private SPR2Frame GetSprite(int ID, PALT Palette)
{
FileReader Reader = new FileReader(new MemoryStream(m_Data), false);
Reader.Seek(m_OffsetTable[ID]);
return(new SPR2Frame(Reader, m_Device, Palette, Version));
}
/// <summary>
/// Attempts to read an IFF file from a given stream.
/// </summary>
/// <param name="Data">The stream from which to open the IFF.</param>
/// <param name="ThrowException">Should this method throw an exception if it couldn't open the file?</param>
/// <returns>True if successful, false otherwise (if ThrowException is set to false).</returns>
public bool Init(Stream Data, bool ThrowException)
{
m_Reader = new FileReader(Data, true);
string MagicNumber = m_Reader.ReadString(60);
if (!MagicNumber.Equals("IFF FILE 2.5:TYPE FOLLOWED BY SIZE\0 JAMIE DOORNBOS & MAXIS 1\0", StringComparison.InvariantCultureIgnoreCase))
{
if (ThrowException)
{
throw new IFFException("MagicNumber was wrong - IFF.cs!");
}
else
{
return(false);
}
}
m_Reader.ReadUInt32(); //RSMP offset
//Size of a chunk header is 76 bytes.
while ((m_Reader.StreamLength - m_Reader.Position) > 76)
{
IFFChunk Chunk;
if (m_Device != null)
{
Chunk = new IFFChunk(m_Reader, m_Device, this);
}
else
{
Chunk = new IFFChunk(m_Reader, this);
}
switch (Chunk.Type)
{
case IFFChunkTypes.FBMP:
FBMP FBMPChunk = new FBMP(Chunk);
m_FBMPChunks.Add(Chunk.ID, FBMPChunk);
break;
case IFFChunkTypes.FWAV:
FWAV FWAVChunk = new FWAV(Chunk);
m_FWAVChunks.Add(Chunk.ID, FWAVChunk);
break;
case IFFChunkTypes.BMP_:
BMP_ BMPChunk = new BMP_(Chunk);
m_BMP_Chunks.Add(Chunk.ID, BMPChunk);
break;
case IFFChunkTypes.DGRP:
DGRP DGRPChunk = new DGRP(Chunk);
m_DGRPChunks.Add(Chunk.ID, DGRPChunk);
break;
case IFFChunkTypes.BCON:
BCON BCONChunk = new BCON(Chunk);
m_BCONChunks.Add(Chunk.ID, BCONChunk);
break;
case IFFChunkTypes.GLOB:
GLOB GlobChunk = new GLOB(Chunk);
m_GLOBChunks.Add(Chunk.ID, GlobChunk);
break;
case IFFChunkTypes.OBJD:
OBJD OBJDChunk = new OBJD(Chunk);
m_OBJDs.Add(OBJDChunk);
break;
case IFFChunkTypes.TTAs:
TTAs TTAsChunk = new TTAs(Chunk);
m_TTAsChunks.Add(Chunk.ID, TTAsChunk);
break;
case IFFChunkTypes.TTAB:
TTAB TTABChunk = new TTAB(Chunk);
TTABChunk.Type = Chunk.Type;
TTABChunk.ID = Chunk.ID;
m_TTABChunks.Add(Chunk.ID, TTABChunk);
break;
case IFFChunkTypes.TPRP:
TPRP TPRPChunk = new TPRP(Chunk);
m_TPRPChunks.Add(Chunk.ID, TPRPChunk);
break;
case IFFChunkTypes.STR:
STR STRChunk = new STR(Chunk);
m_STRChunks.Add(Chunk.ID, STRChunk);
break;
case IFFChunkTypes.BHAV:
BHAV BHAVChunk = new BHAV(Chunk);
m_BHAVChunks.Add(Chunk.ID, BHAVChunk);
break;
case IFFChunkTypes.OBJf:
OBJf OBJfChunk = new OBJf(Chunk);
m_OBJfChunks.Add(Chunk.ID, OBJfChunk);
break;
case IFFChunkTypes.FCNS:
FCNS FCNSChunk = new FCNS(Chunk);
m_FCNSChunks.Add(Chunk.ID, FCNSChunk);
break;
case IFFChunkTypes.SPR:
SPR SPRChunk = new SPR(Chunk);
m_SPRChunks.Add(Chunk.ID, SPRChunk);
break;
case IFFChunkTypes.SPR2:
SPR2 SPR2Chunk = new SPR2(Chunk);
m_SPR2Chunks.Add(Chunk.ID, SPR2Chunk);
break;
case IFFChunkTypes.PALT:
PALT PALTChunk = new PALT(Chunk);
m_PALTChunks.Add(Chunk.ID, PALTChunk);
break;
case IFFChunkTypes.CTSS:
CTSS CTSSChunk = new CTSS(Chunk);
m_CTSSChunks.Add(Chunk.ID, CTSSChunk);
break;
case IFFChunkTypes.CST:
CST CSTChunk = new CST(Chunk);
m_CSTChunks.Add(Chunk.ID, CSTChunk);
break;
}
}
return(true);
}
public SPR2Frame(FileReader Reader, GraphicsDevice Device, PALT Palette, uint SpriteVersion)
{
if (SpriteVersion == 1001)
{
Reader.ReadUInt32(); //Version
Reader.ReadUInt32(); //Size
}
Width = Reader.ReadUShort();
Height = Reader.ReadUShort();
Texture = new Texture2D(Device, Width, Height);
ZBuffer = new byte[Width * Height];
uint Flags = Reader.ReadUInt32();
Reader.ReadUShort(); //Palette.
TransparentColor = Palette[Reader.ReadUShort()];
HasZBuffer = (Flags & 0x02) == 0x02;
HasAlphaChannel = (Flags & 0x04) == 0x04;
XLocation = Reader.ReadUShort();
YLocation = Reader.ReadUShort();
bool EndMarker = false;
while (!EndMarker)
{
ushort Marker = Reader.ReadUShort();
var Command = Marker >> 13;
var Count = Marker & 0x1FFF;
switch (Command)
{
//Fill this row with pixel data that directly follows; the count byte of the row command denotes
//the size in bytes of the row's command/count bytes together with the supplied pixel data. In
//the pixel data, each pixel command consists of a 3-bit/13-bit command/count header followed by a
//block of pixel data padded to a multiple of 2 bytes. If the row is not filled completely, the
//remainder is transparent. The pixel commands are:
case 0x00:
for (int i = 0; i < Count; i++)
{
ushort PxMarker = Reader.ReadUShort();
var PxCommand = PxMarker >> 13;
var PxCount = PxMarker & 0x1FFF;
Color[] Colors;
switch (PxCommand)
{
//Set the next pixel count pixels in the z-buffer and color channels to the values defined
//by the pixel data provided directly after this command. Every group of 2 bytes in the pixel
//data provides a luminosity (z-buffer) or color index (color) value to be copied to the row
//for the z-buffer channel and color channel, respectively, in that order, using the full
//opacity value of 255 for each pixel that is not the transparent color.
case 0x01:
Colors = new Color[PxCount];
for (int j = 0; j < PxCount; j++)
{
byte Luminosity = Reader.ReadByte();
byte ColorIndex = Reader.ReadByte();
Colors[j] = Palette[ColorIndex];
ZBuffer[j] = Luminosity;
}
Texture.SetData <Color>(Colors, 0, Colors.Length);
break;
//Set the next pixel count pixels in the z-buffer, color, and alpha channels to the values
//defined by the pixel data provided directly after this command. Every group of 3 bytes in
//the pixel data, minus the padding byte at the very end (if it exists), provides a luminosity
//(z-buffer and alpha) or color index (color) value to be copied to the row for the z-buffer,
//color, and alpha channels, respectively, in that order. The alpha channel data is grayscale
//in the range 0-31, and the z buffer is in range 0-255.
case 0x02:
Colors = new Color[PxCount];
for (int j = 0; j < PxCount; j++)
{
byte Luminosity = Reader.ReadByte();
byte ColorIndex = Reader.ReadByte();
byte Alpha = (byte)(Reader.ReadByte() * 8.2258064516129032258064516129032);
Colors[j] = Palette[ColorIndex];
Colors[j].A = Alpha;
ZBuffer[j] = Luminosity;
}
Texture.SetData <Color>(Colors, 0, Colors.Length);
break;
//Leave the next pixel count pixels in the color channel filled with the transparent color,
//in the z-buffer channel filled with 255, and in the alpha channel filled with 0. This pixel
//command has no pixel data.
case 0x03:
Colors = new Color[PxCount];
for (int j = 0; j < PxCount; j++)
{
Colors[j] = Color.Transparent;
Colors[j].A = 0;
ZBuffer[j] = 255;
}
Texture.SetData <Color>(Colors, 0, Colors.Length);
break;
//Set the next pixel count pixels in the color channel to the palette color indices defined by
//the pixel data provided directly after this command.Every byte in the pixel data, minus the
//padding byte at the very end(if it exists), provides a color index value to be copied to the
//row for the color channel using the full opacity value of 255 and the closest z-buffer value
//of 0 if the pixel is not the transparent color, or otherwise the no opacity value of 0 and the
//farthest z-buffer value of 255.
case 0x06:
Colors = new Color[PxCount];
for (int j = 0; j < PxCount; j++)
{
byte ColorIndex = Reader.ReadByte();
Colors[j] = Palette[ColorIndex];
Colors[j].A = (Palette[ColorIndex] != Color.Transparent) ? (byte)255 : (byte)0;
ZBuffer[j] = (Palette[ColorIndex] != Color.Transparent) ? (byte)0 : (byte)255;
}
Texture.SetData <Color>(Colors, 0, Colors.Length);
break;
}
}
break;
//Leave the next count rows in the color channel filled with the transparent color,
//in the z-buffer channel filled with 255, and in the alpha channel filled with 0.
case 0x04:
for (int j = 0; j < Count; j++)
{
Color[] Colors = new Color[Width];
for (int k = 0; k < Width; k++)
{
Colors[k] = Color.Transparent;
Colors[k].A = 0;
ZBuffer[k] = 255;
}
Texture.SetData <Color>(Colors, 0, Colors.Length);
}
break;
case 0x05:
EndMarker = true;
break;
}
}
}
public SPR2Frame(FileReader Reader, GraphicsDevice Device, PALT Palette, uint SpriteVersion)
{
if (SpriteVersion == 1001)
{
Reader.ReadUInt32(); //Version
Reader.ReadUInt32(); //Size
}
Width = Reader.ReadUShort();
Height = Reader.ReadUShort();
m_Texture = new Texture2D(Device, Width, Height);
ZBuffer = new byte[Width, Height];
uint Flags = Reader.ReadUInt32();
Reader.ReadUShort(); //Palette.
TransparentColor = Palette[Reader.ReadUShort()];
HasZBuffer = (Flags & 0x02) == 0x02;
HasAlphaChannel = (Flags & 0x04) == 0x04;
YLocation = Reader.ReadUShort();
XLocation = Reader.ReadUShort();
bool EndMarker = false;
int CurrentRow = 0, CurrentColumn = 0;
int Padding = 0;
Color Clr; //The current color.
while (!EndMarker)
{
ushort Marker = Reader.ReadUShort();
int Command = Marker >> 13;
int Count = Marker & 0x1FFF;
switch (Command)
{
//Fill this row with pixel data that directly follows; the count byte of the row command denotes
//the size in bytes of the row's command/count bytes together with the supplied pixel data. In
//the pixel data, each pixel command consists of a 3-bit/13-bit command/count header followed by a
//block of pixel data padded to a multiple of 2 bytes. If the row is not filled completely, the
//remainder is transparent. The pixel commands are:
case 0x00:
Count -= 2; //Row command + count bytes.
while (Count > 0)
{
ushort PxMarker = Reader.ReadUShort();
var PxCommand = PxMarker >> 13;
var PxCount = PxMarker & 0x1FFF;
Count -= 2;
switch (PxCommand)
{
//Set the next pixel count pixels in the z-buffer and color channels to the values defined
//by the pixel data provided directly after this command. Every group of 2 bytes in the pixel
//data provides a luminosity (z-buffer) or color index (color) value to be copied to the row
//for the z-buffer channel and color channel, respectively, in that order, using the full
//opacity value of 255 for each pixel that is not the transparent color.
case 0x01:
Count -= PxCount * 2;
while (PxCount > 0)
{
ZBuffer[CurrentColumn, CurrentRow] = Reader.ReadByte();
Clr = Palette[Reader.ReadByte()];
if (Clr != Color.Transparent)
{
SetPixel(CurrentColumn, CurrentRow, Clr);
}
else
{
SetPixel(CurrentColumn, CurrentRow, Color.Transparent);
}
PxCount--;
CurrentColumn++;
}
break;
//Set the next pixel count pixels in the z-buffer, color, and alpha channels to the values
//defined by the pixel data provided directly after this command. Every group of 3 bytes in
//the pixel data, minus the padding byte at the very end (if it exists), provides a luminosity
//(z-buffer and alpha) or color index (color) value to be copied to the row for the z-buffer,
//color, and alpha channels, respectively, in that order. The alpha channel data is grayscale
//in the range 0-31, and the z buffer is in range 0-255.
case 0x02:
Padding = PxCount % 2;
Count -= (PxCount * 3) + Padding;
while (PxCount > 0)
{
ZBuffer[CurrentColumn, CurrentRow] = Reader.ReadByte();
Clr = Palette[Reader.ReadByte()];
//Read the alpha.
Clr.A = Reader.ReadByte();
SetPixel(CurrentColumn, CurrentRow, Clr);
PxCount--;
CurrentColumn++;
}
if (Padding != 0)
{
Reader.ReadByte();
}
break;
//Leave the next pixel count pixels in the color channel filled with the transparent color,
//in the z-buffer channel filled with 255, and in the alpha channel filled with 0. This pixel
//command has no pixel data.
case 0x03:
while (PxCount > 0)
{
//This is completely transparent regardless of whether the frame
//supports alpha.
SetPixel(CurrentColumn, CurrentRow, new Color(0, 0, 0, 0));
if (HasZBuffer)
{
ZBuffer[CurrentColumn, CurrentRow] = 255;
}
PxCount--;
CurrentColumn++;
}
break;
//Set the next pixel count pixels in the color channel to the palette color indices defined by
//the pixel data provided directly after this command. Every byte in the pixel data, minus the
//padding byte at the very end(if it exists), provides a color index value to be copied to the
//row for the color channel using the full opacity value of 255 and the closest z-buffer value
//of 0 if the pixel is not the transparent color, or otherwise the no opacity value of 0 and the
//farthest z-buffer value of 255.
case 0x06:
Padding = PxCount % 2;
Count -= PxCount + Padding;
while (PxCount > 0)
{
Clr = Palette[Reader.ReadByte()];
if (Clr != Color.Transparent)
{
SetPixel(CurrentColumn, CurrentRow, Clr);
}
else
{
SetPixel(CurrentColumn, CurrentRow, Color.Transparent);
}
/*if (HasZBuffer)
* {
* if (Clr != Color.Transparent)
* Frame.ZBuffer.SetPixel(new Point(CurrentColumn, CurrentRow),
* Color.FromArgb(255, 1, 1, 1));
* else
* Frame.BitmapData.SetPixel(new Point(CurrentColumn, CurrentRow),
* Color.FromArgb(255, 255, 255, 255));
* }*/
PxCount--;
CurrentColumn++;
}
if (Padding != 0)
{
Reader.ReadByte();
}
break;
}
}
CurrentRow++;
CurrentColumn = 0;
break;
//Leave the next count rows in the color channel filled with the transparent color,
//in the z-buffer channel filled with 255, and in the alpha channel filled with 0.
case 0x04:
for (int i = 0; i < Count; i++)
{
for (int j = 0; j < Width - 1; j++)
{
SetPixel(CurrentColumn, CurrentRow, new Color(0, 0, 0, 0));
if (HasZBuffer)
{
ZBuffer[CurrentColumn, CurrentRow] = 255;
}
CurrentColumn++;
}
CurrentColumn = 0;
CurrentRow++;
}
CurrentColumn = 0;
break;
case 0x05:
EndMarker = true;
break;
}
}
}
public SPRFrame(FileReader Reader, GraphicsDevice Device, PALT Palette, uint SPRVersion)
{
if (Version == 1001)
{
Version = Reader.ReadUInt32();
Size = Reader.ReadUInt32();
}
Reader.ReadUInt32(); //Reserved
Height = Reader.ReadUShort();
Width = Reader.ReadUShort();
Texture = new Texture2D(Device, Width, Height);
for (ushort i = 0; i < Height; i++)
{
byte Cmd = Reader.ReadByte();
byte Count = Reader.ReadByte();
switch (Cmd)
{
case 0x04:
for (byte j = 0; j < Count; j++)
{
byte PxCmd = Reader.ReadByte();
byte PxCount = Reader.ReadByte();
Color[] Pixels;
switch (PxCmd)
{
case 0x01:
//Leave the next pixel count pixels as transparent. This pixel command has no pixel data.
Pixels = new Color[Count];
for (int k = 0; k < Count; k++)
{
Pixels[k] = Color.Transparent;
}
Texture.SetData <Color>(Pixels, 0, Count);
break;
case 0x02:
//Fill the next pixel count pixels with a single palette color.
//The pixel data is two bytes: the first byte denotes the palette color
//index, and the second byte is padding (which is always equal to the
//first byte but is ignored).
Pixels = new Color[Count];
byte ColorIndex = Reader.ReadByte();
for (int k = 0; k < Count; k++)
{
Pixels[k] = Palette[ColorIndex];
}
Texture.SetData <Color>(Pixels, 0, Count);
break;
case 0x03:
//Set the next pixel count pixels to the palette color indices defined by
//the pixel data provided directly after this command. Each byte in the pixel data,
//minus the padding byte at the very end (if it exists), is a color index value to
//be copied to the row.
Pixels = new Color[Count];
for (int k = 0; k < Count; k++)
{
Pixels[k] = Palette[Reader.ReadByte()];
}
Texture.SetData <Color>(Pixels, 0, Count);
break;
case 0x09:
//Leave the next count rows as transparent.
for (int k = 0; k < Count; k++)
{
Pixels = new Color[Width];
for (int l = 0; l < Width; l++)
{
Pixels[l] = Color.Transparent;
}
Texture.SetData <Color>(Pixels, 0, Width);
}
break;
}
}
break;
}
}
}
private SPR2Frame GetSprite(int ID, PALT Palette)
{
FileReader Reader = new FileReader(new MemoryStream(m_Data), false);
Reader.Seek(m_OffsetTable[ID]);
return new SPR2Frame(Reader, m_Device, Palette, Version);
}
public SPR2Frame(FileReader Reader, GraphicsDevice Device, PALT Palette, uint SpriteVersion)
{
if(SpriteVersion == 1001)
{
Reader.ReadUInt32(); //Version
Reader.ReadUInt32(); //Size
}
Width = Reader.ReadUShort();
Height = Reader.ReadUShort();
Texture = new Texture2D(Device, Width, Height);
ZBuffer = new byte[Width * Height];
uint Flags = Reader.ReadUInt32();
Reader.ReadUShort(); //Palette.
TransparentColor = Palette[Reader.ReadUShort()];
HasZBuffer = (Flags & 0x02) == 0x02;
HasAlphaChannel = (Flags & 0x04) == 0x04;
XLocation = Reader.ReadUShort();
YLocation = Reader.ReadUShort();
bool EndMarker = false;
while(!EndMarker)
{
ushort Marker = Reader.ReadUShort();
var Command = Marker >> 13;
var Count = Marker & 0x1FFF;
switch(Command)
{
//Fill this row with pixel data that directly follows; the count byte of the row command denotes
//the size in bytes of the row's command/count bytes together with the supplied pixel data. In
//the pixel data, each pixel command consists of a 3-bit/13-bit command/count header followed by a
//block of pixel data padded to a multiple of 2 bytes. If the row is not filled completely, the
//remainder is transparent. The pixel commands are:
case 0x00:
for(int i = 0; i < Count; i++)
{
ushort PxMarker = Reader.ReadUShort();
var PxCommand = PxMarker >> 13;
var PxCount = PxMarker & 0x1FFF;
Color[] Colors;
switch(PxCommand)
{
//Set the next pixel count pixels in the z-buffer and color channels to the values defined
//by the pixel data provided directly after this command. Every group of 2 bytes in the pixel
//data provides a luminosity (z-buffer) or color index (color) value to be copied to the row
//for the z-buffer channel and color channel, respectively, in that order, using the full
//opacity value of 255 for each pixel that is not the transparent color.
case 0x01:
Colors = new Color[PxCount];
for(int j = 0; j < PxCount; j++)
{
byte Luminosity = Reader.ReadByte();
byte ColorIndex = Reader.ReadByte();
Colors[j] = Palette[ColorIndex];
ZBuffer[j] = Luminosity;
}
Texture.SetData<Color>(Colors, 0, Colors.Length);
break;
//Set the next pixel count pixels in the z-buffer, color, and alpha channels to the values
//defined by the pixel data provided directly after this command. Every group of 3 bytes in
//the pixel data, minus the padding byte at the very end (if it exists), provides a luminosity
//(z-buffer and alpha) or color index (color) value to be copied to the row for the z-buffer,
//color, and alpha channels, respectively, in that order. The alpha channel data is grayscale
//in the range 0-31, and the z buffer is in range 0-255.
case 0x02:
Colors = new Color[PxCount];
for (int j = 0; j < PxCount; j++)
{
byte Luminosity = Reader.ReadByte();
byte ColorIndex = Reader.ReadByte();
byte Alpha = (byte)(Reader.ReadByte() * 8.2258064516129032258064516129032);
Colors[j] = Palette[ColorIndex];
Colors[j].A = Alpha;
ZBuffer[j] = Luminosity;
}
Texture.SetData<Color>(Colors, 0, Colors.Length);
break;
//Leave the next pixel count pixels in the color channel filled with the transparent color,
//in the z-buffer channel filled with 255, and in the alpha channel filled with 0. This pixel
//command has no pixel data.
case 0x03:
Colors = new Color[PxCount];
for (int j = 0; j < PxCount; j++)
{
Colors[j] = Color.Transparent;
Colors[j].A = 0;
ZBuffer[j] = 255;
}
Texture.SetData<Color>(Colors, 0, Colors.Length);
break;
//Set the next pixel count pixels in the color channel to the palette color indices defined by
//the pixel data provided directly after this command.Every byte in the pixel data, minus the
//padding byte at the very end(if it exists), provides a color index value to be copied to the
//row for the color channel using the full opacity value of 255 and the closest z-buffer value
//of 0 if the pixel is not the transparent color, or otherwise the no opacity value of 0 and the
//farthest z-buffer value of 255.
case 0x06:
Colors = new Color[PxCount];
for (int j = 0; j < PxCount; j++)
{
byte ColorIndex = Reader.ReadByte();
Colors[j] = Palette[ColorIndex];
Colors[j].A = (Palette[ColorIndex] != Color.Transparent) ? (byte)255 : (byte)0;
ZBuffer[j] = (Palette[ColorIndex] != Color.Transparent) ? (byte)0 : (byte)255;
}
Texture.SetData<Color>(Colors, 0, Colors.Length);
break;
}
}
break;
//Leave the next count rows in the color channel filled with the transparent color,
//in the z-buffer channel filled with 255, and in the alpha channel filled with 0.
case 0x04:
for (int j = 0; j < Count; j++)
{
Color[] Colors = new Color[Width];
for (int k = 0; k < Width; k++)
{
Colors[k] = Color.Transparent;
Colors[k].A = 0;
ZBuffer[k] = 255;
}
Texture.SetData<Color>(Colors, 0, Colors.Length);
}
break;
case 0x05:
EndMarker = true;
break;
}
}
}
private void Init(Stream Data)
{
m_Reader = new FileReader(Data, true);
string MagicNumber = m_Reader.ReadString(60);
if (!MagicNumber.Equals("IFF FILE 2.5:TYPE FOLLOWED BY SIZE\0 JAMIE DOORNBOS & MAXIS 1\0", StringComparison.InvariantCultureIgnoreCase))
throw new IFFException("MagicNumber was wrong - IFF.cs!");
m_Reader.ReadUInt32(); //RSMP offset
//Size of a chunk header is 76 bytes.
while ((m_Reader.StreamLength - m_Reader.Position) > 76)
{
IFFChunk Chunk;
if (m_Device != null)
Chunk = new IFFChunk(m_Reader, m_Device, this);
else
Chunk = new IFFChunk(m_Reader, this);
switch (Chunk.Type)
{
case IFFChunkTypes.FBMP:
FBMP FBMPChunk = new FBMP(Chunk);
m_FBMPChunks.Add(Chunk.ID, FBMPChunk);
break;
case IFFChunkTypes.FWAV:
FWAV FWAVChunk = new FWAV(Chunk);
m_FWAVChunks.Add(Chunk.ID, FWAVChunk);
break;
case IFFChunkTypes.BMP_:
BMP_ BMPChunk = new BMP_(Chunk);
m_BMP_Chunks.Add(Chunk.ID, BMPChunk);
break;
case IFFChunkTypes.DGRP:
DGRP DGRPChunk = new DGRP(Chunk);
m_DGRPChunks.Add(Chunk.ID, DGRPChunk);
break;
case IFFChunkTypes.BCON:
BCON BCONChunk = new BCON(Chunk);
m_BCONChunks.Add(Chunk.ID, BCONChunk);
break;
case IFFChunkTypes.GLOB:
GLOB GlobChunk = new GLOB(Chunk);
m_GLOBChunks.Add(Chunk.ID, GlobChunk);
break;
case IFFChunkTypes.OBJD:
OBJD OBJDChunk = new OBJD(Chunk);
m_OBJDs.Add(OBJDChunk);
break;
case IFFChunkTypes.TTAs:
TTAs TTAsChunk = new TTAs(Chunk);
m_TTAsChunks.Add(Chunk.ID, TTAsChunk);
break;
case IFFChunkTypes.TTAB:
TTAB TTABChunk = new TTAB(Chunk);
TTABChunk.Type = Chunk.Type;
TTABChunk.ID = Chunk.ID;
m_TTABChunks.Add(Chunk.ID, TTABChunk);
break;
case IFFChunkTypes.TPRP:
TPRP TPRPChunk = new TPRP(Chunk);
m_TPRPChunks.Add(Chunk.ID, TPRPChunk);
break;
case IFFChunkTypes.STR:
STR STRChunk = new STR(Chunk);
m_STRChunks.Add(Chunk.ID, STRChunk);
break;
case IFFChunkTypes.BHAV:
BHAV BHAVChunk = new BHAV(Chunk);
m_BHAVChunks.Add(Chunk.ID, BHAVChunk);
break;
case IFFChunkTypes.OBJf:
OBJf OBJfChunk = new OBJf(Chunk);
m_OBJfChunks.Add(Chunk.ID, OBJfChunk);
break;
case IFFChunkTypes.FCNS:
FCNS FCNSChunk = new FCNS(Chunk);
m_FCNSChunks.Add(Chunk.ID, FCNSChunk);
break;
case IFFChunkTypes.SPR:
SPR SPRChunk = new SPR(Chunk);
m_SPRChunks.Add(Chunk.ID, SPRChunk);
break;
case IFFChunkTypes.SPR2:
SPR2 SPR2Chunk = new SPR2(Chunk);
m_SPR2Chunks.Add(Chunk.ID, SPR2Chunk);
break;
case IFFChunkTypes.PALT:
PALT PALTChunk = new PALT(Chunk);
m_PALTChunks.Add(Chunk.ID, PALTChunk);
break;
case IFFChunkTypes.CTSS:
CTSS CTSSChunk = new CTSS(Chunk);
m_CTSSChunks.Add(Chunk.ID, CTSSChunk);
break;
case IFFChunkTypes.CST:
CST CSTChunk = new CST(Chunk);
m_CSTChunks.Add(Chunk.ID, CSTChunk);
break;
}
}
}
public SPRFrame(FileReader Reader, GraphicsDevice Device, PALT Palette, uint SPRVersion)
{
if (Version == 1001)
{
Version = Reader.ReadUInt32();
Size = Reader.ReadUInt32();
}
Reader.ReadUInt32(); //Reserved
Height = Reader.ReadUShort();
Width = Reader.ReadUShort();
m_Texture = new Texture2D(Device, Width, Height);
bool quit = false;
byte Clr = 0;
Color Transparent;
int CurrentRow = 0, CurrentColumn = 0;
byte PixCommand, PixCount = 0;
while (quit == false)
{
byte RowCommand = Reader.ReadByte();
byte RowCount = Reader.ReadByte();
switch (RowCommand)
{
case 0x00: //Start marker; the count byte is ignored.
break;
//Fill this row with pixel data that directly follows; the count byte of the row command denotes the
//size in bytes of the row and pixel data.
case 0x04:
RowCount -= 2;
CurrentColumn = 0;
while (RowCount > 0)
{
PixCommand = Reader.ReadByte();
PixCount = Reader.ReadByte();
RowCount -= 2;
switch (PixCommand)
{
case 1: //Leave the next pixel count pixels as transparent.
for (int j = CurrentColumn; j < (CurrentColumn + PixCount); j++)
{
SetPixel(j, CurrentRow, Color.Transparent);
}
CurrentColumn += PixCount;
break;
case 2: //Fill the next pixel count pixels with a palette color.
//The pixel data is two bytes: the first byte denotes the palette color index, and the
//second byte is padding (which is always equal to the first byte but is ignored).
Clr = Reader.ReadByte();
Reader.ReadByte(); //Padding
RowCount -= 2;
for (int j = CurrentColumn; j < (CurrentColumn + PixCount); j++)
{
SetPixel(j, CurrentRow, Palette[Clr]);
}
CurrentColumn += PixCount;
break;
case 3: //Set the next pixel count pixels to the palette color indices defined by the
//pixel data provided directly after this command.
byte Padding = (byte)(PixCount % 2);
if (Padding != 0)
{
RowCount -= (byte)(PixCount + Padding);
}
else
{
RowCount -= PixCount;
}
for (int j = CurrentColumn; j < (CurrentColumn + PixCount); j++)
{
SetPixel(j, CurrentRow, Palette[Reader.ReadByte()]);
}
CurrentColumn += PixCount;
if (Padding != 0)
{
Reader.ReadByte();
}
break;
}
}
CurrentRow++;
break;
case 0x05: //End marker. The count byte is always 0, but may be ignored.
//Some sprites don't have these, so read them using ReadBytes(), which
//simply returns an empty array if the stream couldn't be read.
Reader.ReadBytes(2); //PixCommand and PixCount.
quit = true;
break;
case 0x09: //Leave the next count rows as transparent.
PixCommand = Reader.ReadByte();
PixCount = Reader.ReadByte();
for (int i = 0; i < RowCount; i++)
{
for (int j = CurrentColumn; j < Width; j++)
{
SetPixel(j, CurrentRow, Color.Transparent);
}
CurrentRow++;
}
break;
case 0x10: //Start marker, equivalent to 0x00; the count byte is ignored.
break;
}
}
}
public SPRFrame(FileReader Reader, GraphicsDevice Device, PALT Palette, uint SPRVersion)
{
if (Version == 1001)
{
Version = Reader.ReadUInt32();
Size = Reader.ReadUInt32();
}
Reader.ReadUInt32(); //Reserved
Height = Reader.ReadUShort();
Width = Reader.ReadUShort();
Texture = new Texture2D(Device, Width, Height);
for(ushort i = 0; i < Height; i++)
{
byte Cmd = Reader.ReadByte();
byte Count = Reader.ReadByte();
switch(Cmd)
{
case 0x04:
for(byte j = 0; j < Count; j++)
{
byte PxCmd = Reader.ReadByte();
byte PxCount = Reader.ReadByte();
Color[] Pixels;
switch(PxCmd)
{
case 0x01:
//Leave the next pixel count pixels as transparent. This pixel command has no pixel data.
Pixels = new Color[Count];
for (int k = 0; k < Count; k++)
Pixels[k] = Color.Transparent;
Texture.SetData<Color>(Pixels, 0, Count);
break;
case 0x02:
//Fill the next pixel count pixels with a single palette color.
//The pixel data is two bytes: the first byte denotes the palette color
//index, and the second byte is padding (which is always equal to the
//first byte but is ignored).
Pixels = new Color[Count];
byte ColorIndex = Reader.ReadByte();
for (int k = 0; k < Count; k++)
Pixels[k] = Palette[ColorIndex];
Texture.SetData<Color>(Pixels, 0, Count);
break;
case 0x03:
//Set the next pixel count pixels to the palette color indices defined by
//the pixel data provided directly after this command. Each byte in the pixel data,
//minus the padding byte at the very end (if it exists), is a color index value to
//be copied to the row.
Pixels = new Color[Count];
for (int k = 0; k < Count; k++)
Pixels[k] = Palette[Reader.ReadByte()];
Texture.SetData<Color>(Pixels, 0, Count);
break;
case 0x09:
//Leave the next count rows as transparent.
for (int k = 0; k < Count; k++)
{
Pixels = new Color[Width];
for (int l = 0; l < Width; l++)
Pixels[l] = Color.Transparent;
Texture.SetData<Color>(Pixels, 0, Width);
}
break;
}
}
break;
}
}
}