/// © MiroZ 2024 #include "app_config.h" #include "TaskMgr.h" #include "Sensors.h" #include "Buffers.h" #include "SensorData.h" static const char *TAG = "sensors"; #define ms_to_us(ms) ((ms)*1000) struct RADAR_MQTT_BLOCK { }; Sensors::Sensors(AppIF & app_if) : m_app_if(app_if) { } void Sensors::start() { m_bmp280 = new Bmp280(Wire); m_bme68x = new Bme68x(Wire); m_ld2410 = new LD2410(); if(!m_bmp280->init()) ESP_LOGE(TAG, "bmp280 sensor error"); if(!m_bme68x->init()) ESP_LOGE(TAG, "bme68x sensor error"); if(!m_ld2410->init()) ESP_LOGE(TAG, "ld2410 sensor error"); assert(m_i2c1_task = TaskMgr::getInstance().createTask(std::bind(&Sensors::run_i2c_1, this), I2C1_TASK_NAME, I2C1_TASK_STACK_SIZE, I2C1_TASK_PRIORITY, I2C1_TASK_CORE)); assert(m_i2c2_task = TaskMgr::getInstance().createTask(std::bind(&Sensors::run_uart, this), UART_TASK_NAME, UART_TASK_STACK_SIZE, UART_TASK_PRIORITY, UART_TASK_CORE)); } // handles pressure and voc sensor void Sensors::run_i2c_1() { while(true) { // m_bmp280->read(); // m_bme68x->read(); delay(10); } } // handles radar only void Sensors::run_uart() { int64_t last_read = esp_timer_get_time(); while(true) { bool has_read = m_ld2410->read(); if(has_read && esp_timer_get_time() - last_read >= ms_to_us(10000-50)) { int64_t now = esp_timer_get_time(); ESP_LOGI(TAG, "count %d", (int)m_ld2410->stationary_energy[0]); if(m_ld2410->stationary_energy[0] != 0) { struct msg { struct MESSAGE_HEADER header; struct RADAR radar; }; struct msg m; HEADER_MESSAGE_P(&m.header); RADAR_MESSAGE_P(&m.radar); for(int n = 0; n < 24; n++) { if(n < 14) m.radar.vals[n] = m_ld2410->motion_energy[n] > 0xffff ? 0xffff : (uint16_t)m_ld2410->motion_energy[n]; else m.radar.vals[n] = m_ld2410->stationary_energy[n-14] > 0xffff ? 0xffff : (uint16_t)m_ld2410->stationary_energy[n-14]; } m_app_if.getBuffer()->put_block((uint8_t*)&m, sizeof(m)); ESP_LOGI(TAG, "delta t: %lld", (now - last_read)/1000); last_read = now; #if 0 ESP_LOGI("stationary energy", "%0.0f %0.0f %0.0f %0.0f %0.0f %0.0f %0.0f", m_ld2410->stationary_energy[3]/m_ld2410->stationary_energy[0], m_ld2410->stationary_energy[4]/m_ld2410->stationary_energy[0], m_ld2410->stationary_energy[5]/m_ld2410->stationary_energy[0], m_ld2410->stationary_energy[6]/m_ld2410->stationary_energy[0], m_ld2410->stationary_energy[7]/m_ld2410->stationary_energy[0], m_ld2410->stationary_energy[8]/m_ld2410->stationary_energy[0], m_ld2410->stationary_energy[9]/m_ld2410->stationary_energy[0]); ESP_LOGW("motion energy", "%0.0f %0.0f %0.0f %0.0f %0.0f %0.0f %0.0f %0.0f %0.0f", m_ld2410->motion_energy[5]/m_ld2410->motion_energy[0], m_ld2410->motion_energy[6]/m_ld2410->motion_energy[0], m_ld2410->motion_energy[7]/m_ld2410->motion_energy[0], m_ld2410->motion_energy[8]/m_ld2410->motion_energy[0], m_ld2410->motion_energy[9]/m_ld2410->motion_energy[0], m_ld2410->motion_energy[10]/m_ld2410->motion_energy[0], m_ld2410->motion_energy[11]/m_ld2410->motion_energy[0], m_ld2410->motion_energy[12]/m_ld2410->motion_energy[0], m_ld2410->motion_energy[13]/m_ld2410->motion_energy[0]); #endif m_ld2410->resetGates(); } } if(has_read) // next read will happen in 100ms. sleep untill just before then. delay(95); } }