ARNETWORK_RingBuffer_t* ARNETWORK_RingBuffer_NewWithOverwriting(unsigned int numberOfCell, unsigned int cellSize, int isOverwriting)
{
/* -- Create a new ring buffer -- */
/* local declarations */
int err = 0;
ARNETWORK_RingBuffer_t* ringBuffer = calloc(1, sizeof(ARNETWORK_RingBuffer_t));
if (ringBuffer == NULL)
return NULL;
ringBuffer->numberOfCell = numberOfCell;
ringBuffer->cellSize = cellSize;
ringBuffer->indexInput = 0;
ringBuffer->indexOutput = 0;
ringBuffer->isOverwriting = isOverwriting;
err = ARSAL_Mutex_Init(&ringBuffer->mutex);
if (err != 0)
goto error;
ringBuffer->dataBuffer = malloc(cellSize * numberOfCell);
if (ringBuffer->dataBuffer == NULL)
goto error;
return ringBuffer;
error:
ARNETWORK_RingBuffer_Delete(&ringBuffer);
return NULL;
}
int ARSTREAM2_H264_AuFifoAddQueue(ARSTREAM2_H264_AuFifo_t *fifo, ARSTREAM2_H264_AuFifoQueue_t *queue)
{
if ((!fifo) || (!queue))
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Invalid pointer");
return -1;
}
int mutexRet = ARSAL_Mutex_Init(&(queue->mutex));
if (mutexRet != 0)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Mutex creation failed (%d)", mutexRet);
return -1;
}
ARSAL_Mutex_Lock(&(fifo->mutex));
queue->count = 0;
queue->head = NULL;
queue->tail = NULL;
queue->prev = NULL;
queue->next = fifo->queue;
if (queue->next)
{
queue->next->prev = queue;
}
fifo->queue = queue;
fifo->queueCount++;
ARSAL_Mutex_Unlock(&(fifo->mutex));
return 0;
}
int ARSTREAM2_H264_NaluFifoInit(ARSTREAM2_H264_NaluFifo_t *fifo, int maxCount)
{
int i;
ARSTREAM2_H264_NaluFifoItem_t* cur;
if (!fifo)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Invalid pointer");
return -1;
}
if (maxCount <= 0)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Invalid FIFO size (%d)", maxCount);
return -1;
}
memset(fifo, 0, sizeof(ARSTREAM2_H264_NaluFifo_t));
int mutexRet = ARSAL_Mutex_Init(&(fifo->mutex));
if (mutexRet != 0)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Mutex creation failed (%d)", mutexRet);
return -1;
}
fifo->size = maxCount;
fifo->pool = malloc(maxCount * sizeof(ARSTREAM2_H264_NaluFifoItem_t));
if (!fifo->pool)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "FIFO allocation failed (size %zu)", maxCount * sizeof(ARSTREAM2_H264_NaluFifoItem_t));
return -1;
}
memset(fifo->pool, 0, maxCount * sizeof(ARSTREAM2_H264_NaluFifoItem_t));
for (i = 0; i < maxCount; i++)
{
cur = &fifo->pool[i];
if (fifo->free)
{
fifo->free->prev = cur;
}
cur->next = fifo->free;
cur->prev = NULL;
fifo->free = cur;
}
return 0;
}
ARSTREAM_Reader_t* ARSTREAM_Reader_New (ARNETWORK_Manager_t *manager, int dataBufferID, int ackBufferID, ARSTREAM_Reader_FrameCompleteCallback_t callback, uint8_t *frameBuffer, uint32_t frameBufferSize, uint32_t maxFragmentSize, int32_t maxAckInterval, void *custom, eARSTREAM_ERROR *error)
{
ARSTREAM_Reader_t *retReader = NULL;
int ackPacketMutexWasInit = 0;
int ackSendMutexWasInit = 0;
int ackSendCondWasInit = 0;
eARSTREAM_ERROR internalError = ARSTREAM_OK;
/* ARGS Check */
if ((manager == NULL) ||
(callback == NULL) ||
(frameBuffer == NULL) ||
(frameBufferSize == 0) ||
(maxFragmentSize == 0) ||
(maxAckInterval < -1))
{
SET_WITH_CHECK (error, ARSTREAM_ERROR_BAD_PARAMETERS);
return retReader;
}
/* Alloc new reader */
retReader = malloc (sizeof (ARSTREAM_Reader_t));
if (retReader == NULL)
{
internalError = ARSTREAM_ERROR_ALLOC;
}
/* Copy parameters */
if (internalError == ARSTREAM_OK)
{
retReader->manager = manager;
retReader->dataBufferID = dataBufferID;
retReader->ackBufferID = ackBufferID;
retReader->maxFragmentSize = maxFragmentSize;
retReader->maxAckInterval = maxAckInterval;
retReader->callback = callback;
retReader->custom = custom;
retReader->currentFrameBufferSize = frameBufferSize;
retReader->currentFrameBuffer = frameBuffer;
}
/* Setup internal mutexes/conditions */
if (internalError == ARSTREAM_OK)
{
int mutexInitRet = ARSAL_Mutex_Init (&(retReader->ackPacketMutex));
if (mutexInitRet != 0)
{
internalError = ARSTREAM_ERROR_ALLOC;
}
else
{
ackPacketMutexWasInit = 1;
}
}
if (internalError == ARSTREAM_OK)
{
int mutexInitRet = ARSAL_Mutex_Init (&(retReader->ackSendMutex));
if (mutexInitRet != 0)
{
internalError = ARSTREAM_ERROR_ALLOC;
}
else
{
ackSendMutexWasInit = 1;
}
}
if (internalError == ARSTREAM_OK)
{
int condInitRet = ARSAL_Cond_Init (&(retReader->ackSendCond));
if (condInitRet != 0)
{
internalError = ARSTREAM_ERROR_ALLOC;
}
else
{
ackSendCondWasInit = 1;
}
}
/* Setup internal variables */
if (internalError == ARSTREAM_OK)
{
int i;
retReader->currentFrameSize = 0;
retReader->threadsShouldStop = 0;
retReader->dataThreadStarted = 0;
retReader->ackThreadStarted = 0;
retReader->efficiency_index = 0;
for (i = 0; i < ARSTREAM_READER_EFFICIENCY_AVERAGE_NB_FRAMES; i++)
{
retReader->efficiency_nbTotal [i] = 0;
retReader->efficiency_nbUseful [i] = 0;
}
}
if ((internalError != ARSTREAM_OK) &&
(retReader != NULL))
{
if (ackPacketMutexWasInit == 1)
{
ARSAL_Mutex_Destroy (&(retReader->ackPacketMutex));
}
if (ackSendMutexWasInit == 1)
{
ARSAL_Mutex_Destroy (&(retReader->ackSendMutex));
}
if (ackSendCondWasInit == 1)
{
ARSAL_Cond_Destroy (&(retReader->ackSendCond));
}
free (retReader);
retReader = NULL;
}
SET_WITH_CHECK (error, internalError);
return retReader;
}
ARCONTROLLER_Network_t *ARCONTROLLER_Network_New (ARDISCOVERY_Device_t *discoveryDevice, ARCONTROLLER_Network_DisconnectionCallback_t disconnectionCallback, ARDISCOVERY_Device_ConnectionJsonCallback_t sendJsonCallback, ARDISCOVERY_Device_ConnectionJsonCallback_t receiveJsonCallback, void *customData, eARCONTROLLER_ERROR *error)
{
// -- Create a new Network Controller --
//local declarations
eARCONTROLLER_ERROR localError = ARCONTROLLER_OK;
ARCONTROLLER_Network_t *networkController = NULL;
eARDISCOVERY_ERROR dicoveryError = ARDISCOVERY_OK;
// Check parameters
if (discoveryDevice == NULL)
{
localError = ARCONTROLLER_ERROR_BAD_PARAMETER;
}
// No Else: the checking parameters sets localError to ARNETWORK_ERROR_BAD_PARAMETER and stop the processing
if (localError == ARCONTROLLER_OK)
{
// Create the Network Controller
networkController = malloc (sizeof (ARCONTROLLER_Network_t));
if (networkController != NULL)
{
// Initialize to default values
networkController->discoveryDevice = NULL;
networkController->networkALManager = NULL;
networkController->networkManager = NULL;
networkController->rxThread = NULL;
networkController->txThread = NULL;
networkController->readerThreads = NULL;
networkController->readerThreadsData = NULL;
networkController->state = ARCONTROLLER_NETWORK_STATE_RUNNING;
//video part
networkController->hasVideo = 0;
networkController->videoController = NULL;
//Connection callback
networkController->sendJsonCallback = sendJsonCallback;
networkController->receiveJsonCallback = receiveJsonCallback;
networkController->disconnectionCallback = disconnectionCallback;
networkController->callbacksCustomData = customData;
// init networkConfiguration
networkController->networkConfig.controllerToDeviceNotAckId = -1;
networkController->networkConfig.controllerToDeviceAckId = -1;
networkController->networkConfig.controllerToDeviceHightPriority = -1;
networkController->networkConfig.controllerToDeviceARStreamAck = -1;
networkController->networkConfig.deviceToControllerNotAckId = -1;
networkController->networkConfig.deviceToControllerAckId = -1;
//networkController->networkConfig.deviceToControllerHightPriority = -1;
networkController->networkConfig.deviceToControllerARStreamData = -1;
networkController->networkConfig.numberOfControllerToDeviceParam = 0;
networkController->networkConfig.controllerToDeviceParams = NULL;
networkController->networkConfig.numberOfDeviceToControllerParam = 0;
networkController->networkConfig.deviceToControllerParams = NULL;
networkController->networkConfig.pingDelayMs =-1;
networkController->networkConfig.numberOfDeviceToControllerCommandsBufferIds = 0;
networkController->networkConfig.deviceToControllerCommandsBufferIds = NULL;
/* Create the mutex/condition */
if ( (localError == ARCONTROLLER_OK) &&
(ARSAL_Mutex_Init (&(networkController->mutex)) != 0))
{
localError = ARCONTROLLER_ERROR_INIT_MUTEX;
}
}
else
{
localError = ARCONTROLLER_ERROR_ALLOC;
}
}
if (localError == ARCONTROLLER_OK)
{
// Copy the device
eARDISCOVERY_ERROR dicoveryError = ARDISCOVERY_OK;
networkController->discoveryDevice = ARDISCOVERY_Device_NewByCopy (discoveryDevice, &dicoveryError);
if (dicoveryError != ARDISCOVERY_OK)
{
localError = ARCONTROLLER_ERROR_INIT_DEVICE_COPY;
}
}
// Check if it is a wifi device
if ((localError == ARCONTROLLER_OK) &&
(ARDISCOVERY_getProductService (networkController->discoveryDevice->productID) == ARDISCOVERY_PRODUCT_NSNETSERVICE))
{
// Add callbacks for the connection json part
dicoveryError = ARDISCOVERY_Device_WifiAddConnectionCallbacks (networkController->discoveryDevice, ARCONTROLLER_Network_OnSendJson, ARCONTROLLER_Network_OnReceiveJson, networkController);
if (dicoveryError != ARDISCOVERY_OK)
{
localError = ARCONTROLLER_ERROR_INIT_DEVICE_JSON_CALLBACK;
}
}
if (localError == ARCONTROLLER_OK)
{
// Initialize the network Configuration
eARDISCOVERY_ERROR dicoveryError = ARDISCOVERY_OK;
dicoveryError = ARDISCOVERY_Device_InitNetworkConfiguration (networkController->discoveryDevice, &(networkController->networkConfig));
if (dicoveryError != ARDISCOVERY_OK)
{
localError = ARCONTROLLER_ERROR_INIT_NETWORK_CONFIG;
}
}
if (localError == ARCONTROLLER_OK)
{
// Check if the device has video
if (networkController->networkConfig.deviceToControllerARStreamData != -1)
{
networkController->hasVideo = 1;
networkController->videoController = ARCONTROLLER_Stream_New (&(networkController->networkConfig), networkController->discoveryDevice, &localError);
}
//NO else ; device has not video
}
// No else: skipped by an error
if (localError == ARCONTROLLER_OK)
{
// Create the NetworkAL
eARDISCOVERY_ERROR dicoveryError = ARDISCOVERY_OK;
eARNETWORKAL_ERROR netALError = ARNETWORKAL_OK;
networkController->networkALManager = ARDISCOVERY_Device_NewARNetworkAL (networkController->discoveryDevice, &dicoveryError, &netALError);
if (dicoveryError != ARDISCOVERY_OK)
{
if (netALError != ARNETWORKAL_OK)
{
ARSAL_PRINT (ARSAL_PRINT_ERROR, ARCONTROLLER_NETWORK_TAG, "error: %s", ARNETWORKAL_Error_ToString (netALError));
}
localError = ARCONTROLLER_ERROR_INIT_ARNETWORKAL_MANAGER;
}
}
if (localError == ARCONTROLLER_OK)
{
// Create the ARNetworkManager.
eARNETWORK_ERROR netError = ARNETWORK_OK;
networkController->networkManager = ARNETWORK_Manager_New (networkController->networkALManager, networkController->networkConfig.numberOfControllerToDeviceParam, networkController->networkConfig.controllerToDeviceParams, networkController->networkConfig.numberOfDeviceToControllerParam, networkController->networkConfig.deviceToControllerParams, networkController->networkConfig.pingDelayMs, ARCONTROLLER_Network_OnDisconnectNetwork, networkController, &netError);
if (netError != ARNETWORK_OK)
{
localError = ARCONTROLLER_ERROR_INIT_ARNETWORK_MANAGER;
}
}
if (localError == ARCONTROLLER_OK)
{
// Create the Network receiver and transmitter Threads
localError = ARCONTROLLER_Network_CreateNetworkThreads (networkController);
}
if (localError == ARCONTROLLER_OK)
{
// Create the reader Threads
localError = ARCONTROLLER_Network_CreateReaderThreads (networkController);
}
// delete the Network Controller if an error occurred
if (localError != ARCONTROLLER_OK)
{
ARSAL_PRINT (ARSAL_PRINT_ERROR, ARCONTROLLER_NETWORK_TAG, "error: %s", ARCONTROLLER_Error_ToString (localError));
ARCONTROLLER_Network_Delete (&networkController);
}
// No else: skipped by an error
// Return the error
if (error != NULL)
{
*error = localError;
}
// No else: error is not returned
return networkController;
}
int ARSAL_Sem_Init(ARSAL_Sem_t *sem, int shared, int value)
{
int result = -1;
if (NULL == sem)
{
errno = EINVAL;
return result;
}
/* No else. */
#if __SAL_USE_POSIX_SEM
sem_t *psem = (sem_t *) calloc (1, sizeof (sem_t));
if (NULL != psem)
{
result = sem_init(psem, shared, value);
if (0 == result)
{
*sem = (ARSAL_Sem_t)psem;
}
else
{
free (psem);
psem = NULL;
}
}
/* No else: if calloc failed, return default value -1. */
#else
/*
* Custom init algo:
* Alloc memory
* Init mutex / condition
* Set internal counter to 'value'
*/
int isMalloc = 0, isMutexInit = 0;
ARSAL_Sem_CustomImpl_t *psem = (ARSAL_Sem_CustomImpl_t *) malloc (sizeof (ARSAL_Sem_CustomImpl_t));
if (NULL != psem)
{
isMalloc = 1;
result = ARSAL_Mutex_Init (&(psem->lock));
ARSAL_SEM_ERRNO_TRANSFORM (result);
if (0 == result)
{
isMutexInit = 1;
result = ARSAL_Cond_Init (&(psem->cond));
ARSAL_SEM_ERRNO_TRANSFORM (result);
psem->count = value;
}
/* No else. */
}
/* No else. */
if (0 == result)
{
*sem = (ARSAL_Sem_t)psem;
}
else
{
if (1 == isMutexInit)
{
ARSAL_Mutex_Destroy (&(psem->lock));
}
/* No else: no need to destroy a mutex that wasn't created. */
if (1 == isMalloc)
{
free (psem);
}
/* No else: no need to free memory that wasn't allocated. */
}
#endif
return result;
}
int ARSTREAM2_H264_AuFifoInit(ARSTREAM2_H264_AuFifo_t *fifo, int itemMaxCount, int itemNaluMaxCount, int bufferMaxCount,
int auBufferSize, int metadataBufferSize, int userDataBufferSize, int videoStatsBufferSize)
{
int i, ret;
ARSTREAM2_H264_AuFifoItem_t* curItem;
ARSTREAM2_H264_AuFifoBuffer_t* curBuffer;
if (!fifo)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Invalid pointer");
return -1;
}
if (itemMaxCount <= 0)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Invalid item max count (%d)", itemMaxCount);
return -1;
}
if (bufferMaxCount <= 0)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Invalid buffer max count (%d)", bufferMaxCount);
return -1;
}
memset(fifo, 0, sizeof(ARSTREAM2_H264_AuFifo_t));
int mutexRet = ARSAL_Mutex_Init(&(fifo->mutex));
if (mutexRet != 0)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "Mutex creation failed (%d)", mutexRet);
return -1;
}
fifo->itemPoolSize = itemMaxCount;
fifo->itemPool = malloc(itemMaxCount * sizeof(ARSTREAM2_H264_AuFifoItem_t));
if (!fifo->itemPool)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "FIFO allocation failed (size %zu)", itemMaxCount * sizeof(ARSTREAM2_H264_AuFifoItem_t));
fifo->itemPoolSize = 0;
return -1;
}
memset(fifo->itemPool, 0, itemMaxCount * sizeof(ARSTREAM2_H264_AuFifoItem_t));
for (i = 0; i < itemMaxCount; i++)
{
curItem = &fifo->itemPool[i];
ret = ARSTREAM2_H264_AuNaluFifoInit(&curItem->au, itemNaluMaxCount);
if (ret != 0)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "ARSTREAM2_H264_AuNaluFifoInit() failed (%d)", ret);
ARSTREAM2_H264_AuFifoFree(fifo);
return -1;
}
if (fifo->itemFree)
{
fifo->itemFree->prev = curItem;
}
curItem->next = fifo->itemFree;
curItem->prev = NULL;
fifo->itemFree = curItem;
}
fifo->bufferPoolSize = bufferMaxCount;
fifo->bufferPool = malloc(bufferMaxCount * sizeof(ARSTREAM2_H264_AuFifoBuffer_t));
if (!fifo->bufferPool)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "FIFO allocation failed (size %zu)", bufferMaxCount * sizeof(ARSTREAM2_H264_AuFifoBuffer_t));
fifo->bufferPoolSize = 0;
return -1;
}
memset(fifo->bufferPool, 0, bufferMaxCount * sizeof(ARSTREAM2_H264_AuFifoBuffer_t));
for (i = 0; i < bufferMaxCount; i++)
{
curBuffer = &fifo->bufferPool[i];
if (fifo->bufferFree)
{
fifo->bufferFree->prev = curBuffer;
}
curBuffer->next = fifo->bufferFree;
curBuffer->prev = NULL;
fifo->bufferFree = curBuffer;
}
if (auBufferSize > 0)
{
for (i = 0; i < bufferMaxCount; i++)
{
fifo->bufferPool[i].auBuffer = malloc(auBufferSize);
if (!fifo->bufferPool[i].auBuffer)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "FIFO buffer allocation failed (size %d)", auBufferSize);
ARSTREAM2_H264_AuFifoFree(fifo);
return -1;
}
fifo->bufferPool[i].auBufferSize = auBufferSize;
}
}
if (metadataBufferSize > 0)
{
for (i = 0; i < bufferMaxCount; i++)
{
fifo->bufferPool[i].metadataBuffer = malloc(metadataBufferSize);
if (!fifo->bufferPool[i].metadataBuffer)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "FIFO buffer allocation failed (size %d)", metadataBufferSize);
ARSTREAM2_H264_AuFifoFree(fifo);
return -1;
}
fifo->bufferPool[i].metadataBufferSize = metadataBufferSize;
}
}
if (userDataBufferSize > 0)
{
for (i = 0; i < bufferMaxCount; i++)
{
fifo->bufferPool[i].userDataBuffer = malloc(userDataBufferSize);
if (!fifo->bufferPool[i].userDataBuffer)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "FIFO buffer allocation failed (size %d)", userDataBufferSize);
ARSTREAM2_H264_AuFifoFree(fifo);
return -1;
}
fifo->bufferPool[i].userDataBufferSize = userDataBufferSize;
}
}
if (videoStatsBufferSize > 0)
{
for (i = 0; i < bufferMaxCount; i++)
{
fifo->bufferPool[i].videoStatsBuffer = malloc(videoStatsBufferSize);
if (!fifo->bufferPool[i].videoStatsBuffer)
{
ARSAL_PRINT(ARSAL_PRINT_ERROR, ARSTREAM2_H264_TAG, "FIFO buffer allocation failed (size %d)", videoStatsBufferSize);
ARSTREAM2_H264_AuFifoFree(fifo);
return -1;
}
fifo->bufferPool[i].videoStatsBufferSize = videoStatsBufferSize;
}
}
return 0;
}
ARNETWORK_Sender_t* ARNETWORK_Sender_New (ARNETWORKAL_Manager_t *networkALManager, unsigned int numberOfInputBuffer, ARNETWORK_IOBuffer_t **inputBufferPtrArr, unsigned int numberOfInternalInputBuffer, ARNETWORK_IOBuffer_t **internalInputBufferPtrArr, ARNETWORK_IOBuffer_t **inputBufferPtrMap, int pingDelayMs)
{
/** -- Create a new sender -- */
/** local declarations */
ARNETWORK_Sender_t* senderPtr = NULL;
eARNETWORK_ERROR error = ARNETWORK_OK;
/** Create the sender */
senderPtr = malloc (sizeof (ARNETWORK_Sender_t));
if (senderPtr)
{
if(networkALManager != NULL)
{
senderPtr->networkALManager = networkALManager;
}
else
{
error = ARNETWORK_ERROR_BAD_PARAMETER;
}
if(error == ARNETWORK_OK)
{
senderPtr->isAlive = 1;
senderPtr->numberOfInputBuff = numberOfInputBuffer;
senderPtr->inputBufferPtrArr = inputBufferPtrArr;
senderPtr->numberOfInternalInputBuff = numberOfInternalInputBuffer;
senderPtr->internalInputBufferPtrArr = internalInputBufferPtrArr;
senderPtr->inputBufferPtrMap = inputBufferPtrMap;
senderPtr->minimumTimeBetweenSendsMs = ARNETWORK_SENDER_MILLISECOND;
senderPtr->isPingRunning = 0;
senderPtr->hadARNetworkALOverflowOnPreviousRun = 0;
if (pingDelayMs == 0)
{
senderPtr->minTimeBetweenPings = ARNETWORK_SENDER_MINIMUM_TIME_BETWEEN_PINGS_MS;
}
else
{
senderPtr->minTimeBetweenPings = pingDelayMs;
}
ARSAL_Time_GetTime(&(senderPtr->pingStartTime));
}
/* Create the mutex/condition */
if ( (error == ARNETWORK_OK) &&
(ARSAL_Mutex_Init (&(senderPtr->nextSendMutex)) != 0))
{
error = ARNETWORK_ERROR_NEW_BUFFER;
}
if ( (error == ARNETWORK_OK) &&
(ARSAL_Cond_Init (&(senderPtr->nextSendCond)) != 0))
{
error = ARNETWORK_ERROR_NEW_BUFFER;
}
if ( (error == ARNETWORK_OK) &&
(ARSAL_Mutex_Init (&(senderPtr->pingMutex)) != 0))
{
error = ARNETWORK_ERROR_NEW_BUFFER;
}
/** delete the sender if an error occurred */
if (error != ARNETWORK_OK)
{
ARSAL_PRINT (ARSAL_PRINT_ERROR, ARNETWORK_SENDER_TAG, "error: %s", ARNETWORK_Error_ToString (error));
ARNETWORK_Sender_Delete (&senderPtr);
}
}
return senderPtr;
}
