public static CR2WFile FromCResource(this CR2WFile file, CResource res, bool cooked = false)
{
// checks to see if the variable from which the chunk is built is properly constructed
if (res == null || res.REDName != res.REDType || res.ParentVar != null)
{
throw new NotImplementedException();
}
file.CreateChunk(res);
return(file);
}
void Write(FileInfo f)
{
CR2WFile cr2w = new CR2WFile();
{
var blob = new Multilayer_Mask(cr2w, null, "Multilayer_Mask")
{
IsSerialized = true
};
blob.CookingPlatform = new CEnum <Enums.ECookingPlatform>(cr2w, blob, "cookingPlatform")
{
IsSerialized = true, Value = Enums.ECookingPlatform.PLATFORM_PC
};
blob.CookingPlatform.EnumValueList.Add("PLATFORM_PC");
blob.RenderResourceBlob.RenderResourceBlobPC = new CHandle <IRenderResourceBlob>(cr2w, blob.RenderResourceBlob, "renderResourceBlobPC")
{
IsSerialized = true
};
cr2w.CreateChunk(blob, 0);
}
{
var blob = new rendRenderMultilayerMaskBlobPC(cr2w, null, "rendRenderMultilayerMaskBlobPC")
{
IsSerialized = true
};
blob.Header = new rendRenderMultilayerMaskBlobHeader(cr2w, blob, "header")
{
IsSerialized = true
};
blob.Header.Version = new CUInt32(cr2w, blob.Header, "version")
{
IsSerialized = true, Value = 3
};
blob.Header.AtlasWidth = new CUInt32(cr2w, blob.Header, "atlasWidth")
{
IsSerialized = true, Value = mlmask._atlasWidth
};
blob.Header.AtlasHeight = new CUInt32(cr2w, blob.Header, "atlasHeight")
{
IsSerialized = true, Value = mlmask._atlasHeight
};
blob.Header.NumLayers = new CUInt32(cr2w, blob.Header, "numLayers")
{
IsSerialized = true, Value = (uint)mlmask.layers.Length
};
blob.Header.MaskWidth = new CUInt32(cr2w, blob.Header, "maskWidth")
{
IsSerialized = true, Value = mlmask._widthHigh
};
blob.Header.MaskHeight = new CUInt32(cr2w, blob.Header, "maskHeight")
{
IsSerialized = true, Value = mlmask._heightHigh
};
blob.Header.MaskWidthLow = new CUInt32(cr2w, blob.Header, "maskWidthLow")
{
IsSerialized = true, Value = mlmask._widthLow
};
blob.Header.MaskHeightLow = new CUInt32(cr2w, blob.Header, "maskHeightLow")
{
IsSerialized = true, Value = mlmask._heightLow
};
blob.Header.MaskTileSize = new CUInt32(cr2w, blob.Header, "maskTileSize")
{
IsSerialized = true, Value = mlmask._tileSize
};
blob.Header.Flags = new CUInt32(cr2w, blob.Header, "flags")
{
IsSerialized = true, Value = 2
};
blob.AtlasData = new serializationDeferredDataBuffer(cr2w, blob, "atlasData")
{
IsSerialized = true
};
blob.AtlasData.Buffer = new CUInt16(cr2w, blob.AtlasData, "Buffer")
{
IsSerialized = true, Value = 1
};
blob.TilesData = new serializationDeferredDataBuffer(cr2w, blob, "tilesData")
{
IsSerialized = true
};
blob.TilesData.Buffer = new CUInt16(cr2w, blob.TilesData, "Buffer")
{
IsSerialized = true, Value = 2
};
cr2w.CreateChunk(blob, 1);
}
(cr2w.Chunks[0].Data as Multilayer_Mask).RenderResourceBlob.RenderResourceBlobPC.SetReference(cr2w.Chunks[1]);
//test write
var ms = new MemoryStream();
var bw = new BinaryWriter(ms);
using (var compressed = new MemoryStream())
{
using var buff = new BinaryWriter(compressed);
var(zsize, crc) = buff.CompressAndWrite(mlmask._AtlasBuffer);
cr2w.Buffers.Add(new CR2WBufferWrapper(new CR2WBuffer()
{
flags = 0,
index = 0,
offset = 0,
diskSize = zsize,
memSize = (UInt32)mlmask._AtlasBuffer.Length,
crc32 = crc
}));
cr2w.Buffers[0].ReadData(new BinaryReader(compressed));
// to get offset
cr2w.Write(bw);
cr2w.Buffers[0].Offset = (uint)ms.Length;
}
using (var compressed = new MemoryStream())
{
using var buff = new BinaryWriter(compressed);
var(zsize, crc) = buff.CompressAndWrite(mlmask._tilesBuffer);
cr2w.Buffers.Add(new CR2WBufferWrapper(new CR2WBuffer()
{
flags = 0,
index = 1,
offset = 0,
diskSize = zsize,
memSize = (UInt32)mlmask._tilesBuffer.Length,
crc32 = crc
}));
cr2w.Buffers[1].ReadData(new BinaryReader(compressed));
cr2w.Buffers[1].Offset = cr2w.Buffers[0].Offset + cr2w.Buffers[0].DiskSize;
}
cr2w.Write(bw);
if (!Directory.Exists(f.Directory.FullName))
{
Directory.CreateDirectory(f.Directory.FullName);
}
File.WriteAllBytes(f.FullName, ms.ToArray());
}
public bool WriteMatToMesh(ref CR2WFile cr2w, string _matData)
{
if (cr2w == null || !cr2w.Chunks.Select(_ => _.Data).OfType <CMesh>().Any() || !cr2w.Chunks.Select(_ => _.Data).OfType <rendRenderMeshBlob>().Any() || cr2w.Buffers.Count < 1)
{
return(false);
}
var obj = JsonConvert.DeserializeObject <MatData>(_matData);
var materialbuffer = new MemoryStream();
List <UInt32> offsets = new List <UInt32>();
List <UInt32> sizes = new List <UInt32>();
List <string> names = new List <string>();
if (obj.Materials.Count < 1)
{
return(false);
}
for (int i = 0; i < obj.Materials.Count; i++)
{
var mat = obj.Materials[i];
names.Add(mat.Name);
CR2WFile mi = new CR2WFile();
{
var chunk = new CMaterialInstance(mi, null, "CMaterialInstance")
{
IsSerialized = true
};
chunk.CookingPlatform = new CEnum <Enums.ECookingPlatform>(mi, chunk, "cookingPlatform")
{
IsSerialized = true, Value = Enums.ECookingPlatform.PLATFORM_PC
};
chunk.CookingPlatform.EnumValueList.Add("PLATFORM_PC");
chunk.ResourceVersion = new CUInt8(mi, chunk, "resourceVersion")
{
IsSerialized = true, Value = 4
};
chunk.BaseMaterial = new rRef <IMaterial>(mi, chunk, "baseMaterial")
{
IsSerialized = true, DepotPath = mat.BaseMaterial
};
chunk.CMaterialInstanceData = new CArray <CVariantSizeNameType>(mi, chunk, "CMaterialInstanceData")
{
IsSerialized = true
};
mi.CreateChunk(chunk, 0);
}
MATERIAL.WriteMatToMeshEnum(ref mi, ref mat);
offsets.Add((UInt32)materialbuffer.Position);
var m = new MemoryStream();
var b = new BinaryWriter(m);
mi.Write(b);
materialbuffer.Write(m.ToArray(), 0, (int)m.Length);
sizes.Add((UInt32)m.Length);
}
var blob = cr2w.Chunks.Select(_ => _.Data).OfType <CMesh>().First();
// remove existing data
while (blob.MaterialEntries.Count != 0)
{
blob.MaterialEntries.Remove(blob.MaterialEntries[blob.MaterialEntries.Count - 1]);
}
while (blob.LocalMaterialBuffer.RawDataHeaders.Count != 0)
{
blob.LocalMaterialBuffer.RawDataHeaders.Remove(blob.LocalMaterialBuffer.RawDataHeaders[blob.LocalMaterialBuffer.RawDataHeaders.Count - 1]);
}
while (blob.PreloadLocalMaterialInstances.Count != 0)
{
blob.PreloadLocalMaterialInstances.Remove(blob.PreloadLocalMaterialInstances[blob.PreloadLocalMaterialInstances.Count - 1]);
}
while (blob.PreloadExternalMaterials.Count != 0)
{
blob.PreloadExternalMaterials.Remove(blob.PreloadExternalMaterials[blob.PreloadExternalMaterials.Count - 1]);
}
while (blob.ExternalMaterials.Count != 0)
{
blob.ExternalMaterials.Remove(blob.ExternalMaterials[blob.ExternalMaterials.Count - 1]);
}
while (blob.LocalMaterialInstances.Count != 0)
{
blob.LocalMaterialInstances.Remove(blob.LocalMaterialInstances[blob.LocalMaterialInstances.Count - 1]);
}
//
for (int i = 0; i < names.Count; i++)
{
var c = new CMeshMaterialEntry(cr2w, blob.MaterialEntries, Convert.ToString(i))
{
IsSerialized = true,
};
c.IsLocalInstance = new CBool(cr2w, c, "isLocalInstance")
{
Value = true, IsSerialized = true
};
c.Name = new CName(cr2w, c, "name")
{
Value = names[i], IsSerialized = true
};
c.Index = new CUInt16(cr2w, c, "index")
{
Value = (UInt16)i, IsSerialized = true
};
blob.MaterialEntries.Add(c);
var m = new meshLocalMaterialHeader(cr2w, blob.LocalMaterialBuffer.RawDataHeaders, Convert.ToString(i))
{
IsSerialized = true
};
m.Offset = new CUInt32(cr2w, m, "offset")
{
Value = offsets[i], IsSerialized = true
};
m.Size = new CUInt32(cr2w, m, "size")
{
Value = sizes[i], IsSerialized = true
};
blob.LocalMaterialBuffer.RawDataHeaders.Add(m);
}
var compressed = new MemoryStream();
using var buff = new BinaryWriter(compressed);
var(zsize, crc) = buff.CompressAndWrite(materialbuffer.ToArray());
bool check = false;
check = blob.LocalMaterialBuffer.RawData.IsSerialized;
if (!check)
{
blob.LocalMaterialBuffer.RawData = new DataBuffer(cr2w, blob.LocalMaterialBuffer, "rawData")
{
IsSerialized = true
};
blob.LocalMaterialBuffer.RawData.Buffer = new CUInt16(cr2w, blob.LocalMaterialBuffer.RawData, "Buffer")
{
Value = (UInt16)(cr2w.Buffers.Count + 1), IsSerialized = true
};
uint idx = (uint)cr2w.Buffers.Count;
cr2w.Buffers.Add(new CR2WBufferWrapper(new CR2WBuffer()
{
flags = 0,
index = idx,
offset = 0,
diskSize = zsize,
memSize = (UInt32)materialbuffer.Length,
crc32 = crc
}));
cr2w.Buffers[(int)idx].ReadData(new BinaryReader(compressed));
cr2w.Buffers[(int)idx].Offset = cr2w.Buffers[(int)idx - 1].Offset + cr2w.Buffers[(int)idx - 1].DiskSize;
}
else
{
UInt16 p = (blob.LocalMaterialBuffer.RawData.Buffer.Value);
cr2w.Buffers[p - 1].DiskSize = zsize;
cr2w.Buffers[p - 1].Crc32 = crc;
cr2w.Buffers[p - 1].MemSize = (UInt32)materialbuffer.Length;
var off = cr2w.Buffers[p - 1].Offset;
cr2w.Buffers[p - 1].Offset = 0;
cr2w.Buffers[p - 1].ReadData(new BinaryReader(compressed));
cr2w.Buffers[p - 1].Offset = off;
}
return(true);
}
public bool WriteMatToMesh(ref CR2WFile cr2w, string _matData, List <Archive> archives)
{
if (cr2w == null || !cr2w.Chunks.Select(_ => _.Data).OfType <CMesh>().Any() || !cr2w.Chunks.Select(_ => _.Data).OfType <rendRenderMeshBlob>().Any() || cr2w.Buffers.Count < 1)
{
return(false);
}
var matData = JsonConvert.DeserializeObject <MatData>(_matData);
var materialbuffer = new MemoryStream();
List <UInt32> offsets = new List <UInt32>();
List <UInt32> sizes = new List <UInt32>();
List <string> names = new List <string>();
if (matData.Materials.Count < 1)
{
return(false);
}
Dictionary <string, CMaterialTemplate> mts = new Dictionary <string, CMaterialTemplate>();
for (int i = 0; i < matData.Materials.Count; i++)
{
var mat = matData.Materials[i];
names.Add(mat.Name);
CR2WFile mi = new CR2WFile();
{
var chunk = new CMaterialInstance(mi, null, "CMaterialInstance")
{
IsSerialized = true
};
chunk.CookingPlatform = new CEnum <Enums.ECookingPlatform>(mi, chunk, "cookingPlatform")
{
IsSerialized = true, Value = Enums.ECookingPlatform.PLATFORM_PC
};
chunk.CookingPlatform.EnumValueList.Add("PLATFORM_PC");
chunk.EnableMask = new CBool(mi, chunk, "enableMask")
{
IsSerialized = true, Value = true
};
chunk.ResourceVersion = new CUInt8(mi, chunk, "resourceVersion")
{
IsSerialized = true, Value = 4
};
chunk.BaseMaterial = new rRef <IMaterial>(mi, chunk, "baseMaterial")
{
IsSerialized = true, DepotPath = mat.BaseMaterial
};
chunk.CMaterialInstanceData = new CArray <CVariantSizeNameType>(mi, chunk, "CMaterialInstanceData")
{
IsSerialized = true
};
CMaterialTemplate mt = null;
if (mts.ContainsKey(mat.MaterialTemplate))
{
mt = mts[mat.MaterialTemplate];
}
else
{
ulong hash = FNV1A64HashAlgorithm.HashString(mat.MaterialTemplate);
foreach (Archive ar in archives)
{
if (ar.Files.ContainsKey(hash))
{
var ms = new MemoryStream();
ModTools.ExtractSingleToStream(ar, hash, ms);
mt = _wolvenkitFileService.TryReadRED4File(ms).Chunks.Select(_ => _.Data).OfType <CMaterialTemplate>().First();
mts.Add(mat.MaterialTemplate, mt);
break;
}
}
}
var keys = matData.Materials[i].Data.Keys.ToList();
if (mt != null)
{
for (int j = 0; j < keys.Count; j++)
{
string typename = null;
for (int k = 0; k < mt.Parameters[2].Count; k++)
{
var refer = mt.Parameters[2][k].GetReference().Data;
if ((refer.ChildrEditableVariables[0] as CName).Value == keys[j])
{
if (refer.ChildrEditableVariables.Count > 2)
{
typename = refer.ChildrEditableVariables[2].REDType;
}
}
}
if (typename != null)
{
// remove when setfromobj deserialization is fixed
if (typename == "Color")
{
CColor_ value0 = new CColor_(new CR2WFile(), null, keys[j]);
value0.IsSerialized = true;
value0.SetFromJObject(matData.Materials[i].Data[keys[j]]);
var variant = new CVariantSizeNameType(mi, chunk.CMaterialInstanceData, keys[j]);
CColor value = new CColor(mi, variant, keys[j]);
value.IsSerialized = true;
value.Red = new CUInt8(mi, value, "Red")
{
IsSerialized = true, Value = value0.Red.Value
};
value.Green = new CUInt8(mi, value, "Green")
{
IsSerialized = true, Value = value0.Green.Value
};
value.Blue = new CUInt8(mi, value, "Blue")
{
IsSerialized = true, Value = value0.Blue.Value
};
value.Alpha = new CUInt8(mi, value, "Alpha")
{
IsSerialized = true, Value = value0.Alpha.Value
};
variant.SetVariant(value);
chunk.CMaterialInstanceData.Add(variant);
}
else
{
var variant = new CVariantSizeNameType(mi, chunk.CMaterialInstanceData, keys[j]);
var value = CR2WTypeManager.Create(typename, keys[j], mi, variant);
value.IsSerialized = true;
value.SetFromJObject(matData.Materials[i].Data[keys[j]]);
variant.SetVariant(value);
chunk.CMaterialInstanceData.Add(variant);
}
}
}
}
mi.CreateChunk(chunk, 0);
}
offsets.Add((UInt32)materialbuffer.Position);
var m = new MemoryStream();
var b = new BinaryWriter(m);
mi.Write(b);
materialbuffer.Write(m.ToArray(), 0, (int)m.Length);
sizes.Add((UInt32)m.Length);
}
var blob = cr2w.Chunks.Select(_ => _.Data).OfType <CMesh>().First();
// remove existing data
while (blob.MaterialEntries.Count != 0)
{
blob.MaterialEntries.Remove(blob.MaterialEntries[blob.MaterialEntries.Count - 1]);
}
while (blob.LocalMaterialBuffer.RawDataHeaders.Count != 0)
{
blob.LocalMaterialBuffer.RawDataHeaders.Remove(blob.LocalMaterialBuffer.RawDataHeaders[blob.LocalMaterialBuffer.RawDataHeaders.Count - 1]);
}
while (blob.PreloadLocalMaterialInstances.Count != 0)
{
blob.PreloadLocalMaterialInstances.Remove(blob.PreloadLocalMaterialInstances[blob.PreloadLocalMaterialInstances.Count - 1]);
}
while (blob.PreloadExternalMaterials.Count != 0)
{
blob.PreloadExternalMaterials.Remove(blob.PreloadExternalMaterials[blob.PreloadExternalMaterials.Count - 1]);
}
while (blob.ExternalMaterials.Count != 0)
{
blob.ExternalMaterials.Remove(blob.ExternalMaterials[blob.ExternalMaterials.Count - 1]);
}
while (blob.LocalMaterialInstances.Count != 0)
{
blob.LocalMaterialInstances.Remove(blob.LocalMaterialInstances[blob.LocalMaterialInstances.Count - 1]);
}
//
for (int i = 0; i < names.Count; i++)
{
var c = new CMeshMaterialEntry(cr2w, blob.MaterialEntries, Convert.ToString(i))
{
IsSerialized = true,
};
c.IsLocalInstance = new CBool(cr2w, c, "isLocalInstance")
{
Value = true, IsSerialized = true
};
c.Name = new CName(cr2w, c, "name")
{
Value = names[i], IsSerialized = true
};
c.Index = new CUInt16(cr2w, c, "index")
{
Value = (UInt16)i, IsSerialized = true
};
blob.MaterialEntries.Add(c);
var m = new meshLocalMaterialHeader(cr2w, blob.LocalMaterialBuffer.RawDataHeaders, Convert.ToString(i))
{
IsSerialized = true
};
m.Offset = new CUInt32(cr2w, m, "offset")
{
Value = offsets[i], IsSerialized = true
};
m.Size = new CUInt32(cr2w, m, "size")
{
Value = sizes[i], IsSerialized = true
};
blob.LocalMaterialBuffer.RawDataHeaders.Add(m);
}
var compressed = new MemoryStream();
using var buff = new BinaryWriter(compressed);
var(zsize, crc) = buff.CompressAndWrite(materialbuffer.ToArray());
bool check = false;
check = blob.LocalMaterialBuffer.RawData.IsSerialized;
if (!check)
{
blob.LocalMaterialBuffer.RawData = new DataBuffer(cr2w, blob.LocalMaterialBuffer, "rawData")
{
IsSerialized = true
};
blob.LocalMaterialBuffer.RawData.Buffer = new CUInt16(cr2w, blob.LocalMaterialBuffer.RawData, "Buffer")
{
Value = (UInt16)(cr2w.Buffers.Count + 1), IsSerialized = true
};
uint idx = (uint)cr2w.Buffers.Count;
cr2w.Buffers.Add(new CR2WBufferWrapper(new CR2WBuffer()
{
flags = 0,
index = idx,
offset = 0,
diskSize = zsize,
memSize = (UInt32)materialbuffer.Length,
crc32 = crc
}));
cr2w.Buffers[(int)idx].ReadData(new BinaryReader(compressed));
cr2w.Buffers[(int)idx].Offset = cr2w.Buffers[(int)idx - 1].Offset + cr2w.Buffers[(int)idx - 1].DiskSize;
}
else
{
UInt16 p = (blob.LocalMaterialBuffer.RawData.Buffer.Value);
cr2w.Buffers[p - 1].DiskSize = zsize;
cr2w.Buffers[p - 1].Crc32 = crc;
cr2w.Buffers[p - 1].MemSize = (UInt32)materialbuffer.Length;
var off = cr2w.Buffers[p - 1].Offset;
cr2w.Buffers[p - 1].Offset = 0;
cr2w.Buffers[p - 1].ReadData(new BinaryReader(compressed));
cr2w.Buffers[p - 1].Offset = off;
}
return(true);
}