/* HomeKit Door Homekit */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include static const char *TAG = "HAP door"; #define DOOR_TASK_PRIORITY 1 #define DOOR_TASK_STACKSIZE 4 * 1024 #define DOOR_TASK_NAME "hap_door" #define RESET_NETWORK_BUTTON_TIMEOUT 3 #define DOOR_LOCK_GPIO_LOCKED 0 #define DOOR_LOCK_GPIO_UNLOCKED 1 #define HAP_LOCK_TARGET_STATE_UNSECURED 0 #define HAP_LOCK_TARGET_STATE_SECURED 1 static hap_val_t HAP_LOCK_CURRENT_STATE_UNSECURED = {.u = 0}; static hap_val_t HAP_LOCK_CURRENT_STATE_SECURED = {.u = 1}; static hap_val_t HAP_PROGRAMMABLE_SWITCH_EVENT_SINGLE_PRESS = {.u = 0}; #define ESP_INTR_FLAG_DEFAULT 0 static const uint8_t DOOR_EVENT_QUEUE_BELL = 1; static const uint8_t DOOR_EVENT_QUEUE_UNLOCK = 2; static const uint8_t DOOR_EVENT_QUEUE_LOCK = 3; static const uint8_t DOOR_EVENT_QUEUE_LOCK_TIMEOUT = 4; static uint8_t tlv8buff[128]; static hap_data_val_t null_tlv8 = { .buf = &tlv8buff, .buflen = 127 }; static xQueueHandle door_event_queue = NULL; static TimerHandle_t door_lock_timer = NULL; /** * @brief the recover door bell gpio interrupt function */ static void IRAM_ATTR door_bell_isr(void* arg) { xQueueSendFromISR(door_event_queue, (void*) &DOOR_EVENT_QUEUE_BELL, NULL); } /** * Enable a GPIO Pin for Door Bell */ static void door_bell_init(uint32_t key_gpio_pin) { gpio_config_t io_conf; io_conf.intr_type = GPIO_INTR_NEGEDGE; /* Interrupt for falling edge */ io_conf.pin_bit_mask = 1 << key_gpio_pin; /* Bit mask of the pins */ io_conf.mode = GPIO_MODE_INPUT; /* Set as input mode */ io_conf.pull_up_en = GPIO_PULLUP_DISABLE; /* Disable internal pull-up */ io_conf.pull_down_en = GPIO_PULLDOWN_ENABLE; /* Enable internal pull-down */ gpio_config(&io_conf); /* Set the GPIO configuration */ gpio_install_isr_service(ESP_INTR_FLAG_DEFAULT); /* Install gpio isr service */ gpio_isr_handler_add(key_gpio_pin, door_bell_isr, (void*)key_gpio_pin); /* Hook isr handler for specified gpio pin */ } /** * Enable a GPIO Pin for Door Lock */ static void door_lock_init(uint32_t key_gpio_pin) { gpio_config_t io_conf; io_conf.intr_type = GPIO_INTR_DISABLE; /* Interrupt for falling edge */ io_conf.pin_bit_mask = 1 << key_gpio_pin; /* Bit mask of the pins */ io_conf.mode = GPIO_MODE_OUTPUT; /* Set as input mode */ io_conf.pull_up_en = GPIO_PULLUP_DISABLE; /* Disable internal pull-up */ io_conf.pull_down_en = GPIO_PULLDOWN_ENABLE; /* Enable internal pull-down */ gpio_config(&io_conf); /* Set the GPIO configuration */ } /** * Enable a GPIO Pin for LED */ static void led_init(uint32_t key_gpio_pin) { gpio_config_t io_conf; io_conf.intr_type = GPIO_INTR_DISABLE; /* Interrupt for falling edge */ io_conf.pin_bit_mask = 1 << key_gpio_pin; /* Bit mask of the pins */ io_conf.mode = GPIO_MODE_OUTPUT; /* Set as input mode */ io_conf.pull_up_en = GPIO_PULLUP_DISABLE; /* Disable internal pull-up */ io_conf.pull_down_en = GPIO_PULLDOWN_ENABLE; /* Enable internal pull-down */ gpio_config(&io_conf); /* Set the GPIO configuration */ } static void reset_network_handler(void* arg) { ESP_LOGI(TAG, "Resetting network"); hap_reset_network(); } static void reset_init(uint32_t key_gpio_pin) { button_handle_t handle = iot_button_create(key_gpio_pin, BUTTON_ACTIVE_LOW); iot_button_add_on_release_cb(handle, RESET_NETWORK_BUTTON_TIMEOUT, reset_network_handler, NULL); } /** * Initialize the Door Hardware. Here, we just enebale the Door Bell detection. */ void door_hardware_init(gpio_num_t reset_gpio_num, gpio_num_t door_bell_gpio_num, gpio_num_t door_lock_gpio_num, gpio_num_t led_gpio_num) { int queue_len = 4; int queue_item_size = sizeof(uint8_t); door_event_queue = xQueueCreate(queue_len, queue_item_size); if (door_event_queue != NULL) { /* reset_init(reset_gpio_num); */ door_bell_init(door_bell_gpio_num); door_lock_init(door_lock_gpio_num); led_init(led_gpio_num); } } /* Mandatory identify routine for the accessory. * In a real accessory, something like LED blink should be implemented * got visual identification */ static int door_identify(hap_acc_t *ha) { ESP_LOGI(TAG, "Accessory identified"); for (int i = 0; i < 3; i++) { gpio_set_level(CONFIG_HOMEKIT_DOOR_LED_GPIO_PIN, 1); vTaskDelay(pdMS_TO_TICKS(500)); gpio_set_level(CONFIG_HOMEKIT_DOOR_LED_GPIO_PIN, 0); vTaskDelay(pdMS_TO_TICKS(500)); } return HAP_SUCCESS; } static void door_bell_ring(hap_char_t *door_bell_current_state) { adc1_config_width(ADC_WIDTH_BIT_12); adc1_config_channel_atten(ADC1_CHANNEL_2, ADC_ATTEN_DB_0); int val = adc1_get_raw(ADC1_CHANNEL_2); /* int level = gpio_get_level(CONFIG_HOMEKIT_DOOR_BELL_GPIO_PIN); */ ESP_LOGI(TAG, "Door bell ring event processed [%d]", val); /* hap_char_update_val(door_bell_current_state, &HAP_PROGRAMMABLE_SWITCH_EVENT_SINGLE_PRESS); */ } static void door_unlock(hap_char_t *door_lock_current_state) { ESP_LOGI(TAG, "Door unlock event processed"); gpio_set_level(CONFIG_HOMEKIT_DOOR_LOCK_GPIO_PIN, DOOR_LOCK_GPIO_UNLOCKED); hap_char_update_val(door_lock_current_state, &HAP_LOCK_CURRENT_STATE_UNSECURED); xTimerReset(door_lock_timer, 10); } static void door_lock(hap_char_t *door_lock_current_state) { ESP_LOGI(TAG, "Door lock event processed"); gpio_set_level(CONFIG_HOMEKIT_DOOR_LOCK_GPIO_PIN, DOOR_LOCK_GPIO_LOCKED); hap_char_update_val(door_lock_current_state, &HAP_LOCK_CURRENT_STATE_SECURED); } static void door_lock_timeout(hap_char_t *door_lock_target_state) { ESP_LOGI(TAG, "Door lock timeout event processed"); xQueueSendToBack(door_event_queue, (void*) &DOOR_EVENT_QUEUE_LOCK, 10); hap_val_t target_lock_secured = {.u = HAP_LOCK_TARGET_STATE_SECURED}; hap_char_update_val(door_lock_target_state, &target_lock_secured); } static int door_lock_write_cb(hap_write_data_t write_data[], int count, void *serv_priv, void *write_priv) { int i, ret = HAP_SUCCESS; hap_write_data_t *write; for (i = 0; i < count; i++) { write = &write_data[i]; if (!strcmp(hap_char_get_type_uuid(write->hc), HAP_CHAR_UUID_LOCK_TARGET_STATE)) { ESP_LOGI(TAG, "Received Write. Door lock %d", write->val.u); switch (write->val.u) { case HAP_LOCK_TARGET_STATE_UNSECURED: xQueueSendToBack(door_event_queue, (void*) &DOOR_EVENT_QUEUE_UNLOCK, 10); break; case HAP_LOCK_TARGET_STATE_SECURED: xQueueSendToBack(door_event_queue, (void*) &DOOR_EVENT_QUEUE_LOCK, 10); break; } /* Update target state */ hap_char_update_val(write->hc, &(write->val)); *(write->status) = HAP_STATUS_SUCCESS; } else { *(write->status) = HAP_STATUS_RES_ABSENT; } } return ret; } static void door_lock_timer_cb(TimerHandle_t timer) { ESP_LOGI(TAG, "Door lock timer fired - event queued"); xQueueSendToBack(door_event_queue, (void*) &DOOR_EVENT_QUEUE_LOCK_TIMEOUT, 10); } /*The main thread for handling the Door Accessory */ static void door_thread_entry(void *p) { hap_init(HAP_TRANSPORT_WIFI); /* Initialize the HAP core */ /* Initialise the mandatory parameters for Accessory which will be added as * the mandatory services internally */ hap_acc_cfg_t cfg = { .name = "Door", .manufacturer = "Luke Hoersten", .model = "Esp32Door01", .serial_num = "001122334455", .fw_rev = "0.1.0", .hw_rev = NULL, .pv = "1.1.0", .identify_routine = door_identify, .cid = HAP_CID_DOOR, }; hap_acc_t *door_accessory = hap_acc_create(&cfg); /* Create accessory object */ /* Add a dummy Product Data */ uint8_t product_data[] = {'E','S','P','3','2','H','A','P'}; hap_acc_add_product_data(door_accessory, product_data, sizeof(product_data)); hap_serv_t *door_bell_service = hap_serv_doorbell_create(0); hap_serv_add_char(door_bell_service, hap_char_name_create("Doorbell")); hap_char_t *door_bell_current_state = hap_serv_get_char_by_uuid(door_bell_service, HAP_CHAR_UUID_PROGRAMMABLE_SWITCH_EVENT); hap_serv_t *door_lock_service = hap_serv_lock_mechanism_create(HAP_LOCK_CURRENT_STATE_SECURED.u, HAP_LOCK_TARGET_STATE_SECURED); hap_serv_add_char(door_lock_service, hap_char_name_create("Door Lock")); hap_char_t *door_lock_current_state = hap_serv_get_char_by_uuid(door_lock_service, HAP_CHAR_UUID_LOCK_CURRENT_STATE); hap_char_t *door_lock_target_state = hap_serv_get_char_by_uuid(door_lock_service, HAP_CHAR_UUID_LOCK_TARGET_STATE); /* Get pointer to the door in use characteristic which we need to monitor for state changes */ hap_serv_set_write_cb(door_lock_service, door_lock_write_cb); /* Set the write callback for the service */ hap_acc_add_serv(door_accessory, door_bell_service); hap_acc_add_serv(door_accessory, door_lock_service); hap_add_accessory(door_accessory); /* Add the Accessory to the HomeKit Database */ /* Initialize the appliance specific hardware. This enables out-in-use detection */ door_hardware_init(CONFIG_HOMEKIT_DOOR_WIFI_RESET_GPIO_PIN, CONFIG_HOMEKIT_DOOR_BELL_GPIO_PIN, CONFIG_HOMEKIT_DOOR_LOCK_GPIO_PIN, CONFIG_HOMEKIT_DOOR_LED_GPIO_PIN); /* For production accessories, the setup code shouldn't be programmed on to * the device. Instead, the setup info, derived from the setup code must * be used. Use the factory_nvs_gen utility to generate this data and then * flash it into the factory NVS partition. * * By default, the setup ID and setup info will be read from the factory_nvs * Flash partition and so, is not required to set here explicitly. * * However, for testing purpose, this can be overridden by using hap_set_setup_code() * and hap_set_setup_id() APIs, as has been done here. */ #ifdef CONFIG_HOMEKIT_USE_HARDCODED_SETUP_CODE /* Unique Setup code of the format xxx-xx-xxx. Default: 111-22-333 */ hap_set_setup_code(CONFIG_HOMEKIT_SETUP_CODE); /* Unique four character Setup Id. Default: ES32 */ hap_set_setup_id(CONFIG_HOMEKIT_SETUP_ID); #ifdef CONFIG_APP_WIFI_USE_WAC_PROVISIONING app_hap_setup_payload(CONFIG_HOMEKIT_SETUP_CODE, CONFIG_HOMEKIT_SETUP_ID, true, cfg.cid); #else app_hap_setup_payload(CONFIG_HOMEKIT_SETUP_CODE, CONFIG_HOMEKIT_SETUP_ID, false, cfg.cid); #endif #endif hap_enable_mfi_auth(HAP_MFI_AUTH_HW); /* Enable Hardware MFi authentication (applicable only for MFi variant of SDK) */ app_wifi_init(); /* Initialize Wi-Fi */ hap_start(); /* After all the initializations are done, start the HAP core */ app_wifi_start(portMAX_DELAY); /* Start Wi-Fi */ door_lock_timer = xTimerCreate("door_lock_timer", pdMS_TO_TICKS(CONFIG_HOMEKIT_DOOR_LOCK_TIMEOUT), pdFALSE, 0, door_lock_timer_cb); /* Listen for doorbell state change events. Other read/write functionality will be handled by the HAP Core. When the * doorbell in Use GPIO goes low, it means doorbell is not ringing. When the Door in Use GPIO goes high, it means * the doorbell is ringing. Applications can define own logic as per their hardware. */ uint8_t door_event_queue_item = DOOR_EVENT_QUEUE_LOCK; while (1) { if (xQueueReceive(door_event_queue, &door_event_queue_item, portMAX_DELAY) == pdFALSE) { ESP_LOGI(TAG, "Door event queue trigger FAIL"); } else { switch(door_event_queue_item) { case DOOR_EVENT_QUEUE_BELL: door_bell_ring(door_bell_current_state); break; case DOOR_EVENT_QUEUE_UNLOCK: door_unlock(door_lock_current_state); break; case DOOR_EVENT_QUEUE_LOCK: door_lock(door_lock_current_state); break; case DOOR_EVENT_QUEUE_LOCK_TIMEOUT: door_lock_timeout(door_lock_target_state); break; } } } } void app_main() { xTaskCreate(door_thread_entry, DOOR_TASK_NAME, DOOR_TASK_STACKSIZE, NULL, DOOR_TASK_PRIORITY, NULL); }