#include #if CONFIG_HAL_BOARD == HAL_BOARD_SITL #include "RCOutput.h" #define ENABLE_DEBUG 0 #if ENABLE_DEBUG # include # define Debug(fmt, args ...) do {::printf("%s:%d: " fmt "\n", __FUNCTION__, __LINE__, ## args); } while (0) #else # define Debug(fmt, args ...) #endif using namespace HALSITL; void RCOutput::init() {} void RCOutput::set_freq(uint32_t chmask, uint16_t freq_hz) { Debug("set_freq(0x%04x, %u)\n", static_cast(chmask), static_cast(freq_hz)); _freq_hz = freq_hz; } uint16_t RCOutput::get_freq(uint8_t ch) { return _freq_hz; } void RCOutput::enable_ch(uint8_t ch) { if (!(_enable_mask & (1U << ch))) { Debug("enable_ch(%u)\n", ch); } _enable_mask |= 1U << ch; } void RCOutput::disable_ch(uint8_t ch) { if (_enable_mask & (1U << ch)) { Debug("disable_ch(%u)\n", ch); } _enable_mask &= ~1U << ch; } void RCOutput::write(uint8_t ch, uint16_t period_us) { if (ch < SITL_NUM_CHANNELS && (_enable_mask & (1U<pwm_output[ch] = period_us; } } } uint16_t RCOutput::read(uint8_t ch) { if (ch < SITL_NUM_CHANNELS) { return _sitlState->pwm_output[ch]; } return 0; } void RCOutput::read(uint16_t* period_us, uint8_t len) { memcpy(period_us, _sitlState->pwm_output, len * sizeof(uint16_t)); } void RCOutput::cork(void) { if (!_corked) { memcpy(_pending, _sitlState->pwm_output, SITL_NUM_CHANNELS * sizeof(uint16_t)); _corked = true; } } void RCOutput::push(void) { if (_corked) { memcpy(_sitlState->pwm_output, _pending, SITL_NUM_CHANNELS * sizeof(uint16_t)); _corked = false; } } #endif