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Cleaned up RF230BB, and refactored FRAME_RETRIES and CSMA_RETRIES 

#defines.
This commit is contained in:
Ivan Delamer 2012-09-04 11:12:18 -06:00
parent 2e72ec3594
commit b43dad00b0
8 changed files with 320 additions and 638 deletions
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148
cpu/avr/radio/rf230bb/hal.h
View File

@ -10,6 +10,7 @@
* Kevin Brown kbrown3@uccs.edu
* Nate Bohlmann nate@elfwerks.com
* David Kopf dak664@embarqmail.com
* Ivan Delamer delamer@ieee.com
*
* All rights reserved.
*
@ -60,10 +61,6 @@
#include "contiki-conf.h"
/*============================ MACROS ========================================*/
// TEST CODE
#define TRIG1 DDRB |= 0x04, PINB |= 0x04
#define TRIG2 DDRD |= 0x80, PIND |= 0x80
/** \name This is the list of pin configurations needed for a given platform.
* \brief Change these values to port to other platforms.
* \{
@ -97,10 +94,6 @@
# define IRQPIN (0x04)
# define SLPTRPORT B
# define SLPTRPIN (0x04)
# define USART 1
# define USARTVECT USART1_RX_vect
# define TICKTIMER 3
# define HAS_SPARE_TIMER
#elif PLATFORM_TYPE == ZIGBIT
/* 1281V Zigbit */
@ -116,12 +109,6 @@
# define IRQPIN (0x05)
# define SLPTRPORT B
# define SLPTRPIN (0x04)
# define TXCWPORT B
# define TXCWPIN (0x07)
# define USART 1
# define USARTVECT USART1_RX_vect
//# define TICKTIMER 3
//# define HAS_SPARE_TIMER // Not used
#elif PLATFORM_TYPE == RAVEN_D
@ -138,13 +125,6 @@
# define IRQPIN (0x06)
# define SLPTRPORT B
# define SLPTRPIN (0x03)
# define TXCWPORT B
# define TXCWPIN (0x00)
# define USART 1
# define USARTVECT USART1_RX_vect
# define TICKTIMER 3
# define HAS_CW_MODE
# define HAS_SPARE_TIMER
#elif PLATFORM_TYPE == RAVENUSB_C
/* 1287USB raven */
@ -160,23 +140,11 @@
# define IRQPIN (0x04)
# define SLPTRPORT B
# define SLPTRPIN (0x04)
# define TXCWPORT B
# define TXCWPIN (0x07)
# define USART 1
# define USARTVECT USART1_RX_vect
# define TICKTIMER 3
# define HAS_CW_MODE
# define HAS_SPARE_TIMER
#elif PLATFORM_TYPE == ATMEGA128RFA1
/* ATmega1281 with internal AT86RF231 radio */
# define SLPTRPORT TRXPR
# define SLPTRPIN 1
# define USART 1
# define USARTVECT USART1_RX_vect
# define TICKTIMER 3
# define HAS_CW_MODE
# define HAS_SPARE_TIMER
#elif CONTIKI_TARGET_MULLE
/* mulle 5.2 (TODO: move to platform specific) */
@ -194,7 +162,6 @@
# define IRQPIN 3
# define SLPTRPORT 0
# define SLPTRPIN 7
# define HAS_SPARE_TIMER
#elif PLATFORM_TYPE == IRIS
/* 1281 IRIS */
@ -210,12 +177,6 @@
# define IRQPIN (0x04)
# define SLPTRPORT B
# define SLPTRPIN (0x07)
//# define TXCWPORT B
//# define TXCWPIN (0x07)
# define USART 1
# define USARTVECT USART1_RX_vect
//# define TICKTIMER 3
//# define HAS_SPARE_TIMER // Not used
#else
#error "PLATFORM_TYPE undefined in hal.h"
@ -252,63 +213,17 @@
*/
#if defined(__AVR__)
#define CAT(x, y) x##y
#define CAT2(x, y, z) x##y##z
#define DDR(x) CAT(DDR, x)
#define PORT(x) CAT(PORT, x)
#define PIN(x) CAT(PIN, x)
#define UCSR(num, let) CAT2(UCSR,num,let)
#define RXEN(x) CAT(RXEN,x)
#define TXEN(x) CAT(TXEN,x)
#define TXC(x) CAT(TXC,x)
#define RXC(x) CAT(RXC,x)
#define RXCIE(x) CAT(RXCIE,x)
#define UCSZ(x,y) CAT2(UCSZ,x,y)
#define UBRR(x,y) CAT2(UBRR,x,y)
#define UDRE(x) CAT(UDRE,x)
#define UDRIE(x) CAT(UDRIE,x)
#define UDR(x) CAT(UDR,x)
#define TCNT(x) CAT(TCNT,x)
#define TIMSK(x) CAT(TIMSK,x)
#define TCCR(x,y) CAT2(TCCR,x,y)
#define COM(x,y) CAT2(COM,x,y)
#define OCR(x,y) CAT2(OCR,x,y)
#define CS(x,y) CAT2(CS,x,y)
#define WGM(x,y) CAT2(WGM,x,y)
#define OCIE(x,y) CAT2(OCIE,x,y)
#define COMPVECT(x) CAT2(TIMER,x,_COMPA_vect)
#define UDREVECT(x) CAT2(USART,x,_UDRE_vect)
#define RXVECT(x) CAT2(USART,x,_RX_vect)
#endif
/* TODO: Move to CPU specific */
#if defined(CONTIKI_TARGET_MULLE)
#define CAT(x, y) x##y.BYTE
#define CAT2(x, y, z) x##y##z.BYTE
#define DDR(x) CAT(PD, x)
#define PORT(x) CAT(P, x)
#define PIN(x) CAT(P, x)
#define UCSR(num, let) CAT2(UCSR,num,let)
#define RXEN(x) CAT(RXEN,x)
#define TXEN(x) CAT(TXEN,x)
#define TXC(x) CAT(TXC,x)
#define RXC(x) CAT(RXC,x)
#define RXCIE(x) CAT(RXCIE,x)
#define UCSZ(x,y) CAT2(UCSZ,x,y)
#define UBRR(x,y) CAT2(UBRR,x,y)
#define UDRE(x) CAT(UDRE,x)
#define UDRIE(x) CAT(UDRIE,x)
#define UDR(x) CAT(UDR,x)
#define TCNT(x) CAT(TCNT,x)
#define TIMSK(x) CAT(TIMSK,x)
#define TCCR(x,y) CAT2(TCCR,x,y)
#define COM(x,y) CAT2(COM,x,y)
#define OCR(x,y) CAT2(OCR,x,y)
#define CS(x,y) CAT2(CS,x,y)
#define WGM(x,y) CAT2(WGM,x,y)
#define OCIE(x,y) CAT2(OCIE,x,y)
#define COMPVECT(x) CAT2(TIMER,x,_COMPA_vect)
#define UDREVECT(x) CAT2(USART,x,_UDRE_vect)
#define RXVECT(x) CAT2(USART,x,_RX_vect)
#endif
/** \} */
@ -325,7 +240,6 @@
#define hal_set_rst_high( ) ( TRXPR |= ( 1 << TRXRST ) ) /**< This macro pulls the RST pin high. */
#define hal_set_slptr_high( ) ( TRXPR |= ( 1 << SLPTR ) ) /**< This macro pulls the SLP_TR pin high. */
#define hal_set_slptr_low( ) ( TRXPR &= ~( 1 << SLPTR ) ) /**< This macro pulls the SLP_TR pin low. */
//#define hal_get_slptr( ) ( ( TRXPR & ( 1 << SLPTR ) ) >> SLPTR ) /**< Read current state of the SLP_TR pin (High/Low). */
#define hal_get_slptr( ) ( TRXPR & ( 1 << SLPTR ) ) /**< Read current state of the SLP_TR pin (High/Low). */
#else
@ -335,7 +249,6 @@
#define PIN_SLP_TR PIN( SLPTRPORT ) /**< Pin (Read Access) where SLP_TR is connected. */
#define hal_set_slptr_high( ) ( PORT_SLP_TR |= ( 1 << SLP_TR ) ) /**< This macro pulls the SLP_TR pin high. */
#define hal_set_slptr_low( ) ( PORT_SLP_TR &= ~( 1 << SLP_TR ) ) /**< This macro pulls the SLP_TR pin low. */
//#define hal_get_slptr( ) ( ( PIN_SLP_TR & ( 1 << SLP_TR ) ) >> SLP_TR ) /**< Read current state of the SLP_TR pin (High/Low). */
#define hal_get_slptr( ) ( PIN_SLP_TR & ( 1 << SLP_TR ) ) /**< Read current state of the SLP_TR pin (High/Low). */
#define RST RSTPIN /**< Pin number that corresponds to the RST pin. */
#define DDR_RST DDR( RSTPORT ) /**< Data Direction Register that corresponds to the port where RST is */
@ -370,42 +283,7 @@
#define HAL_SS_HIGH( ) (HAL_PORT_SS |= ( 1 << HAL_SS_PIN )) /**< MACRO for pulling SS high. */
#define HAL_SS_LOW( ) (HAL_PORT_SS &= ~( 1 << HAL_SS_PIN )) /**< MACRO for pulling SS low. */
/** \brief Macros defined for HAL_TIMER1.
*
* These macros are used to define the correct setupt of the AVR's Timer1, and
* to ensure that the hal_get_system_time function returns the system time in
* symbols (16 us ticks).
*/
#if defined(__AVR__)
#if ( F_CPU == 16000000UL )
#define HAL_TCCR1B_CONFIG ( ( 1 << ICES1 ) | ( 1 << CS12 ) )
#define HAL_US_PER_SYMBOL ( 1 )
#define HAL_SYMBOL_MASK ( 0xFFFFffff )
#elif ( F_CPU == 0x800000UL )
#define HAL_TCCR1B_CONFIG ( ( 1 << ICES1 ) | ( 1 << CS11 ) | ( 1 << CS10 ) )
#define HAL_US_PER_SYMBOL ( 2 )
#define HAL_SYMBOL_MASK ( 0x7FFFffff )
#elif ( F_CPU == 8000000UL )
#define HAL_TCCR1B_CONFIG ( ( 1 << ICES1 ) | ( 1 << CS11 ) | ( 1 << CS10 ) )
#define HAL_US_PER_SYMBOL ( 2 )
#define HAL_SYMBOL_MASK ( 0x7FFFffff )
//#elif ( F_CPU == 7953408UL )
#elif ( F_CPU == 7954432UL )
#define HAL_TCCR1B_CONFIG ( ( 1 << ICES1 ) | ( 1 << CS11 ) | ( 1 << CS10 ) )
#define HAL_US_PER_SYMBOL ( 2 )
#define HAL_SYMBOL_MASK ( 0x7FFFffff )
#elif ( F_CPU == 4000000UL )
#define HAL_TCCR1B_CONFIG ( ( 1 << ICES1 ) | ( 1 << CS11 ) | ( 1 << CS10 ) )
#define HAL_US_PER_SYMBOL ( 1 )
#define HAL_SYMBOL_MASK ( 0xFFFFffff )
#elif ( F_CPU == 1000000UL )
#define HAL_TCCR1B_CONFIG ( ( 1 << ICES1 ) | ( 1 << CS11 ) )
#define HAL_US_PER_SYMBOL ( 2 )
#define HAL_SYMBOL_MASK ( 0x7FFFffff )
#else
#error "Clock speed not supported."
#endif
#if PLATFORM_TYPE == ZIGBIT
// IRQ E5 for Zigbit example
@ -485,32 +363,10 @@ typedef struct{
bool crc; /**< Flag - did CRC pass for received frame? */
} hal_rx_frame_t;
/** RX_START event handler callback type. Is called with timestamp in IEEE 802.15.4 symbols and frame length. See hal_set_rx_start_event_handler(). */
typedef void (*hal_rx_start_isr_event_handler_t)(uint32_t const isr_timestamp, uint8_t const frame_length);
/** RRX_END event handler callback type. Is called with timestamp in IEEE 802.15.4 symbols and frame length. See hal_set_trx_end_event_handler(). */
typedef void (*hal_trx_end_isr_event_handler_t)(uint32_t const isr_timestamp);
typedef void (*rx_callback_t) (uint16_t data);
/*============================ PROTOTYPES ====================================*/
void hal_init( void );
void hal_reset_flags( void );
uint8_t hal_get_bat_low_flag( void );
void hal_clear_bat_low_flag( void );
hal_trx_end_isr_event_handler_t hal_get_trx_end_event_handler( void );
void hal_set_trx_end_event_handler( hal_trx_end_isr_event_handler_t trx_end_callback_handle );
void hal_clear_trx_end_event_handler( void );
hal_rx_start_isr_event_handler_t hal_get_rx_start_event_handler( void );
void hal_set_rx_start_event_handler( hal_rx_start_isr_event_handler_t rx_start_callback_handle );
void hal_clear_rx_start_event_handler( void );
uint8_t hal_get_pll_lock_flag( void );
void hal_clear_pll_lock_flag( void );
/* Hack for atmega128rfa1 with integrated radio. Access registers directly, not through SPI */
#if defined(__AVR_ATmega128RFA1__)
//#define hal_register_read(address) _SFR_MEM8((uint16_t)address)
@ -534,8 +390,6 @@ void hal_subregister_write( uint8_t address, uint8_t mask, uint8_t position,
//void hal_frame_read(hal_rx_frame_t *rx_frame, rx_callback_t rx_callback);
/* For speed RF230BB does not use a callback */
void hal_frame_read(hal_rx_frame_t *rx_frame);
void hal_frame_write( uint8_t *write_buffer, uint8_t length );
void hal_sram_read( uint8_t address, uint8_t length, uint8_t *data );

395
cpu/avr/radio/rf230bb/halbb.c
View File

@ -10,6 +10,7 @@
* Kevin Brown kbrown3@uccs.edu
* Nate Bohlmann nate@elfwerks.com
* David Kopf dak664@embarqmail.com
* Ivan Delamer delamer@ieee.com
*
* All rights reserved.
*
@ -80,66 +81,18 @@ extern uint8_t debugflowsize,debugflow[DEBUGFLOWSIZE];
#endif
/*============================ VARIABLES =====================================*/
/** \brief This is a file internal variable that contains the 16 MSB of the
* system time.
*
* The system time (32-bit) is the current time in microseconds. For the
* AVR microcontroller implementation this is solved by using a 16-bit
* timer (Timer1) with a clock frequency of 1MHz. The hal_system_time is
* incremented when the 16-bit timer overflows, representing the 16 MSB.
* The timer value it self (TCNT1) is then the 16 LSB.
*
* \see hal_get_system_time
*/
static uint16_t hal_system_time = 0;
volatile extern signed char rf230_last_rssi;
//static uint8_t volatile hal_bat_low_flag;
//static uint8_t volatile hal_pll_lock_flag;
volatile extern signed char rf230_last_rssi;
/*============================ CALLBACKS =====================================*/
/** \brief This function is called when a rx_start interrupt is signaled.
*
* If this function pointer is set to something else than NULL, it will
* be called when a RX_START event is signaled. The function takes two
* parameters: timestamp in IEEE 802.15.4 symbols (16 us resolution) and
* frame length. The event handler will be called in the interrupt domain,
* so the function must be kept short and not be blocking! Otherwise the
* system performance will be greatly degraded.
*
* \see hal_set_rx_start_event_handler
*/
//static hal_rx_start_isr_event_handler_t rx_start_callback;
/** \brief This function is called when a trx_end interrupt is signaled.
*
* If this function pointer is set to something else than NULL, it will
* be called when a TRX_END event is signaled. The function takes one
* parameter: timestamp in IEEE 802.15.4 symbols (16 us resolution).
* The event handler will be called in the interrupt domain,
* so the function must not block!
*
* \see hal_set_trx_end_event_handler
*/
//static hal_trx_end_isr_event_handler_t trx_end_callback;
/*============================ IMPLEMENTATION ================================*/
#if defined(__AVR_ATmega128RFA1__)
//#include <avr/io.h>
#include <avr/interrupt.h>
/* AVR1281 with internal RF231 radio */
#define HAL_SPI_TRANSFER_OPEN()
//#define HAL_SPI_TRANSFER_WRITE(to_write) (SPDR = (to_write))
#define HAL_SPI_TRANSFER_WAIT()
#define HAL_SPI_TRANSFER_READ() (SPDR)
#define HAL_SPI_TRANSFER_CLOSE()
#if 0
#define HAL_SPI_TRANSFER(to_write) ( \
HAL_SPI_TRANSFER_WRITE(to_write), \
HAL_SPI_TRANSFER_WAIT(), \
HAL_SPI_TRANSFER_READ() )
#endif
#include <avr/interrupt.h>
#elif defined(__AVR__)
/*
* AVR with hardware SPI tranfers (TODO: move to hw spi hal for avr cpu)
@ -206,30 +159,22 @@ inline uint8_t spiWrite(uint8_t byte)
/** \brief This function initializes the Hardware Abstraction Layer.
*/
#if defined(__AVR_ATmega128RFA1__)
//#define HAL_RF230_ISR() ISR(RADIO_VECT)
#define HAL_TIME_ISR() ISR(TIMER1_OVF_vect)
#define HAL_TICK_UPCNT() (TCNT1)
void
hal_init(void)
{
/*Reset variables used in file.*/
hal_system_time = 0;
// TCCR1B = HAL_TCCR1B_CONFIG; /* Set clock prescaler */
// TIFR1 |= (1 << ICF1); /* Clear Input Capture Flag. */
// HAL_ENABLE_OVERFLOW_INTERRUPT(); /* Enable Timer1 overflow interrupt. */
//hal_enable_trx_interrupt(); /* NOT USED: Enable interrupt pin from the radio transceiver. */
/* (none at the moment) */
}
#elif defined(__AVR__)
#define HAL_RF230_ISR() ISR(RADIO_VECT)
#define HAL_TIME_ISR() ISR(TIMER1_OVF_vect)
#define HAL_TICK_UPCNT() (TCNT1)
void
hal_init(void)
{
/*Reset variables used in file.*/
hal_system_time = 0;
// hal_reset_flags();
/*IO Specific Initialization - sleep and reset pins. */
/* Set pins low before they are initialized as output? Does not seem to matter */
@ -249,11 +194,8 @@ hal_init(void)
SPCR = (1 << SPE) | (1 << MSTR); /* Enable SPI module and master operation. */
SPSR = (1 << SPI2X); /* Enable doubled SPI speed in master mode. */
/*TIMER1 Specific Initialization.*/
TCCR1B = HAL_TCCR1B_CONFIG; /* Set clock prescaler */
TIFR1 |= (1 << ICF1); /* Clear Input Capture Flag. */
HAL_ENABLE_OVERFLOW_INTERRUPT(); /* Enable Timer1 overflow interrupt. */
hal_enable_trx_interrupt(); /* Enable interrupts from the radio transceiver. */
/* Enable interrupts from the radio transceiver. */
hal_enable_trx_interrupt();
}
#else /* __AVR__ */
@ -266,8 +208,6 @@ void
hal_init(void)
{
/*Reset variables used in file.*/
hal_system_time = 0;
// hal_reset_flags();
/*IO Specific Initialization - sleep and reset pins. */
DDR_SLP_TR |= (1 << SLP_TR); /* Enable SLP_TR as output. */
@ -295,144 +235,12 @@ hal_init(void)
TBSR.BIT.TB4S = 1; // Start Timer B4
INT1IC.BIT.POL = 1; // Select rising edge
HAL_ENABLE_OVERFLOW_INTERRUPT(); /* Enable Timer overflow interrupt. */
hal_enable_trx_interrupt(); /* Enable interrupts from the radio transceiver. */
/* Enable interrupts from the radio transceiver. */
hal_enable_trx_interrupt();
}
#endif /* !__AVR__ */
/*----------------------------------------------------------------------------*/
/** \brief This function reset the interrupt flags and interrupt event handlers
* (Callbacks) to their default value.
*/
//void
//hal_reset_flags(void)
//{
// HAL_ENTER_CRITICAL_REGION();
/* Reset Flags. */
// hal_bat_low_flag = 0;
// hal_pll_lock_flag = 0;
/* Reset Associated Event Handlers. */
// rx_start_callback = NULL;
// trx_end_callback = NULL;
// HAL_LEAVE_CRITICAL_REGION();
//}
/*----------------------------------------------------------------------------*/
/** \brief This function returns the current value of the BAT_LOW flag.
*
* The BAT_LOW flag is incremented each time a BAT_LOW event is signaled from the
* radio transceiver. This way it is possible for the end user to poll the flag
* for new event occurances.
*/
//uint8_t
//hal_get_bat_low_flag(void)
//{
// return hal_bat_low_flag;
//}
/*----------------------------------------------------------------------------*/
/** \brief This function clears the BAT_LOW flag.
*/
//void
//hal_clear_bat_low_flag(void)
//{
// HAL_ENTER_CRITICAL_REGION();
// hal_bat_low_flag = 0;
// HAL_LEAVE_CRITICAL_REGION();
//}
/*----------------------------------------------------------------------------*/
/** \brief This function is used to set new TRX_END event handler, overriding
* old handler reference.
*/
//hal_trx_end_isr_event_handler_t
//hal_get_trx_end_event_handler(void)
//{
// return trx_end_callback;
//}
/*----------------------------------------------------------------------------*/
/** \brief This function is used to set new TRX_END event handler, overriding
* old handler reference.
*/
//void
//hal_set_trx_end_event_handler(hal_trx_end_isr_event_handler_t trx_end_callback_handle)
//{
// HAL_ENTER_CRITICAL_REGION();
// trx_end_callback = trx_end_callback_handle;
// HAL_LEAVE_CRITICAL_REGION();
//}
/*----------------------------------------------------------------------------*/
/** \brief Remove event handler reference.
*/
//void
//hal_clear_trx_end_event_handler(void)
//{
// HAL_ENTER_CRITICAL_REGION();
// trx_end_callback = NULL;
// HAL_LEAVE_CRITICAL_REGION();
//}
/*----------------------------------------------------------------------------*/
/** \brief This function returns the active RX_START event handler
*
* \return Current RX_START event handler registered.
*/
//hal_rx_start_isr_event_handler_t
//hal_get_rx_start_event_handler(void)
//{
// return rx_start_callback;
//}
/*----------------------------------------------------------------------------*/
/** \brief This function is used to set new RX_START event handler, overriding
* old handler reference.
*/
//void
//hal_set_rx_start_event_handler(hal_rx_start_isr_event_handler_t rx_start_callback_handle)
//{
// HAL_ENTER_CRITICAL_REGION();
// rx_start_callback = rx_start_callback_handle;
// HAL_LEAVE_CRITICAL_REGION();
//}
/*----------------------------------------------------------------------------*/
/** \brief Remove event handler reference.
*/
//void
//hal_clear_rx_start_event_handler(void)
//{
// HAL_ENTER_CRITICAL_REGION();
// rx_start_callback = NULL;
// HAL_LEAVE_CRITICAL_REGION();
//}
/*----------------------------------------------------------------------------*/
/** \brief This function returns the current value of the PLL_LOCK flag.
*
* The PLL_LOCK flag is incremented each time a PLL_LOCK event is signaled from the
* radio transceiver. This way it is possible for the end user to poll the flag
* for new event occurances.
*/
//uint8_t
//hal_get_pll_lock_flag(void)
//{
// return hal_pll_lock_flag;
//}
/*----------------------------------------------------------------------------*/
/** \brief This function clears the PLL_LOCK flag.
*/
//void
//hal_clear_pll_lock_flag(void)
//{
// HAL_ENTER_CRITICAL_REGION();
// hal_pll_lock_flag = 0;
// HAL_LEAVE_CRITICAL_REGION();
//}
#if defined(__AVR_ATmega128RFA1__)
/* Hack for internal radio registers. hal_register_read and hal_register_write are
@ -459,14 +267,16 @@ void
hal_subregister_write(uint16_t address, uint8_t mask, uint8_t position,
uint8_t value)
{
cli();
HAL_ENTER_CRITICAL_REGION();
uint8_t register_value = _SFR_MEM8(address);
register_value &= ~mask;
value <<= position;
value &= mask;
value |= register_value;
_SFR_MEM8(address) = value;
sei();
HAL_LEAVE_CRITICAL_REGION();
}
#else /* defined(__AVR_ATmega128RFA1__) */
@ -597,41 +407,57 @@ hal_frame_read(hal_rx_frame_t *rx_frame)
* Bypassing the length check can result in overrun if buffer is < 256 bytes.
*/
frame_length = TST_RX_LENGTH;
if ( 0 || ((frame_length >= HAL_MIN_FRAME_LENGTH) && (frame_length <= HAL_MAX_FRAME_LENGTH))) {
rx_frame->length = frame_length;
if ((frame_length < HAL_MIN_FRAME_LENGTH) || (frame_length > HAL_MAX_FRAME_LENGTH)) {
/* Length test failed */
rx_frame->length = 0;
rx_frame->lqi = 0;
rx_frame->crc = false;
return;
}
rx_frame->length = frame_length;
/* Start of buffer in I/O space, pointer to RAM buffer */
rx_buffer=(uint8_t *)0x180;
rx_data = (rx_frame->data);
/* Start of buffer in I/O space, pointer to RAM buffer */
rx_buffer=(uint8_t *)0x180;
rx_data = (rx_frame->data);
do{
*rx_data++ = _SFR_MEM8(rx_buffer++);
} while (--frame_length > 0);
do{
*rx_data++ = _SFR_MEM8(rx_buffer++);
} while (--frame_length > 0);
/*Read LQI value for this frame.*/
rx_frame->lqi = *rx_buffer;
/*Read LQI value for this frame.*/
rx_frame->lqi = *rx_buffer;
/* If crc was calculated set crc field in hal_rx_frame_t accordingly.
* Else show the crc has passed the hardware check.
*/
rx_frame->crc = true;
#else /* defined(__AVR_ATmega128RFA1__) */
uint8_t *rx_data;
uint8_t frame_length, *rx_data;
/*Send frame read (long mode) command.*/
HAL_SPI_TRANSFER_OPEN();
HAL_SPI_TRANSFER(0x20);
/*Read frame length. This includes the checksum. */
uint8_t frame_length = HAL_SPI_TRANSFER(0);
frame_length = HAL_SPI_TRANSFER(0);
/*Check for correct frame length. Bypassing this test can result in a buffer overrun! */
if ( 0 || ((frame_length >= HAL_MIN_FRAME_LENGTH) && (frame_length <= HAL_MAX_FRAME_LENGTH))) {
if ((frame_length < HAL_MIN_FRAME_LENGTH) || (frame_length > HAL_MAX_FRAME_LENGTH)) {
/* Length test failed */
rx_frame->length = 0;
rx_frame->lqi = 0;
rx_frame->crc = false;
}
else {
rx_data = (rx_frame->data);
rx_frame->length = frame_length;
/*Transfer frame buffer to RAM buffer */
HAL_SPI_TRANSFER_WRITE(0);
HAL_SPI_TRANSFER_WAIT();
HAL_SPI_TRANSFER_WRITE(0);
HAL_SPI_TRANSFER_WAIT();
do{
*rx_data++ = HAL_SPI_TRANSFER_READ();
HAL_SPI_TRANSFER_WRITE(0);
@ -643,7 +469,7 @@ hal_frame_read(hal_rx_frame_t *rx_frame)
* The 802.15.4 standard requires 640us after a greater than 18 byte frame.
* With a low interrupt latency overwrites should never occur.
*/
// crc = _crc_ccitt_update(crc, tempData);
// crc = _crc_ccitt_update(crc, tempData);
HAL_SPI_TRANSFER_WAIT();
@ -651,23 +477,17 @@ hal_frame_read(hal_rx_frame_t *rx_frame)
/*Read LQI value for this frame.*/
rx_frame->lqi = HAL_SPI_TRANSFER_READ();
#endif /* defined(__AVR_ATmega128RFA1__) */
rx_frame->lqi = HAL_SPI_TRANSFER_READ();
/* If crc was calculated set crc field in hal_rx_frame_t accordingly.
* Else show the crc has passed the hardware check.
*/
rx_frame->crc = true;
} else {
/* Length test failed */
rx_frame->length = 0;
rx_frame->lqi = 0;
rx_frame->crc = false;
}
HAL_SPI_TRANSFER_CLOSE();
#endif /* defined(__AVR_ATmega128RFA1__) */
}
/*----------------------------------------------------------------------------*/
@ -765,25 +585,27 @@ hal_sram_read(uint8_t address, uint8_t length, uint8_t *data)
* \param length Length of the write burst
* \param data Pointer to an array of bytes that should be written
*/
//void
//hal_sram_write(uint8_t address, uint8_t length, uint8_t *data)
//{
// HAL_SPI_TRANSFER_OPEN();
#if 0 //omit unless needed
void
hal_sram_write(uint8_t address, uint8_t length, uint8_t *data)
{
HAL_SPI_TRANSFER_OPEN();
/*Send SRAM write command.*/
// HAL_SPI_TRANSFER(0x40);
HAL_SPI_TRANSFER(0x40);
/*Send address where to start writing to.*/
// HAL_SPI_TRANSFER(address);
HAL_SPI_TRANSFER(address);
/*Upload the chosen memory area.*/
// do{
// HAL_SPI_TRANSFER(*data++);
// } while (--length > 0);
do{
HAL_SPI_TRANSFER(*data++);
} while (--length > 0);
// HAL_SPI_TRANSFER_CLOSE();
HAL_SPI_TRANSFER_CLOSE();
//}
}
#endif
/*----------------------------------------------------------------------------*/
/* This #if compile switch is used to provide a "standard" function body for the */
@ -862,28 +684,26 @@ ISR(TRX24_PLL_UNLOCK_vect)
DEBUGFLOW('5');
}
/* Flag is set by the following interrupts */
extern volatile uint8_t rf230_interruptwait,rf230_ccawait;
extern volatile uint8_t rf230_wakewait, rf230_txendwait,rf230_ccawait;
/* Wake has finished */
ISR(TRX24_AWAKE_vect)
{
// DEBUGFLOW('6');
rf230_interruptwait=0;
rf230_wakewait=0;
}
/* Transmission has ended */
ISR(TRX24_TX_END_vect)
{
// DEBUGFLOW('7');
rf230_interruptwait=0;
rf230_txendwait=0;
}
/* Frame address has matched ours */
extern volatile uint8_t rf230_pending;
ISR(TRX24_XAH_AMI_vect)
{
// DEBUGFLOW('8');
rf230_pending=1;
}
/* CCAED measurement has completed */
@ -897,14 +717,6 @@ ISR(TRX24_CCA_ED_DONE_vect)
/* Separate RF230 has a single radio interrupt and the source must be read from the IRQ_STATUS register */
HAL_RF230_ISR()
{
/*The following code reads the current system time. This is done by first
reading the hal_system_time and then adding the 16 LSB directly from the
hardware counter.
*/
// uint32_t isr_timestamp = hal_system_time;
// isr_timestamp <<= 16;
// isr_timestamp |= HAL_TICK_UPCNT(); // TODO: what if this wraps after reading hal_system_time?
volatile uint8_t state;
uint8_t interrupt_source; /* used after HAL_SPI_TRANSFER_OPEN/CLOSE block */
@ -919,22 +731,10 @@ HAL_RF230_ISR()
/*Send Register address and read register content.*/
HAL_SPI_TRANSFER_WRITE(0x80 | RG_IRQ_STATUS);
/* This is the second part of the convertion of system time to a 16 us time
base. The division is moved here so we can spend less time waiting for SPI
data.
*/
// isr_timestamp /= HAL_US_PER_SYMBOL; /* Divide so that we get time in 16us resolution. */
// isr_timestamp &= HAL_SYMBOL_MASK;
HAL_SPI_TRANSFER_WAIT(); /* AFTER possible interleaved processing */
#if 0 //dak
interrupt_source = HAL_SPI_TRANSFER_READ(); /* The interrupt variable is used as a dummy read. */
interrupt_source = HAL_SPI_TRANSFER(interrupt_source);
#else
interrupt_source = HAL_SPI_TRANSFER(0);
#endif
HAL_SPI_TRANSFER_CLOSE();
/*Handle the incomming interrupt. Prioritized.*/
@ -950,44 +750,30 @@ HAL_RF230_ISR()
rf230_last_rssi = 3 * hal_subregister_read(SR_RSSI);
#endif
#endif
// if(rx_start_callback != NULL){
// /* Read Frame length and call rx_start callback. */
// HAL_SPI_TRANSFER_OPEN();
// uint8_t frame_length = HAL_SPI_TRANSFER(0x20);
// frame_length = HAL_SPI_TRANSFER(frame_length);
// HAL_SPI_TRANSFER_CLOSE();
// rx_start_callback(isr_timestamp, frame_length);
// }
} else if (interrupt_source & HAL_TRX_END_MASK){
INTERRUPTDEBUG(11);
// if(trx_end_callback != NULL){
// trx_end_callback(isr_timestamp);
// }
state = hal_subregister_read(SR_TRX_STATUS);
if((state == BUSY_RX_AACK) || (state == RX_ON) || (state == BUSY_RX) || (state == RX_AACK_ON)){
/* Received packet interrupt */
/* Buffer the frame and call rf230_interrupt to schedule poll for rf230 receive process */
// if (rxframe.length) break; //toss packet if last one not processed yet
/* Received packet interrupt */
/* Buffer the frame and call rf230_interrupt to schedule poll for rf230 receive process */
if (rxframe[rxframe_tail].length) INTERRUPTDEBUG(42); else INTERRUPTDEBUG(12);
#ifdef RF230_MIN_RX_POWER
/* Discard packets weaker than the minimum if defined. This is for testing miniature meshes.*/
/* Save the rssi for printing in the main loop */
/* Discard packets weaker than the minimum if defined. This is for testing miniature meshes.*/
/* Save the rssi for printing in the main loop */
#if RF230_CONF_AUTOACK
// rf230_last_rssi=hal_subregister_read(SR_ED_LEVEL);
rf230_last_rssi=hal_register_read(RG_PHY_ED_LEVEL);
//rf230_last_rssi=hal_subregister_read(SR_ED_LEVEL);
rf230_last_rssi=hal_register_read(RG_PHY_ED_LEVEL);
#endif
if (rf230_last_rssi >= RF230_MIN_RX_POWER) {
if (rf230_last_rssi >= RF230_MIN_RX_POWER) {
#endif
hal_frame_read(&rxframe[rxframe_tail]);
rxframe_tail++;if (rxframe_tail >= RF230_CONF_RX_BUFFERS) rxframe_tail=0;
rf230_interrupt();
// trx_end_callback(isr_timestamp);
hal_frame_read(&rxframe[rxframe_tail]);
rxframe_tail++;if (rxframe_tail >= RF230_CONF_RX_BUFFERS) rxframe_tail=0;
rf230_interrupt();
#ifdef RF230_MIN_RX_POWER
}
}
#endif
}
@ -1000,7 +786,6 @@ HAL_RF230_ISR()
;
} else if (interrupt_source & HAL_PLL_LOCK_MASK){
INTERRUPTDEBUG(15);
// hal_pll_lock_flag++;
;
} else if (interrupt_source & HAL_BAT_LOW_MASK){
/* Disable BAT_LOW interrupt to prevent endless interrupts. The interrupt */
@ -1009,7 +794,6 @@ HAL_RF230_ISR()
uint8_t trx_isr_mask = hal_register_read(RG_IRQ_MASK);
trx_isr_mask &= ~HAL_BAT_LOW_MASK;
hal_register_write(RG_IRQ_MASK, trx_isr_mask);
// hal_bat_low_flag++; /* Increment BAT_LOW flag. */
INTERRUPTDEBUG(16);
;
} else {
@ -1020,21 +804,6 @@ HAL_RF230_ISR()
#endif /* defined(__AVR_ATmega128RFA1__) */
# endif /* defined(DOXYGEN) */
/*----------------------------------------------------------------------------*/
/* This #if compile switch is used to provide a "standard" function body for the */
/* doxygen documentation. */
#if defined(DOXYGEN)
/** \brief Timer Overflow ISR
* This is the interrupt service routine for timer1 overflow.
*/
void TIMER1_OVF_vect(void);
#else /* !DOXYGEN */
HAL_TIME_ISR()
{
hal_system_time++;
}
#endif
/** @} */
/** @} */

357
cpu/avr/radio/rf230bb/rf230bb.c
View File

@ -2,6 +2,11 @@
* Copyright (c) 2007, Swedish Institute of Computer Science
* All rights reserved.
*
* Additional fixes for AVR contributed by:
*
* David Kopf dak664@embarqmail.com
* Ivan Delamer delamer@ieee.com
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
@ -91,13 +96,17 @@
static bool is_promiscuous;
#endif
/* RF230_CONF_AUTORETRIES is 1 plus the number written to the hardware. */
/* RF230_CONF_FRAME_RETRIES is 1 plus the number written to the hardware. */
/* Valid range 1-16, zero disables extended mode. */
#ifndef RF230_CONF_AUTORETRIES
#define RF230_CONF_AUTORETRIES 3
#ifndef RF230_CONF_FRAME_RETRIES
#ifdef RF230_CONF_AUTORETRIES /* Support legacy definition. */
#define RF230_CONF_FRAME_RETRIES RF230_CONF_AUTORETRIES
#else
#define RF230_CONF_FRAME_RETRIES 0 /* Extended mode disabled by default. */
#endif
#endif
/* In extended mode (AUTORETRIES>0) the tx routine waits for hardware
/* In extended mode (FRAME_RETRIES>0) the tx routine waits for hardware
* processing of an expected ACK and returns RADIO_TX_OK/NOACK result.
* In non-extended mode the ACK is treated as a normal rx packet.
* If the caller needs the ACK to be returned as an rx packet,
@ -109,15 +118,19 @@ static bool is_promiscuous;
* that use the TX_OK result to signal a successful ACK.
* Adds 100 bytes of program flash and two bytes of RAM.
*/
#if RF320_CONF_INSERTACK && RF230_CONF_AUTORETRIES
#if RF320_CONF_INSERTACK && RF230_CONF_FRAME_RETRIES
#define RF230_INSERTACK 1
uint8_t ack_pending,ack_seqnum;
#endif
/* RF230_CONF_CSMARETRIES is number of random-backoff/CCA retries. */
/* RF230_CONF_CSMA_RETRIES is number of random-backoff/CCA retries. */
/* The hardware will accept 0-7, but 802.15.4-2003 only allows 5 maximum */
#ifndef RF230_CONF_CSMARETRIES
#define RF230_CONF_CSMARETRIES 5
/* In RF231/128RFA1, a value of 7 means no CSMA bebofe the Tx. */
/* CSMA backoffs are long and can block radio duty cycling
* over several channel check periods! */
/* Used only if RF230_CONF_FRAME_RETRIES > 0. */
#ifndef RF230_CONF_CSMA_RETRIES
#define RF230_CONF_CSMA_RETRIES 5
#endif
//Automatic and manual CRC both append 2 bytes to packets
@ -191,18 +204,18 @@ extern uint8_t debugflowsize,debugflow[DEBUGFLOWSIZE];
#endif
/* XXX hack: these will be made as Chameleon packet attributes */
#if RF230_CONF_TIMESTAMPS
rtimer_clock_t rf230_time_of_arrival, rf230_time_of_departure;
int rf230_authority_level_of_sender;
#if RF230_CONF_TIMESTAMPS
static rtimer_clock_t setup_time_for_transmission;
static unsigned long total_time_for_transmission, total_transmission_len;
static int num_transmissions;
#endif
#if defined(__AVR_ATmega128RFA1__)
volatile uint8_t rf230_interruptwait,rf230_ccawait;
volatile uint8_t rf230_wakewait, rf230_txendwait, rf230_ccawait;
#endif
uint8_t volatile rf230_pending;
@ -226,8 +239,8 @@ typedef enum{
PROCESS(rf230_process, "RF230 driver");
/*---------------------------------------------------------------------------*/
int rf230_on(void);
int rf230_off(void);
static int rf230_on(void);
static int rf230_off(void);
static int rf230_read(void *buf, unsigned short bufsize);
@ -340,9 +353,17 @@ static bool radio_is_sleeping(void)
static void
radio_reset_state_machine(void)
{
if (hal_get_slptr()) DEBUGFLOW('"');
hal_set_slptr_low();
delay_us(TIME_NOCLK_TO_WAKE);
/* The data sheet is not clear on what happens when slptr is raised in RX on
* states, it "remains in the new state and returns to the preceding state
* when slptr is lowered". Possibly that is why there is an undocumented
* TIME_NOCLK_TO_WAKE delay here?
*/
if (hal_get_slptr()) {
DEBUGFLOW('V');
hal_set_slptr_low();
delay_us(TIME_NOCLK_TO_WAKE);
}
hal_subregister_write(SR_TRX_CMD, CMD_FORCE_TRX_OFF);
delay_us(TIME_CMD_FORCE_TRX_OFF);
}
@ -351,33 +372,36 @@ static char
rf230_isidle(void)
{
uint8_t radio_state;
/* Contikimac can turn the radio off during an interrupt, so we always check
* slptr before doing the SPI transfer. The caller must also make this test
* if it could otherwise hang waiting for idle! */
if (hal_get_slptr()) {
DEBUGFLOW(']');
return 1;
} else {
radio_state = hal_subregister_read(SR_TRX_STATUS);
if (radio_state != BUSY_TX_ARET &&
if (RF230_receive_on) DEBUGFLOW('-');
return 1;
}
else {
radio_state = hal_subregister_read(SR_TRX_STATUS);
if (radio_state != BUSY_TX_ARET &&
radio_state != BUSY_RX_AACK &&
radio_state != STATE_TRANSITION &&
radio_state != BUSY_RX &&
radio_state != BUSY_TX) {
return(1);
} else {
// printf(".%u",radio_state);
return(0);
}
return(1);
}
else {
return(0);
}
}
}
static void
rf230_waitidle(void)
{
int i;
for (i=0;i<10000;i++) { //to avoid potential hangs
// while (1) {
/* TX_ARET with multiple csma retries can take a very long time to finish */
while (1) {
if (hal_get_slptr()) return;
if (rf230_isidle()) break;
}
if (i>=10000) {DEBUGFLOW('H');DEBUGFLOW('R');}
}
/*----------------------------------------------------------------------------*/
@ -402,9 +426,9 @@ int i;
static radio_status_t
radio_set_trx_state(uint8_t new_state)
{
uint8_t original_state;
uint8_t current_state;
/*Check function paramter and current state of the radio transceiver.*/
/*Check function parameter and current state of the radio transceiver.*/
if (!((new_state == TRX_OFF) ||
(new_state == RX_ON) ||
(new_state == PLL_ON) ||
@ -413,23 +437,16 @@ radio_set_trx_state(uint8_t new_state)
return RADIO_INVALID_ARGUMENT;
}
if (hal_get_slptr()) {
if (hal_get_slptr()) {
DEBUGFLOW('W');
return RADIO_WRONG_STATE;
}
/* Wait for radio to finish previous operation */
rf230_waitidle();
// for(;;)
// {
original_state = radio_get_trx_state();
// if (original_state != BUSY_TX_ARET &&
// original_state != BUSY_RX_AACK &&
// original_state != BUSY_RX &&
// original_state != BUSY_TX)
// break;
// }
current_state = radio_get_trx_state();
if (new_state == original_state){
if (new_state == current_state){
return RADIO_SUCCESS;
}
@ -440,14 +457,15 @@ radio_set_trx_state(uint8_t new_state)
/* The radio transceiver can be in one of the following states: */
/* TRX_OFF, RX_ON, PLL_ON, RX_AACK_ON, TX_ARET_ON. */
if(new_state == TRX_OFF){
if (hal_get_slptr()) DEBUGFLOW('K');DEBUGFLOW('K');DEBUGFLOW('A'+hal_subregister_read(SR_TRX_STATUS));
radio_reset_state_machine(); /* Go to TRX_OFF from any state. */
} else {
/* It is not allowed to go from RX_AACK_ON or TX_AACK_ON and directly to */
/* TX_AACK_ON or RX_AACK_ON respectively. Need to go via PLL_ON. */
/* (Old datasheets allowed other transitions, but this code complies with */
/* the current specification for RF230, RF231 and 128RFA1.) */
if (((new_state == TX_ARET_ON) && (original_state == RX_AACK_ON)) ||
((new_state == RX_AACK_ON) && (original_state == TX_ARET_ON))){
if (((new_state == TX_ARET_ON) && (current_state == RX_AACK_ON)) ||
((new_state == RX_AACK_ON) && (current_state == TX_ARET_ON))){
/* First do intermediate state transition to PLL_ON. */
/* The final state transition is handled after the if-else if. */
hal_subregister_write(SR_TRX_CMD, PLL_ON);
@ -459,21 +477,28 @@ radio_set_trx_state(uint8_t new_state)
/* When the PLL is active most states can be reached in 1us. However, from */
/* TRX_OFF the PLL needs time to activate. */
if (original_state == TRX_OFF){
if (current_state == TRX_OFF){
delay_us(TIME_TRX_OFF_TO_PLL_ACTIVE);
} else {
delay_us(TIME_STATE_TRANSITION_PLL_ACTIVE);
}
} /* end: if(new_state == TRX_OFF) ... */
/*Verify state transition.*/
radio_status_t set_state_status = RADIO_TIMED_OUT;
if (radio_get_trx_state() == new_state){
set_state_status = RADIO_SUCCESS;
/* Verify state transition.
* Radio could have already switched to an RX_BUSY state, at least in cooja.
* Don't know what the hardware does but this would not be an error.*/
current_state = radio_get_trx_state();
if (current_state != new_state) {
if (((new_state == RX_ON) && (current_state == BUSY_RX)) ||
((new_state == RX_AACK_ON) && (current_state == BUSY_RX_AACK))) {
/* This is OK. */
} else {
DEBUGFLOW('N');DEBUGFLOW('A'+new_state);DEBUGFLOW('A'+radio_get_trx_state());DEBUGFLOW('N');
return RADIO_TIMED_OUT;
}
}
return set_state_status;
return RADIO_SUCCESS;
}
void
@ -504,7 +529,7 @@ flushrx(void)
}
/*---------------------------------------------------------------------------*/
static void
on(void)
radio_on(void)
{
// ENERGEST_OFF(ENERGEST_TYPE_LISTEN);//testing
ENERGEST_ON(ENERGEST_TYPE_LISTEN);
@ -520,11 +545,22 @@ on(void)
PORTE|=(1<<PE1); //ledon
#endif
#if defined(__AVR_ATmega128RFA1__)
/* Use the poweron interrupt for delay */
rf230_interruptwait=1;
sei();
hal_set_slptr_low();
while (rf230_interruptwait) {}
/* Use the poweron interrupt for delay */
rf230_wakewait=1;
{
uint8_t sreg = SREG;
sei();
if (hal_get_slptr() == 0) DEBUGFLOW('$');
hal_set_slptr_low();
{
int i;
for (i=0;i<10000;i++) {
if (!rf230_wakewait) break;
}
if (i>=10000) {DEBUGFLOW('G');DEBUGFLOW('g');DEBUGFLOW('A'+hal_subregister_read(SR_TRX_STATUS));}
}
SREG = sreg;
}
#else
/* SPI based radios. The wake time depends on board capacitance.
* Make sure the delay is long enough, as using SPI too soon will reset the MCU!
@ -533,7 +569,6 @@ on(void)
// uint8_t sreg = SREG;cli();
hal_set_slptr_low();
delay_us(2*TIME_SLEEP_TO_TRX_OFF);
// delay_us(TIME_SLEEP_TO_TRX_OFF+TIME_SLEEP_TO_TRX_OFF/2);
// SREG=sreg;
#endif
}
@ -547,8 +582,14 @@ on(void)
rf230_waitidle();
}
static void
off(void)
radio_off(void)
{
RF230_receive_on = 0;
if (hal_get_slptr()) {
DEBUGFLOW('F');
return;
}
#if RF230BB_CONF_LEDONPORTE1
PORTE&=~(1<<PE1); //ledoff
#endif
@ -563,7 +604,12 @@ off(void)
/* Do not transmit autoacks when stack thinks radio is off */
radio_set_trx_state(RX_ON);
#else
/* Force the device into TRX_OFF. */
/* Force the device into TRX_OFF.
* First make sure an interrupt did not initiate a sleep. */
if (hal_get_slptr()) {
DEBUGFLOW('?');
return;
}
radio_reset_state_machine();
#if RADIOSLEEPSWHENOFF
/* Sleep Radio */
@ -572,7 +618,6 @@ off(void)
#endif
#endif /* RADIOALWAYSON */
RF230_receive_on = 0;
ENERGEST_OFF(ENERGEST_TYPE_LISTEN);
}
/*---------------------------------------------------------------------------*/
@ -586,7 +631,7 @@ set_txpower(uint8_t power)
DEBUGFLOW('f');
PRINTF("rf230_set_txpower:Sleeping"); //happens with cxmac
} else {
DEBUGFLOW('g');
//DEBUGFLOW('g');
hal_subregister_write(SR_TX_PWR, power);
}
}
@ -718,13 +763,14 @@ rf230_init(void)
// printf_P(PSTR("After calibration OSCCAL=%x\n"),OSCCAL);
/* Set receive buffers empty and point to the first */
for (i=0;i<RF230_CONF_RX_BUFFERS;i++) rxframe[i].length=0;
for (i=0;i<RF230_CONF_RX_BUFFERS;i++) {
rxframe[i].length=0;
}
rxframe_head=0;rxframe_tail=0;
/* Do full rf230 Reset */
hal_set_rst_low();
hal_set_slptr_low();
#if 1
/* On powerup a TIME_RESET delay is needed here, however on some other MCU reset
* (JTAG, WDT, Brownout) the radio may be sleeping. It can enter an uncertain
* state (sending wrong hardware FCS for example) unless the full wakeup delay
@ -733,9 +779,7 @@ rf230_init(void)
* See www.avrfreaks.net/index.php?name=PNphpBB2&file=viewtopic&t=78725
*/
delay_us(2*TIME_SLEEP_TO_TRX_OFF);
#else
delay_us(TIME_RESET);
#endif
//delay_us(TIME_RESET); /* Old impl. */
hal_set_rst_high();
/* Force transition to TRX_OFF */
@ -761,7 +805,7 @@ rf230_init(void)
process_start(&rf230_process, NULL);
/* Leave radio in on state (?)*/
on();
radio_on();
return 1;
}
@ -777,11 +821,13 @@ void rf230_warm_reset(void) {
hal_register_write(RG_IRQ_MASK, RF230_SUPPORTED_INTERRUPT_MASK);
/* Set up number of automatic retries 0-15 (0 implies PLL_ON sends instead of the extended TX_ARET mode */
hal_subregister_write(SR_MAX_FRAME_RETRIES, RF230_CONF_AUTORETRIES );
/* Set up number of automatic retries 0-15
* (0 implies PLL_ON sends instead of the extended TX_ARET mode */
hal_subregister_write(SR_MAX_FRAME_RETRIES,
(RF230_CONF_FRAME_RETRIES > 0) ? (RF230_CONF_FRAME_RETRIES - 1) : 0 );
/* Set up carrier sense/clear channel assesment parameters for extended operating mode */
hal_subregister_write(SR_MAX_CSMA_RETRIES, 5 );//highest allowed retries
hal_subregister_write(SR_MAX_CSMA_RETRIES, RF230_CONF_CSMA_RETRIES );//highest allowed retries
hal_register_write(RG_CSMA_BE, 0x80); //min backoff exponent 0, max 8 (highest allowed)
hal_register_write(RG_CSMA_SEED_0,hal_register_read(RG_PHY_RSSI) );//upper two RSSI reg bits RND_VALUE are random in rf231
// hal_register_write(CSMA_SEED_1,42 );
@ -855,20 +901,19 @@ rf230_transmit(unsigned short payload_len)
#if RF230BB_CONF_LEDONPORTE1
PORTE|=(1<<PE1); //ledon
#endif
rf230_interruptwait=1;
hal_set_slptr_low();
// while (rf230_interruptwait) {}
rf230_wakewait=1;
hal_set_slptr_low();
{
int i;
for (i=0;i<10000;i++) {
if (!rf230_interruptwait) break;
if (!rf230_wakewait) break;
}
if (i>=10000) {DEBUGFLOW('G');DEBUGFLOW('G');DEBUGFLOW('A'+hal_subregister_read(SR_TRX_STATUS));}
}
#else
hal_set_slptr_low();
DEBUGFLOW('j');
delay_us(2*TIME_SLEEP_TO_TRX_OFF); //extra delay depends on board capacitance
// delay_us(TIME_SLEEP_TO_TRX_OFF+TIME_SLEEP_TO_TRX_OFF/2);
delay_us(2*TIME_SLEEP_TO_TRX_OFF); //extra delay (2x) depends on board capacitance
#endif
} else {
@ -891,7 +936,7 @@ rf230_transmit(unsigned short payload_len)
ENERGEST_OFF(ENERGEST_TYPE_LISTEN);
}
/* Prepare to transmit */
#if RF230_CONF_AUTORETRIES
#if RF230_CONF_FRAME_RETRIES
radio_set_trx_state(TX_ARET_ON);
DEBUGFLOW('t');
#else
@ -916,20 +961,17 @@ rf230_transmit(unsigned short payload_len)
ENERGEST_ON(ENERGEST_TYPE_TRANSMIT);
#if defined(__AVR_ATmega128RFA1__)
/* No interrupts across frame download! */
cli();
/* slow down the transmit? */
// delay_us(500);
#endif
/* Toggle the SLP_TR pin to initiate the frame transmission */
HAL_ENTER_CRITICAL_REGION();
/* Toggle the SLP_TR pin to initiate the frame transmission */
hal_set_slptr_high();
hal_set_slptr_low();
hal_frame_write(buffer, total_len);
#if defined(__AVR_ATmega128RFA1__)
sei();
#endif
HAL_LEAVE_CRITICAL_REGION();
PRINTF("rf230_transmit: %d\n", (int)total_len);
#if DEBUG>1
/* Note the dumped packet will have a zero checksum unless compiled with RF230_CONF_CHECKSUM
* since we don't know what it will be if calculated by the hardware.
@ -951,7 +993,7 @@ rf230_transmit(unsigned short payload_len)
rf230_waitidle();
/* Get the transmission result */
#if RF230_CONF_AUTORETRIES
#if RF230_CONF_FRAME_RETRIES
tx_result = hal_subregister_read(SR_TRAC_STATUS);
#else
tx_result=RADIO_TX_OK;
@ -981,13 +1023,13 @@ rf230_transmit(unsigned short payload_len)
if(RF230_receive_on) {
DEBUGFLOW('l');
ENERGEST_ON(ENERGEST_TYPE_LISTEN);
on();
radio_on();
} else {
#if RADIOALWAYSON
/* Enable reception */
on();
radio_on();
#else
off();
radio_off();
PRINTF("rf230_transmit: turning radio off\n");
#endif
}
@ -1123,36 +1165,39 @@ bail:
return ret;
}
/*---------------------------------------------------------------------------*/
int
static int
rf230_off(void)
{
/* Don't do anything if we are already turned off. */
if(RF230_receive_on == 0) {
//if (!hal_get_slptr()) DEBUGFLOW('5');
return 0;
}
//if (hal_get_slptr()) DEBUGFLOW('6');
/* If we are currently receiving a packet, we still call off(),
/* If we are currently receiving a packet, we still call radio_off(),
as that routine waits until Rx is complete (packet uploaded in ISR
so no worries about losing it). If using RX_AACK_MODE, chances are
the packet is not for us and will be discarded. */
so no worries about losing it). The transmit routine may also turn
+ the radio off on a return to sleep. rf230_isidle checks for that. */
if (!rf230_isidle()) {
//DEBUGFLOW('X');DEBUGFLOW('X');DEBUGFLOW('A'+hal_subregister_read(SR_TRX_STATUS));
PRINTF("rf230_off: busy receiving\r\n");
//return 1;
}
off();
radio_off();
return 0;
}
/*---------------------------------------------------------------------------*/
int
static int
rf230_on(void)
{
if(RF230_receive_on) {
DEBUGFLOW('q');
//if (hal_get_slptr()) DEBUGFLOW('Q');//Cooja TODO: shows sleeping occasionally
return 1;
}
on();
radio_on();
return 1;
}
/*---------------------------------------------------------------------------*/
@ -1296,18 +1341,26 @@ PROCESS_THREAD(rf230_process, ev, data)
TIMETABLE_TIMESTAMP(rf230_timetable, "poll");
#endif /* RF230_TIMETABLE_PROFILING */
rf230_pending = 0;
packetbuf_clear();
/* Turn off interrupts to avoid ISR writing to the same buffers we are reading. */
HAL_ENTER_CRITICAL_REGION();
len = rf230_read(packetbuf_dataptr(), PACKETBUF_SIZE);
len = rf230_read(packetbuf_dataptr(), PACKETBUF_SIZE);
/* Restore interrupts. */
HAL_LEAVE_CRITICAL_REGION();
PRINTF("rf230_read: %u bytes lqi %u\n",len,rf230_last_correlation);
#if DEBUG>1
{
uint8_t i;
unsigned const char * rxdata = packetbuf_dataptr();
PRINTF("0000");
for (i=0;i<len+AUX_LEN;i++) PRINTF(" %02x",rxdata[i]);
PRINTF("\n");
}
#endif
RF230PROCESSFLAG(1);
if(len > 0) {
@ -1372,19 +1425,6 @@ rf230_read(void *buf, unsigned short bufsize)
return 0;
}
#if RADIOALWAYSON
if (RF230_receive_on) {
#else
if (hal_get_slptr()) {
DEBUGFLOW('!');
return 0;
}
if (!RF230_receive_on) {
DEBUGFLOW('[');
return 0;
}
#endif
#if RF230_CONF_TIMESTAMPS
if(interrupt_time_set) {
rf230_time_of_arrival = interrupt_time;
@ -1395,19 +1435,6 @@ if (!RF230_receive_on) {
rf230_time_of_departure = 0;
#endif /* RF230_CONF_TIMESTAMPS */
// can't use PRINTF as interrupts are disabled
// PRINTSHORT("r%d",rxframe[rxframe_head].length);
//PRINTF("rf230_read: %u bytes lqi %u crc %u\n",rxframe[rxframe_head].length,rxframe[rxframe_head].lqi,rxframe[rxframe_head].crc);
#if DEBUG>1
{
//uint8_t i;
//PRINTF("0000");
//for (i=0;i<rxframe[rxframe_head].length;i++) PRINTF(" %02x",rxframe[rxframe_head].data[i]);
//PRINTF("\n");
}
#endif
//if(len > RF230_MAX_PACKET_LEN) {
if(len > RF230_MAX_TX_FRAME_LENGTH) {
/* Oops, we must be out of sync. */
DEBUGFLOW('u');
@ -1431,6 +1458,7 @@ if (!RF230_receive_on) {
RIMESTATS_ADD(toolong);
return 0;
}
/* Transfer the frame, stripping the footer, but copying the checksum */
framep=&(rxframe[rxframe_head].data[0]);
memcpy(buf,framep,len-AUX_LEN+CHECKSUM_LEN);
@ -1438,9 +1466,17 @@ if (!RF230_receive_on) {
/* Clear the length field to allow buffering of the next packet */
rxframe[rxframe_head].length=0;
rxframe_head++;if (rxframe_head >= RF230_CONF_RX_BUFFERS) rxframe_head=0;
rxframe_head++;
if (rxframe_head >= RF230_CONF_RX_BUFFERS) {
rxframe_head=0;
}
/* If another packet has been buffered, schedule another receive poll */
if (rxframe[rxframe_head].length) rf230_interrupt();
if (rxframe[rxframe_head].length) {
rf230_interrupt();
}
else {
rf230_pending = 0;
}
/* Point to the checksum */
framep+=len-AUX_LEN;
@ -1518,13 +1554,6 @@ if (!RF230_receive_on) {
/* Here return just the data length. The checksum is however still in the buffer for packet sniffing */
return len - AUX_LEN;
#if RADIOALWAYSON
} else {
DEBUGFLOW('y'); //Stack thought radio was off
return 0;
}
#endif
}
/*---------------------------------------------------------------------------*/
void
@ -1589,13 +1618,17 @@ rf230_cca(void)
uint8_t radio_was_off = 0;
/* Turn radio on if necessary. If radio is currently busy return busy channel */
/* This may happen when testing radio duty cycling with RADIOALWAYSON */
/* This may happen when testing radio duty cycling with RADIOALWAYSON,
* or because a packet just started. */
if(RF230_receive_on) {
if (hal_get_slptr()) { //should not be sleeping!
DEBUGFLOW('<');
goto busyexit;
} else {
if (!rf230_isidle()) {DEBUGFLOW('2');goto busyexit;}
if (!rf230_isidle()) {
//DEBUGFLOW('2');
goto busyexit;
}
}
} else {
radio_was_off = 1;
@ -1611,18 +1644,30 @@ rf230_cca(void)
/* Note reading the TRX_STATUS register clears both CCA_STATUS and CCA_DONE bits */
#if defined(__AVR_ATmega128RFA1__)
#if 1 //interrupt method
sei();
//rf230_waitidle();
//TODO:disable reception for version bug
radio_set_trx_state(RX_ON);
// rf230_waitidle();
/* Disable rx transitions to busy (RX_PDT_BIT) */
/* Note: for speed this resets rx threshold to the compiled default */
#ifdef RF230_MIN_RX_POWER
hal_register_write(RG_RX_SYN, RF230_MIN_RX_POWER/6 + 0x81);
#else
hal_register_write(RG_RX_SYN, 0x80);
#endif
/* Switch to RX_ON for measurement. This will wait if a packet is being received */
radio_set_trx_state(RX_ON);
rf230_ccawait=1;
//CCA_REQUEST is supposed to trigger the interrupt but it doesn't
// hal_subregister_write(SR_CCA_REQUEST,1);
hal_register_write(PHY_ED_LEVEL,0);
// delay_us(TIME_CCA);
// if (hal_register_read(RG_PHY_ED_LEVEL)<(91-77)) cca=0xff;
while (rf230_ccawait) {}
/* Write to ED_LEVEL register to start CCA */
{
uint8_t volatile saved_sreg = SREG;
sei( );
hal_register_write(PHY_ED_LEVEL,0);
while (rf230_ccawait) {}
SREG = saved_sreg;
}
/* Use ED register to determine result. 77dBm is poweron csma default.*/
#ifdef RF230_CONF_CCA_THRES
if (hal_register_read(RG_PHY_ED_LEVEL)<(91+RF230_CONF_CCA_THRES) cca=0xff;
#else
@ -1631,8 +1676,17 @@ rf230_cca(void)
//TODO:see if the status register works!
// cca=hal_register_read(RG_TRX_STATUS);
#if RF230_CONF_AUTOACK
radio_set_trx_state(RX_AACK_ON);
radio_set_trx_state(RX_AACK_ON);
#endif
/* Enable packet reception */
#ifdef RF230_MIN_RX_POWER
hal_register_write(RG_RX_SYN, RF230_MIN_RX_POWER/6 + 0x01);
#else
hal_register_write(RG_RX_SYN, 0x00);
#endif
#else
/* If already in receive mode can read the current ED register without delay */
/* CCA energy threshold = -91dB + 2*SR_CCA_ED_THRESH. Reset defaults to -77dB */
@ -1654,6 +1708,10 @@ rf230_cca(void)
hal_subregister_write(SR_CCA_REQUEST,1);
delay_us(TIME_CCA);
while ((cca & 0x80) == 0 ) {
if (hal_get_slptr()) {
DEBUGFLOW('S');
break;
}
cca=hal_register_read(RG_TRX_STATUS);
}
SREG=saved_sreg;
@ -1684,7 +1742,6 @@ rf230_receiving_packet(void)
radio_state = hal_subregister_read(SR_TRX_STATUS);
if ((radio_state==BUSY_RX) || (radio_state==BUSY_RX_AACK)) {
// DEBUGFLOW('8');
// rf230_pending=1;
return 1;
}
}

5
cpu/avr/radio/rf230bb/rf230bb.h
View File

@ -10,6 +10,7 @@
* Kevin Brown kbrown3@uccs.edu
* Nate Bohlmann nate@elfwerks.com
* David Kopf dak664@embarqmail.com
* Ivan Delamer delamer@ieee.com
*
* All rights reserved.
*
@ -82,7 +83,6 @@
#define RF230_MIN_ED_THRESHOLD ( 0 )
#define RF230_MAX_ED_THRESHOLD ( 15 )
#define RF230_MAX_TX_FRAME_LENGTH ( 127 ) /**< 127 Byte PSDU. */
//#define RF230_MAX_PACKET_LEN 127
#define TX_PWR_3DBM ( 0 )
#define TX_PWR_17_2DBM ( 15 )
@ -166,7 +166,6 @@ typedef enum{
*
*/
typedef enum{
// CCA_ED = 0, /**< Use energy detection above threshold mode. */ conflicts with atmega128rfa1 mcu definition
CCA_ENERGY_DETECT = 0, /**< Use energy detection above threshold mode. */
CCA_CARRIER_SENSE = 1, /**< Use carrier sense mode. */
CCA_CARRIER_SENSE_WITH_ED = 2 /**< Use a combination of both energy detection and carrier sense. */
@ -210,8 +209,6 @@ const struct radio_driver rf230_driver;
int rf230_init(void);
void rf230_warm_reset(void);
void rf230_start_sneeze(void);
//int rf230_on(void);
//int rf230_off(void);
void rf230_set_channel(uint8_t channel);
void rf230_listen_channel(uint8_t channel);
uint8_t rf230_get_channel(void);

23
platform/avr-atmega128rfa1/contiki-conf.h
View File

@ -137,7 +137,7 @@ typedef unsigned short uip_stats_t;
/* Network setup */
/* TX routine passes the cca/ack result in the return parameter */
#define RDC_CONF_HARDWARE_ACK 1
/* TX routine does automatic cca and optional backoff */
/* TX routine does automatic cca and optional backoffs */
#define RDC_CONF_HARDWARE_CSMA 1
/* Allow MCU sleeping between channel checks */
#define RDC_CONF_MCU_SLEEP 1
@ -193,8 +193,10 @@ typedef unsigned short uip_stats_t;
#define RF230_CONF_AUTOACK 1
/* Request 802.15.4 ACK on all packets sent (else autoretry). This is primarily for testing. */
#define SICSLOWPAN_CONF_ACK_ALL 0
/* Number of auto retry attempts 0-15 (0 implies don't use extended TX_ARET_ON mode with CCA) */
#define RF230_CONF_AUTORETRIES 2
/* 1 + Number of auto retry attempts 0-15 (0 implies don't use extended TX_ARET_ON mode) */
#define RF230_CONF_FRAME_RETRIES 2
/* Number of csma retry attempts 0-5 in extended tx mode (7 does immediate tx with no csma) */
#define RF230_CONF_CSMA_RETRIES 5
/* Default is one RAM buffer for received packets. More than one may benefit multiple TCP connections or ports */
#define RF230_CONF_RX_BUFFERS 3
#define SICSLOWPAN_CONF_FRAG 1
@ -250,9 +252,10 @@ typedef unsigned short uip_stats_t;
#define RTIMER_CONF_NESTED_INTERRUPTS 1
#define RF230_CONF_AUTOACK 1
/* A 0 here means non-extended mode; 1 means extended mode with no retry, >1 for retrys */
#define RF230_CONF_AUTORETRIES 1
/* A 0 here means no cca; 1 means extended mode with cca but no retry, >1 for backoff retrys */
#define RF230_CONF_CSMARETRIES 1
/* Contikimac strobes on its own, but hardware retries are faster */
#define RF230_CONF_FRAME_RETRIES 1
/* Long csma backoffs will compromise radio cycling; set to 0 for 1 csma */
#define RF230_CONF_CSMA_RETRIES 0
#define SICSLOWPAN_CONF_FRAG 1
#define SICSLOWPAN_CONF_MAXAGE 3
/* 211 bytes per queue buffer. Contikimac burst mode needs 15 for a 1280 byte MTU */
@ -263,7 +266,7 @@ typedef unsigned short uip_stats_t;
#define UIP_CONF_MAX_CONNECTIONS 2
#define UIP_CONF_MAX_LISTENPORTS 4
#define UIP_CONF_UDP_CONNS 5
#define UIP_CONF_DS6_NBR_NBU 4
#define UIP_CONF_DS6_NBR_NBU 20
#define UIP_CONF_DS6_DEFRT_NBU 2
#define UIP_CONF_DS6_PREFIX_NBU 3
#define UIP_CONF_DS6_ROUTE_NBU 4
@ -274,8 +277,10 @@ typedef unsigned short uip_stats_t;
#elif 1 /* cx-mac radio cycling */
/* RF230 does clear-channel assessment in extended mode (autoretries>0) */
#define RF230_CONF_AUTORETRIES 1
#if RF230_CONF_AUTORETRIES
/* These values are guesses */
#define RF230_CONF_FRAME_RETRIES 10
#define RF230_CONF_CSMA_RETRIES 2
#if RF230_CONF_CSMA_RETRIES
#define NETSTACK_CONF_MAC nullmac_driver
#else
#define NETSTACK_CONF_MAC csma_driver

16
platform/avr-raven/contiki-conf.h
View File

@ -204,9 +204,9 @@ typedef unsigned short uip_stats_t;
/* Request 802.15.4 ACK on all packets sent (else autoretry). This is primarily for testing. */
#define SICSLOWPAN_CONF_ACK_ALL 0
/* Number of auto retry attempts+1, 1-16. Set zero to disable extended TX_ARET_ON mode with CCA) */
#define RF230_CONF_AUTORETRIES 3
#define RF230_CONF_FRAME_RETRIES 3
/* Number of CSMA attempts 0-7. 802.15.4 2003 standard max is 5. */
#define RF230_CONF_CSMARETRIES 5
#define RF230_CONF_CSMA_RETRIES 5
/* CCA theshold energy -91 to -61 dBm (default -77). Set this smaller than the expected minimum rssi to avoid packet collisions */
/* The Jackdaw menu 'm' command is helpful for determining the smallest ever received rssi */
#define RF230_CONF_CCA_THRES -85
@ -262,9 +262,9 @@ typedef unsigned short uip_stats_t;
#define RTIMER_CONF_NESTED_INTERRUPTS 1
#define RF230_CONF_AUTOACK 1
/* A 0 here means non-extended mode; 1 means extended mode with no retry, >1 for retrys */
#define RF230_CONF_AUTORETRIES 1
/* A 0 here means no cca; 1 means extended mode with cca but no retry, >1 for backoff retrys */
#define RF230_CONF_CSMARETRIES 1
#define RF230_CONF_FRAME_RETRIES 1
/* A 0 here means cca but no retry, >1= for backoff retrys */
#define RF230_CONF_CSMA_RETRIES 1
#define SICSLOWPAN_CONF_FRAG 1
#define SICSLOWPAN_CONF_MAXAGE 3
/* 211 bytes per queue buffer. Contikimac burst mode needs 15 for a 1280 byte MTU */
@ -284,9 +284,9 @@ typedef unsigned short uip_stats_t;
#define UIP_CONF_DS6_AADDR_NBU 0
#elif 1 /* cx-mac radio cycling */
/* RF230 does clear-channel assessment in extended mode (autoretries>0) */
#define RF230_CONF_AUTORETRIES 1
#if RF230_CONF_AUTORETRIES
/* RF230 does clear-channel assessment in extended mode (frame retries>0) */
#define RF230_CONF_FRAME_RETRIES 1
#if RF230_CONF_FRAME_RETRIES
#define NETSTACK_CONF_MAC nullmac_driver
#else
#define NETSTACK_CONF_MAC csma_driver

12
platform/avr-ravenusb/contiki-conf.h
View File

@ -282,13 +282,13 @@ typedef unsigned short uip_stats_t;
/* Request 802.15.4 ACK on all packets sent by sicslowpan.c (else autoretry) */
/* Broadcasts will be duplicated by the retry count, since no one will ACK them! */
#define SICSLOWPAN_CONF_ACK_ALL 0
/* Number of auto retry attempts 0-15 (0 implies don't use extended TX_ARET_ON mode with CCA) */
#define RF230_CONF_AUTORETRIES 2
/* 1 + Number of auto retry attempts 0-15 (0 implies don't use extended TX_ARET_ON mode with CCA) */
#define RF230_CONF_FRAME_RETRIES 2
/* CCA theshold energy -91 to -61 dBm (default -77). Set this smaller than the expected minimum rssi to avoid packet collisions */
/* The Jackdaw menu 'm' command is helpful for determining the smallest ever received rssi */
#define RF230_CONF_CCA_THRES -85
/* Number of CSMA attempts 0-7. 802.15.4 2003 standard max is 5. */
#define RF230_CONF_CSMARETRIES 5
#define RF230_CONF_CSMA_RETRIES 5
/* Allow sneeze command from jackdaw menu. Useful for testing CCA on other radios */
/* During sneezing, any access to an RF230 register will hang the MCU and cause a watchdog reset */
/* The host interface, jackdaw menu and rf230_send routines are temporarily disabled to prevent this */
@ -310,9 +310,9 @@ typedef unsigned short uip_stats_t;
#define NETSTACK_CONF_RADIO rf230_driver
#define CHANNEL_802_15_4 26
/* Enable extended mode with autoack, but no csma/autoretry */
#define RF230_CONF_AUTORETRIES 1
#define RF230_CONF_FRAME_RETRIES 1
#define RF230_CONF_AUTOACK 1
#define RF230_CONF_CSMARETRIES 0
#define RF230_CONF_CSMA_RETRIES 0
#define SICSLOWPAN_CONF_FRAG 1
#define SICSLOWPAN_CONF_MAXAGE 3
/* Jackdaw has USB power, can be always listening */
@ -347,7 +347,7 @@ typedef unsigned short uip_stats_t;
#define NETSTACK_CONF_RADIO rf230_driver
#define CHANNEL_802_15_4 26
#define RF230_CONF_AUTOACK 1
#define RF230_CONF_AUTORETRIES 1
#define RF230_CONF_FRAME_RETRIES 1
#define SICSLOWPAN_CONF_FRAG 1
#define SICSLOWPAN_CONF_MAXAGE 3
#define CXMAC_CONF_ANNOUNCEMENTS 0

2
platform/avr-zigbit/contiki-conf.h
View File

@ -116,7 +116,7 @@ void clock_adjust_ticks(clock_time_t howmany);
#define NETSTACK_CONF_RADIO rf230_driver
#define CHANNEL_802_15_4 26
#define RF230_CONF_AUTOACK 1
#define RF230_CONF_AUTORETRIES 2
#define RF230_CONF_FRAME_RETRIES 2
#define SICSLOWPAN_CONF_FRAG 1
//Most browsers reissue GETs after 3 seconds which stops frag reassembly, longer MAXAGE does no good
#define SICSLOWPAN_CONF_MAXAGE 3