This repository contains an ESPHome BLE client for interfacing with the Powerdale Nexxtender EV Charger. The client allows you to seamlessly integrate the Nexxtender charger with your ESPHome projects, enabling you to monitor and control the charger remotely via Bluetooth Low Energy (BLE). Additionally, it integrates smoothly with Home Assistant, providing a convenient interface for managing your Nexxtender charger within your home automation setup.
-
BLE Connectivity: Establish a BLE connection between your ESPHome device and the Powerdale Nexxtender EV Charger for data exchange and control.
-
Real-time Monitoring: Retrieve real-time data from the Nexxtender charger, including charging status, voltage, current, and power consumption.
-
Remote Control: Control the Nexxtender charger remotely from your ESPHome device, enabling features such as starting, stopping, change charge mode, set the charger to Open/Private, set the maximum car charging speed and scheduling charging sessions.
-
Toggle open/private mode: Toggle the open/private mode of the charger by pressing the "boot" button on the ESP board.
-
Integrated webserver: Access the integrated
web_server
component of ESPHome, providing a simple API that lets your monitor and control the Nexxtender. -
Home Assistant Integration: Seamlessly integrate the ESPHome BLE client with Home Assistant, allowing you to monitor and control the Nexxtender charger through the Home Assistant interface.
Name | Entity ID | Entity Type | Description |
---|---|---|---|
Maximum available capacity | number.nexxtender_maximum_available_capacity | Configuration | Maximum allowed grid consumption limit in A. Set this to a lower value if you have a peak tariff contract |
Maximum car charging speed | number.nexxtender_maximum_car_charging_speed | Configuration | Maximum allowed charging speed in A for the car |
Mode | select.nexxtender_mode | Configuration | Private limits to whitelisted badges only. Open is without restriction. Modes: Eco Private, Max Private, Eco Open, Max Open |
Offloading minimum | number.nexxtender_offloading_minimum | Configuration | Minimum charging speed in A for the charger. Certified chargers are required to provide a minimum of 6A |
Peak consumption limit | number.nexxtender_peak_consumption_limit | Configuration | Peak grid consumption limit |
Nexxtender | light.nexxtender_nexxtender | Controls | LED light on the ESP32 S3 board |
Start Charge Auto | button.nexxtender_start_charge_auto | Controls | Start charging in Auto mode |
Start Charge Default | button.nexxtender_start_charge_default | Controls | Start charging in Default mode |
Start Charge Eco | button.nexxtender_start_charge_eco | Controls | Start charging in ECO mode |
Start Charge Max | button.nexxtender_start_charge_max | Controls | Start charging in MAX mode |
Stop Charging | button.nexxtender_stop_charging | Controls | Stop charging |
Toggle charger mode | button.nexxtender_toggle_charger_mode | Controls | Toggle charging mode between ECO and MAX |
BLE Client | binary_sensor.nexxtender_ble_client | Diagnostic | Indicates the connection state of the BLE client with the Nexxtender charger |
BLE Client | switch.nexxtender_ble_client | Diagnostic | Switch to (dis)connect the BLE client with the Nexxtender charger |
Code version | sensor.nexxtender_code_version | Diagnostic | Shows the version of the esphome nexxtender code you are running (this github code) |
Firmware Revision | sensor.nexxtender_firmware_revision | Diagnostic | Shows the installed firmware on the integrated ESP of your nexxtender charger |
Generic Status | sensor.nexxtender_generic_status | Diagnostic | Shows the last generic BLE command |
Grid Interval | sensor.nexxtender_grid_interval | Diagnostic | Grid Interval is a counter that goes from 0->900 (15 minutes) |
Hardware Revision | sensor.nexxtender_hardware_revision | Diagnostic | Hexadecimal hardware revision or Model Number |
Model Number | sensor.nexxtender_model_number | Diagnostic | Decimal model number |
Read time | button.nexxtender_read_time | Diagnostic | Updates the Nexxtender Time sensor with the charger time value |
Restart Nexxtender ESP | button.nexxtender_restart_nexxtender_esp | Diagnostic | Restart the Nexxtender ESP board |
Serial Number | sensor.nexxtender_serial_number | Diagnostic | The serial number |
Sync time | button.nexxtender_sync_time | Diagnostic | Synchronises the ESP time. It pushes the HA time to the Nexxtender charger |
Time | sensor.nexxtender_nexxtender_time | Diagnostic | Restarts the Nexxtender ESP board (not the one of the charger) |
Available capacity | sensor.nexxtender_available_capacity | Sensors | Available capacity in A |
Car Current | sensor.nexxtender_car_current | Sensors | Sum of Car L1, L2 and L3 |
Car L1 | sensor.nexxtender_car_l1 | Sensors | Car phase L1 current in A |
Car L2 | sensor.nexxtender_car_l2 | Sensors | Car phase L2 current in A |
Car L3 | sensor.nexxtender_car_l3 | Sensors | Car phase L3 current in A |
Car P1 | sensor.nexxtender_car_p1 | Sensors | Car phase L1 power consumption in kW |
Car P2 | sensor.nexxtender_car_p2 | Sensors | Car phase L2 power consumption in kW |
Car P3 | sensor.nexxtender_car_p3 | Sensors | Car phase L2 power consumption in kW |
Car Power | sensor.nexxtender_car_power | Sensors | Total power consumption from the car in kW |
Car Power Mode | sensor.nexxtender_car_power_mode | Sensors | Power mode of the car. Can be Eco, Max or not charging. The eco threshold is calculated on the number of phases. This mode is derived from the Car Power |
Car Timestamp | sensor.nexxtender_car_timestamp | Sensors | Current time in UTC Unix Time |
Charging Advanced Grid Energy | sensor.nexxtender_charging_advanced_grid_energy | Sensors | Energy calculation based on the grid power |
Charging Advanced Timestamp | sensor.nexxtender_charging_advanced_timestamp | Sensors | Current time in UTC Unix Time |
Charging Phase Count | sensor.nexxtender_charging_phase_count | Sensors | Number of active phases during charging session |
Charging Phases | sensor.nexxtender_charging_phases | Sensors | Number of available phases |
Charging Seconds | sensor.nexxtender_charging_seconds | Sensors | Number of seconds in the active charging session |
Connection type | sensor.nexxtender_connection_type | Sensors | Connection type. Mono/Tri+N: Single-phase or Three-phase with neutral, Tri: Three-phase without neutral |
Discriminator | sensor.nexxtender_discriminator | Sensors | Discriminator state (plugged, charging, fault, unplugged) |
Energy | sensor.nexxtender_energy | Sensors | Consumed energy during a charging session |
Grid Consumed | sensor.nexxtender_grid_consumed | Sensors | Grid consumption, sum of grid L1+L2+L3, expressed in W |
Grid L1 | sensor.nexxtender_grid_l1 | Sensors | Grid phase L1 current in A |
Grid L2 | sensor.nexxtender_grid_l2 | Sensors | Grid phase L2 current in A |
Grid L3 | sensor.nexxtender_grid_l3 | Sensors | Grid phase L3 current in A |
Grid Power | sensor.nexxtender_grid_power | Sensors | Total power consumption from the grid in W |
Grid Timestamp | sensor.nexxtender_grid_timestamp | Sensors | Current time in UTC Unix Time |
Maximum available capacity | sensor.nexxtender_maximum_available_capacity | Sensors | Maximum allowed grid consumption limit in A. You can set this with the number.nexxtender_maximum_available_capacity |
Maximum car charging speed | sensor.nexxtender_maximum_car_charging_speed | Sensors | Maximum allowed charging speed in A for the car. You can set this with the number.nexxtender_maximum_car_charging_speed |
Minimum car charging speed | sensor.nexxtender_minimum_car_charging_speed | Sensors | Minimum car charging speed |
Mode | sensor.nexxtender_mode | Sensors | Current charging mode |
Offloading minimum | sensor.nexxtender_offloading_minimum | Sensors | Minimum charging speed in A for the device. Certified chargers are required to provide a minimum of 6A |
Peak consumption limit | sensor.nexxtender_peak_consumption_limit | Sensors | Peak grid consumption limit |
Status | sensor.nexxtender_status | Sensors | Status of the charger (Plugged, Charging, Fault, Unplugged) |
Week schema | sensor.nexxtender_week_schema | Sensors | Off peak charging schema during the week |
Weekend schema | sensor.nexxtender_weekend_schema | Sensors | Off peak charging schema during the weekend |
- ESPHome BLE Client for Powerdale Nexxtender EV Charger
To integrate the ESPHome BLE client with your Powerdale Nexxtender EV Charger and Home Assistant, follow these steps:
Before integrating your Nexxtender EV Charger with the ESPHome BLE client, you'll need to find its Bluetooth MAC address. You can do this using the NRF Connect app, available for both Android and iOS devices. Follow these steps:
-
Download and Install NRF Connect: Go to the Google Play Store (for Android) or the Apple App Store (for iOS) and search for "NRF Connect." Download and install the app on your mobile device.
-
Open NRF Connect: Launch the NRF Connect app on your mobile device.
-
Scan for BLE Devices: In the NRF Connect app, navigate to the "Scanner" tab and start scanning for nearby Bluetooth devices.
-
Locate Nexxtender EV Charger ("HOME"): The charger's Bluetooth module should broadcast its presence with the name "HOME," allowing NRF Connect to detect it.
-
View Device Details: Once NRF Connect detects the Nexxtender EV Charger, tap on it to view its details. Among the information displayed, you'll find the Bluetooth MAC address (also known as the BD_ADDR) of the charger.
-
Note MAC Address: Make a note of the Bluetooth MAC address of your Nexxtender EV Charger. You'll need this MAC address when configuring the ESPHome BLE client.
By following these steps, you can easily find the Bluetooth MAC address of your Nexxtender EV Charger named "HOME" using the NRF Connect app.
If you don't have the possibility to use the NRF Connect App, you can try scanning for bluetooth devices in your Chrome browser
chrome://bluetooth-internals/#devices
The Nexxtender passkey is the PIN code that is used to pair your BLE device with the charger. (6 digit number) If you don't have the PIN code (or you have lost it), you can always reach out to me and I can calculate it if you provide me the serial number of the box (format XXXXX-XX-XXXX-XXXXX-XX). The serial number can be found on the sticker, located at the bottom of the Nexxtender device. The PN and the SN numbers are the numbers needed to calculate the PIN code. PN: XXXXX-XX SN: XXXX-XXXXX-XX
-
Install ESPHome: If you haven't already, install ESPHome by following the instructions here or here in combination with HA.
Make sure you install at least the ESPhome version 2024.2.0. The latest version is always recommended.
You then need to create a new YAML configuration for you nexxtender charger, compile it (this will create the corresponding C++ code and resulting binary), and upload it to your esp32.
Note: as from ESPHome version 2024.5.x make sure you add the following sdkconfig option to the framework config if you override the repository code for the esp32 as some changes were made to the esp-idf framework (v4.4.7) framework: type: esp-idf version: recommended sdkconfig_options: CONFIG_BT_GATTC_NOTIF_REG_MAX: "32"
There are several ways to do this, for example using command line or your favorite IDE, or directly via the ESPHome dashboard add-on proposed by Home Assistant.
-
Create a new ESPHome Configuration: Create a new file named
nexxtender.yaml
in your local directory.If you followed the proposed HomeAssistant ESPHome wizard, you already ended up with a yaml file. If needed, first rename this file in
nexxtender.yaml
using theRename hostname
option. Note that this will also trigger the compilation and can take some time. Alternatively, delete the configuration created by the wizard and create a new one.Edit and copy/paste the content of the provided
nexxtender.yaml
into or at the end of this file (or copy/paste the below yaml).packages: nexxtender: url: https://github.com/geertmeersman/nexxtender file: config/nexxtender.yaml refresh: 0s substitutions: ## Uncomment and modify when you want to use a different device name. # device_name: nexxtender # friendly_name: Nexxtender ## Uncomment and modify when you want to use a different threshold. # charging_mode_eco_threshold: "8" # Single phase (6A + 2 margin) # charging_mode_eco_bi_threshold: "14" # Bi-phase (12A + 2 margin) # charging_mode_eco_tri_threshold: "20" # Tri-phase (18A + 2 margin) # slider_max_car_charging_speed: "32" # The max value of the slider for the maximum car charging speed slider, default set to 32 # slider_max_available_capacity: "40" # The max value of the slider for the maximum available capacity slider, default set to 40 # slider_max_peak_consumption_limit: "40" # The peak consumption limit for the slider (in amperes, typically 16-40A). WARNING: Incorrect values may cause circuit breaker trips or reduced charging performance. This value is usually configured by your installer. # min_charging_value: "6" # The minimal charging value, used for the slider configs # slider_max_offloading_minimum: "32" # The max offloading minimum value # slider_min_offloading_minimum: "6" # The min offloading minimum value
- The charging power mode is estimated based on the number of phases used during the charge.
- The substitution
charging_mode_eco_threshold
and the others are optional, and you can set it to whatever Amp you want to be used as a threshold for the ECO/MAX sensor. Default values are the ones set in the example. Attention, it does not influence your charger; it is just a way of indicating which speed the charger is delivering. - The substitution
slider_max_car_charging_speed
lets you override the maximum value for the configuration slider of the maximum car charging speed. This is usually set to the value of the circuit breaker A. Default value is the ones set in the example. - The substitution
slider_max_available_capacity
lets you override the maximum value for the configuration slider of the maximum available capacity of the grid. This is usually set to the value of the circuit breaker A. Default value is the ones set in the example. - The subsitution
slider_max_peak_consumption_limit
lets you override the maximum value for configuration slider of the maximum peak consumption value. - The substitution
min_charging_value
defines the minimal value of the sliders, or the minimal A value for the car
-
Update the secrets.yaml:
Ensure that your
secrets.yaml
file contains the following entries:esphome_admin_password: "YOUR_ESPHOME_ADMIN_PASSWORD" wifi_ssid: "YOUR_WIFI_SSID" wifi_password: "YOUR_WIFI_PASSWORD" esphome_api_key: "YOUR_ESPHOME_API_KEY" nexxtender_mac: "YOUR_NEXXTENDER_MAC_ADDRESS" nexxtender_passkey: "YOUR_NEXXTENDER_PASSKEY"
In the HomeAssistant ESPHome dashboard, this is done using the top righ shortcut
SECRETS
.Replace
"YOUR_ESPHOME_ADMIN_PASSWORD"
,"YOUR_WIFI_SSID"
,"YOUR_WIFI_PASSWORD"
,"YOUR_ESPHOME_API_KEY"
,"YOUR_NEXXTENDER_MAC_ADDRESS"
, and"YOUR_NEXXTENDER_PASSKEY"
with your actual values.The
nexxtender_mac
is the bluetooth mac address you found in the previous step.The
nexxtender_passkey
is the PIN code you use to pair your Nexxtender. Explanations on how to find it can be found here.The
esphome_admin_password
is the password that is used for the Wi-Fi fallback hotspot and OTA.If you don't know how to define the
esphome_api_key
, you can obtain one as described here in the section Configuration variables > encryption > key. -
Compile Firmware: Compile the ESPHome firmware using the
nexxtender.yaml
configuration file. Run the following command in your terminal, pointing to the location of yournexxtender.yaml
file:esphome compile nexxtender.yaml
Using the Home Assistant ESPHome dashboard, the firmware compilation, upload and flashing of your esp32 is done in one step by using the
Install
option. Optionally, you can first run theValidate
command that will check all the code and links before compiling it. Considering the compilation can take some time, this is a recommended step.Note: if the compilation fails due to missing
nexxtender_packages/nexxtender.h
file. You can copy nexxtender_packages/nexxtender.h in your configuration folder. In HomeAssistant, the configuration files for ESPHome can be found and edited under<HOME_ASSISTANT_CONFIG>/esphome/
. For example the configuration for the nexxtender node can be found in/config/esphome/nexxtender.yaml
. You'll then need to use a terminal or IDE to create the directory<HOME_ASSISTANT_CONFIG>/esphome/nexxtender_packages
and the filenexxtender.h
. -
Flash Firmware: Flash the compiled firmware to your ESPHome device using the following command:
esphome upload nexxtender.yaml
This step is thus normally already done when using the HomeAssistant ESPHome dashboard.
Note: If youβre just seeing Connecting....____.... on the screen and the flashing fails, please double-check the UART wires are connected correctly if flashing using a USB to UART bridge.
For some devices you need to keep pressing the BOOT button until flashing has begun (i.e. Geekcreit DOIT ESP32 DEVKIT V1).
-
Integrate with Home Assistant: In your Home Assistant configuration, add the ESPHome device as a new integration. Follow the instructions provided by Home Assistant to discover and integrate the Nexxtender charger with your Home Assistant setup.
-
Monitor Logs: Monitor the ESPHome device logs to ensure that the BLE client establishes a connection with the Powerdale Nexxtender EV Charger successfully.
-
Test Functionality: Test the functionality of the ESPHome BLE client by monitoring real-time data from the Nexxtender charger and controlling its operation remotely from your ESPHome device or through the Home Assistant interface.
The standard configuration utilises the az-delivery-devkit-v4
board. If you would have another ESP32 board, feel free to customize it.
If you want to customize the ESP32 section in your nexxtender.yaml
file for your specific board type, you can add the following section at the end of the nexxtender.yaml:
esp32:
board: YOUR_ESP32_BOARD_TYPE
Replace YOUR_ESP32_BOARD_TYPE
with the specific board type you're using, such as az-delivery-devkit-v4
or any other compatible board.
Example for the ESP32-S3-N16R8, buy here: Aliexpress. Make sure you pick the right type (they call it color): 'ESP32-S3-N16R8'.
esp32:
board: esp32-s3-devkitc-1
esphome:
platformio_options:
board_build.flash_mode: dio
For this specific board, I have created a specific yaml that manages the RGB LED that is integrated on the board.
The complete configuration file would look like:
packages:
nexxtender:
url: https://github.com/geertmeersman/nexxtender
files: [config/nexxtender.yaml, config/nexxtender_packages/esp.s3.yaml]
refresh: 0s
substitutions:
device_name: nexxtender
friendly_name: Nexxtender
This flexibility allows users to tailor the configuration to their hardware requirements while still benefiting from the overall structure and functionality provided in the nexxtender.yaml
file.
The Nexxtender comes equipped with an integrated ESPHome webserver and graphical user interface (GUI) to provide an intuitive way to manage and configure your device if you don't plan to use Home Assistant. Follow the steps below to activate and access this feature:
-
Activate the webserver package:
There is a webserver configuration that you can activate by using the yaml below.
packages: nexxtender: url: https://github.com/geertmeersman/nexxtender files: [config/nexxtender.yaml, config/nexxtender_packages/webserver.yaml] refresh: 0s
The content of the included webserver.yaml configuration file is the following:
web_server: auth: username: admin password: !secret esphome_admin_password
If you don't need authentication, you can just add this to your nexxtender.yaml configuration:
web_server:
It will then activate the webserver on the standard port and without authentication.
-
Access the Web Interface: Open a web browser on a device connected to the same network as your Nexxtender.
-
Enter the IP Address/mDNS: In the address bar of your web browser, enter the IP address assigned to your Nexxtender. You can usually find this information in your router's administration interface or by using a network scanning tool. You could also use the mDNS http://nexxtender.local
-
Login: If prompted, enter any necessary login credentials to access the ESPHome webserver.
-
Explore and Configure: Once logged in, you'll have access to the ESPHome GUI, where you can explore various settings, configure parameters, and monitor the status of your Nexxtender.
-
Save Changes: Remember to save any changes you make within the ESPHome interface to ensure they are applied to your Nexxtender.
More details can be found here: https://esphome.io/components/web_server.html
To integrate ESPHome devices with Home Assistant, follow these steps:
-
Prerequisites: Ensure you have the ESPHome integration enabled in Home Assistant. You can do this by navigating to Configuration -> Integrations, clicking the "+" button to add an integration, searching for "ESPHome," and following the instructions to set it up.
-
Discover ESPHome Devices: After enabling the integration, Home Assistant will automatically discover ESPHome devices on your network. If your devices don't show up automatically, you can add them manually by providing their IP address and API key.
-
Configuration YAML: You can also configure ESPHome devices manually by adding them to your Home Assistant configuration YAML file. This allows for more advanced configuration options and customization.
-
View Devices: Once your ESPHome devices are discovered or added manually, you can view and manage them in the Home Assistant UI. This includes monitoring their status, viewing sensor data, and controlling their actions.
-
Integrate with Automations: You can use ESPHome devices in your Home Assistant automations to trigger actions based on sensor readings, device status changes, or other events.
-
Customization: Home Assistant allows for extensive customization of ESPHome devices, including renaming, grouping, and organizing them to fit your home automation setup.
-
Updates and Maintenance: Keep your ESPHome devices up to date by regularly checking for firmware updates and configuring automatic OTA updates if desired.
-
Blueprint for zone automation: Automate the switching of Nexxtender mode based on car entry or exit from a specified zone.
This blueprint allows you to configure the device tracker for your car, the Nexxtender mode sensor, the mode selector, the zone where the Nexxtender is located, the desired Nexxtender mode, and the trigger event for zone entry or exit.
-
Blueprint for Charging Notifications: Receive instant notifications when your car starts or stops charging based on the Nexxtender discriminator sensor.
This blueprint allows you to configure the Nexxtender discriminator sensor, select a mobile device for notifications, and customize the notification titles and messages for both charging start and stop events.
Whenever the Nexxtender sensor detects a change from "Stopped" β "Started", you will receive a notification that charging has begun. Similarly, when the sensor changes from "Charging" β "Stopped", you will be alerted that charging has ended.
With this blueprint, you can stay informed about your car's charging status in real-time, ensuring you never miss an important update. πβ‘
-
Lovelace dashboard card:
Show markdown code
The example uses the following custom lovelace cards:
The images used are available in the images folder of this repository.
In the example below they are located in your HA /config/www/images/auto/ folder.
type: custom:vertical-stack-in-card
cards:
- type: picture-elements
aspect_ratio: 2
elements:
- style:
top: 50px
left: 73%
show_name: false
show_icon: false
type: custom:button-card
entity: sensor.nexxtender_connection_type
show_state: true
styles:
card:
- background: none
- border-radius: 0
- border: 0
- font-size: 12px
- color: black
- style:
top: 65px
left: 73%
show_name: true
name: |
[[[ return entity.state+" fasen"; ]]]
show_icon: false
type: custom:button-card
entity: sensor.nexxtender_charging_phases
show_state: false
styles:
card:
- background: none
- border-radius: 0
- border: 0
- font-size: 12px
- color: black
- style:
top: 110px
left: 70%
show_name: true
name: Pieklimiet
layout: name_state
show_icon: false
type: custom:button-card
entity: sensor.nexxtender_peak_consumption_limit
show_state: true
styles:
card:
- background: none
- border-radius: 0
- border: 0
- font-size: 12px
- color: black
- style:
top: 130px
left: 70%
show_name: true
name: Beschikbaar
layout: name_state
show_icon: false
type: custom:button-card
entity: sensor.nexxtender_available_capacity
show_state: true
styles:
card:
- background: none
- border-radius: 0
- border: 0
- font-size: 12px
- color: black
- style:
top: 192px
left: 70%
show_name: false
show_icon: false
type: custom:button-card
entity: sensor.nexxtender_mode
show_state: true
styles:
card:
- background: none
- border-radius: 0
- border: 0
- font-size: 12px
- color: black
- name: L1
style:
top: 220px
left: 65%
show_name: true
show_icon: false
type: custom:button-card
entity: sensor.nexxtender_grid_l1
show_state: true
styles:
card:
- background: none
- border-radius: 0
- border: 0
- font-size: 10px
- name: L2
style:
top: 220px
left: 73%
show_name: true
show_icon: false
type: custom:button-card
entity: sensor.nexxtender_grid_l2
show_state: true
styles:
card:
- background: none
- border-radius: 0
- border: 0
- font-size: 10px
- name: L3
style:
top: 220px
left: 81%
show_name: true
show_icon: false
type: custom:button-card
entity: sensor.nexxtender_grid_l3
show_state: true
styles:
card:
- background: none
- border-radius: 0
- border: 0
- font-size: 10px
image: /local/images/1x1.png
card_mod:
style: |
ha-card {
{%- set nexxtender_state = states["sensor.nexxtender_status"].state -%}
{% if nexxtender_state == "Unplugged" %}
{% set image = 'unplugged' %}
{% elif nexxtender_state == "Plugged" %}
{% set image = 'plugged' %}
{% elif nexxtender_state == "Charging" %}
{% set image = 'charging' %}
{% else %}
{% set image = 'offline' %}
{% endif %}
background-size: 100% 100%;
background-image: url(/local/images/auto/device_home_{{image}}.png);
height: 300px !important;
border-radius: 0;
margin: 0;
}
- type: conditional
conditions:
- condition: numeric_state
entity: sensor.nexxtender_charging_phase_count
above: 0
card:
type: picture-elements
elements:
- type: state-icon
entity: sensor.nexxtender_energy
style:
top: 25px
left: 10%
- type: state-label
entity: sensor.nexxtender_energy
style:
top: 25px
left: 30%
- type: state-label
entity: sensor.nexxtender_charging_seconds
style:
top: 25px
left: 50%
- type: state-label
entity: sensor.nexxtender_car_power
style:
top: 25px
left: 70%
- type: state-label
entity: sensor.nexxtender_charging_phase_count
suffix: " fases"
style:
top: 25px
left: 90%
image: /local/images/1x1.png
card_mod:
style: |
ha-card {
height: 50px !important;
background-color: #325FA8;
}
- type: conditional
conditions:
- condition: state
entity: sensor.nexxtender_status
state: Plugged
card:
type: horizontal-stack
cards:
- show_name: true
show_icon: true
icon: mdi:speedometer-slow
type: custom:button-card
layout: icon_name
tap_action:
action: toggle
entity: button.nexxtender_start_charge_eco
name: ECO laden
styles:
card:
- background: green
- border-radius: 0
- height: 50px
- show_name: true
show_icon: true
icon: mdi:speedometer
type: custom:button-card
layout: icon_name
tap_action:
action: toggle
entity: button.nexxtender_start_charge_max
name: MAX laden
styles:
card:
- background: blue
- border-radius: 0
- height: 50px
- type: conditional
conditions:
- condition: state
entity: sensor.nexxtender_status
state: Charging
card:
show_name: true
show_icon: false
type: custom:button-card
icon: mdi:stop
tap_action:
action: toggle
entity: button.nexxtender_stop_charging
name: Stop met laden
styles:
card:
- background: "#8E8D92"
- border-radius: 0
- height: 50px
- type: conditional
conditions:
- condition: state
entity: sensor.nexxtender_status
state: Unplugged
card:
type: markdown
content: <center>Sluit de kabel aan om te kunnen starten met laden</center>
- type: history-graph
entities:
- entity: sensor.nexxtender_grid_l1
- entity: sensor.nexxtender_grid_l2
- entity: sensor.nexxtender_grid_l3
logarithmic_scale: false
Contributions to the ESPHome BLE client for Powerdale Nexxtender EV Charger are welcome! Whether you want to report a bug, request a feature, or contribute code, your input is valuable to the community. Please refer to the Contribution Guidelines for more information.
This project is licensed under the MIT License. See the LICENSE file for details.
For support, questions, or feedback, please open an issue on the GitHub repository.