/// <summary>
/// Thread to animate the model.
/// </summary>
private void _animation()
{
Rsm rsm = new Rsm(_baseLoadData[3]);
this.Dispatch(delegate {
_slider.Maximum = rsm.AnimationLength;
});
foreach (var mesh in rsm.Meshes)
{
Console.WriteLine(mesh.Name);
}
while (!_terminateThread)
{
_mainModelGroup.Dispatch(delegate {
_mainModelGroup.Children.Clear();
LoadModel(rsm, _mainModelGroup);
});
if (_animationStartState == "++")
{
_animationFrame++;
}
if (_animationFrame >= rsm.AnimationLength)
{
_animationFrame = 0;
}
int delay = (int)(1000 / rsm.FrameRatePerSecond);
if (delay < 5)
{
delay = 33;
}
Thread.Sleep(delay);
}
}
public TextureMeshComparer2(Rsm rsm, Vertex origin)
{
_rsm = rsm;
_origin = origin;
}
private void LoadModel(Rsm rsm, Model3DGroup mainModel3DGroup)
{
rsm.MainMesh.Calc(_animationFrame);
rsm.ClearBuffers();
List <MeshRawData2> meshData = new List <MeshRawData2>();
List <Vertex> position = new List <Vertex>();
// Convert all data to WPF 3D, calculate normals, texture effects, etc
foreach (var mesh in rsm.Meshes)
{
if (_baseLoadData.Length > 4)
{
if (!_baseLoadData[4].Contains(mesh.Name))
{
continue;
}
}
var vertices = _compile(mesh);
Dictionary <string, MeshRawData2> allRawData = new Dictionary <string, MeshRawData2>();
List <Vector3D> normals = new List <Vector3D>(vertices.Count);
List <Vector3D> vertices3d = new List <Vector3D>(vertices.Count);
List <Point3D> verticesPoints3D = new List <Point3D>(vertices.Count);
List <Point> textures3D = new List <Point>(mesh.TextureVertices.Count);
for (int i = 0; i < vertices.Count; i++)
{
normals.Add(new Vector3D(0, 0, 0));
vertices3d.Add(new Vector3D(vertices[i].X, vertices[i].Y, vertices[i].Z));
verticesPoints3D.Add(new Point3D(vertices[i].X, vertices[i].Y, vertices[i].Z));
}
for (int i = 0; i < mesh.TextureVertices.Count; i++)
{
textures3D.Add(new Point(mesh.TextureVertices[i].U, mesh.TextureVertices[i].V));
}
// Could use the smoothing groups, but... this is much simpler and good enough.
for (int i = 0; i < mesh.Faces.Count; i++)
{
Vector3D p = Vector3D.CrossProduct(vertices3d[mesh.Faces[i].VertexIds[1]] - vertices3d[mesh.Faces[i].VertexIds[0]], vertices3d[mesh.Faces[i].VertexIds[2]] - vertices3d[mesh.Faces[i].VertexIds[0]]);
normals[mesh.Faces[i].VertexIds[0]] += p;
normals[mesh.Faces[i].VertexIds[1]] += p;
normals[mesh.Faces[i].VertexIds[2]] += p;
}
for (int i = 0; i < normals.Count; i++)
{
normals[i].Normalize();
}
for (int i = 0; i < mesh.Faces.Count; i++)
{
var face = mesh.Faces[i];
string texture;
if (mesh.Textures.Count > 0)
{
texture = mesh.Textures[mesh.TextureIndexes[face.TextureId]];
}
else
{
texture = rsm.Textures[mesh.TextureIndexes[face.TextureId]];
}
if (!allRawData.ContainsKey(texture))
{
allRawData[texture] = new MeshRawData2 {
Texture = texture, Alpha = 0, Position = mesh.BoundingBox.Center, Mesh = mesh, BoundingBox = mesh.BoundingBox
};
}
var rawData = allRawData[texture];
rawData.Positions.Add(verticesPoints3D[face.VertexIds[0]]);
rawData.Positions.Add(verticesPoints3D[face.VertexIds[1]]);
rawData.Positions.Add(verticesPoints3D[face.VertexIds[2]]);
rawData.Normals.Add(normals[face.VertexIds[0]]);
rawData.Normals.Add(normals[face.VertexIds[1]]);
rawData.Normals.Add(normals[face.VertexIds[2]]);
Point v0 = textures3D[face.TextureVertexIds[0]];
Point v1 = textures3D[face.TextureVertexIds[1]];
Point v2 = textures3D[face.TextureVertexIds[2]];
if (mesh.TextureKeyFrameGroup.Count > 0)
{
foreach (var type in mesh.TextureKeyFrameGroup.Types)
{
if (mesh.TextureKeyFrameGroup.HasTextureAnimation(face.TextureId, type))
{
float offset = mesh.GetTexture(_animationFrame, face.TextureId, type);
Matrix4 mat = Matrix4.Identity;
switch (type)
{
case 0:
v0.X += offset;
v1.X += offset;
v2.X += offset;
break;
case 1:
v0.Y += offset;
v1.Y += offset;
v2.Y += offset;
break;
case 2:
v0.X *= offset;
v1.X *= offset;
v2.X *= offset;
break;
case 3:
v0.Y *= offset;
v1.Y *= offset;
v2.Y *= offset;
break;
case 4:
mat = Matrix4.Rotate3(mat, new Vertex(0, 0, 1), offset);
Vertex n0 = Matrix4.Multiply2(mat, new Vertex(v0.X, v0.Y, 0));
Vertex n1 = Matrix4.Multiply2(mat, new Vertex(v1.X, v1.Y, 0));
Vertex n2 = Matrix4.Multiply2(mat, new Vertex(v2.X, v2.Y, 0));
v0.X = n0.X;
v0.Y = n0.Y;
v1.X = n1.X;
v1.Y = n1.Y;
v2.X = n2.X;
v2.Y = n2.Y;
rawData.MaterialNoTile = true;
break;
}
}
}
}
rawData.TextureCoordinates.Add(v0);
rawData.TextureCoordinates.Add(v1);
rawData.TextureCoordinates.Add(v2);
}
foreach (var meshRawData in allRawData)
{
meshData.Add(meshRawData.Value);
position.Add(mesh.Position_);
}
}
for (int i = 0; i < meshData.Count; i++)
{
meshData[i].Material = _generateMaterial(meshData[i].Texture, meshData[i].MaterialNoTile);
}
meshData.Sort(new TextureMeshComparer2(rsm, new Vertex(_cameraPosition.X, _cameraPosition.Y, _cameraPosition.Z)));
foreach (var meshRawData in meshData)
{
MeshGeometry3D mesh = new MeshGeometry3D();
mesh.Positions = new Point3DCollection(meshRawData.Positions);
mesh.TextureCoordinates = new PointCollection(meshRawData.TextureCoordinates);
mesh.Normals = new Vector3DCollection(meshRawData.Normals);
var material = meshRawData.Material;
GeometryModel3D model = new GeometryModel3D(mesh, material);
model.BackMaterial = material;
mainModel3DGroup.Children.Add(model);
}
DrawGrid();
Matrix3D mat3d = Matrix3D.Identity;
mat3d.Scale(new Vector3D(-1, 1, 1));
MatrixTransform3D mt = new MatrixTransform3D(mat3d);
mainModel3DGroup.Transform = mt;
_modelGrid.Content.Transform = mt;
}