void IBinarySerializable.Read(EndianBinaryReader reader, object context)
{
var vertexCount = ( short )context;
Positions = reader.ReadVector3Array(vertexCount);
reader.Align(16);
Normals = reader.ReadVector3Array(vertexCount);
reader.Align(16);
}
internal override void ReadContent(EndianBinaryReader reader, IOContext context)
{
var textureCount = reader.ReadInt32();
long nextTextureOffset = 0;
for (int i = 0; i < textureCount; i++)
{
// Some files have broken offsets (f021_aljira.PB), so we must calculate them ourselves
var offset = reader.ReadInt32();
var nextOffset = reader.Position;
if (i == 0)
{
reader.SeekBegin(offset + reader.BaseOffset);
}
else
{
reader.SeekBegin(nextTextureOffset);
}
Textures.Add(reader.ReadObject <Texture>());
reader.Align(64);
if ((i + 1) != textureCount)
{
nextTextureOffset = reader.Position;
reader.SeekBegin(nextOffset);
}
}
// Make sure we end at the end of the last texture
}
protected override void Read(EndianBinaryReader reader)
{
var vifCodeStreamSize = reader.ReadInt16();
MaterialIndex = reader.ReadInt16();
var vifCodeStreamOffset = reader.ReadInt32();
var usedNodeCount = reader.ReadInt16();
var field0A = reader.ReadInt16Expects(0, "Field0A is not 0");
var usedNodes = reader.ReadInt16Array(usedNodeCount);
Trace.Assert(usedNodeCount > 0 && usedNodeCount <= 4);
reader.ReadAtOffset(vifCodeStreamOffset, () =>
{
var vifCodeStreamEnd = reader.Position + (vifCodeStreamSize * 16);
while (reader.Position < vifCodeStreamEnd)
{
var vifTag = reader.ReadObject <VifTag>();
if (vifTag.Command == 0 && AlignmentHelper.Align(reader.Position, 16) == vifCodeStreamEnd)
{
// Stream padding, stop reading
break;
}
reader.SeekCurrent(-VifTag.SIZE);
Batches.Add(reader.ReadObject <MeshType2Batch>(usedNodes));
}
});
reader.Align(16);
}
void IBinarySerializable.Read(EndianBinaryReader reader, object context)
{
(short vertexCount, short nodeIndex) = ((short, short))context;
NodeIndex = nodeIndex;
Positions = reader.ReadVector4Array(vertexCount);
Normals = reader.ReadVector3Array(vertexCount);
reader.Align(16);
}
protected void Load()
{
using (var stream = new MemoryStream(RawData))
using (var reader = new EndianBinaryReader(stream, Endian))
{
var nameLength = reader.ReadInt32();
Name = System.Text.Encoding.ASCII.GetString(reader.ReadBytes(nameLength));
reader.Align(4);
Id = reader.ReadUInt32();
Load(reader);
}
}
private List <KeyValuePair <NodeType, dynamic> > ReadArrayNode(EndianBinaryReader reader, int length)
{
List <KeyValuePair <NodeType, dynamic> > array = new List <KeyValuePair <NodeType, dynamic> >(length);
byte[] nodeTypes = reader.ReadBytes(length);
reader.Align(4);
for (int i = 0; i < length; i++)
{
array.Add(new KeyValuePair <NodeType, dynamic>((NodeType)nodeTypes[i], ReadNode(reader, (NodeType)nodeTypes[i])));
}
return(array);
}
private void ReadOld(EndianBinaryReader reader)
{
while (true)
{
var tag = reader.ReadObject <VifTag>();
if ((tag.Command > 0x20 && tag.Command < 0x60) || tag.Command > 0x70)
{
Debug.WriteLine($"Hit invalid vif cmd: {tag.Command}");
reader.SeekCurrent(-VifTag.SIZE);
reader.Align(16);
break;
}
if (( VifCommand )(tag.Command & 0xF0) == VifCommand.Unpack)
{
var packet = reader.ReadObject <VifPacket>(tag);
// TODO: use flags for this
if (packet.ElementFormat == VifUnpackElementFormat.Float && packet.ElementCount == 4)
{
Positions = packet.Vector4Array;
}
else if (packet.ElementFormat == VifUnpackElementFormat.Float && packet.ElementCount == 3)
{
Normals = packet.Vector3Array;
}
else
{
throw new InvalidDataException("Unexpected VIF packet");
}
}
else
{
var command = ( VifCommand )tag.Command;
if (command != VifCommand.ActMicro && command != VifCommand.CntMicro)
{
throw new InvalidDataException("Unexpected VIF tag command");
}
break;
}
}
}
public void Read(EndianBinaryReader r)
{
r.AssertMagicText("shp" + AsciiUtil.GetChar(0x20));
this.chunkSize = r.ReadUInt32();
this.shapes = new Sepd[r.ReadUInt32()];
this.flags = r.ReadUInt32();
for (var i = 0; i < this.shapes.Length; ++i)
{
r.ReadInt16(); // ShapeOffset(s)
}
r.Align(4);
for (var i = 0; i < this.shapes.Length; ++i)
{
var shape = new Sepd();
shape.Read(r);
this.shapes[i] = shape;
}
}
void IBinarySerializable.Read(EndianBinaryReader reader, object context)
{
var flags = ( MeshFlags )context;
var headerPacket = reader.ReadObject <VifPacket>();
VifValidationHelper.Ensure(headerPacket, 0xFF, true, false, 1, VifUnpackElementFormat.Short, 2);
var vertexCount = headerPacket.Int16Arrays[0][0];
if (headerPacket.Int16Arrays[0][1] != 0)
{
throw new InvalidDataException("Header packet second short is not 0");
}
var positionsPacket = reader.ReadObject <VifPacket>();
VifValidationHelper.Ensure(positionsPacket, 0, true, false, vertexCount, VifUnpackElementFormat.Float, 3);
Positions = positionsPacket.Vector3Array;
var normalsPacket = reader.ReadObject <VifPacket>();
VifValidationHelper.Ensure(normalsPacket, 0x18, true, false, vertexCount, VifUnpackElementFormat.Float, 3);
Normals = normalsPacket.Vector3Array;
var texCoordPacket = reader.ReadObject <VifPacket>();
VifValidationHelper.Ensure(texCoordPacket, 0x30, true, false, vertexCount, VifUnpackElementFormat.Float, 2);
TexCoords = texCoordPacket.Vector2Array;
var activateTag = reader.ReadObject <VifCode>();
VifValidationHelper.Ensure(activateTag, 0x16, 0, VifCommand.ActMicro);
var flushTag = reader.ReadObject <VifCode>();
VifValidationHelper.Ensure(flushTag, 0, 0, VifCommand.FlushEnd);
reader.Align(16);
}
protected override void Read(EndianBinaryReader reader)
{
var vifCodeStreamSize = reader.ReadInt16();
MaterialIndex = reader.ReadInt16();
reader.ReadOffset(() =>
{
var vifCodeStreamEnd = reader.Position + (vifCodeStreamSize * 16);
while (reader.Position < vifCodeStreamEnd)
{
var vifTag = reader.ReadObject <VifTag>();
if (vifTag.Command == 0 && AlignmentHelper.Align(reader.Position, 16) == vifCodeStreamEnd)
{
// Stream padding, stop reading
break;
}
reader.SeekCurrent(-VifTag.SIZE);
Batches.Add(reader.ReadObject <MeshType1Batch>());
}
});
reader.Align(16);
}
void IBinarySerializable.Read(EndianBinaryReader reader, object context)
{
(short[] usedNodeIds, MeshFlags flags) = ((short[], MeshFlags))context;
var headerPacket = reader.ReadObject <VifPacket>();
VifValidationHelper.Ensure(headerPacket, 0xFF, true, false, 1, VifUnpackElementFormat.Short, 2);
var usedNodeCount = headerPacket.Int16Arrays[0][0];
var vertexCount = headerPacket.Int16Arrays[0][1];
if (usedNodeCount + 1 != usedNodeIds.Length)
{
throw new InvalidDataException("Used node count + 1 is not equal to the number of used node ids.");
}
foreach (short nodeId in usedNodeIds)
{
NodeBatches.Add(reader.ReadObject <MeshType7NodeBatch>(nodeId));
}
// @NOTE(TGE): Not a single mesh type 7 mesh does not have this flag set so I don't know if it should be checked for.
var texCoordsPacket = reader.ReadObject <VifPacket>();
VifValidationHelper.Ensure(texCoordsPacket, null, true, false, vertexCount, VifUnpackElementFormat.Float, 2);
TexCoords = texCoordsPacket.Vector2Array;
var texCoordsKickTag = reader.ReadObject <VifCode>();
VifValidationHelper.Ensure(texCoordsKickTag, 0, 0, VifCommand.CntMicro);
var flushTag = reader.ReadObject <VifCode>();
VifValidationHelper.Ensure(flushTag, 0, 0, VifCommand.FlushEnd);
reader.Align(16);
}
internal override void ReadContent(EndianBinaryReader reader, IOContext context)
{
reader.SeekCurrent(8);
for (int i = 0; i < 2; i++)
{
reader.ReadUInt32Expects(0, "Model header padding is not 0");
}
// Hacky fix for field models
if (!context.IsFieldObject)
{
reader.PushBaseOffset();
}
reader.ReadOffset(() =>
{
var nodeCount = reader.ReadInt32();
reader.Align(16);
for (int i = 0; i < nodeCount; i++)
{
Nodes.Add(reader.ReadObject <Node>(Nodes));
}
});
reader.ReadOffset(() =>
{
var materialCount = reader.ReadInt32();
Materials = reader.ReadObjects <Material>(materialCount);
});
var morpherMeshCount = reader.ReadInt32();
reader.ReadOffset(() =>
{
while (true)
{
var extensionStart = reader.Position;
var extensionHeader = reader.ReadObject <ModelExtensionHeader>();
if (extensionHeader.Identifier == 0)
{
break;
}
var extensionEnd = extensionStart + extensionHeader.Size;
switch (extensionHeader.Identifier)
{
case ModelExtensionIdentifier.NodeName:
// Special case as we move the data into the nodes themselves
for (int i = 0; i < Nodes.Count; i++)
{
var nodeName = reader.ReadString(StringBinaryFormat.NullTerminated);
reader.Align(4);
var nodeId = reader.ReadInt32();
Nodes[nodeId].Name = nodeName;
}
break;
default:
Extensions.Add(reader.ReadObject <ModelBinaryExtension>(extensionHeader));
break;
}
reader.SeekBegin(extensionEnd);
}
});
if (!context.IsFieldObject)
{
reader.PopBaseOffset();
}
}
internal void Read(EndianBinaryReader reader, bool isModern)
{
if (Type == KeySetType.Static)
{
Keys.Add(new Key {
Value = reader.ReadSingle()
});
}
else if (Type != KeySetType.None)
{
HasTangents = Type == KeySetType.Tangent;
if (isModern)
{
ReadModern();
}
else
{
ReadClassic();
}
void ReadClassic()
{
ushort keyCount = reader.ReadUInt16();
Keys.Capacity = keyCount;
for (int i = 0; i < keyCount; i++)
{
Keys.Add(new Key {
Frame = reader.ReadUInt16()
});
}
reader.Align(4);
foreach (var key in Keys)
{
key.Value = reader.ReadSingle();
if (HasTangents)
{
key.Tangent = reader.ReadSingle();
}
}
}
void ReadModern()
{
ushort keyCount = reader.ReadUInt16();
ushort type = reader.ReadUInt16();
Keys.Capacity = keyCount;
for (int i = 0; i < keyCount; i++)
{
Keys.Add(new Key());
}
if (HasTangents)
{
foreach (var key in Keys)
{
key.Tangent = reader.ReadSingle();
}
}
reader.Align(4);
foreach (var key in Keys)
{
key.Value = type == 1
? reader.ReadHalf()
: reader.ReadSingle();
}
reader.Align(4);
foreach (var key in Keys)
{
key.Frame = reader.ReadUInt16();
}
reader.Align(4);
}
}
}
public void Read(EndianBinaryReader r)
{
bool isConstant = false;
if (this.parent_.Version > 4)
{
isConstant = r.ReadByte() != 0;
this.Type = (AnimationTrackType)r.ReadByte();
this.Keyframes = new CsabKeyframe[r.ReadUInt16()];
}
else
{
this.Type = (AnimationTrackType)r.ReadUInt32();
this.Keyframes = new CsabKeyframe[r.ReadUInt32()];
var unk1 = r.ReadUInt32();
this.Duration = r.ReadUInt32();
}
if (isConstant)
{
var scale = r.ReadSingle();
var bias = r.ReadSingle();
for (var i = 0; i < this.Keyframes.Count; ++i)
{
var value = r.ReadUInt32();
this.Keyframes[i] = new CsabKeyframe {
Time = (uint)i,
Value = value * scale - bias,
};
}
}
float trackScale = -1;
float trackBias = -1;
if (this.parent_.Version > 4 && this.Type == AnimationTrackType.LINEAR)
{
trackScale = r.ReadSingle();
trackBias = r.ReadSingle();
}
switch (this.Type)
{
case AnimationTrackType.LINEAR: {
for (var i = 0; i < this.Keyframes.Count; ++i)
{
if (!this.AreRotationsShort)
{
if (this.parent_.Version > 4)
{
// TODO: Is this right????
var raw = this.ValueType switch {
TrackType.POSITION => (int)r.ReadUInt16(),
TrackType.SCALE => (int)r.ReadInt16(),
_ => throw new NotSupportedException(),
};
var value = raw * trackScale - trackBias;
this.Keyframes[i] = new CsabKeyframe {
Time = (uint)i,
Value = value,
};
}
else
{
this.Keyframes[i] = new CsabKeyframe {
Time = r.ReadUInt32(),
Value = r.ReadSingle(),
};
}
}
else
{
if (this.parent_.Version > 4)
{
var value = r.ReadInt16() * trackScale + trackBias;
this.Keyframes[i] = new CsabKeyframe {
Time = (uint)i,
Value = value,
};
}
else
{
this.Keyframes[i] = new CsabKeyframe {
Time = r.ReadUInt16(),
Value = r.ReadSn16(),
};
}
}
}
break;
}
case AnimationTrackType.HERMITE: {
for (var i = 0; i < this.Keyframes.Count; ++i)
{
if (!this.AreRotationsShort)
{
this.Keyframes[i] = new CsabKeyframe {
Time = r.ReadUInt32(),
Value = r.ReadSingle(),
IncomingTangent = Optional <float> .Of(r.ReadSingle()),
OutgoingTangent = Optional <float> .Of(r.ReadSingle()),
};
}
else
{
this.Keyframes[i] = new CsabKeyframe {
Time = r.ReadUInt16(),
Value = r.ReadSn16(),
IncomingTangent = Optional <float> .Of(r.ReadSn16()),
OutgoingTangent = Optional <float> .Of(r.ReadSn16()),
};
}
}
break;
}
default: throw new ArgumentOutOfRangeException();
}
r.Align(4);
}
void IBinarySerializable.Read(EndianBinaryReader reader, object context)
{
reader.SeekCurrent(4);
var keyframeCount = reader.ReadInt16();
var keyframeSize = reader.ReadInt16();
var keyframeTimings = reader.ReadInt16Array(keyframeCount);
reader.Align(4);
var controllerType = ( ControllerType )context;
for (int i = 0; i < keyframeCount; i++)
{
IKey key;
switch (controllerType)
{
case ControllerType.Position:
switch (keyframeSize)
{
case 4:
key = reader.ReadObject <UInt32Key>();
break;
case 8:
key = reader.ReadObject <PositionKeySize8>();
break;
case 12:
key = reader.ReadObject <Vector3Key>();
break;
default:
throw new NotImplementedException();
}
break;
case ControllerType.Type1:
switch (keyframeSize)
{
case 4:
key = reader.ReadObject <UInt32Key>();
break;
default:
throw new NotImplementedException();
}
break;
case ControllerType.Scale:
switch (keyframeSize)
{
case 12:
key = reader.ReadObject <Vector3Key>();
break;
case 20:
key = reader.ReadObject <Single5Key>();
break;
default:
throw new NotImplementedException();
}
break;
case ControllerType.Rotation:
switch (keyframeSize)
{
case 8:
key = reader.ReadObject <QuaternionKey>();
break;
case 20:
key = reader.ReadObject <Single5Key>();
break;
default:
throw new NotImplementedException();
}
break;
case ControllerType.Morph:
switch (keyframeSize)
{
case 1:
key = reader.ReadObject <ByteKey>();
break;
case 4:
key = reader.ReadObject <UInt32Key>();
break;
default:
throw new NotImplementedException();
}
break;
case ControllerType.Type5:
switch (keyframeSize)
{
case 4:
key = reader.ReadObject <SingleKey>();
break;
default:
throw new NotImplementedException();
}
break;
case ControllerType.Type8:
switch (keyframeSize)
{
case 4:
key = reader.ReadObject <UInt32Key>();
break;
default:
throw new NotImplementedException();
}
break;
default:
throw new NotImplementedException();
}
key.Time = keyframeTimings[i];
Keyframes.Add(key);
}
reader.Align(4);
}
public static AnimationBank[] Read(EndianBinaryReader reader, Pointer offset, uint index, uint num_banks, bool append = false)
{
MapLoader l = MapLoader.Loader;
AnimationBank[] banks = new AnimationBank[num_banks];
for (int i = 0; i < num_banks; i++)
{
// In R3, each animation bank is of size 0x104 = 13 times a stack description of 5 uint32s.
banks[i] = new AnimationBank(Pointer.Current(reader));
banks[i].a3d_general = AnimationStack.Read(reader);
banks[i].vectors = AnimationStack.Read(reader);
banks[i].quaternions = AnimationStack.Read(reader);
banks[i].hierarchies = AnimationStack.Read(reader);
banks[i].NTTO = AnimationStack.Read(reader);
banks[i].onlyFrames = AnimationStack.Read(reader);
banks[i].channels = AnimationStack.Read(reader);
banks[i].framesNumOfNTTO = AnimationStack.Read(reader);
banks[i].framesKFIndex = AnimationStack.Read(reader);
banks[i].keyframes = AnimationStack.Read(reader);
banks[i].events = AnimationStack.Read(reader);
banks[i].morphData = AnimationStack.Read(reader);
if (l.mode != MapLoader.Mode.Rayman2PC)
{
banks[i].deformations = AnimationStack.Read(reader);
}
else
{
banks[i].deformations = null;
}
banks[i].animations = new AnimA3DGeneral[banks[i].a3d_general.count];
}
if (l.mode == MapLoader.Mode.Rayman3PC || (l.mode == MapLoader.Mode.Rayman2PC && !append))
{
for (int i = 0; i < num_banks; i++)
{
if (banks[i].a3d_general.reservedMemory > 0)
{
banks[i].a3d_general.off_data = Pointer.Read(reader);
}
if (banks[i].vectors.reservedMemory > 0)
{
banks[i].vectors.off_data = Pointer.Read(reader);
}
if (banks[i].quaternions.reservedMemory > 0)
{
banks[i].quaternions.off_data = Pointer.Read(reader);
}
if (banks[i].hierarchies.reservedMemory > 0)
{
banks[i].hierarchies.off_data = Pointer.Read(reader);
}
if (banks[i].NTTO.reservedMemory > 0)
{
banks[i].NTTO.off_data = Pointer.Read(reader);
}
if (banks[i].onlyFrames.reservedMemory > 0)
{
banks[i].onlyFrames.off_data = Pointer.Read(reader);
}
if (banks[i].channels.reservedMemory > 0)
{
banks[i].channels.off_data = Pointer.Read(reader);
}
if (banks[i].framesNumOfNTTO.reservedMemory > 0)
{
banks[i].framesNumOfNTTO.off_data = Pointer.Read(reader);
}
if (banks[i].framesKFIndex.reservedMemory > 0)
{
banks[i].framesKFIndex.off_data = Pointer.Read(reader);
}
if (banks[i].keyframes.reservedMemory > 0)
{
banks[i].keyframes.off_data = Pointer.Read(reader);
}
if (banks[i].events.reservedMemory > 0)
{
banks[i].events.off_data = Pointer.Read(reader);
}
if (banks[i].morphData.reservedMemory > 0)
{
banks[i].morphData.off_data = Pointer.Read(reader);
}
if (l.mode != MapLoader.Mode.Rayman2PC && banks[i].deformations.reservedMemory > 0)
{
banks[i].deformations.off_data = Pointer.Read(reader);
}
}
}
Pointer off_current = Pointer.Current(reader);
Pointer off_a3d = null;
uint num_a3d = (uint)banks.Sum(b => b.a3d_general.count);
FileFormat.FileWithPointers kfFile = null;
if (index == 0 && l.files_array[MapLoader.Mem.FixKeyFrames] != null)
{
kfFile = MapLoader.Loader.files_array[MapLoader.Mem.FixKeyFrames];
}
if (index > 0 && l.files_array[MapLoader.Mem.LvlKeyFrames] != null)
{
kfFile = MapLoader.Loader.files_array[MapLoader.Mem.LvlKeyFrames];
}
if (kfFile != null && l.mode == MapLoader.Mode.Rayman3GC)
{
kfFile.GotoHeader();
reader = kfFile.reader;
uint[] a3d_sizes = new uint[num_a3d];
for (uint i = 0; i < num_a3d; i++)
{
a3d_sizes[i] = reader.ReadUInt32();
}
off_a3d = Pointer.Current(reader);
uint current_anim = 0;
for (uint i = 0; i < banks.Length; i++)
{
uint num_a3d_in_bank = banks[i].a3d_general.count;
for (uint j = 0; j < num_a3d_in_bank; j++)
{
Pointer.Goto(ref reader, off_a3d);
// Read animation data here
banks[i].animations[j] = AnimA3DGeneral.Read(reader, off_a3d);
AnimA3DGeneral a = banks[i].animations[j];
a.vectors = new AnimVector[a.num_vectors];
a.quaternions = new AnimQuaternion[a.num_quaternions];
a.hierarchies = new AnimHierarchy[a.num_hierarchies];
a.ntto = new AnimNTTO[a.num_NTTO];
a.onlyFrames = new AnimOnlyFrame[a.num_onlyFrames];
a.channels = new AnimChannel[a.num_channels];
a.numOfNTTO = new AnimNumOfNTTO[a.num_numNTTO * a.num_channels];
a.framesKFIndex = new AnimFramesKFIndex[a.num_onlyFrames * a.num_channels];
a.keyframes = new AnimKeyframe[a.num_keyframes];
a.events = new AnimEvent[a.num_events];
a.morphData = new AnimMorphData[a.num_morphData];
a.deformations = new AnimDeformation[a.num_deformations];
for (uint k = 0; k < a.vectors.Length; k++)
{
a.vectors[k] = AnimVector.Read(reader);
}
for (uint k = 0; k < a.quaternions.Length; k++)
{
a.quaternions[k] = AnimQuaternion.Read(reader);
}
for (uint k = 0; k < a.hierarchies.Length; k++)
{
a.hierarchies[k] = AnimHierarchy.Read(reader);
}
for (uint k = 0; k < a.ntto.Length; k++)
{
a.ntto[k] = AnimNTTO.Read(reader);
}
for (uint k = 0; k < a.onlyFrames.Length; k++)
{
a.onlyFrames[k] = AnimOnlyFrame.Read(reader);
}
reader.Align(4);
for (uint k = 0; k < a.channels.Length; k++)
{
a.channels[k] = AnimChannel.Read(reader);
}
for (uint k = 0; k < a.numOfNTTO.Length; k++)
{
a.numOfNTTO[k] = AnimNumOfNTTO.Read(reader);
}
reader.Align(4);
for (uint k = 0; k < a.framesKFIndex.Length; k++)
{
a.framesKFIndex[k] = AnimFramesKFIndex.Read(reader);
}
for (uint k = 0; k < a.keyframes.Length; k++)
{
a.keyframes[k] = AnimKeyframe.Read(reader);
}
reader.Align(4);
for (uint k = 0; k < a.events.Length; k++)
{
a.events[k] = AnimEvent.Read(reader);
}
for (uint k = 0; k < a.morphData.Length; k++)
{
a.morphData[k] = AnimMorphData.Read(reader);
}
reader.Align(4);
for (uint k = 0; k < a.deformations.Length; k++)
{
a.deformations[k] = AnimDeformation.Read(reader);
}
off_a3d += a3d_sizes[current_anim];
// Check if read correctly
Pointer off_postAnim = Pointer.Current(reader);
if (off_postAnim != off_a3d)
{
l.print("Animation block size does not match data size: " +
"Current offset: " + off_postAnim + " - Expected offset: " + off_a3d +
" - Block start: " + (off_a3d + -(int)(a3d_sizes[current_anim])));
}
current_anim++;
}
}
}
else if (kfFile == null && (l.mode == MapLoader.Mode.Rayman3PC || l.mode == MapLoader.Mode.Rayman2PC))
{
bool readArraysDirectly = l.mode == MapLoader.Mode.Rayman2PC && index == 0;
for (uint i = 0; i < banks.Length; i++)
{
banks[i].animations = new AnimA3DGeneral[banks[i].a3d_general.Count(append)];
banks[i].global_vectors = new AnimVector[banks[i].vectors.Count(append)];
banks[i].global_quaternions = new AnimQuaternion[banks[i].quaternions.Count(append)];
banks[i].global_hierarchies = new AnimHierarchy[banks[i].hierarchies.Count(append)];
banks[i].global_NTTO = new AnimNTTO[banks[i].NTTO.Count(append)];
banks[i].global_onlyFrames = new AnimOnlyFrame[banks[i].onlyFrames.Count(append)];
banks[i].global_channels = new AnimChannel[banks[i].channels.Count(append)];
banks[i].global_numOfNTTO = new AnimNumOfNTTO[banks[i].framesNumOfNTTO.Count(append)];
banks[i].global_framesKFIndex = new AnimFramesKFIndex[banks[i].framesKFIndex.Count(append)];
banks[i].global_keyframes = new AnimKeyframe[banks[i].keyframes.Count(append)];
banks[i].global_events = new AnimEvent[banks[i].events.Count(append)];
banks[i].global_morphData = new AnimMorphData[banks[i].morphData.Count(append)];
if (l.mode != MapLoader.Mode.Rayman2PC)
{
banks[i].global_deformations = new AnimDeformation[banks[i].deformations.Count(append)];
}
if (banks[i].animations.Length > 0)
{
if (banks[i].a3d_general.off_data != null)
{
Pointer.Goto(ref reader, banks[i].a3d_general.off_data);
}
for (uint j = 0; j < banks[i].animations.Length; j++)
{
banks[i].animations[j] = AnimA3DGeneral.Read(reader, Pointer.Current(reader));
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(56 * banks[i].animations.Length, 4);
}
}
if (banks[i].global_vectors.Length > 0)
{
if (banks[i].vectors.off_data != null)
{
Pointer.Goto(ref reader, banks[i].vectors.off_data);
}
for (uint j = 0; j < banks[i].global_vectors.Length; j++)
{
banks[i].global_vectors[j] = AnimVector.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(12 * banks[i].global_vectors.Length, 4);
}
}
if (banks[i].global_quaternions.Length > 0)
{
if (banks[i].quaternions.off_data != null)
{
Pointer.Goto(ref reader, banks[i].quaternions.off_data);
}
for (uint j = 0; j < banks[i].global_quaternions.Length; j++)
{
banks[i].global_quaternions[j] = AnimQuaternion.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(8 * banks[i].global_quaternions.Length, 4);
}
}
if (banks[i].global_hierarchies.Length > 0)
{
if (banks[i].hierarchies.off_data != null)
{
Pointer.Goto(ref reader, banks[i].hierarchies.off_data);
}
for (uint j = 0; j < banks[i].global_hierarchies.Length; j++)
{
banks[i].global_hierarchies[j] = AnimHierarchy.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(4 * banks[i].global_hierarchies.Length, 4);
}
}
if (banks[i].global_NTTO.Length > 0)
{
if (banks[i].NTTO.off_data != null)
{
Pointer.Goto(ref reader, banks[i].NTTO.off_data);
}
for (uint j = 0; j < banks[i].global_NTTO.Length; j++)
{
banks[i].global_NTTO[j] = AnimNTTO.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(6 * banks[i].global_NTTO.Length, 4);
}
}
if (banks[i].global_onlyFrames.Length > 0)
{
if (banks[i].onlyFrames.off_data != null)
{
Pointer.Goto(ref reader, banks[i].onlyFrames.off_data);
}
for (uint j = 0; j < banks[i].global_onlyFrames.Length; j++)
{
banks[i].global_onlyFrames[j] = AnimOnlyFrame.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(10 * banks[i].global_onlyFrames.Length, 4);
}
}
if (banks[i].global_channels.Length > 0)
{
if (banks[i].channels.off_data != null)
{
Pointer.Goto(ref reader, banks[i].channels.off_data);
}
for (uint j = 0; j < banks[i].global_channels.Length; j++)
{
banks[i].global_channels[j] = AnimChannel.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(16 * banks[i].global_channels.Length, 4);
}
}
if (banks[i].global_numOfNTTO.Length > 0)
{
if (banks[i].framesNumOfNTTO.off_data != null)
{
Pointer.Goto(ref reader, banks[i].framesNumOfNTTO.off_data);
}
for (uint j = 0; j < banks[i].global_numOfNTTO.Length; j++)
{
banks[i].global_numOfNTTO[j] = AnimNumOfNTTO.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(2 * banks[i].global_numOfNTTO.Length, 4);
}
}
if (banks[i].global_framesKFIndex.Length > 0)
{
if (banks[i].framesKFIndex.off_data != null)
{
Pointer.Goto(ref reader, banks[i].framesKFIndex.off_data);
}
for (uint j = 0; j < banks[i].global_framesKFIndex.Length; j++)
{
banks[i].global_framesKFIndex[j] = AnimFramesKFIndex.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(4 * banks[i].global_framesKFIndex.Length, 4);
}
}
if (banks[i].global_keyframes.Length > 0)
{
if (banks[i].keyframes.off_data != null)
{
Pointer.Goto(ref reader, banks[i].keyframes.off_data);
}
for (uint j = 0; j < banks[i].global_keyframes.Length; j++)
{
banks[i].global_keyframes[j] = AnimKeyframe.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(36 * banks[i].global_keyframes.Length, 4);
}
}
if (banks[i].global_events.Length > 0)
{
if (banks[i].events.off_data != null)
{
Pointer.Goto(ref reader, banks[i].events.off_data);
}
for (uint j = 0; j < banks[i].global_events.Length; j++)
{
banks[i].global_events[j] = AnimEvent.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(12 * banks[i].global_events.Length, 4);
}
}
if (banks[i].global_morphData.Length > 0)
{
if (banks[i].morphData.off_data != null)
{
Pointer.Goto(ref reader, banks[i].morphData.off_data);
}
for (uint j = 0; j < banks[i].global_morphData.Length; j++)
{
banks[i].global_morphData[j] = AnimMorphData.Read(reader);
}
if (l.mode == MapLoader.Mode.Rayman2PC)
{
reader.PreAlign(8 * banks[i].global_morphData.Length, 4);
}
}
if (banks[i].global_deformations != null && banks[i].global_deformations.Length > 0)
{
if (banks[i].deformations.off_data != null)
{
Pointer.Goto(ref reader, banks[i].deformations.off_data);
}
for (uint j = 0; j < banks[i].global_deformations.Length; j++)
{
banks[i].global_deformations[j] = AnimDeformation.Read(reader);
}
}
if (append)
{
AnimationBank b = l.animationBanks[index + i];
b.a3d_general = banks[i].a3d_general;
b.vectors = banks[i].vectors;
b.quaternions = banks[i].quaternions;
b.hierarchies = banks[i].hierarchies;
b.NTTO = banks[i].NTTO;
b.onlyFrames = banks[i].onlyFrames;
b.channels = banks[i].channels;
b.framesNumOfNTTO = banks[i].framesNumOfNTTO;
b.framesKFIndex = banks[i].framesKFIndex;
b.keyframes = banks[i].keyframes;
b.events = banks[i].events;
b.morphData = banks[i].morphData;
b.deformations = banks[i].deformations;
//Util.AppendArray(ref b.animations, ref banks[i].animations);
Util.AppendArrayAndMergeReferences(ref b.global_vectors, ref banks[i].global_vectors, (int)banks[i].vectors.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_quaternions, ref banks[i].global_quaternions, (int)banks[i].quaternions.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_hierarchies, ref banks[i].global_hierarchies, (int)banks[i].hierarchies.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_NTTO, ref banks[i].global_NTTO, (int)banks[i].NTTO.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_onlyFrames, ref banks[i].global_onlyFrames, (int)banks[i].onlyFrames.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_channels, ref banks[i].global_channels, (int)banks[i].channels.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_numOfNTTO, ref banks[i].global_numOfNTTO, (int)banks[i].framesNumOfNTTO.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_framesKFIndex, ref banks[i].global_framesKFIndex, (int)banks[i].framesKFIndex.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_keyframes, ref banks[i].global_keyframes, (int)banks[i].keyframes.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_events, ref banks[i].global_events, (int)banks[i].events.countInFix);
Util.AppendArrayAndMergeReferences(ref b.global_morphData, ref banks[i].global_morphData, (int)banks[i].morphData.countInFix);
if (banks[i].deformations != null)
{
Util.AppendArrayAndMergeReferences(ref b.global_deformations, ref banks[i].global_deformations, (int)banks[i].deformations.countInFix);
}
/*Array.Resize(ref b.animations, b.animations.Length + banks[i].animations.Length);
* Array.Resize(ref b.global_vectors, b.global_vectors.Length + banks[i].global_vectors.Length);
* Array.Resize(ref b.global_quaternions, b.global_quaternions.Length + banks[i].global_quaternions.Length);
* Array.Resize(ref b.global_hierarchies, b.global_hierarchies.Length + banks[i].global_hierarchies.Length);
* Array.Resize(ref b.global_NTTO, b.global_NTTO.Length + banks[i].global_NTTO.Length);
* Array.Resize(ref b.global_onlyFrames, b.global_onlyFrames.Length + banks[i].global_onlyFrames.Length);
* Array.Resize(ref b.global_channels, b.global_channels.Length + banks[i].global_channels.Length);
* Array.Resize(ref b.global_numOfNTTO, b.global_numOfNTTO.Length + banks[i].global_numOfNTTO.Length);
* Array.Resize(ref b.global_framesKFIndex, b.global_framesKFIndex.Length + banks[i].global_framesKFIndex.Length);
* Array.Resize(ref b.global_keyframes, b.global_keyframes.Length + banks[i].global_keyframes.Length);
* Array.Resize(ref b.global_events, b.global_events.Length + banks[i].global_events.Length);
* Array.Resize(ref b.global_morphData, b.global_morphData.Length + banks[i].global_morphData.Length);
* if (banks[i].deformations != null) Array.Resize(ref b.global_deformations, b.global_deformations.Length + banks[i].global_deformations.Length);
* Array.Copy(banks[i].global_vectors, 0, b.global_vectors, banks[i].vectors.countInFix, banks[i].global_vectors.Length);
* Array.Copy(banks[i].global_quaternions, 0, b.global_quaternions, banks[i].quaternions.countInFix, banks[i].global_quaternions.Length);
* Array.Copy(banks[i].global_hierarchies, 0, b.global_hierarchies, banks[i].hierarchies.countInFix, banks[i].global_hierarchies.Length);
* Array.Copy(banks[i].global_NTTO, 0, b.global_NTTO, banks[i].NTTO.countInFix, banks[i].global_NTTO.Length);
* Array.Copy(banks[i].global_onlyFrames, 0, b.global_onlyFrames, banks[i].onlyFrames.countInFix, banks[i].global_onlyFrames.Length);
* Array.Copy(banks[i].global_channels, 0, b.global_channels, banks[i].channels.countInFix, banks[i].global_channels.Length);
* Array.Copy(banks[i].global_numOfNTTO, 0, b.global_numOfNTTO, banks[i].framesNumOfNTTO.countInFix, banks[i].global_numOfNTTO.Length);
* Array.Copy(banks[i].global_framesKFIndex, 0, b.global_framesKFIndex, banks[i].framesKFIndex.countInFix, banks[i].global_framesKFIndex.Length);
* Array.Copy(banks[i].global_keyframes, 0, b.global_keyframes, banks[i].keyframes.countInFix, banks[i].global_keyframes.Length);
* Array.Copy(banks[i].global_events, 0, b.global_events, banks[i].events.countInFix, banks[i].global_events.Length);
* Array.Copy(banks[i].global_morphData, 0, b.global_morphData, banks[i].morphData.countInFix, banks[i].global_morphData.Length);
* if (banks[i].deformations != null) Array.Copy(banks[i].global_deformations, 0, b.global_deformations, banks[i].deformations.countInFix, banks[i].global_deformations.Length);*/
}
if (banks[i].animations.Length > 0)
{
AnimationBank srcBank = append ? l.animationBanks[index + i] : banks[i];
for (uint j = 0; j < banks[i].animations.Length; j++)
{
banks[i].animations[j].vectors = srcBank.global_vectors;
banks[i].animations[j].quaternions = srcBank.global_quaternions;
banks[i].animations[j].hierarchies = srcBank.global_hierarchies;
banks[i].animations[j].ntto = srcBank.global_NTTO;
banks[i].animations[j].onlyFrames = srcBank.global_onlyFrames;
banks[i].animations[j].channels = srcBank.global_channels;
banks[i].animations[j].numOfNTTO = srcBank.global_numOfNTTO;
banks[i].animations[j].framesKFIndex = srcBank.global_framesKFIndex;
banks[i].animations[j].keyframes = srcBank.global_keyframes;
banks[i].animations[j].events = srcBank.global_events;
banks[i].animations[j].morphData = srcBank.global_morphData;
banks[i].animations[j].deformations = srcBank.global_deformations;
}
}
if (append)
{
Util.AppendArrayAndMergeReferences(ref l.animationBanks[index + i].animations, ref banks[i].animations, (int)banks[i].a3d_general.countInFix);
}
}
}
Pointer.Goto(ref reader, off_current);
return(banks);
}