protected virtual void SendData(byte[] data, int len)
{
if (connected)
{
uint new_conv = 0;
KCP.ikcp_decode32u(data, 0, ref new_conv);
Log.Error("send_cov=" + new_conv + ",time=" + GetCurrent());
//查找有没有空闲的发送MySocketEventArgs,有就直接拿来用,没有就创建新的.So easy!
MySocketEventArgs sendArgs = listArgs.Find(a => a.IsUsing == false);
if (sendArgs == null)
{
sendArgs = initSendArgs();
}
lock (sendArgs) //要锁定,不锁定让别的线程抢走了就不妙了.
{
sendArgs.IsUsing = true;
sendArgs.SetBuffer(data, 0, len);
}
if (!clientSocket.SendToAsync(sendArgs))
{
sendArgs.IsUsing = false;
ProcessSend(sendArgs);
}
}
else
{
throw new SocketException((Int32)SocketError.NotConnected);
}
}
void process_connect_packet()
{
mRecvQueue.Switch();
if (!mRecvQueue.Empty())
{
var buf = mRecvQueue.Pop();
UInt32 conv = 0;
KCP.ikcp_decode32u(buf, 0, ref conv);
if (conv <= 0)
{
throw new Exception("inlvaid connect back packet");
}
init_kcp(conv);
mInConnectStage = false;
mConnectSucceed = true;
m_connectStatusCallback(NetworkState.Connected);
//evHandler(cliEvent.Connected, null, null);
}
}
void OnReceive(IAsyncResult ar)
{
try
{
if (ar.IsCompleted)
{
IPEndPoint ipEndpoint = null;
byte[] data = client.EndReceive(ar, ref ipEndpoint);
if (!(data.Length < KCP.IKCP_OVERHEAD))
{
lock (kcpManager)
{
uint new_conv = 0;
KCP.ikcp_decode32u(data, 0, ref new_conv);
if (kcpManager.ContainsKey(new_conv))
{
kcpManager[new_conv].Input(data);
}
}
}
}
}
catch (SocketException e)
{
// This happens when a client disconnects, as we fail to send to that port.
}
client.BeginReceive(OnReceive, null);
}
private void OnRecive(IAsyncResult ar)
{
if (client == null)
{
return;
}
try
{
byte[] buf = client.EndReceive(ar, ref remoteEndPoint);
if (buf == null || buf.Length <= 0)
{
Debug.LogError("Recive buff is null");
return;
}
if (buf.Length < KCP.IKCP_OVERHEAD)
{
return;
}
UInt32 ts = 0;
UInt32 conv = 0;
byte cmd = 0;
KCP.ikcp_decode32u(buf, 0, ref conv);
if (this.conv != conv)
{
return;
}
KCP.ikcp_decode8u(buf, 4, ref cmd);
if (cmd == KCP.IKCP_CMD_ACK)
{
//拦截ack包中的时间戳，作为ping值计算
KCP.ikcp_decode32u(buf, 8, ref ts);
App.Trigger(EventName.Ping, (SystemTime.Clock() - ts));
}
//推进kcp处理
channel.Input(buf);
client.BeginReceive(OnRecive, null);
}
catch (Exception)
{
Debug.LogError("host is closed.");
Dispose();
}
}
/// <summary>
/// 和Update同一个线程调用
/// </summary>
internal void process_recv_queue(byte[] datas)
{
#if DEV
IRQLog.AppLog.Log(this.m_netIndex.ToString() + ",接收1");
#endif
if (m_Kcp != null && datas != null)
{
m_Kcp.Input(datas);
m_NeedUpdateFlag = true;
for (var size = m_Kcp.PeekSize(); size > 0; size = m_Kcp.PeekSize())
{
byte[] buffer;
buffer = (UdpLibConfig.UseBytePool ? m_KCPServer.BytePool.Rent(size) : new byte[size]);
try
{
if (m_Kcp.Recv(buffer) > 0)
{
m_LastRecvTimestamp = m_KCPServer.m_watch.Elapsed;
uint key = 0;
KCP.ikcp_decode32u(buffer, 0, ref key);
if (m_KCPServer.IsClientKeyCorrect(this.m_netIndex, (int)key) == false)
{
#if DEBUG
Console.WriteLine("index:{0} key 不对", this.m_netIndex);
#endif
m_KCPServer.BytePool.Return(buffer, true);
DisposeReason = ClientSessionDisposeReason.IndexKeyError;
//key不对
Dispose();
return;
}
#if DEV
IRQLog.AppLog.Log(this.m_netIndex.ToString() + ",接收2");
#endif
m_KCPServer.OnRecvData(this, buffer, 0, size);
}
}
finally
{
if (UdpLibConfig.UseBytePool)
{
m_KCPServer.BytePool.Return(buffer, true);
}
}
}
}
}
public int Decode(byte[] buf, int size)
{
uint n = 0;
KCP.ikcp_decode32u(buf, 0, ref n);
if (n >= (uint)KcpCmd.KCP_CMD_COUNT)
{
return(-1);
}
cmd = (KcpCmd)n;
if (cmd != KcpCmd.KCP_CMD_CONNECT_REQ)
{
KCP.ikcp_decode32u(buf, 4, ref conv);
}
return(0);
}
private void ProcessRecvQueue()
{
while (!RecvQueue.IsEmpty)
{
SocketAsyncEventArgs e = null;
bool isSuccess = RecvQueue.TryDequeue(out e);
if (!isSuccess || e == null)
{
continue;
}
if (e.BytesTransferred == 0)
{
mSAEPool.PutObject(e);
continue;
}
//handshake with {0,0,0,0} at the first
if (Helper.IsHandshakeDataRight(e.Buffer, e.Offset, e.BytesTransferred))
{
uint conv = Helper.iclock();
var newSession = new KCPClientSession(conv);
newSession.ClientEndPoint = e.RemoteEndPoint;
newSession.KCPOutput = SendWithSession;
newSession.RecvDataHandler = RecvDataHandler;
mSessions.TryAdd(conv, newSession);
KCP.ikcp_encode32u(e.Buffer, e.BytesTransferred, conv);
e.SetBuffer(0, e.BytesTransferred + 4);
if (!mServerSocket.SendToAsync(e))
{
ProcessSend(e);
}
Console.WriteLine("Handshake from:" + e.RemoteEndPoint.ToString());
}
else
{
uint conv = 0;
KCP.ikcp_decode32u(e.Buffer, e.Offset, ref conv);
KCPClientSession session = null;
mSessions.TryGetValue(conv, out session);
if (session != null)
{
session.processRecvQueue(e);
}
mSAEPool.PutObject(e);
}
}
}
// This method is invoked when an asynchronous receive operation completes.
// If the remote host closed the connection, then the socket is closed.
// If data was received then the data is echoed back to the client.
//
private void ProcessReceive(SocketAsyncEventArgs e)
{
try
{
Log.Error("EEE=" + e.BytesTransferred + "," + e.SocketError + "," + e.Count);
if (e.BytesTransferred > 0 && e.SocketError == SocketError.Success)
{
MySocketEventArgs eventArgs = this.receiveEventArgsPool.Rent <MySocketEventArgs>();
this.clientSocket.ReceiveFromAsync(eventArgs);
//读取数据
byte[] data = new byte[e.BytesTransferred];
Array.Copy(e.Buffer, e.Offset, data, 0, e.BytesTransferred);
if (!(data.Length < KCP.IKCP_OVERHEAD))
{
lock (kcpManager)
{
uint new_conv = 0;
KCP.ikcp_decode32u(data, 0, ref new_conv);
if (kcpManager.ContainsKey(new_conv))
{
kcpManager[new_conv].Input(data);
}
}
}
this.receiveEventArgsPool.Return((MySocketEventArgs)e);
/*
* if (!token.ReceiveFromAsync(e))
* this.ProcessReceive(e);
*/
}
else
{
ProcessError(e);
}
}
catch (Exception xe)
{
Console.WriteLine(xe.Message);
}
}
/// <summary>
/// 接收消息线程
/// </summary>
private void OnRecive(IAsyncResult ar)
{
try
{
remoteEndPoint = null;
byte[] buf = client.EndReceive(ar, ref remoteEndPoint);
//如果缓冲区为null 或 长度少于等于0，则断线
if (buf == null || buf.Length <= 0)
{
Dispose();
Debug.LogError("kcp buff is None");
return;
}
//获取会话conv
UInt32 conv = 0;
KCP.ikcp_decode32u(buf, 0, ref conv);
//查找信道池,没有则建立新的
KChannel channel;
if (!channels.TryGetValue(conv, out channel))
{
channel = new KChannel(conv, client, remoteEndPoint)
{
OnRecive = OnRecive
};
channel.OnConnectState = OnConnectState;
channels.Add(conv, channel);
}
channel.Input(buf);
//再次调用异步接收
client.BeginReceive(OnRecive, null);
}
catch (Exception)
{
//TODO 触发此处异常，一般由于客户端主动关闭致使S端无法返回数据包到C端。
//TODO 服务器在此类异常中不需要关闭，只需要处理掉断开连接的C端
}
}
/// <summary>
/// 是否是正确的握手响应
/// </summary>
/// <param name="buffer"></param>
/// <param name="offset"></param>
/// <param name="size"></param>
/// <param name="index"></param>
/// <param name="key"></param>
/// <returns></returns>
internal static bool IsHandshakeDataRight(byte[] buffer, int offset, int size, out uint index, out uint key)
{
index = 0;
key = 0;
if (size < UdpLibConfig.HandshakeDataSize)
{
return(false);
}
for (int i = 0; i < UdpLibConfig.HandshakeHeadData.Length; i++)
{
if (buffer[offset + i] != UdpLibConfig.HandshakeHeadData[i])
{
return(false);
}
}
KCP.ikcp_decode32u(buffer, offset + UdpLibConfig.HandshakeHeadData.Length, ref index);
KCP.ikcp_decode32u(buffer, offset + UdpLibConfig.HandshakeHeadData.Length + 4, ref key);
return(true);
}
private void ProcessConnectQueue()
{
if (!recvQueue.IsEmpty)
{
byte[] data = null;
bool isSuccess = recvQueue.TryDequeue(out data);
if (!isSuccess || data == null)
{
return;
}
if (Helper.IsHandshakeDataRight(data, 0, data.Length))
{
UInt32 conv = 0;
KCP.ikcp_decode32u(data, Helper.HandshakeHeadData.Length, ref conv);
init_kcp(conv);
status = ClientStatus.Connected;
Console.WriteLine("Handshake Success");
}
}
}
protected void UpdateKcp()
{
while (connected)
{
long start = GetCurrent();
lock (kcpManager)
{
List <uint> pp = new List <uint>(kcpManager.Keys);
for (var index = 0; index < pp.Count; index++)
//foreach (KeyValuePair<uint, KCP> kv in kcpManager)
{
KeyValuePair <uint, KCP> kv = new KeyValuePair <uint, KCP>(pp[index], kcpManager[pp[index]]);
kv.Value.Update((uint)start);
int len = kv.Value.Recv(kcpDataCache);
if (len > 0)
{
byte[] data = new byte[len];
Array.Copy(kcpDataCache, data, len);
lock (m_buffer)
{
m_buffer.AddRange(data);
}
//DoReceiveEvent()
do
{
int headLength = Marshal.SizeOf(typeof(CommonPackHead));
// 判断包头是否满足
if (headLength <= m_buffer.Count)
{
byte[] lenBytes = m_buffer.GetRange(0, headLength).ToArray();
//分配结构体内存空间
IntPtr structPtr = Marshal.AllocHGlobal(headLength);
//将byte数组拷贝到分配好的内存空间
Marshal.Copy(lenBytes, 0, structPtr, headLength);
//将内存空间转换为目标结构体
CommonPackHead packHead = (CommonPackHead)Marshal.PtrToStructure(structPtr, typeof(CommonPackHead));
//释放内存空间
Marshal.FreeHGlobal(structPtr);
if (packHead.msg_len <= m_buffer.Count)
{
//包够长时,则提取出来,交给后面的程序去处理
byte[] recv = m_buffer.GetRange(0, (int)packHead.msg_len).ToArray();
lock (m_buffer)
{
m_buffer.RemoveRange(0, (int)packHead.msg_len);
}
//将数据包交给前台去处理
DoReceiveEvent(packHead, recv);
}
else
{
break;
}
}
else
{
//
if (4 == len)
{
uint new_conv = 0;
KCP.ikcp_decode32u(data, 0, ref new_conv);
if (!kcpManager.ContainsKey(new_conv))
{
kcpManager.Add(new_conv, new KCP(new_conv, SendData));
lock (m_buffer)
{
m_buffer.RemoveRange(0, 4);
}
}
usingConv = new_conv;
Log.Error("usingConv=" + new_conv);
}
//长度不够,还得继续接收,需要跳出循环
break;
}
} while (m_buffer.Count > 4);
}
}
}
long after = GetCurrent();
if (after - start < ThreadGap)
{
Thread.Sleep((int)(ThreadGap + start - after));
}
}
}
void ProcessRecvQueue(UInt32 now)
{
if (recvQueue_.Empty())
{
recvQueue_.Switch();
}
while (status_ == Status.Connected && !recvQueue_.Empty())
{
var buf = recvQueue_.Pop();
UInt32 conv = 0;
if (KCP.ikcp_decode32u(buf, 0, ref conv) < 0)
{
// handle kcp command
continue;
}
if (conv < KcpConst.KCP_MIN_CONV)
{
if (kcpCommand_.Decode(buf, buf.Length) < 0)
{
continue;
}
if (conv_ != kcpCommand_.conv)
{
continue;
}
lastRecvTime_ = now;
switch (kcpCommand_.cmd)
{
case KcpCmd.KCP_CMD_DISCONNECT: {
OnDisconnect();
}
break;
case KcpCmd.KCP_CMD_HEARTBEAT: {
}
break;
}
}
else
{
if (conv_ != kcpCommand_.conv)
{
continue;
}
lastRecvTime_ = now;
kcp_.Input(buf);
needUpdate_ = true;
for (var size = kcp_.PeekSize(); size > 0; size = kcp_.PeekSize())
{
var buffer = new byte[size];
if (kcp_.Recv(buffer) > 0)
{
eventCallback_(conv, KcpEvent.KCP_EV_MSG, buffer, null);
}
}
}
}
}
// 测试用例
static void KCPTest(int mode)
{
// 创建模拟网络：丢包率10%，Rtt 60ms~125ms
vnet = new LatencySimulator(10, 60, 125);
// 创建两个端点的 kcp对象，第一个参数 conv是会话编号，同一个会话需要相同
// 最后一个是 user参数，用来传递标识
var kcp1 = new KCP(0x11223344, 1);
var kcp2 = new KCP(0x11223344, 2);
// 设置kcp的下层输出，这里为 udp_output，模拟udp网络输出函数
kcp1.SetOutput(udp_output);
kcp2.SetOutput(udp_output);
UInt32 current = Utils.iclock();
UInt32 slap = current + 20;
UInt32 index = 0;
UInt32 next = 0;
Int64 sumrtt = 0;
int count = 0;
int maxrtt = 0;
// 配置窗口大小：平均延迟200ms，每20ms发送一个包，
// 而考虑到丢包重发，设置最大收发窗口为128
kcp1.WndSize(128, 128);
kcp2.WndSize(128, 128);
if (mode == 0) // 默认模式
{
kcp1.NoDelay(0, 10, 0, 0);
kcp2.NoDelay(0, 10, 0, 0);
}
else if (mode == 1) // 普通模式，关闭流控等
{
kcp1.NoDelay(0, 10, 0, 1);
kcp2.NoDelay(0, 10, 0, 1);
}
else // 启动快速模式
{
// 第1个参数 nodelay-启用以后若干常规加速将启动
// 第2个参数 interval为内部处理时钟，默认设置为 10ms
// 第3个参数 resend为快速重传指标，设置为2
// 第4个参数 为是否禁用常规流控，这里禁止
kcp1.NoDelay(1, 10, 2, 1);
kcp2.NoDelay(1, 10, 2, 1);
kcp1.SetMinRTO(10);
kcp1.SetFastResend(1);
}
var buffer = new byte[2000];
int hr = 0;
UInt32 ts1 = Utils.iclock();
while (true)
{
Thread.Sleep(1);
current = Utils.iclock();
kcp1.Update(current);
kcp2.Update(current);
// 每隔 20ms，kcp1发送数据
for (; current >= slap; slap += 20)
{
KCP.ikcp_encode32u(buffer, 0, index++);
KCP.ikcp_encode32u(buffer, 4, current);
// 发送上层协议包
kcp1.Send(buffer, 0, 8);
}
// 处理虚拟网络：检测是否有udp包从p1->p2
while (true)
{
hr = vnet.Recv(1, buffer, 2000);
if (hr < 0)
{
break;
}
// 如果 p2收到udp，则作为下层协议输入到kcp2
hr = kcp2.Input(buffer, 0, hr);
Debug.Assert(hr >= 0);
}
// 处理虚拟网络：检测是否有udp包从p2->p1
while (true)
{
hr = vnet.Recv(0, buffer, 2000);
if (hr < 0)
{
break;
}
// 如果 p1收到udp，则作为下层协议输入到kcp1
hr = kcp1.Input(buffer, 0, hr);
Debug.Assert(hr >= 0);
}
// kcp2接收到任何包都返回回去
while (true)
{
hr = kcp2.Recv(buffer, 0, 10);
if (hr < 0)
{
break;
}
// 如果收到包就回射
hr = kcp2.Send(buffer, 0, hr);
Debug.Assert(hr >= 0);
}
// kcp1收到kcp2的回射数据
while (true)
{
hr = kcp1.Recv(buffer, 0, 10);
if (hr < 0) // 没有收到包就退出
{
break;
}
int offset = 0;
UInt32 sn = KCP.ikcp_decode32u(buffer, ref offset);
UInt32 ts = KCP.ikcp_decode32u(buffer, ref offset);
UInt32 rtt = current - ts;
if (sn != next)
{
// 如果收到的包不连续
Console.WriteLine(String.Format("ERROR sn {0}<->{1}", count, next));
return;
}
next++;
sumrtt += rtt;
count++;
if (rtt > maxrtt)
{
maxrtt = (int)rtt;
}
Console.WriteLine(String.Format("[RECV] mode={0} sn={1} rtt={2}", mode, sn, rtt));
}
if (next > 1000)
{
break;
}
}
ts1 = Utils.iclock() - ts1;
var names = new string[3] {
"default", "normal", "fast"
};
Console.WriteLine("{0} mode result ({1}ms):", names[mode], ts1);
Console.WriteLine("avgrtt={0} maxrtt={1} tx={2}", sumrtt / count, maxrtt, vnet.tx1);
Console.WriteLine("Press any key to next...");
Console.Read();
}
// Test case
static void KCPTest(int mode)
{
// Create an analog network: 10% packet loss rate，Rtt 60ms~125ms
vnet = new LatencySimulator(10, 60, 125);
// Create a kcp object with two endpoints, the first parameter conv is the session number, the same session needs to be the same
// The last one is the user parameter, which is used to pass the identifier.
var kcp1 = new KCP(0x11223344, 1);
var kcp2 = new KCP(0x11223344, 2);
// Set the lower output of kcp, here udp_output, simulate udp network output function
kcp1.SetOutput(udp_output);
kcp2.SetOutput(udp_output);
UInt32 current = Utils.iclock();
UInt32 slap = current + 20;
UInt32 index = 0;
UInt32 next = 0;
Int64 sumrtt = 0;
int count = 0;
int maxrtt = 0;
// Configuration window size: average delay 200ms, send a packet every 20ms,
// Considering the packet loss retransmission, set the maximum receiving and sending window to 128.
kcp1.WndSize(128, 128);
kcp2.WndSize(128, 128);
if (mode == 0) //Default mode
{
kcp1.NoDelay(0, 10, 0, 0);
kcp2.NoDelay(0, 10, 0, 0);
}
else if (mode == 1) // Normal mode, turn off flow control, etc.
{
kcp1.NoDelay(0, 10, 0, 1);
kcp2.NoDelay(0, 10, 0, 1);
}
else //Start fast mode
{
// 1st parameter nodelay-enabled after some regular acceleration will start
// The second parameter interval is the internal processing clock. The default setting is 10ms.
// The third parameter resend is the fast retransmission indicator, set to 2
// The fourth parameter is whether to disable regular flow control, this is forbidden here.
kcp1.NoDelay(1, 10, 2, 1);
kcp2.NoDelay(1, 10, 2, 1);
kcp1.SetMinRTO(10);
kcp1.SetFastResend(1);
}
var buffer = new byte[2000];
int hr = 0;
UInt32 ts1 = Utils.iclock();
while (true)
{
Thread.Sleep(1);
current = Utils.iclock();
kcp1.Update(current);
kcp2.Update(current);
// Kcp1 sends data every 20ms
for (; current >= slap; slap += 20)
{
KCP.ikcp_encode32u(buffer, 0, index++);
KCP.ikcp_encode32u(buffer, 4, current);
// Send the upper layer protocol packet
kcp1.Send(buffer, 0, 8);
}
//Handling virtual networks: detecting if there are udp packets from p1->p2
while (true)
{
hr = vnet.Recv(1, buffer, 2000);
if (hr < 0)
{
break;
}
//If p2 receives udp, it is input to kcp2 as the underlying protocol.
hr = kcp2.Input(buffer, 0, hr);
Debug.Assert(hr >= 0);
}
// Handling virtual networks: detecting if there are udp packets from p2->p1
while (true)
{
hr = vnet.Recv(0, buffer, 2000);
if (hr < 0)
{
break;
}
// If p1 receives udp, it is input to kcp1 as the underlying protocol.
hr = kcp1.Input(buffer, 0, hr);
Debug.Assert(hr >= 0);
}
// Kcp2 receives any package and returns it.
while (true)
{
hr = kcp2.Recv(buffer, 0, 10);
if (hr < 0)
{
break;
}
//If you receive the package, it will return
hr = kcp2.Send(buffer, 0, hr);
Debug.Assert(hr >= 0);
}
// Kcp1 receives the echo data of kcp2
while (true)
{
hr = kcp1.Recv(buffer, 0, 10);
if (hr < 0) // Exit without receiving the package
{
break;
}
int offset = 0;
UInt32 sn = KCP.ikcp_decode32u(buffer, ref offset);
UInt32 ts = KCP.ikcp_decode32u(buffer, ref offset);
UInt32 rtt = current - ts;
if (sn != next)
{
// If the received packet is not continuous
Console.WriteLine(String.Format("ERROR sn {0}<->{1}", count, next));
return;
}
next++;
sumrtt += rtt;
count++;
if (rtt > maxrtt)
{
maxrtt = (int)rtt;
}
Console.WriteLine(String.Format("[RECV] mode={0} sn={1} rtt={2}", mode, sn, rtt));
}
if (next > 1000)
{
break;
}
}
ts1 = Utils.iclock() - ts1;
var names = new string[3] {
"default", "normal", "fast"
};
Console.WriteLine("{0} mode result ({1}ms):", names[mode], ts1);
Console.WriteLine("avgrtt={0} maxrtt={1} tx={2}", sumrtt / count, maxrtt, vnet.tx1);
Console.WriteLine("Press any key to next...");
Console.Read();
}
private void DealData(IPEndPoint RemoteEndPoint, byte[] buffer)
{
try
{
uint index = 0, key = 0;
if (IsHandshake(buffer, 0, buffer.Length, out index, out key))
{//先握手,使用纯udp进行握手，8字节0xFF+4字节conv+4字节key
var c = GetSession(index);
uint cc = 0;
KCP.ikcp_decode32u(buffer, 16, ref cc);
if (c == null)
{
bool add = true;
//新连接处理，如果返回false，则不予处理，可以用来进行非法连接的初步处理
if (NewSessionProcessor != null)
{
add = NewSessionProcessor.OnNewSession(index, RemoteEndPoint);
}
if (add == false)
{
return;
}
c = AddSession(RemoteEndPoint, index);
c.m_KCPServer = this;
c.m_LastRecvTimestamp = m_watch.Elapsed;
OnNewClientSession(c, buffer, 0, buffer.Length);
}
else
{
Log.Info("====重新设置EndPoint====");
c.EndPoint = RemoteEndPoint;
//如果客户端关闭并且立刻重连，这时候是连不上的，因为KCP中原有的数据不能正确处理
//c.ResetKCP();
}
c.Status = ClientSessionStatus.Connected;
//回发握手请求
UDPClient.BeginSend(buffer, buffer.Length, RemoteEndPoint, (IAsyncResult iar) => { UDPClient.EndSend(iar); }, null);
}
else
{
try
{
KCP.ikcp_decode32u(buffer, 0, ref index);
var c = GetSession(index);
if (c != null && c.Status == ClientSessionStatus.Connected)
{
//Debug.Assert(c.EndPoint.ToString() == RemoteEndPoint.ToString());
if (c.EndPoint.ToString() != RemoteEndPoint.ToString())
{
c.EndPoint = RemoteEndPoint;
Log.Error("==ClientSessionStatus.Connected==");
}
c.AddRecv(buffer);
}
}
catch (Exception ex)
{
Log.Error("==DealData error:" + ex.ToString());
}
}
}
catch (Exception ex)
{
Log.Error("DealData Error:" + ex.ToString());
}
}
