public void Read(FileData d)
{
names.Clear();
d.skip(8);// magic and section size
int c1 = d.readInt();
int start = d.pos();
for (int i = 0; i < c1; i++)
{
int offset = d.readInt();
int size = d.readInt();
int temp = d.pos();
d.seek(start + offset);
d.readInt();
int s = (sbyte)d.readByte();
names.Add(d.readString(d.pos(), -1));
d.skip(s);
d.align(4);
d.seek(temp);
}
}
public void Read(FileData d)
{
hash = d.readInt();
unk1 = d.readInt();
int s = d.readByte();
name = d.readString(d.pos(), -1);
d.skip(s);
d.align(4);
d.skip(8);
offset = d.readInt();
size = d.readInt();
for (int i = 0; i < param.Length; i++)
{
param[i] = d.readFloat();
}
offsets = new int[d.readInt()];
for (int i = 0; i < offsets.Length; i++)
{
offsets[i] = d.readInt();
}
unkvalues = new float[d.readInt()];
for (int i = 0; i < unkvalues.Length; i++)
{
unkvalues[d.readInt()] = d.readFloat();
}
List <int> une = new List <int>();
while (true)
{
int i = d.readInt();
une.Add(i);
if (i == -1)
{
break;
}
}
unkending = une.ToArray();
end = new int[3 + (int)Math.Ceiling((double)((unk1 >> 8) & 0xFF) / 4)];
for (int i = 0; i < end.Length; i++)
{
end[i] = d.readInt();
}
//Console.WriteLine(id + " " + name + " " + offset.ToString("x"));
}
public void Read(FileData d)
{
d.skip(12);
unk1 = d.readInt();
int s = d.readByte();
name = d.readString(d.pos(), s - 1);
d.skip(s);
d.align(4);
flag = d.readInt();
}
// temp stuff
public static Dictionary <string, SkelAnimation> LoadAJ(string fname, VBN vbn)
{
// a note, I know that the main player file has the offsets for
// animations, this is just for viewing
FileData f = new FileData(fname);
f.Endian = System.IO.Endianness.Big;
int pos = 0;
Dictionary <string, SkelAnimation> animations = new Dictionary <string, SkelAnimation>();
AnimationGroupNode group = new AnimationGroupNode()
{
Text = fname
};
MainForm.Instance.animList.treeView1.Nodes.Add(group);
while (pos < f.size())
{
Console.WriteLine(pos.ToString("x"));
int len = f.readInt();
DAT_Animation anim = new DAT_Animation();
anim.Read(new FileData(f.getSection(pos, len)));
AnimTrack track = new AnimTrack(anim);
if (pos == 0)
{
//track.Show();
}
group.Nodes.Add(track.toAnimation(vbn));
SkelAnimation sa = track.BakeToSkel(vbn);
//sa.Tag = track;
//Runtime.Animations.Add(anim.Name, sa);
// MainForm.Instance.animList.treeView1.Nodes.Add(anim.Name);
animations.Add(anim.Name, sa);
if (pos != 0)
{
track.Dispose();
track.Close();
}
f.skip(len - 4);
f.align(32);
pos = f.pos();
}
return(animations);
}
public void Read(FileData d)
{
hash = d.readInt();
unk1 = d.readInt();
int s = d.readByte();
name = d.readString(d.pos(), s - 1);
d.skip(s);
d.align(4);
data = new float[0x2c];
for (int i = 0; i < 0x2c; i++)
{
data[i] = d.readFloat();
}
}
public void Read(FileData d)
{
d.skip(8); // magic and section size
d.skip(4); // 0 padding?
unk1 = d.readInt();
d.skip(2); //0
unk2 = d.readShort();
int ssize = d.readByte();
project = d.readString(d.pos(), ssize - 1);
d.skip(ssize - 1);
d.skip(6);
unk3 = d.readShort();
d.align(4);
ssize = d.readByte();
timestamp = d.readString(d.pos(), ssize - 1);
d.skip(ssize - 1);
d.skip(4);
}
/**
* Reading and saving --------------------
**/
public override void Read(string filename)
{
FileData d = new FileData(filename);
d.seek(0);
d.Endian = Endianness.Little;
format = d.readUShort();
unknown = d.readUShort();
flags = d.readInt();
mode = d.readInt();
bool hasNameTable = (flags & 2) > 0;
int polyCount = d.readInt();
mesh = new List <Mesh>();
descript = new List <Descriptor>();
List <List <int> > prim = new List <List <int> >();
for (int i = 0; i < polyCount; i++)
{
if (i == 0 && mode == 1)
{
Descriptor des = new Descriptor();
des.ReadDescription(d);
descript.Add(des);
}
Mesh m = new Mesh();
mesh.Add(m);
int faceCount = d.readInt();
List <int> prims = new List <int>();
prim.Add(prims);
for (int j = 0; j < faceCount; j++)
{
int nodeCount = d.readInt();
List <int> nodeList = new List <int>();
m.nodeList.Add(nodeList);
for (int k = 0; k < nodeCount; k++)
{
nodeList.Add(d.readInt()); // for a node list?
}
int primitiveCount = d.readInt();
prims.Add(primitiveCount);
if (hasNameTable)
{
int nameId = d.readInt();
}
if (mode == 0)
{
if (format == 4)
{
int[] buffer = new int[primitiveCount];
for (int k = 0; k < primitiveCount; k++)
{
buffer[k] = d.readUShort();
}
d.align(4);
List <int> buf = new List <int>();
buf.AddRange(buffer);
m.faces.Add(buf);
}
else
{
Descriptor des = new Descriptor();
des.ReadDescription(d);
descript.Add(des);
}
}
}
}
if (mode == 0)
{
//Console.WriteLine("Extra!");
}
// TODO: STRING TABLE
if (hasNameTable)
{
for (int i = 0; i < mesh.Count; i++)
{
int index = d.readByte();
nameTable.Add(d.readString());
}
}
if (format != 4)
{
d.align(32);
}
// Vertex Bank
int start = d.pos();
for (int i = 0; i < 1; i++)
{
if (mode == 0 || i == 0)
{
Descriptor des = descript[i];
if (format != 4)
{
while (d.pos() < start + des.length)
{
Vertex v = new Vertex();
vertices.Add(v);
for (int k = 0; k < des.type.Length; k++)
{
d.align(2);
switch (des.type[k])
{
case 0: //Position
v.pos.X = readType(d, des.format[k], des.scale[k]);
v.pos.Y = readType(d, des.format[k], des.scale[k]);
v.pos.Z = readType(d, des.format[k], des.scale[k]);
break;
case 1: //Normal
v.nrm.X = readType(d, des.format[k], des.scale[k]);
v.nrm.Y = readType(d, des.format[k], des.scale[k]);
v.nrm.Z = readType(d, des.format[k], des.scale[k]);
break;
case 2: //Color
v.col.X = (int)(readType(d, des.format[k], des.scale[k]));
v.col.Y = (int)(readType(d, des.format[k], des.scale[k]));
v.col.Z = (int)(readType(d, des.format[k], des.scale[k]));
v.col.W = (int)(readType(d, des.format[k], des.scale[k]));
break;
case 3: //Tex0
v.tx.Add(new Vector2(readType(d, des.format[k], des.scale[k]), readType(d, des.format[k], des.scale[k])));
break;
case 4: //Tex1
v.tx.Add(new Vector2(readType(d, des.format[k], des.scale[k]), readType(d, des.format[k], des.scale[k])));
break;
case 5: //Bone Index
v.node.Add(d.readByte());
v.node.Add(d.readByte());
break;
case 6: //Bone Weight
v.weight.Add(readType(d, des.format[k], des.scale[k]));
v.weight.Add(readType(d, des.format[k], des.scale[k]));
break;
//default:
// Console.WriteLine("WTF is this");
}
}
}
d.align(32);
}
}
for (int j = 0; j < mesh.Count; j++)
{
foreach (int l in prim[j])
{
List <int> face = new List <int>();
mesh[j].faces.Add(face);
for (int k = 0; k < l; k++)
{
face.Add(d.readUShort());
}
d.align(32);
}
}
}
PreRender();
}
public void OpenMBN(FileData f)
{
f.Endian = Endianness.Little;
f.seek(0);
int format = f.readShort();
f.skip(2);//0xFFFF
int flags = f.readInt();
int mode = f.readInt();
int meshCount = f.readInt();
int length = 0;
if (mode == 1)
{
//One Attribute
int count = f.readInt();
for (int i = 0; i < count; i++)
{
VertexAttribute a = new VertexAttribute();
a.Read(f);
Attributes.Add(a);
}
length = f.readInt();
}
// Get Mesh Nodes
/*List<BCH_Mesh> meshes = new List<BCH_Mesh>();
* foreach(BCH_Mesh m in Nodes)
* {
* meshes.Add(m);
* foreach (BCH_Mesh m2 in m.Nodes)
* meshes.Add(m);
* }*/
for (int i = 0; i < meshCount; i++)
{
BCH_Mesh m = (BCH_Mesh)Nodes[i];
int polyCount = f.readInt();
for (int j = 0; j < polyCount; j++)
{
BCH_PolyGroup pg = new BCH_PolyGroup();
m.Nodes.Add(pg);
int nodeCount = f.readInt();
int[] nodeList = new int[nodeCount];
pg.BoneList = (nodeList);
for (int k = 0; k < nodeCount; k++)
{
nodeList[k] = f.readInt();
}
pg.Count = (f.readInt());
if ((flags & 2) > 0)
{
f.readInt();
}
}
}
if (format != 4)
{
f.align(32);
}
int stride = 0;
foreach (VertexAttribute a in Attributes)
{
stride += _3DSGPU.getTypeSize(a.format) * _3DSGPU.getFormatSize(a.type);
}
// Vertex Bank
Vertices = new Vertex[length / (stride + stride % 2)];
for (int vi = 0; vi < Vertices.Length; vi++)
{
Vertex v = new Vertex();
foreach (VertexAttribute a in Attributes)
{
//f.align(2);
a.ReadVertex(f, ref v);
}
Vertices[vi] = v;
}
f.align(32);
for (int i = 0; i < meshCount; i++)
{
BCH_Mesh m = (BCH_Mesh)Nodes[i];
int pi = 0;
foreach (BCH_PolyGroup pg in m.Nodes)
{
pg.Text = "Polygroup_" + pi++;
pg.Faces = new int[pg.Count];
for (int k = 0; k < pg.Count; k++)
{
pg.Faces[k] = f.readShort();
}
f.align(32);
}
}
}
public void ReadNTP3(FileData d)
{
d.skip(0x2);
int count = d.readShort();
d.skip(0x8);
int dataPtr = 0;
for (int i = 0; i < count; i++)
{
Debug.WriteLine(d.pos().ToString("x"));
NUD_Texture tex = new NUD_Texture();
tex.type = PixelInternalFormat.Rgba32ui;
int totalSize = d.readInt();
d.skip(4); // padding
int dataSize = d.readInt();
int headerSize = d.readShort();
d.skip(3);
int numMips = d.readByte();
Debug.WriteLine(numMips);
d.skip(1);
tex.setPixelFormatFromNutFormat(d.readByte());
tex.width = d.readShort();
tex.height = d.readShort();
d.skip(8); // padding?
int dataOffset = d.readInt() + dataPtr + 0x10;
d.skip(0x0C);
int[] mipSizes = new int[numMips];
if (numMips == 1)
{
mipSizes[0] = dataSize;
}
else
{
for (int j = 0; j < numMips; j++)
{
mipSizes[j] = d.readInt();
}
}
d.align(16);
d.skip(0x18);
tex.id = d.readInt();
d.skip(4); // padding align 8
// add mipmap data
for (int miplevel = 0; miplevel < numMips; miplevel++)
{
byte[] texArray = d.getSection(dataOffset, mipSizes[miplevel]);
tex.mipmaps.Add(texArray);
dataOffset += mipSizes[miplevel];
}
dataPtr += headerSize;
if (tex.getNutFormat() == 14 || tex.getNutFormat() == 17)
{
Console.WriteLine("Endian swap");
// swap
foreach (byte[] mip in tex.mipmaps)
{
for (int t = 0; t < mip.Length; t += 4)
{
byte t1 = mip[t];
mip[t] = mip[t + 1];
mip[t + 1] = mip[t + 2];
mip[t + 2] = mip[t + 3];
mip[t + 3] = t1;
/*byte t1 = mip[t];
* byte t2 = mip[t+1];
* mip[t] = mip[t + 3];
* mip[t + 1] = mip[t + 2];
* mip[t + 2] = t2;
* mip[t + 3] = t1;*/
}
}
}
textures.Add(tex);
/*for (int miplevel = 0; miplevel < numMips; miplevel++)
* {
* byte[] texArray = d.getSection(dataOffset, mipSizes[miplevel]);
*
* if (tex.getNutFormat() == 14)
* {
* byte[] oldArray = texArray;
* for (int pos = 0; pos < mipSizes[miplevel]; pos+=4)
* {
*
* for (int p = 0; p < 4; p++)
* {
* if (p == 0)
* texArray[pos + 3] = oldArray[pos];
* else
* texArray[pos + p - 1] = oldArray[pos + p];
* }
*
* }
* }
* tex.mipmaps.Add(texArray);
* dataOffset += mipSizes[miplevel];
* }*/
}
foreach (var tex in textures)
{
if (!draw.ContainsKey(tex.id))
{
draw.Add(tex.id, loadImage(tex, true));
}
}
}
public void ReadNTWU(FileData d)
{
d.seek(0x4);
Version = d.readUShort();
ushort count = d.readUShort();
d.skip(0x8);
int headerPtr = 0x10;
for (ushort i = 0; i < count; ++i)
{
d.seek(headerPtr);
NutTexture tex = new NutTexture();
tex.pixelInternalFormat = PixelInternalFormat.Rgba32ui;
int totalSize = d.readInt();
d.skip(4);
int dataSize = d.readInt();
int headerSize = d.readUShort();
d.skip(2);
d.skip(1);
byte mipmapCount = d.readByte();
d.skip(1);
tex.setPixelFormatFromNutFormat(d.readByte());
tex.Width = d.readUShort();
tex.Height = d.readUShort();
d.readInt(); //Always 1?
uint caps2 = d.readUInt();
bool isCubemap = false;
byte surfaceCount = 1;
if ((caps2 & (uint)DDS.DDSCAPS2.CUBEMAP) == (uint)DDS.DDSCAPS2.CUBEMAP)
{
//Only supporting all six faces
if ((caps2 & (uint)DDS.DDSCAPS2.CUBEMAP_ALLFACES) == (uint)DDS.DDSCAPS2.CUBEMAP_ALLFACES)
{
isCubemap = true;
surfaceCount = 6;
}
else
{
throw new NotImplementedException($"Unsupported cubemap face amount for texture {i} with hash 0x{tex.HashId:X}. Six faces are required.");
}
}
int dataOffset = d.readInt() + headerPtr;
int mipDataOffset = d.readInt() + headerPtr;
int gtxHeaderOffset = d.readInt() + headerPtr;
d.readInt();
int cmapSize1 = 0;
int cmapSize2 = 0;
if (isCubemap)
{
cmapSize1 = d.readInt();
cmapSize2 = d.readInt();
d.skip(8);
}
int imageSize = 0; //Total size of first mipmap of every surface
int mipSize = 0; //Total size of mipmaps other than the first of every surface
if (mipmapCount == 1)
{
if (isCubemap)
{
imageSize = cmapSize1;
}
else
{
imageSize = dataSize;
}
}
else
{
imageSize = d.readInt();
mipSize = d.readInt();
d.skip((mipmapCount - 2) * 4);
d.align(0x10);
}
d.skip(0x10); //eXt data - always the same
d.skip(4); //GIDX
d.readInt(); //Always 0x10
tex.HashId = d.readInt();
d.skip(4); // padding align 8
d.seek(gtxHeaderOffset);
GTX.GX2Surface gtxHeader = new GTX.GX2Surface();
gtxHeader.dim = d.readInt();
gtxHeader.width = d.readInt();
gtxHeader.height = d.readInt();
gtxHeader.depth = d.readInt();
gtxHeader.numMips = d.readInt();
gtxHeader.format = d.readInt();
gtxHeader.aa = d.readInt();
gtxHeader.use = d.readInt();
gtxHeader.imageSize = d.readInt();
gtxHeader.imagePtr = d.readInt();
gtxHeader.mipSize = d.readInt();
gtxHeader.mipPtr = d.readInt();
gtxHeader.tileMode = d.readInt();
gtxHeader.swizzle = d.readInt();
gtxHeader.alignment = d.readInt();
gtxHeader.pitch = d.readInt();
//mipOffsets[0] is not in this list and is simply the start of the data (dataOffset)
//mipOffsets[1] is relative to the start of the data (dataOffset + mipOffsets[1])
//Other mipOffsets are relative to mipOffset[1] (dataOffset + mipOffsets[1] + mipOffsets[i])
int[] mipOffsets = new int[mipmapCount];
mipOffsets[0] = 0;
for (byte mipLevel = 1; mipLevel < mipmapCount; ++mipLevel)
{
mipOffsets[mipLevel] = 0;
mipOffsets[mipLevel] = mipOffsets[1] + d.readInt();
}
for (byte surfaceLevel = 0; surfaceLevel < surfaceCount; ++surfaceLevel)
{
tex.surfaces.Add(new TextureSurface());
}
int w = tex.Width, h = tex.Height;
for (byte mipLevel = 0; mipLevel < mipmapCount; ++mipLevel)
{
int p = gtxHeader.pitch / (gtxHeader.width / w);
int size;
if (mipmapCount == 1)
{
size = imageSize;
}
else if (mipLevel + 1 == mipmapCount)
{
size = (mipSize + mipOffsets[1]) - mipOffsets[mipLevel];
}
else
{
size = mipOffsets[mipLevel + 1] - mipOffsets[mipLevel];
}
size /= surfaceCount;
for (byte surfaceLevel = 0; surfaceLevel < surfaceCount; ++surfaceLevel)
{
gtxHeader.data = d.getSection(dataOffset + mipOffsets[mipLevel] + (size * surfaceLevel), size);
//Real size
//Leave the below line commented for now because it breaks RGBA textures
//size = ((w + 3) >> 2) * ((h + 3) >> 2) * (GTX.getBPP(gtxHeader.format) / 8);
if (size < (GTX.getBPP(gtxHeader.format) / 8))
{
size = (GTX.getBPP(gtxHeader.format) / 8);
}
byte[] deswiz = GTX.swizzleBC(
gtxHeader.data,
w,
h,
gtxHeader.format,
gtxHeader.tileMode,
p,
gtxHeader.swizzle
);
tex.surfaces[surfaceLevel].mipmaps.Add(new FileData(deswiz).getSection(0, size));
}
w /= 2;
h /= 2;
if (w < 1)
{
w = 1;
}
if (h < 1)
{
h = 1;
}
}
headerPtr += headerSize;
Nodes.Add(tex);
}
}
public void ReadNTP3(FileData d)
{
d.seek(0x4);
Version = d.readUShort();
ushort count = d.readUShort();
if (Version == 0x100)
{
count -= 1;
}
d.skip(0x8);
int headerPtr = 0x10;
for (ushort i = 0; i < count; ++i)
{
d.seek(headerPtr);
NutTexture tex = new NutTexture();
tex.isDds = true;
tex.pixelInternalFormat = PixelInternalFormat.Rgba32ui;
int totalSize = d.readInt();
d.skip(4);
int dataSize = d.readInt();
int headerSize = d.readUShort();
d.skip(2);
//It might seem that mipmapCount and pixelFormat would be shorts, but they're bytes because they stay in the same place regardless of endianness
d.skip(1);
byte mipmapCount = d.readByte();
d.skip(1);
tex.setPixelFormatFromNutFormat(d.readByte());
tex.Width = d.readUShort();
tex.Height = d.readUShort();
d.skip(4);
uint caps2 = d.readUInt();
bool isCubemap = false;
byte surfaceCount = 1;
if ((caps2 & (uint)DDS.DDSCAPS2.CUBEMAP) == (uint)DDS.DDSCAPS2.CUBEMAP)
{
//Only supporting all six faces
if ((caps2 & (uint)DDS.DDSCAPS2.CUBEMAP_ALLFACES) == (uint)DDS.DDSCAPS2.CUBEMAP_ALLFACES)
{
isCubemap = true;
surfaceCount = 6;
}
else
{
throw new NotImplementedException($"Unsupported cubemap face amount for texture {i} with hash 0x{tex.HashId:X}. Six faces are required.");
}
}
int dataOffset = d.readInt() + headerPtr;
d.readInt();
d.readInt();
d.readInt();
//The size of a single cubemap face (discounting mipmaps). I don't know why it is repeated. If mipmaps are present, this is also specified in the mipSize section anyway.
int cmapSize1 = 0;
int cmapSize2 = 0;
if (isCubemap)
{
cmapSize1 = d.readInt();
cmapSize2 = d.readInt();
d.skip(8);
}
int[] mipSizes = new int[mipmapCount];
if (mipmapCount == 1)
{
if (isCubemap)
{
mipSizes[0] = cmapSize1;
}
else
{
mipSizes[0] = dataSize;
}
}
else
{
for (byte mipLevel = 0; mipLevel < mipmapCount; ++mipLevel)
{
mipSizes[mipLevel] = d.readInt();
}
d.align(0x10);
}
d.skip(0x10); //eXt data - always the same
d.skip(4); //GIDX
d.readInt(); //Always 0x10
tex.HashId = d.readInt();
d.skip(4); // padding align 8
if (Version == 0x100)
{
dataOffset = d.pos();
}
for (byte surfaceLevel = 0; surfaceLevel < surfaceCount; ++surfaceLevel)
{
TextureSurface surface = new TextureSurface();
for (byte mipLevel = 0; mipLevel < mipmapCount; ++mipLevel)
{
byte[] texArray = d.getSection(dataOffset, mipSizes[mipLevel]);
surface.mipmaps.Add(texArray);
dataOffset += mipSizes[mipLevel];
}
tex.surfaces.Add(surface);
}
if (tex.getNutFormat() == 14 || tex.getNutFormat() == 17)
{
tex.SwapChannelOrderUp();
}
headerPtr += headerSize;
Nodes.Add(tex);
}
}
public void ReadNTWU(FileData d)
{
d.seek(0x4);
Version = d.readUShort();
ushort count = d.readUShort();
d.skip(0x8);
int headerPtr = 0x10;
for (ushort i = 0; i < count; ++i)
{
d.seek(headerPtr);
NutTexture tex = new NutTexture();
tex.type = PixelInternalFormat.Rgba32ui;
int totalSize = d.readInt();
d.skip(4);
int dataSize = d.readInt();
int headerSize = d.readUShort();
d.skip(2);
d.skip(1);
byte mipMapCount = d.readByte();
d.skip(1);
tex.setPixelFormatFromNutFormat(d.readByte());
tex.Width = d.readUShort();
tex.Height = d.readUShort();
d.readInt(); //Always 1?
uint caps2 = d.readUInt();
bool isCubemap = false;
byte surfaceCount = 1;
if ((caps2 & (uint)DDS.DDSCAPS2.CUBEMAP) == (uint)DDS.DDSCAPS2.CUBEMAP)
{
//Only supporting all six faces
if ((caps2 & (uint)DDS.DDSCAPS2.CUBEMAP_ALLFACES) == (uint)DDS.DDSCAPS2.CUBEMAP_ALLFACES)
{
isCubemap = true;
surfaceCount = 6;
}
else
{
throw new NotImplementedException($"Unsupported cubemap face amount for texture {i} with hash 0x{tex.HASHID:X}. Six faces are required.");
}
}
int dataOffset = d.readInt() + headerPtr;
int mipDataOffset = d.readInt() + headerPtr;
int gtxHeaderOffset = d.readInt() + headerPtr;
d.readInt();
int cmapSize1 = 0;
int cmapSize2 = 0;
if (isCubemap)
{
cmapSize1 = d.readInt();
cmapSize2 = d.readInt();
d.skip(8);
}
int imageSize = 0; //Total size of first mipmap of every surface
int mipSize = 0; //Total size of mipmaps other than the first of every surface
if (mipMapCount == 1)
{
if (isCubemap)
{
imageSize = cmapSize1;
}
else
{
imageSize = dataSize;
}
}
else
{
imageSize = d.readInt();
mipSize = d.readInt();
d.skip((mipMapCount - 2) * 4);
d.align(0x10);
}
d.skip(0x10); //eXt data - always the same
d.skip(4); //GIDX
d.readInt(); //Always 0x10
tex.HASHID = d.readInt();
d.skip(4); // padding align 8
d.seek(gtxHeaderOffset);
GTX.GX2Surface gtxHeader = new GTX.GX2Surface();
gtxHeader.dim = d.readInt();
gtxHeader.width = d.readInt();
gtxHeader.height = d.readInt();
gtxHeader.depth = d.readInt();
gtxHeader.numMips = d.readInt();
gtxHeader.format = d.readInt();
gtxHeader.aa = d.readInt();
gtxHeader.use = d.readInt();
gtxHeader.imageSize = d.readInt();
gtxHeader.imagePtr = d.readInt();
gtxHeader.mipSize = d.readInt();
gtxHeader.mipPtr = d.readInt();
gtxHeader.tileMode = d.readInt();
gtxHeader.swizzle = d.readInt();
gtxHeader.alignment = d.readInt();
gtxHeader.pitch = d.readInt();
//mipOffsets[0] is not in this list and is simply the start of the data (dataOffset)
//mipOffsets[1] is relative to the start of the data (dataOffset + mipOffsets[1])
//Other mipOffsets are relative to mipOffset[1] (dataOffset + mipOffsets[1] + mipOffsets[i])
int[] mipOffsets = new int[mipMapCount];
mipOffsets[0] = 0;
for (byte mipLevel = 1; mipLevel < mipMapCount; ++mipLevel)
{
mipOffsets[mipLevel] = 0;
mipOffsets[mipLevel] = mipOffsets[1] + d.readInt();
}
for (byte surfaceLevel = 0; surfaceLevel < surfaceCount; ++surfaceLevel)
{
tex.surfaces.Add(new TextureSurface());
}
int w = tex.Width, h = tex.Height;
for (byte mipLevel = 0; mipLevel < mipMapCount; ++mipLevel)
{
int p = gtxHeader.pitch / (gtxHeader.width / w);
int size;
if (mipMapCount == 1)
{
size = imageSize;
}
else if (mipLevel + 1 == mipMapCount)
{
size = (mipSize + mipOffsets[1]) - mipOffsets[mipLevel];
}
else
{
size = mipOffsets[mipLevel + 1] - mipOffsets[mipLevel];
}
size /= surfaceCount;
for (byte surfaceLevel = 0; surfaceLevel < surfaceCount; ++surfaceLevel)
{
gtxHeader.data = d.getSection(dataOffset + mipOffsets[mipLevel] + (size * surfaceLevel), size);
//Real size
//Leave the below line commented for now because it breaks RGBA textures
//size = ((w + 3) >> 2) * ((h + 3) >> 2) * (GTX.getBPP(gtxHeader.format) / 8);
if (size < (GTX.getBPP(gtxHeader.format) / 8))
{
size = (GTX.getBPP(gtxHeader.format) / 8);
}
byte[] deswiz = GTX.swizzleBC(
gtxHeader.data,
w,
h,
gtxHeader.format,
gtxHeader.tileMode,
p,
gtxHeader.swizzle
);
tex.surfaces[surfaceLevel].mipmaps.Add(new FileData(deswiz).getSection(0, size));
}
w /= 2;
h /= 2;
if (w < 1)
{
w = 1;
}
if (h < 1)
{
h = 1;
}
}
headerPtr += headerSize;
Nodes.Add(tex);
}
RefreshGlTexturesByHashId();
//Console.WriteLine("\tMIP: " + size.ToString("x") + " " + dataOffset.ToString("x") + " " + mipSize.ToString("x") + " " + p + " " + (size == 0 ? ds + dataSize - dataOffset : size));
//Console.WriteLine(tex.id.ToString("x") + " " + dataOffset.ToString("x") + " " + mipSize.ToString("x") + " " + p + " " + swizzle);
//Console.WriteLine((tex.width >> mipLevel) + " " + (tex.height >> mipLevel));
//File.WriteAllBytes("C:\\s\\Smash\\extract\\data\\fighter\\duckhunt\\model\\body\\mip1.bin", bytearray);
//Console.WriteLine(GL.GetError());
/*int j = 0;
* foreach(byte[] b in textures[0].mipmaps)
* {
* if (j == 3)
* {
* for(int w = 3; w < 8; w++)
* {
* for (int p = 3; p < 6; p++)
* {
* byte[] deswiz = GTX.swizzleBC(
* b,
* (int)Math.Pow(2, w),
* 64,
* 51,
* 4,
* (int)Math.Pow(2, p),
* 197632
* );
* File.WriteAllBytes("C:\\s\\Smash\\extract\\data\\fighter\\duckhunt\\model\\body\\chunk_" + (int)Math.Pow(2, p) + "_" + (int)Math.Pow(2, w), deswiz);
* }
* }
*
* }
* j++;
* }*/
}