/**
* <summary>Spawns a wall cap facing a direction, with appropriate position & settings</summary>
* <param name="direction">Direction from the centre of the door</param>
*/
private GameObject SpawnWallCap(Direction direction)
{
var wallCap = EditorAndRuntime.InstantiatePrefab(wallCapPrefab, transform);
Direction cardinalDirectionInput = TileHelper.GetRelativeDirection(direction, doorDirection);
var cardinal = TileHelper.ToCardinalVector(cardinalDirectionInput);
var rotation = TileHelper.AngleBetween(direction, doorDirection);
wallCap.transform.localRotation = Quaternion.Euler(0, rotation, 0);
wallCap.transform.localPosition = new Vector3(cardinal.Item1 * WALL_CAP_DISTANCE_FROM_CENTRE, 0, cardinal.Item2 * WALL_CAP_DISTANCE_FROM_CENTRE);
return(wallCap);
}
public MeshDirectionInfo GetMeshAndDirection(AdjacencyMap adjacencyMap)
{
// Determine rotation and mesh specially for every single case.
float rotation = 0.0f;
Mesh mesh;
AdjacencyShape shape = AdjacencyShapeResolver.GetSimpleShape(adjacencyMap);
switch (shape)
{
case AdjacencyShape.O:
mesh = o;
break;
case AdjacencyShape.U:
mesh = u;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.GetSingleConnection());
break;
case AdjacencyShape.I:
mesh = i;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.HasConnection(Direction.North) ? Direction.North : Direction.East);
break;
case AdjacencyShape.L:
mesh = l;
rotation = TileHelper.AngleBetween(Direction.NorthEast, adjacencyMap.GetDirectionBetweenTwoConnections());
break;
case AdjacencyShape.T:
mesh = t;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.GetSingleNonConnection());
break;
case AdjacencyShape.X:
mesh = x;
break;
default:
Debug.LogError($"Received unexpected shape from simple shape resolver: {shape}");
mesh = o;
break;
}
return(new MeshDirectionInfo {
Mesh = mesh, Rotation = rotation
});
}
public MeshDirectionInfo GetMeshAndDirection(AdjacencyBitmap adjacents)
{
// Count number of connections along cardinal (which is all that we use atm)
var cardinalInfo = adjacents.GetCardinalInfo();
// Determine rotation and mesh specially for every single case.
float rotation = 0.0f;
Mesh mesh;
if (cardinalInfo.IsO())
{
mesh = o;
}
else if (cardinalInfo.IsU())
{
mesh = u;
rotation = TileHelper.AngleBetween(Direction.North, cardinalInfo.GetOnlyPositive());
}
else if (cardinalInfo.IsI())
{
mesh = i;
rotation = TileHelper.AngleBetween(Orientation.Vertical, cardinalInfo.GetFirstOrientation());
}
else if (cardinalInfo.IsL())
{
mesh = l;
rotation = TileHelper.AngleBetween(Direction.NorthEast, cardinalInfo.GetCornerDirection());
}
else if (cardinalInfo.IsT())
{
mesh = t;
rotation = TileHelper.AngleBetween(Direction.South, cardinalInfo.GetOnlyNegative());
}
else // Must be X
{
mesh = x;
}
return(new MeshDirectionInfo {
mesh = mesh, rotation = rotation
});
}
public MeshDirectionInfo GetMeshAndDirection(AdjacencyMap adjacencyMap)
{
float rotation = 0.0f;
Mesh mesh;
AdjacencyShape shape = AdjacencyShapeResolver.GetAdvancedShape(adjacencyMap);
switch (shape)
{
case AdjacencyShape.O:
mesh = o;
break;
case AdjacencyShape.U:
mesh = u;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.GetSingleConnection());
break;
case AdjacencyShape.I:
mesh = i;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.HasConnection(Direction.North) ? Direction.North : Direction.East);
break;
case AdjacencyShape.LNone:
mesh = lNone;
rotation = TileHelper.AngleBetween(Direction.NorthEast, adjacencyMap.GetDirectionBetweenTwoConnections());
break;
case AdjacencyShape.LSingle:
mesh = lSingle;
rotation = TileHelper.AngleBetween(Direction.NorthEast, adjacencyMap.GetDirectionBetweenTwoConnections());
break;
case AdjacencyShape.TNone:
mesh = tNone;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.GetSingleNonConnection());
break;
case AdjacencyShape.TSingleLeft:
mesh = tSingleLeft;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.GetSingleNonConnection());
break;
case AdjacencyShape.TSingleRight:
mesh = tSingleRight;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.GetSingleNonConnection());
break;
case AdjacencyShape.TDouble:
mesh = tDouble;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.GetSingleNonConnection());
break;
case AdjacencyShape.XNone:
mesh = xNone;
break;
case AdjacencyShape.XSingle:
mesh = xSingle;
Direction connectingDiagonal = adjacencyMap.GetSingleConnection(false);
rotation = connectingDiagonal == Direction.NorthEast ? 0f :
connectingDiagonal == Direction.SouthEast ? 90f :
connectingDiagonal == Direction.SouthWest ? 180f : -90f;
break;
case AdjacencyShape.XOpposite:
mesh = xOpposite;
rotation = adjacencyMap.HasConnection(Direction.NorthEast) ? 0f : 90f;
break;
case AdjacencyShape.XSide:
mesh = xSide;
rotation = TileHelper.AngleBetween(Direction.NorthWest, adjacencyMap.GetDirectionBetweenTwoConnections(false)) - 45f;
break;
case AdjacencyShape.XTriple:
mesh = xTriple;
Direction nonConnectingDiagonal = adjacencyMap.GetSingleNonConnection(false);
rotation = nonConnectingDiagonal == Direction.NorthEast ? -90f :
nonConnectingDiagonal == Direction.SouthEast ? 0f :
nonConnectingDiagonal == Direction.SouthWest ? 90f : 180f;
break;
case AdjacencyShape.XQuad:
mesh = xQuad;
break;
default:
Debug.LogError($"Received unexpected shape from advanced shape resolver: {shape}");
mesh = o;
break;
}
//If someone knows of a more elegant way to do the same without switching the same variable twice, I'd like to hear it :)
if (opaque)
{
switch (shape)
{
case AdjacencyShape.U:
viewObstacles[0].SetActive(false);
viewObstacles[1].SetActive(false);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(false);
break;
case AdjacencyShape.I:
viewObstacles[0].SetActive(false);
viewObstacles[1].SetActive(false);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(true);
break;
case AdjacencyShape.LNone:
case AdjacencyShape.LSingle:
viewObstacles[0].SetActive(false);
viewObstacles[1].SetActive(true);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(false);
break;
case AdjacencyShape.TNone:
case AdjacencyShape.TSingleLeft:
case AdjacencyShape.TSingleRight:
viewObstacles[0].SetActive(true);
viewObstacles[1].SetActive(true);
viewObstacles[2].SetActive(false);
viewObstacles[3].SetActive(true);
break;
case AdjacencyShape.TDouble:
case AdjacencyShape.XNone:
case AdjacencyShape.XSingle:
case AdjacencyShape.XOpposite:
case AdjacencyShape.XSide:
case AdjacencyShape.XTriple:
case AdjacencyShape.XQuad:
viewObstacles[0].SetActive(true);
viewObstacles[1].SetActive(true);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(true);
break;
}
}
return(new MeshDirectionInfo {
Mesh = mesh, Rotation = rotation
});
}
public MeshDirectionInfo GetMeshAndDirection(AdjacencyMap adjacencyMap)
{
// Determine rotation and mesh specially for every single case.
float rotation = 0.0f;
Mesh mesh;
AdjacencyShape shape = AdjacencyShapeResolver.GetOffsetShape(adjacencyMap);
switch (shape)
{
case AdjacencyShape.O:
mesh = o;
orientation = OffsetOrientation.o;
break;
case AdjacencyShape.UNorth:
mesh = uNorth;
orientation = OffsetOrientation.uNorth;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.GetSingleConnection());
break;
case AdjacencyShape.USouth:
mesh = uSouth;
orientation = OffsetOrientation.uSouth;
rotation = TileHelper.AngleBetween(Direction.South, adjacencyMap.GetSingleNonConnection());
break;
case AdjacencyShape.I:
mesh = i;
orientation = OffsetOrientation.i;
rotation = TileHelper.AngleBetween(Direction.North, adjacencyMap.HasConnection(Direction.North) ? Direction.North : Direction.East);
break;
case AdjacencyShape.LNorthWest:
mesh = lNW;
orientation = OffsetOrientation.lNW;
rotation = 90;
break;
case AdjacencyShape.LNorthEast:
mesh = lNE;
orientation = OffsetOrientation.lSE;
rotation = 90;
break;
case AdjacencyShape.LSouthEast:
mesh = lSE;
orientation = OffsetOrientation.lSW;
rotation = 90;
break;
case AdjacencyShape.LSouthWest:
mesh = lSW;
orientation = OffsetOrientation.lNW;
rotation = 90;
break;
case AdjacencyShape.TNorthSouthEast:
mesh = tNSE;
orientation = OffsetOrientation.tSWE;
rotation = 90;
break;
case AdjacencyShape.TSouthWestEast:
mesh = tSWE;
orientation = OffsetOrientation.tNSW;
rotation = 90;
break;
case AdjacencyShape.TNorthSouthWest:
mesh = tNSW;
orientation = OffsetOrientation.tNEW;
rotation = 90;
break;
case AdjacencyShape.TNorthEastWest:
mesh = tNEW;
orientation = OffsetOrientation.tNSE;
rotation = 90;
break;
case AdjacencyShape.X:
mesh = x;
orientation = OffsetOrientation.x;
rotation = 90;
break;
default:
Debug.LogError($"Received unexpected shape from offset shape resolver: {shape}");
mesh = o;
break;
}
return(new MeshDirectionInfo {
Mesh = mesh, Rotation = rotation
});
}
public MeshDirectionInfo GetMeshAndDirection(AdjacencyBitmap adjacents)
{
// Count number of connections along cardinal (which is all that we use atm)
var cardinalInfo = adjacents.GetCardinalInfo();
// Determine rotation and mesh specially for every single case.
float rotation = 0.0f;
Mesh mesh;
if (cardinalInfo.IsO())
{
mesh = o;
orientation = OffsetOrientation.o;
}
else if (cardinalInfo.IsU())
{
if (cardinalInfo.north > 0 || cardinalInfo.east > 0)
{
mesh = uNorth;
orientation = OffsetOrientation.uNorth;
}
else
{
mesh = uSouth;
orientation = OffsetOrientation.uSouth;
}
rotation = TileHelper.AngleBetween(Direction.North, cardinalInfo.GetOnlyPositive());
}
else if (cardinalInfo.IsI())
{
mesh = i;
orientation = OffsetOrientation.i;
rotation = TileHelper.AngleBetween(Orientation.Vertical, cardinalInfo.GetFirstOrientation());
}
else if (cardinalInfo.IsL())
{
Direction sides = cardinalInfo.GetCornerDirection();
mesh = sides == Direction.NorthEast ? lNE
: sides == Direction.SouthEast ? lSE
: sides == Direction.SouthWest ? lSW
: lNW;
orientation = sides == Direction.NorthEast ? OffsetOrientation.lNE
: sides == Direction.SouthEast ? OffsetOrientation.lSE
: sides == Direction.SouthWest ? OffsetOrientation.lSW
: OffsetOrientation.lNW;
rotation = 90;
}
else if (cardinalInfo.IsT())
{
Direction notside = cardinalInfo.GetOnlyNegative();
mesh = notside == Direction.North ? tSWE
: notside == Direction.East ? tNSW
: notside == Direction.South ? tNEW
: tNSE;
orientation = notside == Direction.North ? OffsetOrientation.tSWE
: notside == Direction.East ? OffsetOrientation.tNSW
: notside == Direction.South ? OffsetOrientation.tNEW
: OffsetOrientation.tNSE;
rotation = 90;
}
else // Must be X
{
mesh = x;
orientation = OffsetOrientation.x;
rotation = 90;
}
return(new MeshDirectionInfo {
mesh = mesh, rotation = rotation
});
}
public MeshDirectionInfo GetMeshAndDirection(AdjacencyBitmap adjacents)
{
var cardinalInfo = adjacents.GetCardinalInfo();
float rotation = 0.0f;
Mesh mesh;
if (cardinalInfo.IsO())
{
mesh = o;
}
else if (cardinalInfo.IsU())
{
mesh = u;
rotation = TileHelper.AngleBetween(Direction.North, cardinalInfo.GetOnlyPositive());
if (opaque)
{
viewObstacles[0].SetActive(false);
viewObstacles[1].SetActive(false);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(false);
}
}
else if (cardinalInfo.IsI())
{
mesh = i;
rotation = TileHelper.AngleBetween(Orientation.Vertical, cardinalInfo.GetFirstOrientation());
if (opaque)
{
viewObstacles[0].SetActive(false);
viewObstacles[1].SetActive(false);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(true);
}
}
else if (cardinalInfo.IsL())
{
// Determine lSolid or lCorner by finding whether the area between the two connections is filled
// We check for if any of the following bitfields matches the connection bitfield
// N+NE+E = 0/1/2, E+SE+S = 2/3/4, S+SW+W = 4/5/6, W+NW+N = 6/7/0
bool isFilled = (adjacents.Connections & 0b00000111) == 0b00000111 || (adjacents.Connections & 0b00011100) == 0b00011100 || (adjacents.Connections & 0b01110000) == 0b01110000 || (adjacents.Connections & 0b11000001) == 0b11000001;
mesh = isFilled ? lSingle : lNone;
rotation = TileHelper.AngleBetween(Direction.NorthEast, cardinalInfo.GetCornerDirection());
if (opaque)
{
viewObstacles[0].SetActive(false);
viewObstacles[1].SetActive(true);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(false);
}
}
else if (cardinalInfo.IsT())
{
// We make another bitfield (noticing a pattern?). 0x0 means no fills, 0x1 means right corner filled, 0x2 means left corner filled,
// therefore both corners filled = 0x3.
int corners = ((1 - cardinalInfo.north) * 2 | (1 - cardinalInfo.east)) * adjacents.Adjacent(Direction.SouthWest)
+ ((1 - cardinalInfo.east) * 2 | (1 - cardinalInfo.south)) * adjacents.Adjacent(Direction.NorthWest)
+ ((1 - cardinalInfo.south) * 2 | (1 - cardinalInfo.west)) * adjacents.Adjacent(Direction.NorthEast)
+ ((1 - cardinalInfo.west) * 2 | (1 - cardinalInfo.north)) * adjacents.Adjacent(Direction.SouthEast);
mesh = corners == 0 ? tNone
: corners == 1 ? tSingleLeft
: corners == 2 ? tSingleRight
: tDouble;
rotation = TileHelper.AngleBetween(Direction.South, cardinalInfo.GetOnlyNegative());
if (opaque)
{
viewObstacles[0].SetActive(true);
viewObstacles[1].SetActive(true);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(corners >= 3);
}
}
else
{
// This sneaky piece of code uses the cardinal info to store diagonals by rotating everything -45 degrees
// NE -> N, SW -> S, etc.
var diagonals = new AdjacencyBitmap.CardinalInfo((byte)(adjacents.Connections >> 1));
switch (diagonals.numConnections)
{
case 0:
mesh = xNone;
break;
case 1:
mesh = xSingle;
rotation = TileHelper.AngleBetween(Direction.South, diagonals.GetOnlyPositive());
break;
case 2:
if (diagonals.north == diagonals.south)
{
mesh = xOpposite;
rotation = TileHelper.AngleBetween(Orientation.Horizontal, diagonals.GetFirstOrientation());
}
else
{
mesh = xSide;
rotation = TileHelper.AngleBetween(Direction.SouthEast, diagonals.GetCornerDirection());
}
break;
case 3:
mesh = xTriple;
rotation = TileHelper.AngleBetween(Direction.North, diagonals.GetOnlyNegative());
break;
default:
mesh = xQuad;
break;
}
if (opaque)
{
viewObstacles[0].SetActive(true);
viewObstacles[1].SetActive(true);
viewObstacles[2].SetActive(true);
viewObstacles[3].SetActive(true);
}
}
return(new MeshDirectionInfo {
mesh = mesh, rotation = rotation
});
}
