void blah(TestTile tile, TestTile other)
{
int otherIndexSouth = (int)Math.Round((South(tile) - South(other)) / Spacing(other.LOD));
int otherIndexNorth = (int)Math.Round((North(tile) - South(other)) / Spacing(other.LOD));
int otherIndexWest = (int)Math.Round((West(tile) - West(other)) / Spacing(other.LOD));
int otherIndexEast = (int)Math.Round((East(tile) - West(other)) / Spacing(other.LOD));
int otherVertexOffset = (MeshDimension(other.LOD) * otherIndexSouth) + otherIndexWest;
int otherVertexOffsetNorthWest = (MeshDimension(other.LOD) * otherIndexNorth) + otherIndexWest;
int otherVertexOffsetSouthEast = (MeshDimension(other.LOD) * otherIndexSouth) + otherIndexEast;
int tileVertexOffset = 0;
int tileVertexOffsetNorthWest = MeshDimension(tile.LOD) * (MeshDimension(tile.LOD) - 1);
int tileVertexOffsetSouthEast = MeshDimension(tile.LOD) - 1;
int tileToOtherRatio = (int)Math.Pow(2, tile.LOD - other.LOD);
int otherCount = Dimension(tile.LOD) / tileToOtherRatio;
for (int i = 0; i <= otherCount; ++i)
{
tile.vertices[tileVertexOffset + (i * tileToOtherRatio)].y = other.vertices[otherVertexOffset + i].y; // south
tile.vertices[tileVertexOffset + (MeshDimension(tile.LOD) * i * tileToOtherRatio)].y = other.vertices[otherVertexOffset + (MeshDimension(other.LOD) * i)].y; // west
tile.vertices[tileVertexOffsetNorthWest + (i * tileToOtherRatio)].y = other.vertices[otherVertexOffsetNorthWest + i].y; // north
tile.vertices[tileVertexOffsetSouthEast + (MeshDimension(tile.LOD) * i * tileToOtherRatio)].y = other.vertices[otherVertexOffsetSouthEast + (MeshDimension(other.LOD) * i)].y; // east
}
if (tile.LOD <= other.LOD)
{
return;
}
InterpolateSouthEdge(tile, tileToOtherRatio);
InterpolateWestEdge(tile, tileToOtherRatio);
InterpolateNorthEdge(tile, tileToOtherRatio);
InterpolateEastEdge(tile, tileToOtherRatio);
}
void UpdateTileEdges(TestTile tile, TestTile other)
{
if (tile.LOD < other.LOD)
{
return;
}
if (IsSouth(tile, other))
{
UpdateTileEdges_South(tile, other);
}
if (IsWest(tile, other))
{
UpdateTileEdges_West(tile, other);
}
if (IsNorth(tile, other))
{
UpdateTileEdges_North(tile, other);
}
if (IsEast(tile, other))
{
UpdateTileEdges_East(tile, other);
}
if (tile.LOD <= other.LOD)
{
return;
}
int step = VertexStep(tile, other);
InterpolateSouthEdge(tile, step);
InterpolateWestEdge(tile, step);
InterpolateNorthEdge(tile, step);
InterpolateEastEdge(tile, step);
}
public void ShouldBeClosedByDefault()
{
var tile = new TestTile(TileType.Dirt);
tile.IsDiscovered
.Should()
.BeFalse();
}
////////////////////////////////////////////////////////////
TestTile AddTile(int lod, float x, float y)
{
var tile = new TestTile()
{
LOD = lod,
X = x,
Y = y,
vertices = new Vector3[MeshDimension(lod) * MeshDimension(lod)],
triangles = new int[Dimension(lod) * Dimension(lod) * 6],
};
tile.gameObject = new GameObject();
tile.gameObject.transform.SetParent(gameObject.transform);
tile.gameObject.transform.Translate(20.0f, 0.0f, 120.0f);
tile.gameObject.name = Name(tile);
tile.gameObject.AddComponent <MeshRenderer>();
tile.mesh = tile.gameObject.AddComponent <MeshFilter>().mesh;
tile.mesh.indexFormat = UnityEngine.Rendering.IndexFormat.UInt32;
int dim = Dimension(tile.LOD);
int meshDim = MeshDimension(tile.LOD);
float spacing = Spacing(lod);
for (int row = 0; row < meshDim; ++row)
{
for (int col = 0; col < meshDim; ++col)
{
float elev = lod * 4.0f;
//elev += random.Next(2);
tile.vertices[(row * meshDim) + col] = new Vector3(tile.X + (col * spacing), elev, tile.Y + (row * spacing));
}
}
int triangleIndex = 0;
for (int row = 0; row < dim; ++row)
{
for (int col = 0; col < dim; ++col, triangleIndex += 6)
{
int vertexIndex = (row * meshDim) + col;
int upperLeftIndex = vertexIndex;
int upperRightIndex = upperLeftIndex + 1;
int lowerLeftIndex = upperLeftIndex + meshDim;
int lowerRightIndex = lowerLeftIndex + 1;
tile.triangles[triangleIndex + 0] = lowerLeftIndex;
tile.triangles[triangleIndex + 1] = upperRightIndex;
tile.triangles[triangleIndex + 2] = upperLeftIndex;
tile.triangles[triangleIndex + 3] = upperRightIndex;
tile.triangles[triangleIndex + 4] = lowerLeftIndex;
tile.triangles[triangleIndex + 5] = lowerRightIndex;
}
}
tile.mesh.vertices = tile.vertices;
tile.mesh.triangles = tile.triangles;
tiles.Add(tile);
return(tile);
}
public override void OnInspectorGUI()
{
base.OnInspectorGUI();
TestTile t = (TestTile)target;
if (GUILayout.Button("Make Tile"))
{
// t.GenerateTile();
}
}
public void TilePlacements()
{
Board b = new Board(new Vector2Int(6, 6));
List <Tile> tileList = TestTile.GenerateTiles();
Assert.IsNotNull(b.PlaceTile(tileList[0], new Vector2Int(0, 0), Direction.UP), "On board placement");
Assert.IsNull(b.PlaceTile(tileList[0], new Vector2Int(0, 6), Direction.UP), "Off board placement");
Assert.IsNull(b.PlaceTile(tileList[0], new Vector2Int(-4, 4), Direction.UP), "Off board placement");
Assert.IsNull(b.PlaceTile(tileList[1], new Vector2Int(0, 0), Direction.UP), "Tile Already in Position");
}
public void IsInHand()
{
Hand h = new Hand();
List <Tile> tileList = TestTile.GenerateTiles();
h.AddToHand(tileList [0]);
h.AddToHand(tileList [2]);
Assert.False(h.IsInHand(tileList[3]), "Detects if tile is not in hand");
Assert.True(h.IsInHand(tileList[0]), "Detects if tile is in hand");
Assert.True(h.IsInHand(tileList[1]), "Detects if identical tile is not in hand");
}
public void BasicAddRemove()
{
Hand h = new Hand();
List <Tile> tileList = TestTile.GenerateTiles();
h.AddToHand(tileList [0]);
h.AddToHand(tileList [1]);
Assert.AreEqual(2, h.Pieces.Count, "Tiles added normally");
Assert.IsNull(h.RemoveFromHand(tileList[2]), "Does not attempt to remove tile that is not present");
Assert.AreEqual(h.RemoveFromHand(tileList[1]), tileList[1], "Correct tile removed");
Assert.AreEqual(1, h.Pieces.Count, "Tile removed");
}
public void SymmetryScoresTest()
{
PlayerMachine pm = new PlayerMachine("pete");
List <Tile> testTiles = TestTile.GenerateTiles();
Assert.AreEqual(4, pm.UniqueRotationTiles(testTiles [0]), "No rotational symmetry detected");
Assert.AreEqual(4, pm.UniqueRotationTiles(testTiles [1]), "No rotational symmetry detected");
Assert.AreEqual(4, pm.UniqueRotationTiles(testTiles [2]), "No rotational symmetry detected");
Assert.AreEqual(4, pm.UniqueRotationTiles(testTiles [3]), "No rotational symmetry detected");
Assert.AreEqual(1, pm.UniqueRotationTiles(testTiles [4]), "Two of three other paths are symmetrical to first path");
Assert.AreEqual(1, pm.UniqueRotationTiles(testTiles [5]), "All paths are symmetrical to each other");
Assert.AreEqual(2, pm.UniqueRotationTiles(testTiles [6]), "All paths are symmetrical to each other");
}
public void MovePlayer()
{
Board b = new Board(new Vector2Int(6, 6));
List <Tile> tileList = TestTile.GenerateTiles();
SPlayer sp = new SPlayer();
b.AddNewPlayer(sp, new PlayerLocation(new Vector2Int(0, 4), 7));
b.MovePlayer(sp, tileList[0]);
Assert.AreEqual(new Vector2Int(0, 4), sp.Location.Coordinate, "Moved player to correct coordinate");
Assert.AreEqual(7, sp.Location.PositionOnTile, "Moved player to correct position");
}
public List <TileBase> GetTiles(TestTile del)
{
var ret = new List <TileBase>();
foreach (TileBase tile in tiles)
{
if (del(tile))
{
ret.Add(tile);
}
}
return(ret);
}
public void ChooseAsymmetricTest()
{
Board b = new Board(new Vector2Int(6, 6));
PlayerMachine pm = new PlayerMachine("pete");
pm.AIType = PlayerAIType.ASYMMETRIC;
List <Tile> testTiles = TestTile.GenerateTiles();
Hand h = new Hand();
h.AddToHand(testTiles [0]);
h.AddToHand(testTiles [4]);
h.AddToHand(testTiles [5]);
Assert.AreEqual(testTiles[0], pm.PlayTurn(b, h.Pieces, b.CurrentDeck.Pieces.Count));
}
void InterpolateEdge(TestTile tile, int segmentWidth, int vertexArrayOffset, int vertexArrayStep)
{
for (int i = 0; i + segmentWidth < MeshDimension(tile.LOD); i += segmentWidth)
{
int startIndex = vertexArrayOffset + (i * vertexArrayStep);
int endIndex = startIndex + (segmentWidth * vertexArrayStep);
float a = tile.vertices[startIndex].y;
float b = tile.vertices[endIndex].y;
float slope = (b - a) / segmentWidth;
for (int j = 1; j < segmentWidth; ++j)
{
tile.vertices[startIndex + (j * vertexArrayStep)].y = a + (slope * j);
}
}
}
public void ChooseSymmetricTest()
{
Administrator a = new Administrator();
Board b = new Board(new Vector2Int(6, 6));
a.SetBoard(b);
PlayerMachine pm = new PlayerMachine("pete");
a.AddNewPlayer(pm);
pm.AIType = PlayerAIType.SYMMETRIC;
List <Tile> testTiles = TestTile.GenerateTiles();
Hand h = new Hand();
h.AddToHand(testTiles [0]);
h.AddToHand(testTiles [4]);
h.AddToHand(testTiles [5]);
//4 or 5 both work.
Assert.AreEqual(testTiles[5], pm.PlayTurn(b, h.Pieces, b.CurrentDeck.Pieces.Count));
}
public void GetAdjacentPlayers()
{
Board b = new Board(new Vector2Int(6, 6));
List <Tile> tileList = TestTile.GenerateTiles();
SPlayer sp = new SPlayer();
b.AddNewPlayer(sp, new PlayerLocation(new Vector2Int(0, 4), 7));
SPlayer sp2 = new SPlayer();
b.AddNewPlayer(sp2, new PlayerLocation(new Vector2Int(0, 4), 6));
b.PlaceTile(tileList[2], new Vector2Int(1, 4), Direction.UP);
b.PlaceTile(tileList[1], new Vector2Int(0, 4), Direction.UP);
Assert.AreEqual(0, b.GetAdjacentPlayers(tileList[2]).Count, "Did not incorrectly grab a player");
Assert.AreEqual(2, b.GetAdjacentPlayers(tileList[1]).Count, "Found adjacent player");
}
static void PathfindTest()
{
var map = new Map <TestTile>(1, 100, 20);
PopulateMap(map);
Console.WriteLine(map);
var search = new MapAStar <TestTile>();
search.PathFind(map.Get(0), t => TestTile.IsPassable(t.type), new Point <int>(2, 0), new Point <int>(98, 19));
RenderPath(map.Get(0), search);
var solutionRender = new Layer <TestTile>(map.width, map.height);
RenderSearchExtent(solutionRender, search);
var layer = new Layer <TestTile>(100, 20);
// create a bunch of walls
layer.Fill((x, y, oldTile) =>
{
return(new TestTile('.'));
});
for (int c = 0; c < layer.size.x; c += 2)
{
for (int r = 1; r < layer.size.y; ++r)
{
layer.Set(c, r, new TestTile('x'));
}
c += 2;
for (int r = 0; r < layer.size.y - 1; ++r)
{
layer.Set(c, r, new TestTile('x'));
}
}
Console.WriteLine(layer);
search = new MapAStar <TestTile>();
search.PathFind(layer, (TestTile t) => TestTile.IsPassable(t.type), new Point <int>(0, 0), new Point <int>(99, 19));
RenderPath(layer, search);
}
public List <TileBase> GetClutteredTiles()
{
TestTile del = delegate(TileBase tile)
{
if (!tile.isConstructed)
{
return(false);
}
foreach (Resource res in tile.clutteredResources)
{
if (!res.isClaimed)
{
return(true);
}
}
return(false);
};
return(GetTiles(del));
}
void UpdateTileEdges_East(TestTile tile, TestTile other)
{
float offsetDistanceX = East(tile) - West(other);
float offsetDistanceY = South(tile) - South(other);
int offsetIndexX = Mathf.RoundToInt(offsetDistanceX / Spacing(other.LOD));
int offsetIndexY = Mathf.RoundToInt(offsetDistanceY / Spacing(other.LOD));
int offsetIndex = (offsetIndexY * MeshDimension(other.LOD)) + offsetIndexX;
int tileVertexOffset = MeshDimension(tile.LOD) - 1;
int tileVertexStep = MeshDimension(tile.LOD);
int otherVertexOffset = offsetIndex;
int otherVertexStep = MeshDimension(other.LOD);
int tileStep = (int)Mathf.Pow(2, tile.LOD - other.LOD);
int otherCount = Dimension(tile.LOD) / tileStep;
for (int i = 0; i <= otherCount; ++i)
{
int tileVertexIndex = tileVertexOffset + (tileVertexStep * i * tileStep);
int otherVertexIndex = otherVertexOffset + (otherVertexStep * i);
tile.vertices[tileVertexIndex].y = other.vertices[otherVertexIndex].y;
}
}
public override Dictionary <ulong, Entity> InitEntities()
{
var entities = new Dictionary <ulong, Entity>();
movingEntities = new Dictionary <ulong, TestEntity>();
for (int i = 0; i < 150; i++)
{
var cube = new TestEntity();
entities.Add(cube.Id, cube);
movingEntities.Add(cube.Id, cube);
}
for (int j = 0; j < 45; j++)
{
for (int i = 0; i < 80; i++)
{
var tile = new TestTile(i * 16, j * 16, 0, Game.RNG.Next(6));
entities.Add(tile.Id, tile);
}
}
return(entities);
}
bool IsEast(TestTile tile, TestTile other)
{
if (East(tile) > East(other))
{
return(false);
}
if (East(tile) < West(other))
{
return(false);
}
if (North(tile) <= South(other))
{
return(false);
}
if (South(tile) >= North(other))
{
return(false);
}
if ((tile.LOD == other.LOD) && (East(tile) == East(other)))
{
return(false);
}
return(true);
}
bool IsNorth(TestTile tile, TestTile other)
{
if (North(tile) > North(other))
{
return(false);
}
if (North(tile) < South(other))
{
return(false);
}
if (East(tile) <= West(other))
{
return(false);
}
if (West(tile) >= East(other))
{
return(false);
}
if ((tile.LOD == other.LOD) && (North(tile) == North(other)))
{
return(false);
}
return(true);
}
string Name(TestTile tile) => string.Format("TILE LOD:{0} X:{1:0.00} Y:{2:0.00} D:{3} SZ:{4:0.00}", tile.LOD, tile.X, tile.Y, Dimension(tile.LOD), Size(tile.LOD));
float South(TestTile tile) => tile.Y;
void InterpolateNorthEdge(TestTile tile, int segmentWidth) => InterpolateEdge(tile, segmentWidth, MeshDimension(tile.LOD) * (MeshDimension(tile.LOD) - 1), 1);
void InterpolateEastEdge(TestTile tile, int segmentWidth) => InterpolateEdge(tile, segmentWidth, MeshDimension(tile.LOD) - 1, MeshDimension(tile.LOD));
void InterpolateSouthEdge(TestTile tile, int segmentWidth) => InterpolateEdge(tile, segmentWidth, 0, 1);
float West(TestTile tile) => tile.X;
float North(TestTile tile) => tile.Y + Size(tile.LOD);
int VertexStep(TestTile tile, TestTile other) => (int)Math.Pow(2, tile.LOD - other.LOD);
float East(TestTile tile) => tile.X + Size(tile.LOD);
