public override Mesh decode(MeshInfo minfo, CtmInputStream input)
{
int vc = minfo.getVertexCount();
checkTag(input.readLittleInt(), MG2_HEADER_TAG);
float vertexPrecision = input.readLittleFloat();
float normalPrecision = input.readLittleFloat();
Grid grid = Grid.fromStream(input);
if(!grid.checkIntegrity()) {
throw new InvalidDataException("The vertex size grid is corrupt!");
}
float[] vertices = readVertices(input, grid, vc, vertexPrecision);
int[] indices = readIndices(input, minfo.getTriangleCount(), vc);
float[] normals = null;
if (minfo.hasNormals()) {
normals = readNormals(input, vertices, indices, normalPrecision, vc);
}
AttributeData[] uvData = new AttributeData[minfo.getUvMapCount()];
for (int i = 0; i < uvData.Length; i++) {
uvData[i] = readUvData(input, vc);
}
AttributeData[] attributs = new AttributeData[minfo.getAttrCount()];
for (int i = 0; i < attributs.Length; i++) {
attributs[i] = readAttribute(input, vc);
}
return new Mesh(vertices, normals, indices, uvData, attributs);
}
public override Mesh decode(MeshInfo minfo, CtmInputStream input)
{
int vc = minfo.getVertexCount();
AttributeData[] tex = new AttributeData[minfo.getUvMapCount()];
AttributeData[] att = new AttributeData[minfo.getAttrCount()];
checkTag(input.readLittleInt(), INDX);
int[] indices = readIntArray(input, minfo.getTriangleCount(), 3, false);
checkTag(input.readLittleInt(), VERT);
float[] vertices = readFloatArray(input, vc * Mesh.CTM_POSITION_ELEMENT_COUNT, 1);
float[] normals = null;
if (minfo.hasNormals()) {
checkTag(input.readLittleInt(), NORM);
normals = readFloatArray(input, vc, Mesh.CTM_NORMAL_ELEMENT_COUNT);
}
for (int i = 0; i < tex.Length; ++i) {
checkTag(input.readLittleInt(), TEXC);
tex[i] = readUVData(vc, input);
}
for (int i = 0; i < att.Length; ++i) {
checkTag(input.readLittleInt(), ATTR);
att[i] = readAttrData(vc, input);
}
return new Mesh(vertices, normals, indices, tex, att);
}
public override Mesh decode(MeshInfo minfo, CtmInputStream input)
{
int vc = minfo.getVertexCount();
AttributeData[] tex = new AttributeData[minfo.getUvMapCount()];
AttributeData[] att = new AttributeData[minfo.getAttrCount()];
checkTag(input.readLittleInt(), INDX);
int[] indices = readIntArray(input, minfo.getTriangleCount(), 3, false);
checkTag(input.readLittleInt(), VERT);
float[] vertices = readFloatArray(input, vc * Mesh.CTM_POSITION_ELEMENT_COUNT, 1);
float[] normals = null;
if (minfo.hasNormals())
{
checkTag(input.readLittleInt(), NORM);
normals = readFloatArray(input, vc, Mesh.CTM_NORMAL_ELEMENT_COUNT);
}
for (int i = 0; i < tex.Length; ++i)
{
checkTag(input.readLittleInt(), TEXC);
tex[i] = readUVData(vc, input);
}
for (int i = 0; i < att.Length; ++i)
{
checkTag(input.readLittleInt(), ATTR);
att[i] = readAttrData(vc, input);
}
return(new Mesh(vertices, normals, indices, tex, att));
}
public override Mesh decode(MeshInfo minfo, CtmInputStream input)
{
int vc = minfo.getVertexCount();
checkTag(input.readLittleInt(), MG2_HEADER_TAG);
float vertexPrecision = input.readLittleFloat();
float normalPrecision = input.readLittleFloat();
Grid grid = Grid.fromStream(input);
if (!grid.checkIntegrity())
{
throw new InvalidDataException("The vertex size grid is corrupt!");
}
float[] vertices = readVertices(input, grid, vc, vertexPrecision);
int[] indices = readIndices(input, minfo.getTriangleCount(), vc);
float[] normals = null;
if (minfo.hasNormals())
{
normals = readNormals(input, vertices, indices, normalPrecision, vc);
}
AttributeData[] uvData = new AttributeData[minfo.getUvMapCount()];
for (int i = 0; i < uvData.Length; i++)
{
uvData[i] = readUvData(input, vc);
}
AttributeData[] attributs = new AttributeData[minfo.getAttrCount()];
for (int i = 0; i < attributs.Length; i++)
{
attributs[i] = readAttribute(input, vc);
}
return(new Mesh(vertices, normals, indices, uvData, attributs));
}