//%///////////-*-c++-*-////////////////////////////////////////////////////// // // Copyright (c) 2000, 2001 The Open group, BMC Software, Tivoli Systems, IBM // // Permission is hereby granted, free of charge, to any person obtaining a copy // of this software and associated documentation files (the "Software"), to // deal in the Software without restriction, including without limitation the // rights to use, copy, modify, merge, publish, distribute, sublicense, and/or // sell copies of the Software, and to permit persons to whom the Software is // furnished to do so, subject to the following conditions: // // THE ABOVE COPYRIGHT NOTICE AND THIS PERMISSION NOTICE SHALL BE INCLUDED IN // ALL COPIES OR SUBSTANTIAL PORTIONS OF THE SOFTWARE. THE SOFTWARE IS PROVIDED // "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT // LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR // PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT // HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN // ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION // WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE. // //============================================================================== // // Author: Mike Day (mdday@us.ibm.com) // // Modified By: // //%///////////////////////////////////////////////////////////////////////////// #ifndef Pegasus_AsyncOpNode_h #define Pegasus_AsyncOpNode_h #include #include #include #include #include PEGASUS_NAMESPACE_BEGIN #define ASYNC_OPFLAGS_UNKNOWN 0x00000000 #define ASYNC_OPFLAGS_INTERVAL_REPEAT 0x00000010 #define ASYNC_OPFLAGS_INDICATION 0x00000020 #define ASYNC_OPFLAGS_REMOTE 0x00000040 #define ASYNC_OPFLAGS_LOCAL_OUT_OF_PROC 0x00000080 #define ASYNC_OPFLAGS_PHASED 0x00000001 #define ASYNC_OPFLAGS_PARTIAL 0x00000002 #define ASYNC_OPFLAGS_NORMAL 0x00000000 #define ASYNC_OPFLAGS_SINGLE 0x00000008 #define ASYNC_OPFLAGS_MULTIPLE 0x00000010 #define ASYNC_OPFLAGS_TOTAL 0x00000020 #define ASYNC_OPFLAGS_META_DISPATCHER 0x00000040 #define ASYNC_OPFLAGS_FIRE_AND_FORGET 0x00000080 #define ASYNC_OPFLAGS_SIMPLE_STATUS 0x00000100 #define ASYNC_OPFLAGS_CALLBACK 0x00000200 #define ASYNC_OPFLAGS_FORWARD 0x00000400 #define ASYNC_OPFLAGS_PSEUDO_CALLBACK 0x00000800 #define ASYNC_OPFLAGS_SAFE_CALLBACK 0x00001000 #define ASYNC_OPSTATE_UNKNOWN 0x00000000 #define ASYNC_OPSTATE_OFFERED 0x00000001 #define ASYNC_OPSTATE_DECLINED 0x00000002 #define ASYNC_OPSTATE_STARTED 0x00000004 #define ASYNC_OPSTATE_PROCESSING 0x00000008 #define ASYNC_OPSTATE_DELIVER 0x00000010 #define ASYNC_OPSTATE_RESERVE 0x00000020 #define ASYNC_OPSTATE_COMPLETE 0x00000040 #define ASYNC_OPSTATE_TIMEOUT 0x00000080 #define ASYNC_OPSTATE_CANCELLED 0x00000100 #define ASYNC_OPSTATE_PAUSED 0x00000200 #define ASYNC_OPSTATE_SUSPENDED 0x00000400 #define ASYNC_OPSTATE_RESUMED 0x00000800 #define ASYNC_OPSTATE_ORPHANED 0x00001000 #define ASYNC_OPSTATE_RELEASED 0x00002000 class Cimom; class Thread; class PEGASUS_COMMON_LINKAGE AsyncOpNode { public: static void * operator new(size_t ); static void operator delete( void *, size_t); private: static AsyncOpNode * _headOfFreeList; static const int BLOCK_SIZE; static Mutex _alloc_mut; public: AsyncOpNode(void); ~AsyncOpNode(void); Boolean operator == (const void *key) const; Boolean operator == (const AsyncOpNode & node) const; void get_timeout_interval(struct timeval *buffer) ; void set_timeout_interval(const struct timeval *interval); Boolean timeout(void) ; OperationContext & get_context(void) ; void put_request(const Message *request) ; Message *get_request(void) ; void put_response(const Message *response) ; Message *get_response(void) ; Uint32 read_state(void) ; void write_state(Uint32) ; Uint32 read_flags(void); void write_flags(Uint32); void lock(void) throw(IPCException); void unlock(void) throw(IPCException); void udpate(void) throw(IPCException); void deliver(const Uint32 count) throw(IPCException); void reserve(const Uint32 size) throw(IPCException); void processing(void) throw(IPCException) ; void processing(OperationContext *context) throw(IPCException); void complete(void) throw(IPCException) ; void complete(OperationContext *context) throw(IPCException); void release(void); void wait(void); private: Semaphore _client_sem; Mutex _mut; unlocked_dq _request; unlocked_dq _response; OperationContext _operation_list; Uint32 _state; Uint32 _flags; Uint32 _offered_count; Uint32 _total_ops; Uint32 _completed_ops; Uint32 _user_data; Uint32 _completion_code; MessageQueue *_op_dest; struct timeval _start; struct timeval _lifetime; struct timeval _updated; struct timeval _timeout_interval; AsyncOpNode *_parent; unlocked_dq _children; void _reset(unlocked_dq *dst_q); // the lifetime member is for cache management by the cimom void _set_lifetime(struct timeval *lifetime) ; Boolean _check_lifetime(void) ; Boolean _is_child(void) ; Uint32 _is_parent(void) ; Boolean _is_my_child(const AsyncOpNode & caller) const; void _make_orphan( AsyncOpNode & parent) ; void _adopt_child(AsyncOpNode *child) ; void _disown_child(AsyncOpNode *child) ; void (*_async_callback)(AsyncOpNode *, MessageQueue *, void *); void (*__async_callback)(Message *, void *, void *); // << Tue Mar 12 14:44:51 2002 mdd >> // pointers for async callbacks - don't use AsyncOpNode *_callback_node; MessageQueue *_callback_response_q; void *_callback_ptr; void *_callback_parameter; void *_callback_handle; Condition *_callback_notify; MessageQueue *_callback_request_q; // << Tue Mar 12 14:44:53 2002 mdd >> // pointers to help static class message handlers - don't use MessageQueue *_service_ptr; Thread *_thread_ptr; friend class cimom; friend class MessageQueueService; friend class ProviderManagerService; }; inline Boolean AsyncOpNode::operator == (const void *key) const { if (key == (void *)this) return true; return false; } inline Boolean AsyncOpNode::operator == (const AsyncOpNode & node) const { return AsyncOpNode::operator==((const void *)&node); } inline void AsyncOpNode::get_timeout_interval(struct timeval *buffer) { if(buffer != 0) { _mut.lock( pegasus_thread_self() ); buffer->tv_sec = _timeout_interval.tv_sec; buffer->tv_usec = _timeout_interval.tv_usec; _mut.unlock(); } return; } inline void AsyncOpNode::set_timeout_interval(const struct timeval *interval) { if(interval != 0) { _mut.lock(pegasus_thread_self()); _timeout_interval.tv_sec = interval->tv_sec; _timeout_interval.tv_usec = interval->tv_usec; gettimeofday(&_updated, NULL); _mut.unlock(); } } inline Boolean AsyncOpNode::timeout(void) { struct timeval now; gettimeofday(&now, NULL); Boolean ret = false; _mut.lock(pegasus_thread_self()); if((_updated.tv_sec + _timeout_interval.tv_sec ) < now.tv_sec) if((_updated.tv_usec + _timeout_interval.tv_usec ) < now.tv_usec) ret = true; _mut.unlock(); return ret; } // context is now a locked list inline OperationContext & AsyncOpNode::get_context(void) { gettimeofday(&_updated, NULL); return _operation_list; } inline void AsyncOpNode::put_request(const Message *request) { _mut.lock(pegasus_thread_self()); gettimeofday(&_updated, NULL); if( false == _request.exists(reinterpret_cast(const_cast(request))) ) _request.insert_last( const_cast(request) ) ; // _request = const_cast(request); _mut.unlock(); } inline Message * AsyncOpNode::get_request(void) { Message *ret; _mut.lock(pegasus_thread_self()); gettimeofday(&_updated, NULL); ret = _request.remove_first() ; // ret = _request; _mut.unlock(); return ret; } inline void AsyncOpNode::put_response(const Message *response) { _mut.lock(pegasus_thread_self()); gettimeofday(&_updated, NULL); if (false == _response.exists(reinterpret_cast(const_cast(response)))) _response.insert_last( const_cast(response) ); // _response = const_cast(response); _mut.unlock(); } inline Message * AsyncOpNode::get_response(void) { Message *ret; _mut.lock(pegasus_thread_self()); // gettimeofday(&_updated, NULL); ret = _response.remove_first(); // ret = _response; _mut.unlock(); return ret; } inline Uint32 AsyncOpNode::read_state(void) { _mut.lock(pegasus_thread_self()); gettimeofday(&_updated, NULL); Uint32 ret = _state; _mut.unlock(); return ret; } inline void AsyncOpNode::write_state(Uint32 state) { _mut.lock(pegasus_thread_self()); gettimeofday(&_updated, NULL); _state = state; _mut.unlock(); } inline Uint32 AsyncOpNode::read_flags(void) { _mut.lock(pegasus_thread_self()); gettimeofday(&_updated, NULL); Uint32 ret = _flags; _mut.unlock(); return ret; } inline void AsyncOpNode::write_flags(Uint32 flags) { _mut.lock(pegasus_thread_self()); gettimeofday(&_updated, NULL); _flags = flags; _mut.unlock(); } inline void AsyncOpNode::lock(void) throw(IPCException) { _mut.lock(pegasus_thread_self()); } inline void AsyncOpNode::unlock(void) throw(IPCException) { _mut.unlock(); } inline void AsyncOpNode::udpate(void) throw(IPCException) { _mut.lock(pegasus_thread_self()); gettimeofday(&_updated, NULL); _mut.unlock(); return; } inline void AsyncOpNode::deliver(const Uint32 count) throw(IPCException) { _mut.lock(pegasus_thread_self()); _completed_ops = count; _state |= ASYNC_OPSTATE_DELIVER; gettimeofday(&_updated, NULL); _mut.unlock(); return; } inline void AsyncOpNode::reserve(const Uint32 size) throw(IPCException) { _mut.lock(pegasus_thread_self()); _total_ops = size; _state |= ASYNC_OPSTATE_RESERVE; gettimeofday(&_updated, NULL); _mut.unlock(); return; } inline void AsyncOpNode::processing(void) throw(IPCException) { _mut.lock(pegasus_thread_self()); _state |= ASYNC_OPSTATE_PROCESSING; gettimeofday(&_updated, NULL); _mut.unlock(); return; } // con will be empty upon return of this member function inline void AsyncOpNode::processing(OperationContext *con) throw(IPCException) { _mut.lock(pegasus_thread_self()); _state |= ASYNC_OPSTATE_PROCESSING; gettimeofday(&_updated, NULL); /* context *c = con->remove_context(); while(c != 0) { _operation_list.add_context(c); c = con->remove_context(); } */ _mut.unlock(); return; } inline void AsyncOpNode::complete(void) throw(IPCException) { _mut.lock(pegasus_thread_self()); _state |= ASYNC_OPSTATE_COMPLETE; gettimeofday(&_updated, NULL); _mut.unlock(); return; } inline void AsyncOpNode::complete(OperationContext *con) throw(IPCException) { _mut.lock(pegasus_thread_self()); _state |= ASYNC_OPSTATE_COMPLETE; gettimeofday(&_updated, NULL); /* context *c = con->remove_context(); while(c != 0) { _operation_list.add_context(c); c = con->remove_context(); } */ _mut.unlock(); } inline void AsyncOpNode::wait(void) { _client_sem.wait(); } inline void AsyncOpNode::release(void) { _mut.lock(pegasus_thread_self()); _state |= ASYNC_OPSTATE_RELEASED; _mut.unlock(); } inline void AsyncOpNode::_set_lifetime(struct timeval *lifetime) { _mut.lock(pegasus_thread_self()); _lifetime.tv_sec = lifetime->tv_sec; _lifetime.tv_usec = lifetime->tv_usec; _mut.unlock(); } inline Boolean AsyncOpNode::_check_lifetime(void) { struct timeval now; gettimeofday(&now, NULL); if((_start.tv_sec + _lifetime.tv_sec ) >= now.tv_sec) if((_start.tv_usec + _lifetime.tv_usec ) >= now.tv_usec) return true; return false; } inline Boolean AsyncOpNode::_is_child(void) { if (_parent != 0) return true; return false; } inline Uint32 AsyncOpNode::_is_parent(void) { return _children.count(); } inline Boolean AsyncOpNode::_is_my_child(const AsyncOpNode & caller) const { if ( _parent == &caller ) return true; return false; } inline void AsyncOpNode::_make_orphan( AsyncOpNode & parent) { if( _parent == &parent ) { _parent = NULL; parent._children.remove(this); } else throw Permission(pegasus_thread_self()); } inline void AsyncOpNode::_adopt_child(AsyncOpNode *child) { if(child == NULL) throw NullPointer(); if(true == child->_is_child()) throw Permission(pegasus_thread_self()); child->_parent = this; _children.insert_last(child); } inline void AsyncOpNode::_disown_child(AsyncOpNode *child) { if(child == NULL) throw NullPointer(); if( false == child->_is_child() || false == child->_is_my_child( *this )) throw Permission(pegasus_thread_self()); child->_make_orphan( *this ); _children.remove(child); } PEGASUS_NAMESPACE_END #endif //Pegasus_AsyncOpNode_h