Пример #1
0
        public AABBFaceMesh GetWall(AABBFace whichWall)
        {
            if (!fWalls.ContainsKey(whichWall))
                return null;

            AABBFaceMesh aWall = fWalls[whichWall];

            return aWall;
        }
Пример #2
0
        public AABB2DIntersectionResult(Vector2 position, Vector2 movement, AABBFace face, AABB2D other)
        {
            Position = position;
            Movement = movement;
            Face     = face;
            Other    = other;

            Normal = Face switch
            {
                AABBFace.Left => - Vector2.UnitX,
                AABBFace.Right => Vector2.UnitX,
                AABBFace.Bottom => - Vector2.UnitY,
                AABBFace.Top => Vector2.UnitY,
                _ => Vector2.One.Normalized()
            };
        }
    }
Пример #3
0
        public void SetWallTexture(AABBFace whichWall, GLTexture texture)
        {
            AABBFaceMesh wall = GetWall(whichWall);
            if (null == wall)
                return;

            wall.Texture = texture;
        }
Пример #4
0
        /// <summary>
        /// Create a mesh object that represents the wall.
        /// 
        /// </summary>
        /// <param name="roomSize">The size of the room</param>
        /// <param name="whichWall">Which wall of the room are we creating</param>
        /// <param name="res">The Resolution of the mesh, meaning, the number of rows and columns of quads to create.</param>
        /// <returns>The mesh3D object representing the wall</returns>
        public static AABBFaceMesh CreateFace(GraphicsInterface gi, Vector3D roomSize, AABBFace whichWall, Resolution res, GLTexture texture)
        {
            AABBFaceMesh wall = new AABBFaceMesh(gi, roomSize, whichWall);

            Vector3f[] vertices = new Vector3f[(res.Columns)*(res.Rows)*4];
            TextureCoordinates[] texCoords = new TextureCoordinates[(res.Columns) * (res.Rows)*4];
            int[] indices = new int[res.Columns * res.Rows * 4];

            
            // The general routine is to create a mesh in the x-y plane, using
            // the appropriate width and height.
            // Then take this mesh and rotate and translate it into the right position
            // after it is created.

            // First calculate the min/max values in the x-y plane
            float minX=0.0f;
            float maxX=0.0f;
            
            float minY=0.0f;
            float maxY=0.0f;

            switch (whichWall)
            {
                case AABBFace.Front:
                case AABBFace.Back:
                    minX = roomSize.X / -2;
                    maxX = roomSize.X / 2;

                    minY = roomSize.Y / -2;
                    maxY = roomSize.Y / 2;
                    break;

                case AABBFace.Left:
                case AABBFace.Right:
                    minX = roomSize.Z / -2;
                    maxX = roomSize.Z / 2;

                    minY = roomSize.Y / -2;
                    maxY = roomSize.Y / 2;
                    break;

                case AABBFace.Ceiling:
                case AABBFace.Floor:
                    minX = roomSize.X / -2;
                    maxX = roomSize.X / 2;

                    minY = roomSize.Z / -2;
                    maxY = roomSize.Z / 2;
                    break;
            }

            // Now that we have the min/max sizes in the x-y plane
            // Construct the quad vertices based on the resolution.  
            // Start from the bottom (negative y) and go up
            // Move from left (negative x) to right
            float xDiff = maxX - minX;
            float yDiff = maxY - minY;
            float xIncr = xDiff / res.Columns;
            float yIncr = yDiff / res.Rows;
            int vIndex = 0;

            for (int row = 0; row < res.Rows; row++)
            {
                for (int column = 0; column < res.Columns; column++)
                {
                    Vector3f vertex1 = new Vector3f(minX + column * xIncr, minY + row * yIncr, 0);
                    Vector3f vertex2 = new Vector3f(minX + (column + 1) * xIncr, minY + row * yIncr, 0);
                    Vector3f vertex3 = new Vector3f(minX + (column + 1) * xIncr, minY + (row + 1) * yIncr, 0);
                    Vector3f vertex4 = new Vector3f(minX + column * xIncr, minY + (row + 1) * yIncr, 0);

                    // Set the vertices for the quad
                    vertices[vIndex + 0] = vertex1;
                    vertices[vIndex + 1] = vertex2;
                    vertices[vIndex + 2] = vertex3;
                    vertices[vIndex + 3] = vertex4;

                    // Set the indices for the quad
                    indices[vIndex + 0] = vIndex;
                    indices[vIndex + 1] = vIndex + 1;
                    indices[vIndex + 2] = vIndex + 2;
                    indices[vIndex + 3] = vIndex + 3;

                    // Set the texture coords for the quad
                    texCoords[vIndex + 0].Set(0.0f, 0.0f);
                    texCoords[vIndex + 1].Set(1.0f, 0.0f);
                    texCoords[vIndex + 2].Set(1.0f, 1.0f);
                    texCoords[vIndex + 3].Set(0.0f, 1.0f);

                    vIndex += 4;
                }
            }

            // assign all the attributes to the mesh object
            // and return it.
            wall.SetIndices(indices);
            wall.SetVertices(vertices);
            wall.SetTextureCoordinates(texCoords);
            wall.Texture = texture;

            
            // Now transform the vertices based on which wall it is we are constructing
            minX = roomSize.X / -2;
            maxX = roomSize.X / 2;

            minY = roomSize.Y / -2;
            maxY = roomSize.Y / 2;

            float minZ = roomSize.Z / -2;
            float maxZ = roomSize.Z / 2;
            Transformation transform = new Transformation();

            switch (whichWall)
            {
                case AABBFace.Front:
                    transform.Translate(new float3(0, 0, minZ));
                    break;

                case AABBFace.Back:
                    transform.SetRotate(float3x3.Rotate((float)Math.PI, new float3(0, 1, 0)));
                    transform.Translate(new float3(0, 0, maxZ));
                    break;

                case AABBFace.Left:
                    transform.SetRotate(float3x3.Rotate((float)Math.PI/2, new float3(0, 1, 0)));
                    transform.Translate(new float3(minX, 0, 0));

                    break;

                case AABBFace.Right:
                    transform.SetRotate(float3x3.Rotate((float)-Math.PI/2, new float3(0, 1, 0)));
                    transform.Translate(new float3(maxX, 0, 0));
                    break;

                case AABBFace.Ceiling:
                    transform.SetRotate(float3x3.Rotate((float)-Math.PI/2, new float3(1, 0, 0)));
                    transform.Translate(new float3(0, maxY, 0));
                    break;

                case AABBFace.Floor:
                    transform.SetRotate(float3x3.Rotate((float)Math.PI/2, new float3(1, 0, 0)));
                    transform.Translate(new float3(0, minY, 0));
                    break;
            }

            wall.ApplyTransform(transform);


            return wall;
        }
Пример #5
0
 AABBFaceMesh(GraphicsInterface gi, Vector3D boundary, AABBFace whichFace)
     : base(gi, BeginMode.Quads)
 {
     fSize = boundary;
     fWhichFace = whichFace;
 }
Пример #6
0
 public void PositionWall(AABBFace whichFace)
 {
 }
Пример #7
0
 public EntityCollision(Vector2 position, Vector2 movement, AABBFace face, Entity other)
     : base(position, movement, face, other.CollisionBox)
 {
     Other = other;
 }