/// <summary>
/// Build final model using immutable parts and given matrices.
/// </summary>
/// <returns></returns>
public Kkdf2MdlxBuiltModel ProcessVerticesAndBuildModel(Matrix[] matrices)
{
var models = new SortedDictionary <Tuple <int, bool>, Model>();
var exportedMesh = new ExportedMesh();
{
int vertexBaseIndex = 0;
int uvBaseIndex = 0;
VertexRef[] ringBuffer = new VertexRef[4];
int ringIndex = 0;
int[] triangleOrder = new int[] { 1, 3, 2 };
foreach (ImmutableMesh mesh in immultableMeshList)
{
for (int x = 0; x < mesh.indexAssignmentList.Length; x++)
{
var indexAssign = mesh.indexAssignmentList[x];
VertexRef vertexRef = new VertexRef(
vertexBaseIndex + indexAssign.indexToVertexAssignment,
uvBaseIndex + x
);
ringBuffer[ringIndex] = vertexRef;
ringIndex = (ringIndex + 1) & 3;
int flag = indexAssign.vertexFlag;
if (flag == 0x20 || flag == 0x00)
{
var triRef = new TriangleRef(mesh.textureIndex, mesh.isOpaque,
ringBuffer[(ringIndex - triangleOrder[0]) & 3],
ringBuffer[(ringIndex - triangleOrder[1]) & 3],
ringBuffer[(ringIndex - triangleOrder[2]) & 3]
);
exportedMesh.triangleRefList.Add(triRef);
}
if (flag == 0x30 || flag == 0x00)
{
var triRef = new TriangleRef(mesh.textureIndex, mesh.isOpaque,
ringBuffer[(ringIndex - triangleOrder[0]) & 3],
ringBuffer[(ringIndex - triangleOrder[2]) & 3],
ringBuffer[(ringIndex - triangleOrder[1]) & 3]
);
exportedMesh.triangleRefList.Add(triRef);
}
}
exportedMesh.positionList.AddRange(
mesh.vertexAssignmentsList.Select(
vertexAssigns =>
{
Vector3 finalPos = Vector3.Zero;
if (vertexAssigns.Length == 1)
{
// single joint
finalPos = TransformCoordinate(
VCUt.V4To3(
vertexAssigns[0].rawPos
),
matrices[vertexAssigns[0].matrixIndex]
);
}
else
{
// multiple joints, using rawPos.W as blend weights
foreach (VertexAssignment vertexAssign in vertexAssigns)
{
finalPos += VCUt.V4To3(
Transform(
vertexAssign.rawPos,
matrices[vertexAssign.matrixIndex]
)
);
}
}
return(finalPos);
}
)
);
exportedMesh.uvList.AddRange(
mesh.indexAssignmentList
.Select(indexAssign => indexAssign.uv)
);
vertexBaseIndex += mesh.vertexAssignmentsList.Length;
uvBaseIndex += mesh.indexAssignmentList.Length;
}
}
{
int triangleRefCount = exportedMesh.triangleRefList.Count;
for (int triIndex = 0; triIndex < triangleRefCount; triIndex++)
{
TriangleRef triRef = exportedMesh.triangleRefList[triIndex];
Tuple <int, bool> modelKey = new Tuple <int, bool>(triRef.textureIndex, triRef.isOpaque);
Model model;
if (models.TryGetValue(modelKey, out model) == false)
{
models[modelKey] = model = new Model();
}
for (int i = 0; i < triRef.list.Length; i++)
{
VertexRef vertRef = triRef.list[i];
Vector3 pos = exportedMesh.positionList[vertRef.vertexIndex];
Vector2 uv = exportedMesh.uvList[vertRef.uvIndex];
model.Vertices.Add(new CustomVertex.PositionColoredTextured(pos, -1, uv.X, uv.Y));
}
}
}
return(new Kkdf2MdlxBuiltModel
{
textureIndexBasedModelDict = models,
parser = this,
});
}
/// <summary>
/// Build final model using immutable parts and given matrices.
/// </summary>
/// <returns></returns>
public List <MeshDescriptor> ProcessVerticesAndBuildModel(Matrix4x4[] matrices)
{
var exportedMesh = new ExportedMesh();
{
int vertexBaseIndex = 0;
int uvBaseIndex = 0;
VertexRef[] ringBuffer = new VertexRef[4];
int ringIndex = 0;
int[] triangleOrder = new int[] { 1, 3, 2 };
foreach (ImmutableMesh mesh in immultableMeshList)
{
var part = new ExportedMesh.Part
{
meshRef = mesh,
};
for (int x = 0; x < mesh.indexAssignmentList.Length; x++)
{
var indexAssign = mesh.indexAssignmentList[x];
VertexRef vertexRef = new VertexRef(
vertexBaseIndex + indexAssign.indexToVertexAssignment,
uvBaseIndex + x
);
ringBuffer[ringIndex] = vertexRef;
ringIndex = (ringIndex + 1) & 3;
int flag = indexAssign.vertexFlag;
if (flag == 0x20 || flag == 0x00)
{
var triRef = new TriangleRef(
ringBuffer[(ringIndex - triangleOrder[0]) & 3],
ringBuffer[(ringIndex - triangleOrder[1]) & 3],
ringBuffer[(ringIndex - triangleOrder[2]) & 3]
);
part.triangleRefList.Add(triRef);
}
if (flag == 0x30 || flag == 0x00)
{
var triRef = new TriangleRef(
ringBuffer[(ringIndex - triangleOrder[0]) & 3],
ringBuffer[(ringIndex - triangleOrder[2]) & 3],
ringBuffer[(ringIndex - triangleOrder[1]) & 3]
);
part.triangleRefList.Add(triRef);
}
}
exportedMesh.positionList.AddRange(
mesh.vertexAssignmentsList.Select(
vertexAssigns =>
{
Vector3 finalPos = Vector3.Zero;
if (vertexAssigns.Length == 1)
{
// single joint
finalPos = Vector3.Transform(
VCUt.V4To3(
vertexAssigns[0].rawPos
),
matrices[vertexAssigns[0].matrixIndex]
);
}
else
{
// multiple joints, using rawPos.W as blend weights
foreach (VertexAssignment vertexAssign in vertexAssigns)
{
finalPos += VCUt.V4To3(
Vector4.Transform(
vertexAssign.rawPos,
matrices[vertexAssign.matrixIndex]
)
);
}
}
return(finalPos);
}
)
);
exportedMesh.uvList.AddRange(
mesh.indexAssignmentList
.Select(indexAssign => indexAssign.uv)
);
exportedMesh.partList.Add(part);
vertexBaseIndex += mesh.vertexAssignmentsList.Length;
uvBaseIndex += mesh.indexAssignmentList.Length;
}
}
var newList = new List <MeshDescriptor>();
foreach (var part in exportedMesh.partList)
{
var vertices = new List <CustomVertex.PositionColoredTextured>();
var indices = new List <int>();
int triangleRefCount = part.triangleRefList.Count;
for (int triIndex = 0; triIndex < triangleRefCount; triIndex++)
{
TriangleRef triRef = part.triangleRefList[triIndex];
for (int i = 0; i < triRef.list.Length; i++)
{
VertexRef vertRef = triRef.list[i];
Vector3 pos = exportedMesh.positionList[vertRef.vertexIndex];
Vector2 uv = exportedMesh.uvList[vertRef.uvIndex];
indices.Add(vertices.Count);
vertices.Add(new CustomVertex.PositionColoredTextured(pos, -1, uv.X, uv.Y));
}
}
newList.Add(
new MeshDescriptor
{
IsOpaque = part.meshRef.isOpaque,
TextureIndex = part.meshRef.textureIndex,
Vertices = vertices.ToArray(),
Indices = indices.ToArray(),
}
);
}
return(newList);
}