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Diff for /pegasus/src/Pegasus/Common/Monitor.cpp between version 1.115.14.1 and 1.130

version 1.115.14.1, 2006/11/03 04:52:41 version 1.130, 2008/02/27 20:21:17
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 // //
 //============================================================================== //==============================================================================
 // //
 //  
 //%///////////////////////////////////////////////////////////////////////////// //%/////////////////////////////////////////////////////////////////////////////
  
 #include "Network.h" #include "Network.h"
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 #include <Pegasus/Common/MessageQueueService.h> #include <Pegasus/Common/MessageQueueService.h>
 #include <Pegasus/Common/Exception.h> #include <Pegasus/Common/Exception.h>
 #include "ArrayIterator.h" #include "ArrayIterator.h"
 #include <errno.h>  #include "HostAddress.h"
 #if defined PEGASUS_OS_TYPE_WINDOWS && !defined(PEGASUS_DISABLE_LOCAL_DOMAIN_SOCKET)  
 // Maximum iterations of Pipe processing in Monitor::run  
 const Uint32 maxIterations = 2;  
 #endif  
 PEGASUS_USING_STD; PEGASUS_USING_STD;
  
 PEGASUS_NAMESPACE_BEGIN PEGASUS_NAMESPACE_BEGIN
  
 static AtomicInt _connections(0);  
   
 Mutex Monitor::_cout_mut;  
 // Added for NamedPipe implementation for windows  
 #if defined PEGASUS_OS_TYPE_WINDOWS && !defined(PEGASUS_DISABLE_LOCAL_DOMAIN_SOCKET)  
  #define PIPE_INCREMENT 1  
 #endif  
 //////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////
 // //
 // Monitor  // Tickler
 // //
 //////////////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////////////
  
 #define MAX_NUMBER_OF_MONITOR_ENTRIES  32  Tickler::Tickler()
 Monitor::Monitor()      : _listenSocket(PEGASUS_INVALID_SOCKET),
    : _stopConnections(0),        _clientSocket(PEGASUS_INVALID_SOCKET),
      _stopConnectionsSem(0),        _serverSocket(PEGASUS_INVALID_SOCKET)
      _solicitSocketCount(0),  
      _tickle_client_socket(-1),  
      _tickle_server_socket(-1),  
      _tickle_peer_socket(-1)  
 #if defined PEGASUS_OS_TYPE_WINDOWS && !defined(PEGASUS_DISABLE_LOCAL_DOMAIN_SOCKET)  
      ,_solicitPipeCount(0)  
 #endif  
 { {
     int numberOfMonitorEntriesToAllocate = MAX_NUMBER_OF_MONITOR_ENTRIES;      try
     Socket::initializeInterface();  
     _entries.reserveCapacity(numberOfMonitorEntriesToAllocate);  
   
 #if defined PEGASUS_OS_TYPE_WINDOWS && !defined(PEGASUS_DISABLE_LOCAL_DOMAIN_SOCKET)  
     _entries_pipe.reserveCapacity(numberOfMonitorEntriesToAllocate);  
 #endif  
     // setup the tickler  
     initializeTickler();  
   
     // Start the count at 1 because initilizeTickler()  
     // has added an entry in the first position of the  
     // _entries array  
     for( int i = 1; i < numberOfMonitorEntriesToAllocate; i++ )  
     {     {
        _MonitorEntry entry(0, 0, 0);          _initialize();
        _entries.append(entry);  
     }     }
 #if defined PEGASUS_OS_TYPE_WINDOWS && !defined(PEGASUS_DISABLE_LOCAL_DOMAIN_SOCKET)      catch (...)
     for( int i = 1; i < numberOfMonitorEntriesToAllocate; i++ )  
     {     {
        _MonitorEntry entry(0, 0, 0);          _uninitialize();
        _entries_pipe.append(entry);          throw;
     }     }
 #endif  
 } }
  
 Monitor::~Monitor()  Tickler::~Tickler()
 { {
     uninitializeTickler();      _uninitialize();
     Socket::uninitializeInterface();  
     Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                   "returning from monitor destructor");  
 } }
 void Monitor::uninitializeTickler(){  
  
     Tracer::trace(TRC_HTTP, Tracer::LEVEL4, "uninitializing interface");  #if defined(PEGASUS_OS_TYPE_UNIX)
  
     try{  // Use an anonymous pipe for the tickle connection.
         if(_tickle_peer_socket >= 0)  
         {  void Tickler::_initialize()
             Socket::close(_tickle_peer_socket);  
         }  
         if(_tickle_client_socket >= 0)  
         {         {
             Socket::close(_tickle_client_socket);      int fds[2];
         }  
         if(_tickle_server_socket >= 0)      if (pipe(fds) == -1)
         {         {
             Socket::close(_tickle_server_socket);          MessageLoaderParms parms(
               "Common.Monitor.TICKLE_CREATE",
               "Received error number $0 while creating the internal socket.",
               getSocketError());
           throw Exception(parms);
         }         }
   
       _serverSocket = fds[0];
       _clientSocket = fds[1];
     }     }
     catch(...)  
   #else
   
   // Use an external loopback socket connection to allow the tickle socket to
   // be included in the select() array on non-Unix platforms.
   
   void Tickler::_initialize()
     {     {
         Tracer::trace(TRC_HTTP, Tracer::LEVEL4,      //
                   "Failed to close tickle sockets");      // Set up the addresses for the listen, client, and server sockets
       // based on whether IPv6 is enabled.
       //
   
       Socket::initializeInterface();
   
   # ifdef PEGASUS_ENABLE_IPV6
       struct sockaddr_storage listenAddress;
       struct sockaddr_storage clientAddress;
       struct sockaddr_storage serverAddress;
   # else
       struct sockaddr_in listenAddress;
       struct sockaddr_in clientAddress;
       struct sockaddr_in serverAddress;
   # endif
   
       int addressFamily;
       SocketLength addressLength;
   
       memset(&listenAddress, 0, sizeof (listenAddress));
   
   # ifdef PEGASUS_ENABLE_IPV6
       if (System::isIPv6StackActive())
       {
           // Use the IPv6 loopback address for the listen sockets
           HostAddress::convertTextToBinary(
               HostAddress::AT_IPV6,
               "::1",
               &reinterpret_cast<struct sockaddr_in6*>(&listenAddress)->sin6_addr);
           listenAddress.ss_family = AF_INET6;
           reinterpret_cast<struct sockaddr_in6*>(&listenAddress)->sin6_port = 0;
   
           addressFamily = AF_INET6;
           addressLength = sizeof(struct sockaddr_in6);
     }     }
       else
   # endif
       {
           // Use the IPv4 loopback address for the listen sockets
           HostAddress::convertTextToBinary(
               HostAddress::AT_IPV4,
               "127.0.0.1",
               &reinterpret_cast<struct sockaddr_in*>(
                   &listenAddress)->sin_addr.s_addr);
           reinterpret_cast<struct sockaddr_in*>(&listenAddress)->sin_family =
               AF_INET;
           reinterpret_cast<struct sockaddr_in*>(&listenAddress)->sin_port = 0;
  
           addressFamily = AF_INET;
           addressLength = sizeof(struct sockaddr_in);
 } }
  
 void Monitor::initializeTickler(){      // Use the same address for the client socket as the listen socket
     /*      clientAddress = listenAddress;
        NOTE: On any errors trying to  
              setup out tickle connection,  
              throw an exception/end the server  
     */  
  
     /* setup the tickle server/listener */      //
     // try until the tcpip is restarted      // Set up a listen socket to allow the tickle client and server to connect
     do      //
     {  
  
         // get a socket for the server side      // Create the listen socket
         if((_tickle_server_socket = Socket::createSocket(PF_INET, SOCK_STREAM, 0)) == PEGASUS_INVALID_SOCKET)      if ((_listenSocket = Socket::createSocket(addressFamily, SOCK_STREAM, 0)) ==
                PEGASUS_INVALID_SOCKET)
         {         {
             //handle error          MessageLoaderParms parms(
             MessageLoaderParms parms("Common.Monitor.TICKLE_CREATE",              "Common.Monitor.TICKLE_CREATE",
                                      "Received error number $0 while creating the internal socket.",                                      "Received error number $0 while creating the internal socket.",
                                      getSocketError());                                      getSocketError());
             throw Exception(parms);             throw Exception(parms);
         }         }
  
         // initialize the address      // Bind the listen socket to the loopback address
         memset(&_tickle_server_addr, 0, sizeof(_tickle_server_addr));      if (::bind(
 #ifdef PEGASUS_PLATFORM_OS400_ISERIES_IBM              _listenSocket,
 #pragma convert(37)              reinterpret_cast<struct sockaddr*>(&listenAddress),
 #endif              addressLength) < 0)
         _tickle_server_addr.sin_addr.s_addr = inet_addr("127.0.0.1");      {
 #ifdef PEGASUS_PLATFORM_OS400_ISERIES_IBM          MessageLoaderParms parms(
 #pragma convert(0)              "Common.Monitor.TICKLE_BIND",
 #endif  
         _tickle_server_addr.sin_family = PF_INET;  
         _tickle_server_addr.sin_port = 0;  
   
         SocketLength _addr_size = sizeof(_tickle_server_addr);  
   
         // bind server side to socket  
         if((::bind(_tickle_server_socket,  
                    reinterpret_cast<struct sockaddr*>(&_tickle_server_addr),  
                    sizeof(_tickle_server_addr))) < 0)  
         {  
             // handle error  
 #ifdef PEGASUS_OS_ZOS  
             MessageLoaderParms parms("Common.Monitor.TICKLE_BIND_LONG",  
                                 "Received error:$0 while binding the internal socket."  
                                 ,strerror(errno));  
 #else  
             MessageLoaderParms parms("Common.Monitor.TICKLE_BIND",  
                                 "Received error number $0 while binding the internal socket.",                                 "Received error number $0 while binding the internal socket.",
                                 getSocketError());                                 getSocketError());
 #endif  
             throw Exception(parms);             throw Exception(parms);
         }         }
  
         // tell the kernel we are a server      // Listen for a connection from the tickle client
         if((::listen(_tickle_server_socket,3)) < 0)      if ((::listen(_listenSocket, 3)) < 0)
         {         {
             // handle error          MessageLoaderParms parms(
             MessageLoaderParms parms("Common.Monitor.TICKLE_LISTEN",              "Common.Monitor.TICKLE_LISTEN",
                                 "Received error number $0 while listening to the internal socket.",                                 "Received error number $0 while listening to the internal socket.",
                                 getSocketError());                                 getSocketError());
             throw Exception(parms);             throw Exception(parms);
         }         }
  
         // make sure we have the correct socket for our server      // Verify we have the correct listen socket
         int sock = ::getsockname(_tickle_server_socket,      SocketLength tmpAddressLength = addressLength;
                             reinterpret_cast<struct sockaddr*>(&_tickle_server_addr),      int sock = ::getsockname(
                             &_addr_size);          _listenSocket,
           reinterpret_cast<struct sockaddr*>(&listenAddress),
           &tmpAddressLength);
         if(sock < 0)         if(sock < 0)
         {         {
             // handle error          MessageLoaderParms parms(
             MessageLoaderParms parms("Common.Monitor.TICKLE_SOCKNAME",              "Common.Monitor.TICKLE_SOCKNAME",
                                 "Received error number $0 while getting the internal socket name.",                                 "Received error number $0 while getting the internal socket name.",
                                 getSocketError());                                 getSocketError());
             throw Exception(parms);             throw Exception(parms);
         }         }
  
         /* set up the tickle client/connector */      //
       // Set up the client side of the tickle connection.
         // get a socket for our tickle client      //
         if((_tickle_client_socket = Socket::createSocket(PF_INET, SOCK_STREAM, 0))  
            == PEGASUS_INVALID_SOCKET)  
         {  
             // handle error  
             MessageLoaderParms parms("Common.Monitor.TICKLE_CLIENT_CREATE",  
                                 "Received error number $0 while creating the internal client socket.",  
                                 getSocketError());  
             throw Exception(parms);  
         }  
   
         // setup the address of the client  
         memset(&_tickle_client_addr, 0, sizeof(_tickle_client_addr));  
 #ifdef PEGASUS_PLATFORM_OS400_ISERIES_IBM  
 #pragma convert(37)  
 #endif  
         _tickle_client_addr.sin_addr.s_addr = inet_addr("127.0.0.1");  
 #ifdef PEGASUS_PLATFORM_OS400_ISERIES_IBM  
 #pragma convert(0)  
 #endif  
         _tickle_client_addr.sin_family = PF_INET;  
         _tickle_client_addr.sin_port = 0;  
  
         // bind socket to client side      // Create the client socket
         if((::bind(_tickle_client_socket,      if ((_clientSocket = Socket::createSocket(addressFamily, SOCK_STREAM, 0)) ==
                    reinterpret_cast<struct sockaddr*>(&_tickle_client_addr),               PEGASUS_INVALID_SOCKET)
                    sizeof(_tickle_client_addr))) < 0)      {
         {          MessageLoaderParms parms(
             // handle error              "Common.Monitor.TICKLE_CLIENT_CREATE",
             MessageLoaderParms parms("Common.Monitor.TICKLE_CLIENT_BIND",              "Received error number $0 while creating the internal client "
                                      "Received error number $0 while binding the internal client socket.",                  "socket.",
                                      getSocketError());                                      getSocketError());
             throw Exception(parms);             throw Exception(parms);
         }         }
  
         // connect to server side      // Bind the client socket to the loopback address
         if((::connect(_tickle_client_socket,      if (::bind(
                       reinterpret_cast<struct sockaddr*>(&_tickle_server_addr),              _clientSocket,
                       sizeof(_tickle_server_addr))) < 0)              reinterpret_cast<struct sockaddr*>(&clientAddress),
         {              addressLength) < 0)
             // handle error      {
             MessageLoaderParms parms("Common.Monitor.TICKLE_CLIENT_CONNECT",          MessageLoaderParms parms(
                                      "Received error number $0 while connecting the internal client socket.",              "Common.Monitor.TICKLE_CLIENT_BIND",
               "Received error number $0 while binding the internal client "
                   "socket.",
                                      getSocketError());                                      getSocketError());
             throw Exception(parms);             throw Exception(parms);
         }         }
  
         /* set up the slave connection */      // Connect the client socket to the listen socket address
         memset(&_tickle_peer_addr, 0, sizeof(_tickle_peer_addr));      if (::connect(
         SocketLength peer_size = sizeof(_tickle_peer_addr);              _clientSocket,
         Threads::sleep(1);              reinterpret_cast<struct sockaddr*>(&listenAddress),
               addressLength) < 0)
         // this call may fail, we will try a max of 20 times to establish this peer connection      {
         if((_tickle_peer_socket = ::accept(_tickle_server_socket,          MessageLoaderParms parms(
                                            reinterpret_cast<struct sockaddr*>(&_tickle_peer_addr),              "Common.Monitor.TICKLE_CLIENT_CONNECT",
                                            &peer_size)) < 0)              "Received error number $0 while connecting the internal client "
         {                  "socket.",
 #if !defined(PEGASUS_OS_TYPE_WINDOWS)  
   
             if(_tickle_peer_socket == PEGASUS_SOCKET_ERROR  
                && getSocketError() == PEGASUS_NETWORK_TRYAGAIN)  
             {  
                 int retries = 0;  
                 do  
                 {  
                     Threads::sleep(1);  
                     _tickle_peer_socket = ::accept(_tickle_server_socket,  
                                                    reinterpret_cast<struct sockaddr*>(&_tickle_peer_addr),  
                                                    &peer_size);  
                     retries++;  
                 } while(_tickle_peer_socket == PEGASUS_SOCKET_ERROR  
                         && getSocketError() == PEGASUS_NETWORK_TRYAGAIN  
                         && retries < 20);  
             }  
             // TCP/IP is down, destroy sockets and retry again.  
             if(_tickle_peer_socket == PEGASUS_SOCKET_ERROR &&  
                getSocketError() == PEGASUS_NETWORK_TCPIP_STOPPED )  
             {  
                 // destroy everything  
                 uninitializeTickler();  
                 // retry again.  
                 continue;  
             }  
         }  
 #endif  
     }  
         if(_tickle_peer_socket == PEGASUS_SOCKET_ERROR)  
         {  
             // handle error  
             MessageLoaderParms parms("Common.Monitor.TICKLE_ACCEPT",  
                                      "Received error number $0 while accepting the internal socket connection.",  
                                      getSocketError());                                      getSocketError());
             throw Exception(parms);             throw Exception(parms);
         } else  
         {  
             // socket is ok  
             break;  
         }  
     } while(1); // try until TCP/IP is restarted  
   
     Socket::disableBlocking(_tickle_peer_socket);  
     Socket::disableBlocking(_tickle_client_socket);  
   
     // add the tickler to the list of entries to be monitored and set to IDLE because Monitor only  
     // checks entries with IDLE state for events  
     _MonitorEntry entry(_tickle_peer_socket, 1, INTERNAL);  
     entry._status = _MonitorEntry::IDLE;  
   
     // is the tickler initalized as first socket on startup ?  
     if (_entries.size()==0)  
     {  
        // if yes, append a new entry  
        _entries.append(entry);  
     }  
     else  
     {  
        // if not, overwrite the tickler entry with new socket  
        _entries[0]=entry;  
     }  
   
 } }
  
 void Monitor::tickle(void)      //
 {      // Set up the server side of the tickle connection.
     static char _buffer[] =      //
     {  
       '0','0'  
     };  
   
     AutoMutex autoMutex(_tickle_mutex);  
     Socket::write(_tickle_client_socket,&_buffer, 2);  
 }  
   
 void Monitor::setState( Uint32 index, _MonitorEntry::entry_status status )  
 {  
     // Set the state to requested state  
     _entries[index]._status = status;  
 }  
   
 #if defined PEGASUS_OS_TYPE_WINDOWS && !defined(PEGASUS_DISABLE_LOCAL_DOMAIN_SOCKET)  
 void Monitor::setPipeState( Uint32 index, _MonitorEntry::entry_status status )  
 {  
     // Set the state to requested state  
     _entries_pipe[index]._status = status;  
 }  
   
 int  Monitor::handlePipe()  
 {  
   
     AutoMutex autoEntryMutex(_entry_mut);  
   
     ArrayIterator<_MonitorEntry> entries(_entries_pipe);  
   
     // Check the stopConnections flag.  If set, clear the Acceptor monitor entries  
     if (_stopConnections.get() == 1)  
     {  
         for ( int indx = 0; indx < (int)entries.size(); indx++)  
         {  
             if (entries[indx]._type == Monitor::ACCEPTOR)  
             {  
                 if ( entries[indx]._status.get() != _MonitorEntry::EMPTY)  
                 {  
                    if ( entries[indx]._status.get() == _MonitorEntry::IDLE ||  
                         entries[indx]._status.get() == _MonitorEntry::DYING )  
                    {  
                        // remove the entry  
                        entries[indx]._status = _MonitorEntry::EMPTY;  
                    }  
                    else  
                    {  
                        // set status to DYING  
                        entries[indx]._status = _MonitorEntry::DYING;  
                    }  
                }  
            }  
         }  
         _stopConnections = 0;  
         _stopConnectionsSem.signal();  
     }  
   
     for( int indx = 0; indx < (int)entries.size(); indx++)  
     {  
      const _MonitorEntry &entry = entries[indx];  
        if ((entry._status.get() == _MonitorEntry::DYING) &&  
                      (entry._type == Monitor::CONNECTION))  
        {  
           MessageQueue *q = MessageQueue::lookup(entry.queueId);  
           PEGASUS_ASSERT(q != 0);  
           HTTPConnection &h = *static_cast<HTTPConnection *>(q);  
   
                     if (h._connectionClosePending == false)  
                         continue;  
   
                     // NOTE: do not attempt to delete while there are pending responses  
                     // coming thru. The last response to come thru after a  
                     // _connectionClosePending will reset _responsePending to false  
                     // and then cause the monitor to rerun this code and clean up.  
                     // (see HTTPConnection.cpp)  
   
                     if (h._responsePending == true)  
                     {  
                     Tracer::trace(TRC_HTTP, Tracer::LEVEL4, "Monitor::run - "  
                         "Ignoring connection delete request because "  
                         "responses are still pending. "  
                         "connection=0x%p, NamedPipe=%d\n",  
                         (void *)&h, h.getNamedPipe().getPipe());  
                         continue;  
                     }  
                     h._connectionClosePending = false;  
           MessageQueue &o = h.get_owner();  
           Message* message = 0;  
   
           message= new CloseConnectionMessage(entry.namedPipe);  
   
           message->dest = o.getQueueId();  
  
           // HTTPAcceptor is responsible for closing the connection.      tmpAddressLength = addressLength;
           // The lock is released to allow HTTPAcceptor to call  
           // unsolicitSocketMessages to free the entry.  
           // Once HTTPAcceptor completes processing of the close  
           // connection, the lock is re-requested and processing of  
           // the for loop continues.  This is safe with the current  
           // implementation of the entries object.  Note that the  
           // loop condition accesses the entries.size() on each  
           // iteration, so that a change in size while the mutex is  
           // unlocked will not result in an ArrayIndexOutOfBounds  
           // exception.  
  
           _entry_mut.unlock();      // Accept the client socket connection.
           o.enqueue(message);      _serverSocket = ::accept(
           _entry_mut.lock();          _listenSocket,
           // After enqueue a message and the autoEntryMutex has been released and locked again,          reinterpret_cast<struct sockaddr*>(&serverAddress),
           // the array of _entries can be changed. The ArrayIterator has be reset with the original _entries.          &tmpAddressLength);
           entries.reset(_entries_pipe);  
        }      if (_serverSocket == PEGASUS_SOCKET_ERROR)
       {
           MessageLoaderParms parms(
               "Common.Monitor.TICKLE_ACCEPT",
               "Received error number $0 while accepting the internal socket "
                   "connection.",
               getSocketError());
           throw Exception(parms);
     }     }
  
     Uint32 _idleEntries = 0;      //
       // Close the listen socket and make the other sockets non-blocking
     /*      //
         We will keep track of the maximum socket number and pass this value  
         to the kernel as a parameter to SELECT.  This loop seems like a good  
         place to calculate the max file descriptor (maximum socket number)  
         because we have to traverse the entire array.  
     */  
     SocketHandle maxSocketCurrentPass = 0;  
     int indx = 0;  
   
   
     Array <Uint32> indexPipeCountAssociator;  
     int pipeEntryCount=0;  
     int MaxPipes = PIPE_INCREMENT;  
     // List of Pipe Handlers  
     HANDLE * hPipeList = new HANDLE[PIPE_INCREMENT];  
   
   
     for( indx = 0; indx < (int)entries.size()  ; indx++)  
     {  
            if (!entries[indx].namedPipeConnection)  
                continue;  
  
             entries[indx].pipeSet = false;      Socket::close(_listenSocket);
             if (pipeEntryCount >= MaxPipes)      Socket::disableBlocking(_serverSocket);
             {      Socket::disableBlocking(_clientSocket);
                 MaxPipes += PIPE_INCREMENT;  
                 HANDLE* temp_pList = new HANDLE[MaxPipes];  
                 for (Uint32 i =0;i<pipeEntryCount;i++)  
                 {  
                     temp_pList[i] = hPipeList[i];  
                 }                 }
                 delete [] hPipeList;  
                 hPipeList = temp_pList;  
             }  
             hPipeList[pipeEntryCount] = entries[indx].namedPipe.getPipe();  
             indexPipeCountAssociator.append(indx);  
             pipeEntryCount++;  
  
     }  #endif
     /*  
         Add 1 then assign maxSocket accordingly. We add 1 to account for  
         descriptors starting at 0.  
     */  
     maxSocketCurrentPass++;  
   
   
   
     int pEvents = -1;  
     int pCount = -1;  
     BOOL bPeekPipe = 0;  
     DWORD dwBytesAvail=0;  
     // The pipe is sniffed and check if there are any data. If available, the  
     // message is picked from the Queue and appropriate methods are invoked.  
   
   
     // pipeProcessCount records the number of requests that are processed.  
     // At the end of loop this is verified against the count of request  
     // on local connection . If there are any pipes which needs to be  
     // processed we would apply delay and then proceed to iterate.  
   
     Uint32 pipeProcessCount =0;  
   
     _entry_mut.unlock();  
   
   
     // pipeIndex is used to index into indexPipeCountAssociator to fetch  
     // index of the _MonitorEntry of Monitor  
     for (int pipeIndex = 0; pipeIndex < pipeEntryCount; pipeIndex++)  
     {  
         dwBytesAvail = 0;  
   
         bPeekPipe = ::PeekNamedPipe(hPipeList[pipeIndex],  
                                     NULL,  
                                     NULL,  
                                     NULL,  
                                     &dwBytesAvail,  
                                     NULL  
                                     );  
   
         // If peek on NamedPipe was successfull and data is available  
         if (bPeekPipe && dwBytesAvail)  
         {  
   
             // Tracer::trace(TRC_HTTP,Tracer::LEVEL4," PIPE_PEEKING FOUND = %u BYTES", dwBytesAvail);  
   
             pEvents = 1;  
             Tracer::trace(TRC_HTTP, Tracer::LEVEL4, "EVENT TRIGGERED in Pipe = %u ",entries[indexPipeCountAssociator[pipeIndex]].namedPipe.getPipe());  
             entries[indexPipeCountAssociator[pipeIndex]].pipeSet = true;  
             int pIndx = indexPipeCountAssociator[pipeIndex];  
  
             if ((entries[pIndx]._status.get() == _MonitorEntry::IDLE) &&  void Tickler::_uninitialize()
                     entries[pIndx].namedPipe.isConnected() &&  
                     (pEvents))  
             {             {
       PEG_TRACE_CSTRING(TRC_HTTP, Tracer::LEVEL4, "uninitializing interface");
                 MessageQueue *q = 0;  
  
                 try                 try
                 {                 {
           Socket::close(_serverSocket);
                     q = MessageQueue::lookup (entries[pIndx].queueId);          Socket::close(_clientSocket);
                 }          Socket::close(_listenSocket);
                 catch (Exception e)  
                 {  
                     e.getMessage();  
                 }                 }
                 catch(...)                 catch(...)
                 {                 {
           PEG_TRACE_CSTRING(TRC_HTTP, Tracer::LEVEL4,
               "Failed to close tickle sockets");
                 }                 }
       Socket::uninitializeInterface();
                 Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                                 "Monitor::run indx = %d, queueId =  %d,\  
                                 q = %p",pIndx, entries[pIndx].queueId, q);  
                 try  
                 {  
                     if (entries[pIndx]._type == Monitor::CONNECTION)  
                     {  
   
                         Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                                         "entries[indx].type for indx = \  
                                         %d is Monitor::CONNECTION",  
                                         pIndx);  
                         static_cast<HTTPConnection *>(q)->_entry_index = pIndx;  
                         HTTPConnection *dst = reinterpret_cast \  
                                                     <HTTPConnection *>(q);  
                         Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                                         "Monitor::_dispatch: entering run() \  
                                         for indx  = %d, queueId = %d, \  
                                         q = %p",\  
                                         dst->_entry_index,  
                                         dst->_monitor->_entries\  
                                         [dst->_entry_index].queueId, dst);  
   
                         try  
                         {  
   
                             dst->run(1);  
   
                             // Record that the requested data is read/Written  
                             pipeProcessCount++;  
   
                         }  
                         catch (...)  
                         {  
                             Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                                             "Monitor::_dispatch: \  
                                             exception received");  
                         }                         }
  
                         Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                                         "Monitor::_dispatch: exited \  
                                         \run() index %d",  
                                         dst->_entry_index);  
  
   ////////////////////////////////////////////////////////////////////////////////
   //
   // Monitor
   //
   ////////////////////////////////////////////////////////////////////////////////
  
                     }  #define MAX_NUMBER_OF_MONITOR_ENTRIES  32
                     else  Monitor::Monitor()
      : _stopConnections(0),
        _stopConnectionsSem(0),
        _solicitSocketCount(0)
                     {                     {
                         /* The condition      int numberOfMonitorEntriesToAllocate = MAX_NUMBER_OF_MONITOR_ENTRIES;
                             entries[indx]._type == Monitor::INTERNAL can be      _entries.reserveCapacity(numberOfMonitorEntriesToAllocate);
                             ignored for pipes as the tickler is of  
                             Monitor::INTERNAL type. The tickler is  
                             a socket.  
                         */  
                         Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                                             "Non-connection entry, indx = %d,\  
                                             has been received.", pIndx);  
                         int events = 0;  
                         Message *msg = 0;  
   
                         pEvents |= NamedPipeMessage::READ;  
                         msg = new NamedPipeMessage(entries[pIndx].namedPipe, pEvents);  
                         entries[pIndx]._status = _MonitorEntry::BUSY;  
                         q->enqueue(msg);  
                         _entry_mut.lock();  
                         entries.reset(_entries_pipe);  
                         entries[pIndx]._status = _MonitorEntry::IDLE;  
                         delete [] hPipeList;  
                         return 1;  
                     }  
  
       // Create a MonitorEntry for the Tickler and set its state to IDLE so the
       // Monitor will watch for its events.
       _entries.append(MonitorEntry(
           _tickler.getServerSocket(),
           1,
           MonitorEntry::STATUS_IDLE,
           MonitorEntry::TYPE_INTERNAL));
  
                 }      // Start the count at 1 because _entries[0] is the Tickler
                 catch(...)      for (int i = 1; i < numberOfMonitorEntriesToAllocate; i++)
                 {                 {
           _entries.append(MonitorEntry());
                 }                 }
             }             }
  
   Monitor::~Monitor()
   {
       PEG_TRACE_CSTRING(TRC_HTTP, Tracer::LEVEL4,
                     "returning from monitor destructor");
         }         }
  
                 _entry_mut.lock();  void Monitor::tickle()
     }  
     delete [] hPipeList;  
   
         //If no request received on pipe rest for 4 seconds and give chance to Socket Thread  
     if (!pipeProcessCount)  
         {         {
                 Sleep(4000);      Socket::write(_tickler.getClientSocket(), "\0", 1);
         }         }
     return 1;  
  
   void Monitor::setState(
       Uint32 index,
       MonitorEntry::Status status)
   {
       AutoMutex autoEntryMutex(_entriesMutex);
       // Set the state to requested state
       _entries[index].status = status;
 } }
 #endif  
  
 void Monitor::run(Uint32 milliseconds) void Monitor::run(Uint32 milliseconds)
 { {
   
     int i = 0;  
   
     struct timeval tv = {milliseconds/1000, milliseconds%1000*1000};     struct timeval tv = {milliseconds/1000, milliseconds%1000*1000};
  
     fd_set fdread;     fd_set fdread;
     FD_ZERO(&fdread);     FD_ZERO(&fdread);
  
     AutoMutex autoEntryMutex(_entry_mut);      AutoMutex autoEntryMutex(_entriesMutex);
  
     ArrayIterator<_MonitorEntry> entries(_entries);      ArrayIterator<MonitorEntry> entries(_entries);
  
     // Check the stopConnections flag.  If set, clear the Acceptor monitor entries      // Check the stopConnections flag.  If set, clear the Acceptor monitor
       // entries
     if (_stopConnections.get() == 1)     if (_stopConnections.get() == 1)
     {     {
         for ( int indx = 0; indx < (int)entries.size(); indx++)          for (Uint32 indx = 0; indx < entries.size(); indx++)
         {         {
             if (entries[indx]._type == Monitor::ACCEPTOR)              if (entries[indx].type == MonitorEntry::TYPE_ACCEPTOR)
             {             {
                 if ( entries[indx]._status.get() != _MonitorEntry::EMPTY)                  if (entries[indx].status != MonitorEntry::STATUS_EMPTY)
                 {                 {
                    if ( entries[indx]._status.get() == _MonitorEntry::IDLE ||                      if (entries[indx].status == MonitorEntry::STATUS_IDLE ||
                         entries[indx]._status.get() == _MonitorEntry::DYING )                          entries[indx].status == MonitorEntry::STATUS_DYING)
                    {                    {
                        // remove the entry                        // remove the entry
                entries[indx]._status = _MonitorEntry::EMPTY;                          entries[indx].status = MonitorEntry::STATUS_EMPTY;
                    }                    }
                    else                    else
                    {                    {
                        // set status to DYING                        // set status to DYING
                       entries[indx]._status = _MonitorEntry::DYING;                          entries[indx].status = MonitorEntry::STATUS_DYING;
                    }                    }
                }                }
            }            }
Line 701 
Line 397 
     _stopConnectionsSem.signal();     _stopConnectionsSem.signal();
     }     }
  
     for( int indx = 0; indx < (int)entries.size(); indx++)      for (Uint32 indx = 0; indx < entries.size(); indx++)
     {     {
              const _MonitorEntry &entry = entries[indx];          const MonitorEntry& entry = entries[indx];
        if ((entry._status.get() == _MonitorEntry::DYING) &&  
                      (entry._type == Monitor::CONNECTION))          if ((entry.status == MonitorEntry::STATUS_DYING) &&
               (entry.type == MonitorEntry::TYPE_CONNECTION))
        {        {
           MessageQueue *q = MessageQueue::lookup(entry.queueId);           MessageQueue *q = MessageQueue::lookup(entry.queueId);
           PEGASUS_ASSERT(q != 0);           PEGASUS_ASSERT(q != 0);
Line 722 
Line 419 
  
                     if (h._responsePending == true)                     if (h._responsePending == true)
                     {                     {
                         Tracer::trace(TRC_HTTP, Tracer::LEVEL4, "Monitor::run - "                  PEG_TRACE((TRC_HTTP, Tracer::LEVEL4,
                                                     "Ignoring connection delete request because "                      "Monitor::run - Ignoring connection delete request "
                                                     "responses are still pending. "                          "because responses are still pending. "
                                                     "connection=0x%p, socket=%d\n",                                                     "connection=0x%p, socket=%d\n",
                                                     (void *)&h, h.getSocket());                      (void *)&h, h.getSocket()));
                         continue;                         continue;
                     }                     }
                     h._connectionClosePending = false;                     h._connectionClosePending = false;
Line 746 
Line 443 
           // unlocked will not result in an ArrayIndexOutOfBounds           // unlocked will not result in an ArrayIndexOutOfBounds
           // exception.           // exception.
  
           _entry_mut.unlock();              _entriesMutex.unlock();
           o.enqueue(message);           o.enqueue(message);
           _entry_mut.lock();              _entriesMutex.lock();
           // After enqueue a message and the autoEntryMutex has been released and locked again,  
           // the array of _entries can be changed. The ArrayIterator has be reset with the original _entries.              // After enqueue a message and the autoEntryMutex has been
               // released and locked again, the array of _entries can be
               // changed. The ArrayIterator has be reset with the original
               // _entries.
           entries.reset(_entries);           entries.reset(_entries);
        }        }
     }     }
Line 764 
Line 464 
         because we have to traverse the entire array.         because we have to traverse the entire array.
     */     */
     SocketHandle maxSocketCurrentPass = 0;     SocketHandle maxSocketCurrentPass = 0;
     for( int indx = 0; indx < (int)entries.size(); indx++)      for (Uint32 indx = 0; indx < entries.size(); indx++)
     {     {
        if(maxSocketCurrentPass < entries[indx].socket)        if(maxSocketCurrentPass < entries[indx].socket)
             maxSocketCurrentPass = entries[indx].socket;             maxSocketCurrentPass = entries[indx].socket;
  
        if(entries[indx]._status.get() == _MonitorEntry::IDLE)          if (entries[indx].status == MonitorEntry::STATUS_IDLE)
        {        {
            _idleEntries++;            _idleEntries++;
            FD_SET(entries[indx].socket, &fdread);            FD_SET(entries[indx].socket, &fdread);
Line 782 
Line 482 
     */     */
     maxSocketCurrentPass++;     maxSocketCurrentPass++;
  
     _entry_mut.unlock();      _entriesMutex.unlock();
  
     //     //
     // The first argument to select() is ignored on Windows and it is not     // The first argument to select() is ignored on Windows and it is not
Line 794 
Line 494 
 #else #else
     int events = select(maxSocketCurrentPass, &fdread, NULL, NULL, &tv);     int events = select(maxSocketCurrentPass, &fdread, NULL, NULL, &tv);
 #endif #endif
     _entry_mut.lock();      int selectErrno = getSocketError();
     // After enqueue a message and the autoEntryMutex has been released and locked again,  
     // the array of _entries can be changed. The ArrayIterator has be reset with the original _entries      _entriesMutex.lock();
   
       struct timeval timeNow;
       Time::gettimeofday(&timeNow);
   
       // After enqueue a message and the autoEntryMutex has been released and
       // locked again, the array of _entries can be changed. The ArrayIterator
       // has be reset with the original _entries
     entries.reset(_entries);     entries.reset(_entries);
  
     if (events == PEGASUS_SOCKET_ERROR)     if (events == PEGASUS_SOCKET_ERROR)
     {     {
        Tracer::trace(TRC_HTTP, Tracer::LEVEL4,          PEG_TRACE((TRC_HTTP, Tracer::LEVEL4,
           "Monitor::run - errorno = %d has occurred on select.", errno);              "Monitor::run - select() returned error %d.", selectErrno));
        // The EBADF error indicates that one or more or the file        // The EBADF error indicates that one or more or the file
        // descriptions was not valid. This could indicate that        // descriptions was not valid. This could indicate that
        // the entries structure has been corrupted or that        // the entries structure has been corrupted or that
        // we have a synchronization error.        // we have a synchronization error.
  
        PEGASUS_ASSERT(errno != EBADF);          PEGASUS_ASSERT(selectErrno != EBADF);
     }     }
     else if (events)     else if (events)
     {     {
        Tracer::trace(TRC_HTTP, Tracer::LEVEL4,          PEG_TRACE((TRC_HTTP, Tracer::LEVEL4,
           "Monitor::run select event received events = %d, monitoring %d idle entries",              "Monitor::run select event received events = %d, monitoring %d "
            events, _idleEntries);                  "idle entries",
        for( int indx = 0; indx < (int)entries.size(); indx++)              events, _idleEntries));
        {          for (Uint32 indx = 0; indx < entries.size(); indx++)
           // The Monitor should only look at entries in the table that are IDLE (i.e.,          {
           // owned by the Monitor).              // The Monitor should only look at entries in the table that are
           if((entries[indx]._status.get() == _MonitorEntry::IDLE) &&              // IDLE (i.e., owned by the Monitor).
               if ((entries[indx].status == MonitorEntry::STATUS_IDLE) &&
              (FD_ISSET(entries[indx].socket, &fdread)))              (FD_ISSET(entries[indx].socket, &fdread)))
           {           {
              MessageQueue *q = MessageQueue::lookup(entries[indx].queueId);              MessageQueue *q = MessageQueue::lookup(entries[indx].queueId);
              Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                   "Monitor::run indx = %d, queueId =  %d, q = %p",  
                   indx, entries[indx].queueId, q);  
              PEGASUS_ASSERT(q !=0);              PEGASUS_ASSERT(q !=0);
                   PEG_TRACE((TRC_HTTP, Tracer::LEVEL4,
                       "Monitor::run indx = %d, queueId = %d, q = %p",
                       indx, entries[indx].queueId, q));
  
              try              try
              {              {
                 if(entries[indx]._type == Monitor::CONNECTION)                      if (entries[indx].type == MonitorEntry::TYPE_CONNECTION)
                 {                 {
                    Tracer::trace(TRC_HTTP, Tracer::LEVEL4,                          PEG_TRACE((TRC_HTTP, Tracer::LEVEL4,
                      "entries[indx].type for indx = %d is Monitor::CONNECTION", indx);                              "entries[%d].type is TYPE_CONNECTION",
                    static_cast<HTTPConnection *>(q)->_entry_index = indx;                              indx));
   
                    // Do not update the entry just yet. The entry gets updated once                          HTTPConnection *dst =
                    // the request has been read.                              reinterpret_cast<HTTPConnection *>(q);
                    //entries[indx]._status = _MonitorEntry::BUSY;                          dst->_entry_index = indx;
   
                    // If allocate_and_awaken failure, retry on next iteration                          // Update idle start time because we have received some
 /* Removed for PEP 183.                          // data. Any data is good data at this point, and we'll
                    if (!MessageQueueService::get_thread_pool()->allocate_and_awaken(                          // keep the connection alive, even if we've exceeded
                            (void *)q, _dispatch))                          // the idleConnectionTimeout, which will be checked
                    {                          // when we call closeConnectionOnTimeout() next.
                       Tracer::trace(TRC_DISCARDED_DATA, Tracer::LEVEL2,                          Time::gettimeofday(&dst->_idleStartTime);
                           "Monitor::run: Insufficient resources to process request.");  
                       entries[indx]._status = _MonitorEntry::IDLE;                          // Check for accept pending (ie. SSL handshake pending)
                       return true;                          // or idle connection timeouts for sockets from which
                    }                          // we received data (avoiding extra queue lookup below).
 */                          if (!dst->closeConnectionOnTimeout(&timeNow))
 // Added for PEP 183                          {
                    HTTPConnection *dst = reinterpret_cast<HTTPConnection *>(q);                              PEG_TRACE((TRC_HTTP, Tracer::LEVEL4,
                    Tracer::trace(TRC_HTTP, Tracer::LEVEL4,                                  "Entering HTTPConnection::run() for "
                          "Monitor::_dispatch: entering run() for indx  = %d, queueId = %d, q = %p",                                      "indx = %d, queueId = %d, q = %p",
                    dst->_entry_index, dst->_monitor->_entries[dst->_entry_index].queueId, dst);                                  indx, entries[indx].queueId, q));
   
                    try                    try
                    {                    {
                        dst->run(1);                        dst->run(1);
                    }                    }
                    catch (...)                    catch (...)
                    {                    {
                        Tracer::trace(TRC_HTTP, Tracer::LEVEL4,                                  PEG_TRACE_CSTRING(TRC_HTTP, Tracer::LEVEL2,
                        "Monitor::_dispatch: exception received");                                      "Caught exception from "
                                       "HTTPConnection::run()");
                               }
                               PEG_TRACE_CSTRING(TRC_HTTP, Tracer::LEVEL4,
                                   "Exited HTTPConnection::run()");
                    }                    }
                    Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                    "Monitor::_dispatch: exited run() for index %d", dst->_entry_index);  
  
                    // It is possible the entry status may not be set to busy.  
                    // The following will fail in that case.  
               // PEGASUS_ASSERT(dst->_monitor->_entries[dst->_entry_index]._status.get() == _MonitorEntry::BUSY);  
            // Once the HTTPConnection thread has set the status value to either  
            // Monitor::DYING or Monitor::IDLE, it has returned control of the connection  
            // to the Monitor.  It is no longer permissible to access the connection  
            // or the entry in the _entries table.  
   
                    // The following is not relevant as the worker thread or the  
                    // reader thread will update the status of the entry.  
            //if (dst->_connectionClosePending)  
            //{  
            //  dst->_monitor->_entries[dst->_entry_index]._status = _MonitorEntry::DYING;  
            //}  
            //else  
            //{  
            //  dst->_monitor->_entries[dst->_entry_index]._status = _MonitorEntry::IDLE;  
            //}  
 // end Added for PEP 183  
         }  
             else if( entries[indx]._type == Monitor::INTERNAL){  
             // set ourself to BUSY,  
                         // read the data  
                         // and set ourself back to IDLE  
   
                entries[indx]._status = _MonitorEntry::BUSY;  
             static char buffer[2];  
             Sint32 amt = Socket::read(entries[indx].socket,&buffer, 2);  
   
             if(amt == PEGASUS_SOCKET_ERROR &&  
                getSocketError() == PEGASUS_NETWORK_TCPIP_STOPPED )  
             {  
                 Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
                       "Monitor::run: Tickler socket got an IO error. "  
                       "Going to re-create Socket and wait for TCP/IP restart.");  
                 uninitializeTickler();  
                 initializeTickler();  
  
             } else  
             {  
                 entries[indx]._status = _MonitorEntry::IDLE;  
             }             }
                       else if (entries[indx].type == MonitorEntry::TYPE_INTERNAL)
                       {
                           char buffer;
                           Sint32 ignored =
                               Socket::read(entries[indx].socket, &buffer, 1);
         }         }
         else         else
         {         {
                    Tracer::trace(TRC_HTTP, Tracer::LEVEL4,                          PEG_TRACE((TRC_HTTP, Tracer::LEVEL4,
                      "Non-connection entry, indx = %d, has been received.", indx);                              "Non-connection entry, indx = %d, has been "
                                   "received.",
                               indx));
            int events = 0;            int events = 0;
            events |= SocketMessage::READ;            events |= SocketMessage::READ;
            Message *msg = new SocketMessage(entries[indx].socket, events);                          Message* msg = new SocketMessage(
            entries[indx]._status = _MonitorEntry::BUSY;                              entries[indx].socket, events);
                    _entry_mut.unlock();                          entries[indx].status = MonitorEntry::STATUS_BUSY;
                           _entriesMutex.unlock();
            q->enqueue(msg);            q->enqueue(msg);
                    _entry_mut.lock();                          _entriesMutex.lock();
            // After enqueue a message and the autoEntryMutex has been released and locked again,  
            // the array of entries can be changed. The ArrayIterator has be reset with the original _entries                          // After enqueue a message and the autoEntryMutex has
                           // been released and locked again, the array of
                           // entries can be changed. The ArrayIterator has to be
                           // reset with the latest _entries.
            entries.reset(_entries);            entries.reset(_entries);
            entries[indx]._status = _MonitorEntry::IDLE;                          entries[indx].status = MonitorEntry::STATUS_IDLE;
         }         }
          }          }
          catch(...)          catch(...)
          {          {
          }          }
       }       }
               // else check for accept pending (ie. SSL handshake pending) or
               // idle connection timeouts for sockets from which we did not
               // receive data.
               else if ((entries[indx].status == MonitorEntry::STATUS_IDLE) &&
                   entries[indx].type == MonitorEntry::TYPE_CONNECTION)
   
               {
                   MessageQueue* q = MessageQueue::lookup(entries[indx].queueId);
                   HTTPConnection *dst = reinterpret_cast<HTTPConnection *>(q);
                   dst->_entry_index = indx;
                   dst->closeConnectionOnTimeout(&timeNow);
               }
           }
       }
       // else if "events" is zero (ie. select timed out) then we still need
       // to check if there are any pending SSL handshakes that have timed out.
       else
       {
           for (Uint32 indx = 0; indx < entries.size(); indx++)
           {
               if ((entries[indx].status == MonitorEntry::STATUS_IDLE) &&
                   entries[indx].type == MonitorEntry::TYPE_CONNECTION)
               {
                   MessageQueue* q = MessageQueue::lookup(entries[indx].queueId);
                   HTTPConnection *dst = reinterpret_cast<HTTPConnection *>(q);
                   dst->_entry_index = indx;
                   dst->closeConnectionOnTimeout(&timeNow);
               }
        }        }
     }     }
 } }
Line 956 
Line 665 
 } }
  
  
   
 int  Monitor::solicitSocketMessages( int  Monitor::solicitSocketMessages(
     SocketHandle socket,     SocketHandle socket,
     Uint32 events,     Uint32 events,
     Uint32 queueId,     Uint32 queueId,
     int type)      Uint32 type)
 { {
    PEG_METHOD_ENTER(TRC_HTTP, "Monitor::solicitSocketMessages");    PEG_METHOD_ENTER(TRC_HTTP, "Monitor::solicitSocketMessages");
    AutoMutex autoMut(_entry_mut);      AutoMutex autoMut(_entriesMutex);
   
    // Check to see if we need to dynamically grow the _entries array    // Check to see if we need to dynamically grow the _entries array
    // We always want the _entries array to 2 bigger than the      // We always want the _entries array to be 2 bigger than the
    // current connections requested    // current connections requested
    _solicitSocketCount++;  // bump the count    _solicitSocketCount++;  // bump the count
    int size = (int)_entries.size();  
    if((int)_solicitSocketCount >= (size-1)){      for (Uint32 i = _entries.size(); i < _solicitSocketCount + 1; i++)
         for(int i = 0; i < ((int)_solicitSocketCount - (size-1)); i++){      {
                 _MonitorEntry entry(0, 0, 0);          _entries.append(MonitorEntry());
                 _entries.append(entry);  
         }  
    }    }
  
    int index;      for (Uint32 index = 1; index < _entries.size(); index++)
    for(index = 1; index < (int)_entries.size(); index++)  
    {    {
       try       try
       {       {
          if(_entries[index]._status.get() == _MonitorEntry::EMPTY)              if (_entries[index].status == MonitorEntry::STATUS_EMPTY)
          {          {
             _entries[index].socket = socket;             _entries[index].socket = socket;
             _entries[index].queueId  = queueId;             _entries[index].queueId  = queueId;
             _entries[index]._type = type;                  _entries[index].type = type;
             _entries[index]._status = _MonitorEntry::IDLE;                  _entries[index].status = MonitorEntry::STATUS_IDLE;
  
             return index;                  return (int)index;
          }          }
       }       }
       catch(...)       catch(...)
       {       {
       }       }
    }    }
    _solicitSocketCount--;  // decrease the count, if we are here we didnt do anything meaningful      // decrease the count, if we are here we didn't do anything meaningful
       _solicitSocketCount--;
    PEG_METHOD_EXIT();    PEG_METHOD_EXIT();
    return -1;    return -1;
   
 } }
  
 void Monitor::unsolicitSocketMessages(SocketHandle socket) void Monitor::unsolicitSocketMessages(SocketHandle socket)
 { {
   
     PEG_METHOD_ENTER(TRC_HTTP, "Monitor::unsolicitSocketMessages");     PEG_METHOD_ENTER(TRC_HTTP, "Monitor::unsolicitSocketMessages");
     AutoMutex autoMut(_entry_mut);      AutoMutex autoMut(_entriesMutex);
  
     /*     /*
         Start at index = 1 because _entries[0] is the tickle entry which never needs          Start at index = 1 because _entries[0] is the tickle entry which
         to be EMPTY;          never needs to be reset to EMPTY;
     */     */
     unsigned int index;      for (Uint32 index = 1; index < _entries.size(); index++)
     for(index = 1; index < _entries.size(); index++)  
     {     {
        if(_entries[index].socket == socket)        if(_entries[index].socket == socket)
        {        {
           _entries[index]._status = _MonitorEntry::EMPTY;              _entries[index].reset();
           _entries[index].socket = PEGASUS_INVALID_SOCKET;  
           _solicitSocketCount--;           _solicitSocketCount--;
           break;           break;
        }        }
Line 1026 
Line 729 
  
     /*     /*
     Dynamic Contraction:     Dynamic Contraction:
     To remove excess entries we will start from the end of the _entries array          To remove excess entries we will start from the end of the _entries
     and remove all entries with EMPTY status until we find the first NON EMPTY.          array and remove all entries with EMPTY status until we find the
     This prevents the positions, of the NON EMPTY entries, from being changed.          first NON EMPTY.  This prevents the positions, of the NON EMPTY
     */          entries, from being changed.
     index = _entries.size() - 1;      */
     while(_entries[index]._status.get() == _MonitorEntry::EMPTY){      for (Uint32 index = _entries.size() - 1;
     if(_entries.size() > MAX_NUMBER_OF_MONITOR_ENTRIES)           (_entries[index].status == MonitorEntry::STATUS_EMPTY) &&
                 _entries.remove(index);               (index >= MAX_NUMBER_OF_MONITOR_ENTRIES);
     index--;           index--)
     }  
     PEG_METHOD_EXIT();  
 }  
   
 // Note: this is no longer called with PEP 183.  
 ThreadReturnType PEGASUS_THREAD_CDECL Monitor::_dispatch(void *parm)  
 {  
    HTTPConnection *dst = reinterpret_cast<HTTPConnection *>(parm);  
    Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
         "Monitor::_dispatch: entering run() for indx  = %d, queueId = %d, q = %p",  
         dst->_entry_index, dst->_monitor->_entries[dst->_entry_index].queueId, dst);  
    try  
    {  
       dst->run(1);  
    }  
    catch (...)  
    {  
       Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
           "Monitor::_dispatch: exception received");  
    }  
    Tracer::trace(TRC_HTTP, Tracer::LEVEL4,  
           "Monitor::_dispatch: exited run() for index %d", dst->_entry_index);  
   
    PEGASUS_ASSERT(dst->_monitor->_entries[dst->_entry_index]._status.get() == _MonitorEntry::BUSY);  
   
    // Once the HTTPConnection thread has set the status value to either  
    // Monitor::DYING or Monitor::IDLE, it has returned control of the connection  
    // to the Monitor.  It is no longer permissible to access the connection  
    // or the entry in the _entries table.  
    if (dst->_connectionClosePending)  
    {  
       dst->_monitor->_entries[dst->_entry_index]._status = _MonitorEntry::DYING;  
    }  
    else  
    {  
       dst->_monitor->_entries[dst->_entry_index]._status = _MonitorEntry::IDLE;  
    }  
    return 0;  
 }  
 // Added for NamedPipe implementation for windows  
 #if defined PEGASUS_OS_TYPE_WINDOWS && !defined(PEGASUS_DISABLE_LOCAL_DOMAIN_SOCKET)  
 //This method is anlogus to solicitSocketMessages. It does the same thing for named Pipes  
 int  Monitor::solicitPipeMessages(  
     NamedPipe namedPipe,  
     Uint32 events,  //not sure what has to change for this enum  
     Uint32 queueId,  
     int type)  
 {  
    PEG_METHOD_ENTER(TRC_HTTP, "Monitor::solicitPipeMessages");  
    AutoMutex autoMut(_entry_pipe_mut);  
    // Check to see if we need to dynamically grow the _entries array  
    // We always want the _entries array to 2 bigger than the  
    // current connections requested  
 #ifdef PEGASUS_LOCALDOMAINSOCKET_DEBUG  
 {  
    AutoMutex automut(Monitor::_cout_mut);  
    PEGASUS_STD(cout) << "In Monitor::solicitPipeMessages at the begining" << PEGASUS_STD(endl);  
 }  
 #endif  
   
    _solicitPipeCount++;  // bump the count  
    int size = (int)_entries_pipe.size();  
    if((int)_solicitPipeCount >= (size-1)){  
         for(int i = 0; i < ((int)_solicitPipeCount - (size-1)); i++){  
                 _MonitorEntry entry(0, 0, 0);  
                 _entries_pipe.append(entry);  
         }  
    }  
   
    int index;  
    for(index = 1; index < (int)_entries_pipe.size(); index++)  
    {    {
       try          _entries.remove(index);
       {  
          if(_entries_pipe[index]._status.get() == _MonitorEntry::EMPTY)  
          {  
             _entries_pipe[index].socket = NULL;  
             _entries_pipe[index].namedPipe = namedPipe;  
             _entries_pipe[index].namedPipeConnection = true;  
             _entries_pipe[index].queueId  = queueId;  
             _entries_pipe[index]._type = type;  
             _entries_pipe[index]._status = _MonitorEntry::IDLE;  
 #ifdef PEGASUS_LOCALDOMAINSOCKET_DEBUG  
   {  
             AutoMutex automut(Monitor::_cout_mut);  
             PEGASUS_STD(cout) << "In Monitor::solicitPipeMessages after seting up  _entries[index] index = " << index << PEGASUS_STD(endl);  
   }  
 #endif  
   
             return index;  
          }  
       }  
       catch(...)  
       {  
       }  
   
    }  
    _solicitPipeCount--;  // decrease the count, if we are here we didnt do anything meaningful  
    PEGASUS_STD(cout) << "In Monitor::solicitPipeMessages nothing happed - it didn't work" << PEGASUS_STD(endl);  
   
    PEG_METHOD_EXIT();  
    return -1;  
   
 }  
   
 //////////////////////////////////////////////////////////////////////////////  
 // Method Name      : unsolicitPipeMessages  
 // Input Parameter  : namedPipe  - type NamedPipe  
 // Return Type      : void  
 //============================================================================  
 // This method is invoked from HTTPAcceptor::handleEnqueue for server  
 // when the CLOSE_CONNECTION_MESSAGE is recieved. This method is also invoked  
 // from HTTPAcceptor::destroyConnections method when the CIMServer is shutdown.  
 // For the CIMClient, this is invoked from HTTPConnector::handleEnqueue when the  
 // CLOSE_CONNECTION_MESSAGE is recieved. This method is also invoked from  
 // HTTPConnector::disconnect when CIMClient requests a disconnect request.  
 // The list of _MonitorEntry is searched for the matching pipe.  
 // The Handle of the identified is closed and _MonitorEntry for the  
 // requested pipe is removed.  
 ///////////////////////////////////////////////////////////////////////////////  
   
 void Monitor::unsolicitPipeMessages(NamedPipe namedPipe)  
 {  
 #ifdef PEGASUS_LOCALDOMAINSOCKET_DEBUG  
     {  
         AutoMutex automut(Monitor::_cout_mut);  
         PEGASUS_STD(cout) << "Entering: Monitor::unsolicitPipeMessages(): (tid:" << Uint32(pegasus_thread_self()) << ")" << PEGASUS_STD(endl);  
     }  
 #endif  
   
     PEG_METHOD_ENTER(TRC_HTTP, "Monitor::unsolicitPipeMessages");  
     AutoMutex autoMut(_entry_pipe_mut);  
   
     /*  
         Start at index = 1 because _entries[0] is the tickle entry which never needs  
         to be EMPTY;  
     */  
     unsigned int index;  
     for (index = 1; index < _entries_pipe.size(); index++)  
     {  
         if (_entries_pipe[index].namedPipe.getPipe() == namedPipe.getPipe())  
         {  
             _entries_pipe[index]._status = _MonitorEntry::EMPTY;  
             // Ensure that the client has read the data  
             ::FlushFileBuffers (namedPipe.getPipe());  
             //Disconnect to release the pipe. This doesn't release Pipe Handle  
             ::DisconnectNamedPipe (_entries_pipe[index].namedPipe.getPipe());  
             // Must use CloseHandle to Close Pipe  
             ::CloseHandle(_entries_pipe[index].namedPipe.getPipe());  
             _entries_pipe[index].namedPipe.disconnect();  
             _solicitPipeCount--;  
             break;  
         }  
     }     }
  
     /*  
         Dynamic Contraction:  
         To remove excess entries we will start from the end of the _entries array  
         and remove all entries with EMPTY status until we find the first NON EMPTY.  
         This prevents the positions, of the NON EMPTY entries, from being changed.  
     */  
     index = _entries_pipe.size() - 1;  
     while (_entries_pipe[index]._status.get() == _MonitorEntry::EMPTY  
         && index > 0)  
     {  
         if ((_entries_pipe[index].namedPipe.getPipe() == namedPipe.getPipe()) ||  
             (_entries_pipe.size() > MAX_NUMBER_OF_MONITOR_ENTRIES))  
         {  
             _entries_pipe.remove(index);  
         }  
         index--;  
     }  
     PEG_METHOD_EXIT();     PEG_METHOD_EXIT();
 #ifdef PEGASUS_LOCALDOMAINSOCKET_DEBUG  
     {  
         AutoMutex automut(Monitor::_cout_mut);  
         PEGASUS_STD(cout) << "Exiting:  Monitor::unsolicitPipeMessages(): (tid:" << Uint32(pegasus_thread_self()) << ")" << PEGASUS_STD(endl);  
     }     }
 #endif  
 }  
   
 #endif  
   
   
  
 PEGASUS_NAMESPACE_END PEGASUS_NAMESPACE_END

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  Added in v.1.130
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