/***********************************************************************
*
* FUNCTION NAME: OBEX_RegisterService
* DESCRIPTION:
This function
* KNOWN ISSUES:
none.
*
*
***********************************************************************/
APIDECL1 t_api APIDECL2 OBEX_RegisterService(u_int32 tid_s,t_obex_service_handler handler, u_int8 length, u_int8* target, void* cref)
{
struct prh_obex_service_registration *p_temp, *p_new;
/* check arguments */
p_temp = obex_registered_services;
if(p_temp)
{
tim1:
if(prh_obex_compair_registration(p_temp,length,target) == BT_NOERROR)
{
return BT_HOSTERROR;
} else {
if(p_temp->p_next)
{
p_temp = p_temp->p_next;
goto tim1;
} else {
p_new = pMalloc(sizeof(struct prh_obex_service_registration));
if(!p_new)
return BT_NORESOURCES;
p_new->handler = handler;
p_new->tid = tid_s;
p_new->target = pMalloc(length);
pMemcpy(p_new->target,target,length);
p_new->target_length = length;
p_new->cid = 0x00;
p_new->p_next = 0x00;
p_temp->p_next = p_new;
}
}
} else {
p_temp = pMalloc(sizeof(struct prh_obex_service_registration));
if(!p_temp)
return BT_NORESOURCES;
p_temp->handler = handler;
p_temp->tid = tid_s;
//p_temp->target = target;
p_temp->target = pMalloc(length);
pMemcpy(p_temp->target,target,length);
p_temp->target_length = length;
p_temp->cid = 0x00;
p_temp->p_next = 0x00;
obex_registered_services = p_temp;
}
return BT_NOERROR;
}
int prh_tcs_wug_keydb_trav_helper(void *data, void *input)
{
struct prh_st_tcs_wug_member *instance=(struct prh_st_tcs_wug_member *)data;
struct prh_st_tcs_wug_member *wug_mem=(struct prh_st_tcs_wug_member *)input;
int ret;
struct prh_st_tcs_wug_member_link_key *link_key1, *link_key2;
/* generate link key */
link_key1=(struct prh_st_tcs_wug_member_link_key *)pMalloc(sizeof(struct prh_st_tcs_wug_member_link_key));
if (link_key1==pNULL)
return BT_NORESOURCES;
link_key2=(struct prh_st_tcs_wug_member_link_key *)pMalloc(sizeof(struct prh_st_tcs_wug_member_link_key));
if (link_key2==pNULL)
{
pFree(link_key1);
return BT_NORESOURCES;
}
prh_tcs_wug_keydb_generate_linkkey(link_key1->link_key);
pMemcpy(link_key2->link_key, link_key1->link_key, 16);
link_key1->peer = instance->addr;
link_key2->peer = wug_mem->addr;
/* add link key to both wug_members */
ret=prh_tcs_wug_keydb_add_key(wug_mem, link_key1);
if (ret!=BT_NOERROR)
{
pFree(link_key1);
pFree(link_key2);
return BT_NORESOURCES;
}
ret=prh_tcs_wug_keydb_add_key(instance, link_key2);
if (ret!=BT_NOERROR)
{
prh_tcs_wug_keydb_remove_key_by_bd_addr(wug_mem, instance->addr, &link_key1);
pFree(link_key1);
pFree(link_key2);
return BT_NORESOURCES;
}
return BT_NOERROR;
}
// Returns an array of int containing the indexes of the entries to be elected
// from termEntries, an writes the size of the array in outElectedEntriesSize
static int* electedEntries (TermEntry** termEntries, int termEntriesSize,
int* outElectedEntriesSize) {
wchar_t* electedWord = NULL;
int currentElectedEntriesSize = 0;
int* electedEntries;
for (int i = 0; i < termEntriesSize; i++) {
if (termEntries[i] != NULL) {
if (electedWord == NULL ||
wcscmp(electedWord, termEntries[i]->token) > 0) {
electedWord = termEntries[i]->token;
currentElectedEntriesSize = 1;
} else if (wcscmp(electedWord, termEntries[i]->token) == 0) {
currentElectedEntriesSize++;
}
}
}
*outElectedEntriesSize = currentElectedEntriesSize;
electedEntries = (int*) pMalloc(currentElectedEntriesSize * sizeof(int));
if (!electedEntries) return NULL;
int currentElectedIndex = 0;
for (int i = 0; i < termEntriesSize; i++) {
if (termEntries[i] != NULL &&
wcscmp(electedWord, termEntries[i]->token) == 0) {
electedEntries[currentElectedIndex++] = i;
}
}
return electedEntries;
}
prh_t_l2_channel* prh_l2_chn_alloc_channel()
{
t_channelId cid = 0;
prh_t_l2_channel* p_channel = 0;
#if COMBINED_HOST==0
while((prh_l2_channel_list[cid]) && (cid < PRH_L2_MAX_NUM_CHANNEL_IDENTIFIERS))
cid++;
#else
while((prh_l2_channel_list[cid].flag) && (cid < PRH_L2_MAX_NUM_CHANNEL_IDENTIFIERS))
cid++;
#endif
if(PRH_L2_MAX_NUM_CHANNEL_IDENTIFIERS != cid)
{
#if COMBINED_HOST==0
p_channel = prh_l2_channel_list[cid] = pMalloc(sizeof(prh_t_l2_channel));
#else
p_channel = &(prh_l2_channel_list[cid]);// = pMalloc(sizeof(prh_t_l2_channel));
#endif
if(p_channel)
{
pMemset(p_channel,0,sizeof(prh_t_l2_channel));
p_channel->type = PRH_L2_CO_CHANNEL;
p_channel->local_cid = cid+PRH_L2_MIN_USER_CID;
#if COMBINED_HOST==1
p_channel->flag = 1;
#endif
}
}
return p_channel;
}
t_api PRH_RFCOMM_UE_Register_Server(prh_t_rfcomm_schan schan, struct prh_rfcomm_dlc_cb *dlc_cbs)
{
#if COMBINED_HOST==1
struct prh_rfcomm_server_inst *serv_inst = &_serv_inst[prh_num];
#else
struct prh_rfcomm_server_inst *serv_inst;
#endif
int ret;
pMutexLock(prh_rfcomm_core_lock);
/* user should have asked for channel with Allocate_Server_Channel */
if (schan==0 || schan>PRH_RFCOMM_MAX_SCHAN)
{
ret=BT_INVALIDPARAM;
goto out;
}
if ((prh_rfcomm_core->channel_registered_state & (1U<<schan)) == (1U<<schan))
{
ret=BT_INVALIDPARAM;
goto out;
}
#if COMBINED_HOST==0
serv_inst=(struct prh_rfcomm_server_inst *)pMalloc(sizeof(struct prh_rfcomm_server_inst));
if (serv_inst==pNULL)
{
ret=BT_NORESOURCES;
goto out;
}
#endif
serv_inst->server_chan=schan;
serv_inst->dlc_cbs=*dlc_cbs;
serv_inst->lock=pMutexCreate(FALSE);
prh_rfcomm_core->channel_registered_state |= 1<<schan;
ret=prh_host_ll_add(&(prh_rfcomm_core->server_list), (void *)serv_inst);
if (ret!=BT_NOERROR)
{
prh_rfcomm_core->channel_registered_state &= ~(1<<schan);
pMutexFree(serv_inst->lock);
pFree(serv_inst);
ret=BT_NORESOURCES;
goto out;
}
/* reaffirm allocation of channel */
prh_rfcomm_core->channel_allocation_state |= 1<<schan;
ret=BT_NOERROR;
#if COMBINED_HOST==1
prh_num++;
#endif
out:
pMutexUnlock(prh_rfcomm_core_lock);
return ret;
}
int main() {
setlocale(LC_ALL, "en_US.UTF-8"); // For unicode handling
FILE* input = stdin;
FILE* output = stdout;
unsigned int currentSize = kInitialNbFiles;
unsigned int nbFiles = 0;
FILE** openFiles = (FILE**) pMalloc(sizeof(FILE*) * currentSize);
if (!openFiles) return MEMORY_ERROR;
// Open an array of files
for (unsigned int i = 0; !feof(input); ++i) {
char filepath[kBufferSize];
memset(filepath, 0, kBufferSize);
if (!fgets(filepath, kBufferSize, input)) {
if (!feof(input)) {
return INPUT_ERROR;
} else {
break;
}
}
unsigned int sizePath = strlen(filepath);
if (filepath[sizePath - 1] == '\n') filepath[sizePath - 1] = '\0';
if (i >= currentSize) {
unsigned int previousSize = currentSize * sizeof(FILE*);
currentSize *= 2;
openFiles = (FILE**) pRealloc(openFiles, previousSize,
currentSize * sizeof(FILE*));
if (!openFiles) return MEMORY_ERROR;
}
openFiles[i] = fopen(filepath, "r");
++nbFiles;
}
TermEntry** terms = filesToTerms(openFiles, nbFiles);
TermEntry * term = mergeFirst(terms, nbFiles, openFiles);
while (term) {
fprintTerm(output, term, SERIALIZATION);
pFreeTerm(term);
term = mergeFirst(terms, nbFiles, openFiles);
}
for (unsigned int i = 0; i < nbFiles; ++i) {
if (openFiles[i]) fclose(openFiles[i]); // Closing remaining files
pFreeTerm(terms[i]);
}
pFree(terms, nbFiles * sizeof(TermEntry*));
pFree(openFiles, currentSize * sizeof(FILE*));
return 0;
}
void test_OBEX_Connect_header_gen(void)
{
u_int32 tid;
u_int8 version;
u_int8 flags;
u_int16 max_length;
u_int16 target_length;
u_int8* target;
u_int16 header_length;
t_DataBuf *databuf;
int retValue;
struct host_buf* h_buff;
void (*callbackfunc)(u_int8 status, t_DataBuf* data)= connectCallbackFn;
h_buff = host_buf_alloc(100);
host_buf_reserve_header(h_buff,30);
databuf= (t_DataBuf*)h_buff;
tid = 0x000000bb;
version = 0x10;
flags = 0x00;
max_length = 0x2000;
target = pMalloc(10);
target[0] = 0x01;
target[1] = 0x02;
target[2] = 0x03;
target[3] = 0x04;
target[4] = 0x05;
target_length = 0x0005;
header_length = 0x0000;
/*databuf = pMalloc(240);*/
retValue = OBEX_Connect(tid,version,flags,max_length,target_length,target,header_length,databuf,callbackfunc);
cuReport("Connect not working with target- basic",(retValue == BT_NOERROR));
target = 0x00;
target_length = 0;
retValue = OBEX_Connect(tid,version,flags,max_length,target_length,target,header_length,databuf,callbackfunc);
cuReport("Connect not working without target - basic",(retValue == BT_NOERROR));
}
/***********************************************************************
*
* FUNCTION NAME: OBEX_RegisterInbox
* DESCRIPTION:
This function will register the inbox handler for a transport. There
can only be one inbox handler per transport.
* KNOWN ISSUES:
none.
*
*
***********************************************************************/
APIDECL1 t_api APIDECL2 OBEX_RegisterInbox(u_int32 tid_s,t_obex_service_handler handler, void *cref)
{
struct prh_obex_inbox_registration *pRegistration;
struct prh_obex_transport* pTransport;
pTransport = prh_obex_server_transport;
/* check parameters */
/* does the transport exist */
if(pTransport)
{
do {
if(pTransport->tid == tid_s)
break;
} while((pTransport = pTransport->p_next));
}
if(!pTransport)
return BT_INVALIDPARAM;
pRegistration = obex_registered_inboxes;
if(pRegistration)
{
do {
if(pRegistration->tid == tid_s)
break;
} while ((pRegistration = pRegistration->p_next));
}
if(!pRegistration)
{
pRegistration = pMalloc(sizeof(struct prh_obex_inbox_registration));
if(!pRegistration)
return BT_NORESOURCES;
}
pRegistration->handler = handler;
pRegistration->tid = tid_s;
pRegistration->p_next = obex_registered_inboxes;
obex_registered_inboxes = pRegistration;
return BT_NOERROR;
}
struct st_t_TCS_callInstance *prh_tcs_cc_core_GWaddBCastCallInstance(struct st_t_TCS_TLPeer *TLPeer, u_int16 cid)
{
if(TLPeer)
{
TLPeer->bcastCallInstance = pMalloc(sizeof(struct st_t_TCS_callInstance));
if(TLPeer->bcastCallInstance)
{
prh_tcs_cc_core_initCallInstance(TLPeer->bcastCallInstance);
TLPeer->bcastCallInstance->cid = cid;
TLPeer->bcastCallInstance->callType = PRH_TCS_CALLTYPE_PENDINGBCAST;
TLPeer->bcastCallInstance->callHandle= prh_tcs_cc_core_GWgetFreeCallHandle();
}
return TLPeer->bcastCallInstance;
}
return NULL;
}
struct st_t_TCS_TLPeer *prh_tcs_cc_core_getNewTLPeer(t_bdaddr address, /*u_int8 initState,*/ u_int16 cid)
{
int i, j;
for(i=0; i<PRH_TCS_MAXTERMINALSPERGATEWAY; i++)
{
if(!(TCSInstance.TLPeer[i]))
{
TCSInstance.TLPeer[i] = (struct st_t_TCS_TLPeer *)pMalloc(sizeof(struct st_t_TCS_TLPeer));
if(!(TCSInstance.TLPeer[i]))
return NULL;
pMemcpy(&(TCSInstance.TLPeer[i]->bdAddress.bytes), &(address.bytes), 6);
TCSInstance.TLPeer[i]->cid = cid;
for(j=0; j<PRH_TCS_MAX_CALLS_PER_DEVICE; j++)
TCSInstance.TLPeer[i]->callInstance[j] = NULL;
TCSInstance.TLPeer[i]->bcastCallInstance = NULL;
return TCSInstance.TLPeer[i];
}
}
return NULL;
}
struct st_t_TCS_callInstance *prh_tcs_cc_core_GWgetNewCallInstance(struct st_t_TCS_TLPeer *TLPeer, u_int16 cid, u_int16 callType)
{
int i;
/* Must also check global number of calls to TLPeers */
for(i=0; i<PRH_TCS_MAX_CALLS_PER_DEVICE; i++)
{
if(!(TLPeer->callInstance[i]))
{
TLPeer->callInstance[i] = pMalloc(sizeof(struct st_t_TCS_callInstance));
if(TLPeer->callInstance[i])
{
prh_tcs_cc_core_initCallInstance(TLPeer->callInstance[i]);
TLPeer->callInstance[i]->cid = cid;
TLPeer->callInstance[i]->callType = callType;
TLPeer->callInstance[i]->callHandle = prh_tcs_cc_core_GWgetFreeCallHandle();
}
return TLPeer->callInstance[i];
}
}
return NULL;
}
u_int8 prh_l2_chn_set_qos(prh_t_l2_channel* p_channel,t_L2_ChannelFlowSpec *p_outflow)
{
if ((p_outflow == 0) || (p_channel == 0))
return 0;
/* ensure that a new QoS structure is not Malloced if one already exists */
#if COMBINED_HOST==0
if (p_channel->outQOS == 0)
p_channel->outQOS = pMalloc(sizeof(t_L2_ChannelFlowSpec));
if (p_channel->outQOS)
{
p_channel->outQOS->flags = p_outflow->flags;
p_channel->outQOS->bucketSize = p_outflow->bucketSize;
p_channel->outQOS->delayVariation = p_outflow->delayVariation;
p_channel->outQOS->latency = p_outflow->latency;
p_channel->outQOS->peakBandwidth = p_outflow->peakBandwidth;
p_channel->outQOS->serviceType = p_outflow->serviceType;
p_channel->outQOS->tokenRate = p_outflow->tokenRate;
}
else
{
return 0;
}
#else
{
p_channel->outQOS.flags = p_outflow->flags;
p_channel->outQOS.bucketSize = p_outflow->bucketSize;
p_channel->outQOS.delayVariation = p_outflow->delayVariation;
p_channel->outQOS.latency = p_outflow->latency;
p_channel->outQOS.peakBandwidth = p_outflow->peakBandwidth;
p_channel->outQOS.serviceType = p_outflow->serviceType;
p_channel->outQOS.tokenRate = p_outflow->tokenRate;
}
#endif
return 1;
}
struct st_t_TCS_callInstance *prh_tcs_cc_core_TLgetNewCallInstance(u_int16 cid, u_int8 callType)
{
int i;
for(i=0; i<PRH_TCS_MAX_CALLS_PER_DEVICE; i++)
{
if(!TCSInstance.callInstance[i])
{
TCSInstance.callInstance[i] = pMalloc(sizeof(struct st_t_TCS_callInstance));
if(TCSInstance.callInstance[i])
{
prh_tcs_cc_core_initCallInstance(TCSInstance.callInstance[i]);
TCSInstance.callInstance[i]->callType = callType;
TCSInstance.callInstance[i]->cid = cid;
TCSInstance.callInstance[i]->callHandle = i+1; /* callHandle starts at '1' */
}
return TCSInstance.callInstance[i];
}
else /* the call instance is in use */
{
if(cid==0 && TCSInstance.callInstance[i]->cid==0)
{
/* the new callInstance is for a broadcast SETUP messasge */
/* and the existing callInstance is for a broadcast SETUP message */
/* therefore we have to assume that they are for the same call */
/* otherwise we would have a different call everytime we received */
/* the broadcast SETUP message */
return TCSInstance.callInstance[i];
}
}
}
return NULL;
}
APIDECL1 t_api APIDECL2 PE_SrvRegisterPort(char *port, prh_t_rfcomm_schan *serv_chan, void (*port_callback)(prh_t_rfcomm_schan schan, t_bdaddr bd_addr, u_int8 connection_state))
{
struct prh_rfcomm_pe_port *pe_info;
struct prh_rfcomm_dlc_cb dlc_cbs;
int ret=0;
int portnum;
/* three traps, illegal server channel number, 0 server channel number (user requested), 1-30 */
if (*serv_chan>PRH_RFCOMM_MAX_SCHAN)
return BT_INVALIDPARAM;
/* Has user requested a server channel */
if (*serv_chan==0)
{
ret=PRH_RFCOMM_UE_Allocate_Server_Channel(serv_chan);
if (ret!=BT_NOERROR)
return ret;
}
else
{
ret=PRH_RFCOMM_UE_Get_Channel_State(*serv_chan);
if (ret==BT_NOERROR)
/*Channel Exists already */
return BT_INVALIDPARAM;
}
portnum=*serv_chan;
/* Add port to list of registered port numbers */
pe_info=(struct prh_rfcomm_pe_port *)pMalloc(sizeof(struct prh_rfcomm_pe_port));
if (pe_info==pNULL)
{
ret=BT_NORESOURCES;
goto err_out_dealloc;
}
pMemset(pe_info, 0, sizeof(struct prh_rfcomm_pe_port));
prh_rfcomm_init_pe_struct(pe_info);
pe_info->portname=(char *)pMalloc(pStrlen(port)+1);
if (pe_info->portname==pNULL)
{
ret=BT_NORESOURCES;
goto err_out_free_info;
}
pStrcpy(pe_info->portname, port);
pe_info->port_cbfunc=port_callback;
pe_info->portnum=portnum;
dlc_cbs.dlc_estab_ind=port_ent_dlc_estab_ind_cb;
dlc_cbs.dlc_estab_conf=port_ent_dlc_estab_conf_cb;
dlc_cbs.dlc_rel_ind=port_ent_dlc_rel_ind_cb;
dlc_cbs.dlc_data_ind=port_ent_dlc_data_ind_cb;
dlc_cbs.linestat=port_ent_dlc_linestat_cb;
dlc_cbs.portneg=port_ent_dlc_portneg_cb;
dlc_cbs.control=port_ent_dlc_control_cb;
dlc_cbs.agg_flow_ind=port_ent_dlc_flow_ind_cb;
dlc_cbs.dlc_paramneg=port_ent_dlc_paramneg_cb;
dlc_cbs.credit_flow_ind=port_ent_dlc_credit_flow_cb;
ret=prh_rfcomm_pe_add_port_entity(pe_info);
if (ret==BT_NORESOURCES)
{
goto err_out_free_info;
}
ret=PRH_RFCOMM_UE_Register_Server(*serv_chan, &dlc_cbs);
if (ret!=BT_NOERROR)
{
goto err_out_remove_pe;
}
/* Do OS Specific Registering */
ret=PE_OS_SrvRegisterPort(pe_info);
if (ret!=BT_NOERROR)
{
PRH_RFCOMM_UE_Deregister_Server(*serv_chan);
goto err_out_remove_pe;
}
return BT_NOERROR;
/* handle different error conditions .. make sure to clean up */
err_out_remove_pe:
prh_rfcomm_pe_remove_port_entity_by_portnum(&pe_info, *serv_chan);
err_out_free_info:
prh_rfcomm_free_pe_struct(pe_info);
err_out_dealloc:
PRH_RFCOMM_UE_Deallocate_Server_Channel(*serv_chan);
return ret;
}
/*************************************************************************************************
* FUNCTION :- prh_mgr_store_inquiry_entry
*
* DESCRIPTION :- This function stores an inquiry result in the inq db. If the device is already
* in the database the parameters will be updates otherwise a new entry will be
* added to the inq db.
* NOTE:inquiryresult passed in is one set of page parameters, there may be many
* in a single hci event
*
************************************************************************************************/
struct st_t_BT_InquiryInfo *prh_mgr_store_inquiry_entry(u_int8 *inquiryResult)
{
struct st_t_BT_InquiryInfo *current;
extern u_int32 prh_mgr_inqdb_num_entries;
// char err_str[40]={0};
if(inquiryResult == NULL)
return NULL;
pMutexLock(prh_mgr_inqdb_list_lock);
current=prh_mgr_inqdb_head;
pDebugPrintfEX((pLOGDEBUG,pLOGMANAGER,"prh_mgr_store_inquiry_entry: linklist is NULL? %d\n", prh_mgr_inqdb_head?1:0));
while (current)
{
if (BD_ADDR_CMP(current->bdAddress,*(t_bdaddr*)(inquiryResult+0))) /* check alignment correctness here */
break;
current=current->next;
}
#if pDEBUG
if (!current)
{
pDebugPrintfEX((pLOGDEBUG,pLOGMANAGER,"prh_mgr_store_inquiry_entry: cannot find existing entry for device %s\n",prh_mgr_printBDAddress(*(t_bdaddr*)(inquiryResult+0))));
}
#endif
if (current)
{
if(current->entryUsage)
{
/* entry already exists, but is in use, so cannot be updated */
pDebugPrintfEX((pLOGDEBUG,pLOGMANAGER,"prh_mgr_store_inquiry_entry: cannot find existing entry for device %s\n",prh_mgr_printBDAddress(*(t_bdaddr*)(inquiryResult+0))));
pMutexUnlock(prh_mgr_inqdb_list_lock);
return current;
}
else
{
prh_mgr_unlink_inquiry_entry(current);
}
}
else
{
pDebugPrintfEX((pLOGDEBUG,pLOGMANAGER,"prh_mgr_store_inquiry_entry: prh_mgr_inqdb_num_entries=%d\n", prh_mgr_inqdb_num_entries));
if (prh_mgr_inqdb_num_entries<(u_int32)HOST_INQDB_MAX_DEVICE_ENTRIES)
{
/* alloc a new record */
current=pMalloc(sizeof(struct st_t_BT_InquiryInfo));
if (!current)
{
pMutexUnlock(prh_mgr_inqdb_list_lock);
return NULL;
}
current->deviceName = NULL;
#if HOST_INQDB_CULL_THRESHOLD!=0
if (!prh_mgr_inqdb_num_entries) /* we are adding to an empty database */
prh_mgr_inqdb_timer_handle=pTimerCreate(HOST_INQDB_CULL_GRANULARITY,prh_mgr_cull_inquiry_db,NULL,pTIMER_ONESHOT);
#endif
prh_mgr_inqdb_num_entries++;
}
else
{
/* find the oldest non-inuse record */
current=prh_mgr_inqdb_tail;
while (current)
{
if (current->entryUsage)
current=current->prev;
else
break;
}
if (!current)
{
/* no available entry */
pMutexUnlock(prh_mgr_inqdb_list_lock);
pDebugPrintfEX((pLOGNOTICE,pLOGMANAGER,"prh_mgr_store_inquiry_entry: prh_mgr_inqdb_num_entries==HOST_INQDB_MAX_DEVICE_ENTRIES (%d) and all entries in use\n",HOST_INQDB_MAX_DEVICE_ENTRIES));
return NULL;
}
prh_mgr_unlink_inquiry_entry(current);
}
current->entryAge=1; /* only modified when an entry did not already exist for this adress */
current->nameRetrieved = 0;
}
//Lu added
/* fill out the parameters */
pMemcpy(¤t->bdAddress,inquiryResult+0,6);
current->pageScanRepetitionMode=inquiryResult[6];
current->pageScanPeriodMode=inquiryResult[7];
current->pageScanMode=inquiryResult[8];
current->classOfDevice=inquiryResult[9]|(inquiryResult[10]<<8)|(inquiryResult[11]<<16);
current->clockOffset=inquiryResult[12]|(inquiryResult[13]<<8);
/* Do not fill in current->deviceName until RemoteNameRequest is complete */
current->entryUsage=1; /* entry starts marked as 'in-use' */
/* add this new record (to the head of the list) */
current->next=prh_mgr_inqdb_head;
current->prev=NULL;
if (current->next)
current->next->prev=current;
prh_mgr_inqdb_head=current;
if (!prh_mgr_inqdb_tail)
prh_mgr_inqdb_tail=current;
pDebugPrintfEX((pLOGDEBUG,pLOGMANAGER,"prh_mgr_store_inquiry_entry: current->entryAge=%d, current->classOfDevice=0x%x\n", current->entryAge,current->classOfDevice));
pMutexUnlock(prh_mgr_inqdb_list_lock);
return current;
}
t_api prh_tcs_cc_core_storeCallParams(struct st_t_TCS_callParams **destRef, struct st_t_TCS_callParams *src)
{
struct st_t_TCS_callParams *dest;
if(!destRef)
return BT_INVALIDPARAM;
if(*destRef)
prh_tcs_cc_core_freeCallParams(*destRef);
if(!src)
{
*destRef = NULL;
return BT_NOERROR;
}
dest = (struct st_t_TCS_callParams *)pMalloc(sizeof(struct st_t_TCS_callParams));
if(dest)
pMemcpy(dest, src, sizeof(struct st_t_TCS_callParams));
else
return BT_NORESOURCES;
if(dest)
{
pMemcpy(dest, src, sizeof(struct st_t_TCS_callParams));
if(PRH_TCS_CC_PARAM_BEARERCAPABILITY_EXISTS(src->bitMask) && PRH_TCS_BEARER_CAP_LINK_TYPE_ACL == src->linkType && src->aclBearer)
{
dest->aclBearer = (struct st_t_TCS_aclBearer *)pMalloc(sizeof(struct st_t_TCS_aclBearer));
if(dest->aclBearer)
pMemcpy(dest->aclBearer, src->aclBearer, sizeof(struct st_t_TCS_aclBearer));
else
return BT_NORESOURCES;
}
if(PRH_TCS_CC_PARAM_AUDIOCONTROL_EXISTS(src->bitMask) && src->audioControlInfo)
{
dest->audioControlInfo = (u_int8 *)pMalloc(src->audioControlInfoLength);
if(dest->audioControlInfo)
pMemcpy(dest->audioControlInfo, src->audioControlInfo, src->audioControlInfoLength);
else
return BT_NORESOURCES;
}
if(PRH_TCS_CC_PARAM_COMPANYSPECIFIC_EXISTS(src->bitMask) && src->companySpecific)
{
dest->companySpecific = (u_int8 *)pMalloc(src->companySpecificLength);
if(dest->companySpecific)
pMemcpy(dest->companySpecific, src->companySpecific, src->companySpecificLength);
else
return BT_NORESOURCES;
}
if(PRH_TCS_CC_PARAM_CALLEDPARTYNUMBER_EXISTS(src->bitMask) && src->calledPartyNumber)
{
dest->calledPartyNumber = (u_int8*)pMalloc(src->calledPartyNumberLength);
if(dest->calledPartyNumber)
pMemcpy(dest->calledPartyNumber, src->calledPartyNumber, src->calledPartyNumberLength);
else
return BT_NORESOURCES;
}
if(PRH_TCS_CC_PARAM_CALLINGPARTYNUMBER_EXISTS(src->bitMask) && src->callingPartyNumber)
{
dest->callingPartyNumber = (u_int8*)pMalloc(src->callingPartyNumberLength);
if(dest->callingPartyNumber)
pMemcpy(dest->callingPartyNumber, src->callingPartyNumber, src->callingPartyNumberLength);
else
return BT_NORESOURCES;
}
*destRef = dest;
}
return BT_NOERROR;
}
void bt_pin_code_ind_cb(t_bdaddr address )
{
LINK_PIN_CODE_IND_ST mv;
t_bdaddr *addr = (t_bdaddr *)&address;
btbm_bd_addr_t bd_addr;
bd_addr.lap= BDADDR_Get_LAP(&address);
bd_addr.uap = BDADDR_Get_UAP(&address);
bd_addr.nap = BDADDR_Get_NAP(&address);
mmi_trace(1,"bt_pin_code_ind_cb is called!! bonding_role=%d,pincode_sent=%d",bonding_role,pincode_sent);
if(pincode_sent)//zhou siyou 20110628
{
pincode_sent=0;
mmi_trace(1,"!!!!!!!!!!!!!!!!!!!!!!!!!!bt_pin_code_ind_cb is called pin %s!!","0000");
mmi_trace(1,"!!!!!!!!!!!!!!!!!!!!!!!!!!bt_pin_code_ind_cb is called pin %s!!","0000");
mmi_trace(1,"!!!!!!!!!!!!!!!!!!!!!!!!!!bt_pin_code_ind_cb is called pin %s!!","0000");
MGR_PINResponse(address, 1, "0000", 4);
return;
}
responsePinCode = 0;
if(bth_is_the_specified_device_paired(bd_addr))
{
mmi_trace(1,"bt_pin_code_ind_cb is called!!if(bth_is_the_specified_device_paired(bd_addr))");
mv.type = LINK_PIN_CODE_IND;
memcpy(mv.bd_addr.bytes,address.bytes,sizeof(t_bdaddr));
MGR_GetRemoteName(address, (char*)mv.name, 47, &mv.name_len, NULL);
rdabt_put_message(EXTERNAL_TASK_MASK,LINK_Q,&mv);
pin_code_ind_timer = rdabt_timed_event_in(15*1000*1000,rdabt_InputPin_MoniterTimer_cb,(void *)addr);
}
else
{
if( bonding_role != 0)
{ mmi_trace(1,"bt_pin_code_ind_cb is called!! if( bonding_role != 0)");
mv.type = LINK_PIN_CODE_IND;
memcpy(mv.bd_addr.bytes,address.bytes,sizeof(t_bdaddr));
MGR_GetRemoteName(address, (char*)mv.name, 47, &mv.name_len, NULL);
rdabt_put_message(EXTERNAL_TASK_MASK,LINK_Q,&mv);
bonding_addr = address; //add by tan, 7-12-2009
pin_code_ind_timer = rdabt_timed_event_in(15*1000*1000,rdabt_InputPin_MoniterTimer_cb,NULL);
}
else
{
//may be the other device has lost the security info..
//anyway, we do not need to bond...
deviceName = (char*)pMalloc(48);
if( deviceName == NULL)
{
MGR_PINResponse(address, 0, NULL, 0);
}
else
{
int status = 0;
memset(deviceName, 0, 48);
status = MGR_GetRemoteName( address, deviceName, 47, &nameLen, rdabt_GetRemoteName_cb);
if( status == 0)
{
rdabt_GetRemoteName_cb(address, 0);
}
}
/*
bt_bm_link_connect_accept_ind_struct * accept_ind;
accept_ind = (bt_bm_link_connect_accept_ind_struct*)construct_local_para((kal_uint16)sizeof(bt_bm_link_connect_accept_ind_struct), TD_CTRL);
accept_ind->bd_addr.lap= BDADDR_Get_LAP(&address);
accept_ind->bd_addr.uap = BDADDR_Get_UAP(&address);
accept_ind->bd_addr.nap = BDADDR_Get_NAP(&address);
rdabt_send_msg_up(MOD_MMI, MSG_ID_BT_BM_LINK_CONNECT_ACCEPT_IND, (void *)accept_ind, NULL);
MGR_SetBondingCallBack(address, rdabt_being_bonding_cb);
*/
}
}
}
/*
* prh_rfcomm_entity_connect_port
* -- Port Entity DLC Establish helper function
*
* Allocate a Port entity structure, sets it up,
* finds a multiplexer, (either gets current one or starts one)
* Sets up callbacks, sends Parameter negotiation, and then does
* the DLC establish.
*
* Returns: BT_NOERROR - a multiplexer is already started
* BT_PENDING - a multiplexer start is in progress or required
* BT_NORESOURCES - no resources were available
*/
int prh_rfcomm_entity_connect_port(t_bdaddr remote_bd_addr, prh_t_rfcomm_schan rem_schan, prh_t_rfcomm_dlci *dlci, prh_t_rfcomm_dlc_params *dlc_params, struct prh_rfcomm_dlc_cb *cbs, void **multi_inst_ptr)
{
int dbit;
struct prh_rfcomm_l2cap_inst *l2cap_inst;
struct prh_rfcomm_entity_pending_dlc *pending_info;
struct prh_rfcomm_entity_pending_conns *pending_conns;
t_api ret;
#if COMBINED_HOST==1
int i =0;
#endif
pMutexLock(prh_rfcomm_pending_lock);
/* Check does a multiplexer to the remote BD Address exist already or is one pending */
ret=PRH_RFCOMM_UE_Get_Multiplexer_State(remote_bd_addr, (void **)&l2cap_inst);
if (ret==BT_NOERROR)
{
/* A Multiplexer exists */
dbit=l2cap_inst->initiating;
/* If it exists establish the DLC */
*dlci=((!dbit) | (rem_schan<<1));
*multi_inst_ptr=(void *)l2cap_inst;
PRH_RFCOMM_UE_DLC_Estab_Req(remote_bd_addr, *dlci, dlc_params, cbs, *multi_inst_ptr);
ret=BT_NOERROR;
goto out;
}
#if COMBINED_HOST==1
//cui jian changed to static malloc pending information. 2009.02.11
for( i =0; i< PRH_RFCOMM_MAX_Connect_Port ; i++)
{
if( pending_info2[i].info_used == 0 )
{
pending_info = &pending_info2[i ];
pending_info2[i].info_used = 1;
break;
}
}
if( i == PRH_RFCOMM_MAX_Connect_Port )
{
ret=BT_NORESOURCES;
goto out;
}
#else
/* we'll be pending - malloc pending information */
pending_info=(struct prh_rfcomm_entity_pending_dlc *)pMalloc(sizeof(struct prh_rfcomm_entity_pending_dlc));
if (pending_info==NULL)
{
ret=BT_NORESOURCES;
goto out;
}
#endif
pMemset(pending_info, 0, sizeof(struct prh_rfcomm_entity_pending_dlc));
pending_info->remote_schan=rem_schan;
pending_info->cbs=*cbs;
pending_info->dlc_params=*dlc_params;
dbit=1;
pending_info->dlci=*dlci=((!dbit) | (rem_schan<<1));
if (ret==BT_INVALIDPARAM)
{
/* No Multiplexer exists or is being started */
/* Need to start a pending list */
#if COMBINED_HOST==1
//cui jian changed to static malloc pending information. 2009.02.11
for( i =0; i< PRH_RFCOMM_MAX_Connect_Port ; i++)
{
if( pending_conns2[i].info_used == 0 )
{
pending_conns = &pending_conns2[i ];
pending_conns2[i].info_used = 1;
break;
}
}
if( i == PRH_RFCOMM_MAX_Connect_Port )
{
ret=BT_NORESOURCES;
goto out;
}
#else
pending_conns=(struct prh_rfcomm_entity_pending_conns *)pMalloc(sizeof(struct prh_rfcomm_entity_pending_conns));
if (pending_conns==NULL)
{
ret=BT_NORESOURCES;
goto out_free_info;
}
#endif
pMemset(pending_conns, 0, sizeof(struct prh_rfcomm_entity_pending_conns));
pending_conns->bd_addr=remote_bd_addr;
pending_conns->pending_dlc_head=NULL;
pending_conns->multi_inst=NULL;
/* Add to the list */
ret=prh_rfcomm_entity_add_pending_device(pending_conns);
if (ret==BT_NORESOURCES)
{
goto out_free_conns;
}
ret=prh_rfcomm_entity_add_pending_channel(remote_bd_addr, pending_info);
if (ret==BT_NORESOURCES)
{
prh_rfcomm_entity_remove_pending_device(remote_bd_addr);
goto out_free_info;
}
ret=prh_rfcomm_open_multiplexer(remote_bd_addr, &pending_conns->multi_inst);
if (ret!=BT_PENDING && ret!=BT_NOERROR)
{
prh_rfcomm_entity_remove_all_pending_channels(pending_conns);
prh_rfcomm_entity_remove_pending_device(remote_bd_addr);
}
else
*multi_inst_ptr=pending_conns->multi_inst;
}
else if (ret==BT_PENDING)
{
/* A multiplexer start is pending */
*multi_inst_ptr=(void *)l2cap_inst;
/* add to the list */
ret=prh_rfcomm_entity_add_pending_channel(remote_bd_addr, pending_info);
/* if we are pending return pending not no-error */
if (ret!=BT_NOERROR)
{
ret=BT_NORESOURCES;
goto out_free_info;
}
else
ret=BT_PENDING;
}
goto out;
out_free_conns:
pFree(pending_conns);
out_free_info:
pFree(pending_info);
out:
pMutexUnlock(prh_rfcomm_pending_lock);
return ret;
}
BYTE* dataparser(LPCWSTR pStr,DWORD dwStrLen,MALLOC_FUNC pMalloc,DWORD* pdwDataLength)
{
if (pStr[0]==L'\0')
return NULL;
if (_1stcontain2nd(pStr,L"int:"))
{
pStr+=4;
BYTE* pRet=(BYTE*)pMalloc(4);
*((DWORD*)pRet)=DWORD(_readnum(10,pStr));
if (pdwDataLength!=NULL)
*pdwDataLength=4;
return pRet;
}
else if (_1stcontain2nd(pStr,L"dword"))
{
pStr+=5;
int base=_getbase(pStr);
if (*pStr!=':')
return NULL;
pStr++;
BYTE* pRet=(BYTE*)pMalloc(4);
*((DWORD*)pRet)=DWORD(_readnum(base,pStr));
if (pdwDataLength!=NULL)
*pdwDataLength=4;
return pRet;
}
else if (_1stcontain2nd(pStr,L"word"))
{
pStr+=4;
int base=_getbase(pStr);
if (*pStr!=':')
return NULL;
pStr++;
BYTE* pRet=(BYTE*)pMalloc(2);
*((WORD*)pRet)=WORD(_readnum(base,pStr));
if (pdwDataLength!=NULL)
*pdwDataLength=2;
return pRet;
}
else if (_1stcontain2nd(pStr,L"byte"))
{
pStr+=4;
int base=_getbase(pStr);
if (*pStr!=':')
return NULL;
pStr++;
BYTE* pRet=(BYTE*)pMalloc(2);
*pRet=BYTE(_readnum(base,pStr));
if (pdwDataLength!=NULL)
*pdwDataLength=1;
return pRet;
}
else if (_1stcontain2nd(pStr,L"hex:") || _1stcontain2nd(pStr,L"bin:"))
{
pStr+=4;
int i=0;
// Calculating reqiured size
for (LPCWSTR pStr2=pStr;*pStr2!='\0';i++)
{
if (!((*pStr2>='0' && *pStr2<='9') ||
(*pStr2>='a' && *pStr2<='f') ||
(*pStr2>='A' && *pStr2<='F')))
break;
pStr2++;
if ((*pStr2>='0' && *pStr2<='9') ||
(*pStr2>='a' && *pStr2<='f') ||
(*pStr2>='A' && *pStr2<='F'))
pStr2++;
for (;*pStr2==' ';pStr2++);
}
if (i==0)
return NULL;
BYTE* pRet=(BYTE*)pMalloc(max(i,2));
for (i=0;*pStr!='\0';i++)
{
if (*pStr>='0' && *pStr<='9')
pRet[i]=*pStr-'0';
else if (*pStr>='a' && *pStr<='f')
pRet[i]=*pStr-'a'+0xa;
else if (*pStr>='A' && *pStr<='F')
pRet[i]=*pStr-'A'+0xa;
else
break;
pStr++;
if (*pStr>='0' && *pStr<='9')
{
pRet[i]<<=4;
pRet[i]+=*pStr-'0';
pStr++;
}
else if (*pStr>='a' && *pStr<='f')
{
pRet[i]<<=4;
pRet[i]+=*pStr-'a'+0xa;
pStr++;
}
else if (*pStr>='A' && *pStr<='F')
{
pRet[i]<<=4;
pRet[i]+=*pStr-'A'+0xa;
pStr++;
}
for (;*pStr==' ';pStr++);
}
if (pdwDataLength!=NULL)
*pdwDataLength=i;
return pRet;
}
else if (_1stcontain2nd(pStr,L"str:"))
{
dwStrLen-=4;
pStr+=4;
if (int(dwStrLen)<=0)
return NULL;
WCHAR* pUnicode;
int len=_readstringW(pUnicode,pStr,dwStrLen,malloc);
// Get Length
len=WideCharToMultiByte(CP_ACP,0,pUnicode,len,NULL,0,NULL,NULL);
char* pRet=(char*)pMalloc(len+1);
len=WideCharToMultiByte(CP_ACP,0,pUnicode,len,pRet,len+1,NULL,NULL);
free(pUnicode);
if (pdwDataLength!=NULL)
*pdwDataLength=len;
return (BYTE*)pRet;
}
else if (_1stcontain2nd(pStr,L"oem:"))
{
dwStrLen-=4;
pStr+=4;
if (int(dwStrLen)<=0)
return NULL;
WCHAR* pUnicode;
int len=_readstringW(pUnicode,pStr,dwStrLen,malloc);
// Get Length
len=WideCharToMultiByte(CP_OEMCP,0,pUnicode,len,NULL,0,NULL,NULL);
char* pRet=(char*)pMalloc(len+1);
len=WideCharToMultiByte(CP_OEMCP,0,pUnicode,len,pRet,len+1,NULL,NULL);
free(pUnicode);
if (pdwDataLength!=NULL)
*pdwDataLength=len;
return (BYTE*)pRet;
}
else if (_1stcontain2nd(pStr,L"wstr:") || _1stcontain2nd(pStr,L"uni:") || _1stcontain2nd(pStr,L"utf16:"))
{
for (pStr+=3,dwStrLen-=3;*pStr!=':';pStr++,dwStrLen--);
pStr++;dwStrLen--;
if (int(dwStrLen)<=0)
return NULL;
WCHAR* pRet;
int len=_readstringW(pRet,pStr,dwStrLen,pMalloc);
if (pdwDataLength!=NULL)
*pdwDataLength=len*2;
return (BYTE*)pRet;
}
else if (_1stcontain2nd(pStr,L"utf8:"))
{
dwStrLen-=5;
pStr+=5;
if (int(dwStrLen)<=0)
return NULL;
WCHAR* pUnicode;
int len=_readstringW(pUnicode,pStr,dwStrLen,malloc);
// Get Length
char* pRet=(char*)pMalloc((len+1)*2);
len=WideCharToMultiByte(CP_UTF8,0,pUnicode,len,pRet,(len+1)*2,NULL,NULL);
free(pUnicode);
if (pdwDataLength!=NULL)
*pdwDataLength=len;
return (BYTE*)pRet;
}
else if (_1stcontain2nd(pStr,L"utf7:"))
{
dwStrLen-=5;
pStr+=5;
if (int(dwStrLen)<=0)
return NULL;
WCHAR* pUnicode;
int len=_readstringW(pUnicode,pStr,dwStrLen,malloc);
// Get Length
char* pRet=(char*)pMalloc((len+1)*5);
len=WideCharToMultiByte(CP_UTF7,0,pUnicode,len,pRet,(len+1)*5,NULL,NULL);
free(pUnicode);
if (pdwDataLength!=NULL)
*pdwDataLength=len;
return (BYTE*)pRet;
}
else
{
if (int(dwStrLen)<=0)
return NULL;
if (pdwDataLength!=NULL)
*pdwDataLength=dwStrLen;
int nAllocLen=LenWtoA(pStr,dwStrLen);
char* pNew=(char*)pMalloc(nAllocLen+1);
MemCopyWtoA(pNew,nAllocLen+1,pStr,dwStrLen);
pNew[nAllocLen]='\0';
return (BYTE*)pNew;
}
}
prh_t_l2_acl_link* prh_l2_acl_alloc_link(t_bdaddr* p_bd_addr, u_int16 pending_cid)
{
prh_t_l2_acl_link* p_link;
int i;
/* First Check does a link already exist to this Address */
for(i=0;i<PRH_L2_MAX_NUM_LINKS;i++)
{
#if COMBINED_HOST==1
p_link = &(prh_l2_acl_links[i]);
if(p_link->flag == 0)
{
pMemset(p_link,0,sizeof(prh_t_l2_acl_link));
p_link->flag = 1;
#else
p_link = prh_l2_acl_links[i];
if(p_link == 0)
{
p_link = pMalloc(sizeof(prh_t_l2_acl_link));
if (!p_link)
return 0;
pMemset(p_link,0,sizeof(prh_t_l2_acl_link));
prh_l2_acl_links[i] = p_link;
p_link->cur_pos=0;
#endif
prh_l2_utils_set_bd_addr(&p_link->bd_addr, p_bd_addr);
p_link->pending_cid = pending_cid;
p_link->mtu_complete = 1;
return p_link;
}
}
return 0;
}
/**************************************************************
* Function : prh_l2_acl_free_Link
*
* Parameters :
* p_link :- A pointer to the link structure to be freed.
*
* Returns
* --
*
* Description
* Frees a link structure for a link to a specific Bd_ADDR.
* Also cancels any timers associated with the link.
**************************************************************/
void prh_l2_acl_free_link(prh_t_l2_acl_link* p_link)
{
#if COMBINED_HOST==0
u_int16 i;
#endif
#if (L2CAP_GROUPS_SUPPORTED==1)
prh_t_l2_channel* p_channel;
#endif
if (p_link != 0)
{
#if (L2CAP_GROUPS_SUPPORTED==1)
for (i = PRH_L2_MIN_USER_CID; i < (PRH_L2_MAX_NUM_CHANNEL_IDENTIFIERS + PRH_L2_MIN_USER_CID);i++)
{
p_channel = prh_l2_chn_get_p_channel(i);
if ((p_channel) && (p_channel->bda_list))
{
prh_l2_bda_list_remove(p_channel->bda_list,&p_link->bd_addr);
}
}
#endif
#if COMBINED_HOST==1
p_link->flag = 0;
if (p_link->timer_active)
pTimerCancel(p_link->timer_handle);
#else
for(i=0;i<PRH_L2_MAX_NUM_LINKS;i++)
{
if(prh_l2_acl_links[i] == p_link)
{
if (p_link->timer_active)
{
pTimerCancel(p_link->timer_handle);
p_link->timer_active = 0;
p_link->timer_handle=0;
}
pFree(p_link);
prh_l2_acl_links[i] = 0;
return;
}
}
#endif
}
}
/***********************************************************************
*
* FUNCTION NAME: OBEX_SuggestSync
* DESCRIPTION:
This function will send a PUSH command to the IrMC Client
* KNOWN ISSUES:
none.
*
*
***********************************************************************/
APIDECL1 t_api APIDECL2 OBEX_SuggestSync(u_int32 tid_s, u_int8 type, char* pAny, u_int8 length,t_obex_command_handler handler)
{
t_DataBuf* buff;
// object name is " t e l e c o m / p u s h . t x t ";
// \r\n
// "telecom/pb.vcf"
// "telecom/cal.vcs"
// "telecom/note.vnt"
// "telecom/inmsg.vmg"
// "telecom/outmsg.vmg"
// "telecom/sentmsg.vmg"f
// "telecom/rtc.txt"
// "default"
u_int8 *buffer;
u_int8 offset_len;
u_int16 t_offset;
u_int8 lcv;
u_int8 obj_name[34];
pMemcpy(obj_name," t e l e c o m / p u s h . t x t ",34);
buffer = pMalloc(165 + length);
offset_len = 0;
if(type & 1)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , "telecom/pb.vcf\r\n",16);
offset_len += 16;
}
if(type & 2)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , "telecom/cal.vcf\r\n",17);
offset_len += 17;
}
if(type & 4)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , "telecom/note.vcf\r\n",18);
offset_len += 18;
}
if(type & 8)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , "telecom/inmsg.vcf\r\n",19);
offset_len += 19;
}
if(type & 16)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , "telecom/outmgs.vcf\r\n",20);
offset_len += 20;
}
if(type & 32)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , "telecom/sentmgs.vcf\r\n",21);
offset_len += 21;
}
if(type & 64)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , "telecom/rtc.vcf\r\n",17);
offset_len += 17;
}
if(!type)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , "default\r\n",9);
offset_len += 9;
}
if(pAny)
{
pMemcpy(buffer + offset_len ,"SYNC:",5);
offset_len += 5;
pMemcpy(buffer + offset_len , pAny ,length);
offset_len += length;
buffer[offset_len++] = '\r';
buffer[offset_len++] = '\n';
}
OBEX_GetWriteBuffer(300,&buff);
/*
buff = (t_DataBuf*)host_buf_alloc(300);
host_buf_reserve_header((struct host_buf*)buff,20);
*/
t_offset = 3;
for(lcv = 0; lcv < 33; lcv+=2)
{
obj_name[lcv] = 0;
}
OBEX_CreateStringHeader(OBEX_NAME,(u_int16)16,(u_int16*)obj_name,buff,&t_offset);
OBEX_Create4ByteHeader(OBEX_LENGTH,offset_len,buff, &t_offset);
OBEX_CreateSequenceHeader(OBEX_BODY,offset_len,buffer,buff,&t_offset);
OBEX_CreateSequenceHeader(OBEX_END_BODY,0,0,buff,&t_offset);
OBEX_Put(tid_s,0x01,t_offset,buff,handler);
return BT_NOERROR;
}
/***********************************************************************
*
* FUNCTION NAME: OBEX_FindSyncCommandServer
* DESCRIPTION:
* KNOWN ISSUES:
.
*
*
***********************************************************************/
APIDECL1 t_api APIDECL2 OBEX_FindSyncCommandServer(t_bdaddr* address,u_int8* channel)
{
u_int32 uuid;
t_SDP_Addresses devs;
u_int16 criteria;
t_SDP_SearchPattern pattern;
t_SDP_AttributeIDs attribs;
t_SDP_StopRule rule;
t_SDP_Results *pResults;
u_int8* finger;
u_int8 counter;
u_int16 aid;
u_int8 offset_len;
u_int32 length;
u_int32 outer;
u_int32 inner;
t_SDP_Element *pElement;
devs.numItems = 1;
devs.addresses = (t_bdaddr*)pMalloc(sizeof(t_bdaddr));
devs.addresses[0] = *address;
criteria = SDP_TRUSTED;
/* search pattern */
pattern.numItems = 1;
pattern.patternUUIDs = (u_int32*)pMalloc(4);
pattern.patternUUIDs[0] = SDP_SCLASS_UUID_IRMC_COMMAND;
/* attributes to retrieve */
attribs.numItems = 1;
attribs.attributeIDs = (u_int32*)pMalloc(12);
attribs.attributeIDs[0] = SDP_AID_PROTOCOL;
//attribs.attributeIDs[2] = SDP_AID_DATA_STORES;
/* stop rule */
rule.maxItems = 100;
rule.maxDuration = 60;
rule.maxBytes = 0xf000;
prh_sync_server_lock = pEventCreate(FALSE);
/* call a service search and do not retrieve the device name */
SDP_ServiceBrowse(&pResults,&devs,&pattern,&attribs,&rule,criteria,prh_obex_sync_server_search_callback);
pEventWait(prh_sync_server_lock);
if(!pResults->numElements)
{
*channel = 0xff;
return BT_NOERROR;
}
pElement = &(pResults->element);
if(pElement->dataLen == 2)
{
*channel = 0xff;
return BT_NOERROR;
}
finger = pElement->pData;
prh_sync_get_list_length(finger,&length,&offset_len);
finger+= offset_len;
prh_sync_get_list_length(finger,&length,&offset_len);
finger+= offset_len;
counter = length;
do {
counter--;
finger++; /* bypass type code */
aid = (finger[0] << 8) + finger[1];
finger+=2;
counter-=2;
switch(aid)
{
case SDP_AID_PROTOCOL:
prh_sync_get_list_length(finger,&length,&offset_len);
finger += offset_len;
counter -= offset_len;
outer = length;
do {
do {
prh_sync_get_list_length(finger,&length,&offset_len);
finger +=offset_len;
counter -=offset_len;
outer -=offset_len;
inner = length;
prh_sync_read_uuid(finger,&uuid,&offset_len);
finger += offset_len;
counter -= offset_len;
outer -= offset_len;
inner -= offset_len;
if(uuid == SDP_PROTOCOL_UUID_RFCOMM && inner)
{
*channel = finger[1];
finger+=2;
counter-=2;
inner-=2;
outer-=2;
} else {
finger += inner;
counter -= inner;
outer -= inner;
inner = 0;
}
} while(inner);
} while (outer);
break;
default:
/* I will do this another time */
break;
}
} while (counter);
return BT_NOERROR;
}
void rdabt_SDP_serviceSearch(bt_bm_service_search_req_struct * msg_p)
{
t_SDP_Addresses devices;
t_SDP_SearchPattern pattern;
t_SDP_AttributeIDs attributes;
t_SDP_StopRule rule;
u_int16 criteria=0;
t_bdaddr bdAddr;
u_int32 cod = 0;
btbm_bd_addr_t bd_addr;
kal_prompt_trace(1,"--> rdabt_SDP_serviceSearch");
BDADDR_Set_LAP(&bdAddr,msg_p ->bd_addr.lap);
BDADDR_Set_UAP(&bdAddr,msg_p ->bd_addr.uap);
BDADDR_Set_NAP(&bdAddr,msg_p ->bd_addr.nap);
bd_addr = msg_p->bd_addr;
bth_get_specified_device_class(bd_addr, &cod);
kal_prompt_trace(1,"--> rdabt_SDP_serviceSearch, cod == %d", cod);
devices.numItems = 1;
devices.addresses = ( t_bdaddr *)pMalloc(sizeof(t_bdaddr));
if(devices.addresses)
devices.addresses[0] = bdAddr;
pattern.numItems = 1;
pattern.patternUUIDs = (u_int32*)pMalloc(pattern.numItems*sizeof(u_int32));
if(pattern.patternUUIDs)
pattern.patternUUIDs[0] = SDP_PROTOCOL_UUID_L2CAP;
if(cod & 0x200)
attributes.numItems = 1;
else
attributes.numItems = 4;
attributes.attributeIDs =(u_int32*)pMalloc(attributes.numItems*sizeof(u_int32));
if(attributes.attributeIDs)
{
attributes.attributeIDs[0] = SDP_AID_SERVICE_CLASS;
if(!(cod&0x200))
{
attributes.attributeIDs[1] = SDP_AID_PROFILE_LIST;
attributes.attributeIDs[2] = SDP_AID_PROTOCOL;
attributes.attributeIDs[3] = SDP_AID_SUPPORTED_FEATURES;
}
}
rule.maxBytes = 512;
rule.maxDuration = 50;
rule.maxItems = 10;
SDP_ServiceBrowse(&pResults,&devices,&pattern,&attributes,&rule,criteria,(sdp_api_callback)rdabt_ServiceSearch_cb);
pFree(devices.addresses);
pFree(pattern.patternUUIDs);
pFree(attributes.attributeIDs);
}
/***********************************************************************
*
* FUNCTION NAME: OBEX_TransportListen_RF
* DESCRIPTION:
This function should be generic
* KNOWN ISSUES:
none.
*
*
***********************************************************************/
APIDECL1 t_api APIDECL2 OBEX_TransportListen_RF(u_int8 server_channel,u_int32* tid_b, void (*disconnect)(u_int32 tid_s))
{
struct prh_obex_transport* pTransport;
u_int8 match = 0;
pTransport = prh_obex_server_transport;
if(!pTransport)
{
/* allocate */
pTransport = pMalloc(sizeof(struct prh_obex_transport));
if(!pTransport)
return BT_NORESOURCES;
pTransport->p_next = 0x00;
prh_obex_server_transport = pTransport;
goto end;
}
/* search for entry */
do {
if(pTransport->type == 0 && pTransport->use.rfcomm.server_channel == server_channel)
{
match = 1;
break;
}
if(!pTransport->p_next)
{
/* end of list */
pTransport->p_next = pMalloc(sizeof(struct prh_obex_transport));
if(!pTransport->p_next)
return BT_NORESOURCES;
pTransport = pTransport->p_next;
pTransport->p_next = 0x00;
break;
}
} while((pTransport = pTransport->p_next));
end:
if(!match)
{
/* a new one */
pTransport->type = 0;
pTransport->tid = prh_obex_allocate_tid();
/* prh_obex_t_list.rf.address*/
pTransport->use.rfcomm.server_channel = server_channel;
}
pTransport->use.rfcomm.flow_state = PRH_RFCOMM_FLOW_DATA_GO; /* it might not be needed here */
pTransport->use.rfcomm.disconnect = disconnect;
prh_obex_tal_rfcomm_reg_port(server_channel);
*tid_b = pTransport->tid;
return BT_NOERROR;
}
APIDECL1 t_api APIDECL2 TCS_TLRegister(u_int8 flag, struct st_t_TCS_callbacks *callbacks, t_bdaddr *GWBDAddress, u_int8 connectToGW, void (*callback)(t_api status))
{
t_api status;
int i;
#if (PRH_TCS_TERMINAL && PRH_TCS_GATEWAY)
tcsMode = PRH_TCS_MODE_TERMINAL;
#endif
if( !(PRH_TCS_ENABLE_TCSCORDLESS(flag)) && !(PRH_TCS_ENABLE_TCSBIN(flag)) )
return BT_INVALIDPARAM;
/* Use flags to register for TCSBIN and TCSCORDLESS psms */
if(BT_NOERROR != (status = prh_tcs_init(flag)))
return status;
if(BT_NOERROR != (status = prh_tcs_register_connectionCallbacks(prh_tcs_cc_core_TLconnectIndCallback, prh_tcs_cc_core_TLdisconnectIndCallback)))
return status;
if(!callbacks)
return BT_INVALIDPARAM;
/* Currently only allowing one TL instance, so return BT_NORESOURCES */
if(TCSInstance.callbacks)
return BT_NORESOURCES;
TCSInstance.callbacks = (struct st_t_TCS_callbacks*)pMalloc(sizeof(struct st_t_TCS_callbacks));
if(!TCSInstance.callbacks)
return BT_NORESOURCES;
pMemcpy(TCSInstance.callbacks, (struct st_t_TCS_callbacks*)callbacks, sizeof(struct st_t_TCS_callbacks));
if(PRH_TCS_ENABLE_TCSCORDLESS(flag))
{
/* For receiving broadcast data from GW */
status = L2_EnableConnectionlessTraffic(PRH_TCS_PSM_TCSCORDLESS);
if(status != BT_NOERROR)
{
/* 4 now take no action as we still want to continue even though
we can't get broadcast info. may want to review this when
a definite scheme (re broadcast)for call setup is in place
ie if broadcast all the time then no point in continuing here*/
}
if(GWBDAddress)
pMemcpy(&(TCSInstance.GWBDAddress.bytes), GWBDAddress->bytes, 6);
for(i=0; i<PRH_TCS_MAX_CALLS_PER_DEVICE; i++)
TCSInstance.callInstance[i] = NULL;
if(connectToGW)
{
if(!callback)
return BT_INVALIDPARAM;
registerCompleteCB = callback;
/* NULL is passed as callInstance because no call is being initiated */
prh_tcs_connect_device_control(TCSInstance.GWBDAddress, PRH_TCS_PSM_TCSCORDLESS, NULL, prh_tcs_cc_callback_L2ConnComplete);
return BT_PENDING;
}
}
return BT_NOERROR;
}
int prh_test_rfcomm_pe_connect_port(t_bdaddr remote_bd_addr, prh_t_rfcomm_schan rem_schan, char *pName, prh_t_rfcomm_dlci *dlci, struct prh_rfcomm_pe_port **pe_info_ptr, u_int16 max_frame_size)
{
struct prh_rfcomm_multi_cb multi_cbs;
struct prh_rfcomm_dlc_cb dlc_cbs;
prh_t_rfcomm_dlc_params dlc_params;
int dbit;
t_api ret;
struct prh_rfcomm_l2cap_inst *l2cap_inst;
void *multi_inst;
struct prh_rfcomm_pe_port *pe_info;
/* Allocate memory for pe_info */
pe_info=(struct prh_rfcomm_pe_port *)pMalloc(sizeof(struct prh_rfcomm_pe_port));
if (pe_info==pNULL)
return BT_NORESOURCES;
pe_info->portname=(char *)pMalloc(pStrlen(pName)+1);
if (pe_info->portname==pNULL)
{
pFree(pe_info);
return BT_NORESOURCES;
}
/* copy in portname */
pStrcpy(pe_info->portname, pName);
/* Check does a multiplexer to the remote BD Address exist already */
ret=prh_rfcomm_lookup_l2cap_inst_by_bd_addr(remote_bd_addr, &l2cap_inst);
if (ret==BT_INVALIDPARAM)
{
ret=prh_test_rfcomm_open_multiplexer(remote_bd_addr, &multi_inst);
if (ret!=BT_NOERROR)
return ret;
dbit=1;
}
else
{
dbit=l2cap_inst->initiating;
multi_inst=(void *)l2cap_inst;
}
/* Either Multiplexer is started or we've returned */
dlc_params.max_frame_size=max_frame_size;
dlc_params.priority=0;
/* Generate the DLCI from direction and remote server channel */
pe_info->dlci=*dlci=((!dbit) | (rem_schan<<1));
pe_info->multi_inst=multi_inst;
pe_info->flow_sem=pSemCreate(0);
pe_info->remote_device_addr=remote_bd_addr;
pe_info->portnum=0;
pe_info->mode=PRH_PORT_ENT_CLIENT_CONN;
prh_rfcomm_init_pe_struct(pe_info);
prh_test_rfcomm_dlc_estab(remote_bd_addr, *dlci,multi_inst, &dlc_params);
pSemLock(test_prh_rfcomm_ms.sem, 0);
pSemFree(test_prh_rfcomm_ms.sem);
if (test_prh_rfcomm_ms.status==PRH_RFCOMM_REFUSE)
return BT_UNKNOWNERROR;
else
{
prh_rfcomm_pe_add_port_entity(pe_info);
*pe_info_ptr=pe_info;
return BT_NOERROR;
}
}