parallel delta queue processing

thread safe packet construction, compilation, compression, gump compilation, sending, coalescing, and many other fixes
TODO:  delta queue recursion fixups, ipooledenumerable fixups/generics
This commit is contained in:
Mark Sturgill 2013-10-11 00:01:05 -07:00
parent 9404651774
commit ddcc4e7a20
16 changed files with 619 additions and 575 deletions

View file

@ -83,92 +83,104 @@ namespace Server.Network {
// If our input exceeds this length, we may potentially overflow the buffer
private const int PossibleOverflow = ( ( BufferSize * 8 ) - TerminalCodeLength ) / MaximalCodeLength;
private static object _syncRoot = new object();
private static byte[] _outputBuffer = new byte[BufferSize];
[Obsolete( "Use Compress( byte[], int, int, ref int ) instead.", false )]
public static void Compress( byte[] input, int length, out byte[] output, out int outputLength ) {
outputLength = 0;
output = Compress( input, 0, length, ref outputLength );
}
public unsafe static byte[] Compress( byte[] input, int offset, int count, ref int length ) {
if ( input == null ) {
throw new ArgumentNullException( "input" );
} else if ( offset < 0 || offset >= input.Length ) {
throw new ArgumentOutOfRangeException( "offset" );
} else if ( count < 0 || count > input.Length ) {
throw new ArgumentOutOfRangeException( "count" );
} else if ( ( input.Length - offset ) < count ) {
public unsafe static void Compress(byte[] input, int offset, int count, byte[] output, ref int length)
{
if (input == null)
{
throw new ArgumentNullException("input");
}
else if (offset < 0 || offset >= input.Length)
{
throw new ArgumentOutOfRangeException("offset");
}
else if (count < 0 || count > input.Length)
{
throw new ArgumentOutOfRangeException("count");
}
else if ((input.Length - offset) < count)
{
throw new ArgumentException();
}
length = 0;
if ( count > DefiniteOverflow ) {
return null;
if (count > DefiniteOverflow)
{
return;
}
lock ( _syncRoot ) {
int bitCount = 0;
int bitValue = 0;
int bitCount = 0;
int bitValue = 0;
fixed ( int* pTable = _huffmanTable ) {
int* pEntry;
fixed (int* pTable = _huffmanTable)
{
int* pEntry;
fixed ( byte* pInputBuffer = input ) {
byte* pInput = pInputBuffer + offset, pInputEnd = pInput + count;
fixed (byte* pInputBuffer = input)
{
byte* pInput = pInputBuffer + offset, pInputEnd = pInput + count;
fixed ( byte* pOutputBuffer = _outputBuffer ) {
byte* pOutput = pOutputBuffer, pOutputEnd = pOutput + BufferSize;
fixed (byte* pOutputBuffer = output)
{
byte* pOutput = pOutputBuffer, pOutputEnd = pOutput + BufferSize;
while ( pInput < pInputEnd ) {
pEntry = &pTable[*pInput++ << 1];
bitCount += pEntry[CountIndex];
bitValue <<= pEntry[CountIndex];
bitValue |= pEntry[ValueIndex];
while ( bitCount >= 8 ) {
bitCount -= 8;
if ( pOutput < pOutputEnd ) {
*pOutput++ = ( byte ) ( bitValue >> bitCount );
} else {
return null;
}
}
}
// terminal code
pEntry = &pTable[0x200];
while (pInput < pInputEnd)
{
pEntry = &pTable[*pInput++ << 1];
bitCount += pEntry[CountIndex];
bitValue <<= pEntry[CountIndex];
bitValue |= pEntry[ValueIndex];
// align on byte boundary
if ( ( bitCount & 7 ) != 0 ) {
bitValue <<= ( 8 - ( bitCount & 7 ) );
bitCount += ( 8 - ( bitCount & 7 ) );
}
while ( bitCount >= 8 ) {
while (bitCount >= 8)
{
bitCount -= 8;
if ( pOutput < pOutputEnd ) {
*pOutput++ = ( byte ) ( bitValue >> bitCount );
} else {
return null;
if (pOutput < pOutputEnd)
{
*pOutput++ = (byte)(bitValue >> bitCount);
}
else
{
length = 0;
return;
}
}
length = ( int ) ( pOutput - pOutputBuffer );
return _outputBuffer;
}
// terminal code
pEntry = &pTable[0x200];
bitCount += pEntry[CountIndex];
bitValue <<= pEntry[CountIndex];
bitValue |= pEntry[ValueIndex];
// align on byte boundary
if ((bitCount & 7) != 0)
{
bitValue <<= (8 - (bitCount & 7));
bitCount += (8 - (bitCount & 7));
}
while (bitCount >= 8)
{
bitCount -= 8;
if (pOutput < pOutputEnd)
{
*pOutput++ = (byte)(bitValue >> bitCount);
}
else
{
length = 0;
return;
}
}
length = (int)(pOutput - pOutputBuffer);
return;
}
}
}