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Python script: Enphase Envoy mqtt json for Home Assistant

A Python script that takes a real time json stream from an Enphase Envoy and publishes to a mqtt broker. This can then be used within Home Assistant or for other applications. The data updates at least once per second with negligible load on the Envoy.

Note - Now works with 7.x.x and 8.x.x firmware - thanks to @helderd.

Breaking change. You must enter your Enphase account userid Email and password in Configuration so the token can be retreived

Requirements

  • An Enphase Envoy running 5.x.x, 7.x.x or 8.x.x firmware.
  • For 7.x.x and 8.x.x a token is automatically downloaded from Enphase every time the addon is started, so you must include your Enphase account username and password in configutaion
  • A mqtt broker that is already running - this can be external or use the Mosquitto broker from the Home Assistant Add-on store
    • If you use the HA broker add-on, create a Home Assistant user/password for mqtt as described in the Mosquitto broker installation instructions

Installation Method 1 - as a Home Assistant addon.

  1. Add this Repository to your Home Assistant by clicking this button

Open your Home Assistant instance and show the add add-on repository dialog with a specific repository URL pre-filled.

Supports aarch64 Architecture Supports amd64 Architecture Supports armhf Architecture Supports armv7 Architecture Supports i386 Architecture

  1. After adding the Repository, you'll see a new section titled "vk2him's Enphase add-on repository"

  2. Click to install "Stream mqtt from Enphase Envoy"

  3. After it's installed, click on "Configuration" and enter required settings Note: "MQTT_HOST" will be the IP address for your mqtt broker, so this will probably be the IP address of your Home Assistant

  4. Optionally slide switch to enable Watchdog and/or Auto update

  5. Click on the "Logs" tab, you should now see output similar to this:

         [s6-init] making user provided files available at /var/run/s6/etc...exited 0.
         [s6-init] ensuring user provided files have correct perms...exited 0.
         [fix-attrs.d] applying ownership & permissions fixes...
         [fix-attrs.d] done.
         [cont-init.d] executing container initialization scripts...
         [cont-init.d] done.
         [services.d] starting services
         [services.d] done.
         06/04/2022 16:52:14  Connected to 192.168.1.74:1883
         /envoy/json
    
  6. mqtt steam will now be sent to your broker

configuration.yaml configuration examples For FW 5

# Example configuration.yaml entry
#
# Creates sensors with names such as sensor.mqtt_production
#
sensor:
  - platform: mqtt
    state_topic: "envoy/json"
    name: "mqtt_production"
    qos: 0
    unit_of_measurement: "W"
    value_template: '{% if is_state("sun.sun", "below_horizon")%}0{%else%}{{ value_json["production"]["ph-a"]["p"]  | int(0) }}{%endif%}'
    state_class: measurement
    device_class: power

  - platform: mqtt
    state_topic: "envoy/json"
    value_template: '{{ value_json["total-consumption"]["ph-a"]["p"] }}'
    name: "mqtt_consumption"
    qos: 0
    unit_of_measurement: "W"
    state_class: measurement
    device_class: power

  - platform: mqtt
    state_topic: "envoy/json"
    name: "mqtt_power_factor"
    qos: 0
    unit_of_measurement: "%"
    value_template: '{{ value_json["total-consumption"]["ph-a"]["pf"] }}'
    state_class: measurement
    device_class: power_factor

  - platform: mqtt
    state_topic: "envoy/json"
    name: "mqtt_voltage"
    qos: 0
    unit_of_measurement: "V"
    value_template: '{{ value_json["total-consumption"]["ph-a"]["v"] }}'
    state_class: measurement
    device_class: voltage
#

configuration.yaml configuration examples For FW 7 and FW 8

mqtt:
  sensor:
    - name: envoy mqtt consumption
      state_topic: "envoy/json"
      value_template: '{{ value_json[1]["activePower"] | round(0) | int(0)}}'
      unique_id: envoy_mqtt_consumption
      qos: 0
      unit_of_measurement: "W"
      state_class: measurement
      device_class: power
    - name: envoy mqtt voltage
      state_topic: "envoy/json"
      value_template: '{{ value_json[1]["voltage"] | round(0) | int(0)}}'
      unique_id: envoy_mqtt_voltage
      qos: 0
      unit_of_measurement: "V"
      state_class: measurement
      device_class: voltage
    - name: envoy mqtt current
      state_topic: "envoy/json"
      value_template: '{{ value_json[1]["current"] | round(2)}}'
      unique_id: envoy_mqtt_current
      qos: 0
      unit_of_measurement: "A"
      state_class: measurement
      device_class: current
    - name: envoy mqtt power factor
      state_topic: "envoy/json"
      value_template: '{{ value_json[1]["pwrFactor"] | round(2)}}'
      unique_id: envoy_mqtt_power_factor
      qos: 0
      unit_of_measurement: "%"
      state_class: measurement
      device_class: power_factor

value_template configuration examples for FW5

value_template: '{{ value_json["total-consumption"]["ph-a"]["p"] }}' # Phase A Total power consumed by house
value_template: '{{ value_json["net-consumption"]["ph-c"]["p"] }}'   # Phase C - Total Power imported or exported
value_template: '{{ value_json["production"]["ph-b"]["v"] }}'   # Phase B - Voltage produced by panels
value_template: '{{ value_json["production"]["ph-a"]["p"] | int + value_json["production"]["ph-b"]["p"] | int + value_json["production"]["ph-c"]["p"] | int }}'  # Adding all three Production phases

Real time power display using Power Wheel Card

Here's the code if you'd like real-time visualisations of your power usage like this:

Power Wheel card:

active_arrow_color: '#FF0000'
color_icons: true
consuming_color: '#FF0000'
grid_power_consumption_entity: sensor.importing
grid_power_production_entity: sensor.exporting
home_icon: mdi:home-outline
icon_height: mdi:18px
producing_colour: '#00FF00'
solar_icon: mdi:solar-power
solar_power_entity: sensor.solarpower
title_power: ' '
type: custom:power-wheel-card

configuration.yaml:

sensor:
  
  #
  # These ones are for Envoy via mqtt
  #
  - platform: mqtt
    state_topic: "envoy/json"
    name: "mqtt_production"
    qos: 0
    unit_of_measurement: "W"
    value_template: '{% if is_state("sun.sun", "below_horizon")%}0{%else%}{{ value_json["production"]["ph-a"]["p"]  | int(0) }}{%endif%}'
    state_class: measurement
    device_class: power

  - platform: mqtt
    state_topic: "envoy/json"
    value_template: '{{ value_json["total-consumption"]["ph-a"]["p"] }}'
    name: "mqtt_consumption"
    qos: 0
    unit_of_measurement: "W"
    state_class: measurement
    device_class: power

  - platform: template
    sensors:
      exporting:
        friendly_name: "Current MQTT Energy Exporting"
        value_template: "{{ [0, (states('sensor.mqtt_production') | int(0) - states('sensor.mqtt_consumption') | int(0))] | max }}"
        unit_of_measurement: "W"
        icon_template: mdi:flash
      importing:
        friendly_name: "Current MQTT Energy Importing"
        value_template: "{{ [0, (states('sensor.mqtt_consumption') | int(0) - states('sensor.mqtt_production') | int(0))] | max }}"
        unit_of_measurement: "W"
        icon_template: mdi:flash
      solarpower:
        friendly_name: "Solar MQTT Power"
        value_template: "{{ states('sensor.mqtt_production')}}"
        unit_of_measurement: "W"
        icon_template: mdi:flash

Installation Method 2 - as a stand-alone install on a Linux host

  • Copy to you Linux host in the directory of your choosing git clone https://github.com/vk2him/Enphase-Envoy-mqtt-json
  • Configure settings in /data/options.json

Note:

  • You need to install paho.mqtt :-
    pip install paho-mqtt
  • If that doesn't work, try
git clone https://github.com/eclipse/paho.mqtt.python
cd paho.mqtt.python
python setup.py install

To manually run Script

/path/to/python3 /path/to/envoy_to_mqtt_json.py

Run automatically as a systemd service on Linux Mint,Ubuntu, etc

Note: this should work for any linux distribution that uses systemd services, but the instructions and locations may vary slightly.

Take note of where your python file has been saved as you need to point to it in the service file

/path/to/envoy_to_mqtt_json.py

Using a bash terminal

cd /etc/systemd/system

Create a file called envoy.service with your favourite file editor and add the following (alter User/Group to suit).


[Unit]
Description=Envoy stream to MQTT
Documentation=https://github.com/vk2him/Enphase-Envoy-mqtt-json
After=network.target mosquitto.service
StartLimitIntervalSec=0

[Service]
Type=simple
User=youruserid
Group=yourgroupid
ExecStart=/path/to/python3 /path/to/envoy_to_mqtt_json.py
Environment=PYTHONUNBUFFERED=true
Restart=always
RestartSec=5
SyslogIdentifier=envoy
StandardError=journal

[Install]
WantedBy=multi-user.target

Save and close the file then run the following commands

sudo systemctl daemon-reload
sudo systemctl enable envoy.service
sudo systemctl start envoy.service

You can check the status of the service at any time by the command

systemctl status envoy

Run automatically on macOs as a LaunchAgent

  • an example for macOs is to create a ~/Library/LaunchAgents/envoy.plist
<?xml version="1.0" encoding="UTF-8"?>
<!DOCTYPE plist PUBLIC "-//Apple//DTD PLIST 1.0//EN" "http://www.apple.com/DTDs/PropertyList-1.0.dtd">
<plist version="1.0">
<dict>
	<key>Disabled</key>
	<false/>
	<key>EnvironmentVariables</key>
	<dict>
		<key>PATH</key>
		<string>/usr/local/bin:/usr/bin:/bin:/usr/sbin:/sbin:/Library/Apple/usr/bin:/usr/local/sbin</string>
	</dict>
	<key>KeepAlive</key>
	<true/>
	<key>Label</key>
	<string>envoy</string>
	<key>ProgramArguments</key>
	<array>
		<string>/path/to/python3</string>
		<string>/path/to/envoy_to_mqtt_json.py</string>
	</array>
	<key>RunAtLoad</key>
	<true/>
</dict>
</plist>

Then use launchctl to load the plist from a terminal:

launchctl load ~/Library/LaunchAgents/envoy.plist

To stop it running use

launchctl unload ~/Library/LaunchAgents/envoy.plist

Example output for FW 5

The resulting mqtt topic should look like this example:

{
    "production": {
        "ph-a": {
            "p": 351.13,
            "q": 317.292,
            "s": 487.004,
            "v": 244.566,
            "i": 1.989,
            "pf": 0.72,
            "f": 50.0
        },
        "ph-b": {
            "p": 0.0,
            "q": 0.0,
            "s": 0.0,
            "v": 0.0,
            "i": 0.0,
            "pf": 0.0,
            "f": 0.0
        },
        "ph-c": {
            "p": 0.0,
            "q": 0.0,
            "s": 0.0,
            "v": 0.0,
            "i": 0.0,
            "pf": 0.0,
            "f": 0.0
        }
    },
    "net-consumption": {
        "ph-a": {
            "p": 21.397,
            "q": -778.835,
            "s": 865.208,
            "v": 244.652,
            "i": 3.539,
            "pf": 0.03,
            "f": 50.0
        },
        "ph-b": {
            "p": 0.0,
            "q": 0.0,
            "s": 0.0,
            "v": 0.0,
            "i": 0.0,
            "pf": 0.0,
            "f": 0.0
        },
        "ph-c": {
            "p": 0.0,
            "q": 0.0,
            "s": 0.0,
            "v": 0.0,
            "i": 0.0,
            "pf": 0.0,
            "f": 0.0
        }
    },
    "total-consumption": {
        "ph-a": {
            "p": 372.528,
            "q": -1096.126,
            "s": 1352.165,
            "v": 244.609,
            "i": 5.528,
            "pf": 0.28,
            "f": 50.0
        },
        "ph-b": {
            "p": 0.0,
            "q": 0.0,
            "s": 0.0,
            "v": 0.0,
            "i": 0.0,
            "pf": 0.0,
            "f": 0.0
        },
        "ph-c": {
            "p": 0.0,
            "q": 0.0,
            "s": 0.0,
            "v": 0.0,
            "i": 0.0,
            "pf": 0.0,
            "f": 0.0
        }
    }
}

Note: Data is provided for three phases - unused phases have values of 0.0

Description of labels

"production": = Solar panel production - always positive value
"total-consumption": = Total Power consumed - always positive value
"net-consumption": = Total power Consumed minus Solar panel production. Will be positive when importing and negative when exporting
    
    "ph-a" = Phase A    
    "ph-b" = Phase B
    "ph-c" = Phase C

        "p": =  Real Power ** This is the one to use
        "q": =  Reactive Power
        "s": =  Apparent Power
        "v": =  Voltage
        "i": =  Current
        "pf": = Power Factor
        "f": =  Frequency

Example output for FW 7 and FW 8

The resulting mqtt topic should look like this example:

[
    {
        "eid": 704643328,
        "timestamp": 1689409016,
        "actEnergyDlvd": 0.063,
        "actEnergyRcvd": 7939.998,
        "apparentEnergy": 63680.783,
        "reactEnergyLagg": 788.493,
        "reactEnergyLead": 3.712,
        "instantaneousDemand": 0.000,
        "activePower": 0.000,
        "apparentPower": 43.086,
        "reactivePower": -0.000,
        "pwrFactor": 0.000,
        "voltage": 237.151,
        "current": 0.254,
        "freq": 50.000,
        "channels": [
            {
                "eid": 1778385169,
                "timestamp": 1689409016,
                "actEnergyDlvd": 0.063,
                "actEnergyRcvd": 7939.998,
                "apparentEnergy": 63680.783,
                "reactEnergyLagg": 788.493,
                "reactEnergyLead": 3.712,
                "instantaneousDemand": 0.000,
                "activePower": 0.000,
                "apparentPower": 43.086,
                "reactivePower": -0.000,
                "pwrFactor": 0.000,
                "voltage": 237.151,
                "current": 0.254,
                "freq": 50.000
            },
            {
                "eid": 1778385170,
                "timestamp": 1689409016,
                "actEnergyDlvd": 0.061,
                "actEnergyRcvd": 10104.018,
                "apparentEnergy": 31694.583,
                "reactEnergyLagg": 763.996,
                "reactEnergyLead": 7.749,
                "instantaneousDemand": -0.097,
                "activePower": -0.097,
                "apparentPower": 2.779,
                "reactivePower": 0.000,
                "pwrFactor": 0.000,
                "voltage": 9.994,
                "current": 0.278,
                "freq": 50.000
            },
            {
                "eid": 1778385171,
                "timestamp": 1689409016,
                "actEnergyDlvd": 0.000,
                "actEnergyRcvd": 20943.151,
                "apparentEnergy": 22986.373,
                "reactEnergyLagg": 762.634,
                "reactEnergyLead": 0.866,
                "instantaneousDemand": -0.431,
                "activePower": -0.431,
                "apparentPower": 2.006,
                "reactivePower": -0.000,
                "pwrFactor": -1.000,
                "voltage": 10.346,
                "current": 0.194,
                "freq": 50.000
            }
        ]
    },
    {
        "eid": 704643584,
        "timestamp": 1689409016,
        "actEnergyDlvd": 3917484.219,
        "actEnergyRcvd": 637541.835,
        "apparentEnergy": 8370194.604,
        "reactEnergyLagg": 113560.641,
        "reactEnergyLead": 2299086.122,
        "instantaneousDemand": -161.626,
        "activePower": -161.626,
        "apparentPower": 372.559,
        "reactivePower": -212.953,
        "pwrFactor": -0.431,
        "voltage": 237.273,
        "current": 1.571,
        "freq": 50.000,
        "channels": [
            {
                "eid": 1778385425,
                "timestamp": 1689409016,
                "actEnergyDlvd": 3917484.219,
                "actEnergyRcvd": 637541.835,
                "apparentEnergy": 8370194.604,
                "reactEnergyLagg": 113560.641,
                "reactEnergyLead": 2299086.122,
                "instantaneousDemand": -161.626,
                "activePower": -161.626,
                "apparentPower": 372.559,
                "reactivePower": -212.953,
                "pwrFactor": -0.431,
                "voltage": 237.273,
                "current": 1.571,
                "freq": 50.000
            },
            {
                "eid": 1778385426,
                "timestamp": 1689409016,
                "actEnergyDlvd": 0.000,
                "actEnergyRcvd": 18677.254,
                "apparentEnergy": 10322.864,
                "reactEnergyLagg": 798.595,
                "reactEnergyLead": 0.000,
                "instantaneousDemand": -0.222,
                "activePower": -0.222,
                "apparentPower": 0.898,
                "reactivePower": 0.000,
                "pwrFactor": 0.000,
                "voltage": 3.024,
                "current": 0.297,
                "freq": 50.000
            },
            {
                "eid": 1778385427,
                "timestamp": 1689409016,
                "actEnergyDlvd": 0.064,
                "actEnergyRcvd": 27672.079,
                "apparentEnergy": 115.734,
                "reactEnergyLagg": 799.004,
                "reactEnergyLead": 7.648,
                "instantaneousDemand": -0.000,
                "activePower": -0.000,
                "apparentPower": 0.000,
                "reactivePower": 0.000,
                "pwrFactor": 0.000,
                "voltage": 7.651,
                "current": 0.000,
                "freq": 50.000
            }
        ]
    }
]'

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