/// <summary>
/// Queues a sequence of bytes, from the specified data source, onto the stream for parsing.
/// </summary>
/// <param name="source">Identifier of the data source.</param>
/// <param name="buffer">An array of bytes. This method copies count bytes from buffer to the queue.</param>
/// <param name="offset">The zero-based byte offset in buffer at which to begin copying bytes to the current stream.</param>
/// <param name="count">The number of bytes to be written to the current stream.</param>
public override void Parse(SourceChannel source, byte[] buffer, int offset, int count)
{
// When SEL Fast Message is transmitted over Ethernet it is embedded in a Telnet stream. As a result
// any 0xFF will be encoded for Telnet compliance as a duplicate, i.e., 0xFF 0xFF. We remove these
// duplications when encountered to make sure check-sums and parsing work as expected.
int doubleFFPosition = buffer.IndexOfSequence(new byte[] { 0xFF, 0xFF }, offset, count);
while (doubleFFPosition > -1)
{
using (BlockAllocatedMemoryStream newBuffer = new BlockAllocatedMemoryStream())
{
// Write buffer before repeated byte
newBuffer.Write(buffer, offset, doubleFFPosition - offset + 1);
int nextByte = doubleFFPosition + 2;
// Write buffer after repeated byte, if any
if (nextByte < offset + count)
{
newBuffer.Write(buffer, nextByte, offset + count - nextByte);
}
buffer = newBuffer.ToArray();
}
offset = 0;
count = buffer.Length;
// Find next 0xFF 0xFF sequence
doubleFFPosition = buffer.IndexOfSequence(new byte[] { 0xFF, 0xFF }, offset, count);
}
base.Parse(source, buffer, offset, count);
}
private void SerialPort_DataReceived(object sender, SerialDataReceivedEventArgs e)
{
var startTime = DateTime.Now;
var lockObject = SourceChannel.LockObject;
lock (lockObject)
{
var masterStopWatch = new Stopwatch();
var requestBytes = new byte[] { };
TimedThreadBlocker.Wait(requestDelay);
requestBytes = new byte[SerialPort.BytesToRead];
if (requestBytes.Length > 0)
{
Read(ref requestBytes, 0, requestBytes.Length, 0);
SourceChannel.Write(ref requestBytes, 0, requestBytes.Length);
TimedThreadBlocker.Wait(responseDelay);
masterStopWatch.Start();
var sequence = 0;
while (SourceChannel.NumberOfBytesAvailable > 0 && responseTimeout > masterStopWatch.ElapsedMilliseconds)
{
var responseBytes = new byte[SourceChannel.NumberOfBytesAvailable];
SourceChannel.Read(ref responseBytes, 0, responseBytes.Length, sequence++);
Write(ref responseBytes, 0, responseBytes.Length);
}
masterStopWatch.Stop();
}
}
}
public DiscordCrosspostWebhook()
{
OnClientUpdated += (s, e) =>
{
SourceGuild.SetClient(Client);
SourceChannel.SetClient(Client);
};
}
/////////////////////////////////////////
//Component_Skeleton.SkinningModeEnum GetSkinningMode( Component_Skeleton skeleton )
//{
// var _override = OverrideSkinningMode.Value;
// if( _override != Component_Skeleton.SkinningModeEnum.Auto )
// return _override;
// var selected = skeleton.SkinningMode.Value;
// if( selected != Component_Skeleton.SkinningModeEnum.Auto )
// return selected;
// if( !hasScale )
// return Component_Skeleton.SkinningModeEnum.DualQuaternion;
// else
// return Component_Skeleton.SkinningModeEnum.Linear;
//}
protected virtual void CalculateCPU(Component_Skeleton skeleton, Component_Mesh originalMesh, Component_Mesh modifiableMesh)
{
bool dualQuaternion = false; // GetSkinningMode( skeleton ) == Component_Skeleton.SkinningModeEnum.DualQuaternion;
for (int nOper = 0; nOper < modifiableMesh.Result.MeshData.RenderOperations.Count; nOper++)
{
var sourceOper = originalMesh.Result.MeshData.RenderOperations[nOper];
var destOper = modifiableMesh.Result.MeshData.RenderOperations[nOper];
var position = new ChannelFloat3(sourceOper, destOper, VertexElementSemantic.Position);
if (position.Exists)
{
var normal = new ChannelFloat3(sourceOper, destOper, VertexElementSemantic.Normal);
var tangent = new ChannelFloat4(sourceOper, destOper, VertexElementSemantic.Tangent);
var blendIndices = new SourceChannel <Vector4I>(sourceOper, VertexElementSemantic.BlendIndices, VertexElementType.Integer4);
var blendWeights = new SourceChannel <Vector4F>(sourceOper, VertexElementSemantic.BlendWeights, VertexElementType.Float4);
if (!blendIndices.Exists || !blendWeights.Exists)
{
continue;
}
if (normal.Exists)
{
if (tangent.Exists)
{
TransformVertices(
dualQuaternion,
position.SourceData, normal.SourceData, tangent.SourceData, blendIndices.SourceData, blendWeights.SourceData,
position.DestData, normal.DestData, tangent.DestData
);
}
else
{
TransformVertices(
dualQuaternion,
position.SourceData, normal.SourceData, blendIndices.SourceData, blendWeights.SourceData,
position.DestData, normal.DestData
);
}
}
else
{
TransformVertices(
dualQuaternion,
position.SourceData, blendIndices.SourceData, blendWeights.SourceData,
position.DestData
);
}
position.WriteChannel();
normal.WriteChannel();
tangent.WriteChannel();
}
}
}
public void SetChannel(int channel, SourceChannel ch)
{
lock (_channels) {
var c = GetChannel(channel, true);
if (c != null)
{
c.channel = ch;
}
}
}
public Task <StopReason> Run()
{
if (SourceChannel != null)
{
SourceChannel.AddContentSink(this);
return(taskSource.Task.ContinueWith(prev => {
SourceChannel.RemoveContentSink(this);
StoppedReason = prev.Result;
return prev.Result;
}));
}
else
{
StoppedReason = StopReason.NoHost;
taskSource.TrySetResult(StopReason.NoHost);
return(taskSource.Task);
}
}
private List <SourceChannel> ParseFile(string filePath)
{
var channelsList = new List <SourceChannel>();
try
{
var rawFileContentByLines = CleanupSourceFile(File.ReadAllLines(filePath));
for (int i = 0; i < rawFileContentByLines.Length; i++)
{
var line = rawFileContentByLines[i];
if (!line.StartsWith("#EXTINF", StringComparison.InvariantCultureIgnoreCase))
{
continue;
}
var nextLine = rawFileContentByLines.Length > i + 1 ? rawFileContentByLines[i + 1] : null;
if (string.IsNullOrEmpty(nextLine) || !nextLine.StartsWith("http", StringComparison.InvariantCultureIgnoreCase))
{
continue;
}
var channel = new SourceChannel()
{
Name = line.Split(',')[1].Trim(),
Link = nextLine.Trim()
};
channelsList.Add(channel);
i++;
}
}
catch (Exception ex) { Logger.Exception(ex); }
Logger.Info($"parsed { channelsList.Count } channels in { Path.GetFileName(filePath) }");
return(channelsList);
}
private void TcpClientBeginReadCallback(IAsyncResult asyncResult)
{
var tcpClient = asyncResult.AsyncState as TcpClient;
try
{
if (asyncResult.IsCompleted)
{
if (tcpClient != null)
{
try
{
var startTime = DateTime.Now;
var sourceChannelLockObject = SourceChannel.LockObject;
lock (sourceChannelLockObject)
{
lock (lockObject)
{
var readBuffer = new byte[1500];
var masterStopWatch = new Stopwatch();
var requestBytes = new byte[] { };
var networkStream = tcpClient.GetStream();
this.tcpClient = tcpClient;
TimedThreadBlocker.Wait(requestDelay);
requestBytes = new byte[tcpClient.Available];
if (requestBytes.Length > 0)
{
Read(ref requestBytes, 0, requestBytes.Length, 0);
SourceChannel.Write(ref requestBytes, 0, requestBytes.Length);
TimedThreadBlocker.Wait(responseDelay);
masterStopWatch.Start();
var sequence = 0;
while (SourceChannel.NumberOfBytesAvailable > 0 && responseTimeout > masterStopWatch.ElapsedMilliseconds)
{
var responseBytes = new byte[SourceChannel.NumberOfBytesAvailable];
SourceChannel.Read(ref responseBytes, 0, responseBytes.Length, sequence++);
Write(ref responseBytes, 0, responseBytes.Length);
}
masterStopWatch.Stop();
}
networkStream.BeginRead(readBuffer, 0, 0, new AsyncCallback(TcpClientBeginReadCallback), tcpClient);
return;
}
}
}
catch (Exception ex)
{
Trace.TraceError($"Error reading newtwork stream: {ex.Message}");
}
}
}
try
{
tcpClient.Dispose();
}
catch (Exception ex)
{
Trace.TraceError($"Error disposing TCP Client: {ex.Message}");
}
try
{
tcpClients.Remove(tcpClient);
}
catch (Exception ex)
{
Trace.TraceError($"Error removing TCP Client from list: {ex.Message}");
}
Interlocked.Decrement(ref numberOfTcpClients);
}
catch (Exception ex)
{
Trace.TraceError($"Error disposing TCP Client: {ex.Message}");
}
}
/// <summary>
/// Writes a sequence of bytes onto the stream for parsing.
/// </summary>
/// <param name="source">Defines the source channel for the data.</param>
/// <param name="buffer">An array of bytes. This method copies count bytes from buffer to the current stream.</param>
/// <param name="offset">The zero-based byte offset in buffer at which to begin copying bytes to the current stream.</param>
/// <param name="count">The number of bytes to be written to the current stream.</param>
public override void Parse(SourceChannel source, byte[] buffer, int offset, int count)
{
// Since the Macrodyne implementation supports both 0xAA and 0xBB as sync-bytes, we must manually check for both during stream initialization,
// base class handles this only then there is a consistently defined set of sync-bytes, not variable.
if (Enabled)
{
// See if there are any 0xAA 0xAA sequences - these must be removed
int syncBytePosition = buffer.IndexOfSequence(new byte[] { 0xAA, 0xAA }, offset, count);
while (syncBytePosition > -1)
{
using (BlockAllocatedMemoryStream newBuffer = new BlockAllocatedMemoryStream())
{
// Write buffer before repeated byte
newBuffer.Write(buffer, offset, syncBytePosition - offset + 1);
int nextByte = syncBytePosition + 2;
// Write buffer after repeated byte, if any
if (nextByte < offset + count)
{
newBuffer.Write(buffer, nextByte, offset + count - nextByte);
}
buffer = newBuffer.ToArray();
}
offset = 0;
count = buffer.Length;
// Find next 0xAA 0xAA sequence
syncBytePosition = buffer.IndexOfSequence(new byte[] { 0xAA, 0xAA }, offset, count);
}
if (StreamInitialized)
{
base.Parse(source, buffer, offset, count);
}
else
{
// Initial stream may be anywhere in the middle of a frame, so we attempt to locate sync-bytes to "line-up" data stream,
// First we look for data frame sync-byte:
syncBytePosition = buffer.IndexOfSequence(new byte[] { 0xAA }, offset, count);
if (syncBytePosition > -1)
{
StreamInitialized = true;
base.Parse(source, buffer, syncBytePosition, count - (syncBytePosition - offset));
}
else
{
// Second we look for command frame response sync-byte:
syncBytePosition = buffer.IndexOfSequence(new byte[] { 0xBB }, offset, count);
if (syncBytePosition > -1)
{
StreamInitialized = true;
base.Parse(source, buffer, syncBytePosition, count - (syncBytePosition - offset));
}
}
}
}
}
void IFrameParser.Parse(SourceChannel source, byte[] buffer, int offset, int count)
{
Parse(source, buffer, offset, count);
}
/// <summary>
/// Writes a sequence of bytes onto the <see cref="IBinaryImageParser"/> stream for parsing.
/// </summary>
/// <param name="source">Defines the source channel for the data.</param>
/// <param name="buffer">An array of bytes. This method copies count bytes from buffer to the current stream.</param>
/// <param name="offset">The zero-based byte offset in buffer at which to begin copying bytes to the current stream.</param>
/// <param name="count">The number of bytes to be written to the current stream.</param>
internal void Parse(SourceChannel source, byte[] buffer, int offset, int count)
{
// Pass data from communications client into protocol specific frame parser
m_frameParser.Parse(source, buffer, offset, count);
m_byteRateTotal += count;
if (m_initiatingDataStream)
m_initialBytesReceived += count;
}
public int ReadAudio(float[] data, int dstIdx, int readlength, int targetChannels, SourceChannel channelType, bool modulate = true)
{
int length = 0;
int DataLength = readlength;
int srcChannelsCount = 2;
int channelIndex = 0;
int stepSize = 1;
while (length < DataLength && startIndex < samples.Length)
{
srcChannelsCount = channels;
if (channels == 2 && channelType != SourceChannel.Both)
{
srcChannelsCount = 1;
stepSize = 2;
channelIndex = (channelType == SourceChannel.Left ? 0 : 1);
}
//calculate the left amount of data in this packet
int sz = samples.Length - startIndex;
//determine the amount of data we going to use of this packet
int count = (int)Mathf.Clamp(sz, 0,
readlength - length);//Remaining data to be filled
GstNetworkAudioPlayer.ProcessAudioPackets(samples, startIndex, channelIndex, count, stepSize, srcChannelsCount, data, (dstIdx + length), channels, modulate);
startIndex += count;
length += count;
}
return(length);
}
