C++ pthread_mutex_unlock函数代码示例

const struct sensors_input_cache_entry_t *sensors_input_cache_get(
							const char *name)
{
	int rc;
	int fd;
	DIR *dir;
	struct dirent * item;
	struct list_node *member;
	struct input_dev_list *temp;
	pthread_t id[MAX_EVENT_DRIVERS];
	unsigned int i = 0;
	unsigned int threads = 0;
	const struct sensors_input_cache_entry_t *found = NULL;

	pthread_mutex_lock(&util_mutex);
	if (!list_initialized) {
		node_init(&head);
		list_initialized = 1;
	}

	temp = lookup(name, NULL);
	if (temp) {
		found = &temp->entry;
		goto exit;
	}

	dir = opendir(INPUT_EVENT_DIR);
	if (!dir) {
		ALOGE("%s: error opening '%s'\n", __func__,
				INPUT_EVENT_DIR);
		goto exit;
	}

	while ((item = readdir(dir)) != NULL) {
		if (strncmp(item->d_name, INPUT_EVENT_BASENAME,
		    sizeof(INPUT_EVENT_BASENAME) - 1) != 0) {
			continue;
		}

		temp = (temp ? temp : malloc(sizeof(*temp)));
		if (temp == NULL) {
			ALOGE("%s: malloc error!\n", __func__);
			break;
		}

		/* skip already cached entries */
		snprintf(temp->entry.event_path, sizeof(temp->entry.event_path),
			 "%s%s", INPUT_EVENT_DIR, item->d_name);
		if (lookup(NULL, temp->entry.event_path))
			continue;

		/* make sure we have access */
		fd = open(temp->entry.event_path, O_RDONLY);
		if (fd < 0) {
			ALOGE("%s: cant open %s", __func__,
			     item->d_name);
			continue;
		}

		rc = ioctl(fd, EVIOCGNAME(sizeof(temp->entry.dev_name)),
				temp->entry.dev_name);

		/* close in parallell to optimize boot time */
		pthread_create(&id[threads++], NULL,
				close_input_dev_fd, (void*) fd);

		if (rc < 0) {
			ALOGE("%s: cant get name from  %s", __func__,
					item->d_name);
			continue;
		}

		temp->entry.nr = atoi(item->d_name +
				      sizeof(INPUT_EVENT_BASENAME) - 1);

		node_add(&head, &temp->node);
		if (!found && !strncmp(temp->entry.dev_name, name,
				       sizeof(temp->entry.dev_name) - 1))
			found = &temp->entry;
		temp = NULL;
	}

	closedir(dir);

	for(i = 0; i < threads; ++i)
		pthread_join(id[i], NULL);

exit:
	pthread_mutex_unlock(&util_mutex);
	return found;
}

static void unlock()
{
    pthread_mutex_unlock(&lock_loggable);
}

inline void interprocess_recursive_mutex::unlock()
{
   int res = 0;
   res = pthread_mutex_unlock(&m_mut);
   assert(res == 0);
}

void slabs_rebalancer_resume(void) {
    pthread_mutex_unlock(&slabs_rebalance_lock);
}

/* The main listening loop for the object. */
static alib_error listen_loop(ClientListener* listener)
{
	if(!listener)return(ALIB_BAD_ARG);

	int rval;
	int event_count;
	struct epoll_event* event_it;
	long data_in_count;
	void* data_in_buff = malloc(DEFAULT_INPUT_BUFF_SIZE);

	/* Ensure we were able to allocate the data in buffer. */
	if(!data_in_buff)
	{
		rval = ALIB_MEM_ERR;
		goto f_return;
	}

	/* While our socket is open, then we will keep running. */
	while(!(listener->flag_pole & THREAD_STOP))
	{
		/* If the array list is empty, then we simply wait until something is added
		 * to it or our thread is called to stop. */
		if(!ArrayList_get_count(listener->client_list))
		{
			/* Call the empty list callback. */
			if(listener->client_list_empty)
			{
				int rval = listener->client_list_empty(listener);
				if(rval & SCB_RVAL_STOP_SERVER)
					break;
			}

			pthread_mutex_lock(&listener->mutex);
			while(!ArrayList_get_count(listener->client_list) && !(listener->flag_pole & THREAD_STOP))
				pthread_cond_wait(&listener->t_cond, &listener->mutex);
			pthread_mutex_unlock(&listener->mutex);
			continue;
		}

		/* Wait for an event to come. */
		event_count = epoll_wait(listener->ep.efd, listener->ep.triggered_events, DEFAULT_BACKLOG_SIZE,
				1000);
		if(!event_count)continue;

		/* The the event_count is less than zero, then an error occurred. */
		if(event_count < 0)
		{
			if(listener->flag_pole & THREAD_STOP)
				rval = ALIB_OK;
			else
			{
				if(listener->ep.efd > -1)
					continue;
				rval = ALIB_CHECK_ERRNO;
			}

			goto f_return;
		}

		/* Iterate through the events. */
		if(pthread_mutex_lock(&listener->mutex))
		{
			rval = ALIB_MUTEX_ERR;
			goto f_return;
		}
		for(event_it = listener->ep.triggered_events; event_count > 0; ++event_it, --event_count)
		{
			/* Use compare_int_ptr as the first member in the socket package
			 * is an integer. */
			socket_package* client = (socket_package*)ArrayList_find_item_by_value_tsafe(
					listener->client_list, &event_it->data.fd, compare_int_ptr);
			if(!client)
			{
				close(listener->ep.triggered_events->data.fd);
				continue;
			}

			/* Error occurred on the socket. */
			if((event_it->events & (EPOLLERR | EPOLLHUP)) ||
					!(event_it->events & EPOLLIN))
			{
				ArrayList_remove_tsafe(listener->client_list, client);
				continue;
			}

			/* Call the client_data_ready callback. */
			if(listener->data_ready)
			{
				rval = listener->data_ready(listener, client, &data_in_buff,
						&data_in_count);
				if(rval & SCB_RVAL_CLOSE_CLIENT)
					ArrayList_remove_tsafe(listener->client_list, client);
				if(rval & SCB_RVAL_STOP_SERVER)
				{
					rval = ALIB_OK;
					flag_raise(&listener->flag_pole, THREAD_STOP);
					if(pthread_mutex_unlock(&listener->mutex))
						rval = ALIB_MUTEX_ERR;
					goto f_return;
//.........这里部分代码省略.........

void slabs_free(void *ptr, size_t size, unsigned int id) {
    pthread_mutex_lock(&slabs_lock);
    do_slabs_free(ptr, size, id);
    pthread_mutex_unlock(&slabs_lock);
}

/* refcount == 0 is safe since nobody can incr while cache_lock is held.
 * refcount != 0 is impossible since flags/etc can be modified in other
 * threads. instead, note we found a busy one and bail. logic in do_item_get
 * will prevent busy items from continuing to be busy
 */
static int slab_rebalance_move(void) {
    slabclass_t *s_cls;
    int x;
    int was_busy = 0;
    int refcount = 0;
    enum move_status status = MOVE_PASS;

    pthread_mutex_lock(&cache_lock);
    pthread_mutex_lock(&slabs_lock);

    s_cls = &slabclass[slab_rebal.s_clsid];

    for (x = 0; x < slab_bulk_check; x++) {
        item *it = slab_rebal.slab_pos;
        status = MOVE_PASS;
        if (it->slabs_clsid != 255) {
            void *hold_lock = NULL;
            uint32_t hv = hash(ITEM_key(it), it->nkey, 0);
            if ((hold_lock = item_trylock(hv)) == NULL) {
                status = MOVE_LOCKED;
            } else {
                refcount = refcount_incr(&it->refcount);
                if (refcount == 1) { /* item is unlinked, unused */
                    if (it->it_flags & ITEM_SLABBED) {
                        /* remove from slab freelist */
                        if (s_cls->slots == it) {
                            s_cls->slots = it->next;
                        }
                        if (it->next) it->next->prev = it->prev;
                        if (it->prev) it->prev->next = it->next;
                        s_cls->sl_curr--;
                        status = MOVE_DONE;
                    } else {
                        status = MOVE_BUSY;
                    }
                } else if (refcount == 2) { /* item is linked but not busy */
                    if ((it->it_flags & ITEM_LINKED) != 0) {
                        do_item_unlink_nolock(it, hv);
                        status = MOVE_DONE;
                    } else {
                        /* refcount == 1 + !ITEM_LINKED means the item is being
                         * uploaded to, or was just unlinked but hasn't been freed
                         * yet. Let it bleed off on its own and try again later */
                        status = MOVE_BUSY;
                    }
                } else {
                    if (settings.verbose > 2) {
                        fprintf(stderr, "Slab reassign hit a busy item: refcount: %d (%d -> %d)\n",
                            it->refcount, slab_rebal.s_clsid, slab_rebal.d_clsid);
                    }
                    status = MOVE_BUSY;
                }
                item_trylock_unlock(hold_lock);
            }
        }

        switch (status) {
            case MOVE_DONE:
                it->refcount = 0;
                it->it_flags = 0;
                it->slabs_clsid = 255;
                break;
            case MOVE_BUSY:
                refcount_decr(&it->refcount);
            case MOVE_LOCKED:
                slab_rebal.busy_items++;
                was_busy++;
                break;
            case MOVE_PASS:
                break;
        }

        slab_rebal.slab_pos = (char *)slab_rebal.slab_pos + s_cls->size;
        if (slab_rebal.slab_pos >= slab_rebal.slab_end)
            break;
    }

    if (slab_rebal.slab_pos >= slab_rebal.slab_end) {
        /* Some items were busy, start again from the top */
        if (slab_rebal.busy_items) {
            slab_rebal.slab_pos = slab_rebal.slab_start;
            slab_rebal.busy_items = 0;
        } else {
            slab_rebal.done++;
        }
    }

    pthread_mutex_unlock(&slabs_lock);
    pthread_mutex_unlock(&cache_lock);

    return was_busy;
}

static void *video_thread( void *arg )
{
    // Identify the arg
    consumer_sdl self = arg;

    // Obtain time of thread start
    struct timeval now;
    int64_t start = 0;
    int64_t elapsed = 0;
    struct timespec tm;
    mlt_frame next = NULL;
    mlt_properties properties = NULL;
    double speed = 0;

    // Get real time flag
    int real_time = mlt_properties_get_int( self->properties, "real_time" );

    // Get the current time
    gettimeofday( &now, NULL );

    // Determine start time
    start = ( int64_t )now.tv_sec * 1000000 + now.tv_usec;

    while ( self->running )
    {
        // Pop the next frame
        pthread_mutex_lock( &self->video_mutex );
        next = mlt_deque_pop_front( self->queue );
        while ( next == NULL && self->running )
        {
            pthread_cond_wait( &self->video_cond, &self->video_mutex );
            next = mlt_deque_pop_front( self->queue );
        }
        pthread_mutex_unlock( &self->video_mutex );

        if ( !self->running || next == NULL ) break;

        // Get the properties
        properties =  MLT_FRAME_PROPERTIES( next );

        // Get the speed of the frame
        speed = mlt_properties_get_double( properties, "_speed" );

        // Get the current time
        gettimeofday( &now, NULL );

        // Get the elapsed time
        elapsed = ( ( int64_t )now.tv_sec * 1000000 + now.tv_usec ) - start;

        // See if we have to delay the display of the current frame
        if ( mlt_properties_get_int( properties, "rendered" ) == 1 && self->running )
        {
            // Obtain the scheduled playout time
            int64_t scheduled = mlt_properties_get_int( properties, "playtime" );

            // Determine the difference between the elapsed time and the scheduled playout time
            int64_t difference = scheduled - elapsed;

            // Smooth playback a bit
            if ( real_time && ( difference > 20000 && speed == 1.0 ) )
            {
                tm.tv_sec = difference / 1000000;
                tm.tv_nsec = ( difference % 1000000 ) * 500;
                nanosleep( &tm, NULL );
            }

            // Show current frame if not too old
            if ( !real_time || ( difference > -10000 || speed != 1.0 || mlt_deque_count( self->queue ) < 2 ) )
                consumer_play_video( self, next );

            // If the queue is empty, recalculate start to allow build up again
            if ( real_time && ( mlt_deque_count( self->queue ) == 0 && speed == 1.0 ) )
            {
                gettimeofday( &now, NULL );
                start = ( ( int64_t )now.tv_sec * 1000000 + now.tv_usec ) - scheduled + 20000;
            }
        }

        // This frame can now be closed
        mlt_frame_close( next );
        next = NULL;
    }

    if ( next != NULL )
        mlt_frame_close( next );

    mlt_consumer_stopped( &self->parent );

    return NULL;
}

static void *consumer_thread( void *arg )
{
    // Identify the arg
    consumer_sdl self = arg;

    // Get the consumer
    mlt_consumer consumer = &self->parent;

    // Get the properties
    mlt_properties consumer_props = MLT_CONSUMER_PROPERTIES( consumer );

    // Video thread
    pthread_t thread;

    // internal intialization
    int init_audio = 1;
    int init_video = 1;
    mlt_frame frame = NULL;
    mlt_properties properties = NULL;
    int duration = 0;
    int64_t playtime = 0;
    struct timespec tm = { 0, 100000 };
//	int last_position = -1;

    pthread_mutex_lock( &self->refresh_mutex );
    self->refresh_count = 0;
    pthread_mutex_unlock( &self->refresh_mutex );

    // Loop until told not to
    while( self->running )
    {
        // Get a frame from the attached producer
        frame = mlt_consumer_rt_frame( consumer );

        // Ensure that we have a frame
        if ( frame )
        {
            // Get the frame properties
            properties =  MLT_FRAME_PROPERTIES( frame );

            // Get the speed of the frame
            double speed = mlt_properties_get_double( properties, "_speed" );

            // Get refresh request for the current frame
            int refresh = mlt_properties_get_int( consumer_props, "refresh" );

            // Clear refresh
            mlt_events_block( consumer_props, consumer_props );
            mlt_properties_set_int( consumer_props, "refresh", 0 );
            mlt_events_unblock( consumer_props, consumer_props );

            // Play audio
            init_audio = consumer_play_audio( self, frame, init_audio, &duration );

            // Determine the start time now
            if ( self->playing && init_video )
            {
                // Create the video thread
                pthread_create( &thread, NULL, video_thread, self );

                // Video doesn't need to be initialised any more
                init_video = 0;
            }

            // Set playtime for this frame
            mlt_properties_set_int( properties, "playtime", playtime );

            while ( self->running && speed != 0 && mlt_deque_count( self->queue ) > 15 )
                nanosleep( &tm, NULL );

            // Push this frame to the back of the queue
            if ( self->running && speed )
            {
                pthread_mutex_lock( &self->video_mutex );
                if ( self->is_purge && speed == 1.0 )
                {
                    mlt_frame_close( frame );
                    self->is_purge = 0;
                }
                else
                {
                    mlt_deque_push_back( self->queue, frame );
                    pthread_cond_broadcast( &self->video_cond );
                }
                pthread_mutex_unlock( &self->video_mutex );

                // Calculate the next playtime
                playtime += ( duration * 1000 );
            }
            else if ( self->running )
            {
                pthread_mutex_lock( &self->refresh_mutex );
                if ( ( refresh == 0 && self->refresh_count <= 0 ) || self->refresh_count > 1 )
                {
                    consumer_play_video( self, frame );
                    pthread_cond_wait( &self->refresh_cond, &self->refresh_mutex );
                }
                mlt_frame_close( frame );
                self->refresh_count --;
                pthread_mutex_unlock( &self->refresh_mutex );
//.........这里部分代码省略.........

void CRITICAL_END() {
    pthread_mutex_unlock(&MULTITHREAD_MUT);
}

static int consumer_play_audio( consumer_sdl self, mlt_frame frame, int init_audio, int *duration )
{
    // Get the properties of this consumer
    mlt_properties properties = self->properties;
    mlt_audio_format afmt = mlt_audio_s16;

    // Set the preferred params of the test card signal
    int channels = mlt_properties_get_int( properties, "channels" );
    int frequency = mlt_properties_get_int( properties, "frequency" );
    int scrub = mlt_properties_get_int( properties, "scrub_audio" );
    static int counter = 0;

    int samples = mlt_sample_calculator( mlt_properties_get_double( self->properties, "fps" ), frequency, counter++ );

    int16_t *pcm;
    int bytes;

    mlt_frame_get_audio( frame, (void**) &pcm, &afmt, &frequency, &channels, &samples );
    *duration = ( ( samples * 1000 ) / frequency );

    if ( mlt_properties_get_int( properties, "audio_off" ) )
    {
        self->playing = 1;
        init_audio = 1;
        return init_audio;
    }

    if ( init_audio == 1 )
    {
        SDL_AudioSpec request;
        SDL_AudioSpec got;

        int audio_buffer = mlt_properties_get_int( properties, "audio_buffer" );

        // specify audio format
        memset( &request, 0, sizeof( SDL_AudioSpec ) );
        self->playing = 0;
        request.freq = frequency;
        request.format = AUDIO_S16SYS;
        request.channels = channels;
        request.samples = audio_buffer;
        request.callback = sdl_fill_audio;
        request.userdata = (void *)self;
        if ( SDL_OpenAudio( &request, &got ) != 0 )
        {
            mlt_log_error( MLT_CONSUMER_SERVICE( self ), "SDL failed to open audio: %s\n", SDL_GetError() );
            init_audio = 2;
        }
        else if ( got.size != 0 )
        {
            SDL_PauseAudio( 0 );
            init_audio = 0;
        }
    }

    if ( init_audio == 0 )
    {
        mlt_properties properties = MLT_FRAME_PROPERTIES( frame );
        bytes = ( samples * channels * 2 );
        pthread_mutex_lock( &self->audio_mutex );
        while ( self->running && bytes > ( sizeof( self->audio_buffer) - self->audio_avail ) )
            pthread_cond_wait( &self->audio_cond, &self->audio_mutex );
        if ( self->running )
        {
            if ( scrub || mlt_properties_get_double( properties, "_speed" ) == 1 )
                memcpy( &self->audio_buffer[ self->audio_avail ], pcm, bytes );
            else
                memset( &self->audio_buffer[ self->audio_avail ], 0, bytes );
            self->audio_avail += bytes;
        }
        pthread_cond_broadcast( &self->audio_cond );
        pthread_mutex_unlock( &self->audio_mutex );
    }
    else
    {
        self->playing = 1;
    }

    return init_audio;
}

int 
ldap_pvt_thread_mutex_unlock( ldap_pvt_thread_mutex_t *mutex )
{
	return ERRVAL( pthread_mutex_unlock( mutex ) );
}

void* tty2_thread()
{
	while(1)
	{
		FILE* f;
		char fileName[30];
	
		int numlines = 0;
		int i; //Standard iterator.

		fprintf(tty2, "in: ");
		fscanf(tty2, "%s", fileName);
	
		f = fopen(fileName, "r");

		if(!f)
		{
			printf("Arquivo inválido!\n");
			exit(-1);
		}
	
		p2->tty = tty2;
		p2->ready = 0;
		
		pthread_mutex_lock(&allocatorMutex);
			if(allocate_block() == OUT_OF_MEMORY)
			{
				printf("SEM MEMÓRIA\n");
				continue;
			}
		pthread_mutex_unlock(&allocatorMutex);
			
		//Carregar programa na memória.
		while(!feof(f))
		{
			fscanf(f, "%d %d", &mem[numlines + p2->cs].inst, &mem[numlines + p2->cs].op);
			printf("inst= %d\t\top= %d\n", mem[numlines + p2->cs].inst, mem[numlines + p2->cs].op);
			numlines++;
		}
		
		p2->ready = 1;
		printf("Rodando!\n\n");
	
/*		while(1)
		{
			//MUTEX
			pthread_mutex_lock(&runningMutex);
				if(running == p2)
				{
					printf("PC: %d\t CS: %d\t DS: %d\t ACC: %d\n", running->pc, running->cs, running->ds, running->acc);
					if(run_line() == PROG_END) break;
					running->pc++;
				}
			pthread_mutex_unlock(&runningMutex);
			//MUTEX END
		}
		//Terminou execução
*/
		while(p2->ready == 1) {} //Fica parado enquanto o processo está em execução.
		
		pthread_mutex_lock(&allocatorMutex);
			if(p2->ready == 0)
			{
				if(free_memory_block(running->block) == UNALLOCATED_MEM)
				{
					printf("Memória já foi desalocada. Algo muito errado aconteceu.\n");
					continue;
				}
			}
		pthread_mutex_unlock(&allocatorMutex);
	}
}

/** @brief Releases buffers under processing.
 * This function must be implemented in the derived classes, for the
 * specific processing
 */
OMX_ERRORTYPE videoenc_port_FlushProcessingBuffers(omx_base_PortType *openmaxStandPort)
{
	omx_videoenc_PortType *omx_videoenc_Port = (omx_videoenc_PortType *)openmaxStandPort;
	OMX_VCE_Buffers_List *pBuffersMng_List= &(omx_videoenc_Port->BuffersMng_List);
	omx_base_component_PrivateType *omx_base_component_Private;
	OMX_BUFFERHEADERTYPE *pBuffer;
	int errQue;

	DEBUG(DEB_LEV_FUNCTION_NAME, "In %s for port %p\n", __func__, openmaxStandPort);
	omx_base_component_Private = (omx_base_component_PrivateType *)openmaxStandPort->standCompContainer->pComponentPrivate;

	if(omx_videoenc_Port->ringbuffer == OMX_TRUE &&  omx_videoenc_Port->bufferpool)
	{
		clearBufferPool(omx_videoenc_Port->bufferpool);
	}

	if(openmaxStandPort->sPortParam.eDomain != OMX_PortDomainOther)
	{
		/* clock buffers not used in the clients buffer managment function */
		pthread_mutex_lock(&omx_base_component_Private->flush_mutex);
		openmaxStandPort->bIsPortFlushed = OMX_TRUE;

		/*Signal the buffer management thread of port flush,if it is waiting for buffers*/
		if(omx_base_component_Private->bMgmtSem->semval==0)
		{
			tsem_up(omx_base_component_Private->bMgmtSem);
		}

		if(omx_base_component_Private->state != OMX_StateExecuting )
		{
			/*Waiting at paused state*/
			tsem_signal(omx_base_component_Private->bStateSem);
		}
		DEBUG(DEB_LEV_FULL_SEQ, "In %s waiting for flush all condition port index =%d\n", __func__,
			(int)openmaxStandPort->sPortParam.nPortIndex);

		/* Wait until flush is completed */
		pthread_mutex_unlock(&omx_base_component_Private->flush_mutex);
		tsem_down(omx_base_component_Private->flush_all_condition);
	}
	DEBUG(DEB_LEV_FUNCTION_NAME, "In %s flushed all the buffers under processing\n", __func__);

	tsem_reset(omx_base_component_Private->bMgmtSem);

	/* Flush all the buffers not under processing */
	while (openmaxStandPort->pBufferSem->semval > 0)
	{
		DEBUG(DEB_LEV_FULL_SEQ, "In %s TFlag=%x Flusing Port=%d,Semval=%d Qelem=%d\n",
			__func__, (int)openmaxStandPort->nTunnelFlags, (int)openmaxStandPort->sPortParam.nPortIndex,
			(int)openmaxStandPort->pBufferSem->semval, (int)openmaxStandPort->pBufferQueue->nelem);

		tsem_down(openmaxStandPort->pBufferSem);
		pBuffer = dequeue(openmaxStandPort->pBufferQueue);

		//FlushProcessingBuffers_BuffersMng(pBuffersMng_List,pBuffer,omx_videoenc_Port->bIsStoreMediaData);

		if (PORT_IS_TUNNELED(openmaxStandPort) && !PORT_IS_BUFFER_SUPPLIER(openmaxStandPort))
		{
			DEBUG(DEB_LEV_FULL_SEQ, "In %s: Comp %s is returning io:%d buffer\n",
				__func__, omx_base_component_Private->name,(int)openmaxStandPort->sPortParam.nPortIndex);

			if (openmaxStandPort->sPortParam.eDir == OMX_DirInput)
			{
				((OMX_COMPONENTTYPE*)(openmaxStandPort->hTunneledComponent))->FillThisBuffer(openmaxStandPort->hTunneledComponent, pBuffer);
			}
			else
			{
				((OMX_COMPONENTTYPE*)(openmaxStandPort->hTunneledComponent))->EmptyThisBuffer(openmaxStandPort->hTunneledComponent, pBuffer);
			}
		}
		else if (PORT_IS_TUNNELED_N_BUFFER_SUPPLIER(openmaxStandPort))
		{
			errQue = queue(openmaxStandPort->pBufferQueue, pBuffer);
			if (errQue)
			{
				/* /TODO the queue is full. This can be handled in a fine way with
				* some retrials, or other checking. For the moment this is a critical error
				* and simply causes the failure of this call
				*/
				return OMX_ErrorInsufficientResources;
			}
		}
		else
		{
			(*(openmaxStandPort->BufferProcessedCallback))(
				openmaxStandPort->standCompContainer,
				omx_base_component_Private->callbackData,
				pBuffer);
		}
	}

	/*Port is tunneled and supplier and didn't received all it's buffer then wait for the buffers*/
	if (PORT_IS_TUNNELED_N_BUFFER_SUPPLIER(openmaxStandPort))
	{
		while(openmaxStandPort->pBufferQueue->nelem != (int)openmaxStandPort->nNumAssignedBuffers)
		{
//.........这里部分代码省略.........

void AsyncLogger::addMessageTokens(const std::string& line,const std::string& line2) {
	pthread_mutex_lock(&_mutex);
	msg_q->push_back(line);
	msg_q->push_back(line2);
	pthread_mutex_unlock(&_mutex);
}