.Width;
float h = ItemCache.TextureSize / (float)ItemCache.Atlas.Height;
const int incr = 1;
switch (face)
{
case BlockFaces.Up:
{
uvs.AddRange(new[]
{
new Vector2F(faceIDX * w, idx * h) * AntiShitCoef, //0
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //incr
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //2
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //3
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //4
new Vector2F((faceIDX + incr) * w, (idx + incr) * h) * AntiShitCoef, //5
});
}
break;
case BlockFaces.Down:
{
uvs.AddRange(new[]
{
new Vector2F((faceIDX + incr) * w, (idx + incr) * h) * AntiShitCoef, //top left
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //bottom left
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //top right
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //top right
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //bottom left
new Vector2F((faceIDX) * w, (idx) * h) * AntiShitCoef, //top left
});
}
break;
case BlockFaces.North:
{
uvs.AddRange(new[]
{
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //5
new Vector2F(faceIDX * w, idx * h) * AntiShitCoef, //4
new Vector2F((faceIDX + incr) * w, (idx + incr) * h) * AntiShitCoef, //3
new Vector2F((faceIDX + incr) * w, (idx + incr) * h) * AntiShitCoef, //2
new Vector2F(faceIDX * w, idx * h) * AntiShitCoef, //incr
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //0
});
}
break;
case BlockFaces.South:
{
uvs.AddRange(new[]
{
new Vector2F((faceIDX + incr) * w, (idx + incr) * h) * AntiShitCoef, //0 topleft
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //2 bottom left
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //incr top right
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, // 4 top right
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //3 bottom left
new Vector2F(faceIDX * w, idx * h) * AntiShitCoef, //5 bottom right
});
}
break;
case BlockFaces.West:
{
uvs.AddRange(new[]
{
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //5
new Vector2F(faceIDX * w, idx * h) * AntiShitCoef, //4
new Vector2F((faceIDX + incr) * w, (idx + incr) * h) * AntiShitCoef, //3
new Vector2F((faceIDX + incr) * w, (idx + incr) * h) * AntiShitCoef, //2
new Vector2F(faceIDX * w, idx * h) * AntiShitCoef, //incr
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //0
});
}
break;
case BlockFaces.East:
{
uvs.AddRange(new[]
{
new Vector2F((faceIDX + incr) * w, (idx + incr) * h) * AntiShitCoef, //5
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //3
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //4
new Vector2F(faceIDX * w, (idx + incr) * h) * AntiShitCoef, //incr
new Vector2F((faceIDX + incr) * w, idx * h) * AntiShitCoef, //2
new Vector2F(faceIDX * w, idx * h) * AntiShitCoef, //0
});
}
break;
}
}
public void Execute(int index)
{
BlockFaces blockFaces = new BlockFaces();
Block block = current[index];
blockFaces.atlasID = block.atlasID;
if (blockFaces.atlasID == 1) // this block is AIR, so no faces are needing to be rendered
{
blockFaces.north = 0; // its an air block so never need side rendered
blockFaces.south = 0;
blockFaces.east = 0;
blockFaces.west = 0;
blockFaces.up = 0;
blockFaces.down = 0;
}
else
{
for (int f = 0; f < 6; f++)
{
// gets local position of neighbouring block in the direction of f
float3 adjacentBlocksPos = block.localPosition + directions[f];
ushort adjBlocksAtlasID = GetBlocksAtlasID(adjacentBlocksPos);
byte transparency = texAtlasSettings.IsTransparent(adjBlocksAtlasID); // get transparency for this block, 1 = transparent, 0 for solid
//Debug.Log ("adjblocksID " + adjBlocksAtlasID + "transparency " + transparency);
// if transparency of adjacent block is 1, then we need this block to render a face in that direction
// below sets our blocks face to 1 for i need a face
blockFaces[f] = transparency;
//switch (f)
//{
// case 0:
// blockFaces.northID = adjBlocksAtlasID;
// break;
// case 1:
// blockFaces.southID = adjBlocksAtlasID;
// break;
// case 2:
// blockFaces.eastID = adjBlocksAtlasID;
// break;
// case 3:
// blockFaces.westID = adjBlocksAtlasID;
// break;
// case 4:
// blockFaces.upID = adjBlocksAtlasID;
// break;
// case 5:
// blockFaces.downID = adjBlocksAtlasID;
// break;
//}
}
}
blockFaces.SetCount();
//Debug.Log (" faces " + faces.count + " north " + faces.northID + " south " + faces.southID + " east " + faces.eastID + " west " + faces.westID + " up " + faces.upID + " down " + faces.downID);
exposedFaces[index] = blockFaces;
}