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6
source/_components/binary_sensor.modbus.markdown
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@ -15,10 +15,12 @@ ha_iot_class: "Local Push"
The `modbus` binary sensor allows you to gather data from [Modbus](http://www.modbus.org/) coils.
## {% linkable_title Configuration %}
To use your Modbus binary sensors in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
binary_sensor:
- platform: modbus
coils:
@ -39,7 +41,7 @@ Configuration variables:
It's possible to change the default 30 seconds scan interval for the sensor updates as shown in the [Platform options](/docs/configuration/platform_options/#scan-interval) documentation.
### {% linkable_title Full example %}
## {% linkable_title Full example %}
Example a sensor with a 10 seconds scan interval:

2
source/_components/binary_sensor.mqtt.markdown
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@ -133,7 +133,7 @@ The configuration will look like the example below:
{% raw %}
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
binary_sensor:
- platform: mqtt
name: Bathroom

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source/_components/binary_sensor.pilight.markdown
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@ -15,10 +15,12 @@ ha_iot_class: "Local Polling"
The `pilight` binary sensor platform implement the [pilight hub](/components/pilight/) binary sensor functionality. Two type of Pilight binary sensor configuration available. A normal sensor which send the on and off state cyclical and a trigger sensor which send only a trigger when an event happened (for example lots of cheap PIR motion detector).
To enable a Pilight binary sensor in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
binary_sensor:
- platform: pilight
variable: 'state'

13
source/_components/climate.modbus.markdown
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@ -14,20 +14,20 @@ ha_iot_class: "Local Polling"
---
The `modbus` thermostat allows you to use a sensor value (current temperature)
and target value (target temperature) from [Modbus](http://www.modbus.org/)
registers.
The `modbus` thermostat allows you to use a sensor value (current temperature) and target value (target temperature) from [Modbus](http://www.modbus.org/) registers.
## {% linkable_title Configuration %}
To use your Modbus thermostat in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yaml entry
climate:
- platform: modbus
name: Watlow F4T
slave: 1
target_temp_register: 2782
current_temp_register: 27586
```
{% configuration %}
@ -49,17 +49,18 @@ current_temp_register:
type: int
data_type:
description: Response representation (int, uint, float, custom). If float selected, value will converted to IEEE 754 floating point format.
Default float.
required: false
type: string
default: float
count:
description: Number of registers to read.
required: false
type: int
precision:
description: Number of valid decimals, default 0.
description: Number of valid decimals.
required: false
type: int
default: 0
{% endconfiguration %}

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source/_components/conversation.markdown
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@ -87,3 +87,9 @@ intent_script:
- "{% if color == 'blue' %}255{% else %}0{% endif %}"
{% endraw %}
```
#### {% linkable_title Service `conversation.process` %}
| Service data attribute | Optional | Description |
|------------------------|----------|--------------------------------------------------|
| `text` | yes | Transcribed text |

2
source/_components/cover.gogogate2.markdown
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@ -20,7 +20,7 @@ The `gogogate2` cover platform lets you control Gogogate2-Enabled garage doors t
To use your Gogogate2 cover in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
cover:
- platform: gogogate2
username: email@email.com

10
source/_components/cover.mqtt.markdown
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@ -15,6 +15,8 @@ ha_release: 0.18
The `mqtt` cover platform allows you to control an MQTT cover (such as blinds, a rollershutter, or a garage door).
## {% linkable_title Configuration %}
The device state (`open` or `closed`) will be updated only after a new message is published on `state_topic` matching `state_open` or `state_closed`. If these messages are published with the `retain` flag set, the cover will receive an instant state update after subscription and Home Assistant will display the correct state on startup. Otherwise, the initial state displayed in Home Assistant will be `unknown`.
There is an attribute that stores the relative position of the device, where 0 means the device is `closed` and all other intermediate positions means the device is `open`.
@ -164,7 +166,7 @@ In this section you will find some real life examples of how to use this platfor
The example below shows a full configuration for a cover without tilt.
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
cover:
- platform: mqtt
name: "MQTT Cover"
@ -188,8 +190,9 @@ cover:
The example below shows a full configuration for a cover.
{% raw %}
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
cover:
- platform: mqtt
name: "MQTT Cover"
@ -206,7 +209,7 @@ cover:
payload_available: "online"
payload_not_available: "offline"
optimistic: false
value_template: '{% raw %}{{ value.x }}{% endraw %}'
value_template: '{{ value.x }}'
tilt_command_topic: 'home-assistant/cover/tilt'
tilt_status_topic: 'home-assistant/cover/tilt-state'
tilt_min: 0
@ -214,6 +217,7 @@ cover:
tilt_closed_value: 70
tilt_opened_value: 180
```
{% endraw %}
To test, you can use the command line tool `mosquitto_pub` shipped with `mosquitto` or the `mosquitto-clients` package to send MQTT messages. This allows you to operate your cover manually:

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@ -15,10 +15,12 @@ ha_iot_class: Cloud Polling
The `myq` cover platform lets you control MyQ-Enabled garage doors through Home Assistant. Device names in Home Assistant are generated based on the names defined in your MyQ Device mobile app.
## {% linkable_title Configuration %}
To use your MyQ cover in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
cover:
- platform: myq
username: YOUR_USERNAME

2
source/_components/device_tracker.fritz.markdown
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@ -15,6 +15,8 @@ ha_release: "0.10"
The `fritz` platform offers presence detection by looking at connected devices to a [AVM Fritz!Box](http://avm.de/produkte/fritzbox/) based router.
## {% linkable_title Configuration %}
<p class='note warning'>
It might be necessary to install additional packages: <code>$ sudo apt-get install libxslt-dev libxml2-dev python3-lxml</code>
If you are working with the All-in-One installation, you may also need to execute also within your virtual environment the command <code> pip install lxml</code>; be patient this will take a while.</p>

2
source/_components/discoverable.markdown
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@ -23,7 +23,7 @@ for state in hass.states():
To enable `discovery` in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
discoverable:
expose_password: yes
```

6
source/_components/fan.mqtt.markdown
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@ -15,6 +15,8 @@ ha_iot_class: depends
The `mqtt` fan platform lets you control your MQTT enabled fans.
## {% linkable_title Configuration %}
In an ideal scenario, the MQTT device will have a `state_topic` to publish state changes. If these messages are published with a `RETAIN` flag, the MQTT fan will receive an instant state update after subscription and will start with the correct state. Otherwise, the initial state of the fan will be `false` / `off`.
When a `state_topic` is not available, the fan will work in optimistic mode. In this mode, the fan will immediately change state after every command. Otherwise, the fan will wait for state confirmation from the device (message from `state_topic`).
@ -24,7 +26,7 @@ Optimistic mode can be forced even if a `state_topic` is available. Try to enabl
To enable MQTT fans in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
fan:
- platform: mqtt
command_topic: "bedroom_fan/on/set"
@ -155,7 +157,7 @@ In this section you find some real life examples of how to use this fan.
The example below shows a full configuration for a MQTT fan.
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
fan:
- platform: mqtt
name: "Bedroom Fan"

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source/_components/fritzbox.markdown
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@ -35,21 +35,21 @@ fritzbox:
```
{% configuration %}
devices:
description: A list of Fritzbox devices.
required: true
type: map
keys:
host:
description: The hostname or IP address of the Fritzbox.
required: true
type: optional
username:
description: The username for Smart Home access.
required: true
type: string
password:
description: The password of the user.
required: true
type: string
devices:
description: A list of Fritzbox devices.
required: true
type: map
keys:
host:
description: The hostname or IP address of the Fritzbox.
required: true
type: optional
username:
description: The username for Smart Home access.
required: true
type: string
password:
description: The password of the user.
required: true
type: string
{% endconfiguration %}

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@ -15,10 +15,12 @@ ha_release: 0.47
The `juicenet` sensor platform pulls data from a [JuiceNet](https://emotorwerks.com/products/juicenet/) charging station equipped with a wifi connection. It will access and make available all of the devices attached to your account.
## {% linkable_title Configuration %}
To enable the platform in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
juicenet:
access_token: ACCESS_TOKEN
```

7
source/_components/light.mochad.markdown
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@ -11,13 +11,14 @@ ha_category: Light
ha_release: 0.51
---
The `mochad` light platform lets you control an X10 enabled dimmer/light
device.
The `mochad` light platform lets you control an X10 enabled dimmer/light device.
To enable this sensor, you first have to set up the [mochad component](/components/mochad/) and then add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
light:
- platform: mochad
devices:

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source/_components/light.mqtt.markdown
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@ -14,6 +14,8 @@ ha_iot_class: depends
The `mqtt` light platform lets you control your MQTT enabled lights. It supports setting brightness, color temperature, effects, flashing, on/off, RGB colors, transitions, XY colors and white values.
## {% linkable_title Configuration %}
In an ideal scenario, the MQTT device will have a state topic to publish state changes. If these messages are published with a `RETAIN` flag, the MQTT light will receive an instant state update after subscription and will start with the correct state. Otherwise, the initial state of the switch will be `false` / `off`.
When a state topic is not available, the light will work in optimistic mode. In this mode, the light will immediately change state after every command. Otherwise, the light will wait for state confirmation from the device (message from `state_topic`).
@ -21,7 +23,7 @@ When a state topic is not available, the light will work in optimistic mode. In
Optimistic mode can be forced, even if the `state_topic` is available. Try to enable it, if experiencing incorrect light operation.
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
light:
- platform: mqtt
command_topic: "office/rgb1/light/switch"
@ -207,7 +209,7 @@ To enable a light with brightness and RGB support in your installation, add the
{% raw %}
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
light:
- platform: mqtt
name: "Office Light RGB"
@ -232,7 +234,7 @@ light:
To enable a light with brightness (no RGB version) in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
light:
- platform: mqtt
name: "Office light"
@ -251,7 +253,7 @@ light:
To enable a light that sends only brightness topics to turn it on, add the following to your `configuration.yaml` file. The `command_topic` is only used to send an off command in this case:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
light:
- platform: mqtt
name: "Brightness light"

2
source/_components/lock.mqtt.markdown
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@ -24,7 +24,7 @@ Optimistic mode can be forced, even if state topic is available. Try to enable i
To enable MQTT locks in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
lock:
- platform: mqtt
command_topic: "home/frontdoor/set"

18
source/_components/mochad.markdown
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@ -13,6 +13,8 @@ ha_release: 0.32
The `mochad` component is the main component to integrate all X10 platforms being controlled by [mochad](https://sourceforge.net/projects/mochad/). Besides this component you will have to setup your X10 devices separately.
## {% linkable_title Configuration %}
To integrate your Mochad units with Home Assistant, add the following section to your `configuration.yaml` file:
```yaml
@ -20,10 +22,20 @@ To integrate your Mochad units with Home Assistant, add the following section to
mochad:
```
Configuration variables:
{% configuration %}
host:
description: The host that mochad is running on.
required: false
type: string
default: localhost
port:
description: The port that mochad is running on.
required: false
type: int
default: 1099
{% endconfiguration %}
- **host** (*Optional*): The host that mochad is running on. Defaults to `localhost`.
- **port** (*Optional*): The port that mochad is running on. Defaults to `1099`.
## {% linkable_title Example %}
A full configuration sample could look like the one below:

2
source/_components/modbus.markdown
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@ -16,6 +16,8 @@ ha_iot_class: "Local Push"
[Modbus](http://www.modbus.org/) is a serial communication protocol to control PLCs (Programmable logic controller). It currently supports sensors and switches which can be controlled over serial, TCP, and UDP connections.
## {% linkable_title Configuration %}
To add modbus to your installation, add the following to your `configuration.yaml` file:
For a network connection:

2
source/_components/pilight.markdown
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@ -19,6 +19,8 @@ This pilight hub connects to the [pilight-daemon](https://manual.pilight.org/pro
The received and supported RF codes are put on the event bus of Home Assistant and are therefore directly usable by other components (e.g., automation). Additionally a send service is provided to send RF codes.
## {% linkable_title Configuration %}
To integrate pilight into Home Assistant, add the following section to your `configuration.yaml` file:
```yaml

2
source/_components/remember_the_milk.markdown
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@ -51,7 +51,7 @@ Configuration variables:
### {% linkable_title Step 2: registering your account %}
After saving the configuration, you need to (re-)start Home Assistant. On the first start you will notice a new "Configuration" panel appearing on the Home Assistant page. After opening the configuration page, follow the link "Remember The Milk login". This will take you to a login page where you have to log in with your normal Rember The Milk credentials. This will authorize Home Assistant to access your Remember The Milk account.
After saving the configuration, you need to (re-)start Home Assistant. On the first start you will notice a new "Configuration" panel appearing on the Home Assistant page. After opening the configuration page, follow the link "Remember The Milk login". This will take you to a login page where you have to log in with your normal Remember The Milk credentials. This will authorize Home Assistant to access your Remember The Milk account.
After that click on the "login completed" button. This will tell Home Assistant that you have completed the login process on the Remember The Milk page and Home Assistant should try to register with this account.

15
source/_components/sensor.fritzbox_callmonitor.markdown
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@ -14,10 +14,11 @@ ha_iot_class: "Local Polling"
---
The `fritzbox_callmonitor` sensor monitors the call monitor exposed by [AVM Fritz!Box](http://avm.de/produkte/fritzbox/) routers
on TCP port 1012. It will assume the values `idle`, `ringing`, `dialing`, or `talking` with the phone numbers involved contained in the state attributes.
The `fritzbox_callmonitor` sensor monitors the call monitor exposed by [AVM Fritz!Box](http://avm.de/produkte/fritzbox/) routers on TCP port 1012. It will assume the values `idle`, `ringing`, `dialing` or `talking` with the phone numbers involved contained in the state attributes.
It can also access the internal phone book of the router to look up the names corresponding to the phone numbers and store them in the state attributes.
## {% linkable_title Configuration %}
To activate the call monitor on your Fritz!Box, dial #96\*5\* from any phone connected to it.
To use the Fritz!Box call monitor in your installation, add the following to your `configuration.yaml` file:
@ -44,7 +45,7 @@ Configuration variables:
The example below shows a full configuration for a call monitor with phone book support.
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: fritzbox_callmonitor
name: Phone
@ -61,8 +62,9 @@ sensor:
This example shows how to send notifications whenever the sensor's state changes. You will get notified both when you receive a call and also when a call is placed.
{% raw %}
```yaml
# Example configuration.yml entry.
# Example configuration.yaml entry.
automation:
- alias: "Notify about phone state"
trigger:
@ -73,7 +75,7 @@ automation:
data:
title: "Phone"
message: >-
{% raw %}{% if is_state("sensor.phone", "idle") %}
{% if is_state("sensor.phone", "idle") %}
Phone is idle
{% elif is_state("sensor.phone", "dialing") %}
Calling {{ states.sensor.phone.attributes.to_name }} ({{ states.sensor.phone.attributes.to }})
@ -81,5 +83,6 @@ automation:
Incoming call from {{ states.sensor.phone.attributes.from_name }} ({{ states.sensor.phone.attributes.from }})
{% else %}
Talking to {{ states.sensor.phone.attributes.with_name }} ({{ states.sensor.phone.attributes.with }})
{% endif %}{% endraw %}
{% endif %}
```
{% endraw %}

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source/_components/sensor.gitter.markdown
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@ -15,19 +15,27 @@ ha_release: 0.47
This `gitter` sensor allows one to monitor a [Gitter.im](https://gitter.im) chatroom for unread messages.
## {% linkable_title Configuration %}
Visit [Gitter Developer Apps](https://developer.gitter.im/apps) to retrieve your "Personal Access Token".
To use a Gitter sensor in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: gitter
api_key: YOUR_API_TOKEN
```
Configuration variables:
- **api_key** (*Required*): Your Gitter.im API token.
- **room** (*Optional*): Gitter room to monitor. Defaults to `home-assistant/home-assistant`
{% configuration %}
api_key:
description: Your Gitter.im API token.
required: true
type: string
room:
description: Gitter room to monitor.
required: false
type: string
default: home-assistant/home-assistant
{% endconfiguration %}

4
source/_components/sensor.modbus.markdown
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@ -16,10 +16,12 @@ ha_iot_class: "Local Push"
The `modbus` sensor allows you to gather data from [Modbus](http://www.modbus.org/) registers.
## {% linkable_title Configuration %}
To use your Modbus sensors in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
platform: modbus
registers:

44
source/_components/sensor.mqtt.markdown
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@ -16,10 +16,12 @@ ha_iot_class: depends
This `mqtt` sensor platform uses the MQTT message payload as the sensor value. If messages in this `state_topic` are published with *RETAIN* flag, the sensor will receive an instant update with last known value. Otherwise, the initial state will be undefined.
## {% linkable_title Configuration %}
To use your MQTT sensor in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: mqtt
state_topic: "home/bedroom/temperature"
@ -97,17 +99,17 @@ In this section you find some real life examples of how to use this sensor.
### {% linkable_title JSON attributes configuration %}
The example sensor below shows a configuration example which uses JSON in the state topic to add extra attributes. It also makes use of the availability topic. Attributes can then be extracted in [Templates](configuration/templating/#attributes); Example to extract data from the sensor below {% raw %}'{{ states.sensor.bs_client_name.attributes.ClientName }}'{% endraw %}.
The example sensor below shows a configuration example which uses JSON in the state topic to add extra attributes. It also makes use of the availability topic. Attributes can then be extracted in [Templates](/docs/configuration/templating/#attributes). For example, to extract the `ClientName` attribute from the sensor below, use a template similar to: {% raw %}`{{ state_attr('sensor.bs_rssi', 'ClientName') }}`{% endraw %}.
{% raw %}
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: mqtt
state_topic: "HUISHS/BunnyShed/NodeHealthJSON"
name: "BS RSSI"
unit_of_measurement: "dBm"
value_template: '{{ value_json.RSSI }}'
state_topic: "HUISHS/BunnyShed/NodeHealthJSON"
unit_of_measurement: 'dBm'
value_template: "{{ value_json.RSSI }}"
availability_topic: "HUISHS/BunnyShed/status"
payload_available: "online"
payload_not_available: "offline"
@ -123,7 +125,7 @@ sensor:
### {% linkable_title Get battery level %}
If you are using the [Owntracks](/components/device_tracker.owntracks/) and enable the reporting of the battery level then you can use a MQTT sensor to keep track of your battery. A regular MQTT message from Owntracks looks like this:
If you are using the [OwnTracks](/components/device_tracker.owntracks/) and enable the reporting of the battery level then you can use a MQTT sensor to keep track of your battery. A regular MQTT message from OwnTracks looks like this:
```bash
owntracks/tablet/tablet {"_type":"location","lon":7.21,"t":"u","batt":92,"tst":144995643,"tid":"ta","acc":27,"lat":46.12}
@ -133,13 +135,13 @@ Thus the trick is extracting the battery level from the payload.
{% raw %}
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: mqtt
state_topic: "owntracks/tablet/tablet"
name: "Battery Tablet"
unit_of_measurement: "%"
value_template: '{{ value_json.batt }}'
state_topic: "owntracks/tablet/tablet"
unit_of_measurement: '%'
value_template: "{{ value_json.batt }}"
```
{% endraw %}
@ -159,18 +161,18 @@ Then use this configuration example to extract the data from the payload:
{% raw %}
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: mqtt
state_topic: 'office/sensor1'
name: 'Temperature'
name: "Temperature"
state_topic: "office/sensor1"
unit_of_measurement: '°C'
value_template: '{{ value_json.temperature }}'
value_template: "{{ value_json.temperature }}"
- platform: mqtt
state_topic: 'office/sensor1'
name: 'Humidity'
name: "Humidity"
state_topic: "office/sensor1"
unit_of_measurement: '%'
value_template: '{{ value_json.humidity }}'
value_template: "{{ value_json.humidity }}"
```
{% endraw %}
@ -195,10 +197,10 @@ The configuration will look like the example below:
{% raw %}
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: mqtt
state_topic: 'home/bathroom/analog/brightness'
name: Brightness
name: "Brightness"
state_topic: "home/bathroom/analog/brightness"
```
{% endraw %}

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source/_components/sensor.mqtt_room.markdown
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@ -16,6 +16,8 @@ ha_iot_class: depends
The `mqtt_room` sensor platform allows you to detect the indoor location of devices using MQTT clients.
## {% linkable_title Configuration %}
To use this device tracker in your installation, add the following to your `configuration.yaml` file:
```yaml

4
source/_components/sensor.mvglive.markdown
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@ -16,6 +16,8 @@ ha_iot_class: "Cloud Polling"
The `mvglive` sensor will give you the departure time of the next bus, tram, subway, or train at the next station or stop in the Munich public transport network. Additional details such as the line number and destination are present in the attributes.
## {% linkable_title Configuration %}
To enable this sensor, add the following lines to your `configuration.yaml` file:
```yaml
@ -42,7 +44,7 @@ Configuration variables:
The example below shows a full configuration with three sensors that showcase the various configuration options.
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: mvglive
nextdeparture:

4
source/_components/sensor.openevse.markdown
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@ -16,10 +16,12 @@ ha_iot_class: "Local Polling"
This `openevse` sensor platform pulls data from an [OpenEVSE](https://www.openevse.com/) Charging station equipped with an ESP8266-based wifi connection.
## {% linkable_title Configuration %}
To enable this sensor in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: openevse
host: IP_ADDRESS

4
source/_components/sensor.pilight.markdown
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@ -16,10 +16,12 @@ ha_iot_class: depends
This `pilight` sensor platform for 433 MHz devices uses a value in the message payload as the sensor value. Unique identifiers (e.g., _uuid_) can be set to distinguish between multiple pilight devices. To use a pilight sensor the pilight Home Assistant hub has to be set up.
## {% linkable_title Configuration %}
To use your sensor via pilight, make sure it is [supported](https://wiki.pilight.org/doku.php/protocols) and add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: pilight
variable: temperature

4
source/_components/sensor.qnap.markdown
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@ -16,10 +16,12 @@ ha_iot_class: "Local Polling"
This `qnap` sensor allows getting various statistics from your [QNAP NAS](https://www.qnap.com/en-us/).
## {% linkable_title Configuration %}
To use the `qnap` sensor in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: qnap
host: IP_ADDRESS_OF_QNAP_NAS

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@ -15,10 +15,12 @@ ha_release: 0.47
This `radarr` sensor platform pulls data from a given [Radarr](https://radarr.video/) instance.
## {% linkable_title Configuration %}
To use your Radarr sensor in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: radarr
api_key: YOUR_API_KEY

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@ -16,10 +16,12 @@ ha_iot_class: "Local Polling"
This `sonarr` sensor platform pulls data from a given [Sonarr](https://sonarr.tv/) instance.
## {% linkable_title Configuration %}
To use your Sonarr sensor in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: sonarr
api_key: YOUR_API_KEY

6
source/_components/sensor.synologydsm.markdown
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@ -16,10 +16,12 @@ ha_iot_class: "Local Polling"
The `synologydsm` sensor platform allows getting various statistics from your [Synology NAS](https://www.synology.com).
## {% linkable_title Configuration %}
To use the `synologydsm` sensor in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
sensor:
- platform: synologydsm
host: IP_ADDRESS_OF_SYNOLOGY_NAS
@ -33,7 +35,7 @@ sensor:
Configuration variables:
- **host** (*Required*): The IP address of the Synology NAS to monitor
- **host** (*Required*): The IP address of the Synology NAS to monitor.
- **port** (*Optional*): The port number on which the Synology NAS is reachable. Defaults to `5000`.
- **username** (*Required*): An user to connect to the Synology NAS (a separate account is advised, see the Separate User Configuration section below for details).
- **password** (*Required*): The password of the user to connect to the Synology NAS.

20
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@ -35,11 +35,21 @@ switch:
password: YOUR_PASSWORD
```
Configuration variables:
- **username** (*Required*): The username for your Fritz!Box.
- **password** (*Required*): The password for your Fritz!Box.
- **host** (*Optional*): The IP address/hostname of your Fritz!Box. Defaults to `fritz.box`.
{% configuration %}
username:
description: The username for your Fritz!Box.
required: true
type: string
password:
description: The password for your Fritz!Box.
required: true
type: string
host:
description: The IP address/hostname of your Fritz!Box.
required: false
type: string
default: fritz.box
{% endconfiguration %}
It is recommended to create a dedicated user for Home Assistant and only allow access to "Smart Home".

6
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@ -14,10 +14,12 @@ ha_release: 0.32
The `mochad` switch platform lets you control an X10 enabled switch device.
## {% linkable_title Configuration %}
To enable this sensor, you first have to set up the [mochad component](/components/mochad/) and then add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
switch:
- platform: mochad
devices:
@ -31,3 +33,5 @@ Configuration variables:
- **name** (*Optional*): The name of the switch. Default is: x10_switch_dev_*address*.
- **comm_type** (*Optional*): pl (powerline) or rf (radio frequency). Default is pl.

4
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@ -16,10 +16,12 @@ ha_iot_class: "Local Push"
The `modbus` switch platform allows you to control [Modbus](http://www.modbus.org/) coils or registers.
## {% linkable_title Configuration %}
To use your Modbus switches in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
switch:
platform: modbus
slave: 1

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@ -15,6 +15,8 @@ ha_iot_class: depends
The `mqtt` switch platform lets you control your MQTT enabled switches.
## {% linkable_title Configuration %}
In an ideal scenario, the MQTT device will have a `state_topic` to publish state changes. If these messages are published with a `RETAIN` flag, the MQTT switch will receive an instant state update after subscription, and will start with the correct state. Otherwise, the initial state of the switch will be `false` / `off`.
When a `state_topic` is not available, the switch will work in optimistic mode. In this mode, the switch will immediately change state after every command. Otherwise, the switch will wait for state confirmation from the device (message from `state_topic`).
@ -24,7 +26,7 @@ Optimistic mode can be forced, even if the `state_topic` is available. Try to en
To enable this switch in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
switch:
- platform: mqtt
command_topic: "home/bedroom/switch1/set"
@ -106,7 +108,7 @@ In this section you will find some real life examples of how to use this sensor.
The example below shows a full configuration for a switch.
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
switch:
- platform: mqtt
name: "Bedroom Switch"
@ -140,7 +142,7 @@ The configuration will look like the example below:
{% raw %}
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
switch:
- platform: mqtt
name: bathroom

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@ -19,6 +19,8 @@ Additionally, RF commands can be defined that trigger this switch to turn on and
To be really sure that Home Assistant knows the actual state of your device it is recommended to use the RF remote with codes unknown to any of your 433 MHz devices. Thus you use the remote to trigger this switch to send the correct RF code to the device.
## {% linkable_title Configuration %}
To define a Pilight switch, add the following lines to your `configuration.yaml`:
```yaml

7
source/_components/switch.wake_on_lan.markdown
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@ -15,6 +15,8 @@ ha_iot_class: "Local Polling"
The `wake_on_lan` (WOL) switch platform allows you to turn on a [WOL](https://en.wikipedia.org/wiki/Wake-on-LAN) enabled computer.
## {% linkable_title Configuration %}
<p class='note warning'>
The WOL switch can only turn on your computer and monitor the state. There is no universal way to turn off a computer remotely. The `turn_off` variable is there to help you call a script when you have figured out how to remotely turn off your computer.
See below for suggestions on how to do this.
@ -23,7 +25,7 @@ See below for suggestions on how to do this.
To enable this switch in your installation, add the following to your `configuration.yaml` file:
```yaml
# Example configuration.yml entry
# Example configuration.yaml entry
switch:
- platform: wake_on_lan
mac_address: "00-01-02-03-04-05"
@ -42,7 +44,8 @@ Configuration variables:
Here are some real life examples of how to use the **turn_off** variable.
### {% linkable_title Suspending Linux %}
Suggested recipe for letting the turn_off script suspend a Linux computer (the **target**)
Suggested recipe for letting the `turn_off` script suspend a Linux computer (the **target**)
from Home Assistant running on another Linux computer (the **server**).
1. On the **server**, log in as the user account Home Assistant is running under. (I'm using `hass` in this example)

6
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@ -127,7 +127,7 @@ The following table shows the units of measurement for each attribute:
<p class='note'>
As per [python-miio issue 185](https://github.com/rytilahti/python-miio/issues/185) the Mi-Home app no longer stores the token within the database (it's retrieved from Xiaomi servers from version 5.0.31+). Currently the only known fix is to uninstall, then install a downgraded version of the apk. Apkmirror is a trusted source for older versions of the app. [Mi-Home version 5.0.0](https://www.apkmirror.com/apk/xiaomi-inc/mihome/mihome-5-0-0-release/) is confirmed as working for the following Android methods.
This token (32 hexadecimal characters) is required for the Xiaomi Mi Robot Vacuum, Xiaomi Philips Lights and Xiaomi IR Remote. The Xiaomi Gateway uses another security method and requires a `key` (16 alphanumeric chars), which can be obtained
This token (32 hexadecimal characters) is required for the Xiaomi Mi Robot Vacuum, Mi Robot 2 (Roborock) Vacuum, Xiaomi Philips Lights and Xiaomi IR Remote. The Xiaomi Gateway uses another security method and requires a `key` (16 alphanumeric chars), which can be obtained
easily via a hidden menu item at the Mi-Home app or using the `miio` command line tool.
</p>
@ -203,7 +203,7 @@ To fetch the token follow these instructions depending on your mobile phone plat
6. Download the 'ADB Backup Extractor' from [here](https://sourceforge.net/projects/adbextractor/files/latest/download)
7. Extract the data from the backup: `java -jar Android\ Backup\ Utilities/Android\ Backup\ Extractor/android-backup-extractor-20171005-bin/abe.jar unpack backup.ab unpacked.tar` (enter the password, if prompted)
8. Untar the unpacked data: `tar -xvf unpacked.tar`
9. `sqlite3 apps/com.xiaomi.smarthome/db/miio2.db 'select token from devicerecord where name = "Mi Robot Vacuum";'` returns the token for your Xiaomi vacuum bot.
9. `sqlite3 apps/com.xiaomi.smarthome/db/miio2.db 'select token from devicerecord where name like "%Vacuum%";'` returns the token for your Xiaomi vacuum bot.
#### {% linkable_title Linux and Android (rooted!) %}
@ -245,7 +245,7 @@ To fetch the token follow these instructions depending on your mobile phone plat
8. Install [DB Browser for SQLite](http://sqlitebrowser.org/).
9. Open DB Browser and load the `.sqlite` file you saved from your backup.
10. Click on the `Execute SQL` tab.
11. Input and run this query: `SELECT ZTOKEN FROM ZDEVICE WHERE ZNAME = "Mi Robot Vacuum"`
11. Input and run this query: `SELECT ZTOKEN FROM ZDEVICE WHERE ZNAME LIKE "%Vacuum%"`
12. Copy the returned 32-digit hexadecimal string to your clipboard.
13. Open `Terminal` and execute this command: `echo '0: <YOUR HEXADECIMAL STRING>' | xxd -r -p | openssl enc -d -aes-128-ecb -nopad -nosalt -K 00000000000000000000000000000000`
14. Use the resulting string as your token.

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@ -93,3 +93,15 @@ lights: !include lights.yaml
```
More information about this feature can also be found at [splitting configuration](/docs/configuration/splitting_configuration/).
## {% linkable_title Common Issues %}
### {% linkable_title found character '\t' %}
If you see the following message:
```
found character '\t' that cannot start any token
```
This means that you've mistakenly entered a tab character, instead of spaces.

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@ -56,7 +56,7 @@ The `<node_id>` level can be used by clients to only subscribe to their own (com
The following firmware for ESP8266, ESP32 and Sonoff unit has built-in support for MQTT discovery:
- [Sonoff-Tasmota](https://github.com/arendst/Sonoff-Tasmota) (starting with 5.11.1e)
- [esphomelib](https://github.com/OttoWinter/esphomelib)
- [esphomeyaml](https://esphomelib.com/esphomeyaml/index.html)
- [ESPurna](https://github.com/xoseperez/espurna)
- [Arilux AL-LC0X LED controllers](https://github.com/mertenats/Arilux_AL-LC0X)

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@ -37,3 +37,9 @@ There are 12 different regions for Z-Wave devices, which relates to the frequenc
You'll now need to connect your [controller](/docs/z-wave/controllers/), [configure](/docs/z-wave/installation) the Z-Wave component, then [add some devices](/docs/z-wave/adding) using the [control panel](/docs/z-wave/control-panel). [This explains](/docs/z-wave/devices/) about devices, and how [entities are named](/docs/z-wave/entities).
You can get more information on the [available services](/docs/z-wave/services/) and [events](/docs/z-wave/events/), what the [query stages](/docs/z-wave/query-stage) of battery powered devices are, as well as details on configuring [specific devices](/docs/z-wave/device-specific/).
## {% linkable_title Instant status updates %}
When you toggle a switch or control a light locally you may find that it takes some time for that to be reflected in Home Assistant. That's because Lutron had patents on the status updates using the *Hail* command class, the traditional way of allowing devices to tell the controller that something happened locally. The same result can be achieved through the *Association* command class, or *Central Scene* command class (though, *Central Scene* isn't [fully supported](https://github.com/OpenZWave/open-zwave/pull/1125) in OpenZWave).
If you search [the Z-Wave products database](http://products.z-wavealliance.org/) for your product and it lists one of those in the **Controlled** command classes (not the **Supported** command classes), then your device will be able to report state changes when they happen. If it doesn't then updates may either happen eventually, or you may need to (carefully) [enable polling](https://www.home-assistant.io/docs/z-wave/control-panel/#entities-of-this-node).

4
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@ -61,12 +61,12 @@ __MQTT Sensors and Switches__
[mqtt-switch]: /components/switch.mqtt/
```yaml
# Example configuration.yml entr
# Example configuration.yaml entry
sensor:
platform: mqtt
name: "MQTT Sensor"
state_topic: "home/bedroom/temperature"
unit_of_measurement: "ºC"
unit_of_measurement: "°C"
switch:
platform: mqtt

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@ -50,6 +50,7 @@ Looking for [talking points](/help/talking-points/) or [trivia](/help/trivia)?
Don't miss the regular [Home Assistant podcasts](https://hasspodcast.io/).
- [HackSpace magazine #6](https://s3-eu-west-1.amazonaws.com/rpi-magazines/issues/full_pdfs/000/000/013/original/HS_6_Digital_Optimised.pdf?1524495009) - May 2018
- [The winners of the Thomas-Krenn-Awards 2018](https://www.thomas-krenn.com/de/tkmag/allgemein/die-gewinner-des-thomas-krenn-awards-2018-stehen-fest/) - March 2018
- [Hausautomations-Schaltzentrale Home Assistant auf Python-Basis](https://www.heise.de/ct/ausgabe/2017-26-Hausautomations-Schaltzentrale-Home-Assistant-3909532.html) - December 2017
- [Using Home Assistant the ARTIK Cloud](https://developer.artik.io/documentation/developer-guide/wireless-iot/hass.html) - September 2017