internal void Read(NetIncomingMessage Message)
{
if (!Guid.TryParse(Message.ReadString(), out TextureID)) {
throw new Exception("Failed to parse Guid in FSTextureReference");
}
Location = (BlockSide)Message.ReadInt32();
}
public static Color GetColor(this BlockType type, BlockSide side = BlockSide.None)
{
/*if (side != BlockSide.None)
{
if (type == BlockType.Grass)
{
if (side != BlockSide.Top) {
}
}*/
return COLORS[(int)type];
}
public Texture GetTexture(BlockSide Side)
{
FSTextureReference Candidate = null;
do {
Candidate = Texture.Find(delegate(FSTextureReference obj) { return obj.Location == Side; });
if (Candidate != null) {
return Candidate.Texture.Texture;
} else {
if (Side == BlockSide.All) {
return Textures.ErrorTexture;
} else if (Side == BlockSide.Side || Side == BlockSide.Top || Side == BlockSide.Bottom) {
Side = BlockSide.All;
} else {
Side = BlockSide.Side;
}
}
} while (Candidate != null);
return Textures.ErrorTexture;
}
/// <summary>
/// Save the current block state of the given loc.
/// </summary>
public void SetLocState(IRailwayState railwayState, ILocState loc, IBlockState currentBlock, BlockSide currentBlockEnterSide, LocDirection currentDirection)
{
// Write assignment
using (var key = Registry.CurrentUser.CreateSubKey(GetKey(loc)))
{
key.SetValue(CurrentBlock, (currentBlock != null) ? currentBlock.EntityId : string.Empty);
key.SetValue(CurrentBlockEnterSide, (currentBlockEnterSide == BlockSide.Back) ? 0 : 1);
key.SetValue(CurrentDirection, (currentDirection == LocDirection.Forward) ? 0 : 1);
}
}
public Color GetColor(BlockSide side = BlockSide.None)
{
return Type.GetColor(side);
}
//funkcja tworzy pojedyncze sciany kostki
//fukcja generuje wartosci dla mesha
void GenerateBlockSide(BlockSide side)
{
switch (side)
{
case BlockSide.FRONT:
foreach (Vector3 vertex in frontVerticies)
{
chunkParent.vertices.Add((blockPosition + vertex));
}
break;
case BlockSide.BACK:
foreach (Vector3 vertex in backVerticies)
{
chunkParent.vertices.Add((blockPosition + vertex));
}
break;
case BlockSide.LEFT:
foreach (Vector3 vertex in leftVerticies)
{
chunkParent.vertices.Add((blockPosition + vertex));
}
break;
case BlockSide.RIGHT:
foreach (Vector3 vertex in rightVerticies)
{
chunkParent.vertices.Add((blockPosition + vertex));
}
break;
case BlockSide.TOP:
foreach (Vector3 vertex in topVerticies)
{
chunkParent.vertices.Add((blockPosition + vertex));
}
break;
case BlockSide.BOTTOM:
foreach (Vector3 vertex in bottomVerticies)
{
chunkParent.vertices.Add((blockPosition + vertex));
}
break;
}
foreach (Vector2 blockUV in blockType.GetBlockUVs(side))
{
chunkParent.uvs.Add(blockUV);
}
foreach (int triangle in triangles)
{
if (this.blockType.isLiquid())
{
chunkParent.waterTriangles.Add(chunkParent.VertexIndex + triangle);
}
else if (this.blockType.isTransparent || this.blockType.isTransluent)
{
chunkParent.transparentTriangles.Add(chunkParent.VertexIndex + triangle);
}
else
{
chunkParent.triangles.Add(chunkParent.VertexIndex + triangle);
}
}
chunkParent.VertexIndex += 4;
}
/// <summary>
/// Default ctor
/// </summary>
public BlockAndSide(IRouteState route)
{
block = route.To;
enterSide = route.ToBlockSide;
}
/// <summary>
/// This method is called on blocks next to a position that was changed.
/// </summary>
/// <param name="world">The containing world.</param>
/// <param name="position">The block position.</param>
/// <param name="data">The data of the block next to the changed position.</param>
/// <param name="side">The side of the block where the change happened.</param>
public virtual void BlockUpdate(World world, Vector3i position, uint data, BlockSide side) {}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
int i = BitHelper.Help(metadata, 5, 3);
switch (i)
{
case 0:
return "planks_oak";
case 1:
return "planks_spruce";
case 2:
return "planks_birch";
case 3:
return "planks_jungle";
}
return "stone";
}
public override List<CustomBlockData> GenerateSide(BlockSide side, byte metadata, BlockData me, BlockData Xpos, BlockData Xneg, BlockData Ypos, BlockData Yneg, BlockData Zpos, BlockData Zneg)
{
List<CustomBlockData> s = new List<CustomBlockData>();
float level = CalculateLevel(me);
if (side == BlockSide.Ypos)
{
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(0, level, 0),
Vertex2 = new Vector3(1, level, 0),
Vertex3 = new Vector3(1, level, 1),
Vertex4 = new Vector3(0, level, 1),
Normal = new Vector3(0, 1, 0),
Texture = _tex
}.CreateUVs());
}
if (side == BlockSide.Yneg)
{
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(0, 0, 0),
Vertex2 = new Vector3(1, 0, 0),
Vertex3 = new Vector3(1, 0, 1),
Vertex4 = new Vector3(0, 0, 1),
TriFlip = true,
Normal = new Vector3(0, 1, 0),
Texture = _tex
}.CreateUVs());
}
if (side == BlockSide.Xpos)
{
float xpl = level;
if (Xpos.ID == 8 || Xpos.ID == 9)
{
xpl = CalculateLevel(Xpos);
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(1, level, 1),
Vertex2 = new Vector3(1, level, 0),
Vertex3 = new Vector3(1, xpl, 0),
Vertex4 = new Vector3(1, xpl, 1),
UV1 = new Vector2(0, xpl),
UV2 = new Vector2(1, xpl),
UV3 = new Vector2(1, level),
UV4 = new Vector2(0, level),
Normal = new Vector3(1, 0, 0),
Texture = _tex
});
}
else
{
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(1, xpl, 1),
Vertex2 = new Vector3(1, xpl, 0),
Vertex3 = new Vector3(1, 0, 0),
Vertex4 = new Vector3(1, 0, 1),
UV1 = new Vector2(0, xpl),
UV2 = new Vector2(1, xpl),
UV3 = new Vector2(1, 0),
UV4 = new Vector2(0, 0),
Normal = new Vector3(1, 0, 0),
Texture = _tex
});
}
}
if (side == BlockSide.Xneg)
{
float xpl = level;
if (Xneg.ID == 8 || Xneg.ID == 9)
{
xpl = CalculateLevel(Xneg);
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(0, level, 1),
Vertex2 = new Vector3(0, level, 0),
Vertex3 = new Vector3(0, xpl, 0),
Vertex4 = new Vector3(0, xpl, 1),
UV1 = new Vector2(0, xpl),
UV2 = new Vector2(1, xpl),
UV3 = new Vector2(1, level),
UV4 = new Vector2(0, level),
Normal = new Vector3(-1, 0, 0),
Texture = _tex
});
}
else
{
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(0, xpl, 1),
Vertex2 = new Vector3(0, xpl, 0),
Vertex3 = new Vector3(0, 0, 0),
Vertex4 = new Vector3(0, 0, 1),
UV1 = new Vector2(0, xpl),
UV2 = new Vector2(1, xpl),
UV3 = new Vector2(1, 0),
UV4 = new Vector2(0, 0),
Normal = new Vector3(-1, 0, 0),
Texture = _tex
});
}
}
if (side == BlockSide.Zpos)
{
float xpl = level;
if (Zpos.ID == 8 || Zpos.ID == 9)
{
xpl = CalculateLevel(Zpos);
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(1, level, 1),
Vertex2 = new Vector3(0, level, 1),
Vertex3 = new Vector3(0, xpl, 1),
Vertex4 = new Vector3(1, xpl, 1),
UV1 = new Vector2(0, xpl),
UV2 = new Vector2(1, xpl),
UV3 = new Vector2(1, level),
UV4 = new Vector2(0, level),
Normal = new Vector3(0, 0, 1),
Texture = _tex
});
}
else
{
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(1, xpl, 1),
Vertex2 = new Vector3(0, xpl, 1),
Vertex3 = new Vector3(0, 0, 1),
Vertex4 = new Vector3(1, 0, 1),
UV1 = new Vector2(0, xpl),
UV2 = new Vector2(1, xpl),
UV3 = new Vector2(1, 0),
UV4 = new Vector2(0, 0),
Normal = new Vector3(0, 0, 1),
Texture = _tex
});
}
}
if (side == BlockSide.Zneg)
{
float xpl = level;
if (Zneg.ID == 8 || Zneg.ID == 9)
{
xpl = CalculateLevel(Zneg);
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(1, level, 0),
Vertex2 = new Vector3(0, level, 0),
Vertex3 = new Vector3(0, xpl, 0),
Vertex4 = new Vector3(1, xpl, 0),
UV1 = new Vector2(0, xpl),
UV2 = new Vector2(1, xpl),
UV3 = new Vector2(1, level),
UV4 = new Vector2(0, level),
Normal = new Vector3(0, 0, -1),
Texture = _tex
});
}
else
{
s.Add(new CustomBlockData()
{
Vertex1 = new Vector3(1, xpl, 0),
Vertex2 = new Vector3(0, xpl, 0),
Vertex3 = new Vector3(0, 0, 0),
Vertex4 = new Vector3(1, 0, 0),
UV1 = new Vector2(0, xpl),
UV2 = new Vector2(1, xpl),
UV3 = new Vector2(1, 0),
UV4 = new Vector2(0, 0),
Normal = new Vector3(0, 0, -1),
Texture = _tex
});
}
}
return s;
}
/// <inheritdoc />
public bool AllowInflow(World world, Vector3i position, BlockSide side, Liquid liquid)
{
return(liquid.Viscosity < 100);
}
private static bool CastVoxel(Ray ray, out Vector3i hit, out BlockSide side,
Func <Ray, Vector3i, bool> rayIntersectionCheck)
{
/*
* Voxel Traversal Algorithm
* Adapted from code by francisengelmann (https://github.com/francisengelmann/fast_voxel_traversal)
* See: J. Amanatides and A. Woo, A Fast Voxel Traversal Algorithm for Ray Tracing, Eurographics, 1987.
*/
// Calculate the direction of the ray with length
Vector3 direction = ray.Direction;
// Get the origin position in world coordinates.
var x = (int)Math.Floor(ray.Origin.X);
var y = (int)Math.Floor(ray.Origin.Y);
var z = (int)Math.Floor(ray.Origin.Z);
// Get the end position in world coordinates.
var endX = (int)Math.Floor(ray.EndPoint.X);
var endY = (int)Math.Floor(ray.EndPoint.Y);
var endZ = (int)Math.Floor(ray.EndPoint.Z);
// Get the direction in which the components are incremented.
int stepX = Math.Sign(direction.X);
int stepY = Math.Sign(direction.Y);
int stepZ = Math.Sign(direction.Z);
// Calculate the distance to the next voxel border from the current position.
double nextVoxelBoundaryX = stepX > 0 ? x + stepX : x;
double nextVoxelBoundaryY = stepY > 0 ? y + stepY : y;
double nextVoxelBoundaryZ = stepZ > 0 ? z + stepZ : z;
// Calculate the distance to the next voxel border.
double tMaxX = direction.X != 0 ? (nextVoxelBoundaryX - ray.Origin.X) / direction.X : double.MaxValue;
double tMaxY = direction.Y != 0 ? (nextVoxelBoundaryY - ray.Origin.Y) / direction.Y : double.MaxValue;
double tMaxZ = direction.Z != 0 ? (nextVoxelBoundaryZ - ray.Origin.Z) / direction.Z : double.MaxValue;
// Calculate distance so component equals voxel border.
double tDeltaX = direction.X != 0 ? stepX / direction.X : double.MaxValue;
double tDeltaY = direction.Y != 0 ? stepY / direction.Y : double.MaxValue;
double tDeltaZ = direction.Z != 0 ? stepZ / direction.Z : double.MaxValue;
// Check if the ray intersects the bounding box of the voxel.
if (rayIntersectionCheck(ray, (x, y, z)))
{
hit = (x, y, z);
// As the ray starts in this voxel, no side is selected.
side = BlockSide.All;
return(true);
}
while (!(x == endX && y == endY && z == endZ))
{
if (tMaxX < tMaxY)
{
if (tMaxX < tMaxZ)
{
x += stepX;
tMaxX += tDeltaX;
side = stepX > 0 ? BlockSide.Left : BlockSide.Right;
}
else
{
z += stepZ;
tMaxZ += tDeltaZ;
side = stepZ > 0 ? BlockSide.Back : BlockSide.Front;
}
}
else
{
if (tMaxY < tMaxZ)
{
y += stepY;
tMaxY += tDeltaY;
side = stepY > 0 ? BlockSide.Bottom : BlockSide.Top;
}
else
{
z += stepZ;
tMaxZ += tDeltaZ;
side = stepZ > 0 ? BlockSide.Back : BlockSide.Front;
}
}
// Check if the ray intersects the bounding box of the block
if (rayIntersectionCheck(ray, (x, y, z)))
{
hit = (x, y, z);
return(true);
}
}
hit = (-1, -1, -1);
side = BlockSide.All;
return(false);
}
/// <summary>
/// Find all route sequences that lead from the given side of the given "from" block to the given "to" block.
/// </summary>
public static IEnumerable <IRouteSequence> FindRouteSequences(IBlockState fromBlock, BlockSide fromBlockEnterSide, IBlockState toBlock)
{
var railway = fromBlock.RailwayState;
var fromBlockLeaveSide = fromBlockEnterSide.Invert();
var startRoutes = railway.RouteStates.Where(x => (x.From == fromBlock) && (x.FromBlockSide == fromBlockLeaveSide)).ToList();
var initialSequences = startRoutes.Select(x => new RouteSequence(x));
return(FindRouteSequences(initialSequences, railway, toBlock, railway.RouteStates.Count));
}
/// <summary>
/// Select one of the given possible routes.
/// Returns null if no route should be taken.
/// </summary>
/// <param name="possibleRoutes">A list of routes to choose from</param>
/// <param name="loc">The loc to choose for</param>
/// <param name="fromBlock">The block from which the next route will leave</param>
/// <param name="locDirection">The direction the loc is facing in the <see cref="fromBlock"/>.</param>
public IRouteState SelectRoute(IList <IRouteState> possibleRoutes, ILocState loc, IBlockState fromBlock, BlockSide locDirection)
{
// Look for a direct match
var directRoutes = possibleRoutes.Where(x => x.To == targetBlock).ToList();
if (directRoutes.Any())
{
return(new DefaultRouteSelector().SelectRoute(directRoutes, loc, fromBlock, locDirection));
}
// Look for routes that get us closer to the target block.
var sequences = FindRouteSequences(fromBlock, locDirection.Invert(), targetBlock).ToList();
// Filter sequences to start with possible routes
var possibleSequences = sequences.Where(x => possibleRoutes.Contains(x.First)).OrderBy(x => x.Length).ToList();
// Any sequences left?
if (possibleSequences.Count == 0)
{
return(null);
}
// Take the first possible sequence.
return(possibleSequences[0].First);
}
/// <summary>
/// Try to assign the given loc to the given block.
/// Assigning is only possible when the loc is not controlled automatically and
/// the block can be assigned by the given loc.
/// If the loc is already assigned to another block, this assignment is removed
/// and the block on that block is unlocked.
/// </summary>
/// <param name="block">The new block to assign to. If null, the loc will only be unassigned from the current block.</param>
/// <param name="currentBlockEnterSide">The site to which the block is entered (invert of facing)</param>
/// <returns>True on success, false otherwise</returns>
public bool AssignTo(IBlockState block, BlockSide currentBlockEnterSide)
{
return(RailwayState.Dispatcher.PostActionAndWait(() => OnAssignTo(block, currentBlockEnterSide)));
}
public override List<CustomBlockData> GenerateSide(BlockSide side, byte metadata, BlockData me, BlockData Xpos, BlockData Xneg, BlockData Ypos, BlockData Yneg, BlockData Zpos, BlockData Zneg)
{
List<CustomBlockData> bd = new List<CustomBlockData>();
switch (side)
{
case BlockSide.Xneg:
bd.Add(new CustomBlockData()
{
Vertex1 = new Vector3(0, 0, 0),
Vertex2 = new Vector3(0, _height, 0),
Vertex3 = new Vector3(0, _height, 1),
Vertex4 = new Vector3(0, 0, 1),
Normal = new Vector3(-1, 0, 0),
Texture = "dirt",
TriFlip = true
}.CreateUVs(0, 0, 1, _height));
break;
case BlockSide.Xpos:
bd.Add(new CustomBlockData()
{
Vertex1 = new Vector3(1, 0, 0),
Vertex2 = new Vector3(1, _height, 0),
Vertex3 = new Vector3(1, _height, 1),
Vertex4 = new Vector3(1, 0, 1),
Normal = new Vector3(1, 0, 0),
Texture = "dirt",
TriFlip = true
}.CreateUVs(0, 0, 1, _height));
break;
case BlockSide.Zneg:
bd.Add(new CustomBlockData()
{
Vertex1 = new Vector3(0, 0, 0),
Vertex2 = new Vector3(0, _height, 0),
Vertex3 = new Vector3(1, _height, 0),
Vertex4 = new Vector3(1, 0, 0),
Normal = new Vector3(0, 0, -1),
Texture = "dirt",
TriFlip = true
}.CreateUVs(0, 0, 1, _height));
break;
case BlockSide.Zpos:
bd.Add(new CustomBlockData()
{
Vertex1 = new Vector3(0, 0, 1),
Vertex2 = new Vector3(0, _height, 1),
Vertex3 = new Vector3(1, _height, 1),
Vertex4 = new Vector3(1, 0, 1),
Normal = new Vector3(0, 0, 1),
Texture = "dirt",
TriFlip = true
}.CreateUVs(0, 0, 1, _height));
break;
case BlockSide.Ypos:
bd.Add(new CustomBlockData()
{
Vertex1 = new Vector3(0, _height, 0),
Vertex2 = new Vector3(1, _height, 0),
Vertex3 = new Vector3(1, _height, 1),
Vertex4 = new Vector3(0, _height, 1),
Normal = new Vector3(0, 1, 0),
Texture = GetTextureForSide(BlockSide.Ypos, metadata),
}.CreateUVs(0, 0, 1, _height));
break;
}
return bd;
}
public override bool IsFullSide(BlockSide side)
{
return false;
}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
byte type = GetId(metadata);
return _tex.GetTexturesForMetadata(type)[Block.GetSideInt(side)];
}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
if (side == BlockSide.Yneg || side == BlockSide.Ypos)
return _textureY;
return _texture;
}
/// <summary>
/// Create a new <see cref="MeshFaceHolder" />
/// </summary>
/// <param name="side">The block side to target.</param>
protected MeshFaceHolder(BlockSide side)
{
this.side = side;
}
/// <summary>
/// Can the given route be taken by the given loc?
/// </summary>
/// <param name="route">The route being investigated</param>
/// <param name="loc">The loc a route should be choosen for</param>
/// <param name="locDirection">The direction the loc is facing in the From block of the given <see cref="route"/>.</param>
/// <param name="avoidDirectionChanges">If true, the route is considered not available if a direction change is needed.</param>
/// <param name="generationDelta">If larger than 0, look this number of generation less far in the future.</param>
/// <returns>True if the route can be locked and no sensor in the route is active (outside current route).</returns>
public virtual IRouteOption IsAvailableFor(IRouteState route, ILocState loc, BlockSide locDirection, bool avoidDirectionChanges, int generationDelta)
{
ILocState lockedBy;
if (!CanLock(route, loc, out lockedBy))
{
// Cannot lock
return(new RouteOption(route, RouteImpossibleReason.Locked, (lockedBy != null) ? lockedBy.Description : "?"));
}
// Route closed?
if (route.Closed)
{
// Route closed
return(new RouteOption(route, RouteImpossibleReason.Closed));
}
// Target blocked closed?
if (route.To.Closed.Actual || route.To.Closed.Requested)
{
// Destination closed.
return(new RouteOption(route, RouteImpossibleReason.DestinationClosed));
}
// Check opposite traffic
IBlockState blockContainingTraffic;
var maxSteps = Math.Max(1, railwayState.BlockStates.Count - generationDelta);
if (HasTrafficInOppositeDirection(route, loc, maxSteps, out blockContainingTraffic))
{
// Traffic in opposite direction found
return(new RouteOption(route, RouteImpossibleReason.OpposingTraffic, blockContainingTraffic.Description));
}
// Check critical section of route
if (!IsCriticalSectionFree(route, loc))
{
// Some route in critical section not free
return(new RouteOption(route, RouteImpossibleReason.CriticalSectionOccupied));
}
// Check direction
if (route.IsDirectionChangeNeeded(locDirection))
{
if (avoidDirectionChanges)
{
// Do not take this route because a direction change would be needed.
return(new RouteOption(route, RouteImpossibleReason.DirectionChangeNeeded));
}
if (loc.ChangeDirection != ChangeDirection.Allow)
{
// Loc does not allow direction changes
if (!route.From.IsDeadEnd)
{
return(new RouteOption(route, RouteImpossibleReason.DirectionChangeNeeded));
}
// Loc will reverse out of a dead end
}
if (route.From.ChangeDirection != ChangeDirection.Allow)
{
// From block does not allowed direction changes
return(new RouteOption(route, RouteImpossibleReason.DirectionChangeNeeded));
}
}
// Check permissions
if (!route.Permissions.Evaluate(loc))
{
// Loc not allowed by permissions
return(new RouteOption(route, RouteImpossibleReason.NoPermission));
}
// Check sensor states
if (IsAnySensorActive(route, loc))
{
// Route is not available
return(new RouteOption(route, RouteImpossibleReason.SensorActive));
}
// Route is available
return(new RouteOption(route, true, RouteImpossibleReason.None));
}
//Funkcja generuje wartości Mesha na podstawie strony ściany kostki
Mesh GenerateBlockSide(Mesh mesh, BlockSide side)
{
switch (side)
{
case BlockSide.FRONT:
mesh.vertices = new Vector3[] { vertices[4], vertices[5], vertices[1], vertices[0] };
mesh.normals = new Vector3[] { Vector3.forward, Vector3.forward, Vector3.forward, Vector3.forward };
mesh.uv = new Vector2[] { uv[3], uv[2], uv[0], uv[1] };
mesh.triangles = new int[] { 3, 1, 0, 3, 2, 1 };
break;
case BlockSide.BACK:
mesh.vertices = new Vector3[] { vertices[6], vertices[7], vertices[3], vertices[2] };
mesh.normals = new Vector3[] { Vector3.back, Vector3.back, Vector3.back, Vector3.back };
mesh.uv = new Vector2[] { uv[3], uv[2], uv[0], uv[1] };
mesh.triangles = new int[] { 3, 1, 0, 3, 2, 1 };
break;
case BlockSide.LEFT:
mesh.vertices = new Vector3[] { vertices[7], vertices[4], vertices[0], vertices[3] };
mesh.normals = new Vector3[] { Vector3.left, Vector3.left, Vector3.left, Vector3.left };
mesh.uv = new Vector2[] { uv[3], uv[2], uv[0], uv[1] };
mesh.triangles = new int[] { 3, 1, 0, 3, 2, 1 };
break;
case BlockSide.RIGHT:
mesh.vertices = new Vector3[] { vertices[5], vertices[6], vertices[2], vertices[1] };
mesh.normals = new Vector3[] { Vector3.right, Vector3.right, Vector3.right, Vector3.right };
mesh.uv = new Vector2[] { uv[3], uv[2], uv[0], uv[1] };
mesh.triangles = new int[] { 3, 1, 0, 3, 2, 1 };
break;
case BlockSide.TOP:
mesh.vertices = new Vector3[] { vertices[7], vertices[6], vertices[5], vertices[4] };
mesh.normals = new Vector3[] { Vector3.up, Vector3.up, Vector3.up, Vector3.up };
mesh.uv = new Vector2[] { uv[3], uv[2], uv[0], uv[1] };
mesh.triangles = new int[] { 3, 1, 0, 3, 2, 1 };
break;
case BlockSide.BOTTOM:
mesh.vertices = new Vector3[] { vertices[0], vertices[1], vertices[2], vertices[3] };
mesh.normals = new Vector3[] { Vector3.down, Vector3.down, Vector3.down, Vector3.down };
mesh.uv = new Vector2[] { uv[3], uv[2], uv[0], uv[1] };
mesh.triangles = new int[] { 3, 1, 0, 3, 2, 1 };
break;
}
return(mesh);
}
/// <summary>
/// Are there any routes leading to the given block that enter the to block
/// at the given to side?
/// </summary>
private bool AnyRoutesTo(IBlockState toBlock, BlockSide toSide)
{
return(railway.RouteStates.Any(x => (x.To == toBlock) && (x.ToBlockSide == toSide)));
}
/// <summary>
/// Default ctor
/// </summary>
public LocState(IBlockState currentBlock, BlockSide currentBlockEnterSide)
{
this.currentBlock = currentBlock;
this.currentBlockEnterSide = currentBlockEnterSide;
}
/// <summary>
/// Create a list of blocks reachable from the given block.
/// </summary>
private List <BlockAndSide> GetNextBlocks(IBlockState fromBlock, BlockSide fromSide)
{
return(railway.RouteStates.Where(x => (x.From == fromBlock) && (x.FromBlockSide == fromSide)).Select(x => new BlockAndSide(x)).ToList());
}
/// <summary>
/// Copy ctor
/// </summary>
public LocState(LocState source)
{
currentBlock = source.currentBlock;
currentBlockEnterSide = source.currentBlockEnterSide;
}
//funkcja sprawdza czy sasiednia kosta jest przesroczysta
bool HasTransparentNeighbour(BlockSide blockSide)
{
Vector3 neighbourPosition = new Vector3(0, 0, 0);
if (blockSide == BlockSide.FRONT)
{
neighbourPosition = new Vector3(blockPosition.x, blockPosition.y, blockPosition.z + 1);
}
else if (blockSide == BlockSide.BACK)
{
neighbourPosition = new Vector3(blockPosition.x, blockPosition.y, blockPosition.z - 1);
}
else if (blockSide == BlockSide.TOP)
{
neighbourPosition = new Vector3(blockPosition.x, blockPosition.y + 1, blockPosition.z);
}
else if (blockSide == BlockSide.BOTTOM)
{
neighbourPosition = new Vector3(blockPosition.x, blockPosition.y - 1, blockPosition.z);
}
else if (blockSide == BlockSide.RIGHT)
{
neighbourPosition = new Vector3(blockPosition.x + 1, blockPosition.y, blockPosition.z);
}
else if (blockSide == BlockSide.LEFT)
{
neighbourPosition = new Vector3(blockPosition.x - 1, blockPosition.y, blockPosition.z);
}
Block[,,] chunkBlocks = chunkParent.chunkBlocks;
if (neighbourPosition.x < 0 || neighbourPosition.x >= World.chunkSize ||
neighbourPosition.y < 0 || neighbourPosition.y >= World.chunkSize ||
neighbourPosition.z < 0 || neighbourPosition.z >= World.chunkSize)
{
Vector3 neighbourChunkPosition = this.chunkParent.chunkObject.transform.position;
neighbourChunkPosition.x += (neighbourPosition.x - blockPosition.x) * World.chunkSize;
neighbourChunkPosition.y += (neighbourPosition.y - blockPosition.y) * World.chunkSize;
neighbourChunkPosition.z += (neighbourPosition.z - blockPosition.z) * World.chunkSize;
string neighbourChunkName = World.GenerateChunkName(neighbourChunkPosition);
Chunk neighbourChunk;
if (World.chunks.TryGetValue(neighbourChunkName, out neighbourChunk))
{
chunkBlocks = neighbourChunk.chunkBlocks;
}
else
{
return(true);
}
}
if (neighbourPosition.x < 0)
{
neighbourPosition.x = World.chunkSize - 1;
}
if (neighbourPosition.y < 0)
{
neighbourPosition.y = World.chunkSize - 1;
}
if (neighbourPosition.z < 0)
{
neighbourPosition.z = World.chunkSize - 1;
}
if (neighbourPosition.x >= World.chunkSize)
{
neighbourPosition.x = 0;
}
if (neighbourPosition.y >= World.chunkSize)
{
neighbourPosition.y = 0;
}
if (neighbourPosition.z >= World.chunkSize)
{
neighbourPosition.z = 0;
}
var neighbourBlockType = chunkBlocks[(int)neighbourPosition.x, (int)neighbourPosition.y, (int)neighbourPosition.z].blockType;
if (this.blockType.isTransluent && neighbourBlockType.isTransluent && !neighbourBlockType.isTransparent)
{
return(false);
}
return(neighbourBlockType.isTransparent || neighbourBlockType.isTransluent);
}
public void ChangeTo(IBlockState currentBlock, BlockSide currentBlockEnterSide)
{
this.currentBlock = currentBlock;
this.currentBlockEnterSide = currentBlockEnterSide;
}
/// <summary>
/// Provides an enumerable that contains all actual blocks sides, meaning not the side <c>All</c>.
/// </summary>
/// <param name="side">Must be the block side <c>All</c>.</param>
/// <returns>The block side enumerable.</returns>
public static IEnumerable <BlockSide> Sides(this BlockSide side)
{
Debug.Assert(side == BlockSide.All);
return(sides);
}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
int i = BitHelper.Help(metadata, 5, 3);
//bool top = BitHelper.IsBitSet(metadata, 4);
if (i == 0 && (side == BlockSide.Ypos || side == BlockSide.Yneg))
return "stone_slab_top";
if (i == 1 && (side == BlockSide.Ypos || side == BlockSide.Yneg))
return "sandstone_top";
switch (i)
{
case 0:
return "stone_slab_side";
case 1:
return "sandstone_normal";
case 2:
return "planks_oak";
case 3:
return "cobblestone";
case 4:
return "brick";
case 5:
return "stonebrick";
case 6:
return "nether_brick";
case 7:
return "quartz_block_side";
}
return "stone";
}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
if (side == BlockSide.Ypos)
return (metadata == 7 ? "farmland_wet" : "farmland_dry");
return "dirt";
}
public virtual bool CanGenerateSide(BlockSide side, byte metadata)
{
return true;
}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
return _tex;
}
public virtual List<CustomBlockData> GenerateSide(BlockSide side, byte metadata, BlockData me, BlockData Xpos, BlockData Xneg, BlockData Ypos, BlockData Yneg, BlockData Zpos, BlockData Zneg)
{
return new List<CustomBlockData>();
}
public override bool CanGenerateSide(BlockSide side, byte metadata)
{
bool[] bits = BitHelper.GetBits(metadata);
return base.CanGenerateSide(side, metadata);
}
public virtual string GetTextureForSide(BlockSide side, byte metadata)
{
return texture[GetSideInt(side)];
}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
return "fire_layer_0";
}
public virtual bool IsFullSide(BlockSide side)
{
return true;
}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
bool[] bits = BitHelper.GetBits(metadata);
bool on = bits[0];
if (ID == 27)
return "rail_golden" + (on ? "_powered" : "");
if(ID == 28)
return "rail_detector" + (on ? "_powered" : "");
if (ID == 157)
return "rail_activator" + (on ? "_powered" : "");
if (metadata == 6 || metadata == 7 || metadata == 8 || metadata == 9)
return "rail_normal_turned";
return "rail_normal";
}
public static int GetSideInt(BlockSide side)
{
string s = side.ToString().ToLower();
int i = 0;
if (s.StartsWith("x"))
{
if (s.EndsWith("pos"))
return 0;
if (s.EndsWith("neg"))
return 1;
}
if (s.StartsWith("y"))
{
if (s.EndsWith("pos"))
return 2;
if (s.EndsWith("neg"))
return 3;
}
if (s.StartsWith("z"))
{
if (s.EndsWith("pos"))
return 4;
if (s.EndsWith("neg"))
return 5;
}
return i;
}
public override string GetTextureForSide(BlockSide side, byte metadata)
{
return Textures.GetTexturesForMetadata(metadata)[GetSideInt(side)];
}
public static UnityEngine.Vector3 GetVector(this BlockSide blockSide)
{
var vectorValues = blockSide.GetAttribute <BlockSideVectorValuesAttribute>();
return(new UnityEngine.Vector3(vectorValues.X, vectorValues.Y, vectorValues.Z));
}
