//#define ETH_CLK_MODE ETH_CLOCK_GPIO17_OUT //#define ETH_PHY_POWER 12 #include #include #include "EthLan8720Device.h" #include "../PreferencesKeys.h" #include "../Logger.h" #ifndef NUKI_HUB_UPDATER #include "../MqttTopics.h" #include "espMqttClient.h" #endif #include "../RestartReason.h" EthLan8720Device::EthLan8720Device(const String& hostname, Preferences* preferences, const IPConfiguration* ipConfiguration, const std::string& deviceName, uint8_t phy_addr, int power, int mdc, int mdio, eth_phy_type_t ethtype, eth_clock_mode_t clock_mode, bool use_mac_from_efuse) : NetworkDevice(hostname, ipConfiguration), _deviceName(deviceName), _phy_addr(phy_addr), _power(power), _mdc(mdc), _mdio(mdio), _type(ethtype), _clock_mode(clock_mode), _use_mac_from_efuse(use_mac_from_efuse) { _restartOnDisconnect = preferences->getBool(preference_restart_on_disconnect); #ifndef NUKI_HUB_UPDATER size_t caLength = preferences->getString(preference_mqtt_ca, _ca, TLS_CA_MAX_SIZE); size_t crtLength = preferences->getString(preference_mqtt_crt, _cert, TLS_CERT_MAX_SIZE); size_t keyLength = preferences->getString(preference_mqtt_key, _key, TLS_KEY_MAX_SIZE); _useEncryption = caLength > 1; // length is 1 when empty if(_useEncryption) { Log->println(F("MQTT over TLS.")); Log->println(_ca); _mqttClientSecure = new espMqttClientSecure(espMqttClientTypes::UseInternalTask::NO); _mqttClientSecure->setCACert(_ca); if(crtLength > 1 && keyLength > 1) // length is 1 when empty { Log->println(F("MQTT with client certificate.")); Log->println(_cert); Log->println(_key); _mqttClientSecure->setCertificate(_cert); _mqttClientSecure->setPrivateKey(_key); } } else { Log->println(F("MQTT without TLS.")); _mqttClient = new espMqttClient(espMqttClientTypes::UseInternalTask::NO); } if(preferences->getBool(preference_mqtt_log_enabled)) { _path = new char[200]; memset(_path, 0, sizeof(_path)); String pathStr = preferences->getString(preference_mqtt_lock_path); pathStr.concat(mqtt_topic_log); strcpy(_path, pathStr.c_str()); Log = new MqttLogger(*getMqttClient(), _path, MqttLoggerMode::MqttAndSerial); } #endif } const String EthLan8720Device::deviceName() const { return _deviceName.c_str(); } void EthLan8720Device::initialize() { delay(250); WiFi.setHostname(_hostname.c_str()); #if (ESP_IDF_VERSION < ESP_IDF_VERSION_VAL(5, 0, 0)) _hardwareInitialized = ETH.begin(_phy_addr, _power, _mdc, _mdio, _type, _clock_mode, _use_mac_from_efuse); #elif CONFIG_IDF_TARGET_ESP32 _hardwareInitialized = ETH.begin(_type, _phy_addr, _mdc, _mdio, _power, _clock_mode); #else _hardwareInitialized = false; #endif ETH.setHostname(_hostname.c_str()); if(!_ipConfiguration->dhcpEnabled()) { ETH.config(_ipConfiguration->ipAddress(), _ipConfiguration->defaultGateway(), _ipConfiguration->subnet(), _ipConfiguration->dnsServer()); } WiFi.onEvent([&](WiFiEvent_t event, WiFiEventInfo_t info) { if(event == ARDUINO_EVENT_WIFI_STA_DISCONNECTED) { onDisconnected(); } }); } void EthLan8720Device::reconfigure() { delay(200); restartEsp(RestartReason::ReconfigureLAN8720); } bool EthLan8720Device::supportsEncryption() { return true; } bool EthLan8720Device::isConnected() { return ETH.linkUp(); } ReconnectStatus EthLan8720Device::reconnect() { if(!_hardwareInitialized) { return ReconnectStatus::CriticalFailure; } delay(200); return isConnected() ? ReconnectStatus::Success : ReconnectStatus::Failure; } void EthLan8720Device::onDisconnected() { if(_restartOnDisconnect && (millis() > 60000)) restartEsp(RestartReason::RestartOnDisconnectWatchdog); reconnect(); } int8_t EthLan8720Device::signalStrength() { return -1; } String EthLan8720Device::localIP() { return ETH.localIP().toString(); } String EthLan8720Device::BSSIDstr() { return ""; }