/* void *arg is a argumentReceivingThread_t type */
void receivingThread( void *arg )
{
TRACE_2( SERVER , "receivingThread()");
char buff[BUFF_SIZE];
char input[] = "rdb_remote~>";
int ret;
void *cliRet;
argumentReceivingThread_t *arguments = ( argumentReceivingThread_t * )arg;
TRACE_3( SERVER , "Thread argument: socket: %d , port: %d" , arguments->socket , arguments->port );
TRACE_1( SERVER , "[!]Receiving thread create !");
if( arguments->port == PORT_CLI )
sendVoidSocket( arguments->socket , input , sizeof( input ) );
else
TRACE_1( SERVER , "Port not used at the moment.\n");
while( 1 )
{
memset( buff , 0 , BUFF_SIZE );
ret = recv( arguments->socket , buff , BUFF_SIZE , 0 );
if( ret > 0 )
{
if( arguments->port == PORT_CLI )
{
TRACE_3( SERVER , "[+]Data: %s" , buff );
cliRet = doCommand( buff );
if( cliRet != NULL )
{
sendVoidSocket( arguments->socket , cliRet , strlen( ( const char * )cliRet ) );
zfree( cliRet );
// sendVoidSocket( arguments->socket , input , sizeof( input ) );
}
}
}
}
TRACE_3( SERVER , "[!]Quitting receiving thread !");
releaseThread();
pthread_exit( NULL );
}
// -----------------------------------------------------------------------------
// CXIMPSrvSessionAdapter::ServiceError()
// -----------------------------------------------------------------------------
//
EXPORT_C void CXIMPSrvSessionAdapter::ServiceError( const RMessage2& /*aMessage*/,
TInt aError )
{
//If assert below is triggered, it means that current message ownersip
//is taken somewhere (to be completed asynchronously), but there has
//happened a leave after ownership transfer
//The place taking message ownership has to be fixed in this case
//not to cause exeptions after ownership transfer
__ASSERT_ALWAYS( iCurrentMsg,
User::Panic( NXIMPPrivPanic::KCategory,
NXIMPPrivPanic::ECurrentMsgNotFoundInServiceError ) );
//If assert below is triggered, it means that current message is already
//completed, but there has happened a leave after completion
//The place completing message has to be fixed in this case
//not to cause exeptions after message completion
__ASSERT_ALWAYS( !iCurrentMsg->IsCompleted(),
User::Panic( NXIMPPrivPanic::KCategory,
NXIMPPrivPanic::ECurrentMsgNotValidInServiceError ) );
TRACE_3( _L("CXIMPSrvSessionAdapter[%d]::ServiceError() in op[%d], code[%d]"),
this, iCurrentMsg->Function(), aError );
iCurrentMsg->Complete( aError );
delete iCurrentMsg;
iCurrentMsg = NULL;
}
/**
* Send discarded notifications to a lib which will be received by the
* saNtfDiscarded callback function.
*
* @param discardedInfo struct that contains a list of notification id's for
* the notifications to be discarded.
*
* @return return value = 1 if ok -1 if failed
*/
int send_discard_notification_lib(ntfsv_discarded_info_t *discardedInfo, uns32 c_id, SaNtfSubscriptionIdT s_id, MDS_DEST mds_dest)
{
uns32 rc = NCSCC_RC_SUCCESS;
ntfsv_msg_t msg;
TRACE_ENTER();
#if DISCARDED_TEST
/* TODO REMOVE TEST */
if ((disc_test_cntr % 20)) {
TRACE_3("FAKE DISKARDED");
return NCSCC_RC_FAILURE;
}
/* END TODO REMOVE TEST */
#endif
memset(&msg, 0, sizeof(ntfsv_msg_t));
msg.type = NTFSV_NTFS_CBK_MSG;
msg.info.cbk_info.type = NTFSV_DISCARDED_CALLBACK;
msg.info.cbk_info.ntfs_client_id = c_id;
msg.info.cbk_info.subscriptionId = s_id;
msg.info.cbk_info.param.discarded_cbk.notificationType = discardedInfo->notificationType;
msg.info.cbk_info.param.discarded_cbk.numberDiscarded = discardedInfo->numberDiscarded;
msg.info.cbk_info.param.discarded_cbk.discardedNotificationIdentifiers = discardedInfo->discardedNotificationIdentifiers;
rc = ntfs_mds_msg_send(ntfs_cb, &msg, &mds_dest, NULL, /* send regular msg */
MDS_SEND_PRIORITY_HIGH);
if (rc != NCSCC_RC_SUCCESS) {
TRACE_1("ntfs_mds_msg_send to ntfa failed rc: %d", (int)rc);
} else {
sendNotConfirmUpdate(c_id, s_id, 0, NTFS_NOTIFICATION_DISCARDED_LIST_SENT);
}
TRACE_LEAVE();
return (rc);
}
void *doCommand( char *cmd )
{
TRACE_2( CLI , "doCommand( %s )." , cmd );
int i = 0;
int idFuncptr;
void *ret = NULL;
char *ptr = NULL;
/* Dynamic allocation, because after send the response throught the socket, free() is called. (If it's declare like -char errorMsg[]="zedze"- this will crash for sure.) */
char *errorMsg = NULL;
ptr = strtok( cmd , " ");
env->arg_count = 0;
for( i = 0 ; i < MAX_GENERIC_VAL ; i++ )
{
ptr = strtok( NULL , " " );
if( !ptr )
break;
env->genericVal[i] = ptr;
env->arg_count++;
}
if( env->arg_count > 0 )
{
/* Remove '\n' character from the last argument */
ptr = env->genericVal[env->arg_count - 1];
*( ptr + strlen( ptr ) - 1 ) = 0;
}
if( ( idFuncptr = searchCliCmd( cmd ) ) >= 0 )
{
TRACE_3( CLI , "Execute function.");
ret = ( void * )cliCmd[idFuncptr].func( env );
TRACE_1( CLI , "Function return: %d" , ret );
}
else
{
TRACE_ERROR( CLI , "Command is not supported.");
errorMsg = ( char * )zmalloc( 28 * sizeof( char ) );
memset( errorMsg , 0 , 28 );
sprintf( errorMsg , "Command is not supported.\n");
ret = ( void * )errorMsg;
}
return ret;
}
/****************************************************************************
Name : ava_hdl_cbk_dispatch_one
Description : This routine dispatches one pending callback.
Arguments : cb - ptr to the AvA control block
hdl_rec - ptr to the handle record
Return Values : SA_AIS_OK/SA_AIS_ERR_<CODE>
Notes : None.
******************************************************************************/
uint32_t ava_hdl_cbk_dispatch_one(AVA_CB **cb, AVA_HDL_REC **hdl_rec)
{
AVA_PEND_RESP *list_resp = &(*hdl_rec)->pend_resp;
AVA_PEND_CBK_REC *rec = 0;
uint32_t hdl = (*hdl_rec)->hdl;
SaAmfCallbacksT reg_cbk;
uint32_t rc = SA_AIS_OK;
TRACE_ENTER();
memset(®_cbk, 0, sizeof(SaAmfCallbacksT));
memcpy(®_cbk, &(*hdl_rec)->reg_cbk, sizeof(SaAmfCallbacksT));
/* pop the rec from the mailbox queue */
rec = (AVA_PEND_CBK_REC *)m_NCS_IPC_NON_BLK_RECEIVE(&(*hdl_rec)->callbk_mbx, NULL);
if (rec) {
if (rec->cbk_info->type != AVSV_AMF_PG_TRACK) {
/* push this record into pending response list */
m_AVA_HDL_PEND_RESP_PUSH(list_resp, (AVA_PEND_RESP_REC *)rec);
m_AVA_HDL_CBK_REC_IN_DISPATCH_SET(rec);
}
/* release the cb lock & return the hdls to the hdl-mngr */
m_NCS_UNLOCK(&(*cb)->lock, NCS_LOCK_WRITE);
ncshm_give_hdl(hdl);
/* process the callback list record */
ava_hdl_cbk_rec_prc(rec->cbk_info, ®_cbk);
m_NCS_LOCK(&(*cb)->lock, NCS_LOCK_WRITE);
if (0 == (*hdl_rec = ncshm_take_hdl(NCS_SERVICE_ID_AVA, hdl))) {
/* hdl is already finalized */
ava_hdl_cbk_rec_del(rec);
TRACE_LEAVE2("Handle is already finalized");
return rc;
}
/* if we are done with this rec, free it */
if ((rec->cbk_info->type != AVSV_AMF_PG_TRACK) && m_AVA_HDL_IS_CBK_RESP_DONE(rec)) {
m_AVA_HDL_PEND_RESP_POP(list_resp, rec, rec->cbk_info->inv);
ava_hdl_cbk_rec_del(rec);
} else if (rec->cbk_info->type == AVSV_AMF_PG_TRACK) {
/* PG Track cbk do not have any response */
ava_hdl_cbk_rec_del(rec);
} else {
m_AVA_HDL_CBK_REC_IN_DISPATCH_RESET(rec);
}
}
else
TRACE_3("No record to process the dispatch()");
TRACE_LEAVE();
return rc;
}
void end_of_track( sp_session *session )
{
TRACE_2( PLAYERMANAGER , "end_of_track().");
TRACE_3( PLAYERMANAGER , "End of track...");
// LOCK_MUTEX( PLAYERMANAGER , &mutexSession );
TRACE_3( PLAYERMANAGER , "Removing the track which have been played.");
sp_track_release( currentTrack );
// UNLOCK_MUTEX( PLAYERMANAGER , &mutexSession );
// if( hasNextTrack() == TRUE )
// {
// TRACE_1( PLAYERMANAGER , "Load next music !");
// playMusic( session , "" , currentStreamName );
// }
if( nextTrackInStream( currentStreamName ) == PC_SUCCESS )
{
TRACE_1( PLAYERMANAGER , "Load next music !");
}
else
{
TRACE_WARNING( PLAYERMANAGER , "No more music in the mainplaylist");
audio_fifo_flush( &g_audiofifo );
LOCK_MUTEX( PLAYERMANAGER , &mutexSession );
sp_session_player_play( session , 0 );
sp_session_player_unload( session );
UNLOCK_MUTEX( PLAYERMANAGER , &mutexSession );
playing = FALSE;
}
}
int createTrackFromUri( char *uri , char *name )
{
TRACE_2( PLAYERMANAGER , "createTrackFromUri( %s , __track__ )" , uri );
sp_link *link;
sp_error error;
if( playing == FALSE && hasNextTrack() == FALSE )
createFile( name );
TRACE_1( PLAYERMANAGER , "Creating URI : %s" , uri );
link = sp_link_create_from_string( uri );
if( link == NULL )
{
TRACE_ERROR( PLAYERMANAGER , "Fail to create link.");
return PC_ERROR;
}
else
{
TRACE_1( PLAYERMANAGER , "Success to create link.");
}
TRACE_3( PLAYERMANAGER , "Construct track...");
currentTrack = sp_link_as_track( link );
if( currentTrack == NULL )
{
TRACE_ERROR( PLAYERMANAGER , "Fail to create track.");
return PC_ERROR;
}
else
{
TRACE_1( PLAYERMANAGER , "Success to create track.");
}
error = sp_track_add_ref( currentTrack );
if( error != SP_ERROR_OK )
{
TRACE_ERROR( PLAYERMANAGER , "Cannot add ref track, reason: %s" , sp_error_message( error ) );
return PC_ERROR;
}
sp_link_release( link );
running = TRUE;
// playing = FALSE;
return PC_SUCCESS;
}
/**
* Sends and receives an unregister message using osaf_secutil
* @param evt_type
* @param mds_dest
* @param version
* @param out_evt
* @param timeout max time to wait for a response in ms unit
* @return 0 - OK, negated errno otherwise
*/
int mds_auth_server_disconnect(const char *name, MDS_DEST mds_dest, int svc_id, int timeout)
{
uint32_t rc;
uint8_t msg[32];
uint8_t *p = msg;
uint32_t sz;
int n;
sz = ncs_encode_32bit(&p, MDS_UNREGISTER_REQ);
sz += ncs_encode_32bit(&p, svc_id);
sz += ncs_encode_64bit(&p, mds_dest);
n = osaf_auth_server_connect(name, msg, sz, msg,
sizeof(msg), timeout);
if (n < 0) {
TRACE_3("err n:%d", n);
rc = NCSCC_RC_FAILURE;
goto fail;
} else if (n == 0) {
TRACE_3("tmo");
rc = NCSCC_RC_REQ_TIMOUT;
goto fail;
} else if (n == 8) {
p = msg;
int type = ncs_decode_32bit(&p);
if (type != MDS_UNREGISTER_RESP) {
TRACE_3("wrong type %d", type);
rc = NCSCC_RC_FAILURE;
goto fail;
}
int status = ncs_decode_32bit(&p);
TRACE("received type:%d, status:%d", type, status);
status == 0 ? (rc = NCSCC_RC_SUCCESS) : (rc = NCSCC_RC_FAILURE);
} else {
TRACE_3("err n:%d", n);
rc = NCSCC_RC_FAILURE;
goto fail;
}
fail:
return rc;
}
/******************************************************************************
* Utility functions for get_number_of_log_files_hdl
*/
static int check_oldest(char *line, char *fname_prefix, int fname_prefix_size, int *old_date, int *old_time)
{
int date, time, c, d;
date = time = c = d = 0;
int len = 0;
char name_format[SA_MAX_NAME_LENGTH];
char time_stamps[] = "_%d_%d_%d_%d.log";
len = strlen(time_stamps);
len += fname_prefix_size;
strncpy(name_format, fname_prefix, fname_prefix_size);
name_format[fname_prefix_size] = '\0';
TRACE_3("fname: %s", name_format);
strncat(name_format, time_stamps, SA_MAX_NAME_LENGTH-1);
if (sscanf(line, name_format, &date, &time, &c, &d) == 4) {
TRACE_3("line: arg1: %d 2: %d 3: %d 4: %d ok", date, time, c, d);
if (date < *old_date || *old_date == -1) {
*old_date = date;
*old_time = time;
return 1;
} else if ((date == *old_date) && (time < *old_time)) {
*old_date = date;
*old_time = time;
return 1;
}
} else if (sscanf(line, name_format, &date, &time) == 2) {
TRACE_3("line: arg1: %d 2: %d ok", date, time);
if (date < *old_date || *old_date == -1) {
*old_date = date;
*old_time = time;
return 1;
} else if ((date == *old_date) && (time < *old_time)) {
*old_date = date;
*old_time = time;
return 1;
}
} else {
TRACE_3("no match");
}
return 0;
}
void Frontend::inlineProcessFct()
{
for (Process *proc : *(this->elab->getProcesses()) ) {
Function *F = proc->getMainFct();
TRACE_3("Parsing Function : " << F->getName().str() << "\n");
bool restartInlining = true;
while(restartInlining) {
restartInlining = this->inlineForProcessFct(F);
}
}
}
/**
* Send notification to a lib which will be received by the
* SaNtfNotificationCallbackT function.
*
* @param dispatchInfo contains all information about the notification.
*
* @return return value == NCSCC_RC_SUCCESS if ok
*/
int send_notification_lib(ntfsv_send_not_req_t *dispatchInfo, uns32 client_id, MDS_DEST mds_dest)
{
uns32 rc = NCSCC_RC_SUCCESS;
ntfsv_msg_t msg;
SaNtfNotificationHeaderT *header;
int discarded = 0;
TRACE_ENTER();
ntfsv_get_ntf_header(dispatchInfo, &header);
TRACE_3("client id: %u, not_id: %llu", client_id, *header->notificationId);
#if DISCARDED_TEST
/* TODO REMOVE TEST */
if ((disc_test_cntr % 20)) {
TRACE_3("FAKE DISKARDED");
/* Allways confirm if not success notification will be put in discarded list. */
notificationSentConfirmed(client_id, dispatchInfo->subscriptionId, *header->notificationId, NTFS_NOTIFICATION_DISCARDED);
return NCSCC_RC_FAILURE;
}
/* END TODO REMOVE TEST */
#endif
memset(&msg, 0, sizeof(ntfsv_msg_t));
msg.type = NTFSV_NTFS_CBK_MSG;
msg.info.cbk_info.type = NTFSV_NOTIFICATION_CALLBACK;
msg.info.cbk_info.ntfs_client_id = client_id;
msg.info.cbk_info.subscriptionId = dispatchInfo->subscriptionId;
msg.info.cbk_info.param.notification_cbk = dispatchInfo;
rc = ntfs_mds_msg_send(ntfs_cb, &msg, &mds_dest, NULL, /* send regular msg */
MDS_SEND_PRIORITY_HIGH);
if (rc != NCSCC_RC_SUCCESS) {
discarded = NTFS_NOTIFICATION_DISCARDED;
LOG_ER("ntfs_mds_msg_send to ntfa failed rc: %d", (int)rc);
}
/* Allways confirm if not success notification will be put in discarded list. */
notificationSentConfirmed(client_id, dispatchInfo->subscriptionId, *header->notificationId, discarded);
TRACE_LEAVE();
return (rc);
};
/*!
* \brief parse_ebml_element
* \note 'bitstr' pointer is not checked for performance reasons.
*
* https://matroska.org/technical/specs/index.html
* https://matroska.org/technical/specs/rfc/index.html
*/
int parse_ebml_element(Bitstream_t *bitstr, EbmlElement_t *element)
{
TRACE_3(MKV, "parse_ebml_element()");
int retcode = SUCCESS;
if (element == NULL)
{
TRACE_ERROR(MKV, "Invalid EbmlElement_t structure!");
retcode = FAILURE;
}
else
{
// Set element offset
element->offset_start = bitstream_get_absolute_byte_offset(bitstr);
// Read element ID
{
uint32_t ebml_leadingZeroBits = 0;
uint32_t ebml_size = 0;
while (read_bit(bitstr) == 0 && ebml_leadingZeroBits < 4)
ebml_leadingZeroBits++;
ebml_size = (ebml_leadingZeroBits + 1) * 7;
element->eid_size = (ebml_size + ebml_leadingZeroBits + 1) / 8;
element->eid = read_bits_64(bitstr, ebml_size) + pow(2, ebml_size);
}
// Read element size
{
uint32_t ebml_leadingZeroBits = 0;
uint32_t ebml_size = 0;
while (read_bit(bitstr) == 0 && ebml_leadingZeroBits < 8)
ebml_leadingZeroBits++;
ebml_size = (ebml_leadingZeroBits + 1) * 7;
element->size_size = (ebml_size + ebml_leadingZeroBits + 1) / 8;
element->size = read_bits_64(bitstr, ebml_size);
}
// Set end offset
element->offset_end = element->offset_start + (element->eid_size + element->size_size + element->size);
}
return retcode;
}
/*!
* \brief Read an EBML element size.
* \param *bitstr The bitstream to read.
* \return The element size.
*/
uint64_t read_ebml_size(Bitstream_t *bitstr)
{
uint32_t leadingZeroBits = 0;
uint32_t sizeSize = 0;
uint64_t sizeValue = 0;
while (read_bit(bitstr) == 0 && leadingZeroBits < 8)
leadingZeroBits++;
sizeSize = (leadingZeroBits + 1) * 7;
sizeValue = read_bits_64(bitstr, sizeSize);
TRACE_2(MKV, "read_ebml_size()");
TRACE_3(MKV, "- leadingZeroBits = %u", leadingZeroBits);
TRACE_2(MKV, "- sizeSize = %u", sizeSize);
TRACE_2(MKV, "- sizeValue = %llu", sizeValue);
return sizeValue;
}
void Frontend::handleConstruct_and_GV()
{
// Walk through call graph and build intermediate representation
std::vector < Function * >*fctStack = new std::vector < Function * >();
for (Process *proc : *(this->elab->getProcesses()) ) {
fctStack->push_back(proc->getMainFct());
proc->addUsedFunction(proc->getMainFct());
this->scjit->setCurrentProcess(proc);
TRACE_2("Process:" << proc->getName() << "\n");
while (!fctStack->empty()) {
Function* F = fctStack->back();
fctStack->pop_back();
TRACE_3("Parsing Function : " << F->getName().str() << "\n");
PRINT_3(F->dump());
this->handleFctConstruct_and_GV(proc, F, fctStack);
}
}
delete fctStack;
}
int music_delivery( sp_session *session , const sp_audioformat *format , const void *frames , int num_frames )
{
TRACE_2( PLAYERMANAGER , "music_delivery().");
TRACE_3( PLAYERMANAGER , "Playing music...%d" , num_frames );
audio_fifo_t *af = &g_audiofifo;
audio_fifo_data_t *afd;
size_t s;
TRACE_3( PLAYERMANAGER , "###############################################");
TRACE_3( PLAYERMANAGER , "Channels: %d" , format->channels );
TRACE_3( PLAYERMANAGER , "Rate: %d" , format->sample_rate );
TRACE_3( PLAYERMANAGER , "NSamples: %d" , num_frames );
TRACE_3( PLAYERMANAGER , "###############################################");
// audio discontinuity, do nothing
if( num_frames == 0 )
{
pthread_mutex_unlock( &af->mutex );
return 0;
}
// buffer one second of audio
if( af->qlen > format->sample_rate )
return 0;
s = num_frames * sizeof( int16_t ) * format->channels;
afd = zmalloc( sizeof( *afd ) + s );
afd->channels = format->channels;
afd->rate = format->sample_rate;
afd->nsamples = num_frames;
memcpy( afd->samples , frames , s );
TAILQ_INSERT_TAIL( &af->q , afd , link );
af->qlen += num_frames;
pthread_cond_signal( &af->cond );
pthread_mutex_unlock( &af->mutex );
return num_frames;
}
int nextMusic( sp_session *session , char *uri )
{
TRACE_2( PLAYERMANAGER , "nextMusic( __session__ , %s )." , uri );
int status = PC_SUCCESS;
TRACE_3( PLAYERMANAGER , "Getting next track from the playqueue.");
if( hasNextTrack() == TRUE )
{
TRACE_1( PLAYERMANAGER , "Playing next track.");
// playMusic( g_session , NULL );
}
else
{
TRACE_ERROR( PLAYERMANAGER , "No next track in the playqueue.");
status = PC_ERROR;
}
return status;
}
void MiniTraces_info(void)
{
unsigned i = 0;
printf(PID BLD_GREEN "\nMiniTraces_infos()" CLR_RESET " version 0.4\n");
printf(PID "\n* TRACE LEVELS ENABLED:\n");
TRACE_ERROR(MAIN, "ERROR traces enabled\n");
TRACE_WARNING(MAIN, "WARNING traces enabled\n");
TRACE_INFO(MAIN, "INFO traces enabled\n");
TRACE_1(MAIN, "LVL 1 traces enabled\n");
TRACE_2(MAIN, "LVL 2 traces enabled\n");
TRACE_3(MAIN, "LVL 3 traces enabled\n");
printf(PID "\n* TRACE MODULES CONFIGURATION:\n");
for (i = 0; i < trace_module_count; i++)
{
printf(PID "[%02x][%5s] Trace Mask 0x%X: ", i,
trace_modules_table[i].module_name,
trace_modules_table[i].module_output_mask);
print_trace_levels(trace_modules_table[i].module_output_mask);
}
}
/*!
* \param *dc The current DecodingContext.
* \param startIdx docme.
* \param endIdx docme.
*
* Decode the chroma coefficients of the macroblock. There can only be 4x4 block size.
* Start by decoding DC coefficients for Cr block, then Cb block.
* Then decode 4 AC blocks of Cb and 4 AC blocks of Cr.
*/
static void residual_chroma(DecodingContext_t *dc, const int startIdx, const int endIdx)
{
TRACE_INFO(MB, "<> " BLD_GREEN "residual_chroma()\n" CLR_RESET);
// Shortcuts
Macroblock_t *mb = dc->mb_array[dc->CurrMbAddr];
sps_t *sps = dc->sps_array[dc->pps_array[dc->active_slice->pic_parameter_set_id]->seq_parameter_set_id];
//
if (dc->ChromaArrayType == 1 || dc->ChromaArrayType == 2)
{
int iCbCr = 0;
int NumC8x8 = 4 / (sps->SubWidthC * sps->SubHeightC);
for (iCbCr = 0; iCbCr < 2; iCbCr++)
{
if ((mb->CodedBlockPatternChroma & 3) && (startIdx == 0))
{
TRACE_2(MB, "---- residual_chroma 4x4 DC (mb %i - iCbCr %i - blk 0) ---------------- START\n", mb->mbAddr, iCbCr);
if (dc->entropy_coding_mode_flag)
residual_block_cabac(dc, mb->ChromaDCLevel[iCbCr], 0, 4 * NumC8x8 - 1, 4 * NumC8x8, blk_CHROMA_DC_Cb + iCbCr, 0);
else
residual_block_cavlc(dc, mb->ChromaDCLevel[iCbCr], 0, 4 * NumC8x8 - 1, 4 * NumC8x8, blk_CHROMA_DC_Cb + iCbCr, 0);
}
else
{
TRACE_2(MB, "---- residual_chroma 4x4 DC (mb %i - iCbCr %i - blk 0) ---------------- EMPTY\n\n", mb->mbAddr, iCbCr);
int i = 0;
for (i = 0; i < (4 * NumC8x8); i++)
{
mb->ChromaDCLevel[iCbCr][i] = 0;
}
}
}
for (iCbCr = 0; iCbCr < 2; iCbCr++)
{
int blkIdx = 0;
int i8x8 = 0;
for (i8x8 = 0; i8x8 < NumC8x8; i8x8++)
{
int i4x4 = 0;
for (i4x4 = 0; i4x4 < 4; i4x4++)
{
blkIdx = i8x8*4 + i4x4;
if (mb->CodedBlockPatternChroma & 2)
{
TRACE_2(MB, "---- residual_chroma 4x4 AC (mb %i - iCbCr %i - blk %i/3) ---------------- START\n", mb->mbAddr, iCbCr, blkIdx);
if (dc->entropy_coding_mode_flag)
residual_block_cabac(dc, mb->ChromaACLevel[iCbCr][blkIdx], MAX(0, startIdx - 1), endIdx - 1, 15, blk_CHROMA_AC_Cb + iCbCr, blkIdx);
else
residual_block_cavlc(dc, mb->ChromaACLevel[iCbCr][blkIdx], MAX(0, startIdx - 1), endIdx - 1, 15, blk_CHROMA_AC_Cb + iCbCr, blkIdx);
}
else
{
TRACE_2(MB, "---- residual_chroma 4x4 AC (mb %i - iCbCr %i - blk %i/3) ---------------- EMPTY\n\n", mb->mbAddr, iCbCr, blkIdx);
int i = 0;
for (i = 0; i < 15; i++)
{
mb->ChromaACLevel[iCbCr][blkIdx][i] = 0;
}
}
}
}
}
}
TRACE_3(MB, "---- residual_chroma - the end\n\n");
}
/*!
* \param *dc The current DecodingContext.
* \param startIdx docme.
* \param endIdx docme.
*
* 7.4.5.3.1 Residual luma data semantics.
* Output of this syntax structure are the variables i16x16DClevel, i16x16AClevel, level, and level8x8.
*
* This function decode the luma coefficients contained in a macroblock. It can
* handle 16x16 block (composed of one 4x4 DC block and 16 4x4 AC blocks)
* 4x4 blocks (16 4x4 blocks) and 8x8 blocks (4 8x8 blocks).
*/
static void residual_luma(DecodingContext_t *dc, const int startIdx, const int endIdx)
{
TRACE_INFO(MB, "<> " BLD_GREEN "residual_luma()\n" CLR_RESET);
// Shortcut
Macroblock_t *mb = dc->mb_array[dc->CurrMbAddr];
//
if (startIdx == 0 && mb->MbPartPredMode[0] == Intra_16x16)
{
TRACE_2(MB, "---- residual_luma 4x4 DC (mb %i - blk 0) ---------------- START - 16x16 DC\n", mb->mbAddr);
if (dc->entropy_coding_mode_flag)
residual_block_cabac(dc, mb->Intra16x16DCLevel, 0, 15, 16, blk_LUMA_16x16_DC, 0);
else
residual_block_cavlc(dc, mb->Intra16x16DCLevel, 0, 15, 16, blk_LUMA_16x16_DC, 0);
}
int blkIdx = 0;
int i8x8 = 0;
for (i8x8 = 0; i8x8 < 4; i8x8++)
{
if (mb->transform_size_8x8_flag == false || dc->entropy_coding_mode_flag == false)
{
int i4x4 = 0;
for (i4x4 = 0; i4x4 < 4; i4x4++)
{
blkIdx = i8x8*4 + i4x4;
if (mb->CodedBlockPatternLuma & (1 << i8x8))
{
if (mb->MbPartPredMode[0] == Intra_16x16)
{
TRACE_2(MB, "---- residual_luma 16x16 AC (mb %i - blk %i/15) ---------------- START - 16x16 AC\n", mb->mbAddr, blkIdx);
if (dc->entropy_coding_mode_flag)
residual_block_cabac(dc, mb->Intra16x16ACLevel[blkIdx], MAX(0, startIdx - 1), endIdx - 1, 15, blk_LUMA_16x16_AC, blkIdx);
else
residual_block_cavlc(dc, mb->Intra16x16ACLevel[blkIdx], MAX(0, startIdx - 1), endIdx - 1, 15, blk_LUMA_16x16_AC, blkIdx);
}
else
{
TRACE_2(MB, "---- residual_luma 4x4 (mb %i - blk %i/15) ---------------- START\n", mb->mbAddr, blkIdx);
if (dc->entropy_coding_mode_flag)
residual_block_cabac(dc, mb->LumaLevel4x4[blkIdx], startIdx, endIdx, 16, blk_LUMA_4x4, blkIdx);
else
residual_block_cavlc(dc, mb->LumaLevel4x4[blkIdx], startIdx, endIdx, 16, blk_LUMA_4x4, blkIdx);
}
}
else if (mb->MbPartPredMode[0] == Intra_16x16)
{
TRACE_2(MB, "---- residual_luma 16x16 AC (mb %i - blk %i/15) ---------------- EMPTY - no 16x16 AC coeff\n\n", mb->mbAddr, blkIdx);
int i = 0;
for (i = 0; i < 15; i++)
{
mb->Intra16x16ACLevel[blkIdx][i] = 0;
mb->TotalCoeffs_luma[blkIdx] = 0;
}
}
else
{
TRACE_2(MB, "---- residual_luma 4x4 (mb %i - blk %i/15) ---------------- EMPTY\n\n", mb->mbAddr, blkIdx);
int i = 0;
for (i = 0; i < 16; i++)
{
mb->LumaLevel4x4[blkIdx][i] = 0;
mb->TotalCoeffs_luma[blkIdx] = 0;
}
}
if (!dc->entropy_coding_mode_flag && mb->transform_size_8x8_flag)
{
TRACE_2(MB, "---- residual_luma 8x8 from 4x4 (mb %i) ----------------\n\n", mb->mbAddr, blkIdx);
int i = 0;
for (i = 0; i < 16; i++)
{
mb->LumaLevel8x8[i8x8][4 * i + i4x4] = mb->LumaLevel4x4[blkIdx][i];
}
}
}
}
else if (mb->CodedBlockPatternLuma & (1 << i8x8))
{
TRACE_2(MB, "---- residual_luma 8x8 (mb %i - blk %i/3) ---------------- START\n", mb->mbAddr, i8x8);
if (dc->entropy_coding_mode_flag)
residual_block_cabac(dc, mb->LumaLevel8x8[i8x8], 4 * startIdx, 4 * endIdx + 3, 64, blk_LUMA_8x8, i8x8);
else
residual_block_cavlc(dc, mb->LumaLevel8x8[i8x8], 4 * startIdx, 4 * endIdx + 3, 64, blk_LUMA_8x8, i8x8);
}
else
{
TRACE_2(MB, "---- residual_luma 8x8 (mb %i - blk %i/3) ---------------- EMPTY\n\n", mb->mbAddr, i8x8);
int i = 0;
for (i = 0; i < 64; i++)
{
mb->LumaLevel8x8[i8x8][i] = 0;
}
}
}
TRACE_3(MB, "---- residual_luma - the end\n\n");
}
int mp3_fileParse(MediaFile_t *media)
{
int retcode = SUCCESS;
TRACE_INFO(MP3, BLD_GREEN "mp3_fileParse()" CLR_RESET);
// Init bitstream to parse container infos
Bitstream_t *bitstr = init_bitstream(media, NULL);
if (bitstr != NULL)
{
// Init a MediaStream_t to store samples
retcode = init_bitstream_map(&media->tracks_audio[0], 0, 999999);
// Init an MP3 structure
mp3_t mp3;
memset(&mp3, 0, sizeof(mp3_t));
// A convenient way to stop the parser
mp3.run = true;
// stuff
int64_t min_frame_size = 128;
int64_t frame_offset = 0;
uint32_t frame_header = 0;
bool first_frame_parsed = false;
// Loop on 1st level elements
while (mp3.run == true &&
retcode == SUCCESS &&
bitstream_get_absolute_byte_offset(bitstr) < (media->file_size - min_frame_size))
{
// Seek to the next frame offset // Assume the MP3 frames will not be bigger than 4Gib
uint32_t jump_bits = (uint32_t)(frame_offset - bitstream_get_absolute_byte_offset(bitstr)) * 8;
if (jump_bits > 0)
skip_bits(bitstr, jump_bits);
// Read the next frame header
frame_header = read_bits(bitstr, 32);
// note: check frame header against 11 bits long instead of 12, to be compatible with MPEG-1/2/2.5
if ((frame_header & 0xFFE00000) == 0xFFE00000)
{
TRACE_1(MP3, "> MP3 frame @ %lli", frame_offset);
if (first_frame_parsed == false)
{
frame_offset = parse_frame_full(bitstr, frame_header, &mp3, media);
if (frame_offset > 0)
first_frame_parsed = true;
else
retcode = FAILURE;
}
else
{
frame_offset = parse_frame(bitstr, frame_header, &mp3, media);
}
}
else if ((frame_header & 0xFFFFFF00) == 0x54414700)
{
TRACE_INFO(MP3, "> ID3v1 tag @ %lli", frame_offset);
mp3.run = false;
// Add the TAG to the track
int sid = media->tracks_audio[0]->sample_count;
if (sid < 999999)
{
media->tracks_audio[0]->sample_type[sid] = sample_AUDIO_TAG;
media->tracks_audio[0]->sample_size[sid] = media->file_size - frame_offset;
media->tracks_audio[0]->sample_offset[sid] = frame_offset;
media->tracks_audio[0]->sample_pts[sid] = 0;
media->tracks_audio[0]->sample_dts[sid] = 0;
media->tracks_audio[0]->sample_count++;
}
}
else if ((frame_header & 0xFFFFFF00) == 0x49443300)
{
int id3tag_version = ((frame_header & 0x000000FF) << 8) + read_bits(bitstr, 8);
/*int id3tag_flag =*/ read_bits(bitstr, 8);
TRACE_INFO(MP3, "> ID3v2.%i @ %lli", id3tag_version, frame_offset);
uint32_t id3tag_size = read_bits(bitstr, 8) & 0x0000007F;
id3tag_size <<= 7;
id3tag_size += read_bits(bitstr, 8) & 0x0000007F;
id3tag_size <<= 7;
id3tag_size += read_bits(bitstr, 8) & 0x0000007F;
id3tag_size <<= 7;
id3tag_size += read_bits(bitstr, 8) & 0x0000007F;
id3tag_size += 10; // bytes already read
// Add the TAG to the track
int sid = media->tracks_audio[0]->sample_count;
if (sid < 999999)
{
media->tracks_audio[0]->sample_type[sid] = sample_AUDIO_TAG;
media->tracks_audio[0]->sample_size[sid] = id3tag_size;
media->tracks_audio[0]->sample_offset[sid] = frame_offset;
media->tracks_audio[0]->sample_pts[sid] = 0;
media->tracks_audio[0]->sample_dts[sid] = 0;
media->tracks_audio[0]->sample_count++;
}
// Simulate TAG parsing
frame_offset += id3tag_size;
}
else if (frame_header == 0x4C595249)
{
TRACE_INFO(MP3, "> Lyrics3 tag @ %lli", frame_offset);
frame_offset += 32; // just restart MP3 frame detection 32 bytes later...
// Add the TAG to the track
int sid = media->tracks_audio[0]->sample_count;
if (sid < 999999)
{
media->tracks_audio[0]->sample_type[sid] = sample_AUDIO_TAG;
media->tracks_audio[0]->sample_size[sid] = 0;
media->tracks_audio[0]->sample_offset[sid] = frame_offset;
media->tracks_audio[0]->sample_pts[sid] = 0;
media->tracks_audio[0]->sample_dts[sid] = 0;
media->tracks_audio[0]->sample_count++;
}
}
else if (frame_header == 0x58696E67)
{
TRACE_INFO(MP3, "> XING tag @ %lli", frame_offset);
frame_offset += 32; // just restart MP3 frame detection 32 bytes later...
// Add the TAG to the track
int sid = media->tracks_audio[0]->sample_count;
if (sid < 999999)
{
media->tracks_audio[0]->sample_type[sid] = sample_AUDIO_TAG;
media->tracks_audio[0]->sample_size[sid] = 0;
media->tracks_audio[0]->sample_offset[sid] = frame_offset;
media->tracks_audio[0]->sample_pts[sid] = 0;
media->tracks_audio[0]->sample_dts[sid] = 0;
media->tracks_audio[0]->sample_count++;
}
}
else if (frame_header == 0x56425249)
{
TRACE_INFO(MP3, "> VBRI tag @ %lli", frame_offset);
frame_offset += 32; // just restart MP3 frame detection 32 bytes later...
// Add the TAG to the track
int sid = media->tracks_audio[0]->sample_count;
if (sid < 999999)
{
media->tracks_audio[0]->sample_type[sid] = sample_AUDIO_TAG;
media->tracks_audio[0]->sample_size[sid] = 0;
media->tracks_audio[0]->sample_offset[sid] = frame_offset;
media->tracks_audio[0]->sample_pts[sid] = 0;
media->tracks_audio[0]->sample_dts[sid] = 0;
media->tracks_audio[0]->sample_count++;
}
}
else if (frame_header == 0x41504554)
{
TRACE_WARNING(MP3, "> APE tag @ %lli", frame_offset);
/*uint32_t apetag_header =*/ read_bits(bitstr, 32); // 0x41474558, second part of the tag header
/*uint32_t apetag_version =*/ read_bits(bitstr, 32);
uint32_t apetag_size = 8 + read_bits(bitstr, 32); // APE header size (8 bytes) + tag content size
// Add the TAG to the track
int sid = media->tracks_audio[0]->sample_count;
if (sid < 999999)
{
media->tracks_audio[0]->sample_type[sid] = sample_AUDIO_TAG;
media->tracks_audio[0]->sample_size[sid] = apetag_size;
media->tracks_audio[0]->sample_offset[sid] = frame_offset;
media->tracks_audio[0]->sample_pts[sid] = 0;
media->tracks_audio[0]->sample_dts[sid] = 0;
media->tracks_audio[0]->sample_count++;
}
// Simulate TAG parsing
frame_offset = frame_offset + apetag_size;
}
else
{
// Try to find a new startcode closeby...
frame_offset += 1;
TRACE_3(MP3, "Unknown frame header @ %lli (startcode: 0x%X)",
frame_offset, frame_header);
}
}
if (retcode == SUCCESS)
{
retcode = mp3_indexer_track(media, &mp3);
if (retcode == SUCCESS)
{
retcode = mp3_indexer(media, &mp3);
}
}
}
else
{
retcode = FAILURE;
}
return retcode;
}
/****************************************************************************
Name : eda_eds_msg_proc
Description : This routine is used to process the ASYNC incoming
EDS messages.
Arguments : pointer to struct ncsmds_callback_info
Return Values : NCSCC_RC_SUCCESS/NCSCC_RC_FAILURE
Notes : None.
******************************************************************************/
static uint32_t eda_eds_msg_proc(EDA_CB *eda_cb, EDSV_MSG *edsv_msg, MDS_SEND_PRIORITY_TYPE prio)
{
switch (edsv_msg->type) {
case EDSV_EDS_CBK_MSG:
switch (edsv_msg->info.cbk_info.type) {
case EDSV_EDS_CHAN_OPEN:
{
EDA_CLIENT_HDL_REC *eda_hdl_rec;
EDA_CHANNEL_HDL_REC *channel_hdl_rec;
EDSV_EDA_CHAN_OPEN_CBK_PARAM *cbk_param = &edsv_msg->info.cbk_info.param.chan_open_cbk;
/** Create the chan hdl record here before
** queing this message onto the priority queue
** so that the dispatch by the application to fetch
** the callback is instantaneous.
**/
/** Lookup the hdl rec by reg_id
**/
if (NULL == (eda_hdl_rec = eda_find_hdl_rec_by_regid(eda_cb,
edsv_msg->info.cbk_info.
eds_reg_id))) {
TRACE_4("client handle record for reg_id: %u not found",
edsv_msg->info.cbk_info.eds_reg_id);
eda_msg_destroy(edsv_msg);
return NCSCC_RC_FAILURE;
}
/** Create/add a channel record to the hdl rec with
** the information received in this message.
** only if the return status was SA_AIS_OK.
**/
if (SA_AIS_OK == cbk_param->error) {
if (NULL == (channel_hdl_rec = eda_channel_hdl_rec_add(&eda_hdl_rec,
cbk_param->chan_id,
cbk_param->chan_open_id,
cbk_param->
chan_open_flags,
&cbk_param->
chan_name))) {
TRACE_4("channel add failed for chan_id: %u, chan_open_id: %u, \
channelname: %s", cbk_param->chan_id, cbk_param->chan_open_id,
cbk_param->chan_name.value);
eda_msg_destroy(edsv_msg);
return NCSCC_RC_FAILURE;
}
/** pass on the channel_hdl to the application thru cbk
**/
cbk_param->eda_chan_hdl = channel_hdl_rec->channel_hdl;
}
/** enqueue this message anyway
**/
if (NCSCC_RC_SUCCESS != m_NCS_IPC_SEND(&eda_hdl_rec->mbx, edsv_msg, prio)) {
TRACE_4("IPC send failed failed for msg type: %u", edsv_msg->type);
return NCSCC_RC_FAILURE;
}
}
break;
case EDSV_EDS_DELIVER_EVENT:
{
EDA_CLIENT_HDL_REC *eda_hdl_rec;
EDA_CHANNEL_HDL_REC *chan_hdl_rec;
EDA_EVENT_HDL_REC *evt_hdl_rec;
EDSV_EDA_EVT_DELIVER_CBK_PARAM *evt_dlv_param =
&edsv_msg->info.cbk_info.param.evt_deliver_cbk;
/** Lookup the hdl rec
**/
if (NULL == (eda_hdl_rec = eda_find_hdl_rec_by_regid(eda_cb,
edsv_msg->info.cbk_info.
eds_reg_id))) {
TRACE_4("reg record not found reg_id: %u", edsv_msg->info.cbk_info.eds_reg_id);
edsv_free_evt_pattern_array(evt_dlv_param->pattern_array);
evt_dlv_param->pattern_array = NULL;
/** free the event data if any **/
if (evt_dlv_param->data) {
m_MMGR_FREE_EDSV_EVENT_DATA(evt_dlv_param->data);
evt_dlv_param->data = NULL;
}
eda_msg_destroy(edsv_msg);
return NCSCC_RC_FAILURE;
}
/** Lookup the channel record to which
** this event belongs
**/
if (NULL == (chan_hdl_rec = eda_find_chan_hdl_rec_by_chan_id(eda_hdl_rec,
evt_dlv_param->chan_id,
evt_dlv_param->
chan_open_id))) {
TRACE_4("chan rec not found for chan_id: %u, chan_open_id: %u",
evt_dlv_param->chan_id, evt_dlv_param->chan_open_id);
edsv_free_evt_pattern_array(evt_dlv_param->pattern_array);
evt_dlv_param->pattern_array = NULL;
/** free the event data if any **/
if (evt_dlv_param->data) {
m_MMGR_FREE_EDSV_EVENT_DATA(evt_dlv_param->data);
evt_dlv_param->data = NULL;
}
eda_msg_destroy(edsv_msg);
return NCSCC_RC_FAILURE;
}
/** Create/Add the new event record.
**/
if (NULL == (evt_hdl_rec = eda_event_hdl_rec_add(&chan_hdl_rec)))
{
edsv_free_evt_pattern_array(evt_dlv_param->pattern_array);
evt_dlv_param->pattern_array = NULL;
/** free the event data if any **/
if (evt_dlv_param->data) {
m_MMGR_FREE_EDSV_EVENT_DATA(evt_dlv_param->data);
evt_dlv_param->data = NULL;
}
eda_msg_destroy(edsv_msg);
TRACE_4("event record add failed");
return NCSCC_RC_FAILURE;
}
/** Initialize the fields in the evt_hdl_rec with data
** received in the message.
**/
evt_hdl_rec->priority = evt_dlv_param->priority;
evt_hdl_rec->publisher_name = evt_dlv_param->publisher_name;
evt_hdl_rec->publish_time = evt_dlv_param->publish_time;
evt_hdl_rec->retention_time = evt_dlv_param->retention_time;
evt_hdl_rec->event_data_size = evt_dlv_param->data_len;
/** mark the event as rcvd.
**/
evt_hdl_rec->evt_type |= EDA_EVT_RECEIVED;
/** Create/Add the new event inst record.
**/
/** The evt hdl rec will take ownership of the memory
** for the patterns & data to avoid too many copies
** and not that much use of these in the callback.
**/
evt_hdl_rec->del_evt_id = evt_dlv_param->eda_event_id;
evt_hdl_rec->pattern_array = evt_dlv_param->pattern_array;
evt_dlv_param->pattern_array = NULL;
evt_hdl_rec->evt_data = evt_dlv_param->data;
evt_dlv_param->data = NULL;
/* assign the newly allocated hdl */
evt_dlv_param->event_hdl = evt_hdl_rec->event_hdl;
/** enqueue this message. MDS & IPC priority match 1-1
**/
if (NCSCC_RC_SUCCESS != m_NCS_IPC_SEND(&eda_hdl_rec->mbx, edsv_msg, prio)) {
TRACE_4("IPC send failed for msg type: %u", edsv_msg->type);
return NCSCC_RC_FAILURE;
}
}
break;
case EDSV_EDS_CLMNODE_STATUS:
{
EDSV_EDA_CLM_STATUS_CBK_PARAM *clm_status_param =
&edsv_msg->info.cbk_info.param.clm_status_cbk;
eda_cb->node_status = (SaClmClusterChangesT)clm_status_param->node_status;
TRACE_1("Local node membership changed to : %u", eda_cb->node_status);
}
break;
default:
TRACE_3("unknown message type: %u", edsv_msg->info.cbk_info.type);
return NCSCC_RC_FAILURE;
break;
}
break;
case EDSV_EDS_MISC_MSG:
/** No messages conceived yet **/
TRACE_1("Unsupported message type");
return NCSCC_RC_FAILURE;
break;
default:
/** Unexpected message **/
TRACE_4("Wrong message type");
return NCSCC_RC_FAILURE;
break;
}
int playMusic( sp_session *session , char *uri , char *name , playqueue_fifo_t *playqueue )
{
TRACE_2( PLAYERMANAGER , "playMusic().");
static int firstTime = 0;
int status = PC_SUCCESS;
char response[255] = { 0 };
sp_error error;
LOCK_MUTEX( PLAYERMANAGER , &mutexSession );
TRACE_3( PLAYERMANAGER , "Test if a music is playing or not");
if( currentTrack == NULL )
{
TRACE_WARNING( PLAYERMANAGER , "Cannot play track because no track has been loaded.");
status = PC_ERROR;
snprintf( response , 255 , "NOK: Cannot play track because no track has been loaded.");
sendVoid( ( void * )response , strlen( response ) );
}
else
{
TRACE_1( PLAYERMANAGER , "Getting the track.");
currentTrack = getNextTrackToPlayqueue( playqueue );
loadTrack( session , currentTrack );
error = sp_session_player_play( session , 1 );
if( error != SP_ERROR_OK )
{
TRACE_ERROR( PLAYERMANAGER , "Cannot play track, reason: %s" , sp_error_message( error ) );
status = PC_ERROR;
}
else
{
TRACE_1( PLAYERMANAGER , "Success to play track.");
if( firstTime++ != 0 )
playStream( name );
playing = TRUE;
snprintf( response , 255 , "OK");
sendVoid( ( void * )response , strlen( response ) );
}
if( currentStreamName[0] == 0 )
{
strncpy( currentStreamName , name , strlen( name ) );
}
else if( strcmp( currentStreamName , name ) != 0 )
{
memset( currentStreamName , 0 , 255 );
strncpy( currentStreamName , name , strlen( name ) );
}
else if( !strcmp( currentStreamName , name ) )
{
//Do nothing
}
}
UNLOCK_MUTEX( PLAYERMANAGER , &mutexSession );
return status;
}
int createFile( char *name )
{
TRACE_2( FILEMANAGER , "createFile( %s )." , name );
FILE *f = NULL;
FILE *h = NULL;
wavHeader_t wavH;
size_t ret;
int status = PC_SUCCESS;
memset( filename , 0 , 255 );
sprintf( filename , "%s%s.wav" , STREAM_FOLDER , name );
TRACE_INFO( FILEMANAGER , "Creating stream filename : %s." , filename );
f = fopen( filename , "wb+");
h = fopen( REF_FILE , "rb");
if( f == NULL || h == NULL )
{
TRACE_ERROR( FILEMANAGER , "f or h FILE is NULL");
status = PC_ERROR;
}
else
{
ret = fread( &wavH , sizeof( wavH ) , 1 , h );
if( ret != 1 )
{
TRACE_ERROR( FILEMANAGER , "Fail to read all data.");
status = PC_ERROR;
}
else
{
TRACE_3( FILEMANAGER , "######################################");
TRACE_3( FILEMANAGER , "RIFF: %s" , wavH.RIFF );
TRACE_3( FILEMANAGER , "ChunkSize: %d" , wavH.ChunkSize );
TRACE_3( FILEMANAGER , "WAVE: %s" , wavH.WAVE );
TRACE_3( FILEMANAGER , "fmt: %s" , wavH.fmt );
TRACE_3( FILEMANAGER , "Subchunk1Size: %d" , wavH.Subchunk1Size );
TRACE_3( FILEMANAGER , "AudioFormat: %d" , wavH.AudioFormat );
TRACE_3( FILEMANAGER , "NumOfchan: %d" , wavH.NumOfChan );
TRACE_3( FILEMANAGER , "SamplesPerSec: %d" , wavH.SamplesPerSec );
TRACE_3( FILEMANAGER , "bytesPerSec: %d" , wavH.bytesPerSec );
TRACE_3( FILEMANAGER , "blockAlign: %d" , wavH.blockAlign );
TRACE_3( FILEMANAGER , "bitsPerSample: %d" , wavH.bitsPerSample );
TRACE_3( FILEMANAGER , "Subchunk2ID: %s" , wavH.Subchunk2ID );
TRACE_3( FILEMANAGER , "Subchunk2Size: %d" , wavH.Subchunk2Size );
TRACE_3( FILEMANAGER , "######################################");
wavH.ChunkSize = 36 + wavH.Subchunk2Size;
wavH.Subchunk1Size = 16;
wavH.AudioFormat = 1;
wavH.NumOfChan = 2;
wavH.SamplesPerSec = 44100;
wavH.bytesPerSec = wavH.SamplesPerSec * wavH.NumOfChan * 16 / 8;
wavH.blockAlign = wavH.NumOfChan * 16 / 8;
wavH.bitsPerSample = 16;
memcpy( wavH.Subchunk2ID , "data" , 4 );
ret = fwrite( &wavH , sizeof( wavH ) , 1 , f );
if( ret != 1 )
{
TRACE_ERROR( FILEMANAGER , "Fail to write all data.");
status = PC_ERROR;
}
}
fclose( f );
fclose( h );
}
return status;
}
/*!
* \param *dc The current DecodingContext.
* \param CurrMbAddr The address of the current macroblock.
* \return The address of the next macroclock.
*
* Because this decoder do not support interlaced mode or slice partitioning or
* flexible macroblock ordering (FMO) the NextMbAddress returned by this function
* is always CurrMbAddr + 1.
*/
unsigned int NextMbAddress(DecodingContext_t *dc, const unsigned int CurrMbAddr)
{
TRACE_3(MB, "> " BLD_GREEN "NextMbAddress()" "= %i\n" CLR_RESET, CurrMbAddr + 1);
return CurrMbAddr + 1;
}
/*
* wrapper for qi_putp entry in module ops vec.
* implements asynchronous putnext().
* Note, that unlike putnext(), this routine is NOT optimized for the
* fastpath. Calling this routine will grab whatever locks are necessary
* to protect the stream head, q_next, and syncq's.
* And since it is in the normal locks path, we do not use putlocks if
* they exist (though this can be changed by swapping the value of
* UseFastlocks).
*/
void
put(queue_t *qp, mblk_t *mp)
{
queue_t *fqp = qp; /* For strft tracing */
syncq_t *sq;
uint16_t flags;
uint16_t drain_mask;
struct qinit *qi;
int (*putproc)();
int ix;
boolean_t queued = B_FALSE;
kmutex_t *sqciplock = NULL;
ushort_t *sqcipcount = NULL;
TRACE_2(TR_FAC_STREAMS_FR, TR_PUT_START,
"put:(%X, %X)", qp, mp);
ASSERT(mp->b_datap->db_ref != 0);
ASSERT(mp->b_next == NULL && mp->b_prev == NULL);
sq = qp->q_syncq;
ASSERT(sq != NULL);
qi = qp->q_qinfo;
if (UseFastlocks && sq->sq_ciputctrl != NULL) {
/* fastlock: */
ASSERT(sq->sq_flags & SQ_CIPUT);
ix = CPU->cpu_seqid & sq->sq_nciputctrl;
sqciplock = &sq->sq_ciputctrl[ix].ciputctrl_lock;
sqcipcount = &sq->sq_ciputctrl[ix].ciputctrl_count;
mutex_enter(sqciplock);
if (!((*sqcipcount) & SQ_FASTPUT) ||
(sq->sq_flags & (SQ_STAYAWAY|SQ_EXCL|SQ_EVENTS))) {
mutex_exit(sqciplock);
sqciplock = NULL;
goto slowlock;
}
(*sqcipcount)++;
ASSERT(*sqcipcount != 0);
queued = qp->q_sqflags & Q_SQQUEUED;
mutex_exit(sqciplock);
} else {
slowlock:
ASSERT(sqciplock == NULL);
mutex_enter(SQLOCK(sq));
flags = sq->sq_flags;
/*
* We are going to drop SQLOCK, so make a claim to prevent syncq
* from closing.
*/
sq->sq_count++;
ASSERT(sq->sq_count != 0); /* Wraparound */
/*
* If there are writers or exclusive waiters, there is not much
* we can do. Place the message on the syncq and schedule a
* background thread to drain it.
*
* Also if we are approaching end of stack, fill the syncq and
* switch processing to a background thread - see comments on
* top.
*/
if ((flags & (SQ_STAYAWAY|SQ_EXCL|SQ_EVENTS)) ||
(sq->sq_needexcl != 0) || PUT_STACK_NOTENOUGH()) {
TRACE_3(TR_FAC_STREAMS_FR, TR_PUTNEXT_END,
"putnext_end:(%p, %p, %p) SQ_EXCL fill",
qp, mp, sq);
/*
* NOTE: qfill_syncq will need QLOCK. It is safe to drop
* SQLOCK because positive sq_count keeps the syncq from
* closing.
*/
mutex_exit(SQLOCK(sq));
qfill_syncq(sq, qp, mp);
/*
* NOTE: after the call to qfill_syncq() qp may be
* closed, both qp and sq should not be referenced at
* this point.
*
* This ASSERT is located here to prevent stack frame
* consumption in the DEBUG code.
*/
ASSERT(sqciplock == NULL);
return;
}
queued = qp->q_sqflags & Q_SQQUEUED;
/*
* If not a concurrent perimiter, we need to acquire
* it exclusively. It could not have been previously
* set since we held the SQLOCK before testing
* SQ_GOAWAY above (which includes SQ_EXCL).
* We do this here because we hold the SQLOCK, and need
* to make this state change BEFORE dropping it.
*/
if (!(flags & SQ_CIPUT)) {
ASSERT((sq->sq_flags & SQ_EXCL) == 0);
ASSERT(!(sq->sq_type & SQ_CIPUT));
sq->sq_flags |= SQ_EXCL;
}
mutex_exit(SQLOCK(sq));
}
ASSERT((sq->sq_flags & (SQ_EXCL|SQ_CIPUT)));
ASSERT(MUTEX_NOT_HELD(SQLOCK(sq)));
/*
* We now have a claim on the syncq, we are either going to
* put the message on the syncq and then drain it, or we are
* going to call the putproc().
*/
putproc = qi->qi_putp;
if (!queued) {
STR_FTEVENT_MSG(mp, fqp, FTEV_PUTNEXT, mp->b_rptr -
mp->b_datap->db_base);
(*putproc)(qp, mp);
ASSERT(MUTEX_NOT_HELD(SQLOCK(sq)));
ASSERT(MUTEX_NOT_HELD(QLOCK(qp)));
} else {
mutex_enter(QLOCK(qp));
/*
* If there are no messages in front of us, just call putproc(),
* otherwise enqueue the message and drain the queue.
*/
if (qp->q_syncqmsgs == 0) {
mutex_exit(QLOCK(qp));
STR_FTEVENT_MSG(mp, fqp, FTEV_PUTNEXT, mp->b_rptr -
mp->b_datap->db_base);
(*putproc)(qp, mp);
ASSERT(MUTEX_NOT_HELD(SQLOCK(sq)));
} else {
/*
* We are doing a fill with the intent to
* drain (meaning we are filling because
* there are messages in front of us ane we
* need to preserve message ordering)
* Therefore, put the message on the queue
* and call qdrain_syncq (must be done with
* the QLOCK held).
*/
STR_FTEVENT_MSG(mp, fqp, FTEV_PUTNEXT,
mp->b_rptr - mp->b_datap->db_base);
#ifdef DEBUG
/*
* These two values were in the original code for
* all syncq messages. This is unnecessary in
* the current implementation, but was retained
* in debug mode as it is usefull to know where
* problems occur.
*/
mp->b_queue = qp;
mp->b_prev = (mblk_t *)putproc;
#endif
SQPUT_MP(qp, mp);
qdrain_syncq(sq, qp);
ASSERT(MUTEX_NOT_HELD(QLOCK(qp)));
}
}
/*
* Before we release our claim, we need to see if any
* events were posted. If the syncq is SQ_EXCL && SQ_QUEUED,
* we were responsible for going exclusive and, therefore,
* are resposible for draining.
*/
if (sq->sq_flags & (SQ_EXCL)) {
drain_mask = 0;
} else {
drain_mask = SQ_QUEUED;
}
if (sqciplock != NULL) {
mutex_enter(sqciplock);
flags = sq->sq_flags;
ASSERT(flags & SQ_CIPUT);
/* SQ_EXCL could have been set by qwriter_inner */
if ((flags & (SQ_EXCL|SQ_TAIL)) || sq->sq_needexcl) {
/*
* we need SQLOCK to handle
* wakeups/drains/flags change. sqciplock
* is needed to decrement sqcipcount.
* SQLOCK has to be grabbed before sqciplock
* for lock ordering purposes.
* after sqcipcount is decremented some lock
* still needs to be held to make sure
* syncq won't get freed on us.
*
* To prevent deadlocks we try to grab SQLOCK and if it
* is held already we drop sqciplock, acquire SQLOCK and
* reacqwire sqciplock again.
*/
if (mutex_tryenter(SQLOCK(sq)) == 0) {
mutex_exit(sqciplock);
mutex_enter(SQLOCK(sq));
mutex_enter(sqciplock);
}
flags = sq->sq_flags;
ASSERT(*sqcipcount != 0);
(*sqcipcount)--;
mutex_exit(sqciplock);
} else {
ASSERT(*sqcipcount != 0);
(*sqcipcount)--;
mutex_exit(sqciplock);
TRACE_3(TR_FAC_STREAMS_FR, TR_PUTNEXT_END,
"putnext_end:(%p, %p, %p) done", qp, mp, sq);
return;
}
} else {
mutex_enter(SQLOCK(sq));
flags = sq->sq_flags;
ASSERT(sq->sq_count != 0);
sq->sq_count--;
}
if ((flags & (SQ_TAIL)) || sq->sq_needexcl) {
putnext_tail(sq, qp, (flags & ~drain_mask));
/*
* The only purpose of this ASSERT is to preserve calling stack
* in DEBUG kernel.
*/
ASSERT(sq != NULL);
return;
}
ASSERT((sq->sq_flags & (SQ_EXCL|SQ_CIPUT)) || queued);
ASSERT((flags & (SQ_EXCL|SQ_CIPUT)) || queued);
/*
* Safe to always drop SQ_EXCL:
* Not SQ_CIPUT means we set SQ_EXCL above
* For SQ_CIPUT SQ_EXCL will only be set if the put
* procedure did a qwriter(INNER) in which case
* nobody else is in the inner perimeter and we
* are exiting.
*
* I would like to make the following assertion:
*
* ASSERT((flags & (SQ_EXCL|SQ_CIPUT)) != (SQ_EXCL|SQ_CIPUT) ||
* sq->sq_count == 0);
*
* which indicates that if we are both putshared and exclusive,
* we became exclusive while executing the putproc, and the only
* claim on the syncq was the one we dropped a few lines above.
* But other threads that enter putnext while the syncq is exclusive
* need to make a claim as they may need to drop SQLOCK in the
* has_writers case to avoid deadlocks. If these threads are
* delayed or preempted, it is possible that the writer thread can
* find out that there are other claims making the (sq_count == 0)
* test invalid.
*/
sq->sq_flags = flags & ~SQ_EXCL;
mutex_exit(SQLOCK(sq));
TRACE_3(TR_FAC_STREAMS_FR, TR_PUTNEXT_END,
"putnext_end:(%p, %p, %p) done", qp, mp, sq);
}
/*!
* \param *dc The current DecodingContext.
* \param mbAddr The current macroblock address.
* \return 0 if macroblock decoding fail, 1 otherwise.
*
* This function extract one macroblock from the bitstream, handle intra/inter
* prediction for its blocks.
*/
int macroblock_layer(DecodingContext_t *dc, const int mbAddr)
{
TRACE_INFO(MB, "<> " BLD_GREEN "macroblock_layer(" CLR_RESET "%i" BLD_GREEN ")\n" CLR_RESET, mbAddr);
int retcode = FAILURE;
// Macroblock allocation
////////////////////////////////////////////////////////////////////////////
dc->mb_array[mbAddr] = (Macroblock_t*)calloc(1, sizeof(Macroblock_t));
if (dc->mb_array[mbAddr] == NULL)
{
TRACE_ERROR(MB, "Unable to alloc new macroblock!\n");
}
else
{
// Set macroblock address
dc->mb_array[mbAddr]->mbAddr = mbAddr;
// Shortcuts
pps_t *pps = dc->pps_array[dc->active_slice->pic_parameter_set_id];
sps_t *sps = dc->sps_array[pps->seq_parameter_set_id];
slice_t *slice = dc->active_slice;
Macroblock_t *mb = dc->mb_array[mbAddr];
// Macroblock decoding
////////////////////////////////////////////////////////////////////////
#if ENABLE_DEBUG
mb->mbFileAddrStart = bitstream_get_absolute_bit_offset(dc->bitstr);
#endif // ENABLE_DEBUG
deriv_macroblockneighbours_availability(dc, mbAddr);
MbPosition(mb, sps);
if (pps->entropy_coding_mode_flag)
mb->mb_type = read_ae(dc, SE_mb_type);
else
mb->mb_type = read_ue(dc->bitstr);
mb->MbPartPredMode[0] = MbPartPredMode(mb, slice->slice_type, 0);
mb->NumMbPart = NumMbPart(slice->slice_type, mb->mb_type);
if (mb->mb_type == I_PCM)
{
#if ENABLE_IPCM
TRACE_3(MB, "---- macroblock_layer - I PCM macroblock\n");
while (bitstream_check_alignment(dc->bitstr) == false)
{
if (read_bit(dc->bitstr) != 0) // pcm_alignment_zero_bit
{
TRACE_ERROR(MB, " Error while reading pcm_alignment_zero_bit: must be 0!\n");
return FAILURE;
}
}
// CABAC initialization process //FIXME needed? See 'ITU-T H.264' recommendation 9.3.1.2
initCabacDecodingEngine(dc);
int i = 0;
for (i = 0; i < 256; i++)
{
mb->pcm_sample_luma[i] = (uint8_t)read_bits(dc->bitstr, sps->BitDepthY);
}
// CABAC initialization process //FIXME needed? See 'ITU-T H.264' recommendation 9.3.1.2
initCabacDecodingEngine(dc);
for (i = 0; i < 2 * sps->MbWidthC * sps->MbHeightC; i++)
{
mb->pcm_sample_chroma[i] = (uint8_t)read_bits(dc->bitstr, sps->BitDepthC);
}
// CABAC initialization process //FIXME needed? See 'ITU-T H.264' recommendation 9.3.1.2
initCabacDecodingEngine(dc);
#else // ENABLE_IPCM
TRACE_ERROR(MB, "I_PCM decoding is currently disabled!\n");
return UNSUPPORTED;
#endif // ENABLE_IPCM
}
else
{
#if ENABLE_INTER_PRED
bool noSubMbPartSizeLessThan8x8Flag = true;
if (mb->mb_type != I_NxN &&
mb->MbPartPredMode[0] != Intra_16x16 &&
mb->NumMbPart == 4)
{
TRACE_3(MB, "---- macroblock_layer - mb partition & related\n");
int mbPartIdx = 0;
for (mbPartIdx = 0; mbPartIdx < 4; mbPartIdx++)
{
if (mb->sub_mb_type[mbPartIdx] != B_Direct_8x8)
{
if (NumSubMbPart(slice->slice_type, mb->sub_mb_type[mbPartIdx]) > 1)
{
noSubMbPartSizeLessThan8x8Flag = false;
}
}
else if (sps->direct_8x8_inference_flag == false)
{
noSubMbPartSizeLessThan8x8Flag = false;
}
}
// Read sub macroblock prediction mode
sub_mb_pred(dc, mb->mb_type, mb->sub_mb_type);
}
else
#endif // ENABLE_INTER_PRED
{
TRACE_3(MB, "---- macroblock_layer - transform_size_8x8_flag & prediction modes\n");
if (pps->transform_8x8_mode_flag == true && mb->mb_type == I_NxN)
{
if (pps->entropy_coding_mode_flag)
mb->transform_size_8x8_flag = read_ae(dc, SE_transform_size_8x8_flag);
else
mb->transform_size_8x8_flag = read_bit(dc->bitstr);
// Need to update MbPartPredMode in order to detect I_8x8 prediction mode
mb->MbPartPredMode[0] = MbPartPredMode(mb, slice->slice_type, 0);
}
// Read macroblock prediction mode
mb_pred(dc, mb);
}
if (mb->MbPartPredMode[0] != Intra_16x16)
{
TRACE_3(MB, "---- macroblock_layer - coded block pattern & transform_size_8x8_flag\n");
if (pps->entropy_coding_mode_flag)
mb->coded_block_pattern = read_ae(dc, SE_coded_block_pattern);
else
mb->coded_block_pattern = read_me(dc->bitstr, sps->ChromaArrayType, dc->IdrPicFlag);
mb->CodedBlockPatternLuma = mb->coded_block_pattern % 16;
mb->CodedBlockPatternChroma = mb->coded_block_pattern / 16;
#if ENABLE_INTER_PRED
if (mb->CodedBlockPatternLuma > 0 &&
pps->transform_8x8_mode_flag == true &&
mb->mb_type != I_NxN &&
noSubMbPartSizeLessThan8x8Flag == true &&
(mb->mb_type != B_Direct_16x16 || sps->direct_8x8_inference_flag == true))
{
if (pps->entropy_coding_mode_flag)
mb->transform_size_8x8_flag = read_ae(dc, SE_transform_size_8x8_flag);
else
mb->transform_size_8x8_flag = read_bit(dc->bitstr);
// Need to update MbPartPredMode in order to account for I_8x8 prediction mode
if (transform_size_8x8_flag)
mb->MbPartPredMode[0] = MbPartPredMode(mb, slice->slice_type, 0);
}
#endif // ENABLE_INTER_PRED
}
if (mb->CodedBlockPatternLuma > 0 ||
mb->CodedBlockPatternChroma > 0 ||
mb->MbPartPredMode[0] == Intra_16x16)
{
TRACE_3(MB, "---- macroblock_layer - quantization parameter & residual datas\n");
// Read QP delta
if (pps->entropy_coding_mode_flag)
mb->mb_qp_delta = read_ae(dc, SE_mb_qp_delta);
else
mb->mb_qp_delta = read_se(dc->bitstr);
// Parse the residual coefficients
////////////////////////////////////////////////////////////////
// Luma levels
residual_luma(dc, 0, 15);
// Chroma levels
residual_chroma(dc, 0, 15);
}
else
{
TRACE_3(MB, "---- macroblock_layer - No residual datas to decode in this macroblock\n");
}
// Compute luma Quantization Parameters
if (mb->mb_qp_delta)
mb->QPY = ((slice->QPYprev + mb->mb_qp_delta + 52 + sps->QpBdOffsetY*2) % (52 + sps->QpBdOffsetY)) - sps->QpBdOffsetY;
else
mb->QPY = slice->QPYprev;
mb->QPprimeY = mb->QPY + sps->QpBdOffsetY;
slice->QPYprev = mb->QPY;
// Set Transform Bypass Mode
if (sps->qpprime_y_zero_transform_bypass_flag == true && mb->QPprimeY == 0)
mb->TransformBypassModeFlag = true;
// Prediction process (include quantization and transformation stages)
////////////////////////////////////////////////////////////////
if (dc->IdrPicFlag)
{
retcode = intra_prediction_process(dc, mb);
}
else
{
retcode = inter_prediction_process(dc, mb);
}
// Print macroblock(s) header and block data ?
////////////////////////////////////////////////////////////////
#if ENABLE_DEBUG
mb->mbFileAddrStop = bitstream_get_absolute_bit_offset(dc->bitstr) - 1;
int frame_debug_range[2] = {-1, -1}; // Range of (idr) frame(s) to debug/analyse
int mb_debug_range[2] = {-1, -1}; // Range of macroblock(s) to debug/analyse
if (dc->idrCounter >= frame_debug_range[0] && dc->idrCounter <= frame_debug_range[1])
{
if (mb->mbAddr >= mb_debug_range[0] && mb->mbAddr <= mb_debug_range[1])
{
print_macroblock_layer(dc, mb);
print_macroblock_pixel_residual(mb);
print_macroblock_pixel_predicted(mb);
print_macroblock_pixel_final(mb);
}
}
#endif // ENABLE_DEBUG
}
TRACE_3(MB, "---- macroblock_layer - the end\n\n");
}
return retcode;
}
/**
* Return number of log files in a dir and the name of the oldest file.
* @param indata, see gnolfh_in_t
* @param outdata, char *oldest_file
* @param max_outsize, Max size for oldest_file string
*
* @return int, number of logfiles or -1 if error
*/
int get_number_of_log_files_hdl(void *indata, void *outdata, size_t max_outsize)
{
struct dirent **namelist;
int n, old_date = -1, old_time = -1, old_ind = -1, files, i, failed = 0;
char path[PATH_MAX];
gnolfh_in_t *params_in;
char *oldest_file;
int rc = 0;
TRACE_ENTER();
params_in = (gnolfh_in_t *) indata;
oldest_file = (char *) outdata;
/* Initialize the filter */
n = snprintf(file_prefix, SA_MAX_NAME_LENGTH, "%s", params_in->file_name);
if (n >= SA_MAX_NAME_LENGTH) {
rc = -1;
LOG_WA("file_prefix > SA_MAX_NAME_LENGTH");
goto done_exit;
}
n = snprintf(path, PATH_MAX, "%s/%s",
params_in->logsv_root_dir, params_in->pathName);
if (n >= PATH_MAX) {
LOG_WA("path > PATH_MAX");
rc = -1;
goto done_exit;
}
files = n = scandir(path, &namelist, filter_func, alphasort);
if (n == -1 && errno == ENOENT) {
rc = 0;
goto done_exit;
}
if (n < 0) {
LOG_WA("scandir:%s - %s", strerror(errno), path);
rc = -1;
goto done_exit;
}
if (n == 0) {
rc = files;
goto done_exit;
}
while (n--) {
TRACE_3("%s", namelist[n]->d_name);
if (check_oldest(namelist[n]->d_name, params_in->file_name,
strlen(params_in->file_name), &old_date, &old_time)) {
old_ind = n;
} else {
failed++; /* wrong format */
}
}
if (old_ind != -1) {
TRACE_1("oldest: %s", namelist[old_ind]->d_name);
n = snprintf(oldest_file, max_outsize, "%s/%s",
path, namelist[old_ind]->d_name);
if (n >= max_outsize) {
LOG_WA("oldest_file > max_outsize");
rc = -1;
goto done_free;
} else {
rc = (files - failed);
}
} else {
TRACE("Only file/files with wrong format found");
}
done_free:
/* Free scandir allocated memory */
for (i = 0; i < files; i++)
free(namelist[i]);
free(namelist);
done_exit:
TRACE_LEAVE();
return rc;
}
/* void *arg is a argumentReceivingThread_t type */
void receivingThread( void *arg )
{
TRACE_2( SERVERMANAGER , "receivingThread()");
char buff[BUFF_SIZE];
char input[] = "wMusic~>";
int ret;
int info;
void *cliRet;
argumentReceivingThread_t *arguments = ( argumentReceivingThread_t * )arg;
TRACE_3( SERVERMANAGER , "Thread argument: socket: %d , port: %d" , arguments->socket , arguments->port );
TRACE_1( SERVERMANAGER , "[!]Receiving thread create !");
if( arguments->port == PORT_CLI )
sendVoidSocket( arguments->socket , input , sizeof( input ) );
else //usleep( 2000 ) for WAN connection, usleep( 300 ) for LAN connection.
usleep( 2000 ); info = IAMBRIDGE; sendVoidSocket( arguments->socket , ( void *)&info , sizeof( int ) ); //Sending info that the remote is connected to a bridge.
while( 1 )
{
memset( buff , 0 , BUFF_SIZE );
ret = recv( arguments->socket , buff , BUFF_SIZE , 0 );
if( ret > 0 )
{
if( arguments->port == PORT_COMMANDER )
{
TRACE_3( SERVERMANAGER , "[+]Data: %s" , buff );
if( strstr( buff , "DISC") != NULL )
{
disconnectClient( &arguments->socket );
break;
}
lastRequester = arguments->socket;
doAction( buff );
}
else if( arguments->port == PORT_CLI )
{
TRACE_3( SERVERMANAGER , "[+]Data: %s" , buff );
cliRet = doCommand( buff );
if( cliRet != NULL )
{
sendVoidSocket( arguments->socket , cliRet , strlen( ( const char * )cliRet ) );
zfree( cliRet );
sendVoidSocket( arguments->socket , input , sizeof( input ) );
}
}
}
}
TRACE_3( SERVERMANAGER , "[!]Quitting receiving thread !");
releaseThread();
pthread_exit( NULL );
}
/*
* Find the largest contiguous block which contains `addr' for file offset
* `offset' in it while living within the file system block sizes (`vp_off'
* and `vp_len') and the address space limits for which no pages currently
* exist and which map to consecutive file offsets.
*/
page_t *
pvn_read_kluster(
struct vnode *vp,
u_offset_t off,
struct seg *seg,
caddr_t addr,
u_offset_t *offp, /* return values */
size_t *lenp, /* return values */
u_offset_t vp_off,
size_t vp_len,
int isra)
{
ssize_t deltaf, deltab;
page_t *pp;
page_t *plist = NULL;
spgcnt_t pagesavail;
u_offset_t vp_end;
ASSERT(off >= vp_off && off < vp_off + vp_len);
/*
* We only want to do klustering/read ahead if there
* is more than minfree pages currently available.
*/
pagesavail = freemem - minfree;
if (pagesavail <= 0)
if (isra)
return ((page_t *)NULL); /* ra case - give up */
else
pagesavail = 1; /* must return a page */
/* We calculate in pages instead of bytes due to 32-bit overflows */
if (pagesavail < (spgcnt_t)btopr(vp_len)) {
/*
* Don't have enough free memory for the
* max request, try sizing down vp request.
*/
deltab = (ssize_t)(off - vp_off);
vp_len -= deltab;
vp_off += deltab;
if (pagesavail < btopr(vp_len)) {
/*
* Still not enough memory, just settle for
* pagesavail which is at least 1.
*/
vp_len = ptob(pagesavail);
}
}
vp_end = vp_off + vp_len;
ASSERT(off >= vp_off && off < vp_end);
if (isra && SEGOP_KLUSTER(seg, addr, 0))
return ((page_t *)NULL); /* segment driver says no */
if ((plist = page_create_va(vp, off,
PAGESIZE, PG_EXCL | PG_WAIT, seg, addr)) == NULL)
return ((page_t *)NULL);
if (vp_len <= PAGESIZE || pvn_nofodklust) {
*offp = off;
*lenp = MIN(vp_len, PAGESIZE);
} else {
/*
* Scan back from front by incrementing "deltab" and
* comparing "off" with "vp_off + deltab" to avoid
* "signed" versus "unsigned" conversion problems.
*/
for (deltab = PAGESIZE; off >= vp_off + deltab;
deltab += PAGESIZE) {
/*
* Call back to the segment driver to verify that
* the klustering/read ahead operation makes sense.
*/
if (SEGOP_KLUSTER(seg, addr, -deltab))
break; /* page not eligible */
if ((pp = page_create_va(vp, off - deltab,
PAGESIZE, PG_EXCL, seg, addr - deltab))
== NULL)
break; /* already have the page */
/*
* Add page to front of page list.
*/
page_add(&plist, pp);
}
deltab -= PAGESIZE;
/* scan forward from front */
for (deltaf = PAGESIZE; off + deltaf < vp_end;
deltaf += PAGESIZE) {
/*
* Call back to the segment driver to verify that
* the klustering/read ahead operation makes sense.
*/
if (SEGOP_KLUSTER(seg, addr, deltaf))
break; /* page not file extension */
if ((pp = page_create_va(vp, off + deltaf,
PAGESIZE, PG_EXCL, seg, addr + deltaf))
== NULL)
break; /* already have page */
/*
* Add page to end of page list.
*/
page_add(&plist, pp);
plist = plist->p_next;
}
*offp = off = off - deltab;
*lenp = deltab + deltaf;
ASSERT(off >= vp_off);
/*
* If we ended up getting more than was actually
* requested, retract the returned length to only
* reflect what was requested. This might happen
* if we were allowed to kluster pages across a
* span of (say) 5 frags, and frag size is less
* than PAGESIZE. We need a whole number of
* pages to contain those frags, but the returned
* size should only allow the returned range to
* extend as far as the end of the frags.
*/
if ((vp_off + vp_len) < (off + *lenp)) {
ASSERT(vp_end > off);
*lenp = vp_end - off;
}
}
TRACE_3(TR_FAC_VM, TR_PVN_READ_KLUSTER,
"pvn_read_kluster:seg %p addr %x isra %x",
seg, addr, isra);
return (plist);
}
