private Offset WriteValue(BinaryDataWriter writer, dynamic value)
{
// Only reserve and return an offset for the complex value contents, write simple values directly.
ByamlNodeType type = GetNodeType(value);
switch (type)
{
case ByamlNodeType.StringIndex:
WriteStringIndexNode(writer, value);
return(null);
case ByamlNodeType.PathIndex:
WritePathIndexNode(writer, value);
return(null);
case ByamlNodeType.Dictionary:
case ByamlNodeType.Array:
foreach (var d in alreadyWrittenNodes.Keys.Where(x => x is IEnumerable && x.Count == value.Count))
{
if (IEnumerableCompare.IsEqual(d, value))
{
writer.Write(alreadyWrittenNodes[d]);
return(null);
}
}
return(writer.ReserveOffset());
case ByamlNodeType.Boolean:
writer.Write(value ? 1 : 0);
return(null);
case ByamlNodeType.Integer:
case ByamlNodeType.Float:
case ByamlNodeType.Uinteger:
writer.Write(value);
return(null);
case ByamlNodeType.Double:
case ByamlNodeType.ULong:
case ByamlNodeType.Long:
return(writer.ReserveOffset());
case ByamlNodeType.Null:
writer.Write(0x0);
return(null);
default:
throw new ByamlException($"{type} not supported as value node.");
}
}
private Offset WriteValue(BinaryDataWriter writer, dynamic value)
{
// Only reserve and return an offset for the complex value contents, write simple values directly.
ByamlNodeType type = GetNodeType(value);
switch (type)
{
case ByamlNodeType.StringIndex:
WriteStringIndexNode(writer, value);
return null;
case ByamlNodeType.PathIndex:
WritePathIndexNode(writer, value);
return null;
case ByamlNodeType.Dictionary:
case ByamlNodeType.Array:
if (alreadyWrittenNodes.ContainsKey(value))
{
writer.Write(alreadyWrittenNodes[value]);
return null;
}
else return writer.ReserveOffset();
case ByamlNodeType.Boolean:
writer.Write(value ? 1 : 0);
return null;
case ByamlNodeType.Integer:
case ByamlNodeType.Float:
writer.Write((float)value);
return null;
case ByamlNodeType.Null:
writer.Write(0x0);
return null;
default:
throw new ByamlException($"{type} not supported as value node.");
}
}
private void WriteV2(BinaryDataWriter writer)
{
writer.ByteOrder = ByteOrder.BigEndian;
writer.Write((uint)Version);
writer.ByteOrder = this.ByteOrder;
Offset octreeOffset = writer.ReserveOffset();
Offset modelOffsetArrayOffset = writer.ReserveOffset();
writer.Write(Models.Count);
writer.Write(MinCoordinate);
writer.Write(MaxCoordinate);
writer.Write(CoordinateShift);
writer.Write(PrismCount);
// Write the model octree.
octreeOffset.Satisfy();
foreach (ModelOctreeNode rootChild in ModelOctreeRoot)
{
rootChild.Write(writer);
}
int branchKey = 8;
foreach (ModelOctreeNode rootChild in ModelOctreeRoot)
{
rootChild.WriteChildren(writer, ref branchKey);
}
// Write the model offsets.
modelOffsetArrayOffset.Satisfy();
Offset[] modelOffsets = writer.ReserveOffset(Models.Count);
// Write the models.
for (int i = 0; i < Models.Count; i++)
{
modelOffsets[i].Satisfy();
Models[i].Write(writer, Version);
writer.Align(4);
}
}
/// <summary>
/// Saves the data into the given <paramref name="stream"/>.
/// </summary>
/// <param name="stream">The <see cref="Stream"/> to save the data to.</param>
public void Save(Stream stream)
{
using (BinaryDataWriter writer = new BinaryDataWriter(stream, Encoding.ASCII, true))
{
writer.ByteOrder = ByteOrder;
// Write the file header.
writer.Write(Identifier, BinaryStringFormat.NoPrefixOrTermination);
Offset fileSizeOffset = writer.ReserveOffset();
writer.Write((short)Count);
writer.Write(Unknown);
writer.Write(Version);
Offset[] sectionOffsets = writer.ReserveOffset(Count);
int headerLength = (int)writer.Position;
// Write all the sections.
int sectionIndex = 0;
foreach (SectionBase section in this)
{
// Fill in the offset to this section.
sectionOffsets[sectionIndex].Satisfy((int)writer.Position - headerLength);
// Write the section header.
writer.Write(section.Name, BinaryStringFormat.NoPrefixOrTermination);
writer.Write(section.ElementCount);
writer.Write((short)section.Count);
writer.Write(section.SectionType, false);
// Write the section groups, each of them is 4-byte aligned.
foreach (GroupBase group in section)
{
group.Save(writer);
writer.Align(4);
}
sectionIndex++;
}
fileSizeOffset.Satisfy();
}
}
private void Write(BinaryDataWriter writer, object obj)
{
// Write the header, specifying magic bytes, version and main node offsets.
writer.Write(_magicBytes);
writer.Write((short)Settings.Version);
Offset nameArrayOffset = writer.ReserveOffset();
Offset stringArrayOffset = writer.ReserveOffset();
Offset pathArrayOffset = Settings.SupportPaths ? writer.ReserveOffset() : null;
Offset rootOffset = writer.ReserveOffset();
// Write the name array.
WriteStringArray(writer, nameArrayOffset, _nameArray);
// Write the string array.
if (_stringArray.Count == 0)
{
writer.Write(0);
}
else
{
WriteStringArray(writer, stringArrayOffset, _stringArray);
}
// Write the path array (if requested).
if (Settings.SupportPaths)
{
if (_pathArray.Count == 0)
{
writer.Write(0);
}
else
{
WritePathArray(writer, pathArrayOffset, _pathArray);
}
}
// Write the root node.
WriteArrayOrDictionary(writer, rootOffset, obj);
}
/// <summary>
/// Saves the data into the given <paramref name="stream"/>.
/// </summary>
/// <param name="stream">The <see cref="Stream"/> to save the data to.</param>
public void Save(Stream stream)
{
using (BinaryDataWriter writer = new BinaryDataWriter(stream, true)
{
ByteOrder = ByteOrder.BigEndian
})
{
// Write the header.
writer.Write(_signature);
Offset octreeOffset = writer.ReserveOffset();
Offset modelOffsetArrayOffset = writer.ReserveOffset();
writer.Write(Models.Count);
writer.Write(MinCoordinate);
writer.Write(MaxCoordinate);
writer.Write(CoordinateShift);
writer.Write(Unknown);
// Write the model octree.
octreeOffset.Satisfy();
foreach (CourseOctreeNode rootChild in CourseOctreeRoot)
{
rootChild.Save(writer);
}
// Write the model offsets.
modelOffsetArrayOffset.Satisfy();
Offset[] modelOffsets = writer.ReserveOffset(Models.Count);
// Write the models.
int i = 0;
foreach (KclModel model in Models)
{
modelOffsets[i++].Satisfy();
model.Save(stream);
writer.Align(4);
}
}
}
private void WriteArray(BinaryDataWriter writer, IList array)
{
WriteTypeAndElementCount(writer, ByamlNodeType.Array, array.Count);
// Write the element types (which must be the same for each to be supported for serialization).
ByamlNodeType nodeType = GetNodeType(array.GetType().GetTypeInfo().GetElementType());
for (int i = 0; i < array.Count; i++)
{
writer.Write((byte)nodeType);
}
// Write the elements, which begin after a padding to the next 4 bytes.
writer.Align(4);
if (nodeType == ByamlNodeType.Array || nodeType == ByamlNodeType.Dictionary)
{
// Arrays or dictionaries are referenced by offsets pointing behind the array.
Offset[] offsets = new Offset[array.Count];
for (int i = 0; i < array.Count; i++)
{
offsets[i] = writer.ReserveOffset();
}
// Behind the offsets, write the array or dictionary contents and satisfy the 4-byte aligned offsets.
for (int i = 0; i < array.Count; i++)
{
WriteArrayOrDictionary(writer, offsets[i], array[i]);
}
}
else
{
// Primitive values are stored directly rather than being referenced by offsets.
foreach (object element in array)
{
WritePrimitiveType(writer, nodeType, element);
}
}
}
private Offset WriteValue(BinaryDataWriter writer, dynamic value)
{
// Only reserve and return an offset for the complex value contents, write simple values directly.
ByamlNodeType type = GetNodeType(value);
switch (type)
{
case ByamlNodeType.StringIndex:
WriteStringIndexNode(writer, value);
return(null);
case ByamlNodeType.PathIndex:
WritePathIndexNode(writer, value);
return(null);
case ByamlNodeType.Dictionary:
case ByamlNodeType.Array:
return(writer.ReserveOffset());
case ByamlNodeType.Boolean:
writer.Write(value ? 1 : 0);
return(null);
case ByamlNodeType.Integer:
case ByamlNodeType.Float:
case ByamlNodeType.CRCHash:
writer.Write(value);
return(null);
case ByamlNodeType.Null:
writer.Write(0x0);
return(null);
default:
throw new ByamlException($"{type} not supported as value node.");
}
}
protected void WriteContent(object rootReferenceKey)
{
using (_writer)
{
// Write the header, specifying magic bytes, version and main node offsets.
_writer.Write(BYAML_MAGIC);
_writer.Write(_version);
Offset nameArrayOffset = _writer.ReserveOffset();
Offset stringArrayOffset = _writer.ReserveOffset();
Offset pathArrayOffset = _supportPaths ? _writer.ReserveOffset() : null;
Offset rootOffset = _writer.ReserveOffset();
// Write the main nodes.
_writer.Align(4);
nameArrayOffset.Satisfy();
WriteStringArrayNode(_writer, _nameArray);
if (_stringArray.Length == 0)
{
stringArrayOffset.Satisfy(0);
}
else
{
_writer.Align(4);
stringArrayOffset.Satisfy();
WriteStringArrayNode(_writer, _stringArray);
}
// Include a path array offset if requested.
if (_supportPaths)
{
if (_pathArray.Count == 0)
{
pathArrayOffset.Satisfy(0);
}
else
{
_writer.Align(4);
pathArrayOffset.Satisfy();
WritePathArrayNode(_writer, _pathArray);
}
}
_writer.Align(4);
//write value stack (Dictionary, Array, long, uint, double)
int valStackPos = (int)_writer.BaseStream.Position;
//write all dictionaries
foreach (KeyValuePair <object, ByamlDict> keyValuePair in _dictionaries)
{
_writer.Seek(valStackPos + keyValuePair.Value.offset, SeekOrigin.Begin);
if (keyValuePair.Key == rootReferenceKey)
{
rootOffset.Satisfy();
}
if (_byteOrder == ByteOrder.BigEndian)
{
_writer.Write((uint)ByamlNodeType.Dictionary << 24 | (uint)keyValuePair.Value.entries.Length);
}
else
{
_writer.Write((uint)ByamlNodeType.Dictionary | (uint)keyValuePair.Value.entries.Length << 8);
}
foreach ((string key, Entry entry) in keyValuePair.Value.entries)
{
if (_byteOrder == ByteOrder.BigEndian)
{
_writer.Write(Array.IndexOf(_nameArray, key) << 8 | (byte)entry.type);
}
else
{
_writer.Write(Array.IndexOf(_nameArray, key) | (byte)entry.type << 24);
}
WriteValue(entry);
}
}
//write all arrays
foreach (KeyValuePair <object, ByamlArr> keyValuePair in _arrays)
{
_writer.Seek(valStackPos + keyValuePair.Value.offset, SeekOrigin.Begin);
if (keyValuePair.Key == rootReferenceKey)
{
rootOffset.Satisfy();
}
if (_byteOrder == ByteOrder.BigEndian)
{
_writer.Write((uint)ByamlNodeType.Array << 24 | (uint)keyValuePair.Value.entries.Length);
}
else
{
_writer.Write((uint)ByamlNodeType.Array | (uint)keyValuePair.Value.entries.Length << 8);
}
foreach (Entry entry in keyValuePair.Value.entries)
{
_writer.Write((byte)entry.type);
}
_writer.Align(4);
foreach (Entry entry in keyValuePair.Value.entries)
{
WriteValue(entry);
}
}
//write all 8 byte values
foreach (var keyValuePair in _eightByteValues)
{
_writer.Seek(valStackPos + keyValuePair.Value, SeekOrigin.Begin);
_writer.Write(keyValuePair.Key);
}
void WriteValue(Entry entry)
{
// Only write the offset for the complex value contents, write simple values directly.
switch (entry.type)
{
case ByamlNodeType.StringIndex:
_writer.Write((uint)Array.IndexOf(_stringArray, entry.value));
break;
case ByamlNodeType.PathIndex:
_writer.Write(_pathArray.IndexOf(entry.value));
break;
case ByamlNodeType.Dictionary:
_writer.Write(valStackPos + _dictionaries[(object)entry.value].offset);
break;
case ByamlNodeType.Array:
_writer.Write(valStackPos + _arrays[(object)entry.value].offset);
break;
case ByamlNodeType.Boolean:
_writer.Write(entry.value ? 1 : 0);
break;
case ByamlNodeType.Integer:
case ByamlNodeType.Float:
case ByamlNodeType.UInteger:
_writer.Write(entry.value);
break;
case ByamlNodeType.Double:
case ByamlNodeType.ULong:
case ByamlNodeType.Long:
_writer.Write(valStackPos + _eightByteValues[entry.value]);
return;
case ByamlNodeType.Null:
_writer.Write(0);
break;
}
}
}
}
// ---- Saving ----
private void Write(Stream stream, object root)
{
// Check if the root is of the correct type.
if (root == null)
{
throw new ByamlException("Root node must not be null.");
}
else if (!(root is IDictionary <string, dynamic> || root is IEnumerable))
{
throw new ByamlException($"Type '{root.GetType()}' is not supported as a BYAML root node.");
}
// Generate the name, string and path array nodes.
_nameArray = new List <string>();
_stringArray = new List <string>();
_pathArray = new List <List <ByamlPathPoint> >();
CollectNodeArrayContents(root);
_nameArray.Sort(StringComparer.Ordinal);
_stringArray.Sort(StringComparer.Ordinal);
// Open a writer on the given stream.
using (BinaryDataWriter writer = new BinaryDataWriter(stream, Encoding.UTF8, true))
{
writer.ByteOrder = _byteOrder;
// Write the header, specifying magic bytes, version and main node offsets.
writer.Write(_magicBytes);
writer.Write((short)0x0001);
Offset nameArrayOffset = writer.ReserveOffset();
Offset stringArrayOffset = writer.ReserveOffset();
Offset pathArrayOffset = _supportPaths ? writer.ReserveOffset() : null;
Offset rootOffset = writer.ReserveOffset();
// Write the main nodes.
WriteValueContents(writer, nameArrayOffset, ByamlNodeType.StringArray, _nameArray);
if (_stringArray.Count == 0)
{
writer.Write(0);
}
else
{
WriteValueContents(writer, stringArrayOffset, ByamlNodeType.StringArray, _stringArray);
}
// Include a path array offset if requested.
if (_supportPaths)
{
if (_pathArray.Count == 0)
{
writer.Write(0);
}
else
{
WriteValueContents(writer, pathArrayOffset, ByamlNodeType.PathArray, _pathArray);
}
}
// Write the root node.
WriteValueContents(writer, rootOffset, GetNodeType(root), root);
}
}
/// <summary>
/// Saves the data into the given <paramref name="stream"/>.
/// </summary>
/// <param name="stream">The <see cref="Stream"/> to save the data to.</param>
public void Save(Stream stream)
{
using (BinaryDataWriter writer = new BinaryDataWriter(stream, true)
{
ByteOrder = ByteOrder.BigEndian
})
{
long modelPosition = writer.Position;
// Write the header.
Offset positionArrayOffset = writer.ReserveOffset();
Offset normalArrayOffset = writer.ReserveOffset();
Offset triangleArrayOffset = writer.ReserveOffset();
Offset octreeOffset = writer.ReserveOffset();
writer.Write(Unknown1);
writer.Write(MinCoordinate);
writer.Write(CoordinateMask);
writer.Write(CoordinateShift);
writer.Write(Unknown2);
// Write the positions.
positionArrayOffset.Satisfy((int)(writer.Position - modelPosition));
writer.Write(Positions);
// Write the normals.
normalArrayOffset.Satisfy((int)(writer.Position - modelPosition));
writer.Write(Normals);
// Write the triangles.
triangleArrayOffset.Satisfy((int)(writer.Position - modelPosition));
writer.Write(Triangles);
// Write the octree.
int octreeOffsetValue = (int)(writer.Position - modelPosition);
octreeOffset.Satisfy(octreeOffsetValue);
// Write the node keys, and compute the correct offsets into the triangle lists or to child nodes.
// Nintendo writes child nodes behind the current node, so the children need to be queued.
// In this implementation, empty triangle lists point to the same terminator behind the last node.
// This could be further optimized by reusing equal parts of lists as Nintendo apparently did it.
int emptyListPos = GetNodeCount(ModelOctreeRoots) * sizeof(uint);
int triangleListPos = emptyListPos + sizeof(ushort);
Queue <ModelOctreeNode[]> queuedNodes = new Queue <ModelOctreeNode[]>();
queuedNodes.Enqueue(ModelOctreeRoots);
while (queuedNodes.Count > 0)
{
ModelOctreeNode[] nodes = queuedNodes.Dequeue();
long offset = writer.Position - modelPosition - octreeOffsetValue;
foreach (ModelOctreeNode node in nodes)
{
if (node.Children == null)
{
// Node is a leaf and points to triangle index list.
int listPos;
if (node.TriangleIndices.Count == 0)
{
listPos = emptyListPos;
}
else
{
listPos = triangleListPos;
triangleListPos += (node.TriangleIndices.Count + 1) * sizeof(ushort);
}
node.Key = (uint)ModelOctreeNode.Flags.Values | (uint)(listPos - offset - sizeof(ushort));
}
else
{
// Node is a branch and points to 8 children.
node.Key = (uint)(nodes.Length + queuedNodes.Count * 8) * sizeof(uint);
queuedNodes.Enqueue(node.Children);
}
writer.Write(node.Key);
}
}
// Iterate through the nodes again and write their triangle lists now.
writer.Write((ushort)0xFFFF); // Terminator for all empty lists.
queuedNodes.Enqueue(ModelOctreeRoots);
while (queuedNodes.Count > 0)
{
ModelOctreeNode[] nodes = queuedNodes.Dequeue();
foreach (ModelOctreeNode node in nodes)
{
if (node.Children == null)
{
if (node.TriangleIndices.Count > 0)
{
// Node is a leaf and points to triangle index list.
writer.Write(node.TriangleIndices);
writer.Write((ushort)0xFFFF);
}
}
else
{
// Node is a branch and points to 8 children.
queuedNodes.Enqueue(node.Children);
}
}
}
}
}
private void WriteDictionary(BinaryDataWriter writer, object obj)
{
// Create a string-object dictionary out of the members.
Dictionary <string, object> dictionary = new Dictionary <string, object>();
// Add the custom members if any have been created when collecting node contents previously.
Dictionary <string, object> customMembers;
if (_customMembers.TryGetValue(obj, out customMembers))
{
foreach (KeyValuePair <string, object> customMember in customMembers)
{
dictionary.Add(customMember.Key, customMember.Value);
}
}
// Add the ByamlMemberAttribute decorated members.
ByamlObjectInfo objectInfo = _byamlObjectInfos[obj.GetType()];
foreach (KeyValuePair <string, ByamlMemberInfo> member in objectInfo.Members)
{
object value = member.Value.GetValue(obj);
if (value != null || !member.Value.Optional)
{
dictionary.Add(member.Key, value);
}
}
// Dictionaries need to be sorted ordinally by key.
var sortedDict = dictionary.Values.Zip(dictionary.Keys, (Value, Key) => new { Key, Value })
.OrderBy(x => x.Key, StringComparer.Ordinal).ToList();
WriteTypeAndElementCount(writer, ByamlNodeType.Dictionary, dictionary.Count);
// Write the key-value pairs.
Dictionary <Offset, object> offsetElements = new Dictionary <Offset, object>();
foreach (var keyValuePair in sortedDict)
{
string key = keyValuePair.Key;
object element = keyValuePair.Value;
// Get the index of the key string in the file's name array and write it together with the type.
uint keyIndex = (uint)_nameArray.IndexOf(key);
ByamlNodeType nodeType = element == null ? ByamlNodeType.Null : GetNodeType(element.GetType());
if (Settings.ByteOrder == ByteOrder.BigEndian)
{
writer.Write(keyIndex << 8 | (uint)nodeType);
}
else
{
writer.Write(keyIndex | (uint)nodeType << 24);
}
// Write the elements. Complex types are just offsets, primitive types are directly written as values.
if (nodeType == ByamlNodeType.Array || nodeType == ByamlNodeType.Dictionary)
{
offsetElements.Add(writer.ReserveOffset(), element);
}
else
{
WritePrimitiveType(writer, nodeType, element);
}
}
// Write the array or dictionary elements and satisfy their offsets.
foreach (KeyValuePair <Offset, object> offsetElement in offsetElements)
{
WriteArrayOrDictionary(writer, offsetElement.Key, offsetElement.Value);
}
}
internal void Write(BinaryDataWriter writer, FileVersion version)
{
long modelPosition = writer.Position;
Offset positionArrayOffset = writer.ReserveOffset();
Offset normalArrayOffset = writer.ReserveOffset();
Offset triangleArrayOffset = writer.ReserveOffset();
Offset octreeOffset = writer.ReserveOffset();
if (version == FileVersion.VersionDS)
{
writer.WriteFx32(PrismThickness);
writer.WriteVector3Fx32(MinCoordinate);
writer.Write(CoordinateMask);
writer.Write(CoordinateShift);
writer.WriteFx32(SphereRadius);
// Write the positions.
positionArrayOffset.Satisfy((int)(writer.Position - modelPosition));
writer.WriteVector3Fx32s(Positions.ToArray());
// Write the normals.
normalArrayOffset.Satisfy((int)(writer.Position - modelPosition));
writer.WriteVector3Fx16s(Normals.ToArray());
// Write the triangles.
triangleArrayOffset.Satisfy((int)(writer.Position - modelPosition - 0x10));
writer.Write(Prisms, version);
}
else
{
writer.Write(PrismThickness);
writer.Write(MinCoordinate);
writer.Write(CoordinateMask);
writer.Write(CoordinateShift);
if (version > FileVersion.VersionGC)
{
writer.Write(SphereRadius);
}
// Write the positions.
positionArrayOffset.Satisfy((int)(writer.Position - modelPosition));
writer.Write(Positions.ToArray());
// Write the normals.
normalArrayOffset.Satisfy((int)(writer.Position - modelPosition));
writer.Write(Normals.ToArray());
// Write the triangles.
if (version < FileVersion.Version2)
{
triangleArrayOffset.Satisfy((int)(writer.Position - modelPosition - 0x10));
}
else
{
triangleArrayOffset.Satisfy((int)(writer.Position - modelPosition));
}
writer.Write(Prisms, version);
}
// Write the octree.
int octreeOffsetValue = (int)(writer.Position - modelPosition);
octreeOffset.Satisfy(octreeOffsetValue);
// Write the node keys, and compute the correct offsets into the triangle lists or to child nodes.
// Nintendo writes child nodes behind the current node, so the children need to be queued.
// In this implementation, empty triangle lists point to the same terminator behind the last node.
int triangleListPos = GetNodeCount(PolygonOctreeRoots) * sizeof(uint);
Queue <PolygonOctree[]> queuedNodes = new Queue <PolygonOctree[]>();
Dictionary <ushort[], int> indexPool = CreateIndexBuffer(queuedNodes);
queuedNodes.Enqueue(PolygonOctreeRoots);
while (queuedNodes.Count > 0)
{
PolygonOctree[] nodes = queuedNodes.Dequeue();
long offset = writer.Position - modelPosition - octreeOffsetValue;
foreach (PolygonOctree node in nodes)
{
if (node.Children == null)
{
// Node is a leaf and points to triangle index list.
ushort[] indices = node.TriangleIndices.ToArray();
int listPos = triangleListPos + indexPool[indices];
node.Key = (uint)ModelOctreeNode.Flags.Values | (uint)(listPos - offset - sizeof(ushort));
}
else
{
// Node is a branch and points to 8 children.
node.Key = (uint)(nodes.Length + queuedNodes.Count * 8) * sizeof(uint);
queuedNodes.Enqueue(node.Children);
}
writer.Write(node.Key);
}
}
foreach (var ind in indexPool)
{
//Last value skip. Uses terminator of previous index list
if (ind.Key.Length == 0)
{
break;
}
//Save the index lists and terminator
if (version < FileVersion.Version2)
{
for (int i = 0; i < ind.Key.Length; i++)
{
writer.Write((ushort)(ind.Key[i] + 1)); //-1 indexed
}
writer.Write((ushort)0); // Terminator
}
else
{
writer.Write(ind.Key);
writer.Write((ushort)0xFFFF); // Terminator
}
}
}
