public void RegisterClientHandler(ClientHandler ch)
{
ch_ = ch;
}
public void Start(int backlog = 20)
{
if (!isListening.get())
{
isListening.set(true);
//listenTask = Task.Run(() =>
listenThread = new Thread(() =>
{
int client_count = 0;
listenSocket_.Listen(backlog);
List <Thread> serviceQ_ = new List <Thread>();
while (isListening.get() && (client_count++ < NumClients || NumClients == -1))
{
Socket client_socket = listenSocket_.Accept();
if (client_socket != null)
{
if (ch_ != null)
{
ClientHandler ch = ch_.Clone();
ch.SetSocket(client_socket);
ch.SetServiceEndPoint(listen_ep_);
// same principle effect as Dr. Fawcett's C++ ThreadPool
// (see the C++ version, TCPResponder.cpp)
// each client is service on a separate thread pool task (a C# future)
//here we use the blocking queue to signal when to exit;
/* service_queue.enQ(Task.Run(() =>
* {
* ServiceClient(ch);
* return true;
* }));
*/
// wait for all service threads to complete
Thread serviceClient = new Thread(() => ServiceClient(ch));
serviceQ_.Add(serviceClient);
serviceClient.Start();
}
}
}
// wait for all service tasks to complete
for (int i = 0; i < serviceQ_.Count; ++i)
{
serviceQ_[i].Join();
}
// use to null to signal complete
/* service_queue.enQ(Task.Run(() => false));
* Task<bool> client_task;
*
* // wait for all service threads to complete
* do
* {
* client_task = service_queue.deQ();
* client_task.Wait();
* }
* while (client_task.Result == true);
*/
});
listenThread.Start();
}
}
