Merge pull request #14791 from jia200x/pr/cc2538_radio_hal

cc2538_rf: implement Radio HAL
This commit is contained in:
benpicco 2020-09-04 11:59:32 +02:00 committed by GitHub
commit 6fcf60c0b0
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GPG Key ID: 4AEE18F83AFDEB23
12 changed files with 1417 additions and 11 deletions

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@ -68,9 +68,41 @@ extern "C" {
#define CC2538_CRC_BIT_MASK (0x80)
#define CC2538_CCA_THR_MASK (0x000000FF) /**< CCA Threshold mask */
#define CC2538_CCA_MODE_MASK (0x18) /**< CCA Mode mask */
#define CC2538_CCA_MODE_POS (3U) /**< CCA Mode pos */
#define CC2538_CSP_SKIP_INST_MASK (0x70) /**< CSP Skip instruction mask */
#define CC2538_CSP_SKIP_INST_POS (4U) /**< CSP Skip instruction pos */
#define CC2538_CSP_SKIP_N_MASK (0x08) /**< CSP Skip condition negation mask */
#define CC2538_CSP_SKIP_COND_CCA (0x00) /**< CSP Skip condition is valid CCA */
#define CC2538_CSP_SKIP_COND_CSPZ (0x06) /**< CSP Skip condition is CSPZ is 0 */
#define CC2538_CSP_SKIP_COND_RSSI (0x07) /**< CSP Skip condition is valid RSSI */
#define CC2538_SFR_MTMSEL_MASK (0x7) /**< MAC Timer selection mask */
#define CC2538_SFR_MTMSEL_TIMER_P (0x2) /**< Selects Timer period */
#define CC2538_MCTRL_SYNC_MASK (0x2) /**< Sync MAC Timer to external clock */
#define CC2538_MCTRL_RUN_MASK (0x1) /**< Run MAC Timer */
#define CC2538_CSP_MCU_CTRL_MASK (0x1) /**< MCU Ctrl mask */
#define CC2538_CSP_INCMAXY_MAX_MASK (0x7) /**< CSP INCMAXY instruction (increment Register CSPX
without exceeding CSPY) */
#define CC2538_RXENABLE_RXON_MASK (0x80) /**< RX on mask */
#define CC2538_RSSI_OFFSET (-73) /**< Signal strength offset value */
#define CC2538_RF_SENSITIVITY (-97) /**< dBm typical, normal conditions */
#define CC2538_ACCEPT_FT_2_ACK (1 << 5) /**< enable or disable the ACK filter */
#define CC2538_STATE_SFD_WAIT_RANGE_MIN (0x03U) /**< min range value of SFD wait state */
#define CC2538_STATE_SFD_WAIT_RANGE_MAX (0x06U) /**< max range value of SFD wait state */
#define CC2538_FRMCTRL1_PENDING_OR_MASK (0x04) /**< mask for enabling or disabling the
frame pending bit */
#define RFCORE_ASSERT(expr) (void)( (expr) || RFCORE_ASSERT_failure(#expr, __FUNCTION__, __LINE__) )
#if DEVELHELP
@ -134,6 +166,18 @@ enum {
RXMASKZERO = BIT(7),
};
/*
* @brief RFCORE_XREG_RFIRQM1 / RFCORE_XREG_RFIRQF1 bits
*/
enum {
TXACKDONE = BIT(0),
TXDONE = BIT(1),
RF_IDLE = BIT(2),
CSP_MANINT = BIT(3),
CSP_STOP = BIT(4),
CSP_WAIT = BIT(5),
};
/* Values for use with CCTEST_OBSSELx registers: */
#define OBSSEL_EN BIT(7)
enum {

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@ -28,7 +28,15 @@
#define ENABLE_DEBUG (0)
#include "debug.h"
#define CC2538_ACCEPT_FT_2_ACK (1 << 5)
/*
* @brief MAC timer period
*
* The period is set to the CSMA-CA Backoff Period Unit (20 symbols, 320 us).
* The system clock runs at 32 MHz. Thus, the timeout period is
* 320us * 32MHz = ~10738 (0x29F2)
*/
#define TIMER_PERIOD_LSB (0xF2)
#define TIMER_PERIOD_MSB (0x29)
typedef struct {
cc2538_reg_t *reg_addr;
@ -58,6 +66,9 @@ static const init_pair_t init_table[] = {
{&RFCORE_XREG_SRCMATCH, 0x00 },
{&RFCORE_XREG_FIFOPCTRL, CC2538_RF_MAX_DATA_LEN },
{&RFCORE_XREG_RFIRQM0, FIFOP | RXPKTDONE },
#if IS_USED(MODULE_IEEE802154_RADIO_HAL)
{&RFCORE_XREG_RFIRQM1, TXDONE | CSP_STOP },
#endif
{&RFCORE_XREG_RFERRM, STROBE_ERR | TXUNDERF | TXOVERF | RXUNDERF | RXOVERF | NLOCK},
{NULL, 0},
};
@ -86,10 +97,6 @@ void cc2538_init(void)
*pair->reg_addr = pair->value;
}
cc2538_set_tx_power(CC2538_RF_POWER_DEFAULT);
cc2538_set_chan(CC2538_RF_CHANNEL_DEFAULT);
cc2538_set_addr_long(cc2538_get_eui64_primary());
/* Select the observable signals (maximum of three) */
RFCORE_XREG_RFC_OBS_CTRL0 = tx_active;
RFCORE_XREG_RFC_OBS_CTRL1 = rx_active;
@ -123,6 +130,9 @@ void cc2538_init(void)
NVIC_SetPriority(RF_ERR_ALT_IRQn, RADIO_IRQ_PRIO);
NVIC_EnableIRQ(RF_ERR_ALT_IRQn);
NVIC_SetPriority(MAC_TIMER_ALT_IRQn, RADIO_IRQ_PRIO);
NVIC_EnableIRQ(MAC_TIMER_ALT_IRQn);
}
else {
NVIC_SetPriority(RF_RXTX_IRQn, RADIO_IRQ_PRIO);
@ -130,14 +140,25 @@ void cc2538_init(void)
NVIC_SetPriority(RF_ERR_IRQn, RADIO_IRQ_PRIO);
NVIC_EnableIRQ(RF_ERR_IRQn);
NVIC_SetPriority(MACTIMER_IRQn, RADIO_IRQ_PRIO);
NVIC_EnableIRQ(MACTIMER_IRQn);
}
RFCORE_SFR_MTMSEL &= ~CC2538_SFR_MTMSEL_MASK;
/* Select timer period */
RFCORE_SFR_MTMSEL |= CC2538_SFR_MTMSEL_TIMER_P;
/* Fix timer to Backoff period */
RFCORE_SFR_MTM0 |= TIMER_PERIOD_LSB;
RFCORE_SFR_MTM1 |= TIMER_PERIOD_MSB;
RFCORE_SFR_MTMSEL &= ~CC2538_SFR_MTMSEL_MASK;
RFCORE_SFR_MTCTRL |= CC2538_MCTRL_SYNC_MASK | CC2538_MCTRL_RUN_MASK;
/* Flush the receive and transmit FIFOs */
RFCORE_SFR_RFST = ISFLUSHTX;
RFCORE_SFR_RFST = ISFLUSHRX;
/* Disable/filter l2 Acks */
RFCORE_XREG_FRMFILT1 &= ~CC2538_ACCEPT_FT_2_ACK;
cc2538_on();
}
bool cc2538_is_on(void)
@ -177,4 +198,9 @@ void cc2538_setup(cc2538_rf_t *dev)
netdev->driver = &cc2538_rf_driver;
cc2538_init();
cc2538_set_tx_power(CC2538_RF_POWER_DEFAULT);
cc2538_set_chan(CC2538_RF_CHANNEL_DEFAULT);
cc2538_set_addr_long(cc2538_get_eui64_primary());
cc2538_on();
}

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@ -64,9 +64,6 @@ void isr_rfcoreerr(void)
void isr_rfcorerxtx(void)
{
RFCORE_SFR_RFIRQF0 = 0;
RFCORE_SFR_RFIRQF1 = 0;
_irq_handler();
cortexm_isr_end();

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@ -31,11 +31,16 @@
#define ENABLE_DEBUG (0)
#include "debug.h"
#if !IS_USED(MODULE_IEEE802154_RADIO_HAL)
/* Reference pointer for the IRQ handler */
static netdev_t *_dev;
void _irq_handler(void)
{
RFCORE_SFR_RFIRQF0 = 0;
RFCORE_SFR_RFIRQF1 = 0;
netdev_trigger_event_isr(_dev);
}
@ -417,3 +422,6 @@ const netdev_driver_t cc2538_rf_driver = {
.isr = _isr,
.init = _init,
};
#else
int dont_be_pedantic;
#endif /* MODULE_IEEE802154_RADIO_HAL */

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@ -0,0 +1,492 @@
#include <errno.h>
#include <stdio.h>
#include "net/gnrc.h"
#include "cc2538_rf.h"
#include "cc2538_rf_internal.h"
#include "net/ieee802154/radio.h"
#if IS_USED(MODULE_IEEE802154_RADIO_HAL)
static const ieee802154_radio_ops_t cc2538_rf_ops;
ieee802154_dev_t cc2538_rf_dev = {
.driver = &cc2538_rf_ops,
};
static uint8_t cc2538_min_be = CONFIG_IEEE802154_DEFAULT_CSMA_CA_MIN_BE;
static uint8_t cc2538_max_be = CONFIG_IEEE802154_DEFAULT_CSMA_CA_MAX_BE;
static int cc2538_csma_ca_retries = CONFIG_IEEE802154_DEFAULT_CSMA_CA_RETRIES;
static bool cc2538_cca_status; /**< status of the last CCA request */
static bool cc2538_cca; /**< used to check wether the last CCA result
corresponds to a CCA request or send with
CSMA-CA */
static int _write(ieee802154_dev_t *dev, const iolist_t *iolist)
{
(void) dev;
int pkt_len = 0;
RFCORE_SFR_RFST = ISFLUSHTX;
rfcore_write_byte(0);
for (const iolist_t *iol = iolist; iol; iol = iol->iol_next) {
if (iol->iol_len) {
pkt_len += iol->iol_len;
rfcore_write_fifo(iol->iol_base, iol->iol_len);
}
}
/* Set first byte of TX FIFO to the packet length */
rfcore_poke_tx_fifo(0, pkt_len + CC2538_AUTOCRC_LEN);
return 0;
}
static int _confirm_transmit(ieee802154_dev_t *dev, ieee802154_tx_info_t *info)
{
(void) dev;
if (RFCORE->XREG_FSMSTAT1bits.TX_ACTIVE != 0 || !(RFCORE_XREG_CSPCTRL & CC2538_CSP_MCU_CTRL_MASK)) {
return -EAGAIN;
}
if (info) {
if (cc2538_csma_ca_retries >= 0 && RFCORE_XREG_CSPZ == 0) {
info->status = TX_STATUS_MEDIUM_BUSY;
}
else {
info->status = TX_STATUS_SUCCESS;
}
}
return 0;
}
static int _request_transmit(ieee802154_dev_t *dev)
{
(void) dev;
if (cc2538_csma_ca_retries < 0) {
RFCORE_SFR_RFST = ISTXON;
}
else {
cc2538_cca = false;
RFCORE_SFR_RFST = ISRXON;
/* Clear last program */
RFCORE_SFR_RFST = ISCLEAR;
/* If the RSSI is not yet valid, skip 0 instructions. This creates
* a busy loop until the RSSI is valid. */
RFCORE_SFR_RFST = SKIP_S_C
| CC2538_CSP_SKIP_N_MASK
| CC2538_CSP_SKIP_COND_RSSI;
/* Set a label right before the backoff */
RFCORE_SFR_RFST = LABEL;
/* Load a random number with "register Y" LSBs into register X.
* This is equivalent to choosing a random number between
* (0, 2^(Y+1)).
* Then, wait "register X" number of backoff units */
RFCORE_SFR_RFST = RANDXY;
RFCORE_SFR_RFST = WAITX;
/* If CCA is not valid, skip the next stop instruction. In such case
* the CSP_STOP interrupt will trigger the transmission since the
* channel is clear */
RFCORE_SFR_RFST = SKIP_S_C
| (1 << CC2538_CSP_SKIP_INST_POS)
| CC2538_CSP_SKIP_N_MASK
| CC2538_CSP_SKIP_COND_CCA;
RFCORE_SFR_RFST = STOP;
/* If we are here, the channel was not clear. Decrement the register Z
* (remaining attempts) */
RFCORE_SFR_RFST = DECZ;
/* Update the backoff exponent */
RFCORE_SFR_RFST = INCMAXY | (cc2538_max_be & CC2538_CSP_INCMAXY_MAX_MASK);
/* If the are CSMA-CA retries left, go back to the defined label */
RFCORE_SFR_RFST = RPT_C
| CC2538_CSP_SKIP_N_MASK
| CC2538_CSP_SKIP_COND_CSPZ;
/* Stop the program. The CSP_STOP interrupt will trigger the routine
* to inform the upper layer that CSMA-CA failed. */
RFCORE_SFR_RFST = STOP;
RFCORE_XREG_CSPX = 0; /* Holds timer value */
RFCORE_XREG_CSPY = cc2538_min_be; /* Holds MinBE */
assert(cc2538_csma_ca_retries >= 0);
RFCORE_XREG_CSPZ = cc2538_csma_ca_retries + 1; /* Holds CSMA-CA attempts (retries + 1) */
RFCORE_XREG_CSPCTRL &= ~CC2538_CSP_MCU_CTRL_MASK;
/* Execute the program */
RFCORE_SFR_RFST = ISSTART;
}
return 0;
}
static int _len(ieee802154_dev_t *dev)
{
(void) dev;
return rfcore_peek_rx_fifo(0) - IEEE802154_FCS_LEN;
}
static int _indication_rx(ieee802154_dev_t *dev, void *buf, size_t size, ieee802154_rx_info_t *info)
{
(void) dev;
int res;
size_t pkt_len = rfcore_read_byte();
pkt_len -= IEEE802154_FCS_LEN;
if (pkt_len > size) {
RFCORE_SFR_RFST = ISFLUSHRX;
return -ENOBUFS;
}
if (buf != NULL) {
rfcore_read_fifo(buf, pkt_len);
res = pkt_len;
if (info != NULL) {
uint8_t corr_val;
int8_t rssi_val;
rssi_val = rfcore_read_byte();
/* The number of dB above maximum sensitivity detected for the
* received packet */
info->rssi = -CC2538_RSSI_OFFSET + rssi_val + IEEE802154_RADIO_RSSI_OFFSET;
corr_val = rfcore_read_byte() & CC2538_CORR_VAL_MASK;
if (corr_val < CC2538_CORR_VAL_MIN) {
corr_val = CC2538_CORR_VAL_MIN;
}
else if (corr_val > CC2538_CORR_VAL_MAX) {
corr_val = CC2538_CORR_VAL_MAX;
}
/* Interpolate the correlation value between 0 - 255
* to provide an LQI value */
info->lqi = 255 * (corr_val - CC2538_CORR_VAL_MIN) /
(CC2538_CORR_VAL_MAX - CC2538_CORR_VAL_MIN);
}
}
else {
res = 0;
}
RFCORE_SFR_RFST = ISFLUSHRX;
return res;
}
static int _confirm_cca(ieee802154_dev_t *dev)
{
(void) dev;
RFCORE_XREG_RFIRQM0 |= RXPKTDONE;
return cc2538_cca_status;
}
static int _request_cca(ieee802154_dev_t *dev)
{
(void) dev;
if (!RFCORE->XREG_FSMSTAT1bits.RX_ACTIVE) {
return -EINVAL;
}
/* Ignore baseband processing */
RFCORE_XREG_RFIRQM0 &= ~RXPKTDONE;
cc2538_cca = true;
RFCORE_SFR_RFST = ISCLEAR;
RFCORE_SFR_RFST = STOP;
RFCORE_XREG_CSPCTRL &= ~CC2538_CSP_MCU_CTRL_MASK;
/* Execute the last program */
RFCORE_SFR_RFST = ISSTART;
return 0;
}
static int _set_cca_threshold(ieee802154_dev_t *dev, int8_t threshold)
{
(void) dev;
(void) threshold;
if (threshold < CC2538_RF_SENSITIVITY) {
return -EINVAL;
}
RFCORE_XREG_CCACTRL0 &= ~CC2538_CCA_THR_MASK;
RFCORE_XREG_CCACTRL0 |= (threshold - CC2538_RSSI_OFFSET) & CC2538_CCA_THR_MASK;
return 0;
}
static int _config_phy(ieee802154_dev_t *dev, ieee802154_phy_conf_t *conf)
{
(void) dev;
int8_t pow = conf->pow;
if (pow < OUTPUT_POWER_MIN || pow > OUTPUT_POWER_MAX) {
return -EINVAL;
}
uint8_t channel = conf->channel;
cc2538_set_freq(IEEE802154_CHAN2FREQ(channel));
cc2538_set_tx_power(pow);
return 0;
}
static int _confirm_set_trx_state(ieee802154_dev_t *dev)
{
(void) dev;
if (RFCORE->XREG_FSMSTAT0bits.FSM_FFCTRL_STATE == FSM_STATE_RX_CALIBRATION) {
return -EAGAIN;
}
return 0;
}
static int _request_set_trx_state(ieee802154_dev_t *dev, ieee802154_trx_state_t state)
{
(void) dev;
bool wait_sfd = RFCORE->XREG_FSMSTAT0bits.FSM_FFCTRL_STATE >= CC2538_STATE_SFD_WAIT_RANGE_MIN
&& RFCORE->XREG_FSMSTAT0bits.FSM_FFCTRL_STATE <= CC2538_STATE_SFD_WAIT_RANGE_MAX;
if ((RFCORE->XREG_FSMSTAT1bits.RX_ACTIVE && !wait_sfd) ||
RFCORE->XREG_FSMSTAT1bits.TX_ACTIVE) {
return -EBUSY;
}
switch(state) {
case IEEE802154_TRX_STATE_TRX_OFF:
case IEEE802154_TRX_STATE_TX_ON:
if (RFCORE->XREG_FSMSTAT0bits.FSM_FFCTRL_STATE != FSM_STATE_IDLE) {
RFCORE_SFR_RFST = ISRFOFF;
}
break;
case IEEE802154_TRX_STATE_RX_ON:
RFCORE_XREG_RFIRQM0 |= RXPKTDONE;
RFCORE_SFR_RFST = ISRXON;
break;
}
return 0;
}
void _irq_handler(void)
{
uint_fast8_t flags_f0 = RFCORE_SFR_RFIRQF0;
uint_fast8_t flags_f1 = RFCORE_SFR_RFIRQF1;
RFCORE_SFR_RFIRQF0 = 0;
RFCORE_SFR_RFIRQF1 = 0;
if (flags_f1 & TXDONE) {
cc2538_rf_dev.cb(&cc2538_rf_dev, IEEE802154_RADIO_CONFIRM_TX_DONE);
}
if (flags_f0 & RXPKTDONE) {
/* CRC check */
uint8_t pkt_len = rfcore_peek_rx_fifo(0);
if (rfcore_peek_rx_fifo(pkt_len) & CC2538_CRC_BIT_MASK) {
cc2538_rf_dev.cb(&cc2538_rf_dev, IEEE802154_RADIO_INDICATION_RX_DONE);
}
else {
/* CRC failed; discard packet */
RFCORE_SFR_RFST = ISFLUSHRX;
}
}
/* Check if the interrupt was triggered because the CSP finished its routine
* (CSMA-CA or CCA request)
*/
if (flags_f1 & CSP_STOP) {
RFCORE_XREG_CSPCTRL |= CC2538_CSP_MCU_CTRL_MASK;
if (!cc2538_cca) {
if (RFCORE_XREG_CSPZ > 0) {
RFCORE_XREG_RXMASKCLR = CC2538_RXENABLE_RXON_MASK;
RFCORE_SFR_RFST = ISTXON;
}
else {
cc2538_rf_dev.cb(&cc2538_rf_dev, IEEE802154_RADIO_CONFIRM_TX_DONE);
}
}
else {
cc2538_cca_status = BOOLEAN(RFCORE->XREG_FSMSTAT1bits.CCA) && RFCORE->XREG_RSSISTATbits.RSSI_VALID;
cc2538_rf_dev.cb(&cc2538_rf_dev, IEEE802154_RADIO_CONFIRM_CCA);
}
}
}
static int _off(ieee802154_dev_t *dev)
{
(void) dev;
return -ENOTSUP;
}
static bool _get_cap(ieee802154_dev_t *dev, ieee802154_rf_caps_t cap)
{
(void) dev;
switch(cap) {
case IEEE802154_CAP_24_GHZ:
case IEEE802154_CAP_IRQ_TX_DONE:
case IEEE802154_CAP_IRQ_CCA_DONE:
case IEEE802154_CAP_AUTO_CSMA:
return true;
default:
return false;
}
}
static int _set_hw_addr_filter(ieee802154_dev_t *dev, const network_uint16_t *short_addr,
const eui64_t *ext_addr, const uint16_t *pan_id)
{
(void) dev;
if (short_addr) {
RFCORE_FFSM_SHORT_ADDR0 = short_addr->u8[1];
RFCORE_FFSM_SHORT_ADDR1 = short_addr->u8[0];
}
if (ext_addr) {
RFCORE_FFSM_EXT_ADDR0 = ext_addr->uint8[7];
RFCORE_FFSM_EXT_ADDR1 = ext_addr->uint8[6];
RFCORE_FFSM_EXT_ADDR2 = ext_addr->uint8[5];
RFCORE_FFSM_EXT_ADDR3 = ext_addr->uint8[4];
RFCORE_FFSM_EXT_ADDR4 = ext_addr->uint8[3];
RFCORE_FFSM_EXT_ADDR5 = ext_addr->uint8[2];
RFCORE_FFSM_EXT_ADDR6 = ext_addr->uint8[1];
RFCORE_FFSM_EXT_ADDR7 = ext_addr->uint8[0];
}
if (pan_id) {
RFCORE_FFSM_PAN_ID0 = *pan_id;
RFCORE_FFSM_PAN_ID1 = (*pan_id) >> 8;
}
return 0;
}
static int _confirm_on(ieee802154_dev_t *dev)
{
(void) dev;
/* TODO */
return 0;
}
static int _request_on(ieee802154_dev_t *dev)
{
(void) dev;
/* TODO */
return 0;
}
static int _set_cca_mode(ieee802154_dev_t *dev, ieee802154_cca_mode_t mode)
{
(void) dev;
uint8_t tmp = 0;
switch (mode) {
case IEEE802154_CCA_MODE_ED_THRESHOLD:
tmp = 1;
break;
case IEEE802154_CCA_MODE_CARRIER_SENSING:
tmp = 2;
break;
case IEEE802154_CCA_MODE_ED_THRESH_AND_CS:
tmp = 3;
break;
case IEEE802154_CCA_MODE_ED_THRESH_OR_CS:
return -ENOTSUP;
}
RFCORE_XREG_CCACTRL1 &= CC2538_CCA_MODE_MASK;
RFCORE_XREG_CCACTRL1 |= (tmp << CC2538_CCA_MODE_POS);
return 0;
}
static int _set_rx_mode(ieee802154_dev_t *dev, ieee802154_rx_mode_t mode)
{
(void) dev;
bool promisc = false;
bool ack_filter = true;
switch (mode) {
case IEEE802154_RX_AACK_DISABLED:
RFCORE->XREG_FRMCTRL0bits.AUTOACK = 0;
break;
case IEEE802154_RX_AACK_ENABLED:
RFCORE->XREG_FRMCTRL0bits.AUTOACK = 1;
RFCORE_XREG_FRMCTRL1 &= ~CC2538_FRMCTRL1_PENDING_OR_MASK;
break;
case IEEE802154_RX_AACK_FRAME_PENDING:
RFCORE->XREG_FRMCTRL0bits.AUTOACK = 1;
RFCORE_XREG_FRMCTRL1 |= CC2538_FRMCTRL1_PENDING_OR_MASK;
break;
case IEEE802154_RX_PROMISC:
promisc = true;
break;
case IEEE802154_RX_WAIT_FOR_ACK:
ack_filter = false;
break;
}
if (ack_filter) {
RFCORE_XREG_FRMFILT1 &= ~CC2538_ACCEPT_FT_2_ACK;
}
else {
RFCORE_XREG_FRMFILT1 |= CC2538_ACCEPT_FT_2_ACK;
}
cc2538_set_monitor(promisc);
return 0;
}
static int _set_csma_params(ieee802154_dev_t *dev, ieee802154_csma_be_t *bd, int8_t retries)
{
(void) dev;
if (bd) {
cc2538_min_be = bd->min;
cc2538_max_be = bd->max;
}
cc2538_csma_ca_retries = retries;
return 0;
}
static const ieee802154_radio_ops_t cc2538_rf_ops = {
.write = _write,
.request_transmit = _request_transmit,
.confirm_transmit = _confirm_transmit,
.len = _len,
.indication_rx = _indication_rx,
.off = _off,
.request_on = _request_on,
.confirm_on = _confirm_on,
.request_set_trx_state = _request_set_trx_state,
.confirm_set_trx_state = _confirm_set_trx_state,
.request_cca = _request_cca,
.confirm_cca = _confirm_cca,
.get_cap = _get_cap,
.set_cca_threshold = _set_cca_threshold,
.set_cca_mode = _set_cca_mode,
.config_phy = _config_phy,
.set_hw_addr_filter = _set_hw_addr_filter,
.set_csma_params = _set_csma_params,
.set_rx_mode = _set_rx_mode,
};
#else
int dont_be_pedantic;
#endif

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@ -59,6 +59,7 @@ PSEUDOMODULES += gnrc_sock_check_reuse
PSEUDOMODULES += gnrc_txtsnd
PSEUDOMODULES += heap_cmd
PSEUDOMODULES += i2c_scan
PSEUDOMODULES += ieee802154_radio_hal
PSEUDOMODULES += ina3221_alerts
PSEUDOMODULES += l2filter_blacklist
PSEUDOMODULES += l2filter_whitelist

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@ -98,6 +98,13 @@ extern "C" {
#define IEEE802154G_FRAME_LEN_MAX (2047U) /**< maximum 802.15.4g-2012 frame length */
#define IEEE802154_ACK_FRAME_LEN (5U) /**< ACK frame length */
/**
* @brief value of measured power when RSSI is zero.
*
* This value is defined in the IEEE 802.15.4 standard
*/
#define IEEE802154_RADIO_RSSI_OFFSET (-174)
/**
* For the SUN PHYs, the value is 1 ms expressed in symbol periods, rounded
* up to the next integer number of symbol periods using the ceiling() function.
@ -196,6 +203,27 @@ extern const uint8_t ieee802154_addr_bcast[IEEE802154_ADDR_BCAST_LEN];
#endif
/** @} */
/**
* @brief IEEE802.15.4 default value for minimum backoff exponent
*/
#ifndef CONFIG_IEEE802154_DEFAULT_CSMA_CA_MIN_BE
#define CONFIG_IEEE802154_DEFAULT_CSMA_CA_MIN_BE (3U)
#endif
/**
* @brief IEEE802.15.4 default value for maximum number of CSMA-CA retries.
*/
#ifndef CONFIG_IEEE802154_DEFAULT_CSMA_CA_RETRIES
#define CONFIG_IEEE802154_DEFAULT_CSMA_CA_RETRIES (4U)
#endif
/**
* @brief IEEE802.15.4 default value for maximum backoff exponent
*/
#ifndef CONFIG_IEEE802154_DEFAULT_CSMA_CA_MAX_BE
#define CONFIG_IEEE802154_DEFAULT_CSMA_CA_MAX_BE (5U)
#endif
/**
* @brief Initializes an IEEE 802.15.4 MAC frame header in @p buf.
*

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@ -33,4 +33,16 @@ if KCONFIG_USEMODULE_IEEE802154
int "IEEE802.15.4 default TX power (in dBm)"
default 0
config IEEE802154_DEFAULT_CSMA_CA_MIN
int "IEEE802.15.4 default CSMA-CA minimum backoff exponent"
default 3
config IEEE802154_DEFAULT_CSMA_CA_RETRIES
int "IEEE802.15.4 default CSMA-CA maximum number of retries"
default 4
config IEEE802154_DEFAULT_CSMA_CA_MAX
int "IEEE802.15.4 default CSMA-CA maximum backoff exponent"
default 5
endif # KCONFIG_USEMODULE_IEEE802154

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@ -0,0 +1,31 @@
include ../Makefile.tests_common
BOARD_WHITELIST := cc2538dk \
omote \
openmote-b \
openmote-cc2538 \
remote-pa \
remote-reva \
remote-revb
DISABLE_MODULE += auto_init_at86rf2xx auto_init_nrf802154
USEMODULE += od
USEMODULE += luid
USEMODULE += ieee802154
USEMODULE += shell
USEMODULE += ps
USEMODULE += event_thread_highest
USEMODULE += event_callback
USEMODULE += xtimer
USEMODULE += ieee802154_radio_hal
CFLAGS += -DEVENT_THREAD_HIGHEST_STACKSIZE=1024
# define the driver to be used for selected boards
DRIVER := cc2538_rf
# include the selected driver
USEMODULE += $(DRIVER)
include $(RIOTBASE)/Makefile.include

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@ -0,0 +1,43 @@
/*
* Copyright (C) 2020 HAW Hamburg
*
* This file is subject to the terms and conditions of the GNU Lesser
* General Public License v2.1. See the file LICENSE in the top level
* directory for more details.
*/
/**
* @ingroup tests
* @{
*
* @file
* @brief Common header for ieee802154_hal tests.
*
* @author José I. Alamos <jose.alamos@haw-hamburg.de>
*/
#ifndef COMMON_H
#define COMMON_H
#include "net/ieee802154/radio.h"
#ifdef __cplusplus
extern "C" {
#endif
/**
* @brief Application-internal functions and variables for ieee802154_hal tests
* @internal
* @{
*/
void ieee802154_hal_test_init_devs(void);
ieee802154_dev_t *ieee802154_hal_test_get_dev(int id);
/**
* @}
*/
#ifdef __cplusplus
}
#endif
#endif /* COMMON_H */
/** @} */

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@ -0,0 +1,68 @@
/*
* Copyright (C) 2020 HAW Hamburg
*
* This file is subject to the terms and conditions of the GNU Lesser
* General Public License v2.1. See the file LICENSE in the top level
* directory for more details.
*/
/**
* @ingroup tests
* @{
*
* @file
* @brief Test application for ieee802154_hal
*
* @author José I. Alamos <jose.alamos@haw-hamburg.de>
*
* @}
*/
#include "assert.h"
#include "kernel_defines.h"
#include "net/ieee802154/radio.h"
#ifdef MODULE_CC2538_RF
#include "cc2538_rf.h"
#endif
#ifdef MODULE_CC2538_RF
extern ieee802154_dev_t cc2538_rf_dev;
#endif
#define RADIOS_NUMOF IS_USED(MODULE_CC2538_RF)
#if RADIOS_NUMOF == 0
#error "Radio is not supported"
#endif
static ieee802154_dev_t *_radios[RADIOS_NUMOF];
static void _register_radios(void)
{
int i=0;
#ifdef MODULE_CC2538_RF
_radios[i++] = &cc2538_rf_dev;
#endif
assert(i == RADIOS_NUMOF);
}
void ieee802154_hal_test_init_devs(void)
{
/* Register all radios */
_register_radios();
/* Call the init function of the device (this should be handled by
* `auto_init`) */
#ifdef MODULE_CC2538_RF
cc2538_init();
#endif
}
ieee802154_dev_t *ieee802154_hal_test_get_dev(int id)
{
assert(id < RADIOS_NUMOF);
return _radios[id];
}

656
tests/ieee802154_hal/main.c Normal file
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@ -0,0 +1,656 @@
/*
* Copyright (C) 2020 HAW Hamburg
*
* This file is subject to the terms and conditions of the GNU Lesser
* General Public License v2.1. See the file LICENSE in the top level
* directory for more details.
*/
/**
* @ingroup tests
* @{
*
* @file
* @brief Test application for IEEE 802.15.4 Radio HAL
*
* @author José I. Alamos <jose.alamos@haw-hamburg.de>
*
* @}
*/
#include <stdio.h>
#include "common.h"
#include "errno.h"
#include "event/thread.h"
#include "luid.h"
#include "net/ieee802154.h"
#include "net/ieee802154/radio.h"
#include "shell.h"
#include "shell_commands.h"
#include "xtimer.h"
#define SYMBOL_TIME (16U) /**< 16 us */
#define ACK_TIMEOUT_TIME (40 * SYMBOL_TIME)
#define RADIO_DEFAULT_ID (0U)
static inline void _set_trx_state(int state, bool verbose);
static uint8_t buffer[127];
static xtimer_t timer_ack;
static mutex_t lock;
static const char *str_states[3]= {"TRX_OFF", "RX", "TX"};
static ieee802154_rx_mode_t current_rx_mode;
static eui64_t ext_addr;
static network_uint16_t short_addr;
static uint8_t seq;
static void _print_packet(size_t size, uint8_t lqi, int16_t rssi)
{
if (buffer[0] & IEEE802154_FCF_TYPE_ACK && ((seq-1) == buffer[2])) {
printf("Received valid ACK with sqn %i\n", buffer[2]);
}
else {
puts("Packet received:");
for (unsigned i=0;i<size;i++) {
printf("%02x ", buffer[i]);
}
}
puts("");
printf("LQI: %i, RSSI: %i\n", (int) lqi, (int) rssi);
puts("");
}
static int print_addr(int argc, char **argv)
{
(void) argc;
(void) argv;
uint8_t *_p = (uint8_t*) &ext_addr;
for(int i=0;i<8;i++) {
printf("%02x", *_p++);
}
printf("\n");
return 0;
}
static void _ack_timeout(event_t *event)
{
(void) event;
ieee802154_dev_t *dev = ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID);
ieee802154_radio_set_rx_mode(dev, current_rx_mode);
}
static event_t _ack_timeout_ev = {
.handler = _ack_timeout,
};
void _timer_ack_handler(void *arg)
{
(void) arg;
event_post(EVENT_PRIO_HIGHEST, &_ack_timeout_ev);
}
static xtimer_t timer_ack = {
.callback = _timer_ack_handler,
};
void _rx_done_handler(event_t *event)
{
(void) event;
ieee802154_rx_info_t info;
/* Read packet from internal framebuffer
*
* NOTE: It's possible to call `ieee802154_radio_len` to retrieve the packet
* length. Since the buffer is fixed in this test, we don't use it
*/
int size = ieee802154_radio_indication_rx(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), buffer, 127, &info);
if (size > 0) {
/* Print packet while we wait for the state transition */
_print_packet(size, info.lqi, info.rssi);
}
}
static event_t _rx_done_event = {
.handler = _rx_done_handler,
};
/* Event Notification callback */
static void _hal_radio_cb(ieee802154_dev_t *dev, ieee802154_trx_ev_t status)
{
(void) dev;
switch(status) {
case IEEE802154_RADIO_CONFIRM_TX_DONE:
case IEEE802154_RADIO_CONFIRM_CCA:
mutex_unlock(&lock);
break;
case IEEE802154_RADIO_INDICATION_RX_DONE:
event_post(EVENT_PRIO_HIGHEST, &_rx_done_event);
break;
default:
break;
}
}
static void _tx_finish_handler(event_t *event)
{
ieee802154_tx_info_t tx_info;
(void) event;
/* The TX_DONE event indicates it's safe to call the confirm counterpart */
assert(ieee802154_radio_confirm_transmit(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), &tx_info) >= 0);
if (!ieee802154_radio_has_irq_ack_timeout(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID)) && !ieee802154_radio_has_frame_retrans(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
/* This is just to show how the MAC layer would handle ACKs... */
_set_trx_state(IEEE802154_TRX_STATE_RX_ON, false);
xtimer_set(&timer_ack, ACK_TIMEOUT_TIME);
}
switch (tx_info.status) {
case TX_STATUS_SUCCESS:
puts("Transmission succeeded");
break;
case TX_STATUS_FRAME_PENDING:
puts("Transmission succeeded and there's pending data");
break;
case TX_STATUS_MEDIUM_BUSY:
puts("Medium busy");
break;
case TX_STATUS_NO_ACK:
puts("No ACK");
break;
}
puts("");
if (ieee802154_radio_has_frame_retrans_info(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
printf("Retransmission attempts: %i\n", tx_info.retrans);
}
puts("");
}
static event_t _tx_finish_ev = {
.handler = _tx_finish_handler,
};
static void _send(iolist_t *pkt)
{
/* Request a state change to RX_ON */
ieee802154_radio_request_set_trx_state(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), IEEE802154_TRX_STATE_TX_ON);
/* Write the packet to the radio */
ieee802154_radio_write(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), pkt);
/* Block until the radio confirms the state change */
while(ieee802154_radio_confirm_set_trx_state(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID)) == -EAGAIN);
/* Trigger the transmit and wait for the mutex unlock (TX_DONE event) */
ieee802154_radio_request_transmit(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID));
ieee802154_radio_set_rx_mode(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), IEEE802154_RX_WAIT_FOR_ACK);
mutex_lock(&lock);
event_post(EVENT_PRIO_HIGHEST, &_tx_finish_ev);
}
static int _init(void)
{
ieee802154_hal_test_init_devs();
/* Set the Event Notification */
((ieee802154_dev_t*) ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))->cb = _hal_radio_cb;
/* Note that addresses are not kept in the radio. This assumes MAC layers
* already have a copy of the address */
luid_get_eui64(&ext_addr);
luid_get_short(&short_addr);
/* Since the device was already initialized, turn on the radio.
* The transceiver state will be "TRX_OFF" */
ieee802154_radio_request_on(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID));
while(ieee802154_radio_confirm_on(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID)) == -EAGAIN) {}
current_rx_mode = IEEE802154_RX_AACK_ENABLED;
ieee802154_radio_set_rx_mode(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), current_rx_mode);
uint16_t panid = CONFIG_IEEE802154_DEFAULT_PANID;
/* Set all IEEE addresses */
ieee802154_radio_set_hw_addr_filter(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), &short_addr, &ext_addr, &panid);
/* Set PHY configuration */
ieee802154_phy_conf_t conf = {.channel=CONFIG_IEEE802154_DEFAULT_CHANNEL, .page=CONFIG_IEEE802154_DEFAULT_SUBGHZ_PAGE, .pow=CONFIG_IEEE802154_DEFAULT_TXPOWER};
ieee802154_radio_config_phy(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), &conf);
/* Set the transceiver state to RX_ON in order to receive packets */
_set_trx_state(IEEE802154_TRX_STATE_RX_ON, false);
return 0;
}
uint8_t payload[] = "Lorem ipsum dolor sit amet, consectetur adipiscing elit. Etiam ornare lacinia mi elementum interdum ligula.";
static int send(uint8_t *dst, size_t dst_len,
size_t len)
{
uint8_t flags;
uint8_t mhr[IEEE802154_MAX_HDR_LEN];
int mhr_len;
le_uint16_t src_pan, dst_pan;
iolist_t iol_data = {
.iol_base = payload,
.iol_len = len,
.iol_next = NULL,
};
flags = IEEE802154_FCF_TYPE_DATA | IEEE802154_FCF_ACK_REQ;
src_pan = byteorder_btols(byteorder_htons(CONFIG_IEEE802154_DEFAULT_PANID));
dst_pan = byteorder_btols(byteorder_htons(CONFIG_IEEE802154_DEFAULT_PANID));
uint8_t src_len = IEEE802154_LONG_ADDRESS_LEN;
void *src = &ext_addr;
/* fill MAC header, seq should be set by device */
if ((mhr_len = ieee802154_set_frame_hdr(mhr, src, src_len,
dst, dst_len,
src_pan, dst_pan,
flags, seq++)) < 0) {
puts("txtsnd: Error preperaring frame");
return 1;
}
iolist_t iol_hdr = {
.iol_next = &iol_data,
.iol_base = mhr,
.iol_len = mhr_len,
};
_send(&iol_hdr);
return 0;
}
static inline int _dehex(char c, int default_)
{
if ('0' <= c && c <= '9') {
return c - '0';
}
else if ('A' <= c && c <= 'F') {
return c - 'A' + 10;
}
else if ('a' <= c && c <= 'f') {
return c - 'a' + 10;
}
else {
return default_;
}
}
static size_t _parse_addr(uint8_t *out, size_t out_len, const char *in)
{
const char *end_str = in;
uint8_t *out_end = out;
size_t count = 0;
int assert_cell = 1;
if (!in || !*in) {
return 0;
}
while (end_str[1]) {
++end_str;
}
while (end_str >= in) {
int a = 0, b = _dehex(*end_str--, -1);
if (b < 0) {
if (assert_cell) {
return 0;
}
else {
assert_cell = 1;
continue;
}
}
assert_cell = 0;
if (end_str >= in) {
a = _dehex(*end_str--, 0);
}
if (++count > out_len) {
return 0;
}
*out_end++ = (a << 4) | b;
}
if (assert_cell) {
return 0;
}
/* out is reversed */
while (out < --out_end) {
uint8_t tmp = *out_end;
*out_end = *out;
*out++ = tmp;
}
return count;
}
int _cca(int argc, char **argv)
{
(void) argc;
(void) argv;
ieee802154_radio_request_cca(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID));
mutex_lock(&lock);
int res = ieee802154_radio_confirm_cca(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID));
assert(res >= 0);
if (res > 0) {
puts("CLEAR");
}
else {
puts("BUSY");
}
return 0;
}
static inline void _set_trx_state(int state, bool verbose)
{
xtimer_ticks32_t a;
int res = ieee802154_radio_request_set_trx_state(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), state);
if (verbose) {
a = xtimer_now();
if(res != 0) {
printf("%i != 0 \n", res);
assert(false);
}
}
while ((res = ieee802154_radio_confirm_set_trx_state(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) == -EAGAIN) {}
if (verbose) {
if (res != 0) {
printf("%i != 0 \n", res);
assert(false);
}
uint32_t secs = xtimer_usec_from_ticks(xtimer_diff(xtimer_now(), a));
printf("\tTransition took %" PRIu32 " usecs\n", secs);
}
}
int _test_states(int argc, char **argv)
{
(void) argc;
(void) argv;
for (int i=0; i<3;i++) {
printf("Setting state to: %s\n", str_states[i]);
_set_trx_state(i, true);
for (int j=0; j<3; j++) {
if (i == j) {
continue;
}
printf("%s-> %s\n", str_states[i], str_states[j]);
_set_trx_state(j, true);
printf("%s-> %s\n", str_states[j], str_states[i]);
_set_trx_state(i, true);
}
puts("");
}
_set_trx_state(IEEE802154_TRX_STATE_RX_ON, true);
return 0;
}
int txtsnd(int argc, char **argv)
{
uint8_t addr[IEEE802154_LONG_ADDRESS_LEN];
size_t len;
size_t res;
if (argc != 3) {
puts("Usage: txtsnd <long_addr> <len>");
return 1;
}
res = _parse_addr(addr, sizeof(addr), argv[1]);
if (res == 0) {
puts("Usage: txtsnd <long_addr> <len>");
return 1;
}
len = atoi(argv[2]);
return send(addr, res, len);
}
static int rx_mode_cmd(int argc, char **argv)
{
ieee802154_rx_mode_t conf;
if (argc < 2) {
printf("Usage: %s <on|off|pend|promisc>", argv[0]);
return 1;
}
if (strcmp(argv[1], "pend") == 0) {
conf = IEEE802154_RX_AACK_FRAME_PENDING;
puts("ACK enabled with Frame Pending");
}
else if (strcmp(argv[1], "off") == 0) {
conf = IEEE802154_RX_AACK_DISABLED;
puts("ACK disabled");
}
else if (strcmp(argv[1], "promisc") == 0) {
conf = IEEE802154_RX_PROMISC;
puts("Promiscuous mode enabled");
}
else {
conf = IEEE802154_RX_AACK_ENABLED;
puts("ACK enabled");
}
current_rx_mode = conf;
ieee802154_radio_set_rx_mode(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID), conf);
return 0;
}
int config_phy(int argc, char **argv)
{
if (argc < 3) {
puts("Usage: config_phy <channel> <tx_pow>");
return 1;
}
uint8_t channel = atoi(argv[1]);
int8_t tx_pow = atoi(argv[2]);
if (channel < 11 || channel > 26) {
puts("Wrong channel configuration (11 <= channel <= 26).");
return 1;
}
ieee802154_dev_t *dev = ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID);
ieee802154_phy_conf_t conf = {.channel=channel, .page=0, .pow=tx_pow};
if (ieee802154_radio_config_phy(dev, &conf) < 0) {
puts("Channel or TX power settings not supported");
}
else {
puts("Success!");
}
/* Set the transceiver state to RX_ON in order to receive packets */
_set_trx_state(IEEE802154_TRX_STATE_RX_ON, false);
return 0;
}
int txmode_cmd(int argc, char **argv)
{
ieee802154_dev_t *dev = ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID);
if (argc < 2) {
printf("Usage: %s <csma_ca|cca|direct>\n", argv[0]);
return 1;
}
ieee802154_csma_be_t csma_conf = {.min = 3, .max = 5};
int retries;
if (strcmp(argv[1], "direct") == 0) {
retries = -1;
}
else if (strcmp(argv[1], "cca") == 0) {
retries = 0;
}
else {
retries = 4;
}
if (ieee802154_radio_set_csma_params(dev, &csma_conf, retries) < 0) {
puts("Not supported");
}
else {
puts("Ok");
}
return 0;
}
static int _config_cca_cmd(int argc, char **argv)
{
ieee802154_dev_t *dev = ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID);
ieee802154_cca_mode_t mode;
if (argc < 2) {
printf("Usage: %s <ed|cs|or|and> [ED threshold]\n", argv[0]);
return 1;
}
if (strcmp(argv[1], "ed") == 0) {
mode = IEEE802154_CCA_MODE_ED_THRESHOLD;
}
else if (strcmp(argv[1], "cs") == 0) {
mode = IEEE802154_CCA_MODE_CARRIER_SENSING;
}
else if (strcmp(argv[1], "or") == 0) {
mode = IEEE802154_CCA_MODE_ED_THRESH_OR_CS;
}
else {
mode = IEEE802154_CCA_MODE_ED_THRESH_AND_CS;
}
if (ieee802154_radio_set_cca_mode(dev, mode) == -ENOTSUP) {
puts("CCA mode not supported.");
return 1;
}
puts("CCA mode set.");
if (argc > 2) {
int8_t thresh = atoi(argv[2]);
if (ieee802154_radio_set_cca_threshold(dev, thresh) < 0) {
puts("Error setting the threshold");
return 1;
}
else {
printf("Set threshold to %i\n", thresh);
}
}
return 0;
}
static int _caps_cmd(int argc, char **argv)
{
(void) argc;
(void) argv;
bool has_frame_retrans = false;
bool has_auto_csma = false;
bool has_24_ghz = false;
bool has_sub_ghz = false;
bool has_irq_tx_done = false;
bool has_irq_rx_start = false;
bool has_irq_ack_timeout = false;
bool has_irq_cca_done = false;
bool has_frame_retrans_info = false;
if (ieee802154_radio_has_frame_retrans(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_frame_retrans = true;
}
if (ieee802154_radio_has_auto_csma(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_auto_csma = true;
}
if (ieee802154_radio_has_24_ghz(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_24_ghz = true;
}
if (ieee802154_radio_has_sub_ghz(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_sub_ghz = true;
}
if (ieee802154_radio_has_irq_tx_done(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_irq_tx_done = true;
}
if (ieee802154_radio_has_irq_rx_start(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_irq_rx_start = true;
}
if (ieee802154_radio_has_irq_ack_timeout(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_irq_ack_timeout = true;
}
if (ieee802154_radio_has_irq_cca_done(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_irq_cca_done = true;
}
if (ieee802154_radio_has_frame_retrans_info(ieee802154_hal_test_get_dev(RADIO_DEFAULT_ID))) {
has_frame_retrans_info = true;
}
puts(" CAPS ");
puts("=================================");
printf("- Frame Retransmissions: %s\n", has_frame_retrans ? "y" : "n");
printf(" * Info retries: %s\n", has_frame_retrans_info ? "y" : "n");
printf("- Auto CSMA-CA: %s\n", has_auto_csma ? "y" : "n");
printf("- 2.4 GHz band: %s\n", has_24_ghz ? "y" : "n");
printf("- SubGHz band: %s\n", has_sub_ghz ? "y" : "n");
printf("- TX DONE indication: %s\n", has_irq_tx_done ? "y" : "n");
printf(" * ACK Timeout indication: %s\n", has_irq_ack_timeout ? "y" : "n");
printf("- RX_START indication: %s\n", has_irq_rx_start ? "y" : "n");
printf("- CCA Done indication: %s\n", has_irq_cca_done ? "y" : "n");
return 0;
}
static const shell_command_t shell_commands[] = {
{ "config_phy", "Set channel and TX power", config_phy},
{ "print_addr", "Print IEEE802.15.4 addresses", print_addr},
{ "txtsnd", "Send IEEE 802.15.4 packet", txtsnd },
{ "test_states", "Test state changes", _test_states },
{ "cca", "Perform CCA", _cca },
{ "config_cca", "Config CCA parameters", _config_cca_cmd },
{ "rx_mode", "Enable/Disable AACK or set Frame Pending bit or set promiscuos mode", rx_mode_cmd },
{ "tx_mode", "Enable CSMA-CA, CCA or direct transmission", txmode_cmd },
{ "caps", "Get a list of caps supported by the device", _caps_cmd },
{ NULL, NULL, NULL }
};
int main(void)
{
mutex_init(&lock);
mutex_lock(&lock);
_init();
/* start the shell */
puts("Initialization successful - starting the shell now");
char line_buf[SHELL_DEFAULT_BUFSIZE];
shell_run(shell_commands, line_buf, SHELL_DEFAULT_BUFSIZE);
return 0;
}