/**
* @brief Callback that is called if data has been received by trx.
*
* @param rx_frame_array Pointer to data array containing received frame
*/
void tal_rx_frame_cb(uint8_t *rx_frame_array)
{
uint8_t rx_payload_len = rx_frame_array[0] - FRAME_OVERHEAD;
uint8_t *rx_payload_ptr = rx_frame_array + FRAME_OVERHEAD + LENGTH_FIELD_LEN - FCS_LEN;
uint8_t sio_len_rx;
/* Print received data to terminal program. */
bool sio_ongoing = true;
do
{
sio_len_rx = pal_sio_tx(SIO_CHANNEL, rx_payload_ptr, rx_payload_len);
if (sio_len_rx < rx_payload_len)
{
rx_payload_len -= sio_len_rx;
rx_payload_ptr += sio_len_rx;
pal_task();
}
else
{
sio_ongoing = false;
}
} while (sio_ongoing);
pal_led(LED_DATA_RX, LED_TOGGLE); // indicating data recption
}
/**
* \brief Main function of the Performance Analyzer application
* \ingroup group_app_init
*/
int main(void)
{
irq_initialize_vectors();
/* Initialize the board.
* The board-specific conf_board.h file contains the configuration of
* the board initialization.
*/
board_init();
sysclk_init();
/*
* Power ON - so set the board to INIT state. All hardware, PAL, TAL and
* stack level initialization must be done using this function
*/
set_main_state(INIT, NULL);
cpu_irq_enable();
sio2host_init();
/* INIT was a success - so change to WAIT_FOR_EVENT state */
set_main_state(WAIT_FOR_EVENT, NULL);
/* Endless while loop */
while (1)
{
pal_task(); /* Handle platform specific tasks, like serial interface */
tal_task(); /* Handle transceiver specific tasks */
app_task(); /* Application task */
serial_data_handler();
}
}
bool wpan_task(void)
{
bool event_processed;
uint8_t *event = NULL;
/* mac_task returns true if a request was processed completely */
event_processed = mac_task();
/*
* MAC to NHLE event queue should be dispatched
* irrespective of the dispatcher state.
*/
event = (uint8_t *)qmm_queue_remove(&mac_nhle_q, NULL);
/* If an event has been detected, handle it. */
if (NULL != event) {
dispatch_event(event);
event_processed = true;
}
#ifdef ENABLE_RTB
rtb_task();
#endif /* ENABLE_RTB */
tal_task();
pal_task();
return (event_processed);
}
/**
* @brief Main function of the Wireless UART application
*/
int main(void)
{
/* Initialize the TAL layer */
if (tal_init() != MAC_SUCCESS)
{
// something went wrong during initialization
pal_alert();
}
/* Calibrate MCU's RC oscillator */
pal_calibrate_rc_osc();
/* Initialize LEDs */
pal_led_init();
pal_led(LED_START, LED_ON); // indicating application is started
pal_led(LED_DATA_RX, LED_OFF); // indicating data reception
pal_led(LED_DATA_TX, LED_OFF); // indicating successfull data transmission
/*
* The stack is initialized above, hence the global interrupts are enabled
* here.
*/
pal_global_irq_enable();
/* Initialize the serial interface used for communication with terminal program */
if (pal_sio_init(SIO_CHANNEL) != MAC_SUCCESS)
{
// something went wrong during initialization
pal_alert();
}
/* Configure TX frame and transceiver */
configure_frame_sending();
/* Switch receiver on */
tal_rx_enable(PHY_RX_ON);
#if(SEND_BLOCKWISE==true)
start_timer();
#endif
/* Endless while loop */
while (1)
{
pal_task(); /* Handle platform specific tasks, like serial interface */
tal_task(); /* Handle transceiver specific tasks */
#if(!(SEND_BLOCKWISE==true))
app_task(); /* Application task */
#endif
}
}
/**
* @brief Main function of the Sniffer application
*/
int main(void)
{
/* Initialize the TAL layer */
if (tal_init() != MAC_SUCCESS)
{
/* something went wrong during initialization*/
pal_alert();
}
/* Calibrate MCU's RC oscillator */
pal_calibrate_rc_osc();
/* Initialize LEDs */
pal_led_init();
/*
* The stack is initialized above, hence the global interrupts are enabled
* here.
*/
pal_global_irq_enable();
/* Initialize the serial interface used for communication with sniffer
GUI */
if (pal_sio_init(SIO_CHANNEL) != MAC_SUCCESS)
{
/* something went wrong during initialization */
pal_alert();
}
//sio_getchar();
Wireshark_Settings = INIT_STATE ;
/* Endless while loop */
while (1)
{
pal_task();
tal_task();
app_task();
}
}
/**
* @brief Callback that is called once tx is done.
*
* @param status Status of the transmission procedure
*/
void tal_tx_frame_done_cb(retval_t status)
{
if (status == MAC_SUCCESS)
{
uint8_t tx_payload_len = tx_buffer[0] - FRAME_OVERHEAD;
uint8_t *tx_payload_ptr = tx_buffer + FRAME_OVERHEAD + LENGTH_FIELD_LEN - FCS_LEN;
uint8_t sio_len_tx;
/* Print transmitted bytes to terminal program. */
bool sio_ongoing = true;
do
{
sio_len_tx = pal_sio_tx(SIO_CHANNEL, tx_payload_ptr, tx_payload_len);
if (sio_len_tx < tx_payload_len)
{
tx_payload_len -= sio_len_tx;
tx_payload_ptr += sio_len_tx;
pal_task();
}
else
{
sio_ongoing = false;
}
} while (sio_ongoing);
pal_led(LED_DATA_TX, LED_TOGGLE); // indicating successfull data transmission
/* After transmission is completed, allow next transmission. */
tx_state = TX_IDLE;
}
else if (status == MAC_CHANNEL_ACCESS_FAILURE)
/*
* Channel access failure is the only transmission failure that makes sense
* to be handled within this application. For handling other status codes,
* such as MAC_NO_ACK, this is probably the wrong application on the wrong layer.
* For absolutely reliable transmission, please use a MAC or TAL based
* application. The Tiny-TAL is not designed for such a purpose.
*
* In case of channel access failure the frame is retried.
*/
{
/* Transmission was not successful, initiate retry. */
tx_state = TX_RETRY;
//TODO: retry counter?
}
else
/*
* Other transmission status codes, such as MAC_NO_ACK are not handled
* within this application.
* The transmission is considered as beeing completed for this frame.
*/
{
tx_state = TX_IDLE;
#if(ALERT_ON_ERROR==true)
pal_alert();
#endif
}
}