diff --git a/docs/configuration.md b/docs/configuration.md
index 8624c7f9..076b5d5f 100644
--- a/docs/configuration.md
+++ b/docs/configuration.md
@@ -39,7 +39,7 @@ The card can be configured through the following attributes:
|--------------|-------------|-----------|---------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------|
| modern: | Optional | `true` | Display the inverter using the modern image. Set to `false` to display an image of the inverter based on the `model` attribute below. |
| colour: | Optional | `grey` | Sets the colour of the inverter and data. Hex codes (`'#66ff00'` etc) or names (`red`, `green`, `blue` etc) |
-| autarky: | Optional | `power` | Display autarky and ratio as a percentage using either realtime power or daily energy values. Set to `no` to hide (`energy/power/no`).
Autarky is the percentage of self sufficiency through Home Production. Ratio is the percentage of produced electricity used by the home.
It is calculated based on the formula below and borrowed from the [Power Distribution Card](https://github.com/JonahKr/power-distribution-card)
- Autarky in Percent = Home Production / Home Consumption
- Ratio in Percent = Home Consumption / Home Production
|
+| autarky: | Optional | `power` | Display autarky and ratio as a percentage using either realtime power or daily energy values. Set to `no` to hide (`energy/power/no`).
Autarky is the percentage of self sufficiency through Home Production. Ratio is the percentage of produced electricity used by the home.
It is calculated based on the formula below and borrowed from the [Power Distribution Card](https://github.com/JonahKr/power-distribution-card)
- Autarky in Percent = Home Production / Home Consumption
- Ratio in Percent = Home Consumption / Home Production
Home Production = Solar + Battery (discharge) + Aux (in), Home Consumption = Essential power + Nonessential power + Aux (out) + Battery (charge) |
| model: | Optional | `sunsynk` | Selects which inverter image and status codes to use. Options are `lux`, `solis`, `goodwe`, `goodwe_gridmode`, `foxess`, `solax`, `sunsynk`, `victron`, `fronius`, `solaredge`, `growatt`, `sofar`, `ces-battery-box`, `deye`, `azzurro`, `powmr`, `mppsolar`, `smasolar` and `huawei`. |
| auto_scale: | Optional | `true` | If set to `true` the card will use the entities `unit_of_measurement` attribute to perform the correct scaling (i,e, power values greater than 999W will be displayed as kW e.g. 1.23kW) and display the correct unit. The number of decimal places can be changed using the `decimal_places` card attribute apart from the daily energy values which are set using the `decimal_places_energy` attribute |
| three_phase: | Optional | `false` | If set to `true` additional 3 phase sensors will be displayed. Requires entity attributes to be defined i.e. `inverter_current_L2`, `inverter_current_L3`, `inverter_voltage_L2`, `inverter_voltage_L3` , `grid_ct_power_L2`, `grid_ct_power_L3`, `load_power_L1`, `load_power_L2`, `load_power_L3`
@@ -210,7 +210,7 @@ mappings if using other integration methods.
| load_power_L1: | Optional | | Load L1 Power (W)
| load_power_L2: | Optional | | Load L2 Power (W)
| load_power_L3: | Optional | | Load L3 Power (W)
-| nonessential_power | Optional | `none` | The card will automatically calculate this sensor based on the formula below if the attribute is set to `none` or the sensor is not defined. You can overide this by supplying a sensor that measures non-essential power e.g. `Load power Non-Essential` in the case of Solar Assistant. (W)
+| nonessential_power | Optional | `none` | The card will automatically calculate this sensor based on the formula below if the attribute is set to `none` or the sensor is not defined. You can overide this by supplying a sensor that measures non-essential power e.g. `Load power Non-Essential` in the case of Solar Assistant. You can also disable this sensor by setting it's value to any arbitrary value i.e. `nonessential_power: no` and it will display a zero value and not effect autarky and ratio calculations (W)
| non_essential_load1: | Optional | | Sensor that contains the power of your non-essential load 1 (W) |
| non_essential_load2: | Optional | | Sensor that contains the power of your non-essential load 2 (W)
| non_essential_load3: | Optional | | Sensor that contains the power of your non-essential load 3 (W)
@@ -235,7 +235,7 @@ mappings if using other integration methods.
| aux_load1: | Optional | | Sensor that contains the power of your AUX load 1 (W) |
| aux_load2: | Optional | | Sensor that contains the power of your AUX load 2 (W) |
| aux_load1_extra: | Optional | | Sensor that contains additional information you want displayed for your aux load 1 e.g. Daily kWh, Temperature etc |
-| aux_load2_extra: | Optional | | SSensor that contains additional information you want displayed for your aux load 2 e.g. Daily kWh, Temperature etc |
+| aux_load2_extra: | Optional | | Sensor that contains additional information you want displayed for your aux load 2 e.g. Daily kWh, Temperature etc |
| aux_connected_status: | Optional | | AUX Connected Status `on/off` or `1/0`
| remaining_solar: | Optional | `sensor.solcast_forecast_remaining_today` | The remaining solar forecast for the day (kWh). Use with solar `display_mode:2` |
| total_pv_generation: | Optional | | Total Solar generation (Lifetime or forecast for the day) (kWh). Use with solar `display_mode:3` |