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srsRAN_4G/srsenb/test/phy/enb_phy_test.cc

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/*
* Copyright 2013-2019 Software Radio Systems Limited
*
* This file is part of srsLTE.
*
* srsLTE is free software: you can redistribute it and/or modify
* it under the terms of the GNU Affero General Public License as
* published by the Free Software Foundation, either version 3 of
* the License, or (at your option) any later version.
*
* srsLTE is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Affero General Public License for more details.
*
* A copy of the GNU Affero General Public License can be found in
* the LICENSE file in the top-level directory of this distribution
* and at http://www.gnu.org/licenses/.
*
*/
#include <mutex>
#include <srsenb/hdr/phy/phy.h>
#include <srslte/common/test_common.h>
#include <srslte/common/threads.h>
#include <srslte/common/tti_sync_cv.h>
#include <srslte/phy/phch/pusch_cfg.h>
#include <srslte/phy/utils/random.h>
#include <srslte/srslte.h>
#define CALLBACK(NAME) \
private: \
bool received_##NAME = false; \
\
public: \
bool wait_##NAME(uint32_t timeout_ms, bool reset_flag = false) \
{ \
std::unique_lock<std::mutex> lock(mutex); \
std::chrono::system_clock::time_point expire_time = std::chrono::system_clock::now(); \
expire_time += std::chrono::milliseconds(timeout_ms); \
bool expired = false; \
if (reset_flag) { \
received_##NAME = false; \
} \
while (!received_##NAME && !expired) { \
expired = (cvar.wait_until(lock, expire_time) == std::cv_status::timeout); \
} \
if (expired) { \
log_h.warning("Expired " #NAME " waiting\n"); \
} \
return received_##NAME; \
} \
\
bool get_received_##NAME() { return received_##NAME; } \
\
private: \
void notify_##NAME() \
{ \
std::unique_lock<std::mutex> lock(mutex); \
cvar.notify_all(); \
log_h.debug(#NAME " received\n"); \
received_##NAME = true; \
}
class dummy_radio : public srslte::radio_interface_phy
{
private:
std::mutex mutex;
std::condition_variable cvar;
srslte::log_filter log_h;
std::vector<srslte_ringbuffer_t*> ringbuffers_tx;
std::vector<srslte_ringbuffer_t*> ringbuffers_rx;
srslte_timestamp_t ts_rx = {};
double rx_srate = 0.0;
bool running = true;
CALLBACK(tx);
CALLBACK(tx_end);
CALLBACK(rx_now);
CALLBACK(set_tx_freq);
CALLBACK(set_rx_freq);
CALLBACK(set_rx_gain_th);
CALLBACK(set_rx_gain);
CALLBACK(set_tx_gain);
CALLBACK(set_tx_srate);
CALLBACK(set_rx_srate);
CALLBACK(get_rx_gain);
CALLBACK(get_freq_offset);
CALLBACK(get_tx_freq);
CALLBACK(get_rx_freq);
CALLBACK(get_max_tx_power);
CALLBACK(get_tx_gain_offset);
CALLBACK(get_rx_gain_offset);
CALLBACK(is_continuous_tx);
CALLBACK(get_is_start_of_burst);
CALLBACK(is_init);
CALLBACK(reset);
CALLBACK(get_info);
public:
explicit dummy_radio(uint32_t nof_channels) : log_h("RADIO")
{
log_h.set_level("info");
// Allocate receive ring buffer
for (uint32_t i = 0; i < nof_channels; i++) {
auto* rb = (srslte_ringbuffer_t*)srslte_vec_malloc(sizeof(srslte_ringbuffer_t));
if (!rb) {
ERROR("Allocating ring buffer\n");
}
if (srslte_ringbuffer_init(rb, SRSLTE_SF_LEN_MAX * (uint32_t)sizeof(cf_t))) {
ERROR("Initiating ring buffer\n");
}
ringbuffers_tx.push_back(rb);
}
// Allocate transmit ring buffer
for (uint32_t i = 0; i < nof_channels; i++) {
auto* rb = (srslte_ringbuffer_t*)srslte_vec_malloc(sizeof(srslte_ringbuffer_t));
if (!rb) {
ERROR("Allocating ring buffer\n");
}
if (srslte_ringbuffer_init(rb, SRSLTE_SF_LEN_MAX * (uint32_t)sizeof(cf_t))) {
ERROR("Initiating ring buffer\n");
}
ringbuffers_rx.push_back(rb);
}
}
~dummy_radio()
{
for (auto& rb : ringbuffers_tx) {
if (rb) {
srslte_ringbuffer_free(rb);
free(rb);
}
}
for (auto& rb : ringbuffers_rx) {
if (rb) {
srslte_ringbuffer_free(rb);
free(rb);
}
}
}
void stop() { running = false; }
int read_tx(std::vector<cf_t*>& buffers, uint32_t nof_samples)
{
int err = SRSLTE_SUCCESS;
uint32_t nbytes = static_cast<uint32_t>(sizeof(cf_t)) * nof_samples;
log_h.debug("read_tx %d\n", nof_samples);
for (uint32_t i = 0; i < ringbuffers_tx.size() && i < buffers.size(); i++) {
do {
err = srslte_ringbuffer_read_timed(ringbuffers_tx[i], buffers[i], nbytes, 1000);
} while (err < SRSLTE_SUCCESS && running);
}
return err;
}
void write_rx(std::vector<cf_t*>& buffers, uint32_t nof_samples)
{
uint32_t nbytes = static_cast<uint32_t>(sizeof(cf_t)) * nof_samples;
log_h.debug("write_rx %d\n", nof_samples);
for (uint32_t i = 0; i < ringbuffers_rx.size() && i < buffers.size(); i++) {
srslte_ringbuffer_write(ringbuffers_rx[i], buffers[i], nbytes);
}
}
bool
tx(const uint32_t& radio_idx, cf_t** buffer, const uint32_t& nof_samples, const srslte_timestamp_t& tx_time) override
{
int err = SRSLTE_SUCCESS;
// Get number of bytes to write
uint32_t nbytes = static_cast<uint32_t>(sizeof(cf_t)) * nof_samples;
log_h.debug("tx %d\n", nof_samples);
// Write ring buffer
for (uint32_t i = 0; i < ringbuffers_tx.size() && err >= SRSLTE_SUCCESS; i++) {
err = srslte_ringbuffer_write(ringbuffers_tx[i], buffer[i], nbytes);
}
// Notify call
notify_tx();
// Return True if err >= SRSLTE_SUCCESS
return err >= SRSLTE_SUCCESS;
}
void tx_end() override {}
bool
rx_now(const uint32_t& radio_idx, cf_t** buffer, const uint32_t& nof_samples, srslte_timestamp_t* rxd_time) override
{
int err = SRSLTE_SUCCESS;
log_h.info("rx_now %d\n", nof_samples);
// Get number of bytes to read
uint32_t nbytes = static_cast<uint32_t>(sizeof(cf_t)) * nof_samples;
// Write ring buffer
for (uint32_t i = 0; i < ringbuffers_rx.size() && err >= SRSLTE_SUCCESS; i++) {
do {
err = srslte_ringbuffer_read_timed(ringbuffers_rx[i], buffer[i], nbytes, 1000);
} while (err < SRSLTE_SUCCESS && running);
}
// Copy new timestamp
if (rxd_time) {
*rxd_time = ts_rx;
}
// Copy new timestamp
if (std::isnormal(rx_srate)) {
srslte_timestamp_add(&ts_rx, 0, static_cast<double>(nof_samples) / rx_srate);
}
// Notify Rx
notify_rx_now();
// Return True if err >= SRSLTE_SUCCESS
return err >= SRSLTE_SUCCESS;
}
void set_tx_freq(const uint32_t& radio_idx, const uint32_t& channel_idx, const double& freq) override {}
void set_rx_freq(const uint32_t& radio_idx, const uint32_t& channel_idx, const double& freq) override {}
void set_rx_gain_th(const float& gain) override {}
void set_rx_gain(const uint32_t& radio_idx, const float& gain) override {}
void set_tx_srate(const uint32_t& radio_idx, const double& srate) override {}
void set_rx_srate(const uint32_t& radio_idx, const double& srate) override { rx_srate = srate; }
float get_rx_gain(const uint32_t& radio_idx) override { return 0; }
double get_freq_offset() override { return 0; }
double get_tx_freq(const uint32_t& radio_idx) override { return 0; }
double get_rx_freq(const uint32_t& radio_idx) override { return 0; }
float get_max_tx_power() override { return 0; }
float get_tx_gain_offset() override { return 0; }
float get_rx_gain_offset() override { return 0; }
bool is_continuous_tx() override { return false; }
bool get_is_start_of_burst(const uint32_t& radio_idx) override { return false; }
bool is_init() override { return false; }
void reset() override {}
srslte_rf_info_t* get_info(const uint32_t& radio_idx) override { return nullptr; }
};
class dummy_stack : public srsenb::stack_interface_phy_lte
{
private:
static constexpr float prob_dl_grant = 0.50f;
std::mutex mutex;
std::condition_variable cvar;
srslte::log_filter log_h;
srslte::tti_sync_cv tti_sync;
srslte_softbuffer_tx_t softbuffer_tx = {};
srslte_softbuffer_rx_t softbuffer_rx = {};
uint8_t* data = nullptr;
uint16_t ue_rnti = 0;
srslte_random_t random_gen = nullptr;
CALLBACK(sr_detected);
CALLBACK(rach_detected);
CALLBACK(ri_info);
CALLBACK(pmi_info);
CALLBACK(cqi_info);
CALLBACK(snr_info);
CALLBACK(ack_info);
CALLBACK(crc_info);
CALLBACK(get_dl_sched);
CALLBACK(get_mch_sched);
CALLBACK(get_ul_sched);
CALLBACK(set_sched_dl_tti_mask);
CALLBACK(rl_failure);
CALLBACK(rl_ok);
CALLBACK(tti_clock);
typedef struct {
uint32_t tti;
uint32_t cc_idx;
uint32_t tb_idx;
} tti_dl_info_t;
std::queue<tti_dl_info_t> tti_dl_info_sched_queue;
std::queue<tti_dl_info_t> tti_dl_info_ack_queue;
public:
explicit dummy_stack(uint16_t rnti_) : log_h("STACK"), ue_rnti(rnti_), random_gen(srslte_random_init(0))
{
log_h.set_level("info");
srslte_softbuffer_tx_init(&softbuffer_tx, SRSLTE_MAX_PRB);
srslte_softbuffer_rx_init(&softbuffer_rx, SRSLTE_MAX_PRB);
data = srslte_vec_u8_malloc(150000);
}
~dummy_stack()
{
srslte_softbuffer_tx_free(&softbuffer_tx);
srslte_softbuffer_rx_free(&softbuffer_rx);
if (data) {
free(data);
}
}
int sr_detected(uint32_t tti, uint16_t rnti) override
{
notify_sr_detected();
return 0;
}
int rach_detected(uint32_t tti, uint32_t primary_cc_idx, uint32_t preamble_idx, uint32_t time_adv) override
{
notify_rach_detected();
return 0;
}
int ri_info(uint32_t tti, uint16_t rnti, uint32_t ri_value) override
{
notify_ri_info();
return 0;
}
int pmi_info(uint32_t tti, uint16_t rnti, uint32_t pmi_value) override
{
notify_pmi_info();
return 0;
}
int cqi_info(uint32_t tti, uint16_t rnti, uint32_t cc_idx, uint32_t cqi_value) override
{
notify_cqi_info();
return 0;
}
int snr_info(uint32_t tti, uint16_t rnti, float snr_db) override
{
notify_snr_info();
return 0;
}
int ack_info(uint32_t tti, uint16_t rnti, uint32_t cc_idx, uint32_t tb_idx, bool ack) override
{
// Push grant info in queue
tti_dl_info_t tti_dl_info = {};
tti_dl_info.tti = tti;
tti_dl_info.cc_idx = cc_idx;
tti_dl_info.tb_idx = 0;
tti_dl_info_ack_queue.push(tti_dl_info);
log_h.info("Received ACK tti=%d; rnti=x%x; cc=%d; tb=%d; ack=%d;\n", tti, rnti, cc_idx, tb_idx, ack);
notify_ack_info();
return 0;
}
int crc_info(uint32_t tti, uint16_t rnti, uint32_t nof_bytes, bool crc_res) override
{
notify_crc_info();
return 0;
}
int get_dl_sched(uint32_t tti, dl_sched_list_t& dl_sched_res) override
{
// Notify test engine
notify_get_dl_sched();
// Wait for UE
tti_sync.wait();
for (uint32_t cc_idx = 0; cc_idx < dl_sched_res.size(); cc_idx++) {
auto& dl_sched = dl_sched_res[cc_idx];
// Required
dl_sched.cfi = 1;
// Random decision on whether transmit or not
if (srslte_random_uniform_real_dist(random_gen, 0, 1) < prob_dl_grant) {
dl_sched.nof_grants = 1;
dl_sched.pdsch[0].softbuffer_tx[0] = &softbuffer_tx;
dl_sched.pdsch[0].softbuffer_tx[1] = &softbuffer_tx;
dl_sched.pdsch[0].dci.location.ncce = 0;
dl_sched.pdsch[0].dci.location.L = 1;
dl_sched.pdsch[0].dci.type0_alloc.rbg_bitmask = 0xffffffff;
dl_sched.pdsch[0].dci.rnti = ue_rnti;
dl_sched.pdsch[0].dci.alloc_type = SRSLTE_RA_ALLOC_TYPE0;
dl_sched.pdsch[0].dci.tb[0].cw_idx = 0;
dl_sched.pdsch[0].dci.tb[0].mcs_idx = 27;
dl_sched.pdsch[0].dci.tb[0].rv = 0;
dl_sched.pdsch[0].dci.tb[0].ndi = false;
dl_sched.pdsch[0].dci.tb[1].cw_idx = 1;
dl_sched.pdsch[0].dci.tb[1].mcs_idx = 0;
dl_sched.pdsch[0].dci.tb[1].rv = 1;
dl_sched.pdsch[0].dci.tb[1].ndi = false;
dl_sched.pdsch[0].data[0] = data;
dl_sched.pdsch[0].data[1] = data;
dl_sched.pdsch[0].dci.format = SRSLTE_DCI_FORMAT1;
// Push grant info in queue
tti_dl_info_t tti_dl_info = {};
tti_dl_info.tti = tti;
tti_dl_info.cc_idx = cc_idx;
tti_dl_info.tb_idx = 0;
// Push to queue
tti_dl_info_sched_queue.push(tti_dl_info);
} else {
dl_sched.nof_grants = 0;
}
}
return 0;
}
int get_mch_sched(uint32_t tti, bool is_mcch, dl_sched_list_t& dl_sched_res) override
{
notify_get_mch_sched();
return 0;
}
int get_ul_sched(uint32_t tti, ul_sched_list_t& ul_sched_res) override
{
notify_get_ul_sched();
return 0;
}
void set_sched_dl_tti_mask(uint8_t* tti_mask, uint32_t nof_sfs) override { notify_set_sched_dl_tti_mask(); }
void rl_failure(uint16_t rnti) override { notify_rl_failure(); }
void rl_ok(uint16_t rnti) override { notify_rl_ok(); }
void tti_clock() override
{
notify_tti_clock();
tti_sync.increase();
}
int run_tti()
{
// Check ACKs match with grants
while (!tti_dl_info_ack_queue.empty()) {
// Get both Info
tti_dl_info_t& tti_dl_sched = tti_dl_info_sched_queue.front();
tti_dl_info_t& tti_dl_ack = tti_dl_info_ack_queue.front();
// Calculate ACK TTI
tti_dl_sched.tti = (tti_dl_sched.tti + FDD_HARQ_DELAY_MS) % 10240;
// Assert that ACKs have been received
TESTASSERT(tti_dl_sched.tti == tti_dl_ack.tti);
TESTASSERT(tti_dl_sched.cc_idx == tti_dl_ack.cc_idx);
TESTASSERT(tti_dl_sched.tb_idx == tti_dl_ack.tb_idx);
tti_dl_info_sched_queue.pop();
tti_dl_info_ack_queue.pop();
}
return SRSLTE_SUCCESS;
}
};
class dummy_ue
{
private:
std::vector<srslte_ue_dl_t*> ue_dl_v = {};
std::vector<srslte_ue_ul_t*> ue_ul_v = {};
std::vector<cf_t*> buffers = {};
dummy_radio* radio = nullptr;
uint32_t sf_len = 0;
uint16_t rnti = 0;
srslte_dl_sf_cfg_t sf_dl_cfg = {};
srslte_ul_sf_cfg_t sf_ul_cfg = {};
srslte_softbuffer_tx_t softbuffer_tx = {};
uint8_t* tx_data = nullptr;
srslte::phy_cfg_t dedicated = {};
srslte::log_filter log_h;
public:
dummy_ue(dummy_radio& _radio,
const srsenb::phy_cell_cfg_list_t& cell_list,
uint16_t rnti_,
const srslte::phy_cfg_t& dedicated_) :
radio(&_radio),
log_h("UE PHY", nullptr, true),
dedicated(dedicated_)
{
// Calculate subframe length
sf_len = SRSLTE_SF_LEN_PRB(cell_list[0].cell.nof_prb);
rnti = rnti_;
log_h.set_level("info");
// Initialise each cell
for (auto& cell : cell_list) {
// Allocate buffers
cf_t* buffer = srslte_vec_cf_malloc(sf_len);
if (!buffer) {
ERROR("Allocatin UE DL buffer\n");
}
buffers.push_back(buffer);
// Set buffer to zero
srslte_vec_cf_zero(buffer, sf_len);
// Allocate UE DL
auto* ue_dl = (srslte_ue_dl_t*)srslte_vec_malloc(sizeof(srslte_ue_dl_t));
if (!ue_dl) {
ERROR("Allocatin UE DL\n");
}
ue_dl_v.push_back(ue_dl);
// Initialise UE DL
if (srslte_ue_dl_init(ue_dl, &buffer, cell.cell.nof_prb, 1)) {
ERROR("Initiating UE DL\n");
}
// Set Cell
if (srslte_ue_dl_set_cell(ue_dl, cell.cell)) {
ERROR("Setting UE DL cell\n");
}
// Set RNTI
srslte_ue_dl_set_rnti(ue_dl, rnti);
// Allocate UE UL
auto* ue_ul = (srslte_ue_ul_t*)srslte_vec_malloc(sizeof(srslte_ue_ul_t));
if (!ue_ul) {
ERROR("Allocatin UE UL\n");
}
ue_ul_v.push_back(ue_ul);
// Initialise UE UL
if (srslte_ue_ul_init(ue_ul, buffer, cell.cell.nof_prb)) {
ERROR("Setting UE UL cell\n");
}
// Set cell
if (srslte_ue_ul_set_cell(ue_ul, cell.cell)) {
ERROR("Setting UE DL cell\n");
}
// Set RNTI
srslte_ue_ul_set_rnti(ue_ul, rnti);
}
// Initialise softbuffer
if (srslte_softbuffer_tx_init(&softbuffer_tx, cell_list[0].cell.nof_prb)) {
ERROR("Initialising Tx softbuffer\n");
}
// Initialise dummy tx data
tx_data = srslte_vec_u8_malloc(150000);
if (!tx_data) {
ERROR("Allocating Tx data\n");
}
memset(tx_data, 0, 150000);
// Push HARQ delay to radio
for (uint32_t i = 0; i < TX_DELAY; i++) {
radio->write_rx(buffers, sf_len);
sf_ul_cfg.tti = (sf_ul_cfg.tti + 1) % 10240; // Advance UL TTI too
}
for (uint32_t i = 0; i < FDD_HARQ_DELAY_MS; i++) {
radio->write_rx(buffers, sf_len);
}
}
~dummy_ue()
{
for (auto& ue_dl : ue_dl_v) {
if (ue_dl) {
srslte_ue_dl_free(ue_dl);
free(ue_dl);
}
}
for (auto& ue_ul : ue_ul_v) {
if (ue_ul) {
srslte_ue_ul_free(ue_ul);
free(ue_ul);
}
}
for (auto& b : buffers) {
if (b) {
free(b);
}
}
srslte_softbuffer_tx_free(&softbuffer_tx);
}
int run_tti()
{
srslte_dci_ul_t dci_ul[SRSLTE_MAX_DCI_MSG] = {};
int ret = SRSLTE_SUCCESS;
srslte_uci_data_t uci_data = {};
// Set logging TTI
log_h.step(sf_dl_cfg.tti);
uci_data.cfg = dedicated.ul_cfg.pucch.uci_cfg;
srslte_pdsch_ack_t pdsch_ack = {};
pdsch_ack.ack_nack_feedback_mode = dedicated.ul_cfg.pucch.ack_nack_feedback_mode;
pdsch_ack.nof_cc = (uint32_t)buffers.size();
// Read DL
TESTASSERT(radio->read_tx(buffers, sf_len) >= SRSLTE_SUCCESS);
// Get grants DL/UL, we do not care about Decoding PDSCH
for (uint32_t i = 0; i < buffers.size(); i++) {
srslte_dci_dl_t dci_dl[SRSLTE_MAX_DCI_MSG] = {};
srslte_ue_dl_cfg_t ue_dl_cfg = {};
ue_dl_cfg.cfg.cqi_report.periodic_configured = true;
ue_dl_cfg.cfg.cqi_report.periodic_mode = SRSLTE_CQI_MODE_12;
ue_dl_cfg.cfg.cqi_report.pmi_idx = 16 + i;
ue_dl_cfg.cfg.pdsch.rnti = rnti;
srslte_ue_dl_decode_fft_estimate(ue_dl_v[i], &sf_dl_cfg, &ue_dl_cfg);
// Get DL Grants
int nof_dl_grants = srslte_ue_dl_find_dl_dci(ue_dl_v[i], &sf_dl_cfg, &ue_dl_cfg, rnti, dci_dl);
TESTASSERT(nof_dl_grants >= SRSLTE_SUCCESS);
// Generate ACKs
if (nof_dl_grants) {
char str[256] = {};
srslte_dci_dl_info(dci_dl, str, sizeof(str));
log_h.info("[DL DCI] %s\n", str);
if (srslte_ue_dl_dci_to_pdsch_grant(ue_dl_v[i], &sf_dl_cfg, &ue_dl_cfg, dci_dl, &ue_dl_cfg.cfg.pdsch.grant)) {
log_h.error("Converting DCI message to DL dci\n");
return -1;
}
srslte_pdsch_tx_info(&ue_dl_cfg.cfg.pdsch, str, 512);
log_h.info("[DL PDSCH %d] %s\n", i, str);
pdsch_ack.cc[i].M = 1;
pdsch_ack.cc[i].m[0].present = true;
pdsch_ack.cc[i].m[0].resource.v_dai_dl = dci_dl->dai;
pdsch_ack.cc[i].m[0].resource.n_cce = dci_dl->location.ncce;
pdsch_ack.cc[i].m[0].resource.grant_cc_idx = i;
pdsch_ack.cc[i].m[0].resource.tpc_for_pucch = dci_dl->tpc_pucch;
pdsch_ack.cc[i].m[0].value[0] = 1;
pdsch_ack.cc[i].m[0].value[1] = 1;
} else {
pdsch_ack.cc[i].M = 1;
pdsch_ack.cc[i].m[0].present = false;
}
// Get UL grants
int nof_ul_grants = srslte_ue_dl_find_ul_dci(ue_dl_v[i], &sf_dl_cfg, &ue_dl_cfg, rnti, &dci_ul[i]);
TESTASSERT(nof_ul_grants >= SRSLTE_SUCCESS);
// Generate CQI periodic if required
srslte_ue_dl_gen_cqi_periodic(ue_dl_v[i], &ue_dl_cfg, 0x0f, sf_dl_cfg.tti, &uci_data);
}
// Generate Acknowledgements
srslte_ue_dl_gen_ack(ue_dl_v[0], &sf_dl_cfg, &pdsch_ack, &uci_data);
// Work UL
for (uint32_t i = 0; i < buffers.size(); i++) {
srslte_ue_ul_cfg_t ue_ul_cfg = {};
ue_ul_cfg.ul_cfg = dedicated.ul_cfg;
ue_ul_cfg.ul_cfg.pusch.softbuffers.tx = &softbuffer_tx;
ue_ul_cfg.ul_cfg.pucch.rnti = rnti;
srslte_pusch_data_t pusch_data = {};
pusch_data.ptr = tx_data;
// Set UCI only for PCel
if (i == 0) {
pusch_data.uci = uci_data.value;
ue_ul_cfg.ul_cfg.pusch.uci_cfg = uci_data.cfg;
ue_ul_cfg.ul_cfg.pucch.uci_cfg = uci_data.cfg;
}
// Reset subframe
srslte_vec_cf_zero(buffers[i], sf_len);
// Work UL
TESTASSERT(srslte_ue_ul_encode(ue_ul_v[i], &sf_ul_cfg, &ue_ul_cfg, &pusch_data) >= SRSLTE_SUCCESS);
char str[256] = {};
srslte_ue_ul_info(&ue_ul_cfg, &sf_ul_cfg, &pusch_data.uci, str, sizeof(str));
log_h.info("[UL INFO] %s\n", str);
}
// Write eNb Rx
radio->write_rx(buffers, sf_len);
// Increment TTI
sf_dl_cfg.tti = (sf_dl_cfg.tti + 1) % 10240;
sf_ul_cfg.tti = (sf_ul_cfg.tti + 1) % 10240;
return ret;
}
};
class phy_test_bench
{
private:
// Private classes
dummy_radio radio;
dummy_stack stack;
srsenb::phy enb_phy;
dummy_ue ue_phy;
srslte::log_filter log_h;
srslte::logger_stdout logger_stdout;
uint32_t nof_carriers = 0;
srslte::phy_cfg_t common_dedicated = {};
uint16_t rnti = 0;
public:
phy_test_bench(srsenb::phy_args_t& phy_args,
srsenb::phy_cfg_t& phy_cfg,
uint16_t rnti_,
uint32_t pcell_index,
const srslte::phy_cfg_t& dedicated_) :
log_h("TEST BENCH"),
stack(rnti_),
rnti(rnti_),
radio(phy_cfg.phy_cell_cfg.size()),
enb_phy(&logger_stdout),
ue_phy(radio, phy_cfg.phy_cell_cfg, rnti_, dedicated_),
nof_carriers(static_cast<uint32_t>(phy_cfg.phy_cell_cfg.size())),
common_dedicated(dedicated_)
{
// Always info
log_h.set_level("info");
// Initiate
enb_phy.init(phy_args, phy_cfg, &radio, &stack);
// Add rnti to enb
enb_phy.add_rnti(rnti, pcell_index, false);
// Configure UE PHY
uint32_t pcell_idx = 0;
srsenb::phy_interface_rrc_lte::phy_rrc_dedicated_list_t dedicated_list(4);
for (uint32_t i = 0; i < 4; i++) {
common_dedicated.dl_cfg.cqi_report.pmi_idx = 16 + i;
dedicated_list[i].cc_idx = (i + pcell_idx) % phy_cfg.phy_cell_cfg.size();
dedicated_list[i].phy_cfg = common_dedicated;
}
enb_phy.set_config_dedicated(rnti, dedicated_list);
}
~phy_test_bench()
{
radio.stop();
enb_phy.stop();
}
int run_tti()
{
int ret = SRSLTE_SUCCESS;
stack.tti_clock();
TESTASSERT(!stack.get_received_rl_failure());
TESTASSERT(ue_phy.run_tti() >= SRSLTE_SUCCESS);
TESTASSERT(stack.run_tti() >= SRSLTE_SUCCESS);
return ret;
}
};
int main(int argc, char** argv)
{
int ret = SRSLTE_SUCCESS;
srsenb::phy_args_t phy_args;
phy_args.log.phy_level = "info";
srsenb::phy_cfg_t phy_cfg = {};
for (uint32_t i = 0; i < 4; i++) {
srsenb::phy_cell_cfg_t phy_cell_cfg = {};
phy_cell_cfg.cell.nof_prb = 6;
phy_cell_cfg.cell.id = i;
phy_cell_cfg.cell.nof_ports = 1;
phy_cell_cfg.cell_id = i;
phy_cell_cfg.dl_freq_hz = 2.6e9 + 10e6 * i;
phy_cell_cfg.ul_freq_hz = 2.6e9 + 10e6 * i - 100e6;
phy_cell_cfg.rf_port = i;
phy_cell_cfg.root_seq_idx = 150 + i;
phy_cfg.phy_cell_cfg.push_back(phy_cell_cfg);
}
phy_cfg.pucch_cnfg.delta_pucch_shift = asn1::rrc::pucch_cfg_common_s::delta_pucch_shift_e_::ds1;
phy_cfg.prach_cnfg.root_seq_idx = 0;
phy_cfg.prach_cnfg.prach_cfg_info.high_speed_flag = false;
phy_cfg.prach_cnfg.prach_cfg_info.prach_cfg_idx = 3;
phy_cfg.prach_cnfg.prach_cfg_info.prach_freq_offset = 2;
phy_cfg.prach_cnfg.prach_cfg_info.zero_correlation_zone_cfg = 5;
// Set UE dedicated configuration
srslte::phy_cfg_t dedicated = {};
dedicated.ul_cfg.pucch.ack_nack_feedback_mode = SRSLTE_PUCCH_ACK_NACK_FEEDBACK_MODE_PUCCH3;
dedicated.ul_cfg.pucch.delta_pucch_shift = 1;
dedicated.ul_cfg.pucch.n_rb_2 = 0;
dedicated.ul_cfg.pucch.N_cs = 0;
dedicated.ul_cfg.pucch.N_pucch_1 = 0;
dedicated.ul_cfg.pucch.n_pucch_2 = 0;
dedicated.ul_cfg.pucch.n_pucch_sr = 0;
dedicated.ul_cfg.pucch.simul_cqi_ack = true;
std::unique_ptr<phy_test_bench> test_bench =
std::unique_ptr<phy_test_bench>(new phy_test_bench(phy_args, phy_cfg, 0x1234, 0, dedicated));
for (uint32_t i = 0; i < 32; i++) {
TESTASSERT(test_bench->run_tti() >= SRSLTE_SUCCESS);
}
return ret;
}
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