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OpenXG UE
Commit 6fb57d74 authored by laurent's avatar laurent
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issue 403

parent a68f851f
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Showing with 986 additions and 1078 deletions
openair1/PHY/CODING/TESTBENCH/polartest.c
View file @ 6fb57d74
......@@ -158,9 +158,7 @@ int main(int argc, char *argv[]) {
int16_t channelOutput_int16[coderLength];
t_nrPolar_paramsPtr nrPolar_params = NULL, currentPtr = NULL;
nr_polar_init(&nrPolar_params, polarMessageType, testLength, aggregation_level);
currentPtr = nr_polar_params(nrPolar_params, polarMessageType, testLength, aggregation_level);
t_nrPolar_params currentPtr = nr_polar_params(polarMessageType, testLength, aggregation_level);
#ifdef DEBUG_DCI_POLAR_PARAMS
uint32_t dci_pdu[4];
......@@ -173,8 +171,7 @@ int main(int argc, char *argv[]) {
uint16_t size=41;
uint16_t rnti=3;
aggregation_level=8;
nr_polar_init(&nrPolar_params, 1, size, aggregation_level);
t_nrPolar_paramsPtr currentPtrDCI=nr_polar_params(nrPolar_params, 1, size, aggregation_level);
t_nrPolar_params * currentPtrDCI=nr_polar_params(1, size, aggregation_level);
polar_encoder_dci(dci_pdu, encoder_output, currentPtrDCI, rnti);
for (int i=0;i<54;i++)
......
openair1/PHY/CODING/nrPolar_tools/nr_polar_decoder.c
View file @ 6fb57d74
......@@ -42,7 +42,7 @@
int8_t polar_decoder(
double *input,
uint8_t *out,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params * polarParams,
uint8_t listSize,
uint8_t pathMetricAppr)
{
......@@ -282,7 +282,7 @@ int8_t polar_decoder(
int8_t polar_decoder_aPriori(double *input,
uint32_t *out,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params * polarParams,
uint8_t listSize,
uint8_t pathMetricAppr,
double *aPrioriPayload)
......@@ -538,7 +538,7 @@ int8_t polar_decoder_aPriori(double *input,
int8_t polar_decoder_aPriori_timing(double *input,
uint32_t *out,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params * polarParams,
uint8_t listSize,
uint8_t pathMetricAppr,
double *aPrioriPayload,
......@@ -793,7 +793,7 @@ int8_t polar_decoder_aPriori_timing(double *input,
int8_t polar_decoder_dci(double *input,
uint32_t *out,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params * polarParams,
uint8_t listSize,
uint8_t pathMetricAppr,
uint16_t n_RNTI)
......@@ -1073,7 +1073,7 @@ void init_polar_deinterleaver_table(t_nrPolar_params *polarParams) {
uint32_t polar_decoder_int16(int16_t *input,
uint64_t *out,
t_nrPolar_params *polarParams)
const t_nrPolar_params *polarParams)
{
......
openair1/PHY/CODING/nrPolar_tools/nr_polar_defs.h
View file @ 6fb57d74
......@@ -136,42 +136,41 @@ struct nrPolar_params {
decoder_tree_t tree;
} __attribute__ ((__packed__));
typedef struct nrPolar_params t_nrPolar_params;
typedef t_nrPolar_params *t_nrPolar_paramsPtr;
void polar_encoder(uint32_t *input,
uint32_t *output,
t_nrPolar_paramsPtr polarParams);
t_nrPolar_params* polarParams);
void polar_encoder_dci(uint32_t *in,
uint32_t *out,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params* polarParams,
uint16_t n_RNTI);
void polar_encoder_fast(uint64_t *A,
uint32_t *out,
int32_t crcmask,
t_nrPolar_paramsPtr polarParams);
t_nrPolar_params* polarParams);
int8_t polar_decoder(double *input,
uint8_t *output,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params* polarParams,
uint8_t listSize,
uint8_t pathMetricAppr);
uint32_t polar_decoder_int16(int16_t *input,
uint64_t *out,
t_nrPolar_params *polarParams);
const t_nrPolar_params *polarParams);
int8_t polar_decoder_aPriori(double *input,
uint32_t *output,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params* polarParams,
uint8_t listSize,
uint8_t pathMetricAppr,
double *aPrioriPayload);
int8_t polar_decoder_aPriori_timing(double *input,
uint32_t *output,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params* polarParams,
uint8_t listSize,
uint8_t pathMetricAppr,
double *aPrioriPayload,
......@@ -180,7 +179,7 @@ int8_t polar_decoder_aPriori_timing(double *input,
int8_t polar_decoder_dci(double *input,
uint32_t *out,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params* polarParams,
uint8_t listSize,
uint8_t pathMetricAppr,
uint16_t n_RNTI);
......@@ -189,18 +188,12 @@ void generic_polar_decoder(t_nrPolar_params *,
decoder_node_t *);
void build_decoder_tree(t_nrPolar_params *pp);
void build_polar_tables(t_nrPolar_paramsPtr polarParams);
void build_polar_tables(t_nrPolar_params* polarParams);
void init_polar_deinterleaver_table(t_nrPolar_params *polarParams);
void nr_polar_init(t_nrPolar_paramsPtr *polarParams,
int8_t messageType,
uint16_t messageLength,
uint8_t aggregation_level);
void nr_polar_print_polarParams(t_nrPolar_params* polarParams);
void nr_polar_print_polarParams(t_nrPolar_paramsPtr polarParams);
t_nrPolar_paramsPtr nr_polar_params (t_nrPolar_paramsPtr polarParams,
int8_t messageType,
t_nrPolar_params * nr_polar_params ( int8_t messageType,
uint16_t messageLength,
uint8_t aggregation_level);
......
openair1/PHY/CODING/nrPolar_tools/nr_polar_encoder.c
View file @ 6fb57d74
......@@ -42,7 +42,7 @@
void polar_encoder(uint32_t *in,
uint32_t *out,
t_nrPolar_paramsPtr polarParams)
t_nrPolar_params * polarParams)
{
if (polarParams->idx == 0){//PBCH
/*
......@@ -151,7 +151,7 @@ nr_bit2byte_uint32_8_t((uint32_t*)&B, polarParams->K, polarParams->nr_polar_B);*
void polar_encoder_dci(uint32_t *in,
uint32_t *out,
t_nrPolar_paramsPtr polarParams,
t_nrPolar_params * polarParams,
uint16_t n_RNTI)
{
#ifdef DEBUG_POLAR_ENCODER_DCI
......@@ -284,9 +284,9 @@ void polar_encoder_dci(uint32_t *in,
#endif
}
static inline void polar_rate_matching(t_nrPolar_paramsPtr polarParams,void *in,void *out) __attribute__((always_inline));
static inline void polar_rate_matching(t_nrPolar_params * polarParams,void *in,void *out) __attribute__((always_inline));
static inline void polar_rate_matching(t_nrPolar_paramsPtr polarParams,void *in,void *out) {
static inline void polar_rate_matching(t_nrPolar_params * polarParams,void *in,void *out) {
if (polarParams->groupsize == 8)
for (int i=0;i<polarParams->encoderLength>>3;i++) ((uint8_t*)out)[i] = ((uint8_t *)in)[polarParams->rm_tab[i]];
......@@ -296,7 +296,7 @@ static inline void polar_rate_matching(t_nrPolar_paramsPtr polarParams,void *in,
}
}
void build_polar_tables(t_nrPolar_paramsPtr polarParams) {
void build_polar_tables(t_nrPolar_params * polarParams) {
// build table b -> c'
......@@ -388,7 +388,7 @@ void build_polar_tables(t_nrPolar_paramsPtr polarParams) {
void polar_encoder_fast(uint64_t *A,
uint32_t *out,
int32_t crcmask,
t_nrPolar_paramsPtr polarParams) {
t_nrPolar_params * polarParams) {
AssertFatal(polarParams->K > 32, "K = %d < 33, is not supported yet\n",polarParams->K);
AssertFatal(polarParams->K < 129, "K = %d > 128, is not supported yet\n",polarParams->K);
......
openair1/PHY/CODING/nr_polar_init.c
View file @ 6fb57d74
......@@ -41,12 +41,12 @@ static int intcmp(const void *p1,const void *p2) {
return(*(int16_t*)p1 > *(int16_t*)p2);
}
void nr_polar_init(t_nrPolar_paramsPtr *polarParams,
static void nr_polar_init(t_nrPolar_params * *polarParams,
int8_t messageType,
uint16_t messageLength,
uint8_t aggregation_level)
{
t_nrPolar_paramsPtr currentPtr = *polarParams;
t_nrPolar_params * currentPtr = *polarParams;
uint16_t aggregation_prime = nr_polar_aggregation_prime(aggregation_level);
//Parse the list. If the node is already created, return without initialization.
......@@ -58,7 +58,7 @@ void nr_polar_init(t_nrPolar_paramsPtr *polarParams,
// printf("currentPtr %p (polarParams %p)\n",currentPtr,polarParams);
//Else, initialize and add node to the end of the linked list.
t_nrPolar_paramsPtr newPolarInitNode = malloc(sizeof(t_nrPolar_params));
t_nrPolar_params * newPolarInitNode = malloc(sizeof(t_nrPolar_params));
if (newPolarInitNode != NULL) {
......@@ -170,30 +170,15 @@ void nr_polar_init(t_nrPolar_paramsPtr *polarParams,
//printf("decoder tree nodes %d\n",newPolarInitNode->tree.num_nodes);
} else {
AssertFatal(1 == 0, "[nr_polar_init] New t_nrPolar_paramsPtr could not be created");
AssertFatal(1 == 0, "[nr_polar_init] New t_nrPolar_params * could not be created");
}
currentPtr = *polarParams;
//If polarParams is empty:
if (currentPtr == NULL)
{
*polarParams = newPolarInitNode;
//printf("Creating first polarParams entry index %d, %p\n",newPolarInitNode->idx,*polarParams);
return;
}
//Else, add node to the end of the linked list.
while (currentPtr->nextPtr != NULL) {
currentPtr = currentPtr->nextPtr;
}
currentPtr->nextPtr= newPolarInitNode;
printf("Adding new polarParams entry to list index %d,%p\n",
newPolarInitNode->idx,
currentPtr->nextPtr);
newPolarInitNode->nextPtr=*polarParams;
*polarParams=newPolarInitNode;
return;
}
void nr_polar_print_polarParams(t_nrPolar_paramsPtr polarParams)
void nr_polar_print_polarParams(t_nrPolar_params * polarParams)
{
uint8_t i = 0;
if (polarParams == NULL) {
......@@ -208,23 +193,22 @@ void nr_polar_print_polarParams(t_nrPolar_paramsPtr polarParams)
return;
}
t_nrPolar_paramsPtr nr_polar_params (t_nrPolar_paramsPtr polarParams,
int8_t messageType,
t_nrPolar_params * nr_polar_params ( int8_t messageType,
uint16_t messageLength,
uint8_t aggregation_level)
{
t_nrPolar_paramsPtr currentPtr = NULL;
static t_nrPolar_params * polarList = NULL;
nr_polar_init(&polarList, messageType,messageLength,aggregation_level);
t_nrPolar_params * polarParams=polarList;
const int tag=messageType * messageLength * nr_polar_aggregation_prime(aggregation_level);
while (polarParams != NULL) {
if (polarParams->idx ==
(messageType * messageLength * (nr_polar_aggregation_prime(aggregation_level)) )) {
currentPtr = polarParams;
break;
} else {
if (polarParams->idx == tag)
return polarParams;
polarParams = polarParams->nextPtr;
}
}
return currentPtr;
AssertFatal(false,"Polar Init tables internal failure\n");
return NULL;
}
uint16_t nr_polar_aggregation_prime (uint8_t aggregation_level)
......
openair1/PHY/INIT/nr_init.c
View file @ 6fb57d74
......@@ -126,11 +126,6 @@ int phy_init_nr_gNB(PHY_VARS_gNB *gNB,
nr_init_pbch_dmrs(gNB);
// Polar encoder init for PBCH
nr_polar_init(&gNB->nrPolar_params,
NR_POLAR_PBCH_MESSAGE_TYPE,
NR_POLAR_PBCH_PAYLOAD_BITS,
NR_POLAR_PBCH_AGGREGATION_LEVEL);
//PDCCH DMRS init
gNB->nr_gold_pdcch_dmrs = (uint32_t ***)malloc16(fp->slots_per_frame*sizeof(uint32_t**));
uint32_t ***pdcch_dmrs = gNB->nr_gold_pdcch_dmrs;
......
openair1/PHY/NR_TRANSPORT/nr_dci.c
View file @ 6fb57d74
......@@ -159,7 +159,6 @@ void nr_pdcch_scrambling(uint32_t *in,
}
uint8_t nr_generate_dci_top(NR_gNB_PDCCH pdcch_vars,
t_nrPolar_paramsPtr *nrPolar_params,
uint32_t **gold_pdcch_dmrs,
int32_t* txdataF,
int16_t amp,
......@@ -249,8 +248,7 @@ uint8_t nr_generate_dci_top(NR_gNB_PDCCH pdcch_vars,
uint16_t Nid = (pdcch_params.search_space_type == NFAPI_NR_SEARCH_SPACE_TYPE_UE_SPECIFIC)?
pdcch_params.scrambling_id : config.sch_config.physical_cell_id.value;
nr_polar_init(nrPolar_params, NR_POLAR_DCI_MESSAGE_TYPE, dci_alloc.size, dci_alloc.L);
t_nrPolar_paramsPtr currentPtr = nr_polar_params(*nrPolar_params, NR_POLAR_DCI_MESSAGE_TYPE, dci_alloc.size, dci_alloc.L);
t_nrPolar_params * currentPtr = nr_polar_params(NR_POLAR_DCI_MESSAGE_TYPE, dci_alloc.size, dci_alloc.L);
polar_encoder_fast(dci_alloc.dci_pdu, encoder_output, pdcch_params.rnti,currentPtr);
......
openair1/PHY/NR_TRANSPORT/nr_dci.h
View file @ 6fb57d74
......@@ -33,7 +33,6 @@ uint16_t nr_get_dci_size(nfapi_nr_dci_format_e format,
nfapi_nr_config_request_t* config);
uint8_t nr_generate_dci_top(NR_gNB_PDCCH pdcch_vars,
t_nrPolar_paramsPtr *nrPolar_params,
uint32_t **gold_pdcch_dmrs,
int32_t* txdataF,
int16_t amp,
......
openair1/PHY/NR_TRANSPORT/nr_pbch.c
View file @ 6fb57d74
......@@ -225,7 +225,6 @@ void nr_init_pbch_interleaver(uint8_t *interleaver) {
}
int nr_generate_pbch(NR_gNB_PBCH *pbch,
t_nrPolar_paramsPtr polar_params,
uint8_t *pbch_pdu,
uint8_t *interleaver,
int32_t *txdataF,
......@@ -307,7 +306,9 @@ int nr_generate_pbch(NR_gNB_PBCH *pbch,
/// CRC, coding and rate matching
polar_encoder_fast (&a_reversed, (uint32_t*)pbch->pbch_e, 0, polar_params);
polar_encoder_fast (&a_reversed, (uint32_t*)pbch->pbch_e, 0,
nr_polar_params( NR_POLAR_PBCH_MESSAGE_TYPE, NR_POLAR_PBCH_PAYLOAD_BITS, NR_POLAR_PBCH_AGGREGATION_LEVEL)
);
#ifdef DEBUG_PBCH_ENCODING
printf("Channel coding:\n");
for (int i=0; i<NR_POLAR_PBCH_E_DWORD; i++)
......
openair1/PHY/NR_TRANSPORT/nr_transport.h
View file @ 6fb57d74
......@@ -85,7 +85,6 @@ void nr_pbch_scrambling(NR_gNB_PBCH *pbch,
@returns 0 on success
*/
int nr_generate_pbch(NR_gNB_PBCH *pbch,
t_nrPolar_paramsPtr polar_params,
uint8_t *pbch_pdu,
uint8_t *interleaver,
int32_t *txdataF,
......
openair1/PHY/NR_UE_TRANSPORT/dci_nr.c
View file @ 6fb57d74
......@@ -1136,7 +1136,6 @@ void nr_dci_decoding_procedure0(int s,
int coreset_nbr_cce_per_symbol=0;
t_nrPolar_paramsPtr nrPolar_params = pdcch_vars[eNB_id]->nrPolar_params;
#ifdef NR_PDCCH_DCI_DEBUG
printf("\t\t<-NR_PDCCH_DCI_DEBUG (nr_dci_decoding_procedure0)-> format_found is %d \n", *format_found);
......@@ -1364,9 +1363,7 @@ void nr_dci_decoding_procedure0(int s,
uint64_t dci_estimation[2]={0};
nr_polar_init(&nrPolar_params, 1, sizeof_bits, L2);
t_nrPolar_paramsPtr currentPtrDCI=nr_polar_params(nrPolar_params, 1, sizeof_bits, L2);
const t_nrPolar_params* currentPtrDCI=nr_polar_params(1, sizeof_bits, L2);
decoderState = polar_decoder_int16(&pdcch_vars[eNB_id]->e_rx[CCEind*9*6*2],
dci_estimation,
currentPtrDCI);
......
openair1/PHY/NR_UE_TRANSPORT/nr_pbch.c
View file @ 6fb57d74
......@@ -566,15 +566,7 @@ int nr_rx_pbch( PHY_VARS_NR_UE *ue,
//polar decoding de-rate matching
nr_polar_init(&nr_ue_pbch_vars->nrPolar_params,
NR_POLAR_PBCH_MESSAGE_TYPE,
NR_POLAR_PBCH_PAYLOAD_BITS,
NR_POLAR_PBCH_AGGREGATION_LEVEL);
AssertFatal(nr_ue_pbch_vars->nrPolar_params != NULL,"nr_ue_pbch_vars->nrPolar_params is null\n");
t_nrPolar_params *currentPtr = nr_polar_params(nr_ue_pbch_vars->nrPolar_params, NR_POLAR_PBCH_MESSAGE_TYPE, NR_POLAR_PBCH_PAYLOAD_BITS, NR_POLAR_PBCH_AGGREGATION_LEVEL);
const t_nrPolar_params *currentPtr = nr_polar_params( NR_POLAR_PBCH_MESSAGE_TYPE, NR_POLAR_PBCH_PAYLOAD_BITS, NR_POLAR_PBCH_AGGREGATION_LEVEL);
decoderState = polar_decoder_int16(pbch_e_rx,(uint64_t*)&nr_ue_pbch_vars->pbch_a_prime,currentPtr);
......
openair1/PHY/defs_gNB.h
View file @ 6fb57d74
......@@ -391,7 +391,6 @@ typedef struct PHY_VARS_gNB_s {
Sched_Rsp_t Sched_INFO;
NR_gNB_PDCCH pdcch_vars;
NR_gNB_PBCH pbch;
t_nrPolar_paramsPtr nrPolar_params;
LTE_eNB_PHICH phich_vars[2];
NR_gNB_COMMON common_vars;
......
openair1/PHY/defs_nr_UE.h
View file @ 6fb57d74
......@@ -892,7 +892,6 @@ typedef struct {
//Check for specific DCIFormat and AgregationLevel
uint8_t dciFormat;
uint8_t agregationLevel;
t_nrPolar_paramsPtr nrPolar_params;
#ifdef NR_PDCCH_DEFS_NR_UE
int nb_searchSpaces;
// CORESET structure, where maximum number of CORESETs to be handled is 3 (according to 38.331 V15.1.0)
......@@ -933,8 +932,6 @@ typedef struct {
/// \brief Pointer to PBCH decoded output.
/// - first index: ? [0..63] (hard coded)
uint8_t *decoded_output;
/// polar decoder parameters
t_nrPolar_paramsPtr nrPolar_params;
/// \brief Total number of PDU errors.
uint32_t pdu_errors;
/// \brief Total number of PDU errors 128 frames ago.
......
openair1/SCHED_NR/phy_procedures_nr_gNB.c
View file @ 6fb57d74
......@@ -149,7 +149,6 @@ void nr_common_signal_procedures (PHY_VARS_gNB *gNB,int frame, int slot) {
nr_generate_pbch_dmrs(gNB->nr_gold_pbch_dmrs[n_hf][ssb_index],txdataF[0], AMP, ssb_start_symbol, cfg, fp);
nr_generate_pbch(&gNB->pbch,
gNB->nrPolar_params,
pbch_pdu,
gNB->nr_pbch_interleaver,
txdataF[0],
......@@ -201,7 +200,6 @@ void phy_procedures_gNB_TX(PHY_VARS_gNB *gNB,
if (nfapi_mode == 0 || nfapi_mode == 1){
nr_generate_dci_top(gNB->pdcch_vars,
&gNB->nrPolar_params,
gNB->nr_gold_pdcch_dmrs[slot],
gNB->common_vars.txdataF[0],
AMP, *fp, *cfg);
......
targets/ARCH/rfsimulator/simulator.c
View file @ 6fb57d74
......@@ -82,6 +82,17 @@ void removeCirBuf(rfsimulator_state_t *bridge, int sock) {
bridge->buf[sock].conn_sock=-1;
}
void socketError(rfsimulator_state_t *bridge, int sock) {
if (bridge->buf[sock].conn_sock!=-1) {
LOG_W(HW,"Lost socket \n");
removeCirBuf(bridge, sock);
if (bridge->typeStamp==MAGICUE)
exit(1);
}
}
#define helpTxt "\
\x1b[31m\
rfsimulator: error: you have to run one UE and one eNB\n\
......@@ -108,32 +119,28 @@ void setblocking(int sock, enum blocking_t active) {
static bool flushInput(rfsimulator_state_t *t);
int fullwrite(int fd, void *_buf, int count, rfsimulator_state_t *t) {
void fullwrite(int fd, void *_buf, int count, rfsimulator_state_t *t) {
char *buf = _buf;
int ret = 0;
int l;
setblocking(fd, notBlocking);
while (count) {
l = write(fd, buf, count);
if (l <= 0) {
if (errno==EINTR)
continue;
if(errno==EAGAIN) {
flushInput(t);
continue;
}
else
return -1;
flushInput(t);
continue;
} else
return;
}
count -= l;
buf += l;
ret += l;
}
return ret;
}
int server_start(openair0_device *device) {
......@@ -143,9 +150,12 @@ int server_start(openair0_device *device) {
int enable = 1;
AssertFatal(setsockopt(t->listen_sock, SOL_SOCKET, SO_REUSEADDR, &enable, sizeof(int)) == 0, "");
struct sockaddr_in addr = {
sin_family: AF_INET,
sin_port: htons(PORT),
sin_addr: { s_addr: INADDR_ANY }
sin_family:
AF_INET,
sin_port:
htons(PORT),
sin_addr:
{ s_addr: INADDR_ANY }
};
bind(t->listen_sock, (struct sockaddr *)&addr, sizeof(addr));
AssertFatal(listen(t->listen_sock, 5) == 0, "");
......@@ -162,9 +172,12 @@ int start_ue(openair0_device *device) {
int sock;
AssertFatal((sock = socket(AF_INET, SOCK_STREAM, 0)) >= 0, "");
struct sockaddr_in addr = {
sin_family: AF_INET,
sin_port: htons(PORT),
sin_addr: { s_addr: INADDR_ANY }
sin_family:
AF_INET,
sin_port:
htons(PORT),
sin_addr:
{ s_addr: INADDR_ANY }
};
addr.sin_addr.s_addr = inet_addr(t->ip);
bool connected=false;
......@@ -195,8 +208,7 @@ int rfsimulator_write(openair0_device *device, openair0_timestamp timestamp, voi
if (ptr->conn_sock >= 0 ) {
transferHeader header= {t->typeStamp, nsamps, nbAnt, timestamp};
int n=-1;
AssertFatal( fullwrite(ptr->conn_sock,&header, sizeof(header), t) == sizeof(header), "");
fullwrite(ptr->conn_sock,&header, sizeof(header), t);
sample_t tmpSamples[nsamps][nbAnt];
for(int a=0; a<nbAnt; a++) {
......@@ -206,13 +218,8 @@ int rfsimulator_write(openair0_device *device, openair0_timestamp timestamp, voi
tmpSamples[s][a]=in[s];
}
n = fullwrite(ptr->conn_sock, (void *)tmpSamples, sampleToByte(nsamps,nbAnt), t);
if (n != sampleToByte(nsamps,nbAnt) ) {
LOG_E(HW,"rfsimulator: write error ret %d (wanted %ld) error %s\n", n, sampleToByte(nsamps,nbAnt), strerror(errno));
abort();
}
if (ptr->conn_sock >= 0 )
fullwrite(ptr->conn_sock, (void *)tmpSamples, sampleToByte(nsamps,nbAnt), t);
}
}
......@@ -241,17 +248,11 @@ static bool flushInput(rfsimulator_state_t *t) {
int conn_sock;
AssertFatal( (conn_sock = accept(t->listen_sock,NULL,NULL)) != -1, "");
setblocking(conn_sock, notBlocking);
allocCirBuf(t, conn_sock);
LOG_I(HW,"A ue connected\n");
} else {
if ( events[nbEv].events & (EPOLLHUP | EPOLLERR | EPOLLRDHUP) ) {
LOG_W(HW,"Lost socket\n");
removeCirBuf(t, fd);
if (t->typeStamp==MAGICUE)
exit(1);
socketError(t,fd);
continue;
}
......@@ -292,7 +293,8 @@ static bool flushInput(rfsimulator_state_t *t) {
AssertFatal( (t->typeStamp == MAGICUE && b->th.magic==MAGICeNB) ||
(t->typeStamp == MAGICeNB && b->th.magic==MAGICUE), "Socket Error in protocol");
b->headerMode=false;
b->alreadyRead=true;
b->alreadyRead=true;
if ( b->lastReceivedTS != b->th.timestamp) {
int nbAnt= b->th.nbAnt;
......@@ -331,7 +333,10 @@ static bool flushInput(rfsimulator_state_t *t) {
}
int rfsimulator_read(openair0_device *device, openair0_timestamp *ptimestamp, void **samplesVoid, int nsamps, int nbAnt) {
if (nbAnt != 1) { LOG_E(HW, "rfsimulator: only 1 antenna tested\n"); exit(1); }
if (nbAnt != 1) {
LOG_E(HW, "rfsimulator: only 1 antenna tested\n");
exit(1);
}
rfsimulator_state_t *t = device->priv;
LOG_D(HW, "Enter rfsimulator_read, expect %d samples, will release at TS: %ld\n", nsamps, t->nextTimestamp+nsamps);
......@@ -351,7 +356,6 @@ int rfsimulator_read(openair0_device *device, openair0_timestamp *ptimestamp, vo
t->nextTimestamp+=nsamps;
LOG_W(HW,"Generated void samples for Rx: %ld\n", t->nextTimestamp);
*ptimestamp = t->nextTimestamp-nsamps;
return nsamps;
}
......@@ -443,8 +447,8 @@ int device_init(openair0_device *device, openair0_config_t *openair0_cfg) {
}
rfsimulator->typeStamp = strncasecmp(rfsimulator->ip,"enb",3) == 0 ?
MAGICeNB:
MAGICUE;
MAGICeNB:
MAGICUE;
LOG_I(HW,"rfsimulator: running as %s\n", rfsimulator-> typeStamp == MAGICeNB ? "eNB" : "UE");
device->trx_start_func = rfsimulator->typeStamp == MAGICeNB ?
server_start :
......
targets/RT/USER/nr-ue.c
View file @ 6fb57d74
......@@ -60,9 +60,9 @@
#include "T.h"
#ifdef XFORMS
#include "PHY/TOOLS/nr_phy_scope.h"
#include "PHY/TOOLS/nr_phy_scope.h"
extern char do_forms;
extern char do_forms;
#endif
......@@ -138,9 +138,9 @@ extern double cpuf;
#define FIFO_PRIORITY 40
typedef enum {
pss=0,
pbch=1,
si=2
pss=0,
pbch=1,
si=2
} sync_mode_t;
void init_UE_threads(PHY_VARS_NR_UE *UE);
......@@ -155,71 +155,69 @@ int32_t **txdata;
#define SAIF_ENABLED
#ifdef SAIF_ENABLED
uint64_t g_ue_rx_thread_busy = 0;
uint64_t g_ue_rx_thread_busy = 0;
#endif
typedef struct eutra_band_s {
int16_t band;
uint32_t ul_min;
uint32_t ul_max;
uint32_t dl_min;
uint32_t dl_max;
lte_frame_type_t frame_type;
int16_t band;
uint32_t ul_min;
uint32_t ul_max;
uint32_t dl_min;
uint32_t dl_max;
lte_frame_type_t frame_type;
} eutra_band_t;
typedef struct band_info_s {
int nbands;
eutra_band_t band_info[100];
int nbands;
eutra_band_t band_info[100];
} band_info_t;
band_info_t bands_to_scan;
static const eutra_band_t eutra_bands[] = {
{ 1, 1920 * MHz, 1980 * MHz, 2110 * MHz, 2170 * MHz, FDD},
{ 2, 1850 * MHz, 1910 * MHz, 1930 * MHz, 1990 * MHz, FDD},
{ 3, 1710 * MHz, 1785 * MHz, 1805 * MHz, 1880 * MHz, FDD},
{ 4, 1710 * MHz, 1755 * MHz, 2110 * MHz, 2155 * MHz, FDD},
{ 5, 824 * MHz, 849 * MHz, 869 * MHz, 894 * MHz, FDD},
{ 6, 830 * MHz, 840 * MHz, 875 * MHz, 885 * MHz, FDD},
{ 7, 2500 * MHz, 2570 * MHz, 2620 * MHz, 2690 * MHz, FDD},
{ 8, 880 * MHz, 915 * MHz, 925 * MHz, 960 * MHz, FDD},
{ 9, 1749900 * KHz, 1784900 * KHz, 1844900 * KHz, 1879900 * KHz, FDD},
{10, 1710 * MHz, 1770 * MHz, 2110 * MHz, 2170 * MHz, FDD},
{11, 1427900 * KHz, 1452900 * KHz, 1475900 * KHz, 1500900 * KHz, FDD},
{12, 698 * MHz, 716 * MHz, 728 * MHz, 746 * MHz, FDD},
{13, 777 * MHz, 787 * MHz, 746 * MHz, 756 * MHz, FDD},
{14, 788 * MHz, 798 * MHz, 758 * MHz, 768 * MHz, FDD},
{17, 704 * MHz, 716 * MHz, 734 * MHz, 746 * MHz, FDD},
{20, 832 * MHz, 862 * MHz, 791 * MHz, 821 * MHz, FDD},
{22, 3510 * MHz, 3590 * MHz, 3410 * MHz, 3490 * MHz, FDD},
{33, 1900 * MHz, 1920 * MHz, 1900 * MHz, 1920 * MHz, TDD},
{34, 2010 * MHz, 2025 * MHz, 2010 * MHz, 2025 * MHz, TDD},
{35, 1850 * MHz, 1910 * MHz, 1850 * MHz, 1910 * MHz, TDD},
{36, 1930 * MHz, 1990 * MHz, 1930 * MHz, 1990 * MHz, TDD},
{37, 1910 * MHz, 1930 * MHz, 1910 * MHz, 1930 * MHz, TDD},
{38, 2570 * MHz, 2620 * MHz, 2570 * MHz, 2630 * MHz, TDD},
{39, 1880 * MHz, 1920 * MHz, 1880 * MHz, 1920 * MHz, TDD},
{40, 2300 * MHz, 2400 * MHz, 2300 * MHz, 2400 * MHz, TDD},
{41, 2496 * MHz, 2690 * MHz, 2496 * MHz, 2690 * MHz, TDD},
{42, 3400 * MHz, 3600 * MHz, 3400 * MHz, 3600 * MHz, TDD},
{43, 3600 * MHz, 3800 * MHz, 3600 * MHz, 3800 * MHz, TDD},
{44, 703 * MHz, 803 * MHz, 703 * MHz, 803 * MHz, TDD},
{ 1, 1920 * MHz, 1980 * MHz, 2110 * MHz, 2170 * MHz, FDD},
{ 2, 1850 * MHz, 1910 * MHz, 1930 * MHz, 1990 * MHz, FDD},
{ 3, 1710 * MHz, 1785 * MHz, 1805 * MHz, 1880 * MHz, FDD},
{ 4, 1710 * MHz, 1755 * MHz, 2110 * MHz, 2155 * MHz, FDD},
{ 5, 824 * MHz, 849 * MHz, 869 * MHz, 894 * MHz, FDD},
{ 6, 830 * MHz, 840 * MHz, 875 * MHz, 885 * MHz, FDD},
{ 7, 2500 * MHz, 2570 * MHz, 2620 * MHz, 2690 * MHz, FDD},
{ 8, 880 * MHz, 915 * MHz, 925 * MHz, 960 * MHz, FDD},
{ 9, 1749900 * KHz, 1784900 * KHz, 1844900 * KHz, 1879900 * KHz, FDD},
{10, 1710 * MHz, 1770 * MHz, 2110 * MHz, 2170 * MHz, FDD},
{11, 1427900 * KHz, 1452900 * KHz, 1475900 * KHz, 1500900 * KHz, FDD},
{12, 698 * MHz, 716 * MHz, 728 * MHz, 746 * MHz, FDD},
{13, 777 * MHz, 787 * MHz, 746 * MHz, 756 * MHz, FDD},
{14, 788 * MHz, 798 * MHz, 758 * MHz, 768 * MHz, FDD},
{17, 704 * MHz, 716 * MHz, 734 * MHz, 746 * MHz, FDD},
{20, 832 * MHz, 862 * MHz, 791 * MHz, 821 * MHz, FDD},
{22, 3510 * MHz, 3590 * MHz, 3410 * MHz, 3490 * MHz, FDD},
{33, 1900 * MHz, 1920 * MHz, 1900 * MHz, 1920 * MHz, TDD},
{34, 2010 * MHz, 2025 * MHz, 2010 * MHz, 2025 * MHz, TDD},
{35, 1850 * MHz, 1910 * MHz, 1850 * MHz, 1910 * MHz, TDD},
{36, 1930 * MHz, 1990 * MHz, 1930 * MHz, 1990 * MHz, TDD},
{37, 1910 * MHz, 1930 * MHz, 1910 * MHz, 1930 * MHz, TDD},
{38, 2570 * MHz, 2620 * MHz, 2570 * MHz, 2630 * MHz, TDD},
{39, 1880 * MHz, 1920 * MHz, 1880 * MHz, 1920 * MHz, TDD},
{40, 2300 * MHz, 2400 * MHz, 2300 * MHz, 2400 * MHz, TDD},
{41, 2496 * MHz, 2690 * MHz, 2496 * MHz, 2690 * MHz, TDD},
{42, 3400 * MHz, 3600 * MHz, 3400 * MHz, 3600 * MHz, TDD},
{43, 3600 * MHz, 3800 * MHz, 3600 * MHz, 3800 * MHz, TDD},
{44, 703 * MHz, 803 * MHz, 703 * MHz, 803 * MHz, TDD},
};
PHY_VARS_NR_UE* init_nr_ue_vars(NR_DL_FRAME_PARMS *frame_parms,
uint8_t UE_id,
uint8_t abstraction_flag)
PHY_VARS_NR_UE *init_nr_ue_vars(NR_DL_FRAME_PARMS *frame_parms,
uint8_t UE_id,
uint8_t abstraction_flag)
{
PHY_VARS_NR_UE* ue;
PHY_VARS_NR_UE *ue;
if (frame_parms!=(NR_DL_FRAME_PARMS *)NULL) { // if we want to give initial frame parms, allocate the PHY_VARS_UE structure and put them in
ue = (PHY_VARS_NR_UE *)malloc(sizeof(PHY_VARS_NR_UE));
memset(ue,0,sizeof(PHY_VARS_NR_UE));
memcpy(&(ue->frame_parms), frame_parms, sizeof(NR_DL_FRAME_PARMS));
}
else ue = PHY_vars_UE_g[UE_id][0];
} else ue = PHY_vars_UE_g[UE_id][0];
ue->Mod_id = UE_id;
ue->mac_enabled = 1;
......@@ -227,97 +225,99 @@ PHY_VARS_NR_UE* init_nr_ue_vars(NR_DL_FRAME_PARMS *frame_parms,
init_nr_ue_signal(ue,1,abstraction_flag);
// intialize transport
init_nr_ue_transport(ue,abstraction_flag);
return(ue);
}
void init_thread(int sched_runtime, int sched_deadline, int sched_fifo, cpu_set_t *cpuset, char * name) {
void init_thread(int sched_runtime, int sched_deadline, int sched_fifo, cpu_set_t *cpuset, char *name) {
#ifdef DEADLINE_SCHEDULER
if (sched_runtime!=0) {
struct sched_attr attr= {0};
attr.size = sizeof(attr);
attr.sched_policy = SCHED_DEADLINE;
attr.sched_runtime = sched_runtime;
attr.sched_deadline = sched_deadline;
attr.sched_period = 0;
AssertFatal(sched_setattr(0, &attr, 0) == 0,
"[SCHED] %s thread: sched_setattr failed %s \n", name, strerror(errno));
LOG_I(HW,"[SCHED][eNB] %s deadline thread %lu started on CPU %d\n",
name, (unsigned long)gettid(), sched_getcpu());
}
if (sched_runtime!=0) {
struct sched_attr attr= {0};
attr.size = sizeof(attr);
attr.sched_policy = SCHED_DEADLINE;
attr.sched_runtime = sched_runtime;
attr.sched_deadline = sched_deadline;
attr.sched_period = 0;
AssertFatal(sched_setattr(0, &attr, 0) == 0,
"[SCHED] %s thread: sched_setattr failed %s \n", name, strerror(errno));
LOG_I(HW,"[SCHED][eNB] %s deadline thread %lu started on CPU %d\n",
name, (unsigned long)gettid(), sched_getcpu());
}
#else
if (CPU_COUNT(cpuset) > 0)
AssertFatal( 0 == pthread_setaffinity_np(pthread_self(), sizeof(cpu_set_t), cpuset), "");
struct sched_param sp;
sp.sched_priority = sched_fifo;
AssertFatal(pthread_setschedparam(pthread_self(),SCHED_FIFO,&sp)==0,
"Can't set thread priority, Are you root?\n");
/* Check the actual affinity mask assigned to the thread */
cpu_set_t *cset=CPU_ALLOC(CPU_SETSIZE);
if (0 == pthread_getaffinity_np(pthread_self(), CPU_ALLOC_SIZE(CPU_SETSIZE), cset)) {
char txt[512]={0};
for (int j = 0; j < CPU_SETSIZE; j++)
if (CPU_ISSET(j, cset))
sprintf(txt+strlen(txt), " %d ", j);
printf("CPU Affinity of thread %s is %s\n", name, txt);
}
CPU_FREE(cset);
#endif
// Lock memory from swapping. This is a process wide call (not constraint to this thread).
mlockall(MCL_CURRENT | MCL_FUTURE);
pthread_setname_np( pthread_self(), name );
// LTS: this sync stuff should be wrong
printf("waiting for sync (%s)\n",name);
pthread_mutex_lock(&sync_mutex);
printf("Locked sync_mutex, waiting (%s)\n",name);
while (sync_var<0)
pthread_cond_wait(&sync_cond, &sync_mutex);
pthread_mutex_unlock(&sync_mutex);
printf("started %s as PID: %ld\n",name, gettid());
if (CPU_COUNT(cpuset) > 0)
AssertFatal( 0 == pthread_setaffinity_np(pthread_self(), sizeof(cpu_set_t), cpuset), "");
struct sched_param sp;
sp.sched_priority = sched_fifo;
AssertFatal(pthread_setschedparam(pthread_self(),SCHED_FIFO,&sp)==0,
"Can't set thread priority, Are you root?\n");
/* Check the actual affinity mask assigned to the thread */
cpu_set_t *cset=CPU_ALLOC(CPU_SETSIZE);
if (0 == pthread_getaffinity_np(pthread_self(), CPU_ALLOC_SIZE(CPU_SETSIZE), cset)) {
char txt[512]= {0};
for (int j = 0; j < CPU_SETSIZE; j++)
if (CPU_ISSET(j, cset))
sprintf(txt+strlen(txt), " %d ", j);
printf("CPU Affinity of thread %s is %s\n", name, txt);
}
CPU_FREE(cset);
#endif
// Lock memory from swapping. This is a process wide call (not constraint to this thread).
mlockall(MCL_CURRENT | MCL_FUTURE);
pthread_setname_np( pthread_self(), name );
// LTS: this sync stuff should be wrong
printf("waiting for sync (%s)\n",name);
pthread_mutex_lock(&sync_mutex);
printf("Locked sync_mutex, waiting (%s)\n",name);
while (sync_var<0)
pthread_cond_wait(&sync_cond, &sync_mutex);
pthread_mutex_unlock(&sync_mutex);
printf("started %s as PID: %ld\n",name, gettid());
}
void init_UE(int nb_inst)
{
int inst;
NR_UE_MAC_INST_t *mac_inst;
for (inst=0; inst < nb_inst; inst++) {
// UE->rfdevice.type = NONE_DEV;
//PHY_VARS_NR_UE *UE = PHY_vars_UE_g[inst][0];
LOG_I(PHY,"Initializing memory for UE instance %d (%p)\n",inst,PHY_vars_UE_g[inst]);
PHY_vars_UE_g[inst][0] = init_nr_ue_vars(NULL,inst,0);
PHY_VARS_NR_UE *UE = PHY_vars_UE_g[inst][0];
AssertFatal((UE->if_inst = nr_ue_if_module_init(inst)) != NULL, "can not initial IF module\n");
nr_l3_init_ue();
nr_l2_init_ue();
mac_inst = get_mac_inst(0);
mac_inst->if_module = UE->if_inst;
UE->if_inst->scheduled_response = nr_ue_scheduled_response;
UE->if_inst->phy_config_request = nr_ue_phy_config_request;
LOG_I(PHY,"Intializing UE Threads for instance %d (%p,%p)...\n",inst,PHY_vars_UE_g[inst],PHY_vars_UE_g[inst][0]);
//init_UE_threads(inst);
//UE = PHY_vars_UE_g[inst][0];
AssertFatal(0 == pthread_create(&UE->proc.pthread_ue,
&UE->proc.attr_ue,
UE_thread,
(void*)UE), "");
}
void init_UE(int nb_inst) {
int inst;
NR_UE_MAC_INST_t *mac_inst;
for (inst=0; inst < nb_inst; inst++) {
// UE->rfdevice.type = NONE_DEV;
//PHY_VARS_NR_UE *UE = PHY_vars_UE_g[inst][0];
LOG_I(PHY,"Initializing memory for UE instance %d (%p)\n",inst,PHY_vars_UE_g[inst]);
PHY_vars_UE_g[inst][0] = init_nr_ue_vars(NULL,inst,0);
PHY_VARS_NR_UE *UE = PHY_vars_UE_g[inst][0];
AssertFatal((UE->if_inst = nr_ue_if_module_init(inst)) != NULL, "can not initial IF module\n");
nr_l3_init_ue();
nr_l2_init_ue();
mac_inst = get_mac_inst(0);
mac_inst->if_module = UE->if_inst;
UE->if_inst->scheduled_response = nr_ue_scheduled_response;
UE->if_inst->phy_config_request = nr_ue_phy_config_request;
LOG_I(PHY,"Intializing UE Threads for instance %d (%p,%p)...\n",inst,PHY_vars_UE_g[inst],PHY_vars_UE_g[inst][0]);
//init_UE_threads(inst);
//UE = PHY_vars_UE_g[inst][0];
AssertFatal(0 == pthread_create(&UE->proc.pthread_ue,
&UE->proc.attr_ue,
UE_thread,
(void *)UE), "");
}
printf("UE threads created by %ld\n", gettid());
#if 0
#if defined(ENABLE_USE_MME)
extern volatile int start_UE;
while (start_UE == 0) {
sleep(1);
}
#endif
#endif
}
......@@ -329,290 +329,344 @@ void init_UE(int nb_inst)
* \returns a pointer to an int. The storage is not on the heap and must not be freed.
*/
static void *UE_thread_synch(void *arg) {
static int __thread UE_thread_synch_retval;
int i, hw_slot_offset;
PHY_VARS_NR_UE *UE = (PHY_VARS_NR_UE*) arg;
int current_band = 0;
int current_offset = 0;
sync_mode_t sync_mode = pbch;
int CC_id = UE->CC_id;
int freq_offset=0;
char threadname[128];
cpu_set_t cpuset;
CPU_ZERO(&cpuset);
if ( threads.sync != -1 )
CPU_SET(threads.sync, &cpuset);
// this thread priority must be lower that the main acquisition thread
sprintf(threadname, "sync UE %d", UE->Mod_id);
init_thread(100000, 500000, FIFO_PRIORITY-1, &cpuset, threadname);
UE->is_synchronized = 0;
if (UE->UE_scan == 0) {
int ind;
for ( ind=0;
ind < sizeof(eutra_bands) / sizeof(eutra_bands[0]);
ind++) {
current_band = eutra_bands[ind].band;
LOG_D(PHY, "Scanning band %d, dl_min %"PRIu32", ul_min %"PRIu32"\n", current_band, eutra_bands[ind].dl_min,eutra_bands[ind].ul_min);
if ( eutra_bands[ind].dl_min <= downlink_frequency[0][0] && eutra_bands[ind].dl_max >= downlink_frequency[0][0] ) {
for (i=0; i<4; i++)
uplink_frequency_offset[CC_id][i] = eutra_bands[ind].ul_min - eutra_bands[ind].dl_min;
break;
}
}
AssertFatal( ind < sizeof(eutra_bands) / sizeof(eutra_bands[0]), "Can't find EUTRA band for frequency");
LOG_I( PHY, "[SCHED][UE] Check absolute frequency DL %"PRIu32", UL %"PRIu32" (oai_exit %d, rx_num_channels %d)\n",
downlink_frequency[0][0], downlink_frequency[0][0]+uplink_frequency_offset[0][0],
oai_exit, openair0_cfg[0].rx_num_channels);
static int __thread UE_thread_synch_retval;
int i, hw_slot_offset;
PHY_VARS_NR_UE *UE = (PHY_VARS_NR_UE *) arg;
int current_band = 0;
int current_offset = 0;
sync_mode_t sync_mode = pbch;
int CC_id = UE->CC_id;
int freq_offset=0;
char threadname[128];
cpu_set_t cpuset;
CPU_ZERO(&cpuset);
if ( threads.sync != -1 )
CPU_SET(threads.sync, &cpuset);
// this thread priority must be lower that the main acquisition thread
sprintf(threadname, "sync UE %d", UE->Mod_id);
init_thread(100000, 500000, FIFO_PRIORITY-1, &cpuset, threadname);
UE->is_synchronized = 0;
if (UE->UE_scan == 0) {
int ind;
for ( ind=0;
ind < sizeof(eutra_bands) / sizeof(eutra_bands[0]);
ind++) {
current_band = eutra_bands[ind].band;
LOG_D(PHY, "Scanning band %d, dl_min %"PRIu32", ul_min %"PRIu32"\n", current_band, eutra_bands[ind].dl_min,eutra_bands[ind].ul_min);
if ( eutra_bands[ind].dl_min <= downlink_frequency[0][0] && eutra_bands[ind].dl_max >= downlink_frequency[0][0] ) {
for (i=0; i<4; i++)
uplink_frequency_offset[CC_id][i] = eutra_bands[ind].ul_min - eutra_bands[ind].dl_min;
break;
}
}
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i];
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] =
downlink_frequency[CC_id][i]+uplink_frequency_offset[CC_id][i];
openair0_cfg[UE->rf_map.card].autocal[UE->rf_map.chain+i] = 1;
if (uplink_frequency_offset[CC_id][i] != 0) //
openair0_cfg[UE->rf_map.card].duplex_mode = duplex_mode_FDD;
else //FDD
openair0_cfg[UE->rf_map.card].duplex_mode = duplex_mode_TDD;
}
sync_mode = pbch;
AssertFatal( ind < sizeof(eutra_bands) / sizeof(eutra_bands[0]), "Can't find EUTRA band for frequency");
LOG_I( PHY, "[SCHED][UE] Check absolute frequency DL %"PRIu32", UL %"PRIu32" (oai_exit %d, rx_num_channels %d)\n",
downlink_frequency[0][0], downlink_frequency[0][0]+uplink_frequency_offset[0][0],
oai_exit, openair0_cfg[0].rx_num_channels);
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i];
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] =
downlink_frequency[CC_id][i]+uplink_frequency_offset[CC_id][i];
openair0_cfg[UE->rf_map.card].autocal[UE->rf_map.chain+i] = 1;
if (uplink_frequency_offset[CC_id][i] != 0) //
openair0_cfg[UE->rf_map.card].duplex_mode = duplex_mode_FDD;
else //FDD
openair0_cfg[UE->rf_map.card].duplex_mode = duplex_mode_TDD;
}
} else {
current_band=0;
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
downlink_frequency[UE->rf_map.card][UE->rf_map.chain+i] = bands_to_scan.band_info[CC_id].dl_min;
uplink_frequency_offset[UE->rf_map.card][UE->rf_map.chain+i] =
bands_to_scan.band_info[CC_id].ul_min-bands_to_scan.band_info[CC_id].dl_min;
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i];
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] =
downlink_frequency[CC_id][i]+uplink_frequency_offset[CC_id][i];
openair0_cfg[UE->rf_map.card].rx_gain[UE->rf_map.chain+i] = UE->rx_total_gain_dB;
}
sync_mode = pbch;
} else {
current_band=0;
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
downlink_frequency[UE->rf_map.card][UE->rf_map.chain+i] = bands_to_scan.band_info[CC_id].dl_min;
uplink_frequency_offset[UE->rf_map.card][UE->rf_map.chain+i] =
bands_to_scan.band_info[CC_id].ul_min-bands_to_scan.band_info[CC_id].dl_min;
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i];
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] =
downlink_frequency[CC_id][i]+uplink_frequency_offset[CC_id][i];
openair0_cfg[UE->rf_map.card].rx_gain[UE->rf_map.chain+i] = UE->rx_total_gain_dB;
}
}
// AssertFatal(UE->rfdevice.trx_start_func(&UE->rfdevice) == 0, "Could not start the device\n");
// AssertFatal(UE->rfdevice.trx_start_func(&UE->rfdevice) == 0, "Could not start the device\n");
while (oai_exit==0) {
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
while (UE->proc.instance_cnt_synch < 0)
// the thread waits here most of the time
pthread_cond_wait( &UE->proc.cond_synch, &UE->proc.mutex_synch );
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
while (oai_exit==0) {
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
switch (sync_mode) {
case pss:
LOG_I(PHY,"[SCHED][UE] Scanning band %d (%d), freq %u\n",bands_to_scan.band_info[current_band].band, current_band,bands_to_scan.band_info[current_band].dl_min+current_offset);
//lte_sync_timefreq(UE,current_band,bands_to_scan.band_info[current_band].dl_min+current_offset);
current_offset += 20000000; // increase by 20 MHz
while (UE->proc.instance_cnt_synch < 0)
// the thread waits here most of the time
pthread_cond_wait( &UE->proc.cond_synch, &UE->proc.mutex_synch );
if (current_offset > bands_to_scan.band_info[current_band].dl_max-bands_to_scan.band_info[current_band].dl_min) {
current_band++;
current_offset=0;
}
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
if (current_band==bands_to_scan.nbands) {
current_band=0;
oai_exit=1;
}
switch (sync_mode) {
case pss:
LOG_I(PHY,"[SCHED][UE] Scanning band %d (%d), freq %u\n",bands_to_scan.band_info[current_band].band, current_band,bands_to_scan.band_info[current_band].dl_min+current_offset);
//lte_sync_timefreq(UE,current_band,bands_to_scan.band_info[current_band].dl_min+current_offset);
current_offset += 20000000; // increase by 20 MHz
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
downlink_frequency[UE->rf_map.card][UE->rf_map.chain+i] = bands_to_scan.band_info[current_band].dl_min+current_offset;
uplink_frequency_offset[UE->rf_map.card][UE->rf_map.chain+i] = bands_to_scan.band_info[current_band].ul_min-bands_to_scan.band_info[0].dl_min + current_offset;
if (current_offset > bands_to_scan.band_info[current_band].dl_max-bands_to_scan.band_info[current_band].dl_min) {
current_band++;
current_offset=0;
}
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i];
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i]+uplink_frequency_offset[CC_id][i];
openair0_cfg[UE->rf_map.card].rx_gain[UE->rf_map.chain+i] = UE->rx_total_gain_dB;
if (UE->UE_scan_carrier) {
openair0_cfg[UE->rf_map.card].autocal[UE->rf_map.chain+i] = 1;
}
if (current_band==bands_to_scan.nbands) {
current_band=0;
oai_exit=1;
}
}
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
downlink_frequency[UE->rf_map.card][UE->rf_map.chain+i] = bands_to_scan.band_info[current_band].dl_min+current_offset;
uplink_frequency_offset[UE->rf_map.card][UE->rf_map.chain+i] = bands_to_scan.band_info[current_band].ul_min-bands_to_scan.band_info[0].dl_min + current_offset;
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i];
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i]+uplink_frequency_offset[CC_id][i];
openair0_cfg[UE->rf_map.card].rx_gain[UE->rf_map.chain+i] = UE->rx_total_gain_dB;
break;
if (UE->UE_scan_carrier) {
openair0_cfg[UE->rf_map.card].autocal[UE->rf_map.chain+i] = 1;
}
}
case pbch:
break;
case pbch:
#if DISABLE_LOG_X
printf("[UE thread Synch] Running Initial Synch (mode %d)\n",UE->mode);
printf("[UE thread Synch] Running Initial Synch (mode %d)\n",UE->mode);
#else
LOG_I(PHY, "[UE thread Synch] Running Initial Synch (mode %d)\n",UE->mode);
LOG_I(PHY, "[UE thread Synch] Running Initial Synch (mode %d)\n",UE->mode);
#endif
if (nr_initial_sync( UE, UE->mode ) == 0) {
//write_output("txdata_sym.m", "txdata_sym", UE->common_vars.rxdata[0], (10*UE->frame_parms.samples_per_slot), 1, 1);
freq_offset = UE->common_vars.freq_offset; // frequency offset computed with pss in initial sync
hw_slot_offset = (UE->rx_offset<<1) / UE->frame_parms.samples_per_slot;
printf("Got synch: hw_slot_offset %d, carrier off %d Hz, rxgain %d (DL %u, UL %u), UE_scan_carrier %d\n",
hw_slot_offset,
freq_offset,
UE->rx_total_gain_dB,
downlink_frequency[0][0]+freq_offset,
downlink_frequency[0][0]+uplink_frequency_offset[0][0]+freq_offset,
UE->UE_scan_carrier );
// rerun with new cell parameters and frequency-offset
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
openair0_cfg[UE->rf_map.card].rx_gain[UE->rf_map.chain+i] = UE->rx_total_gain_dB;//-USRP_GAIN_OFFSET;
if (freq_offset >= 0)
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] += abs(freq_offset);
else
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] -= abs(freq_offset);
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] =
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i]+uplink_frequency_offset[CC_id][i];
downlink_frequency[CC_id][i] = openair0_cfg[CC_id].rx_freq[i];
}
// reconfigure for potentially different bandwidth
switch(UE->frame_parms.N_RB_DL) {
case 6:
openair0_cfg[UE->rf_map.card].sample_rate =1.92e6;
openair0_cfg[UE->rf_map.card].rx_bw =.96e6;
openair0_cfg[UE->rf_map.card].tx_bw =.96e6;
// openair0_cfg[0].rx_gain[0] -= 12;
break;
case 25:
openair0_cfg[UE->rf_map.card].sample_rate =7.68e6;
openair0_cfg[UE->rf_map.card].rx_bw =2.5e6;
openair0_cfg[UE->rf_map.card].tx_bw =2.5e6;
// openair0_cfg[0].rx_gain[0] -= 6;
break;
case 50:
openair0_cfg[UE->rf_map.card].sample_rate =15.36e6;
openair0_cfg[UE->rf_map.card].rx_bw =5.0e6;
openair0_cfg[UE->rf_map.card].tx_bw =5.0e6;
// openair0_cfg[0].rx_gain[0] -= 3;
break;
case 100:
openair0_cfg[UE->rf_map.card].sample_rate=30.72e6;
openair0_cfg[UE->rf_map.card].rx_bw=10.0e6;
openair0_cfg[UE->rf_map.card].tx_bw=10.0e6;
// openair0_cfg[0].rx_gain[0] -= 0;
break;
}
if (UE->mode != loop_through_memory) {
UE->rfdevice.trx_set_freq_func(&UE->rfdevice,&openair0_cfg[0],0);
//UE->rfdevice.trx_set_gains_func(&openair0,&openair0_cfg[0]);
//UE->rfdevice.trx_stop_func(&UE->rfdevice);
// sleep(1);
//nr_init_frame_parms_ue(&UE->frame_parms);
/*if (UE->rfdevice.trx_start_func(&UE->rfdevice) != 0 ) {
LOG_E(HW,"Could not start the device\n");
oai_exit=1;
}*/
}
if (UE->UE_scan_carrier == 1) {
UE->UE_scan_carrier = 0;
if (nr_initial_sync( UE, UE->mode ) == 0) {
//write_output("txdata_sym.m", "txdata_sym", UE->common_vars.rxdata[0], (10*UE->frame_parms.samples_per_slot), 1, 1);
freq_offset = UE->common_vars.freq_offset; // frequency offset computed with pss in initial sync
hw_slot_offset = (UE->rx_offset<<1) / UE->frame_parms.samples_per_slot;
printf("Got synch: hw_slot_offset %d, carrier off %d Hz, rxgain %d (DL %u, UL %u), UE_scan_carrier %d\n",
hw_slot_offset,
freq_offset,
UE->rx_total_gain_dB,
downlink_frequency[0][0]+freq_offset,
downlink_frequency[0][0]+uplink_frequency_offset[0][0]+freq_offset,
UE->UE_scan_carrier );
// rerun with new cell parameters and frequency-offset
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
openair0_cfg[UE->rf_map.card].rx_gain[UE->rf_map.chain+i] = UE->rx_total_gain_dB;//-USRP_GAIN_OFFSET;
if (freq_offset >= 0)
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] += abs(freq_offset);
else
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] -= abs(freq_offset);
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] =
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i]+uplink_frequency_offset[CC_id][i];
downlink_frequency[CC_id][i] = openair0_cfg[CC_id].rx_freq[i];
}
// reconfigure for potentially different bandwidth
switch(UE->frame_parms.N_RB_DL) {
case 6:
openair0_cfg[UE->rf_map.card].sample_rate =1.92e6;
openair0_cfg[UE->rf_map.card].rx_bw =.96e6;
openair0_cfg[UE->rf_map.card].tx_bw =.96e6;
// openair0_cfg[0].rx_gain[0] -= 12;
break;
case 25:
openair0_cfg[UE->rf_map.card].sample_rate =7.68e6;
openair0_cfg[UE->rf_map.card].rx_bw =2.5e6;
openair0_cfg[UE->rf_map.card].tx_bw =2.5e6;
// openair0_cfg[0].rx_gain[0] -= 6;
break;
case 50:
openair0_cfg[UE->rf_map.card].sample_rate =15.36e6;
openair0_cfg[UE->rf_map.card].rx_bw =5.0e6;
openair0_cfg[UE->rf_map.card].tx_bw =5.0e6;
// openair0_cfg[0].rx_gain[0] -= 3;
break;
case 100:
openair0_cfg[UE->rf_map.card].sample_rate=30.72e6;
openair0_cfg[UE->rf_map.card].rx_bw=10.0e6;
openair0_cfg[UE->rf_map.card].tx_bw=10.0e6;
// openair0_cfg[0].rx_gain[0] -= 0;
break;
}
if (UE->mode != loop_through_memory) {
UE->rfdevice.trx_set_freq_func(&UE->rfdevice,&openair0_cfg[0],0);
//UE->rfdevice.trx_set_gains_func(&openair0,&openair0_cfg[0]);
//UE->rfdevice.trx_stop_func(&UE->rfdevice);
// sleep(1);
//nr_init_frame_parms_ue(&UE->frame_parms);
/*if (UE->rfdevice.trx_start_func(&UE->rfdevice) != 0 ) {
LOG_E(HW,"Could not start the device\n");
oai_exit=1;
}*/
}
if (UE->UE_scan_carrier == 1) {
UE->UE_scan_carrier = 0;
} else {
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
UE->is_synchronized = 1;
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
if( UE->mode == rx_dump_frame ) {
FILE *fd;
if ((UE->proc.proc_rxtx[0].frame_rx&1) == 0) { // this guarantees SIB1 is present
if ((fd = fopen("rxsig_frame0.dat","w")) != NULL) {
fwrite((void *)&UE->common_vars.rxdata[0][0],
sizeof(int32_t),
10*UE->frame_parms.samples_per_subframe,
fd);
LOG_I(PHY,"Dummping Frame ... bye bye \n");
fclose(fd);
exit(0);
} else {
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
UE->is_synchronized = 1;
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
if( UE->mode == rx_dump_frame ) {
FILE *fd;
if ((UE->proc.proc_rxtx[0].frame_rx&1) == 0) { // this guarantees SIB1 is present
if ((fd = fopen("rxsig_frame0.dat","w")) != NULL) {
fwrite((void*)&UE->common_vars.rxdata[0][0],
sizeof(int32_t),
10*UE->frame_parms.samples_per_subframe,
fd);
LOG_I(PHY,"Dummping Frame ... bye bye \n");
fclose(fd);
exit(0);
} else {
LOG_E(PHY,"Cannot open file for writing\n");
exit(0);
}
} else {
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
UE->is_synchronized = 0;
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
}
}
}
} else {
// initial sync failed
// calculate new offset and try again
if (UE->UE_scan_carrier == 1) {
if (freq_offset >= 0)
freq_offset += 100;
freq_offset *= -1;
if (abs(freq_offset) > 7500) {
LOG_I( PHY, "[initial_sync] No cell synchronization found, abandoning\n" );
FILE *fd;
if ((fd = fopen("rxsig_frame0.dat","w"))!=NULL) {
fwrite((void*)&UE->common_vars.rxdata[0][0],
sizeof(int32_t),
10*UE->frame_parms.samples_per_subframe,
fd);
LOG_I(PHY,"Dummping Frame ... bye bye \n");
fclose(fd);
exit(0);
}
//mac_xface->macphy_exit("No cell synchronization found, abandoning"); new mac
return &UE_thread_synch_retval; // not reached
}
LOG_E(PHY,"Cannot open file for writing\n");
exit(0);
}
} else {
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
UE->is_synchronized = 0;
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
}
}
}
} else {
// initial sync failed
// calculate new offset and try again
if (UE->UE_scan_carrier == 1) {
if (freq_offset >= 0)
freq_offset += 100;
freq_offset *= -1;
if (abs(freq_offset) > 7500) {
LOG_I( PHY, "[initial_sync] No cell synchronization found, abandoning\n" );
FILE *fd;
if ((fd = fopen("rxsig_frame0.dat","w"))!=NULL) {
fwrite((void *)&UE->common_vars.rxdata[0][0],
sizeof(int32_t),
10*UE->frame_parms.samples_per_subframe,
fd);
LOG_I(PHY,"Dummping Frame ... bye bye \n");
fclose(fd);
exit(0);
}
//mac_xface->macphy_exit("No cell synchronization found, abandoning"); new mac
return &UE_thread_synch_retval; // not reached
}
}
#if DISABLE_LOG_X
printf("[initial_sync] trying carrier off %d Hz, rxgain %d (DL %u, UL %u)\n",
freq_offset,
UE->rx_total_gain_dB,
downlink_frequency[0][0]+freq_offset,
downlink_frequency[0][0]+uplink_frequency_offset[0][0]+freq_offset );
printf("[initial_sync] trying carrier off %d Hz, rxgain %d (DL %u, UL %u)\n",
freq_offset,
UE->rx_total_gain_dB,
downlink_frequency[0][0]+freq_offset,
downlink_frequency[0][0]+uplink_frequency_offset[0][0]+freq_offset );
#else
LOG_I(PHY, "[initial_sync] trying carrier off %d Hz, rxgain %d (DL %u, UL %u)\n",
freq_offset,
UE->rx_total_gain_dB,
downlink_frequency[0][0]+freq_offset,
downlink_frequency[0][0]+uplink_frequency_offset[0][0]+freq_offset );
LOG_I(PHY, "[initial_sync] trying carrier off %d Hz, rxgain %d (DL %u, UL %u)\n",
freq_offset,
UE->rx_total_gain_dB,
downlink_frequency[0][0]+freq_offset,
downlink_frequency[0][0]+uplink_frequency_offset[0][0]+freq_offset );
#endif
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i]+freq_offset;
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i]+uplink_frequency_offset[CC_id][i]+freq_offset;
openair0_cfg[UE->rf_map.card].rx_gain[UE->rf_map.chain+i] = UE->rx_total_gain_dB;//-USRP_GAIN_OFFSET;
if (UE->UE_scan_carrier==1)
openair0_cfg[UE->rf_map.card].autocal[UE->rf_map.chain+i] = 1;
}
if (UE->mode != loop_through_memory)
UE->rfdevice.trx_set_freq_func(&UE->rfdevice,&openair0_cfg[0],0);
}// initial_sync=0
break;
case si:
default:
break;
}
for (i=0; i<openair0_cfg[UE->rf_map.card].rx_num_channels; i++) {
openair0_cfg[UE->rf_map.card].rx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i]+freq_offset;
openair0_cfg[UE->rf_map.card].tx_freq[UE->rf_map.chain+i] = downlink_frequency[CC_id][i]+uplink_frequency_offset[CC_id][i]+freq_offset;
openair0_cfg[UE->rf_map.card].rx_gain[UE->rf_map.chain+i] = UE->rx_total_gain_dB;//-USRP_GAIN_OFFSET;
if (UE->UE_scan_carrier==1)
openair0_cfg[UE->rf_map.card].autocal[UE->rf_map.chain+i] = 1;
}
if (UE->mode != loop_through_memory)
UE->rfdevice.trx_set_freq_func(&UE->rfdevice,&openair0_cfg[0],0);
}// initial_sync=0
break;
case si:
default:
break;
}
#if 0 //defined XFORMS
if (do_forms) {
extern FD_lte_phy_scope_ue *form_ue[NUMBER_OF_UE_MAX];
phy_scope_UE(form_ue[0],
PHY_vars_UE_g[0][0],
0,0,1);
}
#endif
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
// indicate readiness
UE->proc.instance_cnt_synch--;
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
if (do_forms) {
extern FD_lte_phy_scope_ue *form_ue[NUMBER_OF_UE_MAX];
phy_scope_UE(form_ue[0],
PHY_vars_UE_g[0][0],
0,0,1);
}
VCD_SIGNAL_DUMPER_DUMP_FUNCTION_BY_NAME( VCD_SIGNAL_DUMPER_FUNCTIONS_UE_THREAD_SYNCH, 0 );
} // while !oai_exit
#endif
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
// indicate readiness
UE->proc.instance_cnt_synch--;
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
VCD_SIGNAL_DUMPER_DUMP_FUNCTION_BY_NAME( VCD_SIGNAL_DUMPER_FUNCTIONS_UE_THREAD_SYNCH, 0 );
} // while !oai_exit
return &UE_thread_synch_retval;
}
return &UE_thread_synch_retval;
void processSubframeRX( PHY_VARS_NR_UE *UE, UE_nr_rxtx_proc_t *proc) {
// Process Rx data for one sub-frame
if (slot_select_nr(&UE->frame_parms, proc->frame_tx, proc->nr_tti_tx) & NR_DOWNLINK_SLOT) {
//clean previous FAPI MESSAGE
UE->rx_ind.number_pdus = 0;
UE->dci_ind.number_of_dcis = 0;
//clean previous FAPI MESSAGE
// call L2 for DL_CONFIG (DCI)
UE->dcireq.module_id = UE->Mod_id;
UE->dcireq.gNB_index = 0;
UE->dcireq.cc_id = 0;
UE->dcireq.frame = proc->frame_rx;
UE->dcireq.slot = proc->nr_tti_rx;
nr_ue_dcireq(&UE->dcireq); //to be replaced with function pointer later
NR_UE_MAC_INST_t *UE_mac = get_mac_inst(0);
UE_mac->scheduled_response.dl_config = &UE->dcireq.dl_config_req;
UE_mac->scheduled_response.slot = proc->nr_tti_rx;
nr_ue_scheduled_response(&UE_mac->scheduled_response);
//write_output("uerxdata_frame.m", "uerxdata_frame", UE->common_vars.rxdata[0], UE->frame_parms.samples_per_frame, 1, 1);
printf("Processing slot %d\n",proc->nr_tti_rx);
#ifdef UE_SLOT_PARALLELISATION
phy_procedures_slot_parallelization_nrUE_RX( UE, proc, 0, 0, 1, UE->mode, no_relay, NULL );
#else
phy_procedures_nrUE_RX( UE, proc, 0, 1, UE->mode);
// printf(">>> nr_ue_pdcch_procedures ended\n");
#endif
}
if (UE->mac_enabled==1) {
// trigger L2 to run ue_scheduler thru IF module
// [TODO] mapping right after NR initial sync
if(UE->if_inst != NULL && UE->if_inst->ul_indication != NULL) {
UE->ul_indication.module_id = 0;
UE->ul_indication.gNB_index = 0;
UE->ul_indication.cc_id = 0;
UE->ul_indication.frame = proc->frame_rx;
UE->ul_indication.slot = proc->nr_tti_rx;
UE->if_inst->ul_indication(&UE->ul_indication);
}
}
}
/*!
......@@ -624,146 +678,173 @@ static void *UE_thread_synch(void *arg) {
*/
static void *UE_thread_rxn_txnp4(void *arg) {
static __thread int UE_thread_rxtx_retval;
struct nr_rxtx_thread_data *rtd = arg;
UE_nr_rxtx_proc_t *proc = rtd->proc;
PHY_VARS_NR_UE *UE = rtd->UE;
//proc->counter_decoder = 0;
proc->instance_cnt_rxtx=-1;
proc->subframe_rx=proc->sub_frame_start;
proc->dci_err_cnt=0;
char threadname[256];
sprintf(threadname,"UE_%d_proc_%d", UE->Mod_id, proc->sub_frame_start);
cpu_set_t cpuset;
CPU_ZERO(&cpuset);
char timing_proc_name[256];
sprintf(timing_proc_name,"Delay to process sub-frame proc %d",proc->sub_frame_start);
if ( (proc->sub_frame_start+1)%RX_NB_TH == 0 && threads.one != -1 )
CPU_SET(threads.one, &cpuset);
if ( (proc->sub_frame_start+1)%RX_NB_TH == 1 && threads.two != -1 )
CPU_SET(threads.two, &cpuset);
if ( (proc->sub_frame_start+1)%RX_NB_TH == 2 && threads.three != -1 )
CPU_SET(threads.three, &cpuset);
//CPU_SET(threads.three, &cpuset);
init_thread(900000,1000000 , FIFO_PRIORITY-1, &cpuset,
threadname);
while (!oai_exit) {
if (pthread_mutex_lock(&proc->mutex_rxtx) != 0) {
LOG_E( PHY, "[SCHED][UE] error locking mutex for UE RXTX\n" );
exit_fun("nothing to add");
}
while (proc->instance_cnt_rxtx < 0) {
// most of the time, the thread is waiting here
pthread_cond_wait( &proc->cond_rxtx, &proc->mutex_rxtx );
}
if (pthread_mutex_unlock(&proc->mutex_rxtx) != 0) {
LOG_E( PHY, "[SCHED][UE] error unlocking mutex for UE RXn_TXnp4\n" );
exit_fun("nothing to add");
}
// initRefTimes(t2);
// initRefTimes(t3);
// pickTime(current);
// updateTimes(proc->gotIQs, &t2, 10000, "Delay to wake up UE_Thread_Rx (case 2)");
// Process Rx data for one sub-frame
if (slot_select_nr(&UE->frame_parms, proc->frame_tx, proc->nr_tti_tx) & NR_DOWNLINK_SLOT) {
//clean previous FAPI MESSAGE
UE->rx_ind.number_pdus = 0;
UE->dci_ind.number_of_dcis = 0;
//clean previous FAPI MESSAGE
// call L2 for DL_CONFIG (DCI)
UE->dcireq.module_id = UE->Mod_id;
UE->dcireq.gNB_index = 0;
UE->dcireq.cc_id = 0;
UE->dcireq.frame = proc->frame_rx;
UE->dcireq.slot = proc->nr_tti_rx;
nr_ue_dcireq(&UE->dcireq); //to be replaced with function pointer later
NR_UE_MAC_INST_t *UE_mac = get_mac_inst(0);
UE_mac->scheduled_response.dl_config = &UE->dcireq.dl_config_req;
UE_mac->scheduled_response.slot = proc->nr_tti_rx;
nr_ue_scheduled_response(&UE_mac->scheduled_response);
#ifdef UE_SLOT_PARALLELISATION
phy_procedures_slot_parallelization_nrUE_RX( UE, proc, 0, 0, 1, UE->mode, no_relay, NULL );
#else
phy_procedures_nrUE_RX( UE, proc, 0, 1, UE->mode);
// printf(">>> nr_ue_pdcch_procedures ended\n");
#endif
}
#if UE_TIMING_TRACE
start_meas(&UE->generic_stat);
#endif
//printf(">>> mac init\n");
if (UE->mac_enabled==1) {
// trigger L2 to run ue_scheduler thru IF module
// [TODO] mapping right after NR initial sync
if(UE->if_inst != NULL && UE->if_inst->ul_indication != NULL){
UE->ul_indication.module_id = 0;
UE->ul_indication.gNB_index = 0;
UE->ul_indication.cc_id = 0;
UE->ul_indication.frame = proc->frame_rx;
UE->ul_indication.slot = proc->nr_tti_rx;
UE->if_inst->ul_indication(&UE->ul_indication);
}
}
#if UE_TIMING_TRACE
stop_meas(&UE->generic_stat);
#endif
//printf(">>> mac ended\n");
struct nr_rxtx_thread_data *rtd = arg;
UE_nr_rxtx_proc_t *proc = rtd->proc;
PHY_VARS_NR_UE *UE = rtd->UE;
//proc->counter_decoder = 0;
proc->instance_cnt_rxtx=-1;
proc->subframe_rx=proc->sub_frame_start;
proc->dci_err_cnt=0;
char threadname[256];
sprintf(threadname,"UE_%d_proc_%d", UE->Mod_id, proc->sub_frame_start);
cpu_set_t cpuset;
CPU_ZERO(&cpuset);
char timing_proc_name[256];
sprintf(timing_proc_name,"Delay to process sub-frame proc %d",proc->sub_frame_start);
if ( (proc->sub_frame_start+1)%RX_NB_TH == 0 && threads.one != -1 )
CPU_SET(threads.one, &cpuset);
if ( (proc->sub_frame_start+1)%RX_NB_TH == 1 && threads.two != -1 )
CPU_SET(threads.two, &cpuset);
if ( (proc->sub_frame_start+1)%RX_NB_TH == 2 && threads.three != -1 )
CPU_SET(threads.three, &cpuset);
//CPU_SET(threads.three, &cpuset);
init_thread(900000,1000000, FIFO_PRIORITY-1, &cpuset,
threadname);
while (!oai_exit) {
AssertFatal( 0 == pthread_mutex_lock(&proc->mutex_rxtx), "[SCHED][UE] error locking mutex for UE RXTX\n" );
while (proc->instance_cnt_rxtx < 0) {
// most of the time, the thread is waiting here
pthread_cond_wait( &proc->cond_rxtx, &proc->mutex_rxtx );
}
// Prepare the future Tx data
AssertFatal ( 0== pthread_mutex_unlock(&proc->mutex_rxtx), "[SCHED][UE] error unlocking mutex for UE RXn_TXnp4\n" );
processSubframeRX(UE, proc);
//printf(">>> mac ended\n");
// Prepare the future Tx data
#if 0
#ifndef NO_RAT_NR
if (slot_select_nr(&UE->frame_parms, proc->frame_tx, proc->nr_tti_tx) & NR_UPLINK_SLOT)
if (slot_select_nr(&UE->frame_parms, proc->frame_tx, proc->nr_tti_tx) & NR_UPLINK_SLOT)
#else
if ((subframe_select( &UE->frame_parms, proc->subframe_tx) == SF_UL) ||
(UE->frame_parms.frame_type == FDD) )
if ((subframe_select( &UE->frame_parms, proc->subframe_tx) == SF_UL) ||
(UE->frame_parms.frame_type == FDD) )
#endif
if (UE->mode != loop_through_memory)
phy_procedures_nrUE_TX(UE,proc,0,0,UE->mode,no_relay);
//phy_procedures_UE_TX(UE,proc,0,0,UE->mode,no_relay);
if (UE->mode != loop_through_memory)
phy_procedures_nrUE_TX(UE,proc,0,0,UE->mode,no_relay);
//phy_procedures_UE_TX(UE,proc,0,0,UE->mode,no_relay);
#endif
#if 0
if ((subframe_select( &UE->frame_parms, proc->subframe_tx) == SF_S) &&
(UE->frame_parms.frame_type == TDD))
if (UE->mode != loop_through_memory)
//phy_procedures_UE_S_TX(UE,0,0,no_relay);
if ((subframe_select( &UE->frame_parms, proc->subframe_tx) == SF_S) &&
(UE->frame_parms.frame_type == TDD))
if (UE->mode != loop_through_memory)
//phy_procedures_UE_S_TX(UE,0,0,no_relay);
updateTimes(current, &t3, 10000, timing_proc_name);
#endif
if (pthread_mutex_lock(&proc->mutex_rxtx) != 0) {
LOG_E( PHY, "[SCHED][UE] error locking mutex for UE RXTX\n" );
exit_fun("noting to add");
}
proc->instance_cnt_rxtx--;
#endif
AssertFatal( 0 == pthread_mutex_lock(&proc->mutex_rxtx), "[SCHED][UE] error locking mutex for UE RXTX\n" );
proc->instance_cnt_rxtx--;
#if BASIC_SIMULATOR
if (pthread_cond_signal(&proc->cond_rxtx) != 0) abort();
#endif
if (pthread_mutex_unlock(&proc->mutex_rxtx) != 0) {
LOG_E( PHY, "[SCHED][UE] error unlocking mutex for UE RXTX\n" );
exit_fun("noting to add");
}
AssertFatal (0 == pthread_mutex_unlock(&proc->mutex_rxtx), "[SCHED][UE] error unlocking mutex for UE RXTX\n" );
}
// thread finished
free(arg);
return NULL;
}
void readFrame(PHY_VARS_NR_UE *UE, openair0_timestamp *timestamp) {
void *rxp[NB_ANTENNAS_RX];
void *dummy_tx[UE->frame_parms.nb_antennas_tx];
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
dummy_tx[i]=malloc16_clear(UE->frame_parms.samples_per_subframe*4);
for(int x=0; x<10; x++) {
for (int i=0; i<UE->frame_parms.nb_antennas_rx; i++)
rxp[i] = ((void *)&UE->common_vars.rxdata[i][0]) + 4*x*UE->frame_parms.samples_per_subframe;
AssertFatal( UE->frame_parms.samples_per_subframe ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
timestamp,
rxp,
UE->frame_parms.samples_per_subframe,
UE->frame_parms.nb_antennas_rx), "");
}
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
free(dummy_tx[i]);
}
void trashFrame(PHY_VARS_NR_UE *UE, openair0_timestamp *timestamp) {
void *dummy_tx[UE->frame_parms.nb_antennas_tx];
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
dummy_tx[i]=malloc16_clear(UE->frame_parms.samples_per_subframe*4);
void *dummy_rx[UE->frame_parms.nb_antennas_rx];
for (int i=0; i<UE->frame_parms.nb_antennas_rx; i++)
dummy_rx[i]=malloc16(UE->frame_parms.samples_per_subframe*4);
for (int sf=0; sf<NR_NUMBER_OF_SUBFRAMES_PER_FRAME; sf++) {
// printf("Reading dummy sf %d\n",sf);
UE->rfdevice.trx_read_func(&UE->rfdevice,
timestamp,
dummy_rx,
UE->frame_parms.samples_per_subframe,
UE->frame_parms.nb_antennas_rx);
usleep(500); // this sleep improves in the case of simulated RF and doesn't harm with true radio
}
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
free(dummy_tx[i]);
for (int i=0; i<UE->frame_parms.nb_antennas_rx; i++)
free(dummy_rx[i]);
}
void syncInFrame(PHY_VARS_NR_UE *UE, openair0_timestamp *timestamp) {
if (UE->no_timing_correction==0) {
LOG_I(PHY,"Resynchronizing RX by %d samples (mode = %d)\n",UE->rx_offset,UE->mode);
void *dummy_tx[UE->frame_parms.nb_antennas_tx];
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
dummy_tx[i]=malloc16_clear(UE->frame_parms.samples_per_subframe*4);
for ( int size=UE->rx_offset ; size > 0 ; size -= UE->frame_parms.samples_per_subframe ) {
int unitTransfer=size>UE->frame_parms.samples_per_subframe ? UE->frame_parms.samples_per_subframe : size ;
AssertFatal(unitTransfer ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
timestamp,
(void **)UE->common_vars.rxdata,
unitTransfer,
UE->frame_parms.nb_antennas_rx),"");
}
// thread finished
free(arg);
return &UE_thread_rxtx_retval;
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
free(dummy_tx[i]);
}
}
int computeSamplesShift(PHY_VARS_NR_UE *UE) {
if ( getenv("RFSIMULATOR") != 0) {
LOG_E(PHY,"SET rx_offset %d \n",UE->rx_offset);
//UE->rx_offset_diff=0;
return 0;
}
// compute TO compensation that should be applied for this frame
if ( UE->rx_offset < 5*UE->frame_parms.samples_per_slot &&
UE->rx_offset > 0 )
return -1 ;
if ( UE->rx_offset > 5*UE->frame_parms.samples_per_slot &&
UE->rx_offset < 10*UE->frame_parms.samples_per_slot )
return 1;
return 0;
}
/*!
......@@ -777,389 +858,269 @@ static void *UE_thread_rxn_txnp4(void *arg) {
*/
void *UE_thread(void *arg) {
PHY_VARS_NR_UE *UE = (PHY_VARS_NR_UE *) arg;
// int tx_enabled = 0;
openair0_timestamp timestamp;
void *rxp[NB_ANTENNAS_RX], *txp[NB_ANTENNAS_TX];
int start_rx_stream = 0;
int i;
char threadname[128];
int th_id;
const uint16_t table_sf_slot[20] = {0,0,1,1,2,2,3,3,4,4,5,5,6,6,7,7,8,8,9,9};
for (int i=0; i< RX_NB_TH_MAX; i++ )
UE->proc.proc_rxtx[i].counter_decoder = 0;
static uint8_t thread_idx = 0;
cpu_set_t cpuset;
CPU_ZERO(&cpuset);
if ( threads.main != -1 )
CPU_SET(threads.main, &cpuset);
sprintf(threadname, "Main UE %d", UE->Mod_id);
init_thread(100000, 500000, FIFO_PRIORITY, &cpuset,threadname);
if ((oaisim_flag == 0) && (UE->mode !=loop_through_memory))
AssertFatal(0== openair0_device_load(&(UE->rfdevice), &openair0_cfg[0]), "");
UE->rfdevice.host_type = RAU_HOST;
init_UE_threads(UE);
#ifdef NAS_UE
//MessageDef *message_p;
//message_p = itti_alloc_new_message(TASK_NAS_UE, INITIALIZE_MESSAGE);
//itti_send_msg_to_task (TASK_NAS_UE, UE->Mod_id + NB_eNB_INST, message_p);
#endif
int nb_slot_frame = 10*UE->frame_parms.slots_per_subframe;
int slot_nr=-1;
PHY_VARS_NR_UE *UE = (PHY_VARS_NR_UE *) arg;
// int tx_enabled = 0;
openair0_timestamp timestamp;
void* rxp[NB_ANTENNAS_RX], *txp[NB_ANTENNAS_TX];
int start_rx_stream = 0;
int i;
char threadname[128];
int th_id;
for (int i=0; i< RX_NB_TH_MAX; i++ )
UE->proc.proc_rxtx[i].counter_decoder = 0;
static uint8_t thread_idx = 0;
uint16_t table_sf_slot[20] = {0,0,1,1,2,2,3,3,4,4,5,5,6,6,7,7,8,8,9,9};
cpu_set_t cpuset;
CPU_ZERO(&cpuset);
if ( threads.main != -1 )
CPU_SET(threads.main, &cpuset);
sprintf(threadname, "Main UE %d", UE->Mod_id);
init_thread(100000, 500000, FIFO_PRIORITY, &cpuset,threadname);
if ((oaisim_flag == 0) && (UE->mode !=loop_through_memory))
AssertFatal(0== openair0_device_load(&(UE->rfdevice), &openair0_cfg[0]), "");
UE->rfdevice.host_type = RAU_HOST;
//int cumulated_shift=0;
if ((oaisim_flag == 0) && (UE->mode != loop_through_memory))
AssertFatal(UE->rfdevice.trx_start_func(&UE->rfdevice) == 0, "Could not start the device\n");
init_UE_threads(UE);
while (!oai_exit) {
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
int instance_cnt_synch = UE->proc.instance_cnt_synch;
int is_synchronized = UE->is_synchronized;
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
if (is_synchronized == 0) {
#if BASIC_SIMULATOR
while (!((instance_cnt_synch = UE->proc.instance_cnt_synch) < 0)) {
printf("ue sync not ready\n");
usleep(500*1000);
}
#ifdef NAS_UE
//MessageDef *message_p;
//message_p = itti_alloc_new_message(TASK_NAS_UE, INITIALIZE_MESSAGE);
//itti_send_msg_to_task (TASK_NAS_UE, UE->Mod_id + NB_eNB_INST, message_p);
#endif
int nb_slot_frame = 10*UE->frame_parms.slots_per_subframe;
int slot_nr=-1;
//int cumulated_shift=0;
if ((oaisim_flag == 0) && (UE->mode != loop_through_memory))
AssertFatal(UE->rfdevice.trx_start_func(&UE->rfdevice) == 0, "Could not start the device\n");
while (!oai_exit) {
AssertFatal ( 0== pthread_mutex_lock(&UE->proc.mutex_synch), "");
int instance_cnt_synch = UE->proc.instance_cnt_synch;
int is_synchronized = UE->is_synchronized;
AssertFatal ( 0== pthread_mutex_unlock(&UE->proc.mutex_synch), "");
if (is_synchronized == 0) {
if (UE->mode != loop_through_memory) {
if (instance_cnt_synch < 0) { // we can invoke the synch
// grab 10 ms of signal and wakeup synch thread
readFrame(UE, &timestamp);
AssertFatal( 0 == pthread_mutex_lock(&UE->proc.mutex_synch), "");
AssertFatal( 0 == ++UE->proc.instance_cnt_synch, "[SCHED][UE] UE sync thread busy!!\n" );
AssertFatal( 0 == pthread_cond_signal(&UE->proc.cond_synch), "");
AssertFatal( 0 == pthread_mutex_unlock(&UE->proc.mutex_synch), "");
} else {
// grab 10 ms of signal into dummy buffer to wait result of sync detection
trashFrame(UE, &timestamp);
}
}
continue;
}
if (start_rx_stream==0) {
start_rx_stream=1;
if (UE->mode != loop_through_memory) {
syncInFrame(UE, &timestamp);
UE->rx_offset=0;
UE->time_sync_cell=0;
UE->proc.proc_rxtx[0].frame_rx++;
//UE->proc.proc_rxtx[1].frame_rx++;
for (th_id=1; th_id < RX_NB_TH; th_id++) {
UE->proc.proc_rxtx[th_id].frame_rx = UE->proc.proc_rxtx[0].frame_rx;
}
//printf("first stream frame rx %d\n",UE->proc.proc_rxtx[0].frame_rx);
// read in first symbol
AssertFatal (UE->frame_parms.ofdm_symbol_size+UE->frame_parms.nb_prefix_samples0 ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
(void **)UE->common_vars.rxdata,
UE->frame_parms.ofdm_symbol_size+UE->frame_parms.nb_prefix_samples0,
UE->frame_parms.nb_antennas_rx),"");
//write_output("txdata_sym.m", "txdata_sym", UE->common_vars.rxdata[0], (UE->frame_parms.ofdm_symbol_size+UE->frame_parms.nb_prefix_samples0), 1, 1);
//nr_slot_fep(UE,0, 0, 0, 1, 1, NR_PDCCH_EST);
} //UE->mode != loop_through_memory
else
rt_sleep_ns(1000*1000);
continue;
}
thread_idx++;
thread_idx%=RX_NB_TH;
//printf("slot_nr %d nb slot frame %d\n",slot_nr, nb_slot_frame);
slot_nr++;
slot_nr %= nb_slot_frame;
UE_nr_rxtx_proc_t *proc = &UE->proc.proc_rxtx[thread_idx];
// update thread index for received subframe
UE->current_thread_id[slot_nr] = thread_idx;
#if BASIC_SIMULATOR
while (!((instance_cnt_synch = UE->proc.instance_cnt_synch) < 0)) {
printf("ue sync not ready\n");
usleep(500*1000);
}
for (int t = 0; t < RX_NB_TH; t++) {
UE_rxtx_proc_t *proc = &UE->proc.proc_rxtx[t];
pthread_mutex_lock(&proc->mutex_rxtx);
while (proc->instance_cnt_rxtx >= 0) pthread_cond_wait( &proc->cond_rxtx, &proc->mutex_rxtx );
pthread_mutex_unlock(&proc->mutex_rxtx);
}
#endif
LOG_W(PHY,"is_synchro %d\n" , is_synchronized );
if (instance_cnt_synch < 0) { // we can invoke the synch
// grab 10 ms of signal and wakeup synch thread
if (UE->mode != loop_through_memory) {
void *dummy_tx[UE->frame_parms.nb_antennas_tx];
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
dummy_tx[i]=malloc16_clear(UE->frame_parms.samples_per_subframe*4);
for(int x=0; x<10; x++) {
for (int i=0; i<UE->frame_parms.nb_antennas_rx; i++)
rxp[i] = ((void*)&UE->common_vars.rxdata[i][0]) + 4*x*UE->frame_parms.samples_per_subframe;
AssertFatal( UE->frame_parms.samples_per_subframe ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
rxp,
UE->frame_parms.samples_per_subframe,
UE->frame_parms.nb_antennas_rx), "");
}
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
free(dummy_tx[i]);
}
AssertFatal( 0 == pthread_mutex_lock(&UE->proc.mutex_synch), "");
AssertFatal( 0 == ++UE->proc.instance_cnt_synch, "[SCHED][UE] UE sync thread busy!!\n" );
AssertFatal( 0 == pthread_cond_signal(&UE->proc.cond_synch), "");
AssertFatal( 0 == pthread_mutex_unlock(&UE->proc.mutex_synch), "");
LOG_D(PHY,"Process slot %d thread Idx %d \n", slot_nr, UE->current_thread_id[slot_nr]);
proc->nr_tti_rx=slot_nr;
proc->subframe_rx=table_sf_slot[slot_nr];
proc->frame_tx = proc->frame_rx;
proc->nr_tti_tx= slot_nr + DURATION_RX_TO_TX;
if (proc->nr_tti_tx > nb_slot_frame) {
proc->frame_tx = (proc->frame_tx + 1)%MAX_FRAME_NUMBER;
proc->nr_tti_tx %= nb_slot_frame;
}
if(slot_nr == 0) {
UE->proc.proc_rxtx[0].frame_rx++;
//UE->proc.proc_rxtx[1].frame_rx++;
for (th_id=1; th_id < RX_NB_TH; th_id++) {
UE->proc.proc_rxtx[th_id].frame_rx = UE->proc.proc_rxtx[0].frame_rx;
}
}
if (UE->mode != loop_through_memory) {
for (i=0; i<UE->frame_parms.nb_antennas_rx; i++)
rxp[i] = (void *)&UE->common_vars.rxdata[i][UE->frame_parms.ofdm_symbol_size+
UE->frame_parms.nb_prefix_samples0+
slot_nr*UE->frame_parms.samples_per_slot];
for (i=0; i<UE->frame_parms.nb_antennas_tx; i++)
txp[i] = (void *)&UE->common_vars.txdata[i][((slot_nr+2)%NR_NUMBER_OF_SUBFRAMES_PER_FRAME)*UE->frame_parms.samples_per_slot];
int readBlockSize, writeBlockSize;
if (slot_nr<(nb_slot_frame - 1)) {
readBlockSize=UE->frame_parms.samples_per_slot;
writeBlockSize=UE->frame_parms.samples_per_slot;
} else {
// grab 10 ms of signal into dummy buffer to wait result of sync detection
if (UE->mode != loop_through_memory) {
void *dummy_tx[UE->frame_parms.nb_antennas_tx];
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
dummy_tx[i]=malloc16_clear(UE->frame_parms.samples_per_subframe*4);
void *dummy_rx[UE->frame_parms.nb_antennas_rx];
for (int i=0; i<UE->frame_parms.nb_antennas_rx; i++)
dummy_rx[i]=malloc16(UE->frame_parms.samples_per_subframe*4);
for (int sf=0; sf<NR_NUMBER_OF_SUBFRAMES_PER_FRAME; sf++) {
// printf("Reading dummy sf %d\n",sf);
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
dummy_rx,
UE->frame_parms.samples_per_subframe,
UE->frame_parms.nb_antennas_rx);
usleep(500); // this sleep improves in the case of simulated RF and doesn't harm with true radio
}
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
free(dummy_tx[i]);
for (int i=0; i<UE->frame_parms.nb_antennas_rx; i++)
free(dummy_rx[i]);
}
}
UE->rx_offset_diff = computeSamplesShift(UE);
readBlockSize=UE->frame_parms.samples_per_slot -
UE->frame_parms.ofdm_symbol_size -
UE->frame_parms.nb_prefix_samples0 -
UE->rx_offset_diff;
writeBlockSize=UE->frame_parms.samples_per_slot -
UE->rx_offset_diff;
}
AssertFatal(readBlockSize ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
rxp,
readBlockSize,
UE->frame_parms.nb_antennas_rx),"");
AssertFatal( writeBlockSize ==
UE->rfdevice.trx_write_func(&UE->rfdevice,
timestamp+
(2*UE->frame_parms.samples_per_slot) -
UE->frame_parms.ofdm_symbol_size-UE->frame_parms.nb_prefix_samples0 -
openair0_cfg[0].tx_sample_advance,
txp,
writeBlockSize,
UE->frame_parms.nb_antennas_tx,
1),"");
if( slot_nr==(nb_slot_frame-1)) {
// read in first symbol of next frame and adjust for timing drift
int first_symbols=writeBlockSize-readBlockSize;
if ( first_symbols > 0 )
AssertFatal(first_symbols ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
(void **)UE->common_vars.rxdata,
first_symbols,
UE->frame_parms.nb_antennas_rx),"");
else
LOG_E(PHY,"can't compensate: diff =%d\n", first_symbols);
}
pickTime(gotIQs);
// operate on thread sf mod 2
AssertFatal(pthread_mutex_lock(&proc->mutex_rxtx) ==0,"");
} // UE->is_synchronized==0
else {
if (start_rx_stream==0) {
start_rx_stream=1;
if (UE->mode != loop_through_memory) {
if (UE->no_timing_correction==0) {
LOG_I(PHY,"Resynchronizing RX by %d samples (mode = %d)\n",UE->rx_offset,UE->mode);
void *dummy_tx[UE->frame_parms.nb_antennas_tx];
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
dummy_tx[i]=malloc16_clear(UE->frame_parms.samples_per_subframe*4);
for ( int size=UE->rx_offset ; size > 0 ; size -= UE->frame_parms.samples_per_subframe ) {
int unitTransfer=size>UE->frame_parms.samples_per_subframe ? UE->frame_parms.samples_per_subframe : size ;
AssertFatal(unitTransfer ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
(void**)UE->common_vars.rxdata,
unitTransfer,
UE->frame_parms.nb_antennas_rx),"");
}
for (int i=0; i<UE->frame_parms.nb_antennas_tx; i++)
free(dummy_tx[i]);
}
UE->rx_offset=0;
UE->time_sync_cell=0;
UE->proc.proc_rxtx[0].frame_rx++;
//UE->proc.proc_rxtx[1].frame_rx++;
for (th_id=1; th_id < RX_NB_TH; th_id++) {
UE->proc.proc_rxtx[th_id].frame_rx = UE->proc.proc_rxtx[0].frame_rx;
}
//printf("first stream frame rx %d\n",UE->proc.proc_rxtx[0].frame_rx);
// read in first symbol
AssertFatal (UE->frame_parms.ofdm_symbol_size+UE->frame_parms.nb_prefix_samples0 ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
(void**)UE->common_vars.rxdata,
UE->frame_parms.ofdm_symbol_size+UE->frame_parms.nb_prefix_samples0,
UE->frame_parms.nb_antennas_rx),"");
//write_output("txdata_sym.m", "txdata_sym", UE->common_vars.rxdata[0], (UE->frame_parms.ofdm_symbol_size+UE->frame_parms.nb_prefix_samples0), 1, 1);
//nr_slot_fep(UE,0, 0, 0, 1, 1, NR_PDCCH_EST);
} //UE->mode != loop_through_memory
else
rt_sleep_ns(1000*1000);
} else {
thread_idx++;
if(thread_idx>=RX_NB_TH)
thread_idx = 0;
//printf("slot_nr %d nb slot frame %d\n",slot_nr, nb_slot_frame);
slot_nr++;
slot_nr %= nb_slot_frame;
UE_nr_rxtx_proc_t *proc = &UE->proc.proc_rxtx[thread_idx];
// update thread index for received subframe
UE->current_thread_id[slot_nr] = thread_idx;
#if BASIC_SIMULATOR
{
int t;
for (t = 0; t < RX_NB_TH; t++) {
UE_rxtx_proc_t *proc = &UE->proc.proc_rxtx[t];
pthread_mutex_lock(&proc->mutex_rxtx);
while (proc->instance_cnt_rxtx >= 0) pthread_cond_wait( &proc->cond_rxtx, &proc->mutex_rxtx );
pthread_mutex_unlock(&proc->mutex_rxtx);
}
}
#endif
LOG_D(PHY,"Process slot %d thread Idx %d \n", slot_nr, UE->current_thread_id[slot_nr]);
if (UE->mode != loop_through_memory) {
for (i=0; i<UE->frame_parms.nb_antennas_rx; i++)
rxp[i] = (void*)&UE->common_vars.rxdata[i][UE->frame_parms.ofdm_symbol_size+
UE->frame_parms.nb_prefix_samples0+
slot_nr*UE->frame_parms.samples_per_slot];
for (i=0; i<UE->frame_parms.nb_antennas_tx; i++)
txp[i] = (void*)&UE->common_vars.txdata[i][((slot_nr+2)%NR_NUMBER_OF_SUBFRAMES_PER_FRAME)*UE->frame_parms.samples_per_slot];
int readBlockSize, writeBlockSize;
if (slot_nr<(nb_slot_frame - 1)) {
readBlockSize=UE->frame_parms.samples_per_slot;
writeBlockSize=UE->frame_parms.samples_per_slot;
} else {
// set TO compensation to zero
UE->rx_offset_diff = 0;
// compute TO compensation that should be applied for this frame
if ( UE->rx_offset < 5*UE->frame_parms.samples_per_slot &&
UE->rx_offset > 0 )
UE->rx_offset_diff = -1 ;
if ( UE->rx_offset > 5*UE->frame_parms.samples_per_slot &&
UE->rx_offset < 10*UE->frame_parms.samples_per_slot )
UE->rx_offset_diff = 1;
if ( getenv("RFSIMULATOR") != 0) {
LOG_E(PHY,"AbsSubframe %d.%d TTI SET rx_off_diff to %d rx_offset %d \n",
proc->frame_rx,slot_nr,UE->rx_offset_diff,UE->rx_offset);
//UE->rx_offset_diff=0;
}
readBlockSize=UE->frame_parms.samples_per_slot -
UE->frame_parms.ofdm_symbol_size -
UE->frame_parms.nb_prefix_samples0 -
UE->rx_offset_diff;
writeBlockSize=UE->frame_parms.samples_per_slot -
UE->rx_offset_diff;
}
AssertFatal(readBlockSize ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
rxp,
readBlockSize,
UE->frame_parms.nb_antennas_rx),"");
AssertFatal( writeBlockSize ==
UE->rfdevice.trx_write_func(&UE->rfdevice,
timestamp+
(2*UE->frame_parms.samples_per_slot) -
UE->frame_parms.ofdm_symbol_size-UE->frame_parms.nb_prefix_samples0 -
openair0_cfg[0].tx_sample_advance,
txp,
writeBlockSize,
UE->frame_parms.nb_antennas_tx,
1),"");
if( slot_nr==(nb_slot_frame-1)) {
// read in first symbol of next frame and adjust for timing drift
int first_symbols=writeBlockSize-readBlockSize;
if ( first_symbols > 0 )
AssertFatal(first_symbols ==
UE->rfdevice.trx_read_func(&UE->rfdevice,
&timestamp,
(void**)UE->common_vars.rxdata,
first_symbols,
UE->frame_parms.nb_antennas_rx),"");
if ( first_symbols <0 )
LOG_E(PHY,"can't compensate: diff =%d\n", first_symbols);
}
pickTime(gotIQs);
// operate on thread sf mod 2
AssertFatal(pthread_mutex_lock(&proc->mutex_rxtx) ==0,"");
if(slot_nr == 0) {
UE->proc.proc_rxtx[0].frame_rx++;
//UE->proc.proc_rxtx[1].frame_rx++;
for (th_id=1; th_id < RX_NB_TH; th_id++) {
UE->proc.proc_rxtx[th_id].frame_rx = UE->proc.proc_rxtx[0].frame_rx;
}
#ifdef SAIF_ENABLED
if (!(proc->frame_rx%4000))
{
printf("frame_rx=%d rx_thread_busy=%ld - rate %8.3f\n",
proc->frame_rx, g_ue_rx_thread_busy,
(float)g_ue_rx_thread_busy/(proc->frame_rx*10+1)*100.0);
fflush(stdout);
}
if (!(proc->frame_rx%4000)) {
printf("frame_rx=%d rx_thread_busy=%ld - rate %8.3f\n",
proc->frame_rx, g_ue_rx_thread_busy,
(float)g_ue_rx_thread_busy/(proc->frame_rx*10+1)*100.0);
fflush(stdout);
}
#endif
}
//UE->proc.proc_rxtx[0].gotIQs=readTime(gotIQs);
//UE->proc.proc_rxtx[1].gotIQs=readTime(gotIQs);
for (th_id=0; th_id < RX_NB_TH; th_id++) {
UE->proc.proc_rxtx[th_id].gotIQs=readTime(gotIQs);
}
proc->nr_tti_rx=slot_nr;
proc->subframe_rx=table_sf_slot[slot_nr];
proc->frame_tx = proc->frame_rx;
proc->nr_tti_tx= slot_nr + DURATION_RX_TO_TX;
if (proc->nr_tti_tx > nb_slot_frame) {
proc->frame_tx = (proc->frame_tx + 1)%MAX_FRAME_NUMBER;
proc->nr_tti_tx %= nb_slot_frame;
}
proc->subframe_tx=proc->nr_tti_rx;
proc->timestamp_tx = timestamp+
(DURATION_RX_TO_TX*UE->frame_parms.samples_per_slot)-
UE->frame_parms.ofdm_symbol_size-UE->frame_parms.nb_prefix_samples0;
proc->instance_cnt_rxtx++;
LOG_D( PHY, "[SCHED][UE %d] UE RX instance_cnt_rxtx %d subframe %d !!\n", UE->Mod_id, proc->instance_cnt_rxtx,proc->subframe_rx);
if (proc->instance_cnt_rxtx == 0) {
if (pthread_cond_signal(&proc->cond_rxtx) != 0) {
LOG_E( PHY, "[SCHED][UE %d] ERROR pthread_cond_signal for UE RX thread\n", UE->Mod_id);
exit_fun("nothing to add");
}
} else {
//UE->proc.proc_rxtx[0].gotIQs=readTime(gotIQs);
//UE->proc.proc_rxtx[1].gotIQs=readTime(gotIQs);
for (th_id=0; th_id < RX_NB_TH; th_id++) {
UE->proc.proc_rxtx[th_id].gotIQs=readTime(gotIQs);
}
proc->subframe_tx=proc->nr_tti_rx;
proc->timestamp_tx = timestamp+
(DURATION_RX_TO_TX*UE->frame_parms.samples_per_slot)-
UE->frame_parms.ofdm_symbol_size-UE->frame_parms.nb_prefix_samples0;
proc->instance_cnt_rxtx++;
LOG_D( PHY, "[SCHED][UE %d] UE RX instance_cnt_rxtx %d subframe %d !!\n", UE->Mod_id, proc->instance_cnt_rxtx,proc->subframe_rx);
if (proc->instance_cnt_rxtx != 0) {
#ifdef SAIF_ENABLED
g_ue_rx_thread_busy++;
g_ue_rx_thread_busy++;
#endif
if ( getenv("RFSIMULATOR") != NULL ) {
do {
AssertFatal (pthread_mutex_unlock(&proc->mutex_rxtx) == 0, "");
usleep(100);
AssertFatal (pthread_mutex_lock(&proc->mutex_rxtx) == 0, "");
} while ( proc->instance_cnt_rxtx >= 0);
} else
LOG_E( PHY, "[SCHED][UE %d] !! UE RX thread busy (IC %d)!!\n", UE->Mod_id, proc->instance_cnt_rxtx);
if (proc->instance_cnt_rxtx > 4)
{
char exit_fun_string[256];
sprintf(exit_fun_string,"[SCHED][UE %d] !!! UE instance_cnt_rxtx > 2 (IC %d) (Proc %d)!!",
UE->Mod_id, proc->instance_cnt_rxtx,
UE->current_thread_id[slot_nr]);
printf("%s\n",exit_fun_string);
fflush(stdout);
sleep(1);
exit_fun(exit_fun_string);
}
}
AssertFatal (pthread_cond_signal(&proc->cond_rxtx) ==0 ,"");
AssertFatal(pthread_mutex_unlock(&proc->mutex_rxtx) ==0,"");
// initRefTimes(t1);
// initStaticTime(lastTime);
// updateTimes(lastTime, &t1, 20000, "Delay between two IQ acquisitions (case 1)");
// pickStaticTime(lastTime);
} //UE->mode != loop_through_memory
else {
proc->nr_tti_rx=slot_nr;
proc->subframe_rx=table_sf_slot[slot_nr];
if(slot_nr == 0) {
for (th_id=0; th_id < RX_NB_TH; th_id++) {
UE->proc.proc_rxtx[th_id].frame_rx++;
}
}
proc->frame_tx = proc->frame_rx;
proc->nr_tti_tx= slot_nr + DURATION_RX_TO_TX;
if (proc->nr_tti_tx > nb_slot_frame) {
proc->frame_tx = (proc->frame_tx + 1)%MAX_FRAME_NUMBER;
proc->nr_tti_tx %= nb_slot_frame;
}
proc->subframe_tx=table_sf_slot[proc->nr_tti_tx];
if (slot_select_nr(&UE->frame_parms, proc->frame_tx, proc->nr_tti_tx) & NR_DOWNLINK_SLOT) {
//clean previous FAPI MESSAGE
UE->rx_ind.number_pdus = 0;
UE->dci_ind.number_of_dcis = 0;
//clean previous FAPI MESSAGE
// call L2 for DL_CONFIG (DCI)
UE->dcireq.module_id = UE->Mod_id;
UE->dcireq.gNB_index = 0;
UE->dcireq.cc_id = 0;
UE->dcireq.frame = proc->frame_rx;
UE->dcireq.slot = proc->nr_tti_rx;
nr_ue_dcireq(&UE->dcireq); //to be replaced with function pointer later
NR_UE_MAC_INST_t *UE_mac = get_mac_inst(0);
UE_mac->scheduled_response.dl_config = &UE->dcireq.dl_config_req;
UE_mac->scheduled_response.slot = proc->nr_tti_rx;
nr_ue_scheduled_response(&UE_mac->scheduled_response);
//write_output("uerxdata_frame.m", "uerxdata_frame", UE->common_vars.rxdata[0], UE->frame_parms.samples_per_frame, 1, 1);
printf("Processing slot %d\n",proc->nr_tti_rx);
phy_procedures_nrUE_RX( UE, proc, 0, 1, UE->mode);
}
if(UE->if_inst != NULL && UE->if_inst->ul_indication != NULL){
UE->ul_indication.module_id = 0;
UE->ul_indication.gNB_index = 0;
UE->ul_indication.cc_id = 0;
UE->ul_indication.frame = proc->frame_rx;
UE->ul_indication.slot = proc->nr_tti_rx;
UE->if_inst->ul_indication(&UE->ul_indication);
}
getchar();
} // else loop_through_memory
} // start_rx_stream==1
} // UE->is_synchronized==1
} // while !oai_exit
return NULL;
if ( getenv("RFSIMULATOR") != NULL ) {
do {
AssertFatal (pthread_mutex_unlock(&proc->mutex_rxtx) == 0, "");
usleep(100);
AssertFatal (pthread_mutex_lock(&proc->mutex_rxtx) == 0, "");
} while ( proc->instance_cnt_rxtx >= 0);
} else
LOG_E( PHY, "[SCHED][UE %d] !! UE RX thread busy (IC %d)!!\n", UE->Mod_id, proc->instance_cnt_rxtx);
AssertFatal( proc->instance_cnt_rxtx <= 4, "[SCHED][UE %d] !!! UE instance_cnt_rxtx > 2 (IC %d) (Proc %d)!!",
UE->Mod_id, proc->instance_cnt_rxtx,
UE->current_thread_id[slot_nr]);
}
AssertFatal (pthread_cond_signal(&proc->cond_rxtx) ==0,"");
AssertFatal (pthread_mutex_unlock(&proc->mutex_rxtx) ==0,"");
// initRefTimes(t1);
// initStaticTime(lastTime);
// updateTimes(lastTime, &t1, 20000, "Delay between two IQ acquisitions (case 1)");
// pickStaticTime(lastTime);
} //UE->mode != loop_through_memory
else {
processSubframeRX(UE,proc);
getchar();
} // else loop_through_memory
} // while !oai_exit
return NULL;
}
/*!
......@@ -1175,84 +1136,78 @@ void *UE_thread(void *arg) {
* and the locking between them.
*/
void init_UE_threads(PHY_VARS_NR_UE *UE) {
struct nr_rxtx_thread_data *rtd;
pthread_attr_init (&UE->proc.attr_ue);
pthread_attr_setstacksize(&UE->proc.attr_ue,8192);//5*PTHREAD_STACK_MIN);
pthread_mutex_init(&UE->proc.mutex_synch,NULL);
pthread_cond_init(&UE->proc.cond_synch,NULL);
UE->proc.instance_cnt_synch = -1;
// the threads are not yet active, therefore access is allowed without locking
int nb_threads=RX_NB_TH;
for (int i=0; i<nb_threads; i++) {
rtd = calloc(1, sizeof(struct nr_rxtx_thread_data));
if (rtd == NULL) abort();
rtd->UE = UE;
rtd->proc = &UE->proc.proc_rxtx[i];
pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_rxtx,NULL);
pthread_cond_init(&UE->proc.proc_rxtx[i].cond_rxtx,NULL);
UE->proc.proc_rxtx[i].sub_frame_start=i;
UE->proc.proc_rxtx[i].sub_frame_step=nb_threads;
printf("Init_UE_threads rtd %d proc %d nb_threads %d i %d\n",rtd->proc->sub_frame_start, UE->proc.proc_rxtx[i].sub_frame_start,nb_threads, i);
pthread_create(&UE->proc.proc_rxtx[i].pthread_rxtx, NULL, UE_thread_rxn_txnp4, rtd);
struct nr_rxtx_thread_data *rtd;
pthread_attr_init (&UE->proc.attr_ue);
pthread_attr_setstacksize(&UE->proc.attr_ue,8192);//5*PTHREAD_STACK_MIN);
pthread_mutex_init(&UE->proc.mutex_synch,NULL);
pthread_cond_init(&UE->proc.cond_synch,NULL);
UE->proc.instance_cnt_synch = -1;
// the threads are not yet active, therefore access is allowed without locking
for (int i=0; i<RX_NB_TH; i++) {
rtd = calloc(1, sizeof(struct nr_rxtx_thread_data));
if (rtd == NULL) abort();
rtd->UE = UE;
rtd->proc = &UE->proc.proc_rxtx[i];
pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_rxtx,NULL);
pthread_cond_init(&UE->proc.proc_rxtx[i].cond_rxtx,NULL);
UE->proc.proc_rxtx[i].sub_frame_start=i;
UE->proc.proc_rxtx[i].sub_frame_step=RX_NB_TH;
printf("Init_UE_threads rtd %d proc %d nb_threads %d i %d\n",rtd->proc->sub_frame_start, UE->proc.proc_rxtx[i].sub_frame_start,RX_NB_TH, i);
pthread_create(&UE->proc.proc_rxtx[i].pthread_rxtx, NULL, UE_thread_rxn_txnp4, rtd);
#ifdef UE_DLSCH_PARALLELISATION
pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_dlsch_td,NULL);
pthread_cond_init(&UE->proc.proc_rxtx[i].cond_dlsch_td,NULL);
pthread_create(&UE->proc.proc_rxtx[i].pthread_dlsch_td,NULL,nr_dlsch_decoding_2thread0, rtd);
//thread 2
pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_dlsch_td1,NULL);
pthread_cond_init(&UE->proc.proc_rxtx[i].cond_dlsch_td1,NULL);
pthread_create(&UE->proc.proc_rxtx[i].pthread_dlsch_td1,NULL,nr_dlsch_decoding_2thread1, rtd);
pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_dlsch_td,NULL);
pthread_cond_init(&UE->proc.proc_rxtx[i].cond_dlsch_td,NULL);
pthread_create(&UE->proc.proc_rxtx[i].pthread_dlsch_td,NULL,nr_dlsch_decoding_2thread0, rtd);
//thread 2
pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_dlsch_td1,NULL);
pthread_cond_init(&UE->proc.proc_rxtx[i].cond_dlsch_td1,NULL);
pthread_create(&UE->proc.proc_rxtx[i].pthread_dlsch_td1,NULL,nr_dlsch_decoding_2thread1, rtd);
#endif
#ifdef UE_SLOT_PARALLELISATION
//pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_slot0_dl_processing,NULL);
//pthread_cond_init(&UE->proc.proc_rxtx[i].cond_slot0_dl_processing,NULL);
//pthread_create(&UE->proc.proc_rxtx[i].pthread_slot0_dl_processing,NULL,UE_thread_slot0_dl_processing, rtd);
pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_slot1_dl_processing,NULL);
pthread_cond_init(&UE->proc.proc_rxtx[i].cond_slot1_dl_processing,NULL);
pthread_create(&UE->proc.proc_rxtx[i].pthread_slot1_dl_processing,NULL,UE_thread_slot1_dl_processing, rtd);
//pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_slot0_dl_processing,NULL);
//pthread_cond_init(&UE->proc.proc_rxtx[i].cond_slot0_dl_processing,NULL);
//pthread_create(&UE->proc.proc_rxtx[i].pthread_slot0_dl_processing,NULL,UE_thread_slot0_dl_processing, rtd);
pthread_mutex_init(&UE->proc.proc_rxtx[i].mutex_slot1_dl_processing,NULL);
pthread_cond_init(&UE->proc.proc_rxtx[i].cond_slot1_dl_processing,NULL);
pthread_create(&UE->proc.proc_rxtx[i].pthread_slot1_dl_processing,NULL,UE_thread_slot1_dl_processing, rtd);
#endif
}
}
pthread_create(&UE->proc.pthread_synch,NULL,UE_thread_synch,(void*)UE);
pthread_create(&UE->proc.pthread_synch,NULL,UE_thread_synch,(void *)UE);
}
#ifdef OPENAIR2
/*
void fill_ue_band_info(void) {
UE_EUTRA_Capability_t *UE_EUTRA_Capability = UE_rrc_inst[0].UECap->UE_EUTRA_Capability;
int i,j;
bands_to_scan.nbands = UE_EUTRA_Capability->rf_Parameters.supportedBandListEUTRA.list.count;
for (i=0; i<bands_to_scan.nbands; i++) {
for (j=0; j<sizeof (eutra_bands) / sizeof (eutra_bands[0]); j++)
if (eutra_bands[j].band == UE_EUTRA_Capability->rf_Parameters.supportedBandListEUTRA.list.array[i]->bandEUTRA) {
memcpy(&bands_to_scan.band_info[i],
&eutra_bands[j],
sizeof(eutra_band_t));
printf("Band %d (%lu) : DL %u..%u Hz, UL %u..%u Hz, Duplex %s \n",
bands_to_scan.band_info[i].band,
UE_EUTRA_Capability->rf_Parameters.supportedBandListEUTRA.list.array[i]->bandEUTRA,
bands_to_scan.band_info[i].dl_min,
bands_to_scan.band_info[i].dl_max,
bands_to_scan.band_info[i].ul_min,
bands_to_scan.band_info[i].ul_max,
(bands_to_scan.band_info[i].frame_type==FDD) ? "FDD" : "TDD");
break;
}
}
}*/
/*
void fill_ue_band_info(void) {
UE_EUTRA_Capability_t *UE_EUTRA_Capability = UE_rrc_inst[0].UECap->UE_EUTRA_Capability;
int i,j;
bands_to_scan.nbands = UE_EUTRA_Capability->rf_Parameters.supportedBandListEUTRA.list.count;
for (i=0; i<bands_to_scan.nbands; i++) {
for (j=0; j<sizeof (eutra_bands) / sizeof (eutra_bands[0]); j++)
if (eutra_bands[j].band == UE_EUTRA_Capability->rf_Parameters.supportedBandListEUTRA.list.array[i]->bandEUTRA) {
memcpy(&bands_to_scan.band_info[i],
&eutra_bands[j],
sizeof(eutra_band_t));
printf("Band %d (%lu) : DL %u..%u Hz, UL %u..%u Hz, Duplex %s \n",
bands_to_scan.band_info[i].band,
UE_EUTRA_Capability->rf_Parameters.supportedBandListEUTRA.list.array[i]->bandEUTRA,
bands_to_scan.band_info[i].dl_min,
bands_to_scan.band_info[i].dl_max,
bands_to_scan.band_info[i].ul_min,
bands_to_scan.band_info[i].ul_max,
(bands_to_scan.band_info[i].frame_type==FDD) ? "FDD" : "TDD");
break;
}
}
}*/
#endif
/*
......
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