Hi, I bought a PV solution with Battery from Fenecon: https://fenecon.de/fenecon-home/
Actuall I don’t found a ready Implementation for it, but they allowing to conntect via API/Rest.
https://docs.fenecon.de/de/_/latest/fems/apis.html
Would really presuade if sombody can give me a hint.
Thanks Michael
If I try that:
[http://x:[email protected]:80/rest]
I get that Output:
{“jsonrpc”:“2.0”,“id”:“00000000-0000-0000-0000-000000000000”,“error”:{“code”:1003,“message”:“Authentication failed”,“data”:[]}}
I am considering to purchase a Fenecon home (instead of Tesla Powerwall) system and would also like to know if anyone has integrated it to HA.
### Fenecon Home ###
- platform: rest
resource: http://192.168.xx.xx:8084/rest/channel/_sum/GridBuyActiveEnergy
authentication: basic
username: "user"
password: "user"
name: FEMS Test
value_template: '{{ value_json["value"] | float * 0.001}}'
unit_of_measurement: "kWh"
scan_interval: 120
https://docs.fenecon.de/de/_/latest/fems/apis.html#_channel_endpunkt
I have successfully integrated by using the Modbus API, which seems to work quite well.
I think that modbus is better than REST, because the data is transferred in binary, which should be a lot more efficient than getting every single value with JSON…
You should adjust the IP-Address, the Names and the Update/Scan intervals to your needs.
You can also download the protocol table for your specific Installation in your “Anlagenprofil”.
Also the list is not complete, and I do not know what some registers actually do, and some might be labeled incorrectly, so check if the data matches with the FEMS Online Portal first, before using it.
https://docs.fenecon.de/de/_/latest/fems/fems-app/includes/FEMS_App_Modbus_TCP.html
- name: "fems"
close_comm_on_error: false
delay: 5
timeout: 5
type: tcp
host: 192.168.xx.xx
port: 502
sensors:
#INT
- name: "FEMS_EssSoc" # Battery SoC
scan_interval: 60
data_type: uint16
input_type: input
device_class: battery
state_class: measurement
unit_of_measurement: "%"
address: 302
slave: 1
unique_id: fems_modbus_302
#FLOAT32
- name: "FEMS_EssActivePower" # Combined Power of PV + Battery
unit_of_measurement: W
scan_interval: 10
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 303
slave: 1
unique_id: fems_modbus_303
- name: "FEMS_GridActivePower" # Grid Power
unit_of_measurement: W
scan_interval: 10
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 315
slave: 1
unique_id: fems_modbus_315
- name: "FEMS_ProductionDcActualPower" # PV Power
unit_of_measurement: W
scan_interval: 10
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 339
slave: 1
unique_id: fems_modbus_339
- name: "FEMS_ConsumptionActivePower" #House Power
unit_of_measurement: W
scan_interval: 10
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 343
slave: 1
unique_id: fems_modbus_343
- name: "FEMS_EssActivePowerL1"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 391
slave: 1
unique_id: fems_modbus_391
- name: "FEMS_EssActivePowerL2"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 393
slave: 1
unique_id: fems_modbus_393
- name: "FEMS_EssActivePowerL3"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 395
slave: 1
unique_id: fems_modbus_395
- name: "FEMS_GridActivePowerL1"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 397
slave: 1
unique_id: fems_modbus_397
- name: "FEMS_GridActivePowerL2"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 399
slave: 1
unique_id: fems_modbus_399
- name: "FEMS_GridActivePowerL3"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 401
slave: 1
unique_id: fems_modbus_401
- name: "FEMS_ConsumptionActivePowerL1"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 409
slave: 1
unique_id: fems_modbus_409
- name: "FEMS_ConsumptionActivePowerL2"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 411
slave: 1
unique_id: fems_modbus_411
- name: "FEMS_ConsumptionActivePowerL3"
unit_of_measurement: W
scan_interval: 20
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 413
slave: 1
unique_id: fems_modbus_413
- name: "FEMS_EssDischargePower" #Battery Discharge Power
unit_of_measurement: W
scan_interval: 5
data_type: float32
input_type: holding
device_class: power
state_class: measurement
address: 415
slave: 1
unique_id: fems_modbus_415
#Energy (Float64)
- name: "FEMS_EssActiveChargeEnergy" #not sure what this is, I think its the Energy the battery has been charged form AC/the Grid, should not be too high, because its normally not possible/allowed (in Germany at least) to charge from the Grid.
unit_of_measurement: Wh
scan_interval: 60
data_type: float64
input_type: holding
device_class: energy
state_class: total_increasing
address: 351
slave: 1
unique_id: fems_modbus_351
- name: "FEMS_EssActiveDischargeEnergy" #not sure what this is, I think its the total amount of Energy the System has put out to AC, so basicially the the amount of PV minus what is currently stored in the battery plus the amount that you have charged from the Grid (so FEMS_EssActiveChargeEnergy), but that is normally not possible, so this is not very useful.
unit_of_measurement: Wh
scan_interval: 60
data_type: float64
input_type: holding
device_class: energy
state_class: total_increasing
address: 355
slave: 1
unique_id: fems_modbus_355
- name: "FEMS_GridBuyActiveEnergy" #Total Consumption from Grid
unit_of_measurement: Wh
scan_interval: 60
data_type: float64
input_type: holding
device_class: energy
state_class: total_increasing
address: 359
slave: 1
unique_id: fems_modbus_359
- name: "FEMS_GridSellActiveEnergy" #Total Energy Sold to Grid
unit_of_measurement: Wh
scan_interval: 60
data_type: float64
input_type: holding
device_class: energy
state_class: total_increasing
address: 363
slave: 1
unique_id: fems_modbus_363
- name: "FEMS_ProductionActiveEnergy" # Total PV Production Energy
unit_of_measurement: Wh
scan_interval: 60
data_type: float64
input_type: holding
device_class: energy
state_class: total_increasing
address: 367
slave: 1
unique_id: fems_modbus_367
- name: "FEMS_ConsumptionActiveEnergy" # Total Energy Usage
unit_of_measurement: Wh
scan_interval: 60
data_type: float64
input_type: holding
device_class: energy
state_class: total_increasing
address: 379
slave: 1
unique_id: fems_modbus_379
- name: "FEMS_EssDcChargeEnergy" # Total Battery Charge Energy
unit_of_measurement: Wh
scan_interval: 60
data_type: float64
input_type: holding
device_class: energy
state_class: total_increasing
address: 383
slave: 1
unique_id: fems_modbus_383
- name: "FEMS_EssDcDischargeEnergy" # Total Battery Discharge Energy
unit_of_measurement: Wh
scan_interval: 60
data_type: float64
input_type: holding
device_class: energy
state_class: total_increasing
address: 387
slave: 1
unique_id: fems_modbus_387
To integrate it follow these instructions: (by @Skeletitor)
configuration.yaml or use the File Editor Addonmodbus: !include modbus.yaml
modbus.yaml (in the same directory as configuration.yaml and paste the upper code for the rest integration. Attention! Adjust the IP of your Fenecon installation. Also you should adjust the channels and the names to those that are interesting to you.Well done!
I’m trying to include fenecon into home assistant too. Could you report your steps how you successfully added it ?
Bests
Andreas
modbus: !include modbus.yaml
//edit: I guess this code works for default installations with a default system profile. Depending on the installation and apps, the system profile may change.
@benniju - Did you figure out if we can get access to the power states of both chargers via Modbus? I’m blind or these metrics aren’t there.
Oh sorry for not answering for so long. I thought the forum would send E-Mails (I set the thread to watching).
No I have not yet figured out how/if you can get those values via Modbus. For those values I use the REST API. (And I am not sure if the endpoints other than the _sum/ channels are officially supported, but it works fine)
You can find out which API-Endpoints exist by either looking at the Websocket Connection in the Browser Dev Tools (FEMS) or by sending requests like the following one in the Talend API Tester (The setup of that is described by Fenecon here):
http://<YOUR IP HERE>:8084/rest/channel/charger.+/.+
This gets every value from every charger (PV-String) (for example the voltages or production values), it works because the REST API apparently supports some kind of Regex. (Thanks for openWB, I saw that trick in their source code, you could also look at the openEMS-Source-Code)
The first part after the channel is the same as in the “Anlagenprofil”:
I have to use the selectattr("address", "equalto", "battery0/Tower0PackVoltage") | map(attribute="value") | first filter because the order of the response is kind of random, so you should not use a simple [2] for example.
(Please let me know if there is a better way to do that.)
Alternatively you could send responses for every value, but I do not like that approach as that would send to many HTTP-Requests for my taste. (AFAIK there is basically just a poor Raspberry Pi running the FEMS-Box.)
This is my current REST-Configuration (for example for getting the temperatures):
(You need to replace the IP for every URL)
- resource: "http://<YOUR IP HERE>:8084/rest/channel/battery0/(Tower0PackVoltage|Current|Soh)"
username: x
password: user
authentication: basic
scan_interval: 60
sensor:
- value_template: '{{value_json | selectattr("address", "equalto", "battery0/Tower0PackVoltage") | map(attribute="value") | first / 10 }}'
name: "FEMS Batteriespannung"
unit_of_measurement: "V"
device_class: voltage
state_class: measurement
unique_id: "fems/battery0/Tower0PackVoltage"
- value_template: '{{value_json | selectattr("address", "equalto", "battery0/Current") | map(attribute="value") | first }}'
name: "FEMS Batteriestrom"
unit_of_measurement: "A"
device_class: current
state_class: measurement
unique_id: "fems/battery0/Current"
- value_template: '{{value_json | selectattr("address", "equalto", "battery0/Soh") | map(attribute="value") | first }}'
name: "FEMS Batterie State of Health"
unit_of_measurement: "%"
#device_class: current
state_class: measurement
unique_id: "fems/battery0/Soh"
- resource: "http://<YOUR IP HERE>:8084/rest/channel/charger.+/(ActualPower|Voltage|Current|ActualEnergy)"
username: x
password: user
authentication: basic
scan_interval: 20
sensor:
- name: "FEMS PV 2 Leistung"
value_template: '{{value_json | selectattr("address", "equalto", "charger1/ActualPower") | map(attribute="value") | first }}'
unit_of_measurement: "W"
device_class: power
state_class: measurement
unique_id: "fems/charger1/ActualPower"
- value_template: '{{value_json | selectattr("address", "equalto", "charger1/Voltage") | map(attribute="value") | first / 1000 }}'
name: "FEMS PV 2 Spannung"
unit_of_measurement: "V"
device_class: voltage
state_class: measurement
unique_id: "fems/charger1/Voltage"
- value_template: '{{value_json | selectattr("address", "equalto", "charger1/Current") | map(attribute="value") | first / 1000 }}'
name: "FEMS PV 2 Strom"
unit_of_measurement: "A"
device_class: current
state_class: measurement
unique_id: "fems/charger1/Current"
- value_template: '{{value_json | selectattr("address", "equalto", "charger1/ActualEnergy") | map(attribute="value") | first }}'
name: "FEMS PV 2 Erzeugung"
unit_of_measurement: "Wh"
device_class: energy
state_class: total_increasing
unique_id: "fems/charger1/ActualEnergy"
- value_template: '{{value_json | selectattr("address", "equalto", "charger0/ActualPower") | map(attribute="value") | first }}'
name: "FEMS PV 1 Leistung"
unit_of_measurement: "W"
device_class: power
state_class: measurement
unique_id: "fems/charger0/ActualPower"
- value_template: '{{value_json | selectattr("address", "equalto", "charger0/Voltage") | map(attribute="value") | first / 1000 }}'
name: "FEMS PV 1 Spannung"
unit_of_measurement: "V"
device_class: voltage
state_class: measurement
unique_id: "fems/charger0/Voltage"
- value_template: '{{value_json | selectattr("address", "equalto", "charger0/Current") | map(attribute="value") | first / 1000 }}'
name: "FEMS PV 1 Strom"
unit_of_measurement: "A"
device_class: current
state_class: measurement
unique_id: "fems/charger0/Current"
- value_template: '{{value_json | selectattr("address", "equalto", "charger0/ActualEnergy") | map(attribute="value") | first }}'
name: "FEMS PV 1 Erzeugung"
unit_of_measurement: "Wh"
device_class: energy
state_class: total_increasing
unique_id: "fems/charger0/ActualEnergy"
- resource: "http://<YOUR IP HERE>:8084/rest/channel/batteryInverter0/(AirTemperature|BmsPackTemperature|RadiatorTemperature)"
username: x
password: user
authentication: basic
scan_interval: 60
sensor:
- value_template: '{{value_json | selectattr("address", "equalto", "batteryInverter0/AirTemperature") | map(attribute="value") | first }}'
name: "FEMS batteryInverter0/AirTemperature"
unit_of_measurement: "°C"
device_class: temperature
state_class: measurement
unique_id: "fems/batteryInverter0/AirTemperature"
- value_template: '{{value_json | selectattr("address", "equalto", "batteryInverter0/BmsPackTemperature") | map(attribute="value") | first }}'
name: "FEMS batteryInverter0/BmsPackTemperature"
unit_of_measurement: "°C"
device_class: temperature
state_class: measurement
unique_id: "fems/batteryInverter0/BmsPackTemperature"
- value_template: '{{value_json | selectattr("address", "equalto", "batteryInverter0/RadiatorTemperature") | map(attribute="value") | first }}'
name: "FEMS batteryInverter0/RadiatorTemperature"
unit_of_measurement: "°C"
device_class: temperature
state_class: measurement
unique_id: "fems/batteryInverter0/RadiatorTemperature"
To integrate it: (thanks to @Skeletitor for the clear instructions)
configuration.yaml or use the File Editor Addonrest: !include rest_integration.yaml
rest_integration.yaml (in the same directory as configuration.yaml and paste the upper code for the rest integration. Attention! Adjust the IP of your Fenecon installation in the multiple places. Also you should adjust the channels to those that are interesting to you.Another possibilty would be to use the Websocket API on Port 8085, which is unfortunately not yet documented neither by FENECON nor openEMS. I have used the Simple WebSocket Client Extension for Chrome to experiment with the Websocket-API.
It seems to be quite simple JSON-RPC. I “reverse-engineered” it by looking at the Websocket in Firefox, where you can see the whole communication, for example how it subscribes to more channels when you open, for example the consumption card, to subscribe to each phases power value.
{
"jsonrpc":"2.0",
"method":"authenticateWithPassword",
"params":{
"password":"user"
},
"id":"60e8f988-9435-4c18-9421-080dcc18b459"
}
This respones with a token which you could also use to authenticate.
{"jsonrpc":"2.0","method":"authenticateWithToken","params":{"token":"token here"},"id":"9cd785f7-121f-4576-b310-ff77bd7aad45"}
{
"jsonrpc":"2.0",
"method":"edgeRpc",
"params":{
"edgeId":"0",
"payload":{
"jsonrpc":"2.0",
"method":"subscribeChannels",
"params":{
"count":"0",
"channels":[
"_sum/State",
"_sum/EssSoc",
"battery0/Tower0PackVoltage"
]
},
"id":"1bfd9015-eda9-4576-a7d5-4d777f505f1d"
}
},
"id":"d3bf4200-7fc9-4c85-8656-59cc3facd253"
}
After that a response with the values is send every second (I don’t know if there is a way to change the timing, though someone could look at the openEMS-Websocket-Source-Code):
{
"jsonrpc":"2.0",
"method":"edgeRpc",
"params":{
"edgeId":"0",
"payload":{
"jsonrpc":"2.0",
"method":"currentData",
"params":{
"_sum/EssSoc":48,
"_sum/State":0,
"battery0/Tower0PackVoltage":2780
}
}
}
}
It would be great if someone could write an integration (or something similar to zigbee2mqtt, called for example openems2mqtt) to use this Websocket-API in Home-Assistant, I currently do not have the time and experience for creating something like that.
Hello Benjamin,
since two days I have a Fenecon Home running. And now I want to implement the values shown at the FEMS board in my home assistant. So far I’ve only worked with prepared integrations - now I’m trying to work on source codes.
It is important to me that I get the values comparable to those of the FEMS board in the HA. I could find some in your modbus script. Thanks to your great instructions - I got that to work for me.
With the REST script I am missing the installation point here. Where and how do you have to integrate this to get it working. Would you be so kind as to explain this to me? Thanks very much!
Best Thomas
Hmm,
I’m not sure if an integration should use an API which is not official supported.
But good work. Thanks for that. This websockets may be used by their own IU.
But I’ve found some infos about an MQTT implementation in openEMS: openems/io.openems.edge.controller.api.mqtt at develop · OpenEMS/openems · GitHub
I’m not sure if this can be used in FEMS now. → Sounds like a feature request
//BTW - yep I didn’t get your answer too. I guess we need to subscribe to a topic here.
You can install it just like the modbus installation (as @Skeletitor described here) so basically:
configuration.yaml or use the File Editor Addonrest: !include rest_integration.yaml
rest_integration.yaml (in the same directory as configuration.yaml and paste the upper code for the rest integration. Attention! Adjust the IP of your Fenecon installation in the multiple places. Also you should adjust the channels to those that are interesting to you.Well the Websocket API is listed by Fenecon here, so it is theoretically supported, but it is not yet officially documented (the page says that it’s TODO).
I asked the Fenecon Support about the MQTT-API that is available on openEMS, and they said that it is not available for FEMS (at least for now). There are also no open ports on the device which would point to mqtt.
This is a nmap scan:
PORT STATE SERVICE
22/tcp open ssh
80/tcp open http
1883/tcp closed mqtt # mqtt port is closed
8084/tcp open unknown # That is the port for the REST-API
8085/tcp open unknown # That is the port for the Websocket-API
They just have to publish the configuration, e.g. in ‘plant profile/system profile/Anlagenprofil (don’t know how to translate this)’ or an app and give us the possibility to configure the MQTT broker setting. This shouldn’t be rocket science.
On this German Article the Head of Energy Management Systems at FENECON GmbH (Stefan Feilmeier) commented the following:
Hallo Bernhard,
es ist immer wichtig zu unterscheiden zwischen dem Open-Source Projekt OpenEMS und dem von FENECON als Produkt unterstützten FEMS. Für FEMS gibt es zwar grundsätzlich eine Kompatibilität mit MQTT (siehe openems/io.openems.edge.controller.api.mqtt at develop · OpenEMS/openems · GitHub), aber noch keine fertige „FEMS-App“ (inkl. Inbetriebnahmeunterstützung, Service, etc.)
Kontaktiere mich doch bitte einmal per PN über das Community Forum: Profile - stefan.feilmeier - OpenEMS Community
Gruß,
Stefan
So maybe someone could try contacting him about that?
Hallo Benjamin,
Thank you for information! Now I can read and implement the values from string1+2 - great work!
I am currently waiting for the integration of Fenecon for my Kostal - then I will try to get the power values from him.
One Question: Due to my programming I found some interesting topics that I have to check (selling of energy to the grid at night from battery and buying of energy at day while the sun is shinig and the battery is loading). Could this be a programming mistake from my side?
Grüße
Thomas
Hi all,
I just got a Fenecon Home so here are some hints for the REST API.
Maybe this can help someone, …for me it was the first time using Rest with HA so maybe not the perfect solution but it’s working
Home Assistant does automatically support rest, so nothing else is required:
I added this lines into configuration.yaml
The template part is to enable the values for the energy pane and to show the units:
sensor:
- platform: rest
name: "rest_fenecon_state"
resource: http://gast:[email protected]:80/rest/channel/_sum/State
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_ess_soc"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/EssSoc
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_ess_active_power"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/EssActivePower
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_grid_active_power"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/GridActivePower
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_active_power"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionActivePower
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_ac_active_power"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionAcActivePower
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_dc_actual_power"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionDcActualPower
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_consumption_active_power"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ConsumptionActivePower
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_ess_active_charge_energy"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/EssActiveChargeEnergy
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_ess_active_discharge_energy"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/EssActiveDischargeEnergy
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_grid_buy_active_energy"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/GridBuyActiveEnergy
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_grid_sell_active_energy"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/GridSellActiveEnergy
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_active_energy"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionActiveEnergy
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_ac_active_energy"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionAcActiveEnergy
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_dc_active_energy"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionDcActiveEnergy
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_consumption_active_energy"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ConsumptionActiveEnergy
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_ess_active_power_l1"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/EssActivePowerL1
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_ess_active_power_l2"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/EssActivePowerL2
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_ess_active_power_l3"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/EssActivePowerL3
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_grid_active_power_l1"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/GridActivePowerL1
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_grid_active_power_l2"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/GridActivePowerL2
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_grid_active_power_l3"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/GridActivePowerL3
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_ac_active_power_l1"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionAcActivePowerL1
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_ac_active_power_l2"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionAcActivePowerL2
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_production_ac_active_power_l3"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ProductionAcActivePowerL3
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_consumption_active_power_l1"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ConsumptionActivePowerL1
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_consumption_active_power_l2"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ConsumptionActivePowerL2
value_template: "{{ value_json.value }}"
- platform: rest
name: "rest_fenecon_consumption_active_power_l3"
scan_interval: 30
resource: http://gast:[email protected]:80/rest/channel/_sum/ConsumptionActivePowerL3
value_template: "{{ value_json.value }}"
template:
- sensor:
- name: "fenecon_ess_soc"
device_class: battery
unit_of_measurement: '%'
state_class: measurement
state: "{{ states('sensor.rest_fenecon_ess_soc')| int }}"
- name: "fenecon_ess_active_power"
unit_of_measurement: W
device_class: energy
state_class: measurement
state: "{{ states('sensor.rest_fenecon_ess_active_power')| int }}"
- name: "fenecon_grid_active_power"
unit_of_measurement: W
device_class: energy
state_class: measurement
state: "{{ states('sensor.rest_fenecon_grid_active_power')| int }}"
- name: "fenecon_production_active_power"
unit_of_measurement: W
device_class: energy
state_class: measurement
state: "{{ states('sensor.rest_fenecon_production_active_power')| int }}"
- name: "fenecon_consumption_active_power"
unit_of_measurement: W
device_class: energy
state_class: measurement
state: "{{ states('sensor.rest_fenecon_consumption_active_power')| int }}"
- name: "fenecon_ess_active_charge_energy"
unit_of_measurement: Wh
device_class: energy
state_class: total_increasing
state: "{{ states('sensor.rest_fenecon_ess_active_charge_energy')| int }}"
- name: "fenecon_ess_active_discharge_energy"
unit_of_measurement: Wh
device_class: energy
state_class: total_increasing
state: "{{ states('sensor.rest_fenecon_ess_active_discharge_energy')| int }}"
- name: "fenecon_grid_buy_active_energy"
unit_of_measurement: Wh
device_class: energy
state_class: total_increasing
state: "{{ states('sensor.rest_fenecon_grid_buy_active_energy')| int }}"
- name: "fenecon_grid_sell_active_energy"
unit_of_measurement: Wh
device_class: energy
state_class: total_increasing
state: "{{ states('sensor.rest_fenecon_grid_sell_active_energy')| int }}"
- name: "fenecon_production_active_energy"
unit_of_measurement: Wh
device_class: energy
state_class: total_increasing
state: "{{ states('sensor.rest_fenecon_production_active_energy')| int }}"
- name: "fenecon_consumption_active_energy"
unit_of_measurement: Wh
device_class: energy
state_class: total_increasing
state: "{{ states('sensor.rest_fenecon_consumption_active_energy')| int }}"
##############
I have added a separate Fenecon page:
every hint to improve is welcome 
Hey Juergen,
great Job, thank you very much, it works very good.
THX Michael
