public FConnectivityCube(FArchive Ar)
{
for (int i = 0; i < Faces.Length; i++)
{
// Reference: FArchive& operator<<(FArchive&, TBitArray&)
var numBits = Ar.Read <int>();
var numWords = numBits.DivideAndRoundUp(32);
var data = Ar.ReadArray <int>(numWords);
Faces[i] = new BitArray(data)
{
Length = numBits
};
}
}
// public readonly FHashTable ShaderMapHashTable;
// public readonly FHashTable ShaderHashTable;
public FSerializedShaderArchive(FArchive Ar)
{
ShaderMapHashes = Ar.ReadArray(() => new FSHAHash(Ar));
ShaderHashes = Ar.ReadArray(() => new FSHAHash(Ar));
ShaderMapEntries = Ar.ReadArray <FShaderMapEntry>();
ShaderEntries = Ar.ReadArray <FShaderCodeEntry>();
PreloadEntries = Ar.ReadArray <FFileCachePreloadEntry>();
ShaderIndices = Ar.ReadArray <uint>();
}
public FSkeletalMeshVertexClothBuffer(FArchive Ar)
{
var stripDataFlags = new FStripDataFlags(Ar, (int)UE4Version.VER_UE4_STATIC_SKELETAL_MESH_SERIALIZATION_FIX);
if (stripDataFlags.IsDataStrippedForServer())
{
return;
}
Ar.SkipBulkArrayData();
if (FSkeletalMeshCustomVersion.Get(Ar) >= FSkeletalMeshCustomVersion.Type.CompactClothVertexBuffer)
{
ClothIndexMapping = Ar.ReadArray <ulong>();
}
}
public FSkeletalMeshVertexClothBuffer(FArchive Ar)
{
var stripDataFlags = new FStripDataFlags(Ar, FPackageFileVersion.CreateUE4Version(EUnrealEngineObjectUE4Version.STATIC_SKELETAL_MESH_SERIALIZATION_FIX));
if (stripDataFlags.IsDataStrippedForServer())
{
return;
}
Ar.SkipBulkArrayData();
if (FSkeletalMeshCustomVersion.Get(Ar) >= FSkeletalMeshCustomVersion.Type.CompactClothVertexBuffer)
{
ClothIndexMapping = Ar.ReadArray <ulong>();
}
}
public FModelVertexBuffer(FArchive Ar)
{
if (FRenderingObjectVersion.Get(Ar) < FRenderingObjectVersion.Type.IncreaseNormalPrecision)
{
var deprecatedVertices = Ar.ReadBulkArray <FDeprecatedModelVertex>();
Vertices = new FModelVertex[deprecatedVertices.Length];
for (int i = 0; i < Vertices.Length; i++)
{
Vertices[i] = deprecatedVertices[i];
}
}
else
{
Vertices = Ar.ReadArray(() => new FModelVertex(Ar));
}
}
private static T[] ReadCArrayView <T>(FArchive Ar, Func <T> getter)
{
var initialPos = Ar.Position;
var arrayNum = Ar.Read <int>();
var offsetToDataFromThis = Ar.Read <int>();
if (arrayNum == 0)
{
return(Array.Empty <T>());
}
var continuePos = Ar.Position;
Ar.Position = initialPos + offsetToDataFromThis;
var result = Ar.ReadArray(arrayNum, getter);
Ar.Position = continuePos;
return(result);
}
public FMeshToMeshVertData(FArchive Ar)
{
PositionBaryCoordsAndDist = Ar.Read <FVector4>();
NormalBaryCoordsAndDist = Ar.Read <FVector4>();
TangentBaryCoordsAndDist = Ar.Read <FVector4>();
SourceMeshVertIndices = Ar.ReadArray <short>(4);
if (FReleaseObjectVersion.Get(Ar) < FReleaseObjectVersion.Type.WeightFMeshToMeshVertData)
{
// Old version had "uint32 Padding[2]"
var discard = Ar.Read <uint>();
Padding = Ar.Read <uint>();
}
else
{
// New version has "float Weight and "uint32 Padding"
Weight = Ar.Read <float>();
Padding = Ar.Read <uint>();
}
}
public FStaticMeshComponentLODInfo(FArchive Ar)
{
var stripFlags = new FStripDataFlags(Ar);
if (!stripFlags.IsDataStrippedForServer())
{
MapBuildDataId = Ar.Read <FGuid>();
}
if (!stripFlags.IsClassDataStripped(OverrideColorsStripFlag))
{
var bLoadVertexColorData = Ar.Read <byte>();
if (bLoadVertexColorData == 1)
{
OverrideVertexColors = new FColorVertexBuffer(Ar);
}
}
if (!stripFlags.IsEditorDataStripped())
{
PaintedVertices = Ar.ReadArray(() => new FPaintedVertex(Ar));
}
}
public FWeightedRandomSampler(FArchive Ar)
{
Prob = Ar.ReadArray <float>();
Alias = Ar.ReadArray <int>();
TotalWeight = Ar.Read <float>();
}
public FCompressedOffsetDataBase(FArchive Ar)
{
OffsetData = Ar.ReadArray <T>();
StripSize = Ar.Read <int>();
}
public TEvaluationTreeEntryContainer(FArchive Ar)
{
Entries = Ar.ReadArray <FEntry>();
Items = Ar.ReadArray <T>();
}
public WwiseReader(FArchive Ar)
{
IdToString = new Dictionary <uint, string>();
WwiseEncodedMedias = new Dictionary <string, byte[]>();
while (Ar.Position < Ar.Length)
{
var sectionIdentifier = Ar.Read <ESectionIdentifier>();
var sectionLength = Ar.Read <int>();
var position = Ar.Position;
switch (sectionIdentifier)
{
case ESectionIdentifier.AKPK:
if (!Ar.ReadBoolean())
{
throw new ParserException(Ar, $"'{Ar.Name}' has unsupported endianness.");
}
Ar.Position += 16;
Folders = Ar.ReadArray(() => new AkFolder(Ar));
foreach (var folder in Folders)
{
folder.PopulateName(Ar);
}
foreach (var folder in Folders)
{
folder.Entries = new AkEntry[Ar.Read <uint>()];
for (var i = 0; i < folder.Entries.Length; i++)
{
var entry = new AkEntry(Ar);
entry.Path = Folders[entry.FolderId].Name;
var savePos = Ar.Position;
Ar.Position = entry.Offset;
entry.IsSoundBank = Ar.Read <ESectionIdentifier>() == ESectionIdentifier.BKHD;
Ar.Position -= 4;
entry.Data = Ar.ReadBytes(entry.Size);
Ar.Position = savePos;
folder.Entries[i] = entry;
}
}
break;
case ESectionIdentifier.BKHD:
Header = Ar.Read <BankHeader>();
break;
case ESectionIdentifier.INIT:
Initialization = Ar.ReadArray(() =>
{
Ar.Position += 4;
return(Ar.ReadFString());
});
break;
case ESectionIdentifier.DIDX:
WemIndexes = Ar.ReadArray(sectionLength / 12, Ar.Read <DataIndex>);
break;
case ESectionIdentifier.DATA:
if (WemIndexes == null)
{
break;
}
WemSounds = new byte[WemIndexes.Length][];
for (var i = 0; i < WemSounds.Length; i++)
{
Ar.Position = position + WemIndexes[i].Offset;
WemSounds[i] = Ar.ReadBytes(WemIndexes[i].Length);
WwiseEncodedMedias[WemIndexes[i].Id.ToString()] = WemSounds[i];
}
break;
case ESectionIdentifier.HIRC:
Hierarchy = Ar.ReadArray(() => new Hierarchy(Ar));
break;
case ESectionIdentifier.RIFF:
// read byte[sectionLength] it's simply a wem file
break;
case ESectionIdentifier.STID:
Ar.Position += 4;
var count = Ar.Read <int>();
for (var i = 0; i < count; i++)
{
IdToString[Ar.Read <uint>()] = Ar.ReadString();
}
break;
case ESectionIdentifier.STMG:
break;
case ESectionIdentifier.ENVS:
break;
case ESectionIdentifier.FXPR:
break;
case ESectionIdentifier.PLAT:
Platform = Ar.ReadFString();
break;
default:
#if DEBUG
Log.Warning($"Unknown section {sectionIdentifier:X} at {position - sizeof(uint) - sizeof(uint)}");
#endif
break;
}
if (Ar.Position != position + sectionLength)
{
var shouldBe = position + sectionLength;
#if DEBUG
Log.Warning($"Didn't read 0x{sectionIdentifier:X} correctly (at {Ar.Position}, should be {shouldBe})");
#endif
Ar.Position = shouldBe;
}
}
if (Folders != null)
{
foreach (var folder in Folders)
{
foreach (var entry in folder.Entries)
{
if (entry.IsSoundBank || entry.Data == null)
{
continue;
}
WwiseEncodedMedias[IdToString.TryGetValue(entry.NameHash, out var k) ? k : $"{entry.Path.ToUpper()}_{entry.NameHash}"] = entry.Data;
public FPakEntry(PakFileReader reader, string path, FArchive Ar) : base(reader)
{
Path = path;
// FPakEntry is duplicated before each stored file, without a filename. So,
// remember the serialized size of this structure to avoid recomputation later.
var startOffset = Ar.Position;
Offset = Ar.Read <long>();
CompressedSize = Ar.Read <long>();
UncompressedSize = Ar.Read <long>();
Size = UncompressedSize;
if (reader.Info.Version < EPakFileVersion.PakFile_Version_FNameBasedCompressionMethod)
{
var LegacyCompressionMethod = Ar.Read <ECompressionFlags>();
int CompressionMethodIndex;
if (LegacyCompressionMethod == ECompressionFlags.COMPRESS_None)
{
CompressionMethodIndex = 0;
}
else if (LegacyCompressionMethod == ECompressionFlags.COMPRESS_LZ4)
{
CompressionMethodIndex = 4;
}
else if (LegacyCompressionMethod.HasFlag(ECompressionFlags.COMPRESS_ZLIB))
{
CompressionMethodIndex = 1;
}
else if (LegacyCompressionMethod.HasFlag(ECompressionFlags.COMPRESS_GZIP))
{
CompressionMethodIndex = 2;
}
else if (LegacyCompressionMethod.HasFlag(ECompressionFlags.COMPRESS_Custom))
{
CompressionMethodIndex = 3;
}
else
{
CompressionMethodIndex = -1;
//throw new ParserException("Found an unknown compression type in pak file, will need to be supported for legacy files");
}
CompressionMethod = CompressionMethodIndex == -1 ? CompressionMethod.Unknown : reader.Info.CompressionMethods[CompressionMethodIndex];
}
else if (reader.Info.Version == EPakFileVersion.PakFile_Version_FNameBasedCompressionMethod && !reader.Info.IsSubVersion)
{
CompressionMethod = reader.Info.CompressionMethods[Ar.Read <byte>()];
}
else
{
CompressionMethod = reader.Info.CompressionMethods[Ar.Read <int>()];
}
if (reader.Info.Version < EPakFileVersion.PakFile_Version_NoTimestamps)
{
Ar.Position += 8; // Timestamp
}
Ar.Position += 20; // Hash
if (reader.Info.Version >= EPakFileVersion.PakFile_Version_CompressionEncryption)
{
if (CompressionMethod != CompressionMethod.None)
{
CompressionBlocks = Ar.ReadArray <FPakCompressedBlock>();
}
IsEncrypted = Ar.ReadFlag();
CompressionBlockSize = Ar.Read <uint>();
}
if (reader.Info.Version >= EPakFileVersion.PakFile_Version_RelativeChunkOffsets)
{
// Convert relative compressed offsets to absolute
for (var i = 0; i < CompressionBlocks.Length; i++)
{
CompressionBlocks[i].CompressedStart += Offset;
CompressionBlocks[i].CompressedEnd += Offset;
}
}
StructSize = (int)(Ar.Position - startOffset);
}
internal FPackageFileSummary(FArchive Ar)
{
Tag = Ar.Read <uint>();
/*
* The package file version number when this package was saved.
*
* Lower 16 bits stores the UE3 engine version
* Upper 16 bits stores the UE4/licensee version
* For newer packages this is -7
* -2 indicates presence of enum-based custom versions
* -3 indicates guid-based custom versions
* -4 indicates removal of the UE3 version. Packages saved with this ID cannot be loaded in older engine versions
* -5 indicates the replacement of writing out the "UE3 version" so older versions of engine can gracefully fail to open newer packages
* -6 indicates optimizations to how custom versions are being serialized
* -7 indicates the texture allocation info has been removed from the summary
* -8 indicates that the UE5 version has been added to the summary
*/
const int CurrentLegacyFileVersion = -8;
var legacyFileVersion = CurrentLegacyFileVersion;
if (Tag == PACKAGE_FILE_TAG_ONE) // SOD2, "one"
{
Ar.Game = EGame.GAME_StateOfDecay2;
Ar.Ver = Ar.Game.GetVersion();
legacyFileVersion = Ar.Read <int>(); // seems to be always int.MinValue
bUnversioned = true;
FileVersionUE = Ar.Ver;
CustomVersionContainer = Array.Empty <FCustomVersion>();
FolderName = "None";
PackageFlags = EPackageFlags.PKG_FilterEditorOnly;
goto afterPackageFlags;
}
if (Tag != PACKAGE_FILE_TAG && Tag != PACKAGE_FILE_TAG_SWAPPED)
{
throw new ParserException($"Invalid uasset magic: 0x{Tag:X8} != 0x{PACKAGE_FILE_TAG:X8}");
}
// The package has been stored in a separate endianness than the linker expected so we need to force
// endian conversion. Latent handling allows the PC version to retrieve information about cooked packages.
if (Tag == PACKAGE_FILE_TAG_SWAPPED)
{
// Set proper tag.
//Tag = PACKAGE_FILE_TAG;
// Toggle forced byte swapping.
throw new ParserException("Byte swapping for packages not supported");
}
legacyFileVersion = Ar.Read <int>();
if (legacyFileVersion < 0) // means we have modern version numbers
{
if (legacyFileVersion < CurrentLegacyFileVersion)
{
// we can't safely load more than this because the legacy version code differs in ways we can not predict.
// Make sure that the linker will fail to load with it.
FileVersionUE.Reset();
FileVersionLicenseeUE = 0;
throw new ParserException("Can't load legacy UE3 file");
}
if (legacyFileVersion != -4)
{
var legacyUE3Version = Ar.Read <int>();
}
FileVersionUE.FileVersionUE4 = Ar.Read <int>();
if (legacyFileVersion <= -8)
{
FileVersionUE.FileVersionUE5 = Ar.Read <int>();
}
FileVersionLicenseeUE = Ar.Read <EUnrealEngineObjectLicenseeUEVersion>();
CustomVersionContainer = legacyFileVersion <= -2 ? Ar.ReadArray <FCustomVersion>() : Array.Empty <FCustomVersion>();
if (Ar.Versions.CustomVersions == null && CustomVersionContainer.Length > 0)
{
Ar.Versions.CustomVersions = CustomVersionContainer.ToList();
}
if (FileVersionUE.FileVersionUE4 == 0 && FileVersionUE.FileVersionUE5 == 0 && FileVersionLicenseeUE == 0)
{
// this file is unversioned, remember that, then use current versions
bUnversioned = true;
FileVersionUE = Ar.Ver;
FileVersionLicenseeUE = EUnrealEngineObjectLicenseeUEVersion.VER_LIC_AUTOMATIC_VERSION;
}
else
{
bUnversioned = false;
// Only apply the version if an explicit version is not set
if (!Ar.Versions.bExplicitVer)
{
Ar.Ver = FileVersionUE;
}
}
}
else
{
// This is probably an old UE3 file, make sure that the linker will fail to load with it.
throw new ParserException("Can't load legacy UE3 file");
}
TotalHeaderSize = Ar.Read <int>();
FolderName = Ar.ReadFString();
PackageFlags = Ar.Read <EPackageFlags>();
/*if (PackageFlags.HasFlag(EPackageFlags.PKG_FilterEditorOnly))
* {
* TODO Ar.SetFilterEditorOnly(true);
* }*/
afterPackageFlags:
NameCount = Ar.Read <int>();
NameOffset = Ar.Read <int>();
if (!PackageFlags.HasFlag(EPackageFlags.PKG_FilterEditorOnly))
{
if (FileVersionUE >= EUnrealEngineObjectUE4Version.ADDED_PACKAGE_SUMMARY_LOCALIZATION_ID)
{
LocalizationId = Ar.ReadFString();
}
}
if (FileVersionUE >= EUnrealEngineObjectUE4Version.SERIALIZE_TEXT_IN_PACKAGES)
{
GatherableTextDataCount = Ar.Read <int>();
GatherableTextDataOffset = Ar.Read <int>();
}
ExportCount = Ar.Read <int>();
ExportOffset = Ar.Read <int>();
ImportCount = Ar.Read <int>();
ImportOffset = Ar.Read <int>();
DependsOffset = Ar.Read <int>();
if (FileVersionUE < EUnrealEngineObjectUE4Version.OLDEST_LOADABLE_PACKAGE || FileVersionUE > EUnrealEngineObjectUE4Version.AUTOMATIC_VERSION)
{
Generations = Array.Empty <FGenerationInfo>();
ChunkIds = Array.Empty <int>();
return; // we can't safely load more than this because the below was different in older files.
}
if (FileVersionUE >= EUnrealEngineObjectUE4Version.ADD_STRING_ASSET_REFERENCES_MAP)
{
SoftPackageReferencesCount = Ar.Read <int>();
SoftPackageReferencesOffset = Ar.Read <int>();
}
if (FileVersionUE >= EUnrealEngineObjectUE4Version.ADDED_SEARCHABLE_NAMES)
{
SearchableNamesOffset = Ar.Read <int>();
}
ThumbnailTableOffset = Ar.Read <int>();
if (Ar.Game == EGame.GAME_Valorant)
{
Ar.Position += 8;
}
Guid = Ar.Read <FGuid>();
if (!PackageFlags.HasFlag(EPackageFlags.PKG_FilterEditorOnly))
{
if (FileVersionUE >= EUnrealEngineObjectUE4Version.ADDED_PACKAGE_OWNER)
{
PersistentGuid = Ar.Read <FGuid>();
}
else
{
// By assigning the current package guid, we maintain a stable persistent guid, so we can reference this package even if it wasn't resaved.
PersistentGuid = Guid;
}
// The owner persistent guid was added in VER_UE4_ADDED_PACKAGE_OWNER but removed in the next version VER_UE4_NON_OUTER_PACKAGE_IMPORT
if (FileVersionUE >= EUnrealEngineObjectUE4Version.ADDED_PACKAGE_OWNER && FileVersionUE < EUnrealEngineObjectUE4Version.NON_OUTER_PACKAGE_IMPORT)
{
var ownerPersistentGuid = Ar.Read <FGuid>();
}
}
Generations = Ar.ReadArray <FGenerationInfo>();
if (FileVersionUE >= EUnrealEngineObjectUE4Version.ENGINE_VERSION_OBJECT)
{
SavedByEngineVersion = new FEngineVersion(Ar);
FixCorruptEngineVersion(FileVersionUE, SavedByEngineVersion);
}
else
{
var engineChangelist = Ar.Read <int>();
if (engineChangelist != 0)
{
SavedByEngineVersion = new FEngineVersion(4, 0, 0, (uint)engineChangelist, string.Empty);
}
}
if (FileVersionUE >= EUnrealEngineObjectUE4Version.PACKAGE_SUMMARY_HAS_COMPATIBLE_ENGINE_VERSION)
{
CompatibleWithEngineVersion = new FEngineVersion(Ar);
FixCorruptEngineVersion(FileVersionUE, CompatibleWithEngineVersion);
}
else
{
CompatibleWithEngineVersion = SavedByEngineVersion;
}
public FCardRepresentationData(FArchive Ar)
{
Bounds = Ar.Read <FBox>();
MaxLodLevel = Ar.Read <int>();
CardBuildData = Ar.ReadArray <FLumenCardBuildData>();
}
public FVolumetricLightmapDataLayer(FArchive Ar)
{
Data = Ar.ReadArray <byte>();
}
public readonly FStaticMeshUVItem[] UV; // TangentsData ?
public FStaticMeshVertexBuffer(FArchive Ar)
{
var stripDataFlags = new FStripDataFlags(Ar, FPackageFileVersion.CreateUE4Version(EUnrealEngineObjectUE4Version.STATIC_SKELETAL_MESH_SERIALIZATION_FIX));
// SerializeMetaData
NumTexCoords = Ar.Read <int>();
Strides = Ar.Game < EGame.GAME_UE4_19 ? Ar.Read <int>() : -1;
NumVertices = Ar.Read <int>();
UseFullPrecisionUVs = Ar.ReadBoolean();
UseHighPrecisionTangentBasis = Ar.Game >= EGame.GAME_UE4_12 && Ar.ReadBoolean();
if (!stripDataFlags.IsDataStrippedForServer())
{
if (Ar.Game < EGame.GAME_UE4_19)
{
UV = Ar.ReadBulkArray(() => new FStaticMeshUVItem(Ar, UseHighPrecisionTangentBasis, NumTexCoords, UseFullPrecisionUVs));
}
else
{
var tempTangents = Array.Empty <FPackedNormal[]>();
if (Ar.Game == EGame.GAME_StarWarsJediFallenOrder && Ar.ReadBoolean()) // bDropNormals
{
goto texture_coordinates;
}
// BulkSerialize
var itemSize = Ar.Read <int>();
var itemCount = Ar.Read <int>();
var position = Ar.Position;
if (itemCount != NumVertices)
{
throw new ParserException($"NumVertices={itemCount} != NumVertices={NumVertices}");
}
tempTangents = Ar.ReadArray(NumVertices, () => FStaticMeshUVItem.SerializeTangents(Ar, UseHighPrecisionTangentBasis));
if (Ar.Position - position != itemCount * itemSize)
{
throw new ParserException($"Read incorrect amount of tangent bytes, at {Ar.Position}, should be: {position + itemSize * itemCount} behind: {position + (itemSize * itemCount) - Ar.Position}");
}
texture_coordinates:
itemSize = Ar.Read <int>();
itemCount = Ar.Read <int>();
position = Ar.Position;
if (itemCount != NumVertices * NumTexCoords)
{
throw new ParserException($"NumVertices={itemCount} != {NumVertices * NumTexCoords}");
}
var uv = Ar.ReadArray(NumVertices, () => FStaticMeshUVItem.SerializeTexcoords(Ar, NumTexCoords, UseFullPrecisionUVs));
if (Ar.Position - position != itemCount * itemSize)
{
throw new ParserException($"Read incorrect amount of Texture Coordinate bytes, at {Ar.Position}, should be: {position + itemSize * itemCount} behind: {position + (itemSize * itemCount) - Ar.Position}");
}
UV = new FStaticMeshUVItem[NumVertices];
for (var i = 0; i < NumVertices; i++)
{
if (Ar.Game == EGame.GAME_StarWarsJediFallenOrder && tempTangents.Length == 0)
{
UV[i] = new FStaticMeshUVItem(new [] { new FPackedNormal(0), new FPackedNormal(0), new FPackedNormal(0) }, uv[i]);
}
else
{
UV[i] = new FStaticMeshUVItem(tempTangents[i], uv[i]);
}
}
}
}
else
{
UV = Array.Empty <FStaticMeshUVItem>();
}
}
public readonly FStaticMeshUVItem[] UV; // TangentsData ?
public FStaticMeshVertexBuffer(FArchive Ar)
{
var stripDataFlags = new FStripDataFlags(Ar, (int)UE4Version.VER_UE4_STATIC_SKELETAL_MESH_SERIALIZATION_FIX);
// SerializeMetaData
NumTexCoords = Ar.Read <int>();
Strides = Ar.Game < EGame.GAME_UE4_19 ? Ar.Read <int>() : -1;
NumVertices = Ar.Read <int>();
UseFullPrecisionUVs = Ar.ReadBoolean();
UseHighPrecisionTangentBasis = Ar.Game >= EGame.GAME_UE4_12 && Ar.ReadBoolean();
if (!stripDataFlags.IsDataStrippedForServer())
{
if (Ar.Game < EGame.GAME_UE4_19)
{
UV = Ar.ReadBulkArray(() => new FStaticMeshUVItem(Ar, UseHighPrecisionTangentBasis, NumTexCoords, UseFullPrecisionUVs));
}
else
{
// BulkSerialize
var itemSize = Ar.Read <int>();
var itemCount = Ar.Read <int>();
var position = Ar.Position;
if (itemCount != NumVertices)
{
throw new ParserException($"NumVertices={itemCount} != NumVertices={NumVertices}");
}
var tempTangents = Ar.ReadArray(NumVertices, () => FStaticMeshUVItem.SerializeTangents(Ar, UseHighPrecisionTangentBasis));
if (Ar.Position - position != itemCount * itemSize)
{
throw new ParserException($"Read incorrect amount of tangent bytes, at {Ar.Position}, should be: {position + itemSize * itemCount} behind: {position + (itemSize * itemCount) - Ar.Position}");
}
itemSize = Ar.Read <int>();
itemCount = Ar.Read <int>();
position = Ar.Position;
if (itemCount != NumVertices * NumTexCoords)
{
throw new ParserException($"NumVertices={itemCount} != {NumVertices * NumTexCoords}");
}
var uv = Ar.ReadArray(NumVertices, () => FStaticMeshUVItem.SerializeTexcoords(Ar, NumTexCoords, UseFullPrecisionUVs));
if (Ar.Position - position != itemCount * itemSize)
{
throw new ParserException($"Read incorrect amount of Texture Coordinate bytes, at {Ar.Position}, should be: {position + itemSize * itemCount} behind: {position + (itemSize * itemCount) - Ar.Position}");
}
UV = new FStaticMeshUVItem[NumVertices];
for (var i = 0; i < NumVertices; i++)
{
UV[i] = new FStaticMeshUVItem(tempTangents[i], uv[i]);
}
}
}
else
{
UV = new FStaticMeshUVItem[0];
}
}
public byte Frequency; // Enum
public FShaderEntry(FArchive Ar)
{
Code = Ar.ReadArray <byte>();
UncompressedSize = Ar.Read <int>();
Frequency = Ar.Read <byte>();
}
public FShaderMapResourceCode(FArchive Ar)
{
ResourceHash = new FSHAHash(Ar);
ShaderHashes = Ar.ReadArray(() => new FSHAHash(Ar));
ShaderEntries = Ar.ReadArray(() => new FShaderEntry(Ar));
}
public FFontFaceData(FArchive Ar)
{
Data = Ar.ReadArray <byte>();
}
public FLightMap(FArchive Ar)
{
LightGuids = Ar.ReadArray <FGuid>();
}
