/// <summary>
/// Creates this Tile Object (an object that has OriginalID) if applicable
/// </summary>
/// <param name="tiledMap">The base Tile Map</param>
/// <param name="layerDepth">Layer's zDepth</param>
/// <param name="sortingLayerName">Layer's SortingLayerName</param>
/// <param name="parent">Transform to parent this object to</param>
/// <param name="materials">List of TileSet Materials</param>
public static GameObject CreateTileObject(this MapObject obj, Map tiledMap, string sortingLayerName, int layerDepth, List<Material> materials, Transform parent = null)
{
if (obj.GID > 0)
{
Tile objTile = null;
if (tiledMap.MapRenderParameter.Orientation != Orientation.Orthogonal)
objTile = tiledMap.Tiles[obj.GID].Clone(new Vector2(0.5f, 0.5f));
else
objTile = tiledMap.Tiles[obj.GID].Clone();
objTile.CreateTileObject(obj.Name,
parent != null ? parent : obj.ParentObjectLayer.LayerGameObject.transform,
sortingLayerName,
tiledMap.DefaultSortingOrder + tiledMap.GetSortingOrder(obj.Bounds.x, obj.Bounds.y),
tiledMap.TiledPositionToWorldPoint(obj.Bounds.x, obj.Bounds.y, layerDepth),
materials);
obj.Bounds.Set(obj.Bounds.x, obj.Bounds.y - 1, obj.Bounds.width, obj.Bounds.height);
objTile.TileGameObject.SetActive(obj.Visible);
// Since Tiled 0.12, TileObjects' Bounds will have the desired width and height of the image, so scale accordingly
if(obj.Bounds.width != 1 || obj.Bounds.height != 1)
objTile.TileGameObject.transform.localScale = new Vector3(obj.Bounds.width / objTile.TileSprite.bounds.size.x, obj.Bounds.height / objTile.TileSprite.bounds.size.y);
return objTile.TileGameObject;
}
return null;
}
/// <summary>
/// Adds a Box Collider 2D or 3D to an existing GameObject using one MapObject as properties source
/// </summary>
/// <param name="gameObject">GameObject to add a Box Collider</param>
/// <param name="obj">MapObject which properties will be used to generate this collider.</param>
/// <param name="isTrigger">True for Trigger Collider, false otherwise</param>
/// <param name="zDepth">Z Depth of the collider.</param>
/// <param name="colliderWidth">Width of the collider, in Units</param>
/// <param name="used2DColider">True to generate a 2D collider, false to generate a 3D collider.</param>
/// <param name="createRigidbody">True to attach a Rigidbody to the created collider</param>
/// <param name="rigidbodyIsKinematic">Sets if the attached rigidbody is kinematic or not</param>
public static void AddBoxCollider(Map map, GameObject gameObject, MapObject obj, bool used2DColider = true, bool isTrigger = false, float zDepth = 0, float colliderWidth = 1.0f, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
if (used2DColider)
AddBoxCollider2D(map, gameObject, obj, isTrigger, null, zDepth, createRigidbody, rigidbodyIsKinematic);
else
AddBoxCollider3D(map, gameObject, obj, isTrigger, null, zDepth, colliderWidth, createRigidbody, rigidbodyIsKinematic);
}
/// <summary>
/// Creates a Map Object Layer from node
/// </summary>
/// <param name="node">XML node to parse</param>
/// <param name="tiledMap">MapObjectLayer parent Map</param>
/// <param name="layerDepth">This Layer's zDepth</param>
/// <param name="materials">List of Materials containing the TileSet textures</param>
public MapObjectLayer(NanoXMLNode node, Map tiledMap, int layerDepth)
: base(node, tiledMap)
{
if (node.GetAttribute("color") != null)
{
// get the color string, removing the leading #
string color = node.GetAttribute("color").Value.Substring(1);
// get the RGB individually
string r = color.Substring(0, 2);
string g = color.Substring(2, 2);
string b = color.Substring(4, 2);
// convert to the color
Color = new Color(
(byte)int.Parse(r, NumberStyles.AllowHexSpecifier),
(byte)int.Parse(g, NumberStyles.AllowHexSpecifier),
(byte)int.Parse(b, NumberStyles.AllowHexSpecifier));
}
Objects = new List<MapObject>();
foreach (NanoXMLNode objectNode in node.SubNodes)
{
if (!objectNode.Name.Equals("object"))
continue;
MapObject mapObjectContent = new MapObject(objectNode, this);
mapObjectContent = mapObjectContent.ScaleObject(tiledMap.MapRenderParameter) as MapObject;
// Object names need to be unique for our lookup system, but Tiled
// doesn't require unique names.
string objectName = mapObjectContent.Name;
int duplicateCount = 2;
// if a object already has the same name...
if (Objects.Find(o => o.Name.Equals(objectName)) != null)
{
// figure out a object name that does work
do
{
objectName = string.Format("{0}{1}", mapObjectContent.Name, duplicateCount);
duplicateCount++;
} while (Objects.Find(o => o.Name.Equals(objectName)) != null);
// log a warning for the user to see
//Debug.LogWarning("Renaming object \"" + mapObjectContent.Name + "\" to \"" + objectName + "\" in layer \"" + Name + "\" to make a unique name.");
// save that name
mapObjectContent.Name = objectName;
}
//mapObjectContent.CreateTileObject(tiledMap, Name, layerDepth, materials);
AddObject(mapObjectContent);
}
}
void SetPlayerNewPosition(Map lastMap, Vector2 _doorFromPosition)
{
Vector2 fromDoorIndex = lastMap.WorldPointToTileIndex(_doorFromPosition);
// Change door tile to opened door :P
int originalID = lastMap.GetTileLayer("Layer 0").Tiles[fromDoorIndex.x, fromDoorIndex.y].OriginalID;
lastMap.GetTileLayer("Layer 0").SetTile(fromDoorIndex.x, fromDoorIndex.y, originalID + 2);
int lastMapWidth = lastMap.Width;
int lastMapHeight = lastMap.Height;
// Position player
MapObjectLayer mol = _currentMap.GetObjectLayer("Doors");
for (int i = 0; i < mol.Objects.Count; i++)
{
// This is a Left Door - X = 0
if (mol.Objects[i].Bounds.x < 1)
{
// And we came from a Right Door!
if (fromDoorIndex.x >= lastMapWidth - 1)
{
_player.transform.localPosition = _currentMap.TiledPositionToWorldPoint(1.5f, mol.Objects[i].Bounds.y + 0.5f);
}
}
// This is a Right Door - X = _currentMap.Width - 1
if (mol.Objects[i].Bounds.x >= _currentMap.Width - 1)
{
// And we came from a Left Door!
if (fromDoorIndex.x < 1)
{
_player.transform.localPosition = _currentMap.TiledPositionToWorldPoint(mol.Objects[i].Bounds.x - 1, mol.Objects[i].Bounds.y + 0.5f);
}
}
// This is an Up Door - Y = 0
if (mol.Objects[i].Bounds.y < 1)
{
// And we came from a Down Door!
if (fromDoorIndex.y >= lastMapHeight - 1)
{
_player.transform.localPosition = _currentMap.TiledPositionToWorldPoint(mol.Objects[i].Bounds.x + 0.5f, 1.4f);
}
}
// This is a Down Door - Y = _currentMap.Height - 1
if (mol.Objects[i].Bounds.y >= _currentMap.Height - 1)
{
// And we came from an Up Door!
if (fromDoorIndex.y < 1)
{
_player.transform.localPosition = _currentMap.TiledPositionToWorldPoint(mol.Objects[i].Bounds.x, mol.Objects[i].Bounds.y - 0.5f);
}
}
}
_player.gameObject.GetComponent<X_UniTMX.Utils.SortingOrderAutoCalculator>().SetMap(_currentMap);
}
/// <summary>
/// Adds a BoxCollider2D to a GameObject
/// </summary>
/// <param name="gameObject">GameObject to add the collider</param>
/// <param name="obj">MapObject which properties will be used to generate this collider</param>
/// <param name="isTrigger">True for Trigger Collider, false otherwise</param>
/// <param name="physicsMaterial">PhysicsMaterial2D to be set to the collider</param>
/// <param name="zDepth">Z Depth of the collider</param>
/// <param name="createRigidbody">True to attach a Rigidbody to the created collider</param>
/// <param name="rigidbodyIsKinematic">Sets if the attached rigidbody is kinematic or not</param>
public static void AddBoxCollider2D(Map map, GameObject gameObject, MapObject obj, bool isTrigger = false, PhysicsMaterial2D physicsMaterial = null, float zDepth = 0, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
// Orthogonal and Staggered maps can use BoxCollider, Isometric maps must use polygon collider
if (map.MapRenderParameter.Orientation != X_UniTMX.Orientation.Isometric)
{
BoxCollider2D bx = gameObject.AddComponent<BoxCollider2D>();
bx.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
#if UNITY_5
bx.offset = new Vector2(obj.Bounds.width / 2.0f, -obj.Bounds.height / 2.0f);
#else
bx.center = new Vector2(obj.Bounds.width / 2.0f, -obj.Bounds.height / 2.0f);
#endif
bx.size = new Vector2(obj.Bounds.width, obj.Bounds.height);
if (physicsMaterial != null)
bx.sharedMaterial = physicsMaterial;
}
else if (map.MapRenderParameter.Orientation == X_UniTMX.Orientation.Isometric)
{
PolygonCollider2D pc = gameObject.AddComponent<PolygonCollider2D>();
pc.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
Vector2[] points = new Vector2[4];
points[0] = map.TiledPositionToWorldPoint(obj.Bounds.xMin - obj.Bounds.x, obj.Bounds.yMax - obj.Bounds.y);
points[1] = map.TiledPositionToWorldPoint(obj.Bounds.xMin - obj.Bounds.x, obj.Bounds.yMin - obj.Bounds.y);
points[2] = map.TiledPositionToWorldPoint(obj.Bounds.xMax - obj.Bounds.x, obj.Bounds.yMin - obj.Bounds.y);
points[3] = map.TiledPositionToWorldPoint(obj.Bounds.xMax - obj.Bounds.x, obj.Bounds.yMax - obj.Bounds.y);
points[0].x -= map.MapRenderParameter.Width / 2.0f;
points[1].x -= map.MapRenderParameter.Width / 2.0f;
points[2].x -= map.MapRenderParameter.Width / 2.0f;
points[3].x -= map.MapRenderParameter.Width / 2.0f;
pc.SetPath(0, points);
if (physicsMaterial != null)
pc.sharedMaterial = physicsMaterial;
}
if (createRigidbody)
{
Rigidbody2D r = gameObject.AddComponent<Rigidbody2D>();
r.isKinematic = rigidbodyIsKinematic;
}
if (obj.Rotation != 0)
gameObject.transform.localRotation = Quaternion.AngleAxis(obj.Rotation, Vector3.forward);
ApplyCustomProperties(gameObject, obj);
// Link this collider to the MapObject
obj.LinkedGameObject = gameObject;
}
/// <summary>
/// Creates a Tile Layer from node
/// </summary>
/// <param name="node">XML node to parse</param>
/// <param name="map">TileLayer parent Map</param>
/// <param name="layerDepth">This Layer's zDepth</param>
/// <param name="makeUnique">true to generate Unique Tiles</param>
/// <param name="materials">List of Materials containing the TileSet textures</param>
public TileLayer(NanoXMLNode node, Map map, int layerDepth, bool makeUnique, List<Material> materials)
: base(node)
{
NanoXMLNode dataNode = node["data"];
Data = new uint[Width * Height];
LayerDepth = layerDepth;
MakeUniqueTiles = makeUnique;
// figure out what encoding is being used, if any, and process
// the data appropriately
if (dataNode.GetAttribute("encoding") != null)
{
string encoding = dataNode.GetAttribute("encoding").Value;
if (encoding == "base64")
{
ReadAsBase64(dataNode);
}
else if (encoding == "csv")
{
ReadAsCsv(dataNode);
}
else
{
throw new Exception("Unknown encoding: " + encoding);
}
}
else
{
// XML format simply lays out a lot of <tile gid="X" /> nodes inside of data.
int i = 0;
foreach (NanoXMLNode tileNode in dataNode.SubNodes)
{
if (tileNode.Name.Equals("tile"))
{
Data[i] = uint.Parse(tileNode.GetAttribute("gid").Value, CultureInfo.InvariantCulture);
i++;
}
}
if (i != Data.Length)
throw new Exception("Not enough tile nodes to fill data");
}
Initialize(map, Data, materials);
}
/// <summary>
/// Creates an Image Layer from node
/// </summary>
/// <param name="node">XML node to parse</param>
/// <param name="map">ImageLayer parent Map</param>
/// <param name="mapPath">Map's directory path</param>
/// <param name="baseMaterial">Material to use on this SpriteRenderer</param>
public ImageLayer(NanoXMLNode node, Map map, string mapPath)
: base(node, map)
{
NanoXMLNode imageNode = node["image"];
this.Image = imageNode.GetAttribute("source").Value;
if (node.GetAttribute("x") != null)
{
Position.x = float.Parse(node.GetAttribute("x").Value, NumberStyles.Float) / (float)map.MapRenderParameter.TileWidth;
}
if (node.GetAttribute("y") != null)
{
Position.y = -float.Parse(node.GetAttribute("y").Value, NumberStyles.Float) / (float)map.MapRenderParameter.TileHeight;
}
// if the image is in any director up from us, just take the filename
//if (this.Image.StartsWith(".."))
// this.Image = Path.GetFileName(this.Image);
if (imageNode.GetAttribute("trans") != null)
{
string color = imageNode.GetAttribute("trans").Value;
string r = color.Substring(0, 2);
string g = color.Substring(2, 2);
string b = color.Substring(4, 2);
this.ColorKey = new Color((byte)Convert.ToInt32(r, 16), (byte)Convert.ToInt32(g, 16), (byte)Convert.ToInt32(b, 16));
}
SortingOrder = map.DefaultSortingOrder - LayerDepth;
_ppu = map.MapRenderParameter.TileWidth;
useWWWToLoad = map.UsingStreamingAssetsPath;
string texturePath = mapPath;
if (!useWWWToLoad)
{
texturePath = Utils.XUniTMXHelpers.ParsePath(mapPath, Image);
}
else
{
if (!texturePath.Contains("://"))
texturePath = "file://" + texturePath + Path.GetFileName(this.Image);
}
Image = texturePath;
}
public TileLayer(XmlNode node, Map map, float layerDepth, bool makeUnique, List<Material> materials)
: base(node)
{
XmlNode dataNode = node["data"];
Data = new uint[Width * Height];
LayerDepth = layerDepth;
Debug.Log("Layer Depth: " + LayerDepth);
// figure out what encoding is being used, if any, and process
// the data appropriately
if (dataNode.Attributes["encoding"] != null)
{
string encoding = dataNode.Attributes["encoding"].Value;
if (encoding == "base64")
{
ReadAsBase64(node, dataNode);
}
else if (encoding == "csv")
{
ReadAsCsv(node, dataNode);
}
else
{
throw new Exception("Unknown encoding: " + encoding);
}
}
else
{
// XML format simply lays out a lot of <tile gid="X" /> nodes inside of data.
int i = 0;
foreach (XmlNode tileNode in dataNode.SelectNodes("tile"))
{
Data[i] = uint.Parse(tileNode.Attributes["gid"].Value, CultureInfo.InvariantCulture);
i++;
}
if (i != Data.Length)
throw new Exception("Not enough tile nodes to fill data");
}
Initialize(map, Data, makeUnique, materials);
}
public ImageLayer(XElement node, Map map, string mapPath, Material baseMaterial)
: base(node)
{
XElement imageNode = node.Element("image");
this.Image = imageNode.Attribute("source").Value;
// if the image is in any director up from us, just take the filename
if (this.Image.StartsWith(".."))
this.Image = Path.GetFileName(this.Image);
if (imageNode.Attribute("trans") != null)
{
string color = imageNode.Attribute("trans").Value;
string r = color.Substring(0, 2);
string g = color.Substring(2, 2);
string b = color.Substring(4, 2);
this.ColorKey = new Color((byte)Convert.ToInt32(r, 16), (byte)Convert.ToInt32(g, 16), (byte)Convert.ToInt32(b, 16));
}
string texturePath = mapPath;
if (Path.GetDirectoryName(this.Image).Length > 0)
texturePath += Path.GetDirectoryName(this.Image) + Path.AltDirectorySeparatorChar;
this.Texture = (Texture2D)Resources.Load(texturePath + Path.GetFileNameWithoutExtension(this.Image), typeof(Texture2D));
LayerGameObject = new GameObject(Name);
LayerGameObject.transform.parent = map.MapObject.transform;
LayerGameObject.transform.localPosition = new Vector3(0, 0, this.LayerDepth);
LayerGameObject.isStatic = true;
LayerGameObject.SetActive(Visible);
SpriteRenderer tileRenderer = LayerGameObject.AddComponent<SpriteRenderer>();
tileRenderer.sprite = Sprite.Create(Texture, new Rect(0, 0, Texture.width, Texture.height), Vector2.up, map.TileWidth);
tileRenderer.sprite.name = Texture.name;
tileRenderer.sortingOrder = map.DefaultSortingOrder - LayerDepth;
// Use Layer's name as Sorting Layer
tileRenderer.sortingLayerName = this.Name;
//tileRenderer.material = new Material(baseMaterial);
//tileRenderer.material.mainTexture = Texture;
}
public void LoadMap(string map, Vector2 _doorFromPosition)
{
if (map.Equals(_currentMap.MapObject.name))
return;
Map lastMap = _currentMap;
_currentMap.MapObject.SetActive(false);
Map nextMap = null;
// If map was already loaded, just enable its GameObject
if (_loadedMaps.TryGetValue(map, out nextMap))
{
nextMap.MapObject.SetActive(true);
_currentMap = nextMap;
}
else
{
// Else, load the map and generate its collisions
for (int i = 0; i < _maps.Length; i++)
{
if (_maps[i].name.Equals(map))
{
nextMap = new Map(_maps[i].text, map, _tiledMapComponent.MapTMXPath, _tiledMapComponent.gameObject, _tiledMapComponent.materialDefaultFile, _tiledMapComponent.DefaultSortingOrder, true);
nextMap.GenerateTileCollisions();
nextMap.GenerateCollidersFromLayer("WallColliders");
nextMap.GenerateCollidersFromLayer("Doors", true, true);
_loadedMaps.Add(map, nextMap);
_currentMap = nextMap;
break;
}
}
}
if (nextMap == null)
return;
// Set the player's position on the new map
SetPlayerNewPosition(lastMap, _doorFromPosition);
}
protected Layer(NanoXMLNode node, Map tileMap)
{
//string Type = node.Name;
Name = node.GetAttribute("name").Value;
if (string.IsNullOrEmpty(Name))
Name = "Layer";
if (node.GetAttribute("width") != null)
Width = int.Parse(node.GetAttribute("width").Value, CultureInfo.InvariantCulture);
else
Width = 0;
if (node.GetAttribute("height") != null)
Height = int.Parse(node.GetAttribute("height").Value, CultureInfo.InvariantCulture);
else
Height = 0;
if (node.GetAttribute("opacity") != null)
{
Opacity = float.Parse(node.GetAttribute("opacity").Value, CultureInfo.InvariantCulture);
}
else
Opacity = 1;
if (node.GetAttribute("visible") != null)
{
Visible = int.Parse(node.GetAttribute("visible").Value, CultureInfo.InvariantCulture) == 1;
}
else
Visible = true;
NanoXMLNode propertiesNode = node["properties"];
if (propertiesNode != null)
{
Properties = new PropertyCollection(propertiesNode);
}
BaseMap = tileMap;
}
private static void ApproximateEllipse3D(Map map, GameObject newCollider, MapObject obj, bool isTrigger = false, PhysicMaterial physicsMaterial = null, float zDepth = 0, float colliderWidth = 1.0f, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
// since there's no "EllipseCollider", we must create one by approximating a polygon collider
//newCollider.transform.localPosition = TiledPositionToWorldPoint(obj.Bounds.x, obj.Bounds.y, zDepth);
Mesh colliderMesh = new Mesh();
colliderMesh.name = "Collider_" + obj.Name;
MeshCollider mc = newCollider.AddComponent<MeshCollider>();
mc.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
int segments = XUniTMXConfiguration.Instance.EllipsoideColliderApproximationFactor;
// Segments per quadrant
int incFactor = Mathf.FloorToInt(segments / 4.0f);
float minIncrement = 2 * Mathf.PI / (incFactor * segments / 2.0f);
int currentInc = 0;
bool grow = true;
Vector2[] points = new Vector2[segments];
float width = obj.Bounds.width;
float height = obj.Bounds.height;
Vector2 center = new Vector2(width / 2.0f, height / 2.0f);
float r = 0;
float angle = 0;
for (int i = 0; i < segments; i++)
{
// Calculate radius at each point
//angle = i * increment;
angle += currentInc * minIncrement;
r = width * height / Mathf.Sqrt(Mathf.Pow(height * Mathf.Cos(angle), 2) + Mathf.Pow(width * Mathf.Sin(angle), 2)) / 2.0f;
points[i] = r * new Vector2(Mathf.Cos(angle), Mathf.Sin(angle)) + center;
if (map.MapRenderParameter.Orientation == X_UniTMX.Orientation.Staggered)
points[i].y *= -1;
if (grow)
currentInc++;
else
currentInc--;
if (currentInc > incFactor - 1 || currentInc < 1)
grow = !grow;
// POG :P
if (map.MapRenderParameter.Orientation != X_UniTMX.Orientation.Isometric)
{
if (i < 1 || i == segments / 2 - 1)
points[i].y += obj.Bounds.height / 20.0f;
if (i >= segments - 1 || i == segments / 2)
points[i].y -= obj.Bounds.height / 20.0f;
}
}
List<Vector3> vertices = new List<Vector3>();
List<int> triangles = new List<int>();
GenerateVerticesAndTris(map, new List<Vector2>(points), vertices, triangles, zDepth, colliderWidth, false, !(map.MapRenderParameter.Orientation == X_UniTMX.Orientation.Staggered));
// Connect last point with first point (create the face between them)
triangles.Add(vertices.Count - 1);
triangles.Add(1);
triangles.Add(0);
triangles.Add(0);
triangles.Add(vertices.Count - 2);
triangles.Add(vertices.Count - 1);
FillFaces(points, triangles);
colliderMesh.vertices = vertices.ToArray();
colliderMesh.uv = new Vector2[colliderMesh.vertices.Length];
//colliderMesh.uv1 = colliderMesh.uv;
colliderMesh.uv2 = colliderMesh.uv;
colliderMesh.triangles = triangles.ToArray();
colliderMesh.RecalculateNormals();
mc.sharedMesh = colliderMesh;
if (physicsMaterial != null)
mc.sharedMaterial = physicsMaterial;
}
/*private GameObject GenerateSingleMesh(List<Vector3> vertices, Tile t)
{
GameObject obj = new GameObject();
MeshFilter mfilter = obj.AddComponent<MeshFilter>();
MeshRenderer mrender = obj.AddComponent<MeshRenderer>();
Vector3 TopLeft = new Vector3(Mathf.Infinity, Mathf.NegativeInfinity, Mathf.Infinity);
Vector3 TopRight = new Vector3(Mathf.NegativeInfinity, Mathf.NegativeInfinity, Mathf.Infinity);
Vector3 BottomLeft = new Vector3(Mathf.Infinity, Mathf.Infinity, Mathf.Infinity);
Vector3 BottomRight = new Vector3(Mathf.NegativeInfinity, Mathf.Infinity, Mathf.Infinity);
foreach (Vector3 vertex in vertices)
{
if (vertex.x < TopLeft.x && -vertex.y > TopLeft.y)
TopLeft = vertex;
if (vertex.x > TopRight.x && -vertex.y > TopRight.y)
TopRight = vertex;
if (vertex.x < BottomLeft.x && -vertex.y < BottomLeft.y)
BottomLeft = vertex;
if (vertex.x > BottomRight.x && -vertex.y < BottomRight.y)
BottomRight = vertex;
}
Debug.Log("TopLeft: " + TopLeft + "\nTopRight: " + TopRight + "\nBottomLeft: " + BottomLeft + "\nBottomRight: " + BottomRight);
Mesh mesh = new Mesh();
mesh.vertices = vertices.ToArray();
float uTileWidth = (float)t.TileSet.TileWidth / (float)t.TileSet.Texture.width;
float vTileHeight = (float)t.TileSet.TileHeight / (float)t.TileSet.Texture.height;
float u = t.Source.x / (float)t.TileSet.Texture.width;
float v = 1.0f - t.Source.y / (float)t.TileSet.Texture.height;
mesh.uv = new Vector2[] {
new Vector2(u + uTileWidth, v),
new Vector2(u + uTileWidth, v - vTileHeight),
new Vector2(u, v),
new Vector2(u, v - vTileHeight)
};
mesh.triangles = new int[] {
0, 1, 2,
2, 1, 3,
};
mesh.RecalculateNormals();
mfilter.mesh = mesh;
Material mat = new Material(Shader.Find("Unlit/Transparent"));
mat.mainTexture = t.TileSet.Texture;
mrender.material = mat;
return obj;
}
*/
// Renders the tile vertices.
// Basically, it reads the tiles and creates its 4 vertexes (forming a rectangle or square according to settings)
private void GenerateLayerMesh(Map map, List<Material> materials)
{
LayerGameObject = new GameObject(Name);//(GameObject)GameObject.Instantiate(Resources.Load("Tilemap"));//
LayerGameObject.transform.position = new Vector3(0f,0f,0f);
LayerMesh = new Mesh();
LayerMeshFilter = (MeshFilter)LayerGameObject.AddComponent("MeshFilter");
LayerMeshRenderer = (MeshRenderer)LayerGameObject.AddComponent("MeshRenderer");
List<Vector3> vertices = new List<Vector3>();
List<Vector2> uv = new List<Vector2>();
List<int> triangles = new List<int>();
List<Texture2D> textures = new List<Texture2D>();
Tile t;
/*List<GameObject> meshes = new List<GameObject>();
Tile lastTile = null;
int lastGID = -1;
//int j = 0;
for (int i = 0; i < Width; i++)
{
for (int j = 0; j < Height; j++)
{
t = Tiles[i, j];
if (t != null)
{
Debug.Log(t.GID);
if (lastGID == t.GID)
{
vertices.AddRange(new Vector3[] {
new Vector3 (t.Source.width / t.TileSet.TileWidth * (i + 1), t.Source.height / t.TileSet.TileHeight * -j, 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * (i + 1), t.Source.height / t.TileSet.TileHeight * (-j - 1), 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * i, t.Source.height / t.TileSet.TileHeight * -j, 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * i, t.Source.height / t.TileSet.TileHeight * (-j - 1), 0)
});
lastTile = t;
}
else
{
lastGID = t.GID;
if(vertices.Count > 0)
meshes.Add(GenerateSingleMesh(vertices, lastTile));
vertices.Clear();
vertices.AddRange(new Vector3[] {
new Vector3 (t.Source.width / t.TileSet.TileWidth * (i + 1), t.Source.height / t.TileSet.TileHeight * -j, 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * (i + 1), t.Source.height / t.TileSet.TileHeight * (-j - 1), 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * i, t.Source.height / t.TileSet.TileHeight * -j, 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * i, t.Source.height / t.TileSet.TileHeight * (-j - 1), 0)
});
lastTile = t;
}
}
j++;
}
}
CombineInstance[] combine = new CombineInstance[meshes.Count];
List<Material> materials = new List<Material>();
for (int i = 0; i < meshes.Count; i++)
{
combine[i].mesh = meshes[i].GetComponent<MeshFilter>().mesh;
combine[i].transform = meshes[i].GetComponent<MeshFilter>().transform.localToWorldMatrix;
materials.Add(meshes[i].GetComponent<MeshRenderer>().material);
}
LayerMesh.CombineMeshes(combine);
LayerMeshFilter.mesh = LayerMesh;
LayerMeshRenderer.materials = materials.ToArray();
*/
for (int i = 0; i < Width; i++)
{
for (int j = 0; j < Height; j++)
{
t = Tiles[i, j];
if(t != null) {
// Add Tile's vertices to layer's mesh
vertices.AddRange(new Vector3[] {
new Vector3 (t.Source.width / t.TileSet.TileWidth * (i + 1), t.Source.height / t.TileSet.TileHeight * -j, 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * (i + 1), t.Source.height / t.TileSet.TileHeight * (-j - 1), 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * i, t.Source.height / t.TileSet.TileHeight * -j, 0),
new Vector3 (t.Source.width / t.TileSet.TileWidth * i, t.Source.height / t.TileSet.TileHeight * (-j - 1), 0)
});
// Generate this Tile's Triangles on Layer's mesh
triangles.AddRange(new int[] {
VertexCount, VertexCount + 1, VertexCount + 2,
VertexCount + 2, VertexCount + 1, VertexCount + 3,
});
VertexCount += 4;
// Add Tile's texture source to textures list, to create the materials
if (textures.Find(text => text.name == t.TileSet.Texture.name) == null)
textures.Add(t.TileSet.Texture);
// Save UV mapping of this Tile on it's texture
//Debug.Log(t.Source);
float uTileWidth = (float)t.TileSet.TileWidth / (float)t.TileSet.Texture.width;
float vTileHeight = (float)t.TileSet.TileHeight / (float)t.TileSet.Texture.height;
//float uBorderWidth = (float)t.TileSet.Spacing / t.TileSet.Texture.width;
//float vBorderHeight = (float)t.TileSet.Spacing / t.TileSet.Texture.height;
float u = t.Source.x / (float)t.TileSet.Texture.width;//(uTileWidth + uBorderWidth) * t.Source.x + uBorderWidth / 2;
float v = 1.0f - t.Source.y / (float)t.TileSet.Texture.height;//1.0f - (vTileHeight - vBorderHeight) * t.Source.y - vBorderHeight / 2;
uv.AddRange(new Vector2[] {
new Vector2(u + uTileWidth, v),
new Vector2(u + uTileWidth, v - vTileHeight),
new Vector2(u, v),
new Vector2(u, v - vTileHeight)
});
}
}
}
//t = null;
LayerMesh.vertices = vertices.ToArray();
LayerMesh.uv = uv.ToArray();
LayerMesh.triangles = triangles.ToArray();
LayerMesh.RecalculateNormals();
LayerMeshFilter.mesh = LayerMesh;
List<Material> layerMaterials = new List<Material>();
// Generate Materials
for (int i = 0; i < textures.Count; i++)
{
//Material layerMat = new Material(Shader.Find("Unlit/Transparent"));
//layerMat.mainTexture = textures[i];
//materials.Add(layerMat);
for (int j = 0; j < materials.Count; j++)
{
if (materials[j].mainTexture.name == textures[i].name)
layerMaterials.Add(materials[j]);
}
}
LayerMeshRenderer.sharedMaterials = layerMaterials.ToArray();
LayerGameObject.transform.parent = map.Parent.transform;
LayerGameObject.transform.position = new Vector3(0, 0, this.LayerDepth);
Debug.Log(LayerGameObject.name + LayerGameObject.transform.position);
LayerGameObject.isStatic = true;
}
/// <summary>
/// Creates a map object layer from .tmx
/// </summary>
/// <param name="node"></param>
public MapObjectLayer(XElement node, Map tiledMap, int layerDepth, List<Material> materials)
: base(node)
{
if (node.Attribute("color") != null)
{
// get the color string, removing the leading #
string color = node.Attribute("color").Value.Substring(1);
// get the RGB individually
string r = color.Substring(0, 2);
string g = color.Substring(2, 2);
string b = color.Substring(4, 2);
// convert to the color
Color = new Color(
(byte)int.Parse(r, NumberStyles.AllowHexSpecifier),
(byte)int.Parse(g, NumberStyles.AllowHexSpecifier),
(byte)int.Parse(b, NumberStyles.AllowHexSpecifier));
}
Objects = new List<MapObject>();
foreach (XElement objectNode in node.Descendants("object"))
{
MapObject mapObjectContent = new MapObject(objectNode);
//if (tiledMap.Orientation == Orientation.Orthogonal)
//{
// mapObjectContent.ScaleObject(tiledMap.TileWidth, tiledMap.TileHeight);
//}
//// In Isometric maps, we must consider tile width == height for objects so their size can be correctly calculated
//else if (tiledMap.Orientation == Orientation.Isometric)
//{
// mapObjectContent.ScaleObject(tiledMap.TileHeight, tiledMap.TileHeight);
//}
//// In Staggered maps, we must pre-alter object position, as it comes mixed between staggered and orthogonal properties
//else if (tiledMap.Orientation == Orientation.Staggered)
//{
// float x = mapObjectContent.Bounds.x / (float)tiledMap.TileWidth;
// float y = mapObjectContent.Bounds.y / (float)tiledMap.TileHeight * 2.0f;
// float width = mapObjectContent.Bounds.width / (float)tiledMap.TileWidth;
// float height = mapObjectContent.Bounds.height / (float)tiledMap.TileWidth;
// if (Mathf.FloorToInt(Mathf.Abs(y)) % 2 > 0)
// x -= 0.5f;
// mapObjectContent.Bounds = new Rect(x, y, width, height);
// if (mapObjectContent.Points != null)
// {
// for (int i = 0; i < mapObjectContent.Points.Count; i++)
// {
// mapObjectContent.Points[i] = new Vector2(mapObjectContent.Points[i].x / (float)tiledMap.TileWidth, mapObjectContent.Points[i].y / (float)tiledMap.TileHeight * 2.0f);
// }
// }
//}
mapObjectContent.ScaleObject(tiledMap.TileWidth, tiledMap.TileHeight, tiledMap.Orientation);
mapObjectContent.Name = this.Name + "_" + mapObjectContent.Name;
// Object names need to be unique for our lookup system, but Tiled
// doesn't require unique names.
string objectName = mapObjectContent.Name;
int duplicateCount = 2;
// if a object already has the same name...
if (Objects.Find(o => o.Name.Equals(objectName)) != null)
{
// figure out a object name that does work
do
{
objectName = string.Format("{0}{1}", mapObjectContent.Name, duplicateCount);
duplicateCount++;
} while (Objects.Find(o => o.Name.Equals(objectName)) != null);
// log a warning for the user to see
Debug.Log("Renaming object \"" + mapObjectContent.Name + "\" to \"" + objectName + "\" in layer \"" + Name + "\" to make a unique name.");
// save that name
mapObjectContent.Name = objectName;
}
mapObjectContent.CreateTileObject(tiledMap, Name, layerDepth, materials);
AddObject(mapObjectContent);
}
}
public static void AddPolylineCollider3D(Map map, GameObject gameObject, MapObject obj, bool isTrigger = false, PhysicMaterial physicsMaterial = null, float zDepth = 0, float colliderWidth = 1.0f, bool innerCollision = false, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
Mesh colliderMesh = new Mesh();
colliderMesh.name = "Collider_" + obj.Name;
MeshCollider mc = gameObject.AddComponent<MeshCollider>();
mc.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
List<Vector3> vertices = new List<Vector3>();
List<int> triangles = new List<int>();
GenerateVerticesAndTris(map, obj.Points, vertices, triangles, zDepth, colliderWidth, innerCollision);
colliderMesh.vertices = vertices.ToArray();
colliderMesh.uv = new Vector2[colliderMesh.vertices.Length];
//colliderMesh.uv1 = colliderMesh.uv;
colliderMesh.uv2 = colliderMesh.uv;
colliderMesh.triangles = triangles.ToArray();
colliderMesh.RecalculateNormals();
mc.sharedMesh = colliderMesh;
if (physicsMaterial != null)
mc.sharedMaterial = physicsMaterial;
if (createRigidbody)
{
Rigidbody r = gameObject.AddComponent<Rigidbody>();
r.isKinematic = rigidbodyIsKinematic;
}
if (obj.Rotation != 0)
gameObject.transform.localRotation = Quaternion.AngleAxis(obj.Rotation, Vector3.forward);
if (obj.GetPropertyAsBoolean(Map.Property_CreateMesh))
{
if (gameObject.GetComponent<MeshFilter>() == null)
gameObject.AddComponent<MeshFilter>();
if (gameObject.GetComponent<MeshRenderer>() == null)
gameObject.AddComponent<MeshRenderer>();
MeshFilter _meshFilter = gameObject.GetComponent<MeshFilter>();
if (mc != null)
{
mc.sharedMesh.RecalculateBounds();
mc.sharedMesh.RecalculateNormals();
MathfExtensions.CalculateMeshTangents(mc.sharedMesh);
_meshFilter.sharedMesh = mc.sharedMesh;
}
}
ApplyCustomProperties(gameObject, obj);
// Link this collider to the MapObject
obj.LinkedGameObject = gameObject;
}
public static void AddPolylineCollider2D(Map map, GameObject gameObject, MapObject obj, bool isTrigger = false, PhysicsMaterial2D physicsMaterial = null, float zDepth = 0, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
EdgeCollider2D edgeCollider = gameObject.AddComponent<EdgeCollider2D>();
edgeCollider.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
Vector2[] points = obj.Points.ToArray();
for (int i = 0; i < points.Length; i++)
{
points[i] = map.TiledPositionToWorldPoint(points[i].x, points[i].y);
if (map.MapRenderParameter.Orientation == X_UniTMX.Orientation.Isometric)
points[i].x -= map.MapRenderParameter.Width / 2.0f;
}
edgeCollider.points = points;
if (physicsMaterial != null)
edgeCollider.sharedMaterial = physicsMaterial;
if (createRigidbody)
{
Rigidbody2D r = gameObject.AddComponent<Rigidbody2D>();
r.isKinematic = rigidbodyIsKinematic;
}
if (obj.Rotation != 0)
gameObject.transform.localRotation = Quaternion.AngleAxis(obj.Rotation, Vector3.forward);
ApplyCustomProperties(gameObject, obj);
// Link this collider to the MapObject
obj.LinkedGameObject = gameObject;
}
public static void AddEllipseCollider3D(Map map, GameObject gameObject, MapObject obj, bool isTrigger = false, PhysicMaterial physicsMaterial = null, float zDepth = 0, float colliderWidth = 1.0f, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
GameObject gameObjectMesh = null;
if (map.MapRenderParameter.Orientation != X_UniTMX.Orientation.Isometric && obj.Bounds.width == obj.Bounds.height)
{
CapsuleCollider cc = null;
if (obj.GetPropertyAsBoolean(Map.Property_CreateMesh))
{
gameObjectMesh = GameObject.CreatePrimitive(PrimitiveType.Capsule);
gameObjectMesh.name = obj.Name;
gameObjectMesh.transform.parent = gameObject.transform;
gameObjectMesh.transform.localPosition = new Vector3(obj.Bounds.height / 2.0f, -obj.Bounds.width / 2.0f);
cc = gameObjectMesh.GetComponent<CapsuleCollider>();
cc.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
gameObjectMesh.transform.localScale = new Vector3(obj.Bounds.width, colliderWidth, obj.Bounds.height);
gameObjectMesh.transform.localRotation = Quaternion.AngleAxis(90, Vector3.right);
}
else
{
cc = gameObject.AddComponent<CapsuleCollider>();
cc.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
cc.center = new Vector3(obj.Bounds.height / 2.0f, -obj.Bounds.width / 2.0f);
cc.direction = 0;
cc.radius = obj.Bounds.height / 2.0f;
cc.height = obj.Bounds.width;
}
if (physicsMaterial != null)
cc.sharedMaterial = physicsMaterial;
}
else
{
ApproximateEllipse3D(map, gameObject, obj, isTrigger, physicsMaterial, zDepth, colliderWidth, createRigidbody, rigidbodyIsKinematic);
}
if (createRigidbody)
{
Rigidbody r = gameObject.AddComponent<Rigidbody>();
r.isKinematic = rigidbodyIsKinematic;
}
if (obj.Rotation != 0)
gameObject.transform.localRotation = Quaternion.AngleAxis(obj.Rotation, Vector3.forward);
if (gameObjectMesh)
ApplyCustomProperties(gameObjectMesh, obj);
else
ApplyCustomProperties(gameObject, obj);
// Link this collider to the MapObject
obj.LinkedGameObject = gameObject;
}
// Callback for when the map has been loaded.
void OnMapLoaded(Map map)
{
// Set the loaded map
tiledMap = map;
/*
* Generate the map with the following options:
*
* TileManager's GameObject is the parent in the hierarchy
* The default material is the default sprite's material
*/
tiledMap.Generate(this.gameObject, defaultMaterial);
// Generate any tile collisions
tiledMap.GenerateTileCollisions();
MapObjectLayer resourcesObjectLayer; // The object layer for resources
// Check if the map has a resources object layer
if ((resourcesObjectLayer = tiledMap.GetObjectLayer("Resources")) != null)
{
// Get the list of MapObjects on the resources layer
List<MapObject> resourceObjects = resourcesObjectLayer.Objects;
// Check if the game is new
if (GameMaster.Instance.IsNew)
{
// The game is new so add all the resources to the list
foreach (var resource in resourceObjects)
{
resourcePositions.Add(ToMap(resource.Bounds));
} // end foreach
// Finally, save the resource positions list
GameMaster.Instance.SaveResources();
} // end if
else
{
// The game isn't new so load all the saved resources
resourcePositions = GameMaster.Instance.LoadResources();
} // end else
// Loop through the objects to check if they're on the resources list
foreach (var resource in resourceObjects)
{
// Make sure the resource is in the list
if (resourcePositions.Contains(ToMap(resource.Bounds)))
{
// Generate the prefab for the resource
tiledMap.GeneratePrefab(resource, Vector2.zero, null, false, true);
} // end if
} // end foreach
} // end if
// Check if the map has a markets object layer
if (tiledMap.GetObjectLayer("Markets") != null)
{
// Get the list of MapObjects on the markets layer
List<MapObject> marketObjects = tiledMap.GetObjectLayer("Markets").Objects;
// Add all the markets to the list
foreach (var market in marketObjects)
{
marketPositions.Add(ToMap(market.Bounds));
} // end foreach
// Generate the colliders from this layer
tiledMap.GenerateCollidersFromLayer("Markets");
// Generate the prefabs from this layer
tiledMap.GeneratePrefabsFromLayer("Markets", Vector2.zero, false, true);
} // end if
// Finally, Update the TileUtils static class
SetDimensions(tiledMap.MapRenderParameter.TileHeight, tiledMap.MapRenderParameter.Width,
tiledMap.MapRenderParameter.Height);
}
void OnGenerateFinished(Map map)
{
tiledMap = map;
Resources.UnloadUnusedAssets();
GenerateColliders();
GeneratePrefabs();
if (OnTiledMapInitialized != null)
OnTiledMapInitialized();
}
// Renders the tile vertices.
// Basically, it reads the tiles and creates its 4 vertexes (forming a rectangle or square according to settings)
private void GenerateLayer(Map map, List<Material> materials)
{
LayerGameObject = new GameObject(Name);
Tile t;
// We must create tiles in reverse order so Z order is correct according to the majority of tilesets
for (int x = Width - 1; x > -1; x--)
{
for (int y = Height - 1; y > -1; y--)
{
t = Tiles[x, y];
if(t != null) {
Vector3 pos = Vector3.zero;
// Set Tile's position according to map orientation
// Can't use Map.TiledPositionToWorldPoint as sprites' anchors doesn't follow tile anchor point
if (map.Orientation == Orientation.Orthogonal)
{
pos = new Vector3(
x * (map.TileWidth / (float)t.TileSet.TileWidth),
(-y - 1) * (map.TileHeight / (float)t.TileSet.TileHeight) * ((float)t.TileSet.TileHeight / (float)t.TileSet.TileWidth),
0);
}
else if (map.Orientation == Orientation.Isometric)
{
pos = new Vector3(
(map.TileWidth / 2.0f * (map.Width - y + x) - t.TileSet.TileWidth / 2.0f) / (float)map.TileWidth,
-map.Height + map.TileHeight * (map.Height - ((x + y) / (map.TileWidth / (float)map.TileHeight)) / 2.0f) / (float)map.TileHeight - (map.TileHeight / (float)map.TileWidth),
0);
}
else if (map.Orientation == Orientation.Staggered)
{
// In Staggered maps, odd rows and even rows are handled differently
if (y % 2 < 1)
{
// Even row
pos.x = x * (map.TileWidth / (float)t.TileSet.TileWidth);
pos.y = (-y - 2) * (map.TileHeight / 2.0f / (float)t.TileSet.TileHeight) * ((float)t.TileSet.TileHeight / (float)t.TileSet.TileWidth);
}
else
{
// Odd row
pos.x = x * (map.TileWidth / (float)t.TileSet.TileWidth) + (map.TileWidth / (float)t.TileSet.TileWidth) / 2.0f;
pos.y = (-y - 2) * (map.TileHeight / 2.0f / (float)t.TileSet.TileHeight) * ((float)t.TileSet.TileHeight / (float)t.TileSet.TileWidth);
}
}
// Create Tile's GameObject
t.CreateTileObject(Name + "[" + x + ", " + y + "]",
LayerGameObject.transform,
Name,
pos,
materials,
Opacity);
}
}
}
LayerGameObject.transform.parent = map.MapObject.transform;
LayerGameObject.transform.localPosition = new Vector3(0, 0, this.LayerDepth);
LayerGameObject.isStatic = true;
LayerGameObject.SetActive(Visible);
}
private static void ApproximateEllipse2D(Map map, GameObject newCollider, MapObject obj, bool isTrigger = false, PhysicsMaterial2D physicsMaterial = null, float zDepth = 0, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
// since there's no "EllipseCollider2D", we must create one by approximating a polygon collider
newCollider.transform.localPosition = map.TiledPositionToWorldPoint(obj.Bounds.x, obj.Bounds.y, zDepth);
PolygonCollider2D polygonCollider = newCollider.AddComponent<PolygonCollider2D>();
polygonCollider.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
int segments = XUniTMXConfiguration.Instance.EllipsoideColliderApproximationFactor;
// Segments per quadrant
int incFactor = Mathf.FloorToInt(segments / 4.0f);
float minIncrement = 2 * Mathf.PI / (incFactor * segments / 2.0f);
int currentInc = 0;
// grow represents if we are going right on x-axis (true) or left (false)
bool grow = true;
Vector2[] points = new Vector2[segments];
// Ellipsoide center
Vector2 center = new Vector2(obj.Bounds.width / 2.0f, obj.Bounds.height / 2.0f);
float r = 0;
float angle = 0;
for (int i = 0; i < segments; i++)
{
// Calculate radius at each point
angle += currentInc * minIncrement;
r = obj.Bounds.width * obj.Bounds.height / Mathf.Sqrt(Mathf.Pow(obj.Bounds.height * Mathf.Cos(angle), 2) + Mathf.Pow(obj.Bounds.width * Mathf.Sin(angle), 2)) / 2.0f;
// Define the point localization using the calculated radius, angle and center
points[i] = r * new Vector2(Mathf.Cos(angle), Mathf.Sin(angle)) + center;
points[i] = map.TiledPositionToWorldPoint(points[i].x, points[i].y);
// Offset points where needed
if (map.MapRenderParameter.Orientation == X_UniTMX.Orientation.Isometric)
points[i].x -= map.MapRenderParameter.Width / 2.0f;
if (map.MapRenderParameter.Orientation == X_UniTMX.Orientation.Staggered)
points[i].y *= map.MapRenderParameter.TileWidth / (float)map.MapRenderParameter.TileHeight * 2.0f;
if (map.MapRenderParameter.Orientation == X_UniTMX.Orientation.Hexagonal)
{
points[i].y *= map.MapRenderParameter.TileWidth / (float)map.MapRenderParameter.TileHeight * 2.0f;
}
// if we are "growing", increment the angle, else, start decrementing it to close the polygon
if (grow)
currentInc++;
else
currentInc--;
if (currentInc > incFactor - 1 || currentInc < 1)
grow = !grow;
// POG :P -> Orthogonal and Staggered Isometric generated points are slightly offset on Y
if (map.MapRenderParameter.Orientation != X_UniTMX.Orientation.Isometric)
{
if (i < 1 || i == segments / 2 - 1)
points[i].y -= obj.Bounds.height / 20.0f;
if (i >= segments - 1 || i == segments / 2)
points[i].y += obj.Bounds.height / 20.0f;
}
}
polygonCollider.SetPath(0, points);
if (physicsMaterial != null)
polygonCollider.sharedMaterial = physicsMaterial;
}
public static void AddCollider3D(Map map, GameObject gameObject, MapObject obj, bool isTrigger = false, PhysicMaterial physicsMaterial = null, float zDepth = 0, float colliderWidth = 1, bool innerCollision = false, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
switch (obj.ObjectType)
{
case ObjectType.Box:
AddBoxCollider3D(map, gameObject, obj, isTrigger, physicsMaterial, zDepth, colliderWidth, createRigidbody, rigidbodyIsKinematic);
break;
case ObjectType.Ellipse:
AddEllipseCollider3D(map, gameObject, obj, isTrigger, physicsMaterial, zDepth, colliderWidth, createRigidbody, rigidbodyIsKinematic);
break;
case ObjectType.Polygon:
AddPolygonCollider3D(map, gameObject, obj, isTrigger, physicsMaterial, zDepth, colliderWidth, innerCollision, createRigidbody, rigidbodyIsKinematic);
break;
case ObjectType.Polyline:
AddPolylineCollider3D(map, gameObject, obj, isTrigger, physicsMaterial, zDepth, colliderWidth, innerCollision, createRigidbody, rigidbodyIsKinematic);
break;
}
}
/// <summary>
/// Adds a 3D BoxCollider to a GameObject
/// </summary>
/// <param name="gameObject">GameObject to add the collider</param>
/// <param name="obj">MapObject which properties will be used to generate this collider</param>
/// <param name="isTrigger">True for Trigger Collider, false otherwise</param>
/// <param name="physicsMaterial">PhysicMaterial to be set to the collider</param>
/// <param name="zDepth">Z Depth of the collider</param>
/// <param name="colliderWidth">Width of the collider, in Units</param>
/// <param name="createRigidbody">True to attach a Rigidbody to the created collider</param>
/// <param name="rigidbodyIsKinematic">Sets if the attached rigidbody is kinematic or not</param>
public static void AddBoxCollider3D(Map map, GameObject gameObject, MapObject obj, bool isTrigger = false, PhysicMaterial physicsMaterial = null, float zDepth = 0, float colliderWidth = 1.0f, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
GameObject gameObjectMesh = null;
// Orthogonal and Staggered maps can use BoxCollider, Isometric maps must use polygon collider
if (map.MapRenderParameter.Orientation != X_UniTMX.Orientation.Isometric)
{
BoxCollider boxCollider = null;
if (obj.GetPropertyAsBoolean(Map.Property_CreateMesh))
{
gameObjectMesh = GameObject.CreatePrimitive(PrimitiveType.Cube);
gameObjectMesh.name = obj.Name;
gameObjectMesh.transform.parent = gameObject.transform;
gameObjectMesh.transform.localPosition = new Vector3(0.5f, -0.5f);
boxCollider = gameObjectMesh.GetComponent<BoxCollider>();
}
else
{
boxCollider = gameObject.AddComponent<BoxCollider>();
boxCollider.center = new Vector3(0.5f, -0.5f);
}
boxCollider.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
if (physicsMaterial != null)
boxCollider.sharedMaterial = physicsMaterial;
gameObject.transform.localScale = new Vector3(obj.Bounds.width, obj.Bounds.height, colliderWidth);
}
else
{
List<Vector2> points = new List<Vector2>();
points.Add(new Vector2(obj.Bounds.xMin - obj.Bounds.x, obj.Bounds.yMax - obj.Bounds.y));
points.Add(new Vector2(obj.Bounds.xMin - obj.Bounds.x, obj.Bounds.yMin - obj.Bounds.y));
points.Add(new Vector2(obj.Bounds.xMax - obj.Bounds.x, obj.Bounds.yMin - obj.Bounds.y));
points.Add(new Vector2(obj.Bounds.xMax - obj.Bounds.x, obj.Bounds.yMax - obj.Bounds.y));
X_UniTMX.MapObject isoBox = new MapObject(obj.Name, obj.Type, obj.Bounds, obj.Properties, obj.GID, points, obj.Rotation, obj.ParentObjectLayer);
AddPolygonCollider3D(map, gameObject, isoBox, isTrigger, physicsMaterial, zDepth, colliderWidth);
//gameObject = GeneratePolygonCollider3D(isoBox, isTrigger, zDepth, colliderWidth);
}
if (createRigidbody)
{
Rigidbody r = gameObject.AddComponent<Rigidbody>();
r.isKinematic = rigidbodyIsKinematic;
}
if (obj.Rotation != 0)
gameObject.transform.localRotation = Quaternion.AngleAxis(obj.Rotation, Vector3.forward);
if (gameObjectMesh != null)
ApplyCustomProperties(gameObjectMesh, obj);
else
ApplyCustomProperties(gameObject, obj);
// Link this collider to the MapObject
obj.LinkedGameObject = gameObject;
}
/// <summary>
/// Creates this Tile Object (an object that has GID) if applicable
/// </summary>
/// <param name="tiledMap">The base Tile Map</param>
public void CreateTileObject(Map tiledMap, string sortingLayerName, int layerDepth, List<Material> materials)
{
if(GID > 0) {
Tile objTile = tiledMap.Tiles[GID].Clone();
objTile.CreateTileObject(Name,
tiledMap.MapObject.transform,
sortingLayerName,
new Vector3(Bounds.x, -Bounds.y, layerDepth),
materials);
objTile.TileObject.SetActive(Visible);
}
}
private void Initialize(Map map, uint[] data, bool makeUnique, List<Material> materials)
{
Tiles = new TileGrid(Width, Height);
// data is left-to-right, top-to-bottom
for (int x = 0; x < Width; x++)
{
for (int y = 0; y < Height; y++)
{
uint index = data[y * Width + x];
// compute the SpriteEffects to apply to this tile
SpriteEffects spriteEffects = SpriteEffects.None;
if ((index & FlippedHorizontallyFlag) != 0)
spriteEffects |= SpriteEffects.FlipHorizontally;
if ((index & FlippedVerticallyFlag) != 0)
spriteEffects |= SpriteEffects.FlipVertically;
// strip out the flip flags to get the real ID
int id = (int)(index & ~(FlippedVerticallyFlag | FlippedHorizontallyFlag));
//Debug.Log("Tile ID: " + id + " (index : " + index + ")");
// get the tile
Tile t = null;
map.Tiles.TryGetValue(id, out t);
// if the tile is non-null...
if (t != null)
{
// if we want unique instances, clone it
if (makeUnique)
{
t = t.Clone();
t.SpriteEffects = spriteEffects;
}
// otherwise we may need to clone if the tile doesn't have the correct effects
// in this world a flipped tile is different than a non-flipped one; just because
// they have the same source rect doesn't mean they're equal.
else if (t.SpriteEffects != spriteEffects)
{
t = t.Clone();
t.SpriteEffects = spriteEffects;
}
}
// put that tile in our grid
Tiles[x, y] = t;
}
}
GenerateLayer(map, materials);
}
private static void CreateFrontBackPoints(Map map, Vector3 refPoint, out Vector3 refFront, out Vector3 refBack, float zDepth, float colliderWidth, bool calculateWorldPos = true, bool ignoreOrientation = false)
{
if (calculateWorldPos)
{
refFront = map.TiledPositionToWorldPoint(refPoint.x, refPoint.y, zDepth - colliderWidth / 2.0f);
refBack = map.TiledPositionToWorldPoint(refPoint.x, refPoint.y, zDepth + colliderWidth / 2.0f);
}
else
{
refFront = new Vector3(refPoint.x, refPoint.y, zDepth - colliderWidth / 2.0f);
refBack = new Vector3(refPoint.x, refPoint.y, zDepth + colliderWidth / 2.0f);
}
if (!ignoreOrientation && map.MapRenderParameter.Orientation == X_UniTMX.Orientation.Isometric)
{
refFront.x -= map.MapRenderParameter.Width / 2.0f;
refBack.x -= map.MapRenderParameter.Width / 2.0f;
}
}
private void Initialize(Map map, uint[] data, List<Material> materials)
{
Tiles = new TileGrid(Width, Height);
BaseMap = map;
BaseMaterials = materials;
LayerTileSets = new List<TileSet>();
// data is left-to-right, top-to-bottom
for (int x = 0; x < Width; x++)
{
for (int y = 0; y < Height; y++)
{
uint id = data[y * Width + x];
// compute the SpriteEffects to apply to this tile
SpriteEffects spriteEffects = new SpriteEffects();
// MARIO: new method to verify flipped tiles
spriteEffects.flippedHorizontally = (id & FlippedHorizontallyFlag) == FlippedHorizontallyFlag;
spriteEffects.flippedVertically = (id & FlippedVerticallyFlag) == FlippedVerticallyFlag;
spriteEffects.flippedAntiDiagonally = (id & FlippedAntiDiagonallyFlag) == FlippedAntiDiagonallyFlag;
// MARIO: new strip out the flip flags to get the real ID
// Fixed for AntiDiagonallyFlgs
id &= ~(FlippedHorizontallyFlag |
FlippedVerticallyFlag |
FlippedAntiDiagonallyFlag);
// get the tile
Tile t = null;
BaseMap.Tiles.TryGetValue((int)id, out t);
// if the tile is non-null...
if (t != null)
{
// if we want unique instances, clone it
if (MakeUniqueTiles)
{
t = t.Clone();
t.SpriteEffects = spriteEffects;
}
// otherwise we may need to clone if the tile doesn't have the correct effects
// in this world a flipped tile is different than a non-flipped one; just because
// they have the same source rect doesn't mean they're equal.
else if (t.SpriteEffects != spriteEffects)
{
t = t.Clone();
t.SpriteEffects = spriteEffects;
}
// Add this Tile's TileSet to LayerTileSets list, if it is not there yet
if (!LayerTileSets.Contains(t.TileSet))
LayerTileSets.Add(t.TileSet);
}
// put that tile in our grid
Tiles[x, y] = t;
}
}
GenerateLayer();
}
private static void GenerateVerticesAndTris(Map map, List<Vector2> points, List<Vector3> generatedVertices, List<int> generatedTriangles, float zDepth = 0, float colliderWidth = 1.0f, bool innerCollision = false, bool calculateWorldPos = true, bool ignoreOrientation = false)
{
Vector3 firstPoint = (Vector3)points[0];
Vector3
firstFront = Vector3.zero,
firstBack = Vector3.zero,
secondPoint = Vector3.zero,
secondFront = Vector3.zero,
secondBack = Vector3.zero;
CreateFrontBackPoints(map, firstPoint, out firstFront, out firstBack, zDepth, colliderWidth, calculateWorldPos, ignoreOrientation);
if (innerCollision)
{
generatedVertices.Add(firstBack); // 3
generatedVertices.Add(firstFront); // 2
}
else
{
generatedVertices.Add(firstFront); // 3
generatedVertices.Add(firstBack); // 2
}
// Calculate line planes
for (int i = 1; i < points.Count; i++)
{
secondPoint = (Vector3)points[i];
CreateFrontBackPoints(map, secondPoint, out secondFront, out secondBack, zDepth, colliderWidth, calculateWorldPos, ignoreOrientation);
if (innerCollision)
{
generatedVertices.Add(secondBack); // 1
generatedVertices.Add(secondFront); // 0
}
else
{
generatedVertices.Add(secondFront); // 1
generatedVertices.Add(secondBack); // 0
}
generatedTriangles.Add((i - 1) * 2 + 3);
generatedTriangles.Add((i - 1) * 2 + 2);
generatedTriangles.Add((i - 1) * 2 + 0);
generatedTriangles.Add((i - 1) * 2 + 0);
generatedTriangles.Add((i - 1) * 2 + 1);
generatedTriangles.Add((i - 1) * 2 + 3);
firstPoint = secondPoint;
firstFront = secondFront;
firstBack = secondBack;
}
}
/// <summary>
/// Creates this Tile Object (an object that has OriginalID) if applicable
/// </summary>
/// <param name="tiledMap">The base Tile Map</param>
/// <param name="layerDepth">Layer's zDepth</param>
/// <param name="sortingLayerName">Layer's SortingLayerName</param>
/// <param name="parent">Transform to parent this object to</param>
/// <param name="materials">List of TileSet Materials</param>
public void CreateTileObject(Map tiledMap, string sortingLayerName, int layerDepth, List<Material> materials, Transform parent = null)
{
if(GID > 0) {
Tile objTile = null;
if(tiledMap.Orientation != Orientation.Orthogonal)
objTile = tiledMap.Tiles[GID].Clone(new Vector2(0.5f, 0.5f));
else
objTile = tiledMap.Tiles[GID].Clone();
//string sortingLayer = GetPropertyAsString("SortingLayer");
//int sortingOrder = GetPropertyAsInt("SortingOrder");
objTile.CreateTileObject(Name,
parent != null ? parent : ParentObjectLayer.LayerGameObject.transform,
sortingLayerName,
tiledMap.DefaultSortingOrder + tiledMap.GetSortingOrder(Bounds.x, Bounds.y),
tiledMap.TiledPositionToWorldPoint(Bounds.x, Bounds.y, layerDepth),
materials);
this.Bounds = new Rect(Bounds.x, Bounds.y - 1, 1, 1);
/*Debug.Log(Bounds);
tiledMap.AddBoxCollider(objTile.TileGameObject, this);*/
objTile.TileGameObject.SetActive(Visible);
}
}
public static void AddEllipseCollider2D(Map map, GameObject gameObject, MapObject obj, bool isTrigger = false, PhysicsMaterial2D physicsMaterial = null, float zDepth = 0, bool createRigidbody = false, bool rigidbodyIsKinematic = true)
{
if (map.MapRenderParameter.Orientation != X_UniTMX.Orientation.Isometric && obj.Bounds.width == obj.Bounds.height)
{
CircleCollider2D cc = gameObject.AddComponent<CircleCollider2D>();
cc.isTrigger = isTrigger || obj.Type.Equals(Map.Object_Type_Trigger);
gameObject.transform.localPosition = map.TiledPositionToWorldPoint(obj.Bounds.x, obj.Bounds.y, zDepth);
#if UNITY_5
cc.offset = new Vector2(obj.Bounds.width / 2.0f, -obj.Bounds.height / 2.0f);
#else
cc.center = new Vector2(obj.Bounds.width / 2.0f, -obj.Bounds.height / 2.0f);
#endif
cc.radius = obj.Bounds.width / 2.0f;
if (physicsMaterial != null)
cc.sharedMaterial = physicsMaterial;
}
else
{
ApproximateEllipse2D(map, gameObject, obj, isTrigger, physicsMaterial, zDepth, createRigidbody, rigidbodyIsKinematic);
}
if (createRigidbody)
{
Rigidbody2D r = gameObject.AddComponent<Rigidbody2D>();
r.isKinematic = rigidbodyIsKinematic;
}
if (obj.Rotation != 0)
gameObject.transform.localRotation = Quaternion.AngleAxis(obj.Rotation, Vector3.forward);
ApplyCustomProperties(gameObject, obj);
// Link this collider to the MapObject
obj.LinkedGameObject = gameObject;
}