(file) Return to Thread.h CVS log (file) (dir) Up to [Pegasus] / pegasus / src / Pegasus / Common

Diff for /pegasus/src/Pegasus/Common/Thread.h between version 1.1.2.3 and 1.57.2.1

version 1.1.2.3, 2001/07/30 16:38:12 version 1.57.2.1, 2006/07/27 23:11:52
Line 1 
Line 1 
 //%/////////////////////////////////////////////////////////////////////////////  //%2006////////////////////////////////////////////////////////////////////////
 // //
 // Copyright (c) 2000, 2001 The Open group, BMC Software, Tivoli Systems, IBM  // Copyright (c) 2000, 2001, 2002 BMC Software; Hewlett-Packard Development
   // Company, L.P.; IBM Corp.; The Open Group; Tivoli Systems.
   // Copyright (c) 2003 BMC Software; Hewlett-Packard Development Company, L.P.;
   // IBM Corp.; EMC Corporation, The Open Group.
   // Copyright (c) 2004 BMC Software; Hewlett-Packard Development Company, L.P.;
   // IBM Corp.; EMC Corporation; VERITAS Software Corporation; The Open Group.
   // Copyright (c) 2005 Hewlett-Packard Development Company, L.P.; IBM Corp.;
   // EMC Corporation; VERITAS Software Corporation; The Open Group.
   // Copyright (c) 2006 Hewlett-Packard Development Company, L.P.; IBM Corp.;
   // EMC Corporation; Symantec Corporation; The Open Group.
 // //
 // Permission is hereby granted, free of charge, to any person obtaining a copy // Permission is hereby granted, free of charge, to any person obtaining a copy
 // of this software and associated documentation files (the "Software"), to // of this software and associated documentation files (the "Software"), to
Line 23 
Line 32 
 // Author: Mike Day (mdday@us.ibm.com) // Author: Mike Day (mdday@us.ibm.com)
 // //
 // Modified By: Markus Mueller // Modified By: Markus Mueller
   //              Roger Kumpf, Hewlett-Packard Company (roger_kumpf@hp.com)
   //              Amit K Arora, IBM (amita@in.ibm.com) for PEP#101
   //              David Dillard, VERITAS Software Corp.
   //                  (david.dillard@veritas.com)
   //              Sean Keenan, Hewlett-Packard Company (sean.keenan@hp.com)
   //              Josephine Eskaline Joyce, IBM (jojustin@in.ibm.com) for Bug#2393
 // //
 //%///////////////////////////////////////////////////////////////////////////// //%/////////////////////////////////////////////////////////////////////////////
  
   
 #ifndef Pegasus_Thread_h #ifndef Pegasus_Thread_h
 #define Pegasus_Thread_h #define Pegasus_Thread_h
  
 #include <Pegasus/Common/IPC.h>  #include <cstring>
 #include <Pegasus/Common/Config.h> #include <Pegasus/Common/Config.h>
 #include <Pegasus/Common/Exception.h>  #include <Pegasus/Common/AtomicInt.h>
 #include <Pegasus/Common/DQueue.h>  #include <Pegasus/Common/InternalException.h>
   #include <Pegasus/Common/AcceptLanguageList.h>
   #include <Pegasus/Common/Linkage.h>
   #include <Pegasus/Common/AutoPtr.h>
   #include <Pegasus/Common/List.h>
   #include <Pegasus/Common/Mutex.h>
   #include <Pegasus/Common/Semaphore.h>
   #include <Pegasus/Common/TSDKey.h>
  
 PEGASUS_NAMESPACE_BEGIN PEGASUS_NAMESPACE_BEGIN
  
 class PEGASUS_EXPORT cleanup_handler  class PEGASUS_COMMON_LINKAGE cleanup_handler : public Linkable
 { {
  
  public:  public:
   cleanup_handler( void (*routine)(void *), void *arg  ) : _routine(routine), _arg(arg)  {}   cleanup_handler( void (*routine)(void *), void *arg  ) : _routine(routine), _arg(arg)  {}
   ~cleanup_handler() ;        ~cleanup_handler()  {; }
  
  private:  private:
   void execute(void) { _routine(_arg); }        void execute() { _routine(_arg); }
   cleanup_handler();   cleanup_handler();
   void (*_routine)(void *);   void (*_routine)(void *);
   inline Boolean operator==(void *key) { if(key == (void *)_routine) return true; return false; }  
   void *_arg;   void *_arg;
   PEGASUS_CLEANUP_HANDLE _cleanup_buffer;        ThreadCleanupType _cleanup_buffer;
   friend class Dqueue;  
   friend class Thread;   friend class Thread;
 }; };
  
 /////////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////////
  
 class PEGASUS_EXPORT SimpleThread  
   class  PEGASUS_COMMON_LINKAGE thread_data : public Linkable
 { {
  
  public:  public:
   SimpleThread( PEGASUS_THREAD_RETURN (PEGASUS_THREAD_CDECL *start )(void *),        static void default_delete(void *data);
           void *parameter, Boolean detached );  
   
   ~SimpleThread();  
   
   void run(void);  
   
   Uint32 threadId(void);  
   
   // get the user parameter  
   void *get_parm(void);  
   
   // cancellation must be deferred (not asynchronous)  
   // for user-level threads the thread itself can decide  
   // when it should die.  
   void cancel(void);  
   
   void kill(int signum);  
   
   // cancel if there is a pending cancellation request  
   void test_cancel(void);  
   
   // for user-level threads  - put the calling thread  
   // to sleep and jump to the thread scheduler.  
   // platforms with preemptive scheduling and native threads  
   // can define this to be a no-op.  
   // platforms without preemptive scheduling like NetWare  
   // or gnu portable threads will have an existing  
   // routine that can be mapped to this method  
   
   void thread_switch(void);  
   
   // suspend this thread  
   void suspend(void) ;  
   
   // resume this thread  
   void resume(void) ;  
   
   void sleep(Uint32 msec) ;  
   
   // block the calling thread until this thread terminates  
   void join( PEGASUS_THREAD_RETURN *ret_val);  
   
  
   // stack of functions to be called when thread terminates        thread_data( const char *key ) : _delete_func(NULL) , _data(NULL), _size(0)
   // will be called last in first out (LIFO)        {
   void cleanup_push( void (*routine) (void *), void *parm );           PEGASUS_ASSERT(key != NULL);
   void cleanup_pop(Boolean execute) ;           size_t keysize = strlen(key);
            _key.reset(new char[keysize + 1]);
            memcpy(_key.get(), key, keysize);
            _key.get()[keysize] = 0x00;
  
   PEGASUS_THREAD_TYPE self(void) ;        }
  
  private:        thread_data(const char *key, size_t size) : _delete_func(default_delete), _size(size)
   SimpleThread();        {
            PEGASUS_ASSERT(key != NULL);
            size_t keysize = strlen(key);
            _key.reset(new char[keysize + 1]);
            memcpy(_key.get(), key, keysize);
            _key.get()[keysize] = 0x00;
            _data = ::operator new(_size);
  
   PEGASUS_THREAD_HANDLE _handle;        }
   Boolean _is_detached;  
   Boolean _cancel_enabled;  
   Boolean _cancelled;  
  
   //PEGASUS_SEM_HANDLE _suspend_count;        thread_data(const char *key, size_t size, void *data) : _delete_func(default_delete), _size(size)
   Semaphore _suspend;        {
            PEGASUS_ASSERT(key != NULL);
            PEGASUS_ASSERT(data != NULL);
            size_t keysize = strlen(key);
   
            _key.reset(new char[keysize + 1]);
            memcpy(_key.get(), key, keysize);
            _key.get()[keysize] = 0x00;
            _data = ::operator new(_size);
            memcpy(_data, data, size);
         }
  
   // always pass this * as the void * parameter to the thread        ~thread_data()
   // store the user parameter in _thread_parm        {
            if( _data != NULL)
               if(_delete_func != NULL)
               {
                  _delete_func( _data );
               }
         }
  
   PEGASUS_THREAD_RETURN  ( PEGASUS_THREAD_CDECL *_start)(void *) ;        /**
          * This function is used to put data in thread space.
          *
          * Be aware that there is NOTHING in place to stop
          * other users of the thread to remove this data.
          * Or change the data.
          *
          * You, the developer has to make sure that there are
          * no situations in which this can arise (ie, have a
          * lock for the function which manipulates the TSD.
          *
          * @exception NullPointer
          */
         void put_data(void (*del)(void *), size_t size, void *data )
         {
            if(_data != NULL)
               if(_delete_func != NULL)
                  _delete_func(_data);
  
   void *_thread_parm;           _delete_func = del;
 } ;           _data = data;
            _size = size;
            return;
         }
  
 ///////////////////////////////////////////////////////////////////////////////        size_t get_size() { return _size; }
  
 static void default_delete(void * data) { delete [] (char *) data; }        /**
          * This function is used to retrieve data from the
          * TSD, the thread specific data.
          *
          * Be aware that there is NOTHING in place to stop
          * other users of the thread to change the data you
          * get from this function.
          *
          * You, the developer has to make sure that there are
          * no situations in which this can arise (ie, have a
          * lock for the function which manipulates the TSD.
          */
         void get_data(void **data, size_t *size)
         {
            if(data == NULL || size == NULL)
               throw NullPointer();
   
            *data = _data;
            *size = _size;
            return;
  
 class  PEGASUS_EXPORT thread_data        }
 {  
  
  public:        // @exception NullPointer
   thread_data( Sint8 *key ) : _delete_func(NULL) , _data(NULL), _size(0)        void copy_data(void **buf, size_t *size)
   {   {
     _key = strdup(key) ;           if((buf == NULL) || (size == NULL))
               throw NullPointer();
            *buf = ::operator new(_size);
            *size = _size;
            memcpy(*buf, _data, _size);
            return;
   }   }
  
   thread_data(Sint8 *key, int size)        inline Boolean operator==(const void *key) const
   {   {
     _delete_func = default_delete;           if ( ! strcmp(_key.get(), reinterpret_cast<const char *>(key)))
     _data = new char [size];              return(true);
     _size = size;           return(false);
   }   }
  
   thread_data(Sint8 *key, int size, void *data)        inline Boolean operator==(const thread_data& b) const
   {   {
     _delete_func = default_delete;           return(operator==(b._key.get()));
     _data = new char [size];  
     memcpy(_data, data, size);  
     _size = size;  
   }   }
  
   ~thread_data() { if( _data != NULL) _delete_func( _data ); }        static bool equal(const thread_data* node, const void* key)
   
   void *get_data(void );  
   Uint32 get_size(void);  
   void *put_data(void (*delete_func) (void *), Uint32 size, void *data  )  
     {     {
       void *old_data = data;           return ((thread_data*)node)->operator==(key);
       _delete_func = delete_func;  
       _data = data;  
       _size = size;  
       return(old_data);  
     }     }
   
  private:  private:
   inline Boolean operator ==(void *key) ;  
   void (*_delete_func) (void *data) ;   void (*_delete_func) (void *data) ;
   thread_data();   thread_data();
   void *_data;   void *_data;
   Uint32 _size;        size_t _size;
   Sint8 *_key;        AutoArrayPtr<char> _key;
  
   friend class Dqueue;  
   friend class Thread;   friend class Thread;
 }; };
  
  
   enum ThreadStatus {
           PEGASUS_THREAD_OK = 1, /* No problems */
           PEGASUS_THREAD_INSUFFICIENT_RESOURCES, /* Can't allocate a thread. Not enough
                                           memory. Try again later */
           PEGASUS_THREAD_SETUP_FAILURE, /* Could not allocate into the thread specific
                                    data storage. */
           PEGASUS_THREAD_UNAVAILABLE  /* Service is being destroyed and no new threads can
                                  be provided. */
   };
   
 /////////////////////////////////////////////////////////////////////////// ///////////////////////////////////////////////////////////////////////////
  
 class PEGASUS_EXPORT Thread  class PEGASUS_COMMON_LINKAGE Thread : public Linkable
 { {
   
  public:  public:
   Thread( PEGASUS_THREAD_RETURN (PEGASUS_THREAD_CDECL *start )(void *),  
         Thread( ThreadReturnType (PEGASUS_THREAD_CDECL *start )(void *),
           void *parameter, Boolean detached );           void *parameter, Boolean detached );
  
   ~Thread();   ~Thread();
  
   void run(void);        /**
             Start the thread.
             @return PEGASUS_THREAD_OK if the thread is started successfully,
                     PEGASUS_THREAD_INSUFFICIENT_RESOURCES if the resources necessary
                     to start the thread are not currently available.
                     PEGASUS_THREAD_SETUP_FAILURE if the thread could not
                     be create properly - check the 'errno' value for specific operating
                     system return code.
          */
         ThreadStatus run();
  
   // get the user parameter   // get the user parameter
   inline void *get_parm(void) { return _thread_parm; }        inline void *get_parm() { return _thread_parm; }
   
   // send the thread a signal -- may not be appropriate due to Windows  
   //  void kill(int signum);  
  
   // cancellation must be deferred (not asynchronous)   // cancellation must be deferred (not asynchronous)
   // for user-level threads the thread itself can decide   // for user-level threads the thread itself can decide
   // when it should die.   // when it should die.
   void cancel(void);        void cancel();
  
   // cancel if there is a pending cancellation request   // cancel if there is a pending cancellation request
   void test_cancel(void);        void test_cancel();
   
         Boolean is_cancelled();
  
   // for user-level threads  - put the calling thread   // for user-level threads  - put the calling thread
   // to sleep and jump to the thread scheduler.   // to sleep and jump to the thread scheduler.
Line 219 
Line 269 
   // or gnu portable threads will have an existing   // or gnu portable threads will have an existing
   // routine that can be mapped to this method   // routine that can be mapped to this method
  
   void thread_switch(void);        void thread_switch();
  
   #if defined(PEGASUS_PLATFORM_LINUX_GENERIC_GNU)
   // suspend this thread   // suspend this thread
   // void suspend(void) ;        void suspend();
  
   // resume this thread   // resume this thread
   // void resume(void) ;        void resume();
   #endif
  
   void sleep(Uint32 msec) ;        static void sleep(Uint32 msec);
  
   // block the calling thread until this thread terminates   // block the calling thread until this thread terminates
   void join(void );        void join();
         void thread_init();
  
   // thread routine needs to call this function when   // thread routine needs to call this function when
   // it is ready to exit   // it is ready to exit
   void exit_self(PEGASUS_THREAD_RETURN return_code) ;        void exit_self(ThreadReturnType return_code);
  
   // stack of functions to be called when thread terminates   // stack of functions to be called when thread terminates
   // will be called last in first out (LIFO)   // will be called last in first out (LIFO)
   void cleanup_push( void (*routine) (void *), void *parm ) throw(IPCException);        // @exception IPCException
   void cleanup_pop(Boolean execute = true) throw(IPCException);        void cleanup_push(void (*routine) (void *), void *parm);
   
         // @exception IPCException
         void cleanup_pop(Boolean execute = true);
  
   // create and initialize a tsd   // create and initialize a tsd
   inline void create_tsd(Sint8 *key, int size, void *buffer) throw(IPCException)        // @exception IPCException
         inline void create_tsd(const char *key, int size, void *buffer)
   {   {
     thread_data *tsd = new thread_data(key, size, buffer);          AutoPtr<thread_data> tsd(new thread_data(key, size, buffer));
        try { _tsd.insert_first(tsd); }          _tsd.insert_front(tsd.get());
     catch(IPCException& e) { delete tsd; throw; }          tsd.release();
   }   }
  
   // get the buffer associated with the key   // get the buffer associated with the key
   // NOTE: this call leaves the tsd LOCKED !!!!   // NOTE: this call leaves the tsd LOCKED !!!!
   inline void *reference_tsd(Sint8 *key) throw(IPCException)        // @exception IPCException
         inline void *reference_tsd(const char *key)
   {   {
     _tsd.lock();     _tsd.lock();
     thread_data *tsd = _tsd.reference((void *)key);           thread_data *tsd = _tsd.find(thread_data::equal, key);
            if(tsd != NULL)
               return( (void *)(tsd->_data) );
            else
               return(NULL);
         }
   
         // @exception IPCException
         inline void *try_reference_tsd(const char *key)
         {
            _tsd.try_lock();
            thread_data *tsd = _tsd.find(thread_data::equal, key);
     if(tsd != NULL)     if(tsd != NULL)
       return( (void *)(tsd->_data) );       return( (void *)(tsd->_data) );
     else     else
       return(NULL);       return(NULL);
   }   }
  
   
   // release the lock held on the tsd   // release the lock held on the tsd
   // NOTE: assumes a corresponding and prior call to reference_tsd() !!!   // NOTE: assumes a corresponding and prior call to reference_tsd() !!!
   inline void dereference_tsd(void) throw(IPCException)        // @exception IPCException
         inline void dereference_tsd()
   {   {
      _tsd.unlock();      _tsd.unlock();
   }   }
  
   // delete the tsd associated with the key   // delete the tsd associated with the key
   inline void delete_tsd(Sint8 *key) throw(IPCException)        // @exception IPCException
         inline void delete_tsd(const char *key)
   {   {
     thread_data *tsd = _tsd.remove((void *)key);           AutoPtr<thread_data> tsd(_tsd.remove(thread_data::equal, key));
     if(tsd != NULL)        }
       delete tsd;  
         // @exception IPCException
         inline void empty_tsd()
         {
            _tsd.clear();
   }   }
  
   // create or re-initialize tsd associated with the key   // create or re-initialize tsd associated with the key
   // if the tsd already exists, return the existing buffer        // if the tsd already exists, delete the existing buffer
   thread_data *put_tsd(Sint8 *key, void (*delete_func)(void *), Uint32 size, void *value) throw(IPCException);        // @exception IPCException
         void put_tsd(const char *key, void (*delete_func)(void *), Uint32 size, void *value)
         {
            PEGASUS_ASSERT(key != NULL);
            AutoPtr<thread_data> tsd;
            tsd.reset(_tsd.remove(thread_data::equal, key));  // may throw an IPC exception
            tsd.reset();
            AutoPtr<thread_data> ntsd(new thread_data(key));
            ntsd->put_data(delete_func, size, value);
            try { _tsd.insert_front(ntsd.get()); }
            catch(IPCException& e) { e = e; throw; }
            ntsd.release();
         }
         inline ThreadReturnType get_exit() { return _exit_code; }
         inline ThreadType self() {return Threads::self(); }
   
         ThreadHandle getThreadHandle() {return _handle;}
  
   inline PEGASUS_THREAD_RETURN get_exit(void) { return _exit_code; }        void detach();
   inline PEGASUS_THREAD_TYPE self(void) {return pegasus_thread_self(); }  
         //
         //  Gets the Thread object associated with the caller's thread.
         //  Note: this may return NULL if no Thread object is associated
         //  with the caller's thread.
         //
         static Thread * getCurrent();  // l10n
   
         //
         //  Sets the Thread object associated with the caller's thread.
         //  Note: the Thread object must be placed on the heap.
         //
         static void setCurrent(Thread * thrd); // l10n
   
         //
         //  Gets the AcceptLanguageList object associated with the caller's
         //  Thread.
         //  Note: this may return NULL if no Thread object, or no
         //  AcceptLanguageList object, is associated with the caller's thread.
         //
         static AcceptLanguageList * getLanguages(); //l10n
   
         //
         //  Sets the AcceptLanguageList object associated with the caller's
         //  Thread.
         //  Note: a Thread object must have been previously associated with
         //  the caller's thread.
         //  Note: the AcceptLanguageList object must be placed on the heap.
         //
         static void setLanguages(AcceptLanguageList *langs); //l10n
   
         //
         //  Removes the AcceptLanguageList object associated with the caller's
         //  Thread.
         //
         static void clearLanguages(); //l10n
  
  private:  private:
   Thread();   Thread();
   inline void create_tsd(Sint8 *key ) throw(IPCException)  
         static Sint8 initializeKey();  // l10n
   
         // @exception IPCException
         inline void create_tsd(const char *key )
   {   {
     thread_data *tsd = new thread_data(key);           AutoPtr<thread_data> tsd(new thread_data(key));
     try { _tsd.insert_first(tsd); }           _tsd.insert_front(tsd.get());
     catch(IPCException& e) { delete tsd; throw; }           tsd.release();
   }   }
   PEGASUS_THREAD_HANDLE _handle;        ThreadHandle _handle;
   Boolean _is_detached;   Boolean _is_detached;
   Boolean _cancel_enabled;   Boolean _cancel_enabled;
   Boolean _cancelled;   Boolean _cancelled;
  
   PEGASUS_SEM_HANDLE _suspend_count;  
   
   // always pass this * as the void * parameter to the thread   // always pass this * as the void * parameter to the thread
   // store the user parameter in _thread_parm   // store the user parameter in _thread_parm
  
   PEGASUS_THREAD_RETURN  ( PEGASUS_THREAD_CDECL *_start)(void *) ;        ThreadReturnType  ( PEGASUS_THREAD_CDECL *_start)(void *);
         List<cleanup_handler, Mutex> _cleanup;
         List<thread_data, Mutex> _tsd;
  
   DQueue<cleanup_handler> _cleanup;  
   DQueue<thread_data> _tsd;  
   void *_thread_parm;   void *_thread_parm;
   PEGASUS_THREAD_RETURN _exit_code;        ThreadReturnType _exit_code;
         static Boolean _signals_blocked;
         static TSDKeyType _platform_thread_key;  //l10n
         static Boolean _key_initialized; // l10n
         static Boolean _key_error; // l10n
 } ; } ;
  
  
 #if 0  class PEGASUS_COMMON_LINKAGE ThreadPool
 class PEGASUS_EXPORT Aggregator {  {
   
  public:  public:
  
   Aggregator();      /**
   ~Aggregator();          Constructs a new ThreadPool object.
           @param initialSize The number of threads that are initially added to
               the thread pool.
           @param key A name for this thread pool that can be used to determine
               equality of two thread pool objects.  Only the first 16 characters
               of this value are used.
           @param minThreads The minimum number of threads that should be
               contained in this thread pool at any given time.
           @param maxThreads The maximum number of threads that should be
               contained in this thread pool at any given time.
           @param deallocateWait The minimum time that a thread should be idle
               before it is removed from the pool and cleaned up.
        */
       ThreadPool(
           Sint16 initialSize,
           const char* key,
           Sint16 minThreads,
           Sint16 maxThreads,
           struct timeval& deallocateWait);
   
       /**
           Destructs the ThreadPool object.
        */
       ~ThreadPool();
   
       /**
           Allocate and start a thread to do a unit of work.
           @param parm A generic parameter to pass to the thread
           @param work A pointer to the function that is to be executed by
                       the thread
           @param blocking A pointer to an optional semaphore which, if
                           specified, is signaled after the thread finishes
                           executing the work function
           @return PEGASUS_THREAD_OK if the thread is started successfully,
                   PEGASUS_THREAD_INSUFFICIENT_RESOURCES  if the
                   resources necessary to start the thread are not currently
                   available.  PEGASUS_THREAD_SETUP_FAILURE if the thread
                   could not be setup properly. PEGASUS_THREAD_UNAVAILABLE
                   if this service is shutting down and no more threads can
                   be allocated.
           @exception IPCException
        */
       ThreadStatus allocate_and_awaken(
           void* parm,
           ThreadReturnType (PEGASUS_THREAD_CDECL* work)(void *),
           Semaphore* blocking = 0);
   
       /**
           Cleans up idle threads if they have been running longer than the
           deallocate_wait configuration and more than the configured
           minimum number of threads is running.
           @return The number of threads that were cleaned up.
           @exception IPCException
        */
       Uint32 cleanupIdleThreads();
  
   void started(void);      void get_key(Sint8* buf, int bufsize);
   void completed(void);  
   void remaining(int operations);      inline void setMinThreads(Sint16 min)
   void put_result(CIMReference *ref);      {
           _minThreads = min;
       }
   
       inline Sint16 getMinThreads() const
       {
           return _minThreads;
       }
   
       inline void setMaxThreads(Sint16 max)
       {
           _maxThreads = max;
       }
   
       inline Sint16 getMaxThreads() const
       {
           return _maxThreads;
       }
   
       inline Uint32 runningCount()
       {
           return _runningThreads.size();
       }
   
       inline Uint32 idleCount()
       {
           return _idleThreads.size();
       }
  
  private:  private:
   int _reference_count;  
  
   // keep track of the thread running this operation so we can kill      ThreadPool();    // Unimplemented
   // it if necessary      ThreadPool(const ThreadPool&);    // Unimplemented
   Thread _owner;      ThreadPool& operator=(const ThreadPool&);    // Unimplemented
   
   // this is a phased aggregate. when it is complete is will      static ThreadReturnType PEGASUS_THREAD_CDECL _loop(void *);
   // be streamed to the client regardless of the state of  
   // siblings      static Boolean _timeIntervalExpired(
   Boolean _is_phased;          struct timeval* start,
           struct timeval* interval);
   int _total_values;  
   int _completed_values;      static void _deleteSemaphore(void* p);
   int _total_child_values;  
   int _completed_child_values;      void _cleanupThread(Thread* thread);
   int _completion_state;      Thread* _initializeThread();
   struct timeval _last_update;      void _addToIdleThreadsQueue(Thread* th);
   time_t lifetime;  
   Aggregator *_parent;      Sint16 _maxThreads;
   // children may be phased or not phased      Sint16 _minThreads;
   DQueue _children;      AtomicInt _currentThreads;
   // empty results that are filled by provider      struct timeval _deallocateWait;
   DQueue _results;      char _key[17];
   // array of predicates for events and      List<Thread, Mutex> _idleThreads;
   // stored queries (cursors)      List<Thread, Mutex> _runningThreads;
   Array _filter;      AtomicInt _dying;
 } ; } ;
   
   
   #if defined(PEGASUS_OS_TYPE_WINDOWS)
   # include "ThreadWindows_inline.h"
   #elif defined(PEGASUS_PLATFORM_ZOS_ZSERIES_IBM)
   # include "ThreadzOS_inline.h"
   #elif defined(PEGASUS_OS_TYPE_UNIX)
   # include "ThreadUnix_inline.h"
   #elif defined(PEGASUS_OS_VMS)
   # include "ThreadVms_inline.h"
 #endif #endif
  
 PEGASUS_NAMESPACE_END PEGASUS_NAMESPACE_END


Legend:
Removed from v.1.1.2.3  
changed lines
  Added in v.1.57.2.1

No CVS admin address has been configured
Powered by
ViewCVS 0.9.2