zigbee-herdsman-converters/lib/exposes.js

Collection of device converters to be used with zigbee-herdsman

'use strict';
/* eslint max-len: 0 */

const assert = require('assert');
const constants = require('./constants');

class Base {
    withEndpoint(endpointName) {
        this.endpoint = endpointName;

        if (this.hasOwnProperty('property')) {
            this.property = `${this.property}_${this.endpoint}`;
        }

        if (this.features) {
            for (const feature of this.features) {
                if (feature.property) {
                    feature.property = `${feature.property}_${endpointName}`;
                    feature.endpoint = endpointName;
                }
            }
        }

        return this;
    }

    withAccess(a) {
        assert(this.hasOwnProperty('access'), 'Cannot add access if not defined yet');
        this.access = a;
        return this;
    }

    withProperty(property) {
        this.property = property;
        return this;
    }

    withDescription(description) {
        this.description = description;
        return this;
    }

    removeFeature(feature) {
        assert(this.features, 'Does not have any features');
        const f = this.features.find((f) => f.name === feature);
        assert(f, `Does not have feature '${feature}'`);
        this.features.splice(this.features.indexOf(f), 1);
        return this;
    }

    setAccess(feature, a) {
        assert(this.features, 'Does not have any features');
        const f = this.features.find((f) => f.name === feature);
        assert(f.access !== a, `Access mode not changed for '${f.name}'`);
        f.access = a;
        return this;
    }
}

class Switch extends Base {
    constructor() {
        super();
        this.type = 'switch';
        this.features = [];
    }

    withState(property, toggle, description, access=a.ALL, value_on='ON', value_off='OFF') {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        const feature = new Binary('state', access, value_on, value_off).withProperty(property).withDescription(description);
        if (toggle) {
            feature.withValueToggle('TOGGLE');
        }

        this.features.push(feature);
        return this;
    }
}

class Lock extends Base {
    constructor() {
        super();
        this.type = 'lock';
        this.features = [];
    }

    withState(property, valueOn, valueOff, description, access=a.ALL) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Binary('state', access, valueOn, valueOff).withProperty(property).withDescription(description));
        return this;
    }

    withLockState(property, description) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Enum('lock_state', access.STATE, ['not_fully_locked', 'locked', 'unlocked']).withProperty(property).withDescription(description));
        return this;
    }
}

class Binary extends Base {
    constructor(name, access, valueOn, valueOff) {
        super();
        this.type = 'binary';
        this.name = name;
        this.property = name;
        this.access = access;
        this.value_on = valueOn;
        this.value_off = valueOff;
    }

    withValueToggle(value) {
        this.value_toggle = value;
        return this;
    }
}

class Numeric extends Base {
    constructor(name, access) {
        super();
        this.type = 'numeric';
        this.name = name;
        this.property = name;
        this.access = access;
    }

    withUnit(unit) {
        this.unit = unit;
        return this;
    }

    withValueMax(value) {
        this.value_max = value;
        return this;
    }

    withValueMin(value) {
        this.value_min = value;
        return this;
    }

    withValueStep(value) {
        this.value_step = value;
        return this;
    }

    withPreset(name, value, description) {
        if (!this.presets) this.presets = [];
        this.presets.push({name, value, description});
        return this;
    }
}

class Enum extends Base {
    constructor(name, access, values) {
        super();
        this.type = 'enum';
        this.name = name;
        this.property = name;
        this.access = access;
        this.values = values;
    }
}

class Text extends Base {
    constructor(name, access) {
        super();
        this.type = 'text';
        this.name = name;
        this.property = name;
        this.access = access;
    }
}

class Composite extends Base {
    constructor(name, property) {
        super();
        this.type = 'composite';
        this.property = property;
        this.name = name;
        this.features = [];
    }

    withFeature(feature) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(feature);
        return this;
    }
}

class Light extends Base {
    constructor() {
        super();
        this.type = 'light';
        this.features = [];
        this.features.push(new Binary('state', access.ALL, 'ON', 'OFF').withValueToggle('TOGGLE').withDescription('On/off state of this light'));
    }

    withBrightness() {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Numeric('brightness', access.ALL).withValueMin(0).withValueMax(254).withDescription('Brightness of this light'));
        return this;
    }

    withLevelConfig() {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        const levelConfig = new Composite('level_config', 'level_config')
            .withFeature(new Numeric('on_off_transition_time', access.ALL)
                .withDescription('Represents the time taken to move to or from the target level when On of Off commands are received by an On/Off cluster'),
            )
            .withFeature(new Numeric('on_transition_time', access.ALL)
                .withPreset('disabled', 65535, 'Use on_off_transition_time value')
                .withDescription('Represents the time taken to move the current level from the minimum level to the maximum level when an On command is received'),
            )
            .withFeature(new Numeric('off_transition_time', access.ALL)
                .withPreset('disabled', 65535, 'Use on_off_transition_time value')
                .withDescription('Represents the time taken to move the current level from the maximum level to the minimum level when an Off command is received'),
            )
            .withFeature(new Numeric('current_level_startup', access.ALL)
                .withValueMin(1).withValueMax(254)
                .withPreset('minimum', 0, 'Use minimum permitted value')
                .withPreset('previous', 255, 'Use previous value')
                .withDescription('Defines the desired startup level for a device when it is supplied with power'),
            )
            .withDescription('Configure genLevelCtrl');
        this.features.push(levelConfig);

        return this;
    }

    withColorTemp(range) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        const rangeProvided = range !== undefined;
        if (range === undefined) {
            range = [150, 500];
        }

        const feature = new Numeric('color_temp', access.ALL).withUnit('mired').withValueMin(range[0]).withValueMax(range[1])
            .withDescription('Color temperature of this light');

        if (process.env.ZHC_TEST) {
            feature._colorTempRangeProvided = rangeProvided;
        }

        [
            {name: 'coolest', value: range[0], description: 'Coolest temperature supported'},
            {name: 'cool', value: 250, description: 'Cool temperature (250 mireds / 4000 Kelvin)'},
            {name: 'neutral', value: 370, description: 'Neutral temperature (370 mireds / 2700 Kelvin)'},
            {name: 'warm', value: 454, description: 'Warm temperature (454 mireds / 2200 Kelvin)'},
            {name: 'warmest', value: range[1], description: 'Warmest temperature supported'},
        ].filter((p) => p.value >= range[0] && p.value <= range[1]).forEach((p) => feature.withPreset(p.name, p.value, p.description));

        this.features.push(feature);
        return this;
    }

    withColorTempStartup(range) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        if (range === undefined) {
            range = [150, 500];
        }

        const feature = new Numeric('color_temp_startup', access.ALL).withUnit('mired').withValueMin(range[0]).withValueMax(range[1])
            .withDescription('Color temperature after cold power on of this light');

        [
            {name: 'coolest', value: range[0], description: 'Coolest temperature supported'},
            {name: 'cool', value: 250, description: 'Cool temperature (250 mireds / 4000 Kelvin)'},
            {name: 'neutral', value: 370, description: 'Neutral temperature (370 mireds / 2700 Kelvin)'},
            {name: 'warm', value: 454, description: 'Warm temperature (454 mireds / 2200 Kelvin)'},
            {name: 'warmest', value: range[1], description: 'Warmest temperature supported'},
        ].filter((p) => p.value >= range[0] && p.value <= range[1]).forEach((p) => feature.withPreset(p.name, p.value, p.description));
        feature.withPreset('previous', 65535, 'Restore previous color_temp on cold power on');

        this.features.push(feature);
        return this;
    }

    withColor(types) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        if (types.includes('xy')) {
            const colorXY = new Composite('color_xy', 'color')
                .withFeature(new Numeric('x', access.ALL))
                .withFeature(new Numeric('y', access.ALL))
                .withDescription('Color of this light in the CIE 1931 color space (x/y)');
            this.features.push(colorXY);
        }

        if (types.includes('hs')) {
            const colorHS = new Composite('color_hs', 'color')
                .withFeature(new Numeric('hue', access.ALL))
                .withFeature(new Numeric('saturation', access.ALL))
                .withDescription('Color of this light expressed as hue/saturation');
            this.features.push(colorHS);
        }

        return this;
    }
}

class Cover extends Base {
    constructor() {
        super();
        this.type = 'cover';
        this.features = [];
        this.features.push(new Binary('state', access.STATE_SET, 'OPEN', 'CLOSE'));
    }

    withPosition() {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Numeric('position', access.ALL).withValueMin(0).withValueMax(100).withDescription('Position of this cover'));
        return this;
    }

    withTilt() {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Numeric('tilt', access.ALL).withValueMin(0).withValueMax(100).withDescription('Tilt of this cover'));
        return this;
    }
}

class Fan extends Base {
    constructor() {
        super();
        this.type = 'fan';
        this.features = [];
        this.features.push(new Binary('state', access.ALL, 'ON', 'OFF').withDescription('On/off state of this fan').withProperty('fan_state'));
    }

    withModes(modes, access=a.ALL) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Enum('mode', access, modes).withProperty('fan_mode').withDescription('Mode of this fan'));
        return this;
    }
}

class Climate extends Base {
    constructor() {
        super();
        this.type = 'climate';
        this.features = [];
    }

    withSetpoint(property, min, max, step, access=a.ALL) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        assert(['occupied_heating_setpoint', 'current_heating_setpoint', 'occupied_cooling_setpoint'].includes(property));
        this.features.push(new Numeric(property, access)
            .withValueMin(min).withValueMax(max).withValueStep(step).withUnit('°C').withDescription('Temperature setpoint'));
        return this;
    }

    withLocalTemperature(access=a.STATE_GET) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Numeric('local_temperature', access).withUnit('°C').withDescription('Current temperature measured on the device'));
        return this;
    }

    withLocalTemperatureCalibration(access=a.ALL) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Numeric('local_temperature_calibration', access).withUnit('°C').withDescription('Offset to be used in the local_temperature'));
        return this;
    }

    withSystemMode(modes, access=a.ALL) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        const allowed = ['off', 'heat', 'cool', 'auto', 'dry', 'fan_only', 'sleep'];
        modes.forEach((m) => assert(allowed.includes(m)));
        this.features.push(new Enum('system_mode', access, modes).withDescription('Mode of this device'));
        return this;
    }

    withRunningState(modes, access=a.STATE_GET) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        const allowed = ['idle', 'heat', 'cool'];
        modes.forEach((m) => assert(allowed.includes(m)));
        this.features.push(new Enum('running_state', access, modes).withDescription('The current running state'));
        return this;
    }

    withFanMode(modes) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        const allowed = ['off', 'low', 'medium', 'high', 'on', 'auto', 'smart'];
        modes.forEach((m) => assert(allowed.includes(m)));
        this.features.push(new Enum('fan_mode', access.ALL, modes).withDescription('Mode of the fan'));
        return this;
    }

    withSensor(sensors) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Enum('sensor', access.STATE_SET, sensors).withDescription('Select temperature sensor to use'));
        return this;
    }

    withPreset(modes) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Enum('preset', access.STATE_SET, modes).withDescription('Mode of this device (similar to system_mode)'));
        return this;
    }

    withAwayMode() {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Binary('away_mode', access.STATE_SET, 'ON', 'OFF').withDescription('Away mode'));
        return this;
    }

    withPiHeatingDemand(access=a.STATE) {
        assert(!this.endpoint, 'Cannot add feature after adding endpoint');
        this.features.push(new Numeric('pi_heating_demand', access).withValueMin(0).withValueMax(100).withUnit('%').withDescription('Position of the valve (= demanded heat) where 0% is fully closed and 100% is fully open'));
        return this;
    }
}
/**
 * The access property is a 3-bit bitmask.
 */
const access = {
    /**
     * Bit 0: The property can be found in the published state of this device
     */
    STATE: 0b001,
    /**
     * Bit 1: The property can be set with a /set command
     */
    SET: 0b010,
    /**
     * Bit 2: The property can be retrieved with a /get command
     */
    GET: 0b100,
    /**
     * Bitwise inclusive OR of STATE and SET : 0b001 | 0b010
     */
    STATE_SET: 0b011,
    /**
     * Bitwise inclusive OR of STATE and GET : 0b001 | 0b100
     */
    STATE_GET: 0b101,
    /**
     * Bitwise inclusive OR of STATE and GET and SET : 0b001 | 0b100 | 0b010
     */
    ALL: 0b111,
};

const a = access;

module.exports = {
    access,
    binary: (name, access, valueOn, valueOff) => new Binary(name, access, valueOn, valueOff),
    climate: () => new Climate(),
    composite: (name, property) => new Composite(name, property),
    cover: () => new Cover(),
    enum: (name, access, values) => new Enum(name, access, values),
    light: () => new Light(),
    numeric: (name, access) => new Numeric(name, access),
    switch: () => new Switch(),
    text: (name, access) => new Text(name, access),
    presets: {
        action: (values) => new Enum('action', access.STATE, values).withDescription('Triggered action (e.g. a button click)'),
        angle: (name) => new Numeric(name, access.STATE).withValueMin(-360).withValueMax(360),
        angle_axis: (name) => new Numeric(name, access.STATE).withValueMin(-90).withValueMax(90),
        aqi: () => new Numeric('aqi', access.STATE).withDescription('Air quality index'),
        auto_lock: () => new Switch().withState('auto_lock', false, 'Enable/disable auto lock', access.STATE_SET, 'AUTO', 'MANUAL'),
        auto_relock_time: () => new Numeric('auto_relock_time', access.ALL).withValueMin(0).withUnit('s').withDescription('The number of seconds to wait after unlocking a lock before it automatically locks again. 0=disabled'),
        away_mode: () => new Switch().withState('away_mode', false, 'Enable/disable away mode', access.STATE_SET),
        away_preset_days: () => new Numeric('away_preset_days', access.STATE_SET).withDescription('Away preset days'),
        away_preset_temperature: () => new Numeric('away_preset_temperature', access.STATE_SET).withUnit('°C').withDescription('Away preset temperature'),
        battery: () => new Numeric('battery', access.STATE).withUnit('%').withDescription('Remaining battery in %').withValueMin(0).withValueMax(100),
        battery_low: () => new Binary('battery_low', access.STATE, true, false).withDescription('Indicates if the battery of this device is almost empty'),
        battery_voltage: () => new Numeric('voltage', access.STATE).withUnit('mV').withDescription('Voltage of the battery in millivolts'),
        boost_time: () => new Numeric('boost_time', access.STATE_SET).withUnit('s').withDescription('Boost time'),
        carbon_monoxide: () => new Binary('carbon_monoxide', access.STATE, true, false).withDescription('Indicates if CO (carbon monoxide) is detected'),
        child_lock: () => new Lock().withState('child_lock', 'LOCK', 'UNLOCK', 'Enables/disables physical input on the device', access.STATE_SET),
        co2: () => new Numeric('co2', access.STATE).withUnit('ppm').withDescription('The measured CO2 (carbon monoxide) value'),
        comfort_temperature: () => new Numeric('comfort_temperature', access.STATE_SET).withUnit('°C').withDescription('Comfort temperature'),
        consumer_connected: () => new Binary('consumer_connected', access.STATE, true, false).withDescription('Indicates whether device is physically attached. Device does not have to pull power or even be connected electrically (switch can be ON even if switch is OFF).'),
        consumer_overload: () => new Numeric('consumer_overload', access.STATE, true, false).withUnit('W').withDescription('Indicates with how many Watts the maximum possible power consumption is exceeded'),
        contact: () => new Binary('contact', access.STATE, false, true).withDescription('Indicates if the contact is closed (= true) or open (= false)'),
        cover_position: () => new Cover().withPosition(),
        cover_position_tilt: () => new Cover().withPosition().withTilt(),
        cpu_temperature: () => new Numeric('cpu_temperature', access.STATE).withUnit('°C').withDescription('Temperature of the CPU'),
        cube_side: (name) => new Numeric(name, access.STATE).withDescription('Side of the cube').withValueMin(0).withValueMax(6).withValueStep(1),
        current: () => new Numeric('current', access.STATE).withUnit('A').withDescription('Instantaneous measured electrical current'),
        current_phase_b: () => new Numeric('current_phase_b', access.STATE).withUnit('A').withDescription('Instantaneous measured electrical current on phase B'),
        current_phase_c: () => new Numeric('current_phase_c', access.STATE).withUnit('A').withDescription('Instantaneous measured electrical current on phase C'),
        deadzone_temperature: () => new Numeric('deadzone_temperature', access.STATE_SET).withUnit('°C').withDescription('The delta between local_temperature and current_heating_setpoint to trigger Heat. 1-5'),
        device_temperature: () => new Numeric('device_temperature', access.STATE).withUnit('°C').withDescription('Temperature of the device'),
        eco2: () => new Numeric('eco2', access.STATE).withUnit('ppm').withDescription('Measured eCO2 value'),
        eco_temperature: () => new Numeric('eco_temperature', access.STATE_SET).withUnit('°C').withDescription('Eco temperature'),
        effect: () => new Enum('effect', access.SET, ['blink', 'breathe', 'okay', 'channel_change', 'finish_effect', 'stop_effect']).withDescription('Triggers an effect on the light (e.g. make light blink for a few seconds)'),
        energy: () => new Numeric('energy', access.STATE).withUnit('kWh').withDescription('Sum of consumed energy'),
        fan: () => new Fan(),
        force: () => new Enum('force', access.STATE_SET, ['normal', 'open', 'close']).withDescription('Force the valve position'),
        formaldehyd: () => new Numeric('formaldehyd', access.STATE).withDescription('The measured formaldehyd value'),
        gas: () => new Binary('gas', access.STATE, true, false).withDescription('Indicates whether the device detected gas'),
        hcho: () => new Numeric('hcho', access.STATE).withUnit('mg/m³').withDescription('Measured Hcho value'),
        humidity: () => new Numeric('humidity', access.STATE).withUnit('%').withDescription('Measured relative humidity'),
        illuminance: () => new Numeric('illuminance', access.STATE).withDescription('Raw measured illuminance'),
        illuminance_lux: () => new Numeric('illuminance_lux', access.STATE).withUnit('lx').withDescription('Measured illuminance in lux'),
        keypad_lockout: () => new Binary('keypad_lockout', access.ALL, 'lock1', 'unlock').withDescription('Enables/disables physical input on the device'),
        led_disabled_night: () => new Binary('led_disabled_night', access.STATE_SET, true, false).withDescription('Enable/disable the LED at night'),
        light_brightness: () => new Light().withBrightness(),
        light_brightness_color: () => new Light().withBrightness().withColor((['xy', 'hs'])),
        light_brightness_colorhs: () => new Light().withBrightness().withColor(['hs']),
        light_brightness_colortemp: (colorTempRange) => new Light().withBrightness().withColorTemp(colorTempRange).withColorTempStartup(colorTempRange),
        light_brightness_colortemp_color: (colorTempRange) => new Light().withBrightness().withColorTemp(colorTempRange).withColorTempStartup(colorTempRange).withColor(['xy', 'hs']),
        light_brightness_colortemp_colorhs: (colorTempRange) => new Light().withBrightness().withColorTemp(colorTempRange).withColorTempStartup(colorTempRange).withColor(['hs']),
        light_brightness_colortemp_colorxy: (colorTempRange) => new Light().withBrightness().withColorTemp(colorTempRange).withColorTempStartup(colorTempRange).withColor(['xy']),
        light_brightness_colorxy: () => new Light().withBrightness().withColor((['xy'])),
        light_colorhs: () => new Light().withColor(['hs']),
        linkquality: () => new Numeric('linkquality', access.STATE).withUnit('lqi').withDescription('Link quality (signal strength)').withValueMin(0).withValueMax(255),
        local_temperature: () => new Numeric('local_temperature', access.STATE_GET).withUnit('°C').withDescription('Current temperature measured on the device'),
        lock: () => new Lock().withState('state', 'LOCK', 'UNLOCK', 'State of the lock').withLockState('lock_state', 'Actual state of the lock'),
        max_temperature: () => new Numeric('max_temperature', access.STATE_SET).withUnit('°C').withDescription('Maximum temperature'),
        max_temperature_limit: () => new Numeric('max_temperature_limit', access.STATE_SET).withUnit('°C').withDescription('Maximum temperature limit'),
        min_temperature: () => new Numeric('min_temperature', access.STATE_SET).withUnit('°C').withDescription('Minimum temperature'),
        occupancy: () => new Binary('occupancy', access.STATE, true, false).withDescription('Indicates whether the device detected occupancy'),
        pm10: () => new Numeric('pm10', access.STATE).withUnit('µg/m³').withDescription('Measured PM10 (particulate matter) concentration'),
        pm25: () => new Numeric('pm25', access.STATE).withUnit('µg/m³').withDescription('Measured PM2.5 (particulate matter) concentration'),
        position: () => new Numeric('position', access.STATE).withUnit('%').withDescription('Position'),
        power: () => new Numeric('power', access.STATE).withUnit('W').withDescription('Instantaneous measured power'),
        power_on_behavior: () => new Enum('power_on_behavior', access.ALL, ['off', 'previous', 'on']).withDescription('Controls the behavior when the device is powered on'),
        power_outage_memory: () => new Binary('power_outage_memory', access.ALL, true, false).withDescription('Enable/disable the power outage memory, this recovers the on/off mode after power failure'),
        presence: () => new Binary('presence', access.STATE, true, false).withDescription('Indicates whether the device detected presence'),
        pressure: () => new Numeric('pressure', access.STATE).withUnit('hPa').withDescription('The measured atmospheric pressure'),
        smoke: () => new Binary('smoke', access.STATE, true, false).withDescription('Indicates whether the device detected smoke'),
        soil_moisture: () => new Numeric('soil_moisture', access.STATE).withUnit('%').withDescription('Measured soil moisture value'),
        sos: () => new Binary('sos', access.STATE, true, false).withDescription('SOS alarm'),
        sound_volume: () => new Enum('sound_volume', access.ALL, constants.lockSoundVolume).withDescription('Sound volume of the lock'),
        switch: () => new Switch().withState('state', true, 'On/off state of the switch'),
        switch_type: () => new Enum('switch_type', access.ALL, ['toggle', 'momentary']).withDescription('Wall switch type'),
        tamper: () => new Binary('tamper', access.STATE, true, false).withDescription('Indicates whether the device is tampered'),
        temperature: () => new Numeric('temperature', access.STATE).withUnit('°C').withDescription('Measured temperature value'),
        test: () => new Binary('test', access.STATE, true, false).withDescription('Indicates whether the device is being tested'),
        valve_detection: () => new Switch().withState('valve_detection', true).setAccess('state', access.STATE_SET),
        vibration: () => new Binary('vibration', access.STATE, true, false).withDescription('Indicates whether the device detected vibration'),
        voc: () => new Numeric('voc', access.STATE).withUnit('ppb').withDescription('Measured VOC value'),
        voltage: () => new Numeric('voltage', access.STATE).withUnit('V').withDescription('Measured electrical potential value'),
        voltage_phase_b: () => new Numeric('voltage_phase_b', access.STATE).withUnit('V').withDescription('Measured electrical potential value on phase B'),
        voltage_phase_c: () => new Numeric('voltage_phase_c', access.STATE).withUnit('V').withDescription('Measured electrical potential value on phase C'),
        water_leak: () => new Binary('water_leak', access.STATE, true, false).withDescription('Indicates whether the device detected a water leak'),
        warning: () => new Composite('warning', 'warning')
            .withFeature(new Enum('mode', access.SET, ['stop', 'burglar', 'fire', 'emergency', 'police_panic', 'fire_panic', 'emergency_panic']).withDescription('Mode of the warning (sound effect)'))
            .withFeature(new Enum('level', access.SET, ['low', 'medium', 'high', 'very_high']).withDescription('Sound level'))
            .withFeature(new Binary('strobe', access.SET, true, false).withDescription('Turn on/off the strobe (light) during warning'))
            .withFeature(new Numeric('duration', access.SET).withUnit('s').withDescription('Duration in seconds of the alarm')),
        week: () => new Enum('week', access.STATE_SET, ['5+2', '6+1', '7']).withDescription('Week format user for schedule'),
        window_detection: () => new Switch().withState('window_detection', true, 'Enables/disables window detection on the device', access.STATE_SET),
        moving: () => new Binary('moving', access.STATE, true, false).withDescription('Indicates if the device is moving'),
        x_axis: () => new Numeric('x_axis', access.STATE).withDescription('Accelerometer X value'),
        y_axis: () => new Numeric('y_axis', access.STATE).withDescription('Accelerometer Y value'),
        z_axis: () => new Numeric('z_axis', access.STATE).withDescription('Accelerometer Z value'),
    },
};