/**
* @brief todo
*
*/
retval_t tal_rampup(void)
{
pal_trx_init();
if (trx_init() != MAC_SUCCESS)
{
return FAILURE;
}
/*
* Do the reset stuff.
* Set the default PIBs.
* Generate random seed.
*/
if (internal_tal_reset(true) != MAC_SUCCESS)
{
return FAILURE;
}
/*
* Activate interrupt handling.
*/
pal_trx_irq_en(); /* Enable transceiver main interrupt. */
#if ((defined BEACON_SUPPORT) || (defined ENABLE_TSTAMP)) && (DISABLE_TSTAMP_IRQ == 0)
/* Configure time stamp interrupt. */
pal_trx_irq_en_tstamp(); /* Enable timestamp interrupt. */
#endif
return MAC_SUCCESS;
} /* tal_rampup() */
trx_retval_t tal_init(void)
{
if (trx_init() != TRX_SUCCESS) {
return TRX_FAILURE;
}
/*
* Do the reset stuff.
* Generate random seed.
*/
if (internal_tal_reset() != TRX_SUCCESS) {
return TRX_FAILURE;
}
/* Set the default CCA mode. */
pal_trx_bit_write(SR_CCA_MODE, CCA_MODE_DEFAULT);
/* Default configuration to perform auto CSMA-CA */
pal_trx_reg_write(RG_CSMA_BE, ((MAXBE_DEFAULT << 4) | MINBE_DEFAULT));
pal_trx_bit_write(SR_MAX_CSMA_RETRIES, MAX_CSMA_BACKOFFS_DEFAULT);
/* Set the trx in promiscuous mode to receive all frame with CRC OK */
pal_trx_bit_write(SR_AACK_PROM_MODE, PROM_MODE_ENABLE);
/* Configuration to perform auto CRC for transmission */
pal_trx_bit_write(SR_TX_AUTO_CRC_ON, TX_AUTO_CRC_ENABLE);
return TRX_SUCCESS;
}
/**
* @brief Initializes the TAL
*
* This function is called to initialize the TAL. The transceiver is
* initialized, the TAL PIBs are set to their default values, and the TAL state
* machine is set to TAL_IDLE state.
*
* @return MAC_SUCCESS if the transceiver state is changed to TRX_OFF and the
* current device part number and version number are correct;
* FAILURE otherwise
*/
retval_t tal_init(void)
{
/* Init the PAL and by this means also the transceiver interface */
if (pal_init() != MAC_SUCCESS)
{
return FAILURE;
}
if (trx_init() != MAC_SUCCESS)
{
return FAILURE;
}
#if (EXTERN_EEPROM_AVAILABLE == 1)
pal_ps_get(EXTERN_EEPROM, EE_IEEE_ADDR, 8, &tal_pib.IeeeAddress);
#else
pal_ps_get(INTERN_EEPROM, EE_IEEE_ADDR, 8, &tal_pib.IeeeAddress);
#endif
/*
* Do the reset stuff.
* Set the default PIBs.
* Generate random seed.
*/
if (internal_tal_reset(true) != MAC_SUCCESS)
{
return FAILURE;
}
#ifndef DISABLE_IEEE_ADDR_CHECK
/* Check if a valid IEEE address is available. */
/*
* This while loop is on purpose, since just in the
* rare case that such an address is randomly
* generated again, we must repeat this.
*/
while ((tal_pib.IeeeAddress == 0x0000000000000000) ||
(tal_pib.IeeeAddress == 0xFFFFFFFFFFFFFFFF)
)
{
/*
* In case no valid IEEE address is available, a random
* IEEE address will be generated to be able to run the
* applications for demonstration purposes.
* In production code this can be omitted.
*/
/*
* The proper seed for function rand() has already been generated
* in function tal_generate_rand_seed().
*/
uint8_t *ptr_pib = (uint8_t *)&tal_pib.IeeeAddress;
for (uint8_t i = 0; i < 8; i++)
{
*ptr_pib++ = (uint8_t)rand();
/*
* Note:
* Even if casting the 16 bit rand value back to 8 bit,
* and running the loop 8 timers (instead of only 4 times)
* may look cumbersome, it turns out that the code gets
* smaller using 8-bit here.
* And timing is not an issue at this place...
*/
}
}
#endif /* #ifndef DISABLE_IEEE_ADDR_CHECK */
/*
* Configure interrupt handling.
* Install handlers for the transceiver interrupts.
*/
pal_trx_irq_init_rx_end((FUNC_PTR)trx_rx_end_handler_cb);
pal_trx_irq_init_tx_end((FUNC_PTR)trx_tx_end_handler_cb);
pal_trx_irq_init_awake((FUNC_PTR)trx_awake_handler_cb);
#if (defined BEACON_SUPPORT) || (defined ENABLE_TSTAMP)
/* Configure time stamp interrupt. */
pal_trx_irq_init_tstamp((FUNC_PTR)trx_irq_timestamp_handler_cb);
#endif /* (defined BEACON_SUPPORT) || (defined ENABLE_TSTAMP) */
/* Initialize the buffer management module and get a buffer to store reveived frames. */
bmm_buffer_init();
tal_rx_buffer = bmm_buffer_alloc(LARGE_BUFFER_SIZE);
/* Init incoming frame queue */
#ifdef ENABLE_QUEUE_CAPACITY
qmm_queue_init(&tal_incoming_frame_queue, TAL_INCOMING_FRAME_QUEUE_CAPACITY);
#else
qmm_queue_init(&tal_incoming_frame_queue);
#endif /* ENABLE_QUEUE_CAPACITY */
#ifdef ENABLE_TFA
tfa_init();
#endif
return MAC_SUCCESS;
} /* tal_init() */
/**
* @brief Initializes the TAL
*
* This function is called to initialize the TAL. The transceiver is
* initialized, the TAL PIBs are set to their default values, and the TAL state
* machine is set to TAL_IDLE state.
*
* @return MAC_SUCCESS if the transceiver state is changed to TRX_OFF and the
* current device part number and version number are correct;
* FAILURE otherwise
*/
retval_t tal_init(void)
{
/* Init the PAL and by this means also the transceiver interface */
#ifdef ENABLE_RP
/*
* The ranging processor (RP) only performs a minimalistic
* initialization here.
*/
pal_basic_init();
#else /* !ENABLE_RP */
if (pal_init() != MAC_SUCCESS)
{
return FAILURE;
}
if (trx_init() != MAC_SUCCESS)
{
return FAILURE;
}
#if (EXTERN_EEPROM_AVAILABLE == 1)
pal_ps_get(EXTERN_EEPROM, EE_IEEE_ADDR, 8, &tal_pib.IeeeAddress);
#else
#if (USER_SIGN_AVAILABLE == 1)
pal_ps_get(USER_SIGNATURE, USER_SIGNATURES_START + 2, 8, &tal_pib.IeeeAddress);
//http://www.atmel.com/Images/Atmel-42172-Wireless-ZigBit-ATZB-X0-256-3-0-C_Datasheet.pdf
#else
pal_ps_get(INTERN_EEPROM, EE_IEEE_ADDR, 8, &tal_pib.IeeeAddress);
#endif
#endif
/*
* Do the reset stuff.
* Set the default PIBs.
* Generate random seed.
*/
if (internal_tal_reset(true) != MAC_SUCCESS)
{
return FAILURE;
}
#ifndef DISABLE_IEEE_ADDR_CHECK
/* Check if a valid IEEE address is available. */
/*
* This while loop is on purpose, since just in the
* rare case that such an address is randomly
* generated again, we must repeat this.
*/
while ((tal_pib.IeeeAddress == 0x0000000000000000) ||
(tal_pib.IeeeAddress == 0xFFFFFFFFFFFFFFFF))
{
/*
* In case no valid IEEE address is available, a random
* IEEE address will be generated to be able to run the
* applications for demonstration purposes.
* In production code this can be omitted.
*/
/*
* The proper seed for function rand() has already been generated
* in function tal_generate_rand_seed().
*/
uint8_t *ptr_pib = (uint8_t *)&tal_pib.IeeeAddress;
for (uint8_t i = 0; i < 8; i++)
{
*ptr_pib++ = (uint8_t)rand();
/*
* Note:
* Even if casting the 16 bit rand value back to 8 bit,
* and running the loop 8 timers (instead of only 4 times)
* may look cumbersome, it turns out that the code gets
* smaller using 8-bit here.
* And timing is not an issue at this place...
*/
}
}
#endif /* #ifndef DISABLE_IEEE_ADDR_CHECK */
#endif /* ENABLE_RP */
/*
* Configure interrupt handling.
* Install a handler for the transceiver interrupt.
*/
pal_trx_irq_init(trx_irq_handler_cb);
#ifndef ENABLE_RP
pal_trx_irq_en(); /* Enable transceiver main interrupt. */
#endif
#if ((defined BEACON_SUPPORT) || (defined ENABLE_TSTAMP)) && (DISABLE_TSTAMP_IRQ == 0)
/* Configure time stamp interrupt. */
pal_trx_irq_init_tstamp(trx_irq_timestamp_handler_cb);
#ifndef ENABLE_RP
pal_trx_irq_en_tstamp(); /* Enable timestamp interrupt. */
#endif
#endif
/* Initialize the buffer management module and get a buffer to store received frames. */
bmm_buffer_init();
tal_rx_buffer = bmm_buffer_alloc(LARGE_BUFFER_SIZE);
#if DEBUG > 0
if (tal_rx_buffer == NULL)
{
return FAILURE;
}
#endif
/* Init incoming frame queue */
#ifdef ENABLE_QUEUE_CAPACITY
qmm_queue_init(&tal_incoming_frame_queue, TAL_INCOMING_FRAME_QUEUE_CAPACITY);
#else
qmm_queue_init(&tal_incoming_frame_queue);
#endif /* ENABLE_QUEUE_CAPACITY */
#ifdef ENABLE_TFA
tfa_init();
#endif
return MAC_SUCCESS;
} /* tal_init() */
int main(int argc, char **argv)
{
char dev_if[16];
int opt;
int err = 0;
int daemonize = 0;
int log_level = LOG_WARN;
char *log_file = NULL;
memset(dev_if, '\0', sizeof(dev_if));
strncpy(dev_if, PHOST_DEFAULT_TAP_DEVICE, sizeof(dev_if) - 1);
phost_set_program_name(basename(argv[0]));
/* parse options */
while(1){
opt = getopt(argc, argv, "Dd:i:p:l:n:v");
if(opt < 0){
break;
}
switch(opt){
case 'D':
daemonize = 1;
break;
case 'd':
if(optarg){
if(atoi(optarg) < LOG_LEVEL_MAX){
log_level = atoi(optarg);
}
else{
phost_print_usage();
exit(1);
}
}
else{
err |= 1;
}
break;
case 'i':
if(optarg){
memset(dev_if, '\0', sizeof(dev_if));
strncpy(dev_if, optarg, sizeof(dev_if) - 1);
}
else{
err |= 1;
}
break;
case 'p':
if(optarg){
memset(pid_dir, '\0', sizeof(pid_dir));
strncpy(pid_dir, optarg, sizeof(pid_dir) - 1);
}
else{
err |= 1;
}
break;
case 'l':
if(optarg){
memset(log_dir, '\0', sizeof(log_dir));
strncpy(log_dir, optarg, sizeof(log_dir) - 1);
}
else{
err |= 1;
}
break;
case 'n':
if(optarg){
memset(host_name, '\0', sizeof(host_name));
strncpy(host_name, optarg, sizeof(host_name) - 1);
}
else{
err |= 1;
}
break;
case 'v':
log_file = LOG_OUT_STDOUT;
log_level = LOG_DEBUG;
break;
default:
err |= 1;
}
}
if(err){
phost_print_usage();
exit(1);
}
if(log_file == NULL){
log_file = (char*)malloc(sizeof(char)*(strlen(log_dir)+strlen(PHOST_LOG_FILE)+strlen(dev_if)+3));
sprintf(log_file, "%s/%s.%s", log_dir, PHOST_LOG_FILE, dev_if);
}
/* check if this process is run with root privilege */
if(getuid() != 0){
fprintf(stderr, "[ERROR] `%s' must be run with root privilege.\n", program_name);
exit(1);
}
/* register signal handler */
signal(SIGINT, phost_handle_signals);
signal(SIGTERM, phost_handle_signals);
signal(SIGPIPE, SIG_IGN);
signal(SIGUSR1, SIG_IGN);
signal(SIGUSR2, SIG_IGN);
/* initializations */
if(log_init(log_level, log_file) < 0){
fprintf(stderr, "[ERROR] cannot initialize logger.\n");
exit(1);
}
if(daemonize && (phost_daemonize() < 0)){
fprintf(stderr, "[ERROR] cannot daemonize.\n");
exit(1);
}
if(strncmp(dev_if, "tap", 3) != 0){
if(ethdev_init(dev_if) < 0){
fprintf(stderr, "[ERROR] cannot initialize Ethernet device (%s).\n", dev_if);
exit(1);
}
trx_init(ethdev_read, ethdev_send);
}
else{
if(tap_init(dev_if) < 0){
fprintf(stderr, "[ERROR] cannot create tap device (%s).\n", dev_if);
exit(1);
}
trx_init(tap_read, tap_send);
}
phost_set_global_params();
phost_create_pid_file(host_name);
cmdif_init(dev_if, stats_udp_send_update);
arp_init(host_mac_addr, host_ip_addr);
ipv4_init(host_ip_addr, host_ip_mask);
udp_init(stats_udp_recv_update);
pkt_dump = (char*)malloc(sizeof(char)*PKT_BUF_SIZE*2);
while(run){
phost_run();
cmdif_run();
arp_age_entries();
}
free(pkt_dump);
cmdif_close();
tap_close();
phost_delete_pid_file(host_name);
phost_unset_global_params();
log_close();
return 0;
}
/*
* \brief Initializes the TAL
*
* This function is called to initialize the TAL. The transceiver is
* initialized, the TAL PIBs are set to their default values, and the TAL state
* machine is set to TAL_IDLE state.
*
* \return MAC_SUCCESS if the transceiver state is changed to TRX_OFF and the
* current device part number and version number are correct;
* FAILURE otherwise
*/
retval_t tal_init(void)
{
/* Init the PAL and by this means also the transceiver interface */
if (pal_init() != MAC_SUCCESS) {
return FAILURE;
}
if (trx_init() != MAC_SUCCESS) {
return FAILURE;
}
if (tal_timer_init() != MAC_SUCCESS) {
return FAILURE;
}
#ifdef ENABLE_STACK_NVM
pal_ps_get(INTERN_EEPROM, EE_IEEE_ADDR, 8, &tal_pib.IeeeAddress);
#endif
/*
* For systems including the AT86RF230B the random seed generation
* cannot be done using a dedicated hardware feature.
* Therefore all random seed generation needs to be done by special
* means (e.g. utilization of ADC) that generate a random value only
* within a certain range.
*
* In case the node already has a valid IEEE address (i.e. an IEEE
* address which is different from 0x0000000000000000 or
* 0xFFFFFFFFFFFFFFFF), this IEEE address (the lower 16 bit)
* shall be used as seed for srand(), since each node should have a
*unique
* IEEE address.
* In this case srand() is called directly and function
*tal_generate_rand_seed()
* is not called.
*
* Note: This behaviour is different in all other TALs, since in these
* cases the seed for srand() is always generated based on transceiver
* hardware support.
*/
#ifndef DISABLE_IEEE_ADDR_CHECK
if ((tal_pib.IeeeAddress == 0x0000000000000000) ||
(tal_pib.IeeeAddress == 0xFFFFFFFFFFFFFFFF)
) {
/*
* Generate a seed for the random number generator in function
*rand().
* This is required (for example) as seed for the CSMA-CA
*algorithm.
*/
tal_generate_rand_seed();
/*
* Now that we have generated a random seed, we can generate a
*random
* IEEE address for this node.
*/
do {
/*
* In case no valid IEEE address is available, a random
* IEEE address will be generated to be able to run the
* applications for demonstration purposes.
* In production code this can be omitted.
*/
/*
* The proper seed for function rand() has already been
*generated
* in function tal_generate_rand_seed().
*/
uint8_t *ptr_pib = (uint8_t *)&tal_pib.IeeeAddress;
for (uint8_t i = 0; i < 8; i++) {
*ptr_pib++ = (uint8_t)rand();
/*
* Note:
* Even if casting the 16 bit rand value back to
*8 bit,
* and running the loop 8 timers (instead of
*only 4 times)
* may look cumbersome, it turns out that the
*code gets
* smaller using 8-bit here.
* And timing is not an issue at this place...
*/
}
}
/* Check if a valid IEEE address is available. */
while ((tal_pib.IeeeAddress == 0x0000000000000000) ||
(tal_pib.IeeeAddress == 0xFFFFFFFFFFFFFFFF)
);
} else {
/* Valid IEEE address, so no need to generate a new random seed.
**/
uint16_t cur_rand_seed = (uint16_t)tal_pib.IeeeAddress;
srand(cur_rand_seed);
}
#else
/*
* No check for a valid IEEE address done, so directly create a seed
* for srand().
*/
tal_generate_rand_seed();
#endif
/*
* Do the reset stuff.
* Set the default PIBs.
*/
if (internal_tal_reset(true) != MAC_SUCCESS) {
return FAILURE;
}
pal_trx_reg_read(RG_IRQ_STATUS); /* clear pending irqs, dummy read */
/*
* Configure interrupt handling.
* Install a handler for the transceiver interrupt.
*/
pal_trx_irq_init((FUNC_PTR)trx_irq_handler_cb);
pal_trx_irq_en(); /* Enable transceiver main interrupt. */
/* Initialize the buffer management module and get a buffer to store
*reveived frames. */
bmm_buffer_init();
tal_rx_buffer = bmm_buffer_alloc(LARGE_BUFFER_SIZE);
/* Init incoming frame queue */
#ifdef ENABLE_QUEUE_CAPACITY
qmm_queue_init(&tal_incoming_frame_queue,
TAL_INCOMING_FRAME_QUEUE_CAPACITY);
#else
qmm_queue_init(&tal_incoming_frame_queue);
#endif /* ENABLE_QUEUE_CAPACITY */
return MAC_SUCCESS;
} /* tal_init() */
/**
* @brief Resets TAL state machine and sets the default PIB values if requested
*
* @param trx_id Transceiver identifier
* @param set_default_pib Defines whether PIB values need to be set
* to its default values
*
* @return
* - @ref MAC_SUCCESS if the transceiver state is changed to TRX_OFF
* - @ref FAILURE otherwise
* @ingroup apiTalApi
*/
retval_t tal_reset(trx_id_t trx_id, bool set_default_pib)
{
rf_cmd_state_t previous_trx_state[NUM_TRX];
previous_trx_state[RF09] = trx_state[RF09];
previous_trx_state[RF24] = trx_state[RF24];
/* Reset the actual device or part of the device */
if (trx_reset(trx_id) != MAC_SUCCESS) {
return FAILURE;
}
/* Init Trx if necessary, e.g. trx was in deep sleep */
if (((previous_trx_state[RF09] == RF_SLEEP) &&
(previous_trx_state[RF24] == RF_SLEEP)) ||
(trx_id == RFBOTH)) {
trx_init(); /* Initialize generic trx functionality */
}
if (trx_id == RFBOTH) {
for (uint8_t i = 0; i < NUM_TRX; i++) {
/* Clean TAL and removed any pending tasks */
cleanup_tal((trx_id_t)i);
/* Configure the transceiver register values. */
trx_config((trx_id_t)i);
if (set_default_pib) {
/* Set the default PIB values */
init_tal_pib((trx_id_t)i); /* see 'tal_pib.c' */
calculate_pib_values(trx_id);
} else {
/* nothing to do - the current TAL PIB attribute
*values are used */
}
write_all_tal_pib_to_trx((trx_id_t)i); /* see
*'tal_pib.c' */
config_phy((trx_id_t)i);
/* Reset TAL variables. */
tal_state[(trx_id_t)i] = TAL_IDLE;
tx_state[(trx_id_t)i] = TX_IDLE;
#ifdef ENABLE_FTN_PLL_CALIBRATION
/* Stop FTN timer */
stop_ftn_timer((trx_id_t)i);
#endif /* ENABLE_FTN_PLL_CALIBRATION */
}
} else {
/* Maintain other trx */
trx_id_t other_trx_id;
if (trx_id == RF09) {
other_trx_id = RF24;
} else {
other_trx_id = RF09;
}
if (tal_state[other_trx_id] == TAL_SLEEP) {
/* Switch other trx back to sleep again */
uint16_t reg_offset = RF_BASE_ADDR_OFFSET *
other_trx_id;
#ifdef IQ_RADIO
pal_dev_reg_write(RF215_BB, reg_offset + RG_RF09_CMD,
RF_SLEEP);
pal_dev_reg_write(RF215_RF, reg_offset + RG_RF09_CMD,
RF_SLEEP);
#else
trx_reg_write(reg_offset + RG_RF09_CMD, RF_SLEEP);
#endif
TAL_RF_IRQ_CLR_ALL(trx_id);
}
/* Clean TAL and removed any pending tasks */
cleanup_tal(trx_id);
/* Configure the transceiver register values. */
trx_config(trx_id);
if (set_default_pib) {
/* Set the default PIB values */
init_tal_pib(trx_id); /* see 'tal_pib.c' */
calculate_pib_values(trx_id);
} else {
/* nothing to do - the current TAL PIB attribute values
*are used */
}
write_all_tal_pib_to_trx(trx_id); /* see 'tal_pib.c' */
config_phy(trx_id);
/* Reset TAL variables. */
tal_state[trx_id] = TAL_IDLE;
tx_state[trx_id] = TX_IDLE;
#ifdef ENABLE_FTN_PLL_CALIBRATION
/* Stop FTN timer */
stop_ftn_timer(trx_id);
#endif /* ENABLE_FTN_PLL_CALIBRATION */
}
/*
* Configure interrupt handling.
* Install a handler for the transceiver interrupt.
*/
#ifdef IQ_RADIO
trx_irq_init(RF215_BB, bb_irq_handler_cb);
trx_irq_init(RF215_RF, rf_irq_handler_cb);
pal_trx_irq_en(RF215_BB); /* Enable transceiver main interrupt. */
pal_trx_irq_en(RF215_RF); /* Enable transceiver main interrupt. */
#else
trx_irq_init((FUNC_PTR)trx_irq_handler_cb);
pal_trx_irq_en(); /* Enable transceiver main interrupt. */
#endif
return MAC_SUCCESS;
}
/**
* @brief Initializes the TAL
*
* This function is called to initialize the TAL. The transceiver is
* initialized, the TAL PIBs are set to their default values, and the TAL state
* machine is set to TAL_IDLE state.
*
* @return MAC_SUCCESS if the transceiver state is changed to TRX_OFF and the
* current device part number and version number are correct;
* FAILURE otherwise
*/
retval_t tal_init(void)
{
/* Init the PAL and by this means also the transceiver interface */
if (pal_init() != MAC_SUCCESS) {
return FAILURE;
}
/* Reset trx */
if (trx_reset(RFBOTH) != MAC_SUCCESS) {
return FAILURE;
}
/* Check if RF215 is connected */
if ((trx_reg_read( RG_RF_PN) != 0x34) ||
(trx_reg_read( RG_RF_VN) != 0x01)) {
return FAILURE;
}
/* Initialize trx */
trx_init();
if (tal_timer_init() != MAC_SUCCESS) {
return FAILURE;
}
/* Initialize the buffer management */
bmm_buffer_init();
/* Configure both trx and set default PIB values */
for (uint8_t trx_id = 0; trx_id < NUM_TRX; trx_id++) {
/* Configure transceiver */
trx_config((trx_id_t)trx_id);
#ifdef RF215V1
/* Calibrate LO */
calibrate_LO((trx_id_t)trx_id);
#endif
/* Set the default PIB values */
init_tal_pib((trx_id_t)trx_id); /* see 'tal_pib.c' */
calculate_pib_values((trx_id_t)trx_id);
/*
* Write all PIB values to the transceiver
* that are needed by the transceiver itself.
*/
write_all_tal_pib_to_trx((trx_id_t)trx_id); /* see 'tal_pib.c'
**/
config_phy((trx_id_t)trx_id);
tal_rx_buffer[trx_id] = bmm_buffer_alloc(LARGE_BUFFER_SIZE);
if (tal_rx_buffer[trx_id] == NULL) {
return FAILURE;
}
/* Init incoming frame queue */
qmm_queue_init(&tal_incoming_frame_queue[trx_id]);
tal_state[trx_id] = TAL_IDLE;
tx_state[trx_id] = TX_IDLE;
}
/* Init seed of rand() */
tal_generate_rand_seed();
#ifndef DISABLE_IEEE_ADDR_CHECK
for (uint8_t trx_id = 0; trx_id < 2; trx_id++) {
/* Check if a valid IEEE address is available. */
/*
* This while loop is on purpose, since just in the
* rare case that such an address is randomly
* generated again, we must repeat this.
*/
while ((tal_pib[trx_id].IeeeAddress == 0x0000000000000000) ||
(tal_pib[trx_id].IeeeAddress ==
((uint64_t)-1))) {
/*
* In case no valid IEEE address is available, a random
* IEEE address will be generated to be able to run the
* applications for demonstration purposes.
* In production code this can be omitted.
*/
/*
* The proper seed for function rand() has already been
*generated
* in function tal_generate_rand_seed().
*/
uint8_t *ptr_pib
= (uint8_t *)&tal_pib[trx_id].IeeeAddress;
for (uint8_t i = 0; i < 8; i++) {
*ptr_pib++ = (uint8_t)rand();
/*
* Note:
* Even if casting the 16 bit rand value back to
*8 bit,
* and running the loop 8 timers (instead of
*only 4 times)
* may look cumbersome, it turns out that the
*code gets
* smaller using 8-bit here.
* And timing is not an issue at this place...
*/
}
}
}
#endif
#ifdef IQ_RADIO
/* Init BB IRQ handler */
pal_trx_irq_flag_clr(RF215_BB);
trx_irq_init(RF215_BB, bb_irq_handler_cb);
pal_trx_irq_en(RF215_BB);
/* Init RF IRQ handler */
pal_trx_irq_flag_clr(RF215_RF);
trx_irq_init(RF215_RF, rf_irq_handler_cb);
pal_trx_irq_en(RF215_RF);
#else
/*
* Configure interrupt handling.
* Install a handler for the radio and the baseband interrupt.
*/
pal_trx_irq_flag_clr();
trx_irq_init((FUNC_PTR)trx_irq_handler_cb);
pal_trx_irq_en(); /* Enable transceiver main interrupt. */
#endif
#if ((defined SUPPORT_FSK) && (defined SUPPORT_MODE_SWITCH))
init_mode_switch();
#endif
return MAC_SUCCESS;
} /* tal_init() */
