MeshCore/variants/rak3401/target.cpp
2026-01-13 10:06:50 -08:00

66 lines
1.7 KiB
C++

#include <Arduino.h>
#include "target.h"
#include <helpers/ArduinoHelpers.h>
RAK3401Board board;
#ifndef PIN_USER_BTN
#define PIN_USER_BTN (-1)
#endif
#ifdef DISPLAY_CLASS
DISPLAY_CLASS display;
MomentaryButton user_btn(PIN_USER_BTN, 1000, true, true);
#if defined(PIN_USER_BTN_ANA)
MomentaryButton analog_btn(PIN_USER_BTN_ANA, 1000, 20);
#endif
#endif
// RAK3401 uses SPI1 for the RAK13302 LoRa module
// Note: nRF52 doesn't have a separate SPI1 object, so we use SPI but configure it with SPI1 pins
RADIO_CLASS radio = new Module(P_LORA_NSS, P_LORA_DIO_1, P_LORA_RESET, P_LORA_BUSY, SPI);
WRAPPER_CLASS radio_driver(radio, board);
VolatileRTCClock fallback_clock;
AutoDiscoverRTCClock rtc_clock(fallback_clock);
#if ENV_INCLUDE_GPS
#include <helpers/sensors/MicroNMEALocationProvider.h>
MicroNMEALocationProvider nmea = MicroNMEALocationProvider(Serial1);
EnvironmentSensorManager sensors = EnvironmentSensorManager(nmea);
#else
EnvironmentSensorManager sensors;
#endif
bool radio_init() {
rtc_clock.begin(Wire);
// Configure SPI with SPI1 pins for RAK13302
// nRF52 uses the same SPI peripheral but with different pin assignments
SPI.setPins(P_LORA_MISO, P_LORA_SCLK, P_LORA_MOSI);
SPI.begin();
return radio.std_init(&SPI);
}
uint32_t radio_get_rng_seed() {
return radio.random(0x7FFFFFFF);
}
void radio_set_params(float freq, float bw, uint8_t sf, uint8_t cr) {
radio.setFrequency(freq);
radio.setSpreadingFactor(sf);
radio.setBandwidth(bw);
radio.setCodingRate(cr);
}
void radio_set_tx_power(uint8_t dbm) {
radio.setOutputPower(dbm);
}
mesh::LocalIdentity radio_new_identity() {
RadioNoiseListener rng(radio);
return mesh::LocalIdentity(&rng); // create new random identity
}