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5cb22784fcfe8f79e4e549984d6d4b5babb53a76
openairinterface5g/openair1/PHY/INIT/nr_init_ue.c
T
laurent 5cb22784fc coarse-cleaning-pss-sss
2023-06-08 14:01:25 +02:00

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/*
* Licensed to the OpenAirInterface (OAI) Software Alliance under one or more
* contributor license agreements. See the NOTICE file distributed with
* this work for additional information regarding copyright ownership.
* The OpenAirInterface Software Alliance licenses this file to You under
* the OAI Public License, Version 1.1 (the "License"); you may not use this file
* except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.openairinterface.org/?page_id=698
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*-------------------------------------------------------------------------------
* For more information about the OpenAirInterface (OAI) Software Alliance:
* contact@openairinterface.org
*/
#include "nr_phy_init.h"
#include "PHY/phy_extern_nr_ue.h"
#include "openair1/PHY/defs_RU.h"
#include "openair1/PHY/impl_defs_nr.h"
#include "common/utils/LOG/vcd_signal_dumper.h"
#include "assertions.h"
#include "PHY/MODULATION/nr_modulation.h"
#include "PHY/NR_UE_TRANSPORT/nr_transport_ue.h"
#include "PHY/NR_UE_TRANSPORT/nr_transport_proto_ue.h"
#include "PHY/NR_REFSIG/pss_nr.h"
#include "PHY/NR_REFSIG/ul_ref_seq_nr.h"
#include "PHY/NR_REFSIG/refsig_defs_ue.h"
#include "PHY/NR_REFSIG/nr_refsig.h"
#include "PHY/MODULATION/nr_modulation.h"
#include "openair2/COMMON/prs_nr_paramdef.h"
#include "SCHED_NR_UE/harq_nr.h"
void RCconfig_nrUE_prs(void *cfg)
{
int j = 0, k = 0, gNB_id = 0;
char aprefix[MAX_OPTNAME_SIZE*2 + 8];
char str[7][100] = {{'\0'}}; int16_t n[7] = {0};
PHY_VARS_NR_UE *ue = (PHY_VARS_NR_UE *)cfg;
prs_config_t *prs_config = NULL;
paramlist_def_t gParamList = {CONFIG_STRING_PRS_LIST,NULL,0};
paramdef_t gParams[] = PRS_GLOBAL_PARAMS_DESC;
config_getlist( &gParamList,gParams,sizeof(gParams)/sizeof(paramdef_t), NULL);
if (gParamList.numelt > 0)
{
ue->prs_active_gNBs = *(gParamList.paramarray[j][PRS_ACTIVE_GNBS_IDX].uptr);
}
else
{
LOG_E(PHY,"%s configuration NOT found..!! Skipped configuring UE for the PRS reception\n", CONFIG_STRING_PRS_CONFIG);
}
paramlist_def_t PRS_ParamList = {{0},NULL,0};
for(int i = 0; i < ue->prs_active_gNBs; i++)
{
paramdef_t PRS_Params[] = PRS_PARAMS_DESC;
sprintf(PRS_ParamList.listname, "%s%i", CONFIG_STRING_PRS_CONFIG, i);
sprintf(aprefix, "%s.[%i]", CONFIG_STRING_PRS_LIST, 0);
config_getlist( &PRS_ParamList,PRS_Params,sizeof(PRS_Params)/sizeof(paramdef_t), aprefix);
if (PRS_ParamList.numelt > 0) {
for (j = 0; j < PRS_ParamList.numelt; j++) {
gNB_id = *(PRS_ParamList.paramarray[j][PRS_GNB_ID].uptr);
if(gNB_id != i) gNB_id = i; // force gNB_id to avoid mismatch
memset(n,0,sizeof(n));
ue->prs_vars[gNB_id]->NumPRSResources = *(PRS_ParamList.paramarray[j][NUM_PRS_RESOURCES].uptr);
for (k = 0; k < ue->prs_vars[gNB_id]->NumPRSResources; k++)
{
prs_config = &ue->prs_vars[gNB_id]->prs_resource[k].prs_cfg;
prs_config->PRSResourceSetPeriod[0] = PRS_ParamList.paramarray[j][PRS_RESOURCE_SET_PERIOD_LIST].uptr[0];
prs_config->PRSResourceSetPeriod[1] = PRS_ParamList.paramarray[j][PRS_RESOURCE_SET_PERIOD_LIST].uptr[1];
// per PRS resources parameters
prs_config->SymbolStart = PRS_ParamList.paramarray[j][PRS_SYMBOL_START_LIST].uptr[k];
prs_config->NumPRSSymbols = PRS_ParamList.paramarray[j][PRS_NUM_SYMBOLS_LIST].uptr[k];
prs_config->REOffset = PRS_ParamList.paramarray[j][PRS_RE_OFFSET_LIST].uptr[k];
prs_config->NPRSID = PRS_ParamList.paramarray[j][PRS_ID_LIST].uptr[k];
prs_config->PRSResourceOffset = PRS_ParamList.paramarray[j][PRS_RESOURCE_OFFSET_LIST].uptr[k];
// Common parameters to all PRS resources
prs_config->NumRB = *(PRS_ParamList.paramarray[j][PRS_NUM_RB].uptr);
prs_config->RBOffset = *(PRS_ParamList.paramarray[j][PRS_RB_OFFSET].uptr);
prs_config->CombSize = *(PRS_ParamList.paramarray[j][PRS_COMB_SIZE].uptr);
prs_config->PRSResourceRepetition = *(PRS_ParamList.paramarray[j][PRS_RESOURCE_REPETITION].uptr);
prs_config->PRSResourceTimeGap = *(PRS_ParamList.paramarray[j][PRS_RESOURCE_TIME_GAP].uptr);
prs_config->MutingBitRepetition = *(PRS_ParamList.paramarray[j][PRS_MUTING_BIT_REPETITION].uptr);
for (int l = 0; l < PRS_ParamList.paramarray[j][PRS_MUTING_PATTERN1_LIST].numelt; l++)
{
prs_config->MutingPattern1[l] = PRS_ParamList.paramarray[j][PRS_MUTING_PATTERN1_LIST].uptr[l];
if (k == 0) // print only for 0th resource
n[5] += snprintf(str[5]+n[5],sizeof(str[5]),"%d, ",prs_config->MutingPattern1[l]);
}
for (int l = 0; l < PRS_ParamList.paramarray[j][PRS_MUTING_PATTERN2_LIST].numelt; l++)
{
prs_config->MutingPattern2[l] = PRS_ParamList.paramarray[j][PRS_MUTING_PATTERN2_LIST].uptr[l];
if (k == 0) // print only for 0th resource
n[6] += snprintf(str[6]+n[6],sizeof(str[6]),"%d, ",prs_config->MutingPattern2[l]);
}
// print to buffer
n[0] += snprintf(str[0]+n[0],sizeof(str[0]),"%d, ",prs_config->SymbolStart);
n[1] += snprintf(str[1]+n[1],sizeof(str[1]),"%d, ",prs_config->NumPRSSymbols);
n[2] += snprintf(str[2]+n[2],sizeof(str[2]),"%d, ",prs_config->REOffset);
n[3] += snprintf(str[3]+n[3],sizeof(str[3]),"%d, ",prs_config->PRSResourceOffset);
n[4] += snprintf(str[4]+n[4],sizeof(str[4]),"%d, ",prs_config->NPRSID);
} // for k
prs_config = &ue->prs_vars[gNB_id]->prs_resource[0].prs_cfg;
LOG_I(PHY, "-----------------------------------------\n");
LOG_I(PHY, "PRS Config for gNB_id %d @ %p\n", gNB_id, prs_config);
LOG_I(PHY, "-----------------------------------------\n");
LOG_I(PHY, "NumPRSResources \t%d\n", ue->prs_vars[gNB_id]->NumPRSResources);
LOG_I(PHY, "PRSResourceSetPeriod \t[%d, %d]\n", prs_config->PRSResourceSetPeriod[0], prs_config->PRSResourceSetPeriod[1]);
LOG_I(PHY, "NumRB \t\t\t%d\n", prs_config->NumRB);
LOG_I(PHY, "RBOffset \t\t%d\n", prs_config->RBOffset);
LOG_I(PHY, "CombSize \t\t%d\n", prs_config->CombSize);
LOG_I(PHY, "PRSResourceRepetition \t%d\n", prs_config->PRSResourceRepetition);
LOG_I(PHY, "PRSResourceTimeGap \t%d\n", prs_config->PRSResourceTimeGap);
LOG_I(PHY, "MutingBitRepetition \t%d\n", prs_config->MutingBitRepetition);
LOG_I(PHY, "SymbolStart \t\t[%s\b\b]\n", str[0]);
LOG_I(PHY, "NumPRSSymbols \t\t[%s\b\b]\n", str[1]);
LOG_I(PHY, "REOffset \t\t[%s\b\b]\n", str[2]);
LOG_I(PHY, "PRSResourceOffset \t[%s\b\b]\n", str[3]);
LOG_I(PHY, "NPRS_ID \t\t[%s\b\b]\n", str[4]);
LOG_I(PHY, "MutingPattern1 \t\t[%s\b\b]\n", str[5]);
LOG_I(PHY, "MutingPattern2 \t\t[%s\b\b]\n", str[6]);
LOG_I(PHY, "-----------------------------------------\n");
}
}
else
{
LOG_E(PHY,"No %s configuration found..!!\n", PRS_ParamList.listname);
}
}
}
void init_nr_prs_ue_vars(PHY_VARS_NR_UE *ue)
{
NR_UE_PRS **const prs_vars = ue->prs_vars;
NR_DL_FRAME_PARMS *const fp = &ue->frame_parms;
// PRS vars init
for(int idx = 0; idx < NR_MAX_PRS_COMB_SIZE; idx++)
{
prs_vars[idx] = (NR_UE_PRS *)malloc16_clear(sizeof(NR_UE_PRS));
// PRS channel estimates
for(int k = 0; k < NR_MAX_PRS_RESOURCES_PER_SET; k++)
{
prs_vars[idx]->prs_resource[k].prs_meas = (prs_meas_t **)malloc16_clear( fp->nb_antennas_rx*sizeof(prs_meas_t *) );
AssertFatal((prs_vars[idx]->prs_resource[k].prs_meas!=NULL), "%s: PRS measurements malloc failed for gNB_id %d\n", __FUNCTION__, idx);
for (int j=0; j<fp->nb_antennas_rx; j++) {
prs_vars[idx]->prs_resource[k].prs_meas[j] = (prs_meas_t *)malloc16_clear(sizeof(prs_meas_t) );
AssertFatal((prs_vars[idx]->prs_resource[k].prs_meas[j]!=NULL), "%s: PRS measurements malloc failed for gNB_id %d, rx_ant %d\n", __FUNCTION__, idx, j);
}
}
}
// load the config file params
RCconfig_nrUE_prs(ue);
//PRS sequence init
ue->nr_gold_prs = (uint32_t *****)malloc16(ue->prs_active_gNBs*sizeof(uint32_t ****));
uint32_t *****prs = ue->nr_gold_prs;
AssertFatal(prs!=NULL, "%s: positioning reference signal malloc failed\n", __FUNCTION__);
for (int gnb = 0; gnb < ue->prs_active_gNBs; gnb++) {
prs[gnb] = (uint32_t ****)malloc16(ue->prs_vars[gnb]->NumPRSResources*sizeof(uint32_t ***));
AssertFatal(prs[gnb]!=NULL, "%s: positioning reference signal for gnb %d - malloc failed\n", __FUNCTION__, gnb);
for (int rsc = 0; rsc < ue->prs_vars[gnb]->NumPRSResources; rsc++) {
prs[gnb][rsc] = (uint32_t ***)malloc16(fp->slots_per_frame*sizeof(uint32_t **));
AssertFatal(prs[gnb][rsc]!=NULL, "%s: positioning reference signal for gnb %d rsc %d- malloc failed\n", __FUNCTION__, gnb, rsc);
for (int slot=0; slot<fp->slots_per_frame; slot++) {
prs[gnb][rsc][slot] = (uint32_t **)malloc16(fp->symbols_per_slot*sizeof(uint32_t *));
AssertFatal(prs[gnb][rsc][slot]!=NULL, "%s: positioning reference signal for gnb %d rsc %d slot %d - malloc failed\n", __FUNCTION__, gnb, rsc, slot);
for (int symb=0; symb<fp->symbols_per_slot; symb++) {
prs[gnb][rsc][slot][symb] = (uint32_t *)malloc16(NR_MAX_PRS_INIT_LENGTH_DWORD*sizeof(uint32_t));
AssertFatal(prs[gnb][rsc][slot][symb]!=NULL, "%s: positioning reference signal for gnb %d rsc %d slot %d symbol %d - malloc failed\n", __FUNCTION__, gnb, rsc, slot, symb);
} // for symb
} // for slot
} // for rsc
} // for gnb
init_nr_gold_prs(ue);
}
int init_nr_ue_signal(PHY_VARS_NR_UE *ue, int nb_connected_gNB)
{
// create shortcuts
NR_DL_FRAME_PARMS *const fp = &ue->frame_parms;
NR_UE_COMMON *const common_vars = &ue->common_vars;
NR_UE_PRACH **const prach_vars = ue->prach_vars;
NR_UE_CSI_IM **const csiim_vars = ue->csiim_vars;
NR_UE_CSI_RS **const csirs_vars = ue->csirs_vars;
NR_UE_SRS **const srs_vars = ue->srs_vars;
int i, slot, symb, gNB_id;
LOG_I(PHY, "Initializing UE vars for gNB TXant %u, UE RXant %u\n", fp->nb_antennas_tx, fp->nb_antennas_rx);
phy_init_nr_top(ue);
// many memory allocation sizes are hard coded
AssertFatal( fp->nb_antennas_rx <= 4, "hard coded allocation for ue_common_vars->dl_ch_estimates[gNB_id]" );
AssertFatal( nb_connected_gNB <= NUMBER_OF_CONNECTED_gNB_MAX, "n_connected_gNB is too large" );
// init phy_vars_ue
for (i=0; i<fp->Lmax; i++)
ue->measurements.ssb_rsrp_dBm[i] = INT_MIN;
for (i=0; i<4; i++) {
ue->rx_gain_max[i] = 135;
ue->rx_gain_med[i] = 128;
ue->rx_gain_byp[i] = 120;
}
ue->n_connected_gNB = nb_connected_gNB;
for(gNB_id = 0; gNB_id < ue->n_connected_gNB; gNB_id++) {
ue->total_TBS[gNB_id] = 0;
ue->total_TBS_last[gNB_id] = 0;
ue->bitrate[gNB_id] = 0;
ue->total_received_bits[gNB_id] = 0;
}
// init NR modulation lookup tables
nr_generate_modulation_table();
///////////
////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////// PRS init /////////////////////////
///////////
init_nr_prs_ue_vars(ue);
///////////
////////////////////////////////////////////////////////////////////////////////////////////
/////////////////////////PUSCH DMRS init/////////////////////////
///////////
// ceil(((NB_RB*6(k)*2(QPSK)/32) // 3 RE *2(QPSK)
int pusch_dmrs_init_length = ((fp->N_RB_UL*12)>>5)+1;
ue->nr_gold_pusch_dmrs = (uint32_t ****)malloc16(fp->slots_per_frame*sizeof(uint32_t ***));
uint32_t ****pusch_dmrs = ue->nr_gold_pusch_dmrs;
for (slot=0; slot<fp->slots_per_frame; slot++) {
pusch_dmrs[slot] = (uint32_t ***)malloc16(fp->symbols_per_slot*sizeof(uint32_t **));
AssertFatal(pusch_dmrs[slot]!=NULL, "init_nr_ue_signal: pusch_dmrs for slot %d - malloc failed\n", slot);
for (symb=0; symb<fp->symbols_per_slot; symb++) {
pusch_dmrs[slot][symb] = (uint32_t **)malloc16(NR_NB_NSCID*sizeof(uint32_t *));
AssertFatal(pusch_dmrs[slot][symb]!=NULL, "init_nr_ue_signal: pusch_dmrs for slot %d symbol %d - malloc failed\n", slot, symb);
for (int q=0; q<NR_NB_NSCID; q++) {
pusch_dmrs[slot][symb][q] = (uint32_t *)malloc16(pusch_dmrs_init_length*sizeof(uint32_t));
AssertFatal(pusch_dmrs[slot][symb][q]!=NULL, "init_nr_ue_signal: pusch_dmrs for slot %d symbol %d nscid %d - malloc failed\n", slot, symb, q);
}
}
}
///////////
////////////////////////////////////////////////////////////////////////////////////////////
/////////////////////////PUSCH PTRS init/////////////////////////
///////////
//------------- config PTRS parameters--------------//
// ptrs_Uplink_Config->timeDensity.ptrs_mcs1 = 2; // setting MCS values to 0 indicate abscence of time_density field in the configuration
// ptrs_Uplink_Config->timeDensity.ptrs_mcs2 = 4;
// ptrs_Uplink_Config->timeDensity.ptrs_mcs3 = 10;
// ptrs_Uplink_Config->frequencyDensity.n_rb0 = 25; // setting N_RB values to 0 indicate abscence of frequency_density field in the configuration
// ptrs_Uplink_Config->frequencyDensity.n_rb1 = 75;
// ptrs_Uplink_Config->resourceElementOffset = 0;
//-------------------------------------------------//
///////////
////////////////////////////////////////////////////////////////////////////////////////////
for (i=0; i<10; i++)
ue->tx_power_dBm[i]=-127;
// init TX buffers
common_vars->txdata = (c16_t **)malloc16(fp->nb_antennas_tx*sizeof(c16_t *));
common_vars->txdataF = (c16_t **)malloc16(fp->nb_antennas_tx*sizeof(c16_t *));
for (i=0; i<fp->nb_antennas_tx; i++) {
common_vars->txdata[i] = (c16_t *)malloc16_clear((fp->samples_per_frame) * sizeof(c16_t));
common_vars->txdataF[i] = (c16_t *)malloc16_clear((fp->samples_per_frame) * sizeof(c16_t));
}
// init RX buffers
common_vars->rxdata = (c16_t **)malloc16( fp->nb_antennas_rx*sizeof(c16_t *));
common_vars->rxdataF = (c16_t **)malloc16( fp->nb_antennas_rx*sizeof(c16_t *));
for (i=0; i<fp->nb_antennas_rx; i++) {
common_vars->rxdata[i] = (c16_t *)malloc16_clear((2 * (fp->samples_per_frame)+fp->ofdm_symbol_size) * sizeof(c16_t));
common_vars->rxdataF[i] = (c16_t *)malloc16_clear((2 * (fp->samples_per_frame)+fp->ofdm_symbol_size) * sizeof(c16_t));
}
// ceil(((NB_RB<<1)*3)/32) // 3 RE *2(QPSK)
int pdcch_dmrs_init_length = (((fp->N_RB_DL<<1)*3)>>5)+1;
//PDCCH DMRS init (gNB offset = 0)
ue->nr_gold_pdcch[0] = (uint32_t ***)malloc16(fp->slots_per_frame*sizeof(uint32_t **));
uint32_t ***pdcch_dmrs = ue->nr_gold_pdcch[0];
AssertFatal(pdcch_dmrs!=NULL, "NR init: pdcch_dmrs malloc failed\n");
for (int slot=0; slot<fp->slots_per_frame; slot++) {
pdcch_dmrs[slot] = (uint32_t **)malloc16(fp->symbols_per_slot*sizeof(uint32_t *));
AssertFatal(pdcch_dmrs[slot]!=NULL, "NR init: pdcch_dmrs for slot %d - malloc failed\n", slot);
for (int symb=0; symb<fp->symbols_per_slot; symb++) {
pdcch_dmrs[slot][symb] = (uint32_t *)malloc16(pdcch_dmrs_init_length*sizeof(uint32_t));
AssertFatal(pdcch_dmrs[slot][symb]!=NULL, "NR init: pdcch_dmrs for slot %d symbol %d - malloc failed\n", slot, symb);
}
}
// ceil(((NB_RB*6(k)*2(QPSK)/32) // 3 RE *2(QPSK)
int pdsch_dmrs_init_length = ((fp->N_RB_DL*12)>>5)+1;
//PDSCH DMRS init (eNB offset = 0)
ue->nr_gold_pdsch[0] = (uint32_t ****)malloc16(fp->slots_per_frame*sizeof(uint32_t ***));
uint32_t ****pdsch_dmrs = ue->nr_gold_pdsch[0];
for (int slot=0; slot<fp->slots_per_frame; slot++) {
pdsch_dmrs[slot] = (uint32_t ***)malloc16(fp->symbols_per_slot*sizeof(uint32_t **));
AssertFatal(pdsch_dmrs[slot]!=NULL, "NR init: pdsch_dmrs for slot %d - malloc failed\n", slot);
for (int symb=0; symb<fp->symbols_per_slot; symb++) {
pdsch_dmrs[slot][symb] = (uint32_t **)malloc16(NR_NB_NSCID*sizeof(uint32_t *));
AssertFatal(pdsch_dmrs[slot][symb]!=NULL, "NR init: pdsch_dmrs for slot %d symbol %d - malloc failed\n", slot, symb);
for (int q=0; q<NR_NB_NSCID; q++) {
pdsch_dmrs[slot][symb][q] = (uint32_t *)malloc16(pdsch_dmrs_init_length*sizeof(uint32_t));
AssertFatal(pdsch_dmrs[slot][symb][q]!=NULL, "NR init: pdsch_dmrs for slot %d symbol %d nscid %d - malloc failed\n", slot, symb, q);
}
}
}
// DLSCH
for (gNB_id = 0; gNB_id < ue->n_connected_gNB; gNB_id++) {
prach_vars[gNB_id] = (NR_UE_PRACH *)malloc16_clear(sizeof(NR_UE_PRACH));
csiim_vars[gNB_id] = (NR_UE_CSI_IM *)malloc16_clear(sizeof(NR_UE_CSI_IM));
csirs_vars[gNB_id] = (NR_UE_CSI_RS *)malloc16_clear(sizeof(NR_UE_CSI_RS));
srs_vars[gNB_id] = (NR_UE_SRS *)malloc16_clear(sizeof(NR_UE_SRS));
csiim_vars[gNB_id]->active = false;
csirs_vars[gNB_id]->active = false;
srs_vars[gNB_id]->active = false;
// ceil((NB_RB*8(max allocation per RB)*2(QPSK))/32)
int csi_dmrs_init_length = ((fp->N_RB_DL<<4)>>5)+1;
ue->nr_csi_info = (nr_csi_info_t *)malloc16_clear(sizeof(nr_csi_info_t));
ue->nr_csi_info->nr_gold_csi_rs = (uint32_t ***)malloc16(fp->slots_per_frame * sizeof(uint32_t **));
AssertFatal(ue->nr_csi_info->nr_gold_csi_rs != NULL, "NR init: csi reference signal malloc failed\n");
for (int slot=0; slot<fp->slots_per_frame; slot++) {
ue->nr_csi_info->nr_gold_csi_rs[slot] = (uint32_t **)malloc16(fp->symbols_per_slot * sizeof(uint32_t *));
AssertFatal(ue->nr_csi_info->nr_gold_csi_rs[slot] != NULL, "NR init: csi reference signal for slot %d - malloc failed\n", slot);
for (int symb=0; symb<fp->symbols_per_slot; symb++) {
ue->nr_csi_info->nr_gold_csi_rs[slot][symb] = (uint32_t *)malloc16(csi_dmrs_init_length * sizeof(uint32_t));
AssertFatal(ue->nr_csi_info->nr_gold_csi_rs[slot][symb] != NULL, "NR init: csi reference signal for slot %d symbol %d - malloc failed\n", slot, symb);
}
}
ue->nr_csi_info->csi_rs_generated_signal = (int32_t **)malloc16(NR_MAX_NB_PORTS * sizeof(int32_t *) );
for (i=0; i<NR_MAX_NB_PORTS; i++) {
ue->nr_csi_info->csi_rs_generated_signal[i] = (int32_t *) malloc16_clear(fp->samples_per_frame_wCP * sizeof(int32_t));
}
ue->nr_srs_info = (nr_srs_info_t *)malloc16_clear(sizeof(nr_srs_info_t));
}
ue->init_averaging = 1;
// enable MIB/SIB decoding by default
ue->decode_MIB = 1;
ue->decode_SIB = 1;
init_nr_prach_tables(839);
init_symbol_rotation(fp);
init_timeshift_rotation(fp);
return 0;
}
void term_nr_ue_signal(PHY_VARS_NR_UE *ue, int nb_connected_gNB)
{
const NR_DL_FRAME_PARMS* fp = &ue->frame_parms;
phy_term_nr_top();
for (int slot = 0; slot < fp->slots_per_frame; slot++) {
for (int symb = 0; symb < fp->symbols_per_slot; symb++) {
for (int q=0; q<NR_NB_NSCID; q++)
free_and_zero(ue->nr_gold_pusch_dmrs[slot][symb][q]);
free_and_zero(ue->nr_gold_pusch_dmrs[slot][symb]);
}
free_and_zero(ue->nr_gold_pusch_dmrs[slot]);
}
free_and_zero(ue->nr_gold_pusch_dmrs);
NR_UE_COMMON* common_vars = &ue->common_vars;
for (int i = 0; i < fp->nb_antennas_tx; i++) {
free_and_zero(common_vars->txdata[i]);
free_and_zero(common_vars->txdataF[i]);
}
free_and_zero(common_vars->txdata);
free_and_zero(common_vars->txdataF);
for (int i = 0; i < fp->nb_antennas_rx; i++) {
free_and_zero(common_vars->rxdata[i]);
free_and_zero(common_vars->rxdataF[i]);
}
free_and_zero(common_vars->rxdata);
free_and_zero(common_vars->rxdataF);
for (int slot = 0; slot < fp->slots_per_frame; slot++) {
for (int symb = 0; symb < fp->symbols_per_slot; symb++)
free_and_zero(ue->nr_gold_pdcch[0][slot][symb]);
free_and_zero(ue->nr_gold_pdcch[0][slot]);
}
free_and_zero(ue->nr_gold_pdcch[0]);
for (int slot=0; slot<fp->slots_per_frame; slot++) {
for (int symb=0; symb<fp->symbols_per_slot; symb++) {
for (int q=0; q<NR_NB_NSCID; q++)
free_and_zero(ue->nr_gold_pdsch[0][slot][symb][q]);
free_and_zero(ue->nr_gold_pdsch[0][slot][symb]);
}
free_and_zero(ue->nr_gold_pdsch[0][slot]);
}
free_and_zero(ue->nr_gold_pdsch[0]);
for (int gNB_id = 0; gNB_id < ue->n_connected_gNB+1; gNB_id++) {
// PDSCH
}
for (int gNB_id = 0; gNB_id < ue->n_connected_gNB; gNB_id++) {
for (int i=0; i<NR_MAX_NB_PORTS; i++) {
free_and_zero(ue->nr_csi_info->csi_rs_generated_signal[i]);
}
free_and_zero(ue->nr_csi_info->csi_rs_generated_signal);
for (int slot=0; slot<fp->slots_per_frame; slot++) {
for (int symb=0; symb<fp->symbols_per_slot; symb++) {
free_and_zero(ue->nr_csi_info->nr_gold_csi_rs[slot][symb]);
}
free_and_zero(ue->nr_csi_info->nr_gold_csi_rs[slot]);
}
free_and_zero(ue->nr_csi_info->nr_gold_csi_rs);
free_and_zero(ue->nr_csi_info);
free_and_zero(ue->nr_srs_info);
free_and_zero(ue->csiim_vars[gNB_id]);
free_and_zero(ue->csirs_vars[gNB_id]);
free_and_zero(ue->srs_vars[gNB_id]);
free_and_zero(ue->prach_vars[gNB_id]);
}
for (int gnb = 0; gnb < ue->prs_active_gNBs; gnb++)
{
for (int rsc = 0; rsc < ue->prs_vars[gnb]->NumPRSResources; rsc++)
{
for (int slot=0; slot<fp->slots_per_frame; slot++)
{
for (int symb=0; symb<fp->symbols_per_slot; symb++)
{
free_and_zero(ue->nr_gold_prs[gnb][rsc][slot][symb]);
}
free_and_zero(ue->nr_gold_prs[gnb][rsc][slot]);
}
free_and_zero(ue->nr_gold_prs[gnb][rsc]);
}
free_and_zero(ue->nr_gold_prs[gnb]);
}
free_and_zero(ue->nr_gold_prs);
for(int idx = 0; idx < NR_MAX_PRS_COMB_SIZE; idx++)
{
for(int k = 0; k < NR_MAX_PRS_RESOURCES_PER_SET; k++)
{
for (int j=0; j<fp->nb_antennas_rx; j++)
{
free_and_zero(ue->prs_vars[idx]->prs_resource[k].prs_meas[j]);
}
free_and_zero(ue->prs_vars[idx]->prs_resource[k].prs_meas);
}
free_and_zero(ue->prs_vars[idx]);
}
}
void free_nr_ue_dl_harq(NR_DL_UE_HARQ_t harq_list[2][NR_MAX_DLSCH_HARQ_PROCESSES], int number_of_processes, int num_rb) {
uint16_t a_segments = MAX_NUM_NR_DLSCH_SEGMENTS_PER_LAYER*NR_MAX_NB_LAYERS;
if (num_rb != 273) {
a_segments = a_segments*num_rb;
a_segments = (a_segments/273)+1;
}
for (int j=0; j < 2; j++) {
for (int i=0; i<number_of_processes; i++) {
for (int r=0; r<a_segments; r++) {
free_and_zero(harq_list[j][i].c[r]);
free_and_zero(harq_list[j][i].d[r]);
}
free_and_zero(harq_list[j][i].c);
free_and_zero(harq_list[j][i].d);
}
}
}
void free_nr_ue_ul_harq(NR_UL_UE_HARQ_t harq_list[NR_MAX_ULSCH_HARQ_PROCESSES], int number_of_processes, int num_rb, int num_ant_tx) {
int max_layers = (num_ant_tx < NR_MAX_NB_LAYERS) ? num_ant_tx : NR_MAX_NB_LAYERS;
uint16_t a_segments = MAX_NUM_NR_ULSCH_SEGMENTS_PER_LAYER*max_layers; //number of segments to be allocated
if (num_rb != 273) {
a_segments = a_segments*num_rb;
a_segments = a_segments/273 +1;
}
for (int i = 0; i < number_of_processes; i++) {
free_and_zero(harq_list[i].a);
free_and_zero(harq_list[i].b);
for (int r = 0; r < a_segments; r++) {
free_and_zero(harq_list[i].c[r]);
free_and_zero(harq_list[i].d[r]);
}
free_and_zero(harq_list[i].c);
free_and_zero(harq_list[i].d);
free_and_zero(harq_list[i].e);
free_and_zero(harq_list[i].f);
}
}
void term_nr_ue_transport(PHY_VARS_NR_UE *ue)
{
const int N_RB_DL = ue->frame_parms.N_RB_DL;
const int N_RB_UL = ue->frame_parms.N_RB_UL;
free_nr_ue_dl_harq(ue->dl_harq_processes, NR_MAX_DLSCH_HARQ_PROCESSES, N_RB_DL);
free_nr_ue_ul_harq(ue->ul_harq_processes, NR_MAX_ULSCH_HARQ_PROCESSES, N_RB_UL, ue->frame_parms.nb_antennas_tx);
}
void nr_init_dl_harq_processes(NR_DL_UE_HARQ_t harq_list[2][NR_MAX_DLSCH_HARQ_PROCESSES], int number_of_processes, int num_rb) {
int a_segments = MAX_NUM_NR_DLSCH_SEGMENTS_PER_LAYER*NR_MAX_NB_LAYERS; //number of segments to be allocated
if (num_rb != 273) {
a_segments = a_segments*num_rb;
a_segments = (a_segments/273)+1;
}
for (int j=0; j<2; j++) {
for (int i=0; i<number_of_processes; i++) {
memset(harq_list[j] + i, 0, sizeof(NR_DL_UE_HARQ_t));
init_downlink_harq_status(harq_list[j] + i);
harq_list[j][i].c = malloc16(a_segments*sizeof(uint8_t *));
harq_list[j][i].d = malloc16(a_segments*sizeof(int16_t *));
const int sz=5*8448*sizeof(int16_t);
for (int r=0; r<a_segments; r++) {
harq_list[j][i].c[r] = malloc16(1056);
harq_list[j][i].d[r] = malloc16(sz);
if (harq_list[j][i].c[r])
memset(harq_list[j][i].c[r],0,1056);
else
AssertFatal(true, "Unable to reset harq memory \"c\"\n");
if (harq_list[j][i].d[r])
memset(harq_list[j][i].d[r], 0, sz);
else
AssertFatal(true, "Unable to reset harq memory \"d\"\n");
}
harq_list[j][i].status = 0;
harq_list[j][i].DLround = 0;
}
}
}
void nr_init_ul_harq_processes(NR_UL_UE_HARQ_t harq_list[NR_MAX_ULSCH_HARQ_PROCESSES], int number_of_processes, int num_rb, int num_ant_tx) {
int max_layers = (num_ant_tx < NR_MAX_NB_LAYERS) ? num_ant_tx : NR_MAX_NB_LAYERS;
uint16_t a_segments = MAX_NUM_NR_ULSCH_SEGMENTS_PER_LAYER*max_layers; //number of segments to be allocated
if (num_rb != 273) {
a_segments = a_segments*num_rb;
a_segments = a_segments/273 +1;
}
uint32_t ulsch_bytes = a_segments*1056; // allocated bytes per segment
for (int i = 0; i < number_of_processes; i++) {
memset(harq_list + i, 0, sizeof(NR_UL_UE_HARQ_t));
harq_list[i].a = malloc16(ulsch_bytes);
DevAssert(harq_list[i].a);
bzero(harq_list[i].a, ulsch_bytes);
harq_list[i].b = malloc16(ulsch_bytes);
DevAssert(harq_list[i].b);
bzero(harq_list[i].b, ulsch_bytes);
harq_list[i].c = malloc16(a_segments*sizeof(uint8_t *));
harq_list[i].d = malloc16(a_segments*sizeof(uint16_t *));
for (int r = 0; r < a_segments; r++) {
harq_list[i].c[r] = malloc16(8448);
DevAssert(harq_list[i].c[r]);
bzero(harq_list[i].c[r],8448);
harq_list[i].d[r] = malloc16(68*384); //max size for coded output
DevAssert(harq_list[i].d[r]);
bzero(harq_list[i].d[r],(68*384));
}
harq_list[i].e = malloc16(14*num_rb*12*16);
DevAssert(harq_list[i].e);
bzero(harq_list[i].e,14*num_rb*12*16);
harq_list[i].f = malloc16(14*num_rb*12*16);
DevAssert(harq_list[i].f);
bzero(harq_list[i].f,14*num_rb*12*16);
harq_list[i].first_tx = 1;
harq_list[i].round = 0;
}
}
void init_nr_ue_transport(PHY_VARS_NR_UE *ue) {
nr_init_dl_harq_processes(ue->dl_harq_processes, NR_MAX_DLSCH_HARQ_PROCESSES, ue->frame_parms.N_RB_DL);
nr_init_ul_harq_processes(ue->ul_harq_processes, NR_MAX_ULSCH_HARQ_PROCESSES, ue->frame_parms.N_RB_UL, ue->frame_parms.nb_antennas_tx);
for(int i=0; i<5; i++)
ue->dl_stats[i] = 0;
}
void init_N_TA_offset(PHY_VARS_NR_UE *ue){
NR_DL_FRAME_PARMS *fp = &ue->frame_parms;
if (fp->frame_type == FDD) {
ue->N_TA_offset = 0;
} else {
int N_TA_offset = fp->ul_CarrierFreq < 6e9 ? 400 : 431; // reference samples for 25600Tc @ 30.72 Ms/s for FR1, same @ 61.44 Ms/s for FR2
double factor = 1.0;
switch (fp->numerology_index) {
case 0: //15 kHz scs
AssertFatal(N_TA_offset == 400, "scs_common 15kHz only for FR1\n");
factor = fp->samples_per_subframe / 30720.0;
break;
case 1: //30 kHz sc
AssertFatal(N_TA_offset == 400, "scs_common 30kHz only for FR1\n");
factor = fp->samples_per_subframe / 30720.0;
break;
case 2: //60 kHz scs
AssertFatal(1==0, "scs_common should not be 60 kHz\n");
break;
case 3: //120 kHz scs
AssertFatal(N_TA_offset == 431, "scs_common 120kHz only for FR2\n");
factor = fp->samples_per_subframe / 61440.0;
break;
case 4: //240 kHz scs
AssertFatal(N_TA_offset == 431, "scs_common 240kHz only for FR2\n");
factor = fp->samples_per_subframe / 61440.0;
break;
default:
AssertFatal(1==0, "Invalid scs_common!\n");
}
ue->N_TA_offset = (int)(N_TA_offset * factor);
ue->ta_frame = -1;
ue->ta_slot = -1;
LOG_I(PHY,"UE %d Setting N_TA_offset to %d samples (factor %f, UL Freq %lu, N_RB %d, mu %d)\n", ue->Mod_id, ue->N_TA_offset, factor, fp->ul_CarrierFreq, fp->N_RB_DL, fp->numerology_index);
}
}
void phy_init_nr_top(PHY_VARS_NR_UE *ue) {
NR_DL_FRAME_PARMS *frame_parms = &ue->frame_parms;
crcTableInit();
init_scrambling_luts();
load_dftslib();
init_context_synchro_nr(frame_parms);
generate_ul_reference_signal_sequences(SHRT_MAX);
}
void phy_term_nr_top(void)
{
free_ul_reference_signal_sequences();
free_context_synchro_nr();
}
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