#pragma once #include #include #include #include #include #ifndef AP_FEATURE_BOARD_DETECT #if defined(HAL_CHIBIOS_ARCH_FMUV3) || defined(HAL_CHIBIOS_ARCH_FMUV4) || defined(HAL_CHIBIOS_ARCH_FMUV5) || defined(HAL_CHIBIOS_ARCH_MINDPXV2) || defined(HAL_CHIBIOS_ARCH_FMUV4PRO) || defined(HAL_CHIBIOS_ARCH_BRAINV51) || defined(HAL_CHIBIOS_ARCH_BRAINV52) || defined(HAL_CHIBIOS_ARCH_UBRAINV51) || defined(HAL_CHIBIOS_ARCH_COREV10) || defined(HAL_CHIBIOS_ARCH_BRAINV54) #define AP_FEATURE_BOARD_DETECT 1 #else #define AP_FEATURE_BOARD_DETECT 0 #endif #endif #ifndef AP_FEATURE_RTSCTS #define AP_FEATURE_RTSCTS 0 #endif #ifndef AP_FEATURE_SBUS_OUT #define AP_FEATURE_SBUS_OUT 0 #endif #if HAL_RCINPUT_WITH_AP_RADIO #include #endif #ifndef HAL_WATCHDOG_ENABLED_DEFAULT #define HAL_WATCHDOG_ENABLED_DEFAULT false #endif #if HAL_HAVE_IMU_HEATER #ifndef HAL_IMUHEAT_P_DEFAULT #define HAL_IMUHEAT_P_DEFAULT 200 #endif #ifndef HAL_IMUHEAT_I_DEFAULT #define HAL_IMUHEAT_I_DEFAULT 0.3 #endif #endif extern "C" typedef int (*main_fn_t)(int argc, char **); class AP_BoardConfig { public: AP_BoardConfig(); /* Do not allow copies */ AP_BoardConfig(const AP_BoardConfig &other) = delete; AP_BoardConfig &operator=(const AP_BoardConfig&) = delete; // singleton support static AP_BoardConfig *get_singleton(void) { return _singleton; } void init(void); void init_safety(void); static const struct AP_Param::GroupInfo var_info[]; // notify user of a fatal startup error related to available sensors. static void config_error(const char *reason, ...) FMT_PRINTF(1, 2) NORETURN; // notify user of a non-fatal startup error related to allocation failures. static void allocation_error(const char *reason, ...) FMT_PRINTF(1, 2) NORETURN; // permit other libraries (in particular, GCS_MAVLink) to detect // that we're never going to boot properly: static bool in_config_error(void) { return _in_error_loop; } // valid types for BRD_TYPE: these values need to be in sync with the // values from the param description enum px4_board_type { BOARD_TYPE_UNKNOWN = -1, PX4_BOARD_AUTO = 0, PX4_BOARD_PX4V1 = 1, PX4_BOARD_PIXHAWK = 2, PX4_BOARD_PIXHAWK2 = 3, PX4_BOARD_PIXRACER = 4, PX4_BOARD_PHMINI = 5, PX4_BOARD_PH2SLIM = 6, PX4_BOARD_AEROFC = 13, PX4_BOARD_PIXHAWK_PRO = 14, PX4_BOARD_AUAV21 = 20, PX4_BOARD_PCNC1 = 21, PX4_BOARD_MINDPXV2 = 22, PX4_BOARD_SP01 = 23, PX4_BOARD_FMUV5 = 24, VRX_BOARD_BRAIN51 = 30, VRX_BOARD_BRAIN52 = 32, VRX_BOARD_BRAIN52E = 33, VRX_BOARD_UBRAIN51 = 34, VRX_BOARD_UBRAIN52 = 35, VRX_BOARD_CORE10 = 36, VRX_BOARD_BRAIN54 = 38, PX4_BOARD_FMUV6 = 39, PX4_BOARD_OLDDRIVERS = 100, }; // set default value for BRD_SAFETY_MASK void set_default_safety_ignore_mask(uint16_t mask); static enum px4_board_type get_board_type(void) { #if AP_FEATURE_BOARD_DETECT return px4_configured_board; #else return BOARD_TYPE_UNKNOWN; #endif } // ask if IOMCU is enabled. This is a uint8_t to allow // developer debugging by setting BRD_IO_ENABLE=100 to avoid the // crc check of IO firmware on startup static uint8_t io_enabled(void) { #if HAL_WITH_IO_MCU return _singleton?uint8_t(_singleton->state.io_enable.get()):0; #else return 0; #endif } // get alternative config selection uint8_t get_alt_config(void) { return uint8_t(_alt_config.get()); } enum board_safety_button_option { BOARD_SAFETY_OPTION_BUTTON_ACTIVE_SAFETY_OFF= (1 << 0), BOARD_SAFETY_OPTION_BUTTON_ACTIVE_SAFETY_ON= (1 << 1), BOARD_SAFETY_OPTION_BUTTON_ACTIVE_ARMED= (1 << 2), BOARD_SAFETY_OPTION_SAFETY_ON_DISARM= (1 << 3), }; // return safety button options. Bits are in enum board_safety_button_option uint16_t get_safety_button_options(void) const { return uint16_t(state.safety_option.get()); } // return the value of BRD_SAFETY_MASK uint16_t get_safety_mask(void) const { #if AP_FEATURE_BOARD_DETECT || defined(AP_FEATURE_BRD_PWM_COUNT_PARAM) return uint16_t(state.ignore_safety_channels.get()); #else return 0; #endif } #if HAL_HAVE_BOARD_VOLTAGE // get minimum board voltage static float get_minimum_board_voltage(void) { return _singleton?_singleton->_vbus_min.get():0; } #endif #if HAL_HAVE_SERVO_VOLTAGE // get minimum servo voltage static float get_minimum_servo_voltage(void) { return _singleton?_singleton->_vservo_min.get():0; } #endif #if CONFIG_HAL_BOARD == HAL_BOARD_CHIBIOS static uint8_t get_sdcard_slowdown(void) { return _singleton?_singleton->_sdcard_slowdown.get():0; } #endif enum board_options { BOARD_OPTION_WATCHDOG = (1 << 0), DISABLE_FTP = (1<<1), ALLOW_SET_INTERNAL_PARM = (1<<2), BOARD_OPTION_DEBUG_ENABLE = (1<<3), UNLOCK_FLASH = (1<<4), WRITE_PROTECT_FLASH = (1<<5), WRITE_PROTECT_BOOTLOADER = (1<<6), }; // return true if ftp is disabled static bool ftp_disabled(void) { return _singleton?(_singleton->_options & DISABLE_FTP)!=0:1; } // return true if watchdog enabled static bool watchdog_enabled(void) { return _singleton?(_singleton->_options & BOARD_OPTION_WATCHDOG)!=0:HAL_WATCHDOG_ENABLED_DEFAULT; } // return true if flash should be unlocked static bool unlock_flash(void) { return _singleton && (_singleton->_options & UNLOCK_FLASH) != 0; } // return true if flash should be write protected static bool protect_flash(void) { return _singleton && (_singleton->_options & WRITE_PROTECT_FLASH) != 0; } // return true if bootloader should be write protected static bool protect_bootloader(void) { return _singleton && (_singleton->_options & WRITE_PROTECT_BOOTLOADER) != 0; } // return true if we allow setting of internal parameters (for developers) static bool allow_set_internal_parameters(void) { return _singleton?(_singleton->_options & ALLOW_SET_INTERNAL_PARM)!=0:false; } // handle press of safety button. Return true if safety state // should be toggled bool safety_button_handle_pressed(uint8_t press_count); #if HAL_HAVE_IMU_HEATER void set_imu_temp(float current_temp_c); // heater duty cycle is as a percentage (0 to 100) float get_heater_duty_cycle(void) const { return heater.output; } // getters for current temperature and min arming temperature, return false if heater disabled bool get_board_heater_temperature(float &temperature) const; bool get_board_heater_arming_temperature(int8_t &temperature) const; #endif private: static AP_BoardConfig *_singleton; AP_Int16 vehicleSerialNumber; struct { AP_Int8 safety_enable; AP_Int16 safety_option; AP_Int32 ignore_safety_channels; #if CONFIG_HAL_BOARD == HAL_BOARD_CHIBIOS AP_Int8 ser_rtscts[6]; AP_Int8 sbus_out_rate; #endif AP_Int8 board_type; AP_Int8 io_enable; } state; #if AP_FEATURE_BOARD_DETECT static enum px4_board_type px4_configured_board; void board_setup_drivers(void); bool spi_check_register(const char *devname, uint8_t regnum, uint8_t value, uint8_t read_flag = 0x80); bool spi_check_register_inv2(const char *devname, uint8_t regnum, uint8_t value, uint8_t read_flag = 0x80); void validate_board_type(void); void board_autodetect(void); bool check_ms5611(const char* devname); #endif // AP_FEATURE_BOARD_DETECT void board_init_safety(void); void board_init_debug(void); void board_setup_uart(void); void board_setup_sbus(void); void board_setup(void); // common method to throw errors static void throw_error(const char *err_str, const char *fmt, va_list arg) NORETURN; static bool _in_error_loop; #if HAL_HAVE_IMU_HEATER struct { AC_PI pi_controller; AP_Int8 imu_target_temperature; uint32_t last_update_ms; uint16_t count; float sum; float output; uint32_t last_log_ms; float temperature; AP_Int8 imu_arming_temperature_margin_low; } heater; #endif #if HAL_RCINPUT_WITH_AP_RADIO // direct attached radio AP_Radio _radio; #endif // real-time-clock; private because access is via the singleton AP_RTC rtc; #if HAL_HAVE_BOARD_VOLTAGE AP_Float _vbus_min; #endif #if HAL_HAVE_SERVO_VOLTAGE AP_Float _vservo_min; #endif AP_Int8 _pwm_volt_sel; #if CONFIG_HAL_BOARD == HAL_BOARD_CHIBIOS AP_Int8 _sdcard_slowdown; #endif AP_Int16 _boot_delay_ms; AP_Int32 _options; AP_Int8 _alt_config; }; namespace AP { AP_BoardConfig *boardConfig(void); };