void bootstrap()
{
#ifdef HAS_LCD
lcd_write_string("NOISE");
#endif
#if NUM_USERBUTTONS > 1
ubutton_register_callback(0, &userbutton_callback);
ubutton_register_callback(1, &userbutton_callback);
#endif
prepare_channel_indexes();
hw_radio_init(NULL, NULL);
fifo_init(&uart_rx_fifo, uart_rx_buffer, sizeof(uart_rx_buffer));
console_set_rx_interrupt_callback(&uart_rx_cb);
console_rx_interrupt_enable(true);
sched_register_task(&read_rssi);
sched_register_task(&start_rx);
sched_register_task(&process_uart_rx_fifo);
timer_post_task_delay(&start_rx, TIMER_TICKS_PER_SEC * 3);
sched_register_task((&execute_sensor_measurement));
timer_post_task_delay(&execute_sensor_measurement, TEMPERATURE_PERIOD);
measureTemperature();
}
void led_on_callback()
{
led_on(0);
timer_post_task_delay(&led_on_callback, TIMER_TICKS_PER_SEC);
timer_post_task_delay(&led_off_callback, TIMER_TICKS_PER_SEC*0.050);
log_print_string("Toggled on %d", 0);
hw_watchdog_feed();
}
void bootstrap()
{
led_on(0);
led_on(1);
log_print_string("Device booted at time: %d\n", timer_get_counter_value());
console_print("Device Booted\r\n");
sched_register_task(&led_on_callback);
sched_register_task(&led_off_callback);
sched_register_task(&timer1_callback);
timer_post_task_delay(&led_on_callback, TIMER_TICKS_PER_SEC);
//timer_post_task_delay(&timer1_callback, 0x0000FFFF + (uint32_t)100);
#if PLATFORM_NUM_BUTTONS > 0
int i= 0;
for (i=0;i<PLATFORM_NUM_BUTTONS;i++)
{
ubutton_register_callback(i, &userbutton_callback);
}
#endif
led_off(0);
led_off(1);
}
static void start_rx(hw_rx_cfg_t const* rx_cfg)
{
DPRINT("start_rx");
if (current_state == HW_RADIO_STATE_OFF)
ezradio_hal_DeassertShutdown();
current_state = HW_RADIO_STATE_RX;
configure_channel(&(rx_cfg->channel_id));
configure_syncword_class(rx_cfg->syncword_class, rx_cfg->channel_id.channel_header.ch_coding);
rx_fifo_data_lenght = 0;
if (rx_cfg->channel_id.channel_header.ch_coding == PHY_CODING_FEC_PN9)
{
ezradioStartRx(ez_channel_id, false);
} else {
ezradioStartRx(ez_channel_id, true);
}
DEBUG_RX_START();
if(rssi_valid_callback != 0)
{
timer_post_task_delay(&report_rssi, TIMER_TICKS_PER_SEC / 5000);
}
}
void timer1_callback()
{
led_toggle(1);
timer_post_task_delay(&timer1_callback, 0x0000FFFF + (uint32_t)100);
log_print_string("Toggled led %d", 1);
console_print("Toggle led 1\r\n");
}
void bootstrap()
{
log_print_string("Device booted at time: %d\n", timer_get_counter_value());
hw_radio_init(p_alloc, p_free);
hw_radio_set_rx(&rx_cfg, rx_callback, rssi_valid);
NG(tx_buffer).radio_packet.length = sizeof(packet_struct_t) - sizeof(hw_radio_packet_t);
NG(tx_buffer).radio_packet.tx_meta.tx_cfg.channel_id = rx_cfg.channel_id;
NG(tx_buffer).radio_packet.tx_meta.tx_cfg.syncword_class = rx_cfg.syncword_class;
NG(tx_buffer).radio_packet.tx_meta.tx_cfg.eirp = 0;
NG(tx_buffer).src_node = hw_get_unique_id();
NG(tx_buffer).dst_node = 0xFFFF;
NG(tx_buffer).counter = 0;
sched_register_task(&send_packet);
timer_post_task_delay(&send_packet, TIMER_TICKS_PER_SEC + (get_rnd() %TIMER_TICKS_PER_SEC));
// NG(status).is_rx = false;
// NG(status).is_sleep = true;
// NG(status).tx_busy = false;
// NG(status).rx_busy = false;
// sched_register_task(&poll_status);
// sched_post_task(poll_status);
}
void send_packet()
{
hw_radio_send_packet((hw_radio_packet_t*)(&NG(tx_buffer)), tx_callback);
log_print_string("Sending packet with counter %u", NG(tx_buffer).counter);
NG(tx_buffer).counter++;
timer_post_task_delay(send_packet, TIMER_TICKS_PER_SEC + (get_rnd() %TIMER_TICKS_PER_SEC));
}
void execute_sensor_measurement() {
#if HW_NUM_LEDS >= 1
led_toggle(0);
#endif
// use the counter value for now instead of 'real' sensor
uint32_t val = timer_get_counter_value();
// file 0x40 is configured to use D7AActP trigger an ALP action which
// broadcasts this file data on Access Class 0
fs_write_file(0x40, 0, (uint8_t*)&val, 4);
timer_post_task_delay(&execute_sensor_measurement, REPORTING_INTERVAL_TICKS);
}
void led_on_callback()
{
led_toggle(0);
timer_post_task_delay(&led_on_callback, TIMER_TICKS_PER_SEC * 70);
//timer_post_task_delay(&led_off_callback, TIMER_TICKS_PER_SEC*0.050);
log_print_string("Toggled on %d", 0);
console_print("Toggle led 0\r\n");
hw_watchdog_feed();
}
void read_rssi()
{
timestamped_rssi_t rssi_measurement;
rssi_measurement.tick = timer_get_counter_value();
rssi_measurement.rssi = hw_radio_get_rssi();
rssi_measurements[rssi_measurements_index] = rssi_measurement;
rssi_measurements_index++;
if(rssi_measurements_index < 1000)
timer_post_task_delay(&read_rssi, 1); // TODO delay
else
log_print_string("done");
}
void execute_sensor_measurement()
{
#ifdef PLATFORM_EFM32GG_STK3700
float internal_temp = hw_get_internal_temperature();
lcd_write_temperature(internal_temp*10, 1);
uint32_t vdd = hw_get_battery();
fs_write_file(SENSOR_FILE_ID, 0, (uint8_t*)&internal_temp, sizeof(internal_temp)); // File 0x40 is configured to use D7AActP trigger an ALP action which broadcasts this file data on Access Class 0
#endif
#if (defined PLATFORM_EFM32HG_STK3400 || defined PLATFORM_EZR32LG_WSTK6200A)
char str[30];
float internal_temp = hw_get_internal_temperature();
sprintf(str, "Int T: %2d.%d C", (int)internal_temp, (int)(internal_temp*10)%10);
lcd_write_line(2,str);
log_print_string(str);
uint32_t rhData;
uint32_t tData;
getHumidityAndTemperature(&rhData, &tData);
sprintf(str, "Ext T: %d.%d C", (tData/1000), (tData%1000)/100);
lcd_write_line(3,str);
log_print_string(str);
sprintf(str, "Ext H: %d.%d", (rhData/1000), (rhData%1000)/100);
lcd_write_line(4,str);
log_print_string(str);
uint32_t vdd = hw_get_battery();
sprintf(str, "Batt %d mV", vdd);
lcd_write_line(5,str);
log_print_string(str);
//TODO: put sensor values in array
uint8_t sensor_values[8];
uint16_t *pointer = (uint16_t*) sensor_values;
*pointer++ = (uint16_t) (internal_temp * 10);
*pointer++ = (uint16_t) (tData /100);
*pointer++ = (uint16_t) (rhData /100);
*pointer++ = (uint16_t) (vdd /10);
fs_write_file(SENSOR_FILE_ID, 0, (uint8_t*)&sensor_values,8);
#endif
timer_post_task_delay(&execute_sensor_measurement, SENSOR_UPDATE);
}
static void process_uart_rx_fifo()
{
if(fifo_get_size(&uart_rx_fifo) >= COMMAND_SIZE)
{
uint8_t received_cmd[COMMAND_SIZE];
fifo_pop(&uart_rx_fifo, received_cmd, COMMAND_SIZE);
if(strncmp(received_cmd, COMMAND_CHAN, COMMAND_SIZE) == 0)
{
process_command_chan();
}
else if(strncmp(received_cmd, COMMAND_TRAN, COMMAND_SIZE) == 0)
{
while(fifo_get_size(&uart_rx_fifo) < COMMAND_TRAN_PARAM_SIZE);
char param[COMMAND_TRAN_PARAM_SIZE];
fifo_pop(&uart_rx_fifo, param, COMMAND_TRAN_PARAM_SIZE);
tx_packet_delay_s = atoi(param);
DPRINT("performing TRAN command with %d tx_packet_delay_s\r\n",
tx_packet_delay_s);
stop();
is_mode_rx = false;
current_state = STATE_RUNNING;
sched_post_task(&start);
}
else if(strncmp(received_cmd, COMMAND_RECV, COMMAND_SIZE) == 0)
{
DPRINT("entering RECV mode\r\n");
stop();
is_mode_rx = true;
current_state = STATE_RUNNING;
sched_post_task(&start);
}
else if(strncmp(received_cmd, COMMAND_RSET, COMMAND_SIZE) == 0)
{
DPRINT("resetting...\r\n");
hw_reset();
}
else
{
char err[40];
DPRINT("ERROR invalid command %.4s\n\r", received_cmd);
}
fifo_clear(&uart_rx_fifo);
}
timer_post_task_delay(&process_uart_rx_fifo, TIMER_TICKS_PER_SEC);
}
void bootstrap()
{
led_on(0);
led_on(1);
log_print_string("Device booted at time: %d\n", timer_get_counter_value());
sched_register_task(&led_on_callback);
sched_register_task(&led_off_callback);
sched_register_task(&timer1_callback);
timer_post_task_delay(&led_on_callback, TIMER_TICKS_PER_SEC);
timer_post_task_delay(&timer1_callback, 0x0000FFFF + (uint32_t)100);
#if NUM_USERBUTTONS > 0
ubutton_register_callback(0, &userbutton_callback);
ubutton_register_callback(1, &userbutton_callback);
#endif
led_off(0);
led_off(1);
}
void read_rssi()
{
timestamped_rssi_t rssi_measurement;
rssi_measurement.tick = timer_get_counter_value();
char rssi_samples_str[5 * RSSI_SAMPLES_PER_MEASUREMENT] = "";
int16_t max_rssi_sample = -200;
for(int i = 0; i < RSSI_SAMPLES_PER_MEASUREMENT; i++)
{
rssi_measurement.rssi[i] = hw_radio_get_rssi();
if(rssi_measurement.rssi[i] > max_rssi_sample)
max_rssi_sample = rssi_measurement.rssi[i];
sprintf(rssi_samples_str + (i * 5), ",%04i", rssi_measurement.rssi[i]);
// TODO delay?
}
char str[80];
char channel_str[8] = "";
channel_id_to_string(&rx_cfg.channel_id, channel_str, sizeof(channel_str));
lcd_write_string(channel_str);
sprintf(str, "%7s,%i%s\n", channel_str, rssi_measurement.tick, rssi_samples_str);
console_print(str);
#ifdef PLATFORM_EFM32GG_STK3700
//lcd_all_on();
lcd_write_number(max_rssi_sample);
#elif defined HAS_LCD
sprintf(str, "%7s,%d\n", channel_str, max_rssi_sample);
lcd_write_string(str);
#endif
if(!use_manual_channel_switching)
{
switch_next_channel();
sched_post_task(&start_rx);
}
else
{
sched_post_task(&process_uart_rx_fifo); // check for UART commands first
uint16_t delay = rand() % 5000;
timer_post_task_delay(&read_rssi, delay);
}
hw_watchdog_feed();
}
static void process_uart_rx_fifo()
{
if(fifo_get_size(&uart_rx_fifo) >= COMMAND_SIZE)
{
uint8_t received_cmd[COMMAND_SIZE];
fifo_pop(&uart_rx_fifo, received_cmd, COMMAND_SIZE);
if(strncmp(received_cmd, COMMAND_CHAN, COMMAND_SIZE) == 0)
{
process_command_chan();
}
else if(strncmp(received_cmd, COMMAND_TRAN, COMMAND_SIZE) == 0)
{
while(fifo_get_size(&uart_rx_fifo) < COMMAND_TRAN_PARAM_SIZE);
char param[COMMAND_TRAN_PARAM_SIZE];
fifo_pop(&uart_rx_fifo, param, COMMAND_TRAN_PARAM_SIZE);
tx_packet_delay_s = atoi(param);
stop();
is_mode_rx = false;
current_state = STATE_RUNNING;
sched_post_task(&start);
}
else if(strncmp(received_cmd, COMMAND_RECV, COMMAND_SIZE) == 0)
{
stop();
is_mode_rx = true;
current_state = STATE_RUNNING;
sched_post_task(&start);
}
else if(strncmp(received_cmd, COMMAND_RSET, COMMAND_SIZE) == 0)
{
hw_reset();
}
else
{
char err[40];
snprintf(err, sizeof(err), "ERROR invalid command %.4s\n", received_cmd);
uart_transmit_string(err);
}
fifo_clear(&uart_rx_fifo);
}
timer_post_task_delay(&process_uart_rx_fifo, TIMER_TICKS_PER_SEC);
}
void bootstrap()
{
DPRINT("Device booted at time: %d\n", timer_get_counter_value()); // TODO not printed for some reason, debug later
#ifdef HAS_LCD
lcd_write_string("cont tx");
#endif
switch(current_channel_class)
{
// TODO only 433 for now
case PHY_CLASS_NORMAL_RATE:
channel_count = NORMAL_RATE_CHANNEL_COUNT;
realloc(channel_indexes, channel_count);
for(int i = 0; i < channel_count; i++)
channel_indexes[i] = i * 8;
break;
case PHY_CLASS_LO_RATE:
channel_count = LO_RATE_CHANNEL_COUNT;
realloc(channel_indexes, channel_count);
for(int i = 0; i < channel_count; i++)
channel_indexes[i] = i;
break;
}
#if NUM_USERBUTTONS > 1
ubutton_register_callback(0, &userbutton_callback);
ubutton_register_callback(1, &userbutton_callback);
#endif
hw_radio_init(NULL, NULL);
sched_register_task(&start);
timer_post_task_delay(&start, TIMER_TICKS_PER_SEC * 5);
}
void bootstrap()
{
DPRINT("Device booted at time: %d\n", timer_get_counter_value()); // TODO not printed for some reason, debug later
#ifdef HAS_LCD
lcd_write_string("cont TX \n");
#endif
switch(current_channel_class)
{
case PHY_CLASS_NORMAL_RATE:
channel_count = NORMAL_RATE_CHANNEL_COUNT;
realloc(channel_indexes, channel_count);
for(int i = 0; i < channel_count; i++)
channel_indexes[i] = i * 8;
break;
case PHY_CLASS_LO_RATE:
channel_count = LO_RATE_CHANNEL_COUNT;
realloc(channel_indexes, channel_count);
for(int i = 0; i < channel_count; i++)
channel_indexes[i] = i;
break;
}
#if PLATFORM_NUM_BUTTONS > 1
ubutton_register_callback(0, &userbutton_callback);
ubutton_register_callback(1, &userbutton_callback);
#endif
hw_radio_init(&alloc_packet_callback, &release_packet_callback);
sched_register_task(&start);
timer_post_task_delay(&start, 500);
}
static void tx_callback(hw_radio_packet_t* tx_packet)
{
log_print_string("Sent packet with counter %u", NG(tx_buffer).counter);
timer_post_task_delay(send_packet, TIMER_TICKS_PER_SEC + (get_rnd() %TIMER_TICKS_PER_SEC));
}
void rssi_valid(int16_t cur_rssi)
{
timer_post_task_delay(&read_rssi, 1); // TODO delay
}
void execute_sensor_measurement()
{
timer_post_task_delay(&execute_sensor_measurement, TEMPERATURE_PERIOD);
measureTemperature();
}
static void packet_transmitted(hw_radio_packet_t* hw_radio_packet)
{
assert(dll_state == DLL_STATE_TX_FOREGROUND);
switch_state(DLL_STATE_TX_FOREGROUND_COMPLETED);
DPRINT("Transmitted packet with length = %i", hw_radio_packet->length);
packet_t* packet = packet_queue_find_packet(hw_radio_packet);
d7anp_signal_packet_transmitted(packet);
if(process_received_packets_after_tx)
{
sched_post_task(&process_received_packets);
process_received_packets_after_tx = false;
}
#ifdef RESPONDER_USE_FG_SCAN_OUTSIDE_TRANSACTION // TODO validate if still needed, if yes: needs to be tested
/*
* Resume the FG scan only after an unicast packet, otherwise, wait the
* response period expiration.
*/
if (resume_fg_scan && packet->dll_header.control_target_address_set)
{
switch_state(DLL_STATE_FOREGROUND_SCAN);
hw_rx_cfg_t rx_cfg = (hw_rx_cfg_t){
.channel_id.channel_header = current_access_profile->subbands[0].channel_header,
.channel_id.center_freq_index = current_access_profile->subbands[0].channel_index_start,
.syncword_class = PHY_SYNCWORD_CLASS1,
};
hw_radio_set_rx(&rx_cfg, &packet_received, NULL);
resume_fg_scan = false;
}
#else
if (resume_fg_scan)
{
switch_state(DLL_STATE_FOREGROUND_SCAN);
hw_rx_cfg_t rx_cfg = (hw_rx_cfg_t){
.channel_id.channel_header = current_access_profile->subbands[0].channel_header,
.channel_id.center_freq_index = current_access_profile->subbands[0].channel_index_start,
.syncword_class = PHY_SYNCWORD_CLASS1,
};
hw_radio_set_rx(&rx_cfg, &packet_received, NULL);
resume_fg_scan = false;
}
#endif
}
static void cca_rssi_valid(int16_t cur_rssi)
{
// When the radio goes back to Rx state, the rssi_valid callback may be still set. Skip it in this case
if (dll_state != DLL_STATE_CCA1 && dll_state != DLL_STATE_CCA2)
return;
if (cur_rssi <= E_CCA)
{
if(dll_state == DLL_STATE_CCA1)
{
DPRINT("CCA1 RSSI: %d", cur_rssi);
switch_state(DLL_STATE_CCA2);
timer_post_task_delay(&execute_cca, 5);
return;
}
else if(dll_state == DLL_STATE_CCA2)
{
// OK, send packet
DPRINT("CCA2 RSSI: %d", cur_rssi);
DPRINT("CCA2 succeeded, transmitting ...");
// log_print_data(current_packet->hw_radio_packet.data, current_packet->hw_radio_packet.length + 1); // TODO tmp
switch_state(DLL_STATE_TX_FOREGROUND);
d7anp_signal_packet_csma_ca_insertion_completed(true);
error_t err = hw_radio_send_packet(¤t_packet->hw_radio_packet, &packet_transmitted);
assert(err == SUCCESS);
if (!resume_fg_scan)
hw_radio_set_idle(); // ensure radio goes back to IDLE after transmission instead of to RX
return;
}
}
else
{
DPRINT("Channel not clear, RSSI: %i", cur_rssi);
switch_state(DLL_STATE_CSMA_CA_RETRY);
execute_csma_ca();
//switch_state(DLL_STATE_CCA_FAIL);
//d7atp_signal_packet_csma_ca_insertion_completed(false);
}
}
static void execute_cca()
{
assert(dll_state == DLL_STATE_CCA1 || dll_state == DLL_STATE_CCA2);
hw_rx_cfg_t rx_cfg =(hw_rx_cfg_t){
.channel_id.channel_header = current_access_profile->subbands[0].channel_header,
.channel_id.center_freq_index = current_access_profile->subbands[0].channel_index_start,
.syncword_class = PHY_SYNCWORD_CLASS1,
};
hw_radio_set_rx(&rx_cfg, NULL, &cca_rssi_valid);
}
static uint16_t calculate_tx_duration()
{
int data_rate = 6; // Normal rate: 6.9 bytes/tick
// TODO select correct subband
switch (current_access_profile->subbands[0].channel_header.ch_class)
{
case PHY_CLASS_LO_RATE:
data_rate = 1; // Lo Rate: 1.2 bytes/tick
break;
case PHY_CLASS_HI_RATE:
data_rate = 20; // High rate: 20.83 byte/tick
}
uint16_t duration = (current_packet->hw_radio_packet.length / data_rate) + 1;
return duration;
}
static void execute_csma_ca()
{
// TODO generate random channel queue
//hw_radio_set_rx(NULL, NULL, NULL); // put radio in RX but disable callbacks to make sure we don't receive packets when in this state
// TODO use correct rx cfg + it might be interesting to switch to idle first depending on calculated offset
uint16_t tx_duration = calculate_tx_duration();
timer_tick_t Tc = CONVERT_TO_TI(current_packet->d7atp_tc);
switch (dll_state)
{
case DLL_STATE_CSMA_CA_STARTED:
{
dll_tca = Tc - tx_duration;
dll_cca_started = timer_get_counter_value();
DPRINT("Tca= %i = %i - %i", dll_tca, Tc, tx_duration);
#ifndef FRAMEWORK_TIMER_RESET_COUNTER
// Adjust TCA value according the time already elapsed in the response period
if (tc_starting_time) // TODO how do manage tc_starting_time? not set for now
{
dll_tca -= dll_cca_started - tc_starting_time;
DPRINT("Adjusted Tca= %i = %i - %i", dll_tca, dll_cca_started, tc_starting_time);
}
#endif
if (dll_tca <= 0)
{
DPRINT("Tca negative, CCA failed");
// Let the upper layer decide eventually to change the channel in order to get a chance a send this frame
switch_state(DLL_STATE_IDLE);
d7anp_signal_packet_csma_ca_insertion_completed(false);
break;
}
uint16_t t_offset = 0;
csma_ca_mode_t csma_ca_mode = current_access_profile->control_csma_ca_mode;
// TODO overrule mode to UNC for subsequent requests by the requester, or a single response to a unicast request
switch(csma_ca_mode)
{
case CSMA_CA_MODE_UNC:
// no delay
dll_slot_duration = 0;
break;
case CSMA_CA_MODE_AIND: // TODO implement AIND
{
dll_slot_duration = tx_duration;
// no initial delay
break;
}
case CSMA_CA_MODE_RAIND: // TODO implement RAIND
{
dll_slot_duration = tx_duration;
uint16_t max_nr_slots = dll_tca / tx_duration;
uint16_t slots_wait = get_rnd() % max_nr_slots;
t_offset = slots_wait * tx_duration;
break;
}
case CSMA_CA_MODE_RIGD: // TODO implement RAIND
{
dll_rigd_n = 0;
dll_tca0 = dll_tca;
dll_slot_duration = (uint16_t) ((double)dll_tca0) / (2 << (dll_rigd_n));
t_offset = get_rnd() % dll_slot_duration;
break;
}
}
DPRINT("slot duration: %i t_offset: %i csma ca mode: %i", dll_slot_duration, t_offset, csma_ca_mode);
dll_to = dll_tca - t_offset;
if (t_offset > 0)
{
switch_state(DLL_STATE_CCA1);
timer_post_task_delay(&execute_cca, t_offset);
}
else
{
switch_state(DLL_STATE_CCA1);
sched_post_task(&execute_cca);
}
break;
}
case DLL_STATE_CSMA_CA_RETRY:
{
int32_t cca_duration = timer_get_counter_value() - dll_cca_started;
dll_to -= cca_duration;
DPRINT("RETRY dll_to = %i < %i ", dll_to, t_g);
if (dll_to < t_g)
{
switch_state(DLL_STATE_CCA_FAIL);
sched_post_task(&execute_csma_ca);
break;
}
dll_tca = dll_to;
dll_cca_started = timer_get_counter_value();
uint16_t t_offset = 0;
switch(current_access_profile->control_csma_ca_mode)
{
case CSMA_CA_MODE_AIND:
case CSMA_CA_MODE_RAIND:
{
uint16_t max_nr_slots = dll_tca / tx_duration;
uint16_t slots_wait = get_rnd() % max_nr_slots;
t_offset = slots_wait * tx_duration;
break;
}
case CSMA_CA_MODE_RIGD:
{
dll_rigd_n++;
dll_slot_duration = (uint16_t) ((double)dll_tca0) / (2 << (dll_rigd_n+1));
if(dll_slot_duration != 0) // TODO can be 0, validate
t_offset = get_rnd() % dll_slot_duration;
else
t_offset = 0;
DPRINT("slot duration: %i", dll_slot_duration);
break;
}
}
DPRINT("t_offset: %i", t_offset);
dll_to = dll_tca - t_offset;
if (t_offset > 0)
{
timer_post_task_delay(&execute_csma_ca, t_offset);
}
else
{
switch_state(DLL_STATE_CCA1);
sched_post_task(&execute_cca);
}
break;
}
case DLL_STATE_CCA_FAIL:
{
// TODO hw_radio_set_idle();
switch_state(DLL_STATE_IDLE);
d7anp_signal_packet_csma_ca_insertion_completed(false);
if (process_received_packets_after_tx)
{
sched_post_task(&process_received_packets);
process_received_packets_after_tx = false;
}
if (resume_fg_scan)
{
switch_state(DLL_STATE_FOREGROUND_SCAN);
hw_rx_cfg_t rx_cfg = (hw_rx_cfg_t){
.channel_id.channel_header = current_access_profile->subbands[0].channel_header,
.channel_id.center_freq_index = current_access_profile->subbands[0].channel_index_start,
.syncword_class = PHY_SYNCWORD_CLASS1,
};
hw_radio_set_rx(&rx_cfg, &packet_received, NULL);
resume_fg_scan = false;
}
break;
}
}
}
void dll_execute_scan_automation()
{
uint8_t scan_access_class = fs_read_dll_conf_active_access_class();
if(active_access_class != scan_access_class)
{
fs_read_access_class(scan_access_class, &scan_access_profile);
active_access_class = scan_access_class;
}
current_access_profile = &scan_access_profile;
if(current_access_profile->control_scan_type_is_foreground && current_access_profile->control_number_of_subbands > 0) // TODO background scan
{
assert(current_access_profile->control_number_of_subbands == 1); // TODO multiple not supported
switch_state(DLL_STATE_SCAN_AUTOMATION);
hw_rx_cfg_t rx_cfg = {
.channel_id = {
.channel_header = current_access_profile->subbands[0].channel_header,
.center_freq_index = current_access_profile->subbands[0].channel_index_start
},
.syncword_class = PHY_SYNCWORD_CLASS1
};
