Indicates an immediate danger.
Death or serious injury may result if appropriate precautions are not taken.
Indicates a possibly dangerous situation.
Death or serious injury may result if appropriate precautions are not taken.
Indicates a situation where damage or injury could occur.
Minor injury or damage to property may result if appropriate precautions are not taken.
Indicates the possibility of flawed results and damage to the equipment.
Indicates an immediate danger.
Death or serious injury may result if appropriate precautions are not taken.
Indicates a possibly dangerous situation.
Death or serious injury may result if appropriate precautions are not taken.
Indicates a situation where damage or injury could occur.
Minor injury or damage to property may result if appropriate precautions are not taken.
Indicates the possibility of flawed results and damage to the equipment.
Indicates an immediate danger.
Death or serious injury may result if appropriate precautions are not taken.
Indicates a possibly dangerous situation.
Death or serious injury may result if appropriate precautions are not taken.
Indicates a situation where damage or injury could occur.
Minor injury or damage to property may result if appropriate precautions are not taken.
Indicates the possibility of flawed results and damage to the equipment.
Follow these Operating Instructions to ensure safe and proper use of the device. Keep for later reference.
The device has been manufactured in line with the state of the art and according to recognized safety standards. If used incorrectly or misused, however, it can cause:In addition to the Operating Instructions, all applicable local rules and regulations regarding accident prevention and environmental protection must also be followed.
All safety and danger notices on the device:Any safety devices that are not fully functional must be repaired by an authorized specialist before the device is switched on.
Never bypass or disable protection devices.
For the meaning of the safety and danger notices on the device, refer to the section headed "Information on the device".
Any equipment malfunctions which might impair safety must be remedied before the device is turned on.
This is for your personal safety!
Operation or storage of the device outside the stipulated area will be deemed as not in accordance with the intended purpose. The manufacturer accepts no liability for any damage resulting from improper use.
The information on mounting and installing the device contained in these Operating Instructions is intended only for the use of qualified service technicians. Do not carry out any actions other than those described in the documentation. This also applies to qualified personnel.
Maintenance and repair work must only be carried out by an authorized specialist.
In certain cases, even though a device complies with the standard limit values for emissions, it may affect the application area for which it was designed (e.g., when there is equipment that is susceptible to interference at the same location or if the site where the device is installed is close to either radio or television receivers). If this is the case, the operator is obliged to take action to rectify the situation.
Copyright of these operating instructions remains with the manufacturer.
Text and illustrations were accurate at the time of printing, subject to change.
We are grateful for suggestions for improvement and information on any discrepancies in the operating instructions.
The Fronius Wattpilot Go 11 J 2.0 / Go 22 J 2.0 / Go 22 J 2.0 AUS is a mobile charging station for charging electric vehicles for connection to an AC/3-phase network.
The Fronius Wattpilot Home 11 J 2.0 / Home 22 J 2.0 is a charging station for charging electric vehicles for fixed connection to an AC/3-phase network.
The Wattpilot may only be used for the purpose of charging battery-powered electric vehicles and plug-in hybrid vehicles in conjunction with the appropriate adapters and cables.
Intended use also includes complying with all the instructions in these Operating Instructions.
The following circumstances are considered improper:The manufacturer shall not be liable for any damage resulting from such use. All warranty claims will be forfeited.
The Fronius Wattpilot Go 11 J 2.0 / Go 22 J 2.0 / Go 22 J 2.0 AUS is a mobile charging station for charging electric vehicles for connection to an AC/3-phase network.
The Fronius Wattpilot Home 11 J 2.0 / Home 22 J 2.0 is a charging station for charging electric vehicles for fixed connection to an AC/3-phase network.
The Wattpilot may only be used for the purpose of charging battery-powered electric vehicles and plug-in hybrid vehicles in conjunction with the appropriate adapters and cables.
Intended use also includes complying with all the instructions in these Operating Instructions.
The following circumstances are considered improper:The manufacturer shall not be liable for any damage resulting from such use. All warranty claims will be forfeited.
The symbols on the Fronius Wattpilot must not be removed or painted over. They warn against incorrect operation, as this may result in serious injury and damage.
Symbols on the rating plate: | |
IC-CPD mark—in-cable control and protection device (IC-CPD) with unswitched ground conductor for supplying electric vehicles in charging mode 2. | |
Cold environment—the device is protected against cold and suitable for use in temperatures down to minus 25 °C. | |
CE label—confirms compliance with applicable EU directives and regulations. The product has been tested by a specific notified body. | |
WEEE mark—waste electrical and electronic equipment must be collected separately and recycled in an environmentally sound manner in accordance with the European Directive and national law. | |
RoHS marking—the product complies with the requirements of the EU Directive on the restriction of the use of certain hazardous substances in electrical and electronic equipment. See RoHS statement. | |
UKCA mark—confirms compliance with applicable UK directives and regulations. | |
RCM mark—tested in accordance with the requirements of Australia and New Zealand. |
Depending on the product variant, the scope of delivery differs as follows.
Fronius Wattpilot Go 11 J 2.0 / Go 22 J 2.0 / Go 22 J 2.0 AUS*
(1) | Mounting bracket, incl. screws and dowels |
(2) | Wattpilot Go 11 J 2.0 or Wattpilot Go 22 J 2.0 |
(3) | Anti‑theft device |
(4) | Reset card |
(5) | ID chip |
(6) | Quick Guide |
*The scope of delivery for the Fronius Wattpilot Go 22 J 2.0 AUS differs from the other product variants by the plug type.
Fronius Wattpilot Home 11 J 2.0 / Home 22 J 2.0
(1) | Mounting bracket, incl. screws and dowels |
(2) | Wattpilot Home 11 J 2.0 or Wattpilot Home 22 J 2.0 |
(3) | Anti‑theft device |
(4) | Reset card |
(5) | ID chip |
(6) | Quick Guide |
Only use original adapters for the operation of the Wattpilot!
The CEE plugs (see IEC 60309) of the adapter set differ from those of other suppliers due to their design with a reed contact.
Use original adapter sets.
Accessories, optional
Item designation | Item number |
---|---|
Type 2 charging cable, 32 A, 22 kW, 2.5 m | 4,240,419 |
Type 2 charging cable, 32 A, 22 kW, 5.0 m | 4,240,180 |
Type 2 charging cable, 32 A, 22 kW, 7.5 m | 4,240,420 |
ID chips, 10 pieces | 4,240,181 |
Mounting plate Go 2.0 (mounting bracket) | 4,240,421 |
Type 2 wall bracket (cable wall bracket) | 4,240,422 |
Adapter set Go 11 2.0, CEE adapter 16 A to
| 4,240,405 |
Adapter Go 11 CEE32 red 2.0, (3-phase) | 4,240,406 |
Adapter Go 11 CEE16 blue 2.0, (1-phase) | 4,240,407 |
Adapter Go 11 type F plug 2.0 (household socket) | 4,240,408 |
Adapter set Go 22 2.0, CEE adapter 32 A to
| 4,240,410 |
Adapter Go 22 CEE16 red 2.0, (3-phase) | 4,240,411 |
Adapter Go 22 CEE16 blue 2.0, (1-phase) | 4,240,412 |
Adapter Go 22 type F plug 2.0 (household socket) | 4,240,413 |
Danger due to incorrect operation and incorrectly performed work.
This can result in serious injury and damage to property.
Read and understand this document.
Read and understand all the Operating Instructions for the system components, especially the safety rules.
Danger from electromagnetic fields for persons with pacemakers and defibrillators!
This can result in serious injury.
Persons with pacemakers must maintain a distance of at least 60 cm.
Persons with defibrillators must maintain a distance of at least 40 cm.
Danger due to open or damaged housing!
This can result in severe personal injury and damage to property due to high voltage and/or fire.
Do not use the device if the housing is damaged or open.
Send in the device for repair.
Danger from loose parts in the housing!
This can result in severe personal injury and damage to property due to high voltage and/or fire.
Do not use the device if there are loose parts in the housing.
Send in the device for repair.
Danger due to cables!
Damaged or exposed cables can result in severe personal injury and damage to property.
Do not use the device if the cables attached to or plugged into the device are damaged.
Adequately support the weight of the device and the charging cable.
Provide mechanical relief for the cables.
Lay the charging cable securely to avoid the risk of tripping over the charging cable.
Danger due to wet or dirty connectors!
Charring caused by prolonged usage can result in severe personal injury and damage to property.
Only mount the device vertically.
Dry wet connectors in a de-energized state.
Clean soiled connectors in a de-energized state.
Danger from gassing vehicle batteries!
This can result in serious injury.
Only use in well-ventilated areas.
Danger from driving away with the charging cable connected!
This can result in severe personal injury or damage to property.
Disconnect the charging cable from the electric vehicle before driving away.
Do not bypass the safety device of the electric vehicle.
Danger due to excessive load!
This can result in severe personal injury or damage to property.
The load when operating the device with an earthed plug must not exceed 10 A.
The earthed socket outlet must be suitable for continuous operation at 10 A.
Check for heat generation after each use.
The device and the sockets must not overheat.
Danger due to excessive charging current!
Fires or damage to the in-house installation may result.
Observe the maximum permissible current at the connected socket.
If the maximum charging current is not known, charge with the lowest possible charging current.
Only use original adapters. An automatic reduction of the charging current to 16 A by plugging in the adapter is only possible in conjunction with the original adapters.
Danger due to heat generation on the device!
The build-up of heat can lead to lasting damage and even fire.
Never cover the device during charging.
Unwind the cable completely from a cable drum.
Observe the correct installation position.
Never pull the plug out of the plug connection by the cable!
Observe the specifications of the grid operator regarding 1‑phase charging and the asymmetrical network load that may result.
The device has a built-in residual current protection module with residual current detection (20 mA AC and 6 mA DC). Observe the national standards. A separate type A residual current circuit breaker and an automatic circuit breaker must be connected upstream for each Wattpilot.
The device may only be operated at the following connections:In case of defective adapters or defective CEE plugs, send the device in for repair.
Compatibility with the connected devices, suitable data communication, and a Fronius Smart Meter at the feed-in point are prerequisites for using some Wattpilot functions (e.g., PV surplus).
Suitable Fronius inverters
*Requirement:
**Requirement:
Suitable generators can be, for example, inverters or wind power plants. A prerequisite for compatibility with external generators is that no other self-consumption controllers (with e.g., battery, power-to-heat) are operated in parallel. This can lead to photovoltaics optimization (PV optimization) malfunctions. The proportion of energy consumed by other loads is not taken into account in the Fronius Solar.wattpilot app, as the power is only known at the grid connection point.
Requirement:
For further information see Data communication with the inverter on page (→).
(1) | CEE plug |
(2) | Connection cable |
(3) | Strain-relief device |
(4) | Housing |
(5) | Card reader |
(6) | Pushbutton |
(7) | Type 2 junction box |
(8) | LED ring |
(9) | Rating plate |
Symbols on front of the device: | |
Kartenleser | |
Eco Mode | |
Next Trip Mode |
(1) | CEE plug |
(2) | Connection cable |
(3) | Strain-relief device |
(4) | Housing |
(5) | Card reader |
(6) | Pushbutton |
(7) | Type 2 junction box |
(8) | LED ring |
(9) | Rating plate |
Symbols on front of the device: | |
Kartenleser | |
Eco Mode | |
Next Trip Mode |
Behind the symbol is the card reader for reading ID chips and the reset card.
The card reader uses RFID (radio-frequency identification). RFID is the transmitter‑receiver technology for automatic and contactless identification with radio waves.
By pressing the pushbutton, the level of charging current can be adjusted or the operating mode can be changed.
Press for under 0.5 s
Briefly pressing the pushbutton changes the operating mode. The charging modes areThe selected charging mode (see Different charging modes on page (→)) is indicated by the LED status indicator (see LED status indicator on page (→)); in standard mode, no operating mode LEDs light up.
Pressing for more than 2.0 s
Pressing the pushbutton repeatedly changes the preset charging current (in amperes). The level of the set charging current is indicated by the LED status indicator (see LED status indicator on page (→)).
The level of the preset charging current can be adjusted in the app (see Current level on page (→)).
Standard settings
The ID chip can be used to personalize access to the Fronius Wattpilot. The ID chip is used for authentication and for recording user-specific charging amounts.
In the app settings, authentication for charging can be activated under "Access management" and "Authentication required" (see Access management on page (→)). Charging with authentication activated can be carried out after scanning the supplied ID chip or by providing confirmation in the app. To scan, hold the ID chip directly in front of the card reader of the Wattpilot.
Each ID chip can be assigned a name in the app under "ID chips". The stored charging amount per ID chip can be viewed in this menu (see ID chips on page (→)).
No authentication is required in order to assign the charging amount to the ID chips.
The reset card resets all settings (e.g., access management, WLAN, and LED settings) to the factory settings. The taught-in ID chips and the corresponding charging amounts continue to be stored.
The following information is printed on the reset card.
Resetting the Wattpilot
Keep the reset card safe!
The reset card contains all access data.
TIP: Keep the reset card in the car.
The LED status indicator on the Wattpilot indicates whether the system is switched on and the current system status of the Wattpilot. One LED represents one ampere (1 A). A maximum of 32 A is displayed.
The first two LEDs indicate the currently active operating mode. If these do not light up white, the Wattpilot is in standard mode—charging takes place with the maximum set current without taking surplus PV electricity and flexible electricity tariffs into account.
| Eco Mode
| |
| Next Trip Mode
| |
| Starting
| |
| Ready
| |
| Enable
| |
| Waiting
| |
| Wait for car
| |
| 1-phase charging
| |
| 2-phase charging
| |
| 3-phase charging
| |
| Charging finished
| |
| ID chip detected
| |
| Invalid value
| |
| Grounding test deactivated
| |
| Internal communication fault
| |
| Residual current detected
| |
| Grounding fault detected
| |
| At least one phase of the power supply is missing
| |
| Temperature too high
| |
| Unlocking or locking error
| |
| Charge controller error
| |
| Update
| |
| Update successful
| |
| Update failed
| |
| Reset card detected
|
The Wattpilot can be used like any other charging station. For start-up, the charging cable must be plugged in and the Wattpilot starts charging. By pressing the pushbutton (see Pushbutton functions on page (→)) it is possible to switch between the charging modes (see Different charging modes on page (→)) and change the level of charging current (see Current level on page (→)).
The Wattpilot can be used like any other charging station. For start-up, the charging cable must be plugged in and the Wattpilot starts charging. By pressing the pushbutton (see Pushbutton functions on page (→)) it is possible to switch between the charging modes (see Different charging modes on page (→)) and change the level of charging current (see Current level on page (→)).
The Fronius Wattpilot can automatically switch between 1‑phase and 3‑phase charging. The automatic phase changeover enables charging with a low start-up power (1‑phase with 1.38 kWh) in the case of a PV surplus. In addition, 1‑phase charging has the advantage that the charging power can be regulated in smaller increments (0.23 kW) and a small PV surplus can be used more efficiently. As 1‑phase charging is limited by the car, it makes sense to switch to 3‑phase charging at a higher PV surplus. This allows higher maximum charging outputs to be achieved.
The phase changeover can be set automatically or manually (see PV surplus on page (→)).
Do not exceed the phase‑load imbalance!
Select the phase changeover point in such a way that the maximum permissible phase‑load imbalance is not exceeded.
Compliance with the phase unbalanced load limits is required by law in certain countries, for example in Austria and Germany.
Unbalanced load management limits the total charging current, which means that the unbalanced load is below the desired value. It is important to comply with the phase unbalanced load limits in order to protect the grid, make charging electric vehicles efficient, and comply with the applicable regulations.
The maximum phase unbalanced load can be set by a qualified electrician in accordance with the applicable regulations (see Grid settings on page (→)).
Do not exceed the phase unbalanced load!
Select the 3-phase power level in such a way that the maximum permissible phase unbalanced load is not exceeded. To do this, amend the settings in the Fronius Solar.wattpilot app under "Settings" > "Car".
A minimum charging time of 5 minutes is stored.
To prevent permanent switching of the relays and to increase the service life of the Wattpilot, a minimum charging time of 5 minutes is stored.
The surplus energy of a PV system (photovoltaic system) can be used. The prerequisites for this are a compatible inverter in the same network as the Wattpilot and a Fronius Smart Meter (for more information, see Data communication with the inverter on page (→)).
Setting limit values ensures that the available PV surplus power is distributed to the loads. The limit values created allow an energy storage system to be sufficiently charged or the energy to be stored in the form of hot water before the surplus PV power is used to charge a vehicle.
PV surplus regulation.
One Wattpilot per photovoltaic system.
The PV surplus regulation works with one Wattpilot per photovoltaic system.
If several Wattpilot devices are connected to one inverter, "Use PV surplus" may only be activated on one Wattpilot. For all other Wattpilot devices, "Use PV surplus" must be deactivated (for more information, see Cost optimization on page (→)).
It is possible to set a start-up power level (specified in kilowatts/kW). This must be reached by the photovoltaic system before the Wattpilot starts charging the car with the minimum current.
It is possible to set a 3‑phase power level (specified in kW). This must be reached by the photovoltaic system before the Wattpilot switches from 1‑phase to 3‑phase charging.
The settings for the start-up power level and 3‑phase power level can be made under Cost optimization in the Fronius Solar.wattpilot app.
The power level can only be regulated in increments of 1 ampere. The table below lists the charging current in amperes (A) and the corresponding charging power for 1‑phase and 3‑phase charging in kilowatts (kW). 1-phase in 0.23 kW increments, 3-phase in 0.69 kW increments. The values are based on the assumption that the voltage is exactly 230 or 400 V.
Charging current [A] | 6 | 8 | 10 | 12 | 14 | 16 | 20 | 24 | 32 |
---|---|---|---|---|---|---|---|---|---|
1-phase [kW] | 1.38 | 1.84 | 2.3 | 2.76 | 3.22 | 3.68 | 4.6 | 5.52 | 7.36 |
3-phase [kW] | 4.14 | 5.52 | 6.9 | 8.28 | 9.66 | 11 | 13.8 | 16.56 | 22 |
Example
Photovoltaic generation | |
Electric vehicle |
The figure illustrates the behavior of the Wattpilot with a set start-up power level of 1.38 kW and a 3‑phase power level of 4.14 kW. If the PV surplus is less than 1.38 kW, the vehicle is not charged.
If the PV surplus is between 1.38 and 4.14 kW, the Wattpilot regulates the charging power in 0.23 kW increments.
If the PV surplus is above 4.14 kW, the Wattpilot switches from 1‑phase charging to 3‑phase charging and regulates the charging power in 0.69 kW increments.
The minimum charging power of electric vehicles is usually 1.38 kW.
In the case of smaller photovoltaic systems, it may make sense to set the start-up power level below 1.38 kW so that sufficient energy is charged. The electricity that is not covered by the photovoltaic system, however, is drawn from the grid. This results in a power mix of self-consumption and grid supply.
A start-up power level below 1.38 kW results in a power mix.
Charging with PV surplus can be activated and adjusted in the Fronius Solar.wattpilot app (see Cost optimization on page (→)).
Priorities in the system between battery, Ohmpilot, and Wattpilot
The priority of the Wattpilot can be influenced via the "PV battery threshold" and "Ohmpilot threshold" settings in the Fronius Solar.wattpilot app (see chapter Cost optimization on page (→)). Depending on the level of the selected limit values, it is possible to define under which conditions the charging of the electric vehicle starts. The temperature limit value of the Ohmpilot can only be used if a temperature sensor is connected to the Ohmpilot. To set the Wattpilot priority, the energy management priority settings on the user interface of the inverter must also be taken into account.
If no temperature sensor is connected to the Fronius Ohmpilot, a temperature of 0 °C is assumed. If the Wattpilot is to be prioritized over the Ohmpilot, the "Ohmpilot threshold" must be set to 0 °C. In the event of a sensor break, the Ohmpilot is supplied with power before the Wattpilot.
Example: Charging the electric vehicle first
The electric vehicle must always be charged with PV surplus before the battery and the Ohmpilot. In the Solar.wattpilot app, the limit value for the battery is set to 0% and the limit value for the Ohmpilot is set to 0 degrees. The electric vehicle is immediately charged with PV surplus, regardless of the state of charge of the battery or the temperature of the Ohmpilot.
Priority in the inverter | Wattpilot | Battery** | Ohmpilot |
---|---|---|---|
Battery** > Ohmpilot | Priority 3 until SOC* and temperature limit value reached, then 1 | Priority 1 until SOC*, then 2 | Priority 2 until temperature limit value reached, then 3 |
Ohmpilot > Battery** | Priority 3 until SOC* and temperature limit value reached, then 1 | Priority 2 until SOC, then 3 | Priority 1 until temperature limit value reached, then 2 |
Priority in the inverter | Wattpilot | Ohmpilot |
---|---|---|
Ohmpilot | Priority 2 until temperature limit value reached, then 1 | Priority 1 until temperature limit value reached, then 2 |
Priority in the inverter | Wattpilot | Battery** |
---|---|---|
Battery** | Priority 2 until SOC*, then 1 | Priority 1 until SOC*, then 2 |
*SOC—state of charge of the stationary battery
**Fronius-compatible DC-coupled battery
IMPORTANT!
The energy management with the digital outputs (I/Os) on the Fronius inverter must not be used for load management of the Wattpilot! The priorities of the loads are not clearly assigned.
Tariff zones
If you are a customer of a flexible electricity tariff retailer, you can use the flexible electricity tariff. This is taken into account when using Eco Mode and Next Trip Mode.
Retailer
The flexible electricity tariff can be used if electricity is purchased from electricity retailers and charged for hourly via the electricity exchange, e.g.,
The Wattpilot queries the various retailer tariffs from the electricity exchange directly via the Internet. It is possible to specify a price threshold (Eco Mode price limit) below which charging starts.
IMPORTANT!
The prices displayed show the current tariffs of the electricity exchange; depending on the retailer, additional costs may apply.
Example
The following figure shows the electricity price of an electricity retailer over 24 hours. The hourly tariffs are retrieved from the electricity exchange at a specific time for the next day.
Prerequisite
To be able to use Boost Mode, there must be a stationary battery storage system in the PV system and Eco or Next Trip Mode must be selected.
Function
Activating the Boost uses the energy for charging directly from the stationary battery storage system. As a result, low-cost energy can be obtained, even if no PV surplus is available. In the Boost settings, it is possible to set how much residual energy (SOC) should remain in the stationary battery. In addition, you can set whether the charge from the stationary battery should be used once, or for as long as the vehicle is plugged in.
When Boost is activated, it can take up to 10 minutes for the battery to discharge at maximum power. If the inverter has already reached the maximum total power (through PV) or the battery cannot be discharged, the Wattpilot still charges with at least 1.4 kW. The minimum SOC of the battery at the inverter must be greater than the "Discharge until" limit value.
Example
Let's imagine that your stationary battery storage system is 80% charged. Due to the current weather conditions, no additional energy is stored. If you now activate the Boost, the stored energy will be transferred to your vehicle. Note that the discharging limit of the stationary battery is taken into account (e.g., 20% set = 20% of the energy always remains in the stationary battery storage system). Activating Boost also means that the discharge is continued as long as the vehicle is connected. If the weather conditions change and the PV surplus is fed into the stationary battery storage system again, your vehicle will continue to be charged until it is unplugged. A residual amount of energy of 20% is always retained in the stationary battery storage system.
In standard mode, charging takes place at the preset amperage (e.g., 16 A). The level of charging current can be changed by pressing the pushbutton on the Wattpilot. In the app (see Current level on page (→)), the charging current can be adjusted in 1 ampere increments.
In standard mode, no operating mode LEDs light up.
Whereas charging at a low charging current is gentle, charging at a high charging current enables rapid charging. If necessary, charging is carried out with electricity sourced from the grid.
Standard mode
Standard mode is the standard setting of the Wattpilot; no LEDs light up white. In this charging mode, the PV surplus and the flexible electricity tariff are not taken into account.
No further settings are required for standard mode.
In standard mode, charging takes place at the preset amperage (e.g., 16 A). The level of charging current can be changed by pressing the pushbutton on the Wattpilot. In the app (see Current level on page (→)), the charging current can be adjusted in 1 ampere increments.
In standard mode, no operating mode LEDs light up.
Whereas charging at a low charging current is gentle, charging at a high charging current enables rapid charging. If necessary, charging is carried out with electricity sourced from the grid.
Standard mode
Standard mode is the standard setting of the Wattpilot; no LEDs light up white. In this charging mode, the PV surplus and the flexible electricity tariff are not taken into account.
No further settings are required for standard mode.
In Eco Mode, a vehicle is only charged when low-cost electricity is available. Charging can either take place with cheaply purchased electricity (see Flexible electricity tariff on page (→)) or surplus energy produced by the photovoltaic system (see PV surplus on page (→)). There is no guarantee that charging will occur.
Prerequisite
Charging in Eco Mode is only possible if PV surplus and/or a Flexible electricity tariff is activated under PV surplus in the Fronius Solar.wattpilot app.
Change mode for guaranteed charging.
If there is no surplus generated power or cheap electricity available, charging is not carried out in Eco Mode.
Change mode for guaranteed charging.
Enable
Eco Mode can be configured in the app under Cost optimization on page (→) and activated by pressing the pushbutton (< 0.5 s) or via the Fronius Solar.wattpilot app.
The battery of the photovoltaic system is discharged first!
If the system contains a stationary battery, the battery of the photovoltaic system is discharged when the electricity price falls below the threshold before mains current is drawn.
Example
Photovoltaic generation | |
Electric vehicle | |
Household consumption |
In Eco Mode, the electric vehicle is connected to the Wattpilot at around 3 p.m., as although a fixed additional range for the electric vehicle is not necessary, cheaper electricity is to be used for charging. In the Fronius Solar.wattpilot app, the PV surplus and/or flexible electricity tariff must be activated and set under Cost optimization. Household consumption is covered by photovoltaic generation and the electric vehicle is charged with the PV surplus. Charging takes place using the PV surplus until around 8 p.m. Between 2 a.m. and 5 a.m., the electricity price falls below the defined price limit. The electric vehicle is charged with cheap electricity during this period.
Charging in Eco Mode
PV surplus | Price limit | Wattpilot |
---|---|---|
No | No | No charging |
No | Yes | Max. charging |
Yes | No | Charging with PV surplus |
Yes | Yes | Max. charging |
In Next Trip Mode, a vehicle is charged as cheaply as possible until the end of the self-selected time with the set charging amount. The time charging starts is selected in such a way that the desired charging amount is charged at least one hour before the charge end. Charging takes place in the cheapest cost window. The PV surplus and flexible electricity tariff settings are taken into account. If the "Stay in Eco Mode" function (for activation see Next Trip Mode on page (→)) is activated, the Wattpilot continues charging with low-cost energy after the set charging amount has been reached.
The set charging amount is charged in addition to the charging amount available in the electric vehicle. The charging amount is specified in kilometers and calculated on the basis of an average consumption (18 kWh/100 km). External conditions (season, driving speed, vehicle model, etc.) may cause deviations in the actual range. When setting the charging amount, the actual state of charge of the electric vehicle battery is not read out.
The mode can be set under "Next Trip Mode" in the Fronius Solar.wattpilot app (see Next Trip Mode on page (→)).
After activating the mode, charging is started briefly to calculate a charging schedule taking into account the possible charging power. If no flexible electricity tariff is activated, charging is started at the latest possible time in order to charge with a possible PV surplus and to conserve the battery of the electric vehicle. If no time is provided for the calculation of the charging schedule, charging starts immediately.
Internet connection required if a flexible electricity tariff is activated!
If the flexible electricity tariff is activated in Next Trip Mode and there is no connection to the electricity provider's data, the Next Trip Mode LED flashes red. Charging starts in order to reach the set charging amount.
If the charging cable is disconnected and reconnected while Next Trip Mode is activated, the calculation is repeated and the set charging amount is charged in addition to the existing charging amount. Changes to the settings of the Fronius Solar.wattpilot app result in a recalculation of the charging schedule. If the change is made during Next Trip Mode charging, the range charged up to this point is added to this.
If "Stay in Eco Mode" is activated, the cost optimization settings are also taken into account in Next Trip Mode.
The battery of the photovoltaic system is discharged first!
If the system contains a stationary battery, the battery is discharged before mains current is drawn.
Orange flashing LEDs if the charging amount cannot be reached or stored!
If the set charging amount cannot be charged in the specified time or if the car cannot store the set charging amount, the LEDs flash orange.
Reduce the charging amount or extend the charging time.
Example
Photovoltaic generation | |
Electric vehicle | |
Household consumption |
The daily journey to work and back home is 50 km and must start at 8 a.m. In the Fronius Solar.wattpilot app, the kilometers and the departure time must be entered once under Next Trip Mode. 18 kWh is used as the basis for the calculation of 100 km. The electric vehicle is plugged in and charged at approximately 3 p.m. If PV surplus is available, charging is carried out with PV surplus. The remaining charging amount is guaranteed to be charged in the electric vehicle at the latest possible time. The charge is calculated in such a way that it is completed at the latest one hour before departure.
Wattpilot supports dynamic load management, known as Dynamic Load Balancing. To use Dynamic Load Balancing, either a Fronius inverter with Smart Meter a Fronius Datamanager 2.0 with Smart Meter, or a Fronius Smart Meter IP must be installed in the complete system. In addition, the Wattpilot must be connected to the Internet. The settings implemented can be protected with a technician password (see Password on page (→)).
Dynamic Load Balancing distributes power while charging with several Wattpilots, depending on their prioritization. The power is distributed dynamically taking into account PV surplus and the maximum reference current in the system. The prioritized vehicles are charged first.
Wattpilot supports dynamic load management, known as Dynamic Load Balancing. To use Dynamic Load Balancing, either a Fronius inverter with Smart Meter a Fronius Datamanager 2.0 with Smart Meter, or a Fronius Smart Meter IP must be installed in the complete system. In addition, the Wattpilot must be connected to the Internet. The settings implemented can be protected with a technician password (see Password on page (→)).
Dynamic Load Balancing distributes power while charging with several Wattpilots, depending on their prioritization. The power is distributed dynamically taking into account PV surplus and the maximum reference current in the system. The prioritized vehicles are charged first.
With Dynamic Load Balancing, the maximum reference current can be defined for the house connection point (feed-in point). The energy produced by the photovoltaic system and the loads are automatically taken into account. Up to 3 Wattpilots can be dynamically controlled. This dynamic control ensures the maximum possible charging current can be used.
Dynamic Load Balancing monitors the available current per phase (including solar power) at the house connection point (feed-in point) and dynamically distributes this to one or more Wattpilots. In this case, the Wattpilots can be supplied with the maximum available current; the maximum current is not exceeded. In addition, the current (reference current) for the Wattpilots can be limited.
Charge 1‑phase electric vehicles evenly with multiple Wattpilots.
In the case of multiple Wattpilots, it makes sense to connect the phases differently so that the load is distributed evenly among 1‑phase electric vehicles.
Connect the phases differently.
The maximum reference current must be set to match the post-meter fuse.
Control system example
(1) | Photovoltaic system |
(2) | Inverter |
(3) | Loads (e.g., TV, washing machine, light) |
(4) | Smart Meter |
(5) | Fronius Wattpilot |
(6) | Electric vehicle |
(7) | Grid |
In the example of a control system, 32 A are drawn from the public grid and 8 A are generated by the PV system, for a total of 40 A of available electricity. The household loads require 20 A, and the remaining 20 A are dynamically divided among the connected Wattpilots to enable charging of, for example, two electric vehicles with 10 A each.
Charging is interrupted or does not start.
If Dynamic Load Balancing is activated, charging interruptions may occur. Some electric vehicles encounter problems when starting charging again.
In the case of systems with multiple Wattpilots, charging priorities can be set. The charging stations (electric vehicles) with a higher priority are supplied with current first; charging stations with a lower priority have to wait. If there is current left over, it is shared among the lower-priority Wattpilots.
The vehicles that are to be charged first and with the maximum available current must be assigned a high priority. A low priority can be assigned to vehicles that should wait to charge until sufficient current is available.
In the case of Wattpilots with the same priority, the available current is shared equally.
Example 1
Distribution of the charging current with three Wattpilots with different priorities (one with high priority, two with medium priority). |
Example 2
Distribution of the charging current with three Wattpilots (X, Y, Z) with the same priority. Each Wattpilot is assigned the minimum charging current (unless the minimum charging current is no longer available). If there is charging current left over, it is distributed wherever possible, starting with the first Wattpilot in the loop.
Wattpilot X has a minimum charging current of 6 A, Wattpilot Y 10 A, and Wattpilot Z 6 A. There is 15 A of charging current to be distributed. The charging current is distributed as follows.
The 15 A charging current was distributed among the equally prioritized Wattpilots and charged. As soon as charging current is available again, the electric vehicle is charged at Wattpilot Y.
The following link provides current webinars and how-to videos for the Fronius Wattpilot.
The following link provides current webinars and how-to videos for the Fronius Wattpilot.
The following criteria must be taken into account when choosing a location.
The Wattpilot is suitable for outdoor operation without direct sunlight. | ||
| The Wattpilot is suitable for operation in a well-ventilated indoor area. | |
| Do not operate the Wattpilot in areas with increased danger as a result of ammonia gases. |
The Wattpilot is suitable for operation indoors and outdoors.
For environmental conditions, see WattpilotHome11J2.0 on page (→).
Beware of warping of the mounting bracket on uneven surfaces.
An uneven surface can cause the mounting bracket to warp, making it impossible to attach the Wattpilot.
Select a suitable location on an even surface.
The following criteria must be taken into account when choosing a location.
The Wattpilot is suitable for outdoor operation without direct sunlight. | ||
| The Wattpilot is suitable for operation in a well-ventilated indoor area. | |
| Do not operate the Wattpilot in areas with increased danger as a result of ammonia gases. |
The Wattpilot is suitable for operation indoors and outdoors.
For environmental conditions, see WattpilotHome11J2.0 on page (→).
Beware of warping of the mounting bracket on uneven surfaces.
An uneven surface can cause the mounting bracket to warp, making it impossible to attach the Wattpilot.
Select a suitable location on an even surface.
The following criteria must be taken into account when choosing a location.
The Wattpilot is suitable for outdoor operation without direct sunlight. | ||
| The Wattpilot is suitable for operation in a well-ventilated indoor area. | |
| Do not operate the Wattpilot in areas with increased danger as a result of ammonia gases. |
The Wattpilot is suitable for operation indoors and outdoors.
For environmental conditions, see WattpilotHome11J2.0 on page (→).
Beware of warping of the mounting bracket on uneven surfaces.
An uneven surface can cause the mounting bracket to warp, making it impossible to attach the Wattpilot.
Select a suitable location on an even surface.
The Wattpilot is designed to be installed vertically on a vertical, level wall. | ||
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Danger due to heat generation on the device!
The build-up of heat can lead to lasting damage and even fire.
Observe the correct installation position.
Never cover the device during charging.
Unwind the cable completely from a cable drum.
The type 2 plug is not waterproof.
Water can penetrate when the Wattpilot is mounted horizontally.
Mount the Wattpilot vertically.
When mounting the mounting bracket, ensure that it is not warped or deformed. The following illustrations may differ slightly from the actual product; the Wattpilot Home 11 J 2.0 / Home 22 J 2.0 does not have a mains plug.
Mark the drill holes 4 times.
Drill 4 holes.
Place dowels in the holes and fasten the mounting bracket with screws.
Hang the Wattpilot in the mounting bracket.
To protect the Wattpilot from contact, it must be mounted at least 140 cm above the ground.
The minimum height of 140 cm must be observed in Sweden.
When mounting the mounting bracket, ensure that it is not warped or deformed. The following illustrations may differ slightly from the actual product; the Wattpilot Home 11 J 2.0 / Home 22 J 2.0 does not have a mains plug.
Mark the drill holes 4 times.
Drill 4 holes.
Place dowels in the holes and fasten the mounting bracket with screws.
Hang the Wattpilot in the mounting bracket.
To protect the Wattpilot from contact, it must be mounted at least 140 cm above the ground.
The minimum height of 140 cm must be observed in Sweden.
The fastening materials and the padlock are not included. Use appropriate fastening materials depending on the substrate. The installer is responsible for selecting the right type of fixing.
Mount the anti-theft protection at least 5 cm above the mounting bracket.
Drill a hole with a suitable drill bit.
Mount the anti-theft protection using suitable fastening materials.
Secure the Wattpilot with a padlock.
Installation and commissioning may only be performed by a qualified electrician.
Requirements for the qualification of electricians—knowledge and observation of the 5 safety rules for working on electrical systems.
Disconnect.
Ensure the device cannot be switched back on.
Ensure the system is no longer live.
Carry out grounding and short circuiting.
Cover nearby live components or make them inaccessible.
Check with the grid operator whether there is a duty to inform in the country of destination and, if necessary, report the Wattpilot to the grid operator.
Installation and commissioning may only be performed by a qualified electrician.
Requirements for the qualification of electricians—knowledge and observation of the 5 safety rules for working on electrical systems.
Disconnect.
Ensure the device cannot be switched back on.
Ensure the system is no longer live.
Carry out grounding and short circuiting.
Cover nearby live components or make them inaccessible.
Check with the grid operator whether there is a duty to inform in the country of destination and, if necessary, report the Wattpilot to the grid operator.
When installing the Wattpilot Home 11 J 2.0 or Home 22 J 2.0, the mains cable must be installed by a qualified person in accordance with national standards. The fuse protection for the mains lead must be dimensioned in accordance with the device technical data.
Danger from mains voltage!
An electric shock can be fatal.
Always make sure the circuit is disconnected and de-energized before carrying out any connection work.
Have the connection work performed by an authorized electrician.
Observe the national standards.
Have the 5‑pin mains cable connected by an authorized electrician in accordance with national standards and safety rules. Depending on the available mains supply type, opt for a 1- or 3-phase connection.
*Digital input: optional connection to a ripple control receiver with floating contact
For 1-phase operation, use phase L1.
To supply power to the Wattpilot, phase L1 must be connected. The unused phases L2 and L3 must be isolated (contact protection)!
It is advisable to connect the Wattpilot outside the backup power loads of a photovoltaic system!
If the charging current per phase cannot be covered by the backup power, connect the Wattpilot outside the backup power loads.
If the Wattpilot is connected in the backup power circuit of a photovoltaic system and the total current of one phase is exceeded as a result, the inverter switches off the backup power. The electric vehicle must be unplugged and the backup power acknowledged (see inverter Operating Instructions).
IMPORTANT!
Check whether the electric vehicle allows charging at 53 Hz.
Start up the permanently installed Wattpilot Home 11 J 2.0 / Home 22 J 2.0 from step 2.
Connect the CEE plug to a suitable socket directly or with a suitable adapter.
The LEDs light up in rainbow colors during an initial self-test. Afterwards, the number of LEDs corresponding to the set charging current light up blue.
Connect a Type 2 to Type 2/Type 1 charging cable to the Wattpilot and the car.
During a test, all LEDs light up yellow.
The start of the charging process is indicated by the switching of the LEDs and started with a clicking sound from the Wattpilot.
For more information on LED status indicators, see chapter LED status indicator on page (→).
The car is charged.
When the vehicle battery is fully charged, the vehicle stops charging.
The charging cable remains locked to the Wattpilot by default (anti-theft protection). This can be changed in the app (see chapter Cable release on page (→)).
The way in which the cable is released can be configured in the app.
If the power supply is interrupted, the charging cable remains locked in the Wattpilot for reasons of theft protection. The cable release can be activated in the app under "Unlock in case of power failure".
Restore the power supply to the Wattpilot to unlock the charging cable.
Configure the cable release in the app.
Charging with PV surplus (see PV surplus on page (→)) is possible with a supported Fronius inverter to which a primary Fronius Smart Meter is connected. As soon as an inverter is in the network, the Wattpilot automatically connects with the first inverter that is found.
Another inverter can be coupled via the Fronius Solar.wattpilot app (see Cost optimization on page (→)).
PrerequisitesThe Fronius Solar.wattpilot app can be used to start up, configure, operate, visualize, and update the Wattpilot. The app is available for Android™ and iOS®.
You can access the Wattpilot via the app as follows:The Fronius Solar.wattpilot app can be used to start up, configure, operate, visualize, and update the Wattpilot. The app is available for Android™ and iOS®.
You can access the Wattpilot via the app as follows:The Fronius Solar.wattpilot app can be used to start up, configure, operate, visualize, and update the Wattpilot. The app is available for Android™ and iOS®.
You can access the Wattpilot via the app as follows:The Fronius Solar.wattpilot app is available on the following platforms.
Access for the Fronius Solar.wattpilot app must be allowed for end devices with an iOS operating system.
iOS settings > Privacy > Local network > Fronius Solar.wattpilot > Allow access to local network
Access for the Fronius Solar.wattpilot app must be allowed for end devices with an iOS operating system.
iOS settings > Privacy > Local network > Fronius Solar.wattpilot > Allow access to local network
The Wattpilot permanently opens a hot spot.
The selected WLAN of the Wattpilot must remain connected despite the absence of an Internet connection for end devices with an Android operating system.
IMPORTANT! In Germany, to comply with the documentation obligation set out in Section 14a of the EnWG (Law on the Fuel and Electricity Industries) the Wattpilot must be permanently connected to the Internet in order to be able to prove the implementation of the external control commands.
It can take up to 1 minute to establish the connection!
If the signal strength is low, a WLAN repeater must be installed, for example.
New or connected Wattpilot devices can be added in the Fronius Solar.wattpilot app.
The figure below shows the "Charging" homepage of the Fronius Solar.wattpilot app.
(1) | Touch the app icon and go to the "Select Wattpilot" page. Add a new Wattpilot by pressing the "+" icon. |
(2) | Views in the main window:
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(3) | Power: The current charging current and the charging time are displayed.
|
(4) | Enable or disable "Boost", as well as other settings. Details of the current charging process are displayed under "Status" and "Range". |
(5) | The following pages can be called up:
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The figure below shows the "Charging" homepage of the Fronius Solar.wattpilot app.
(1) | Touch the app icon and go to the "Select Wattpilot" page. Add a new Wattpilot by pressing the "+" icon. |
(2) | Views in the main window:
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(3) | Power: The current charging current and the charging time are displayed.
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(4) | Enable or disable "Boost", as well as other settings. Details of the current charging process are displayed under "Status" and "Range". |
(5) | The following pages can be called up:
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Five current levels can be set, from "gentle" to "rapid", by pressing the pushbutton on the Wattpilot. Press the pushbutton for at least 2 seconds (see chapter Pushbutton functions on page (→)).
The desired levels can be adjusted by clicking in the respective field.
If charging in an unknown infrastructure, always charge with the lowest charging current (e.g., 6 A or 10 A).
A slow charge with a low amperage is gentler on the battery of the vehicle. This can extend the service life of the battery.
Five current levels can be set, from "gentle" to "rapid", by pressing the pushbutton on the Wattpilot. Press the pushbutton for at least 2 seconds (see chapter Pushbutton functions on page (→)).
The desired levels can be adjusted by clicking in the respective field.
If charging in an unknown infrastructure, always charge with the lowest charging current (e.g., 6 A or 10 A).
A slow charge with a low amperage is gentler on the battery of the vehicle. This can extend the service life of the battery.
Charging is carried out as cheaply as possible using surplus PV current (see PV surplus on page (→)) and a flexible electricity tariff (see Flexible electricity tariff on page (→)).
Activating "Next Trip Mode"
Activating "Eco Mode after Next Trip Mode"
After reaching the set range, the Wattpilot remains in Next Trip Mode and continues charging with the Eco Mode settings.
Under "Cost optimization", the consideration of the electricity tariff (see Flexible electricity tariff on page (→)) and the use of PV surplus (see PV surplus on page (→)) can be activated. The settings listed below can also be customized.
Use flexible tariffs
Activate or deactivate, and select the corresponding country below. Either select the flexible electricity tariff of a retailer, if available, or select a tariff zone.
Eco Mode price limit
When a flexible electricity tariff is activated in Eco Mode, charging does not start until the set electricity price is below this value. If the electricity price is above this value, charging does not take place.
In Next Trip Mode, it is not this value that is taken into account but the most favorable charging times in the available time period.
Use PV surplus
Activate or deactivate. If "Use PV surplus" is activated, the Wattpilot uses the surplus PV energy for charging.
Inverter
Selection of a coupled inverter.
PV battery threshold
If a battery is installed in the photovoltaic system, a limit value can be set here. Below the set value, the battery is charged as a priority. Above this value, the energy is charged into the vehicle instead of into the stationary battery. The SOC (state of charge) of the battery may still slowly increase.
Ohmpilot threshold—optional
If a Fronius Ohmpilot with a temperature sensor is installed in the photovoltaic system, a limit value for the temperature can be set here. Below the set value, the available energy is prioritized for heating. Above this value, the vehicle is charged instead of heating with the Ohmpilot. The temperature may still slowly increase.
PV surplus—advanced settings
In the advanced settings, a start-up power level can be set from which the PV energy is used for charging. Vehicles require a certain minimum power in order to charge.
Deviations may occur when using PV surplus, as vehicles are regulated in stages. The following settings can be made under Control response:
If zero feed-in is activated, the prioritization of system components cannot be guaranteed. PV optimization control may be restricted.
Car—advanced settings
With intelligent charging, the charging process can be interrupted or the charging current reduced in order to meet certain charging conditions. Specify car-specific settings for smooth smart charging.
If a vehicle to be charged is not listed, no specific charging behavior is known. All defaults can be customized.
Select the standard charging behavior.
The "Charging timer" setting limits charging to specific times. A start and end time must be specified for this. Several time windows can be set. The following can be set:
Set whether charging with PV surplus is allowed at the defined time windows (with permitted or blocked charging).
Behaviour with activated Eco Mode or Next Trip Mode:
If charging is not allowed by the charging timer for a certain period of time, Eco Mode and Next Trip Mode are also blocked for this period.
If the charging timer does allow charging in a certain period of time but the settings for Eco Mode or Next Trip Mode are not met, charging will not occur.
Proceed as follows to call up the "Grid settings".
Dynamic load balancing can be selected and set under "Load balancing".
Load balancing off
With this setting, no load balancing is carried out by the Wattpilot.
Dynamic load balancing
For general information on Dynamic load balancing, see Dynamic load balancing on page (→). Dynamic load balancing monitors the current at the reference point. It dynamically limits the current for up to three Wattpilots to ensure that the maximum reference current is not exceeded. The following settings can be made:
Change the name of the paired Wattpilot.
Set LED brightness values. By activating "Switch off LEDs after 10 s in standby", the LEDs on the device are switched off after 10 seconds in standby.
Customize LED colors.
Set the time zone. Activating "Automatic summer time changeover" automatically sets the summer and winter time.
In the "Access management" menu, it is possible to set whether charging is started automatically or after confirmation. In addition, mode selection and current level selection can be set using the pushbutton on the device.
Authentication
Standard mode
The charging cable at the charging station remains locked after completion of the charging process until the charging cable is disconnected from the vehicle (anti-theft protection).
Auto-unlock
The charging cable is only locked during charging.
Always locked
The charging cable on the Wattpilot is always locked. Switch to standard mode to unlock.
Unlock in case of power failure
The charging cable is unlocked in the event of a power failure. By default, the charging cable remains locked in the event of a power failure for reasons of theft protection. To unlock the charging cable, the Wattpilot must be supplied with power again.
Activation or deactivation of the grounding test. It is necessary to deactivate the grounding test in insulated grids in some countries (e.g., Norway).
Up to 10 ID chips can be used. The ID chip is used for authentication and for recording user-specific charging amounts.
One ID chip can be taught in for several Fronius Wattpilot devices.
The ID chips and the charging amount remain stored in the event of a reset.
The password protects against unauthorized access to the Wattpilot.
Password guidelines
Technician password
If the technician password is activated, it is required to access "Grid settings".
If the password has been forgotten, contact the support team.
Proceed as follows to call up the "Grid settings".
Choose country
Different charging conditions are allowed depending on the country. In this selection, all known default settings for the respective country are stored and can be selected directly.
Max. charging current
This setting is used to adjust the maximum charging current of the Wattpilot. Higher charging currents can no longer be selected.
PV optimization works best when the maximum charging current is set as high as the maximum allowed in the respective country. To start charging, the value must be higher than the minimum current in the vehicle settings.
Max. 1-phase charging current
In some countries, charging via household sockets is only permitted up to a certain amperage. The Wattpilot automatically detects that it is a 1-phase socket and limits the current to the set value.
For camping sockets, there is no need to set a special limit for the maximum 1-phase charging current.
General—Random maximum delay
Random charging start delay when using flexible electricity tariffs, charging timer, or after a power failure. Random delay means that the grid is not overloaded when several Wattpilots start charging at the same time.
Phase unbalanced load
Activate and set the maximum asymmetry. Set the maximum asymmetry in accordance with the applicable regulations. Also see Phase unbalanced load on page (→).
The digital input can be used with the Fronius Wattpilot Home 2.0.
The digital input in the mains lead can be used to limit the charging current, e.g., for charge release via a keylock switch or for the grid operator to connect to a ripple control receiver. The digital input settings can be protected with the technician password (Settings > Password > Protect digital input).
NO = Normally open
The red and white cables must be connected together to limit the charging power or charging current.
NC = Normally closed
The red and white cables must not be connected to limit the charging power or charging current.
The following connection options can be configured in the "Internet" menu:
The following connection options can be configured in the "Internet" menu:
The charging point communication standard OCPP (Open Charge Point Protocol) is a universal communication protocol for charging infrastructures. It enables communication between the Wattpilot and a management system, via which, for example, load distribution of an infrastructure or billing can be carried out. It can be set up via a remote server provider or locally.
Activate OCPP
Activation or deactivation of OCPP.
Address
The address of the OCPP server must be provided by the provider and entered in the OCPP menu of the app.
Phase assignment
Implement settings for how the phases of the Wattpilot are assigned compared to a Smart Meter. This is necessary, for example, to ensure that load balancing functions correctly.
Custom certificate
Possibility to enter a self-created certificate for OCPP.
After confirming the restart, the Wattpilot is restarted; the most recent settings remain saved.
The current firmware of the Wattpilot is loaded via the Internet. The "Internet" menu shows which firmware version is installed and whether an update is available.
The Fronius Solar.wattpilot app can be updated via the respective platform (Google Play Store, App Store).
Beta
If a new beta version of the firmware is provided, you can install and test it in advance. Please send us your feedback on the beta versions.
Changing firmware
The old firmware remains stored on the Wattpilot after an update. In the event of an error, it is also possible to switch between the old and the new firmware version without an Internet connection.
The tripping characteristics of the residual current detection are as follows.
The tripping characteristics of the residual current detection are as follows.
The tripping characteristics of the residual current detection are as follows.
The Wattpilot works with the following standard settings during start-up, without making any further settings in the Fronius Solar.wattpilot app. The standard settings can be restored with the reset card.
Charging mode | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Eco Mode | Off | |
Next Trip Mode | Off |
Current level | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Level 1 (gentle) | 6 A | 10 A |
Level 2 | 10 A | 16 A |
Level 3 | 12 A | 20 A |
Level 4 | 14 A | 24 A |
Level 5 (rapid) | 16 A | 32 A |
Next Trip Mode | Go 11 J 2.0 / | Go 22 J 2.0 / |
---|---|---|
Minimum range [km] or [kWh] | 100 [km] [18.00 kWh] | |
Until [time] | 06:00 | |
Eco Mode after Next Trip Mode | On | |
Consumption over 100 km | 18 [kWh] |
Cost optimization | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Use Lumina Strom / aWattar | Off | |
Country | Germany | |
Eco Mode price limit | 3 cents | |
Use PV surplus | On | |
Inverter | First found, otherwise empty | |
PV battery threshold | 20% | |
Ohmpilot threshold | 20 °C | |
PV surplus | For advanced settings, see the following table | |
Car | For advanced settings, see the following table |
PV surplus | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Start-up power level | 1.40 kW | |
Zero feed-in | Off | |
Control response | Standard |
Car | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Choose car | Standard charging behavior | |
Minimum current | 6 A | |
Forced charging interval | 0 min | |
Allow charging pause | On | |
Simulate unplugging | Off | |
Charging pause | 0 min | |
Minimum charging time | 5 min | |
Choose phase switch | Automatic | |
3‑phase power level | 4.20 kW | |
Phase switch delay | 2 min | |
Phase switch interval | 10 min | |
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Brightness | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Brightness | Max. | |
Switch off LEDs after 10 s in standby | Off |
LED colors | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Ready | R = 0, G = 0, B = 255 | |
Charging | R = 0, G = 255, B = 255 | |
Done | R = 0, G = 255, B = 0 |
Time zone | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Time zone | GMT+1:00 ECT European Central Time | |
Automatic summer time changeover | On | |
Local time | Automatic |
Access management | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Authentication | Open | |
Lock mode selection | Never locked | |
Current level selection locked | Never locked |
Cable release | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Cable release | Standard mode | |
Unlock in case of power failure | Off |
Grounding control | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Additional settings | Go 11 J 2.0 / | Go 22 J 2.0 / |
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Grounding control | Activated | |
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Allow Internet connection | On |
Fronius Wattpilot—technical data | Go 11 J 2.0 |
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Max. charging power | 11 kW |
Mains supply types | TT / TN / IT |
Grid connection | CEE plug, red, 16 A, 5‑pin |
Nominal voltage | 230 and 240 V (1‑phase) / |
Nominal current (configurable) | 6 ‑ 16 A |
Mains frequency | 50 Hz |
Power consumption in standby | 1.9 W (LED dark), 4.2 W (LED bright) |
Charging socket | Type 2 infrastructure socket with |
Residual current device | 20 mAAC, 6 mADC |
Supply line conductor cross-section | Min. 2.5 mm2 |
RFID (radio frequency identification) | 13.56 MHz |
WLAN | IEEE 802.11b/g/n | 2.4 GHz |
Supported safety standards | WEP, WPA, WPA2, WPA3 |
Safety class | IP 65 |
Impact resistance | IK08 |
Dimensions (width x height x depth) | 155 x 287 x 109 mm |
Weight | 2 kg |
Use | Indoors and outdoors |
Installation type | Suspended |
Ambient temperature | -25 to +40 °C |
Average ambient temperature over 24 hours | Max. 35 °C |
Humidity | 5-95% |
Height above sea level | 0-2,000 m |
Fronius Wattpilot—technical data | Go 11 J 2.0 |
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Max. charging power | 11 kW |
Mains supply types | TT / TN / IT |
Grid connection | CEE plug, red, 16 A, 5‑pin |
Nominal voltage | 230 and 240 V (1‑phase) / |
Nominal current (configurable) | 6 ‑ 16 A |
Mains frequency | 50 Hz |
Power consumption in standby | 1.9 W (LED dark), 4.2 W (LED bright) |
Charging socket | Type 2 infrastructure socket with |
Residual current device | 20 mAAC, 6 mADC |
Supply line conductor cross-section | Min. 2.5 mm2 |
RFID (radio frequency identification) | 13.56 MHz |
WLAN | IEEE 802.11b/g/n | 2.4 GHz |
Supported safety standards | WEP, WPA, WPA2, WPA3 |
Safety class | IP 65 |
Impact resistance | IK08 |
Dimensions (width x height x depth) | 155 x 287 x 109 mm |
Weight | 2 kg |
Use | Indoors and outdoors |
Installation type | Suspended |
Ambient temperature | -25 to +40 °C |
Average ambient temperature over 24 hours | Max. 35 °C |
Humidity | 5-95% |
Height above sea level | 0-2,000 m |
Fronius Wattpilot—technical data | Go 22 J 2.0 |
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Max. charging power | 22 kW |
Mains supply types | TT / TN / IT |
Grid connection | CEE plug, red, 32 A, 5‑pin |
Nominal voltage | 230 and 240 V (1‑phase) / |
Nominal current (configurable) | 6 ‑ 32 A |
Mains frequency | 50 Hz |
Power consumption in standby | 1.9 W (LED dark), 4.2 W (LED bright) |
Charging socket | Type 2 infrastructure socket with |
Residual current device | 20 mAAC, 6 mADC |
Supply line conductor cross-section | Min. 6 mm2 |
RFID (radio frequency identification) | 13.56 MHz |
WLAN | IEEE 802.11b/g/n | 2.4 GHz |
Supported safety standards | WEP, WPA, WPA2, WPA3 |
Safety class | IP 65 |
Impact resistance | IK08 |
Dimensions (width x height x depth) | 155 x 287 x 109 mm |
Weight | 2 kg |
Use | Indoors and outdoors |
Installation type | Suspended |
Ambient temperature | -25 to +40 °C |
Average ambient temperature over 24 hours | Max. 35 °C |
Humidity | 5-95% |
Height above sea level | 0-2,000 m |
Fronius Wattpilot—technical data | Go 22 J 2.0 AUS |
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Max. charging power | 22 kW |
Mains supply types | TT / TN / IT |
Grid connection | 3-phase plug 32 A (AU), |
Nominal voltage | 230 and 240 V (1‑phase) / |
Nominal current (configurable) | 6‑32 A |
Mains frequency | 50 Hz |
Power consumption in standby | 1.9 W (LED dark), 4.2 W (LED bright) |
Charging socket | Type 2 infrastructure socket with |
Residual current device | 20 mAAC, 6 mADC |
Supply line conductor cross-section | Min. 6 mm2 |
RFID (radio frequency identification) | 13.56 MHz |
WLAN | IEEE 802.11b/g/n | 2.4 GHz |
Supported safety standards | WEP, WPA, WPA2, WPA3 |
Safety class | IP 65 |
Impact resistance | IK08 |
Dimensions (width x height x depth) | 155 x 287 x 109 mm |
Weight | 2 kg |
Use | Indoors and outdoors |
Installation type | Suspended |
Ambient temperature | -25 to +40 °C |
Average ambient temperature over 24 hours | Max. 35 °C |
Humidity | 5-95% |
Height above sea level | 0-2,000 m |
Fronius Wattpilot—technical data | Home 11 J 2.0 |
---|---|
Max. charging power | 11 kW |
Mains supply types | TT / TN / IT |
Grid connection | 5‑pin cable |
Nominal voltage | 230 and 240 V (1‑phase) / |
Mains current (configurable) | 6‑16 A |
Mains frequency | 50 Hz |
Power consumption in standby | 1.9 W (LED dark), 4.2 W (LED bright) |
Charging socket | Type 2 infrastructure socket with |
Residual current device | 20 mAAC, 6 mADC |
Supply line conductor cross-section | Min. 2.5 mm2 |
RFID (radio frequency identification) | 13.56 MHz |
WLAN | IEEE 802.11b/g/n | 2.4 GHz |
Supported safety standards | WEP, WPA, WPA2, WPA3 |
Safety class | IP 65 |
Impact resistance | IK08 |
Dimensions (width x height x depth) | 155 x 287 x 109 mm |
Weight | 2 kg |
Use | Indoors and outdoors |
Installation type | Suspended |
Ambient temperature | -25 to +40 °C |
Average ambient temperature over 24 hours | Max. 35 °C |
Humidity | 5-95% |
Height above sea level | 0-2,000 m |
Fronius Wattpilot—technical data | Home 22 J 2.0 |
---|---|
Max. charging power | 22 kW |
Mains supply types | TT / TN / IT |
Grid connection | 5‑pin cable |
Nominal voltage | 230 and 240 V (1‑phase) / |
Mains current (configurable) | 6‑32 A |
Mains frequency | 50 Hz |
Power consumption in standby | 1.9 W (LED dark), 4.2 W (LED bright) |
Charging socket | Type 2 infrastructure socket with |
Residual current device | 20 mAAC, 6 mADC |
Supply line conductor cross-section | Min. 6 mm2 |
RFID (radio frequency identification) | 13.56 MHz |
WLAN | IEEE 802.11b/g/n | 2.4 GHz |
Supported safety standards | WEP, WPA, WPA2, WPA3 |
Safety class | IP 65 |
Impact resistance | IK08 |
Dimensions (width x height x depth) | 155 x 287 x 109 mm |
Weight | 2 kg |
Use | Indoors and outdoors |
Installation type | Suspended |
Ambient temperature | -25 to +40 °C |
Average ambient temperature over 24 hours | Max. 35 °C |
Humidity | 5-95% |
Height above sea level | 0-2,000 m |
Due to phase, voltage, and switching function checks of the Fronius Wattpilot, a charging operation may be rejected.
The status codes are displayed via the LED status indicator (see LED status indicator on page (→)) directly on the Wattpilot and in the app under "Status".
Cause: | The residual current device has detected an error. |
Remedy: | The charging equipment in the vehicle may be defective. Have the charging equipment checked by a specialist. |
Remedy: | Disconnect and reconnect the charging cable. |
Cause: | The device is only being supplied with 2 phases. |
Remedy: | Make sure that phase 2 and phase 3 are connected correctly. Option: a supply via phase 1 only is possible. |
Cause: | Grounding fault detected. |
Remedy: | Check that the connection is properly grounded. |
Cause: | The relay has not switched. |
Remedy: | Disconnect the power supply to the device for 5 seconds. |
Cause: | 53 Hz mains current detected. |
Remedy: | Observe the instructions in the Operating Instructions. |
Cause: | The plug locking system does not work. |
Remedy: | Remove possible foreign parts in the plug housing. |
Cause: | Type 2 plug not fully inserted. |
Remedy: | Insert the type 2 plug into the device as far as it will go until you hear a click. |
Cause: | The electric vehicle is plugged in. |
Remedy: | Unplug the electric vehicle. |
Cause: | "Always locked" under "Cable release" in the Solar.wattpilot app is activated. |
Remedy: | Deactivate "Always locked" under "Cable release" in the Solar.wattpilot app. |
Cause: | Release jammed. |
Remedy: | Insert the type 2 plug into the device as far as it will go until you hear a click. If the problem has still not been fixed: Press the pushbutton on the device. If the problem has still not been fixed: Activate and save "Always locked" in the Solar.wattpilot app, then activate and save "Standard mode" under "Cable release". |
Cause: | Device is not sending data. |
Remedy: | Disconnect and reconnect device. |
Remedy: | Perform a firmware update. |
Remedy: | Return device. |
Cause: | Continuous load. |
Remedy: | Disconnect device and allow to cool down. |
Cause: | Incorrectly installed cables. |
Remedy: | Disconnect device and allow to cool down. |
Cause: | Flexible electricity tariff cannot be called up. |
Remedy: | Check WLAN and Internet connection. |
Remedy | Wait until the server is available again. |
Cause: | The connection to the inverter cannot be established. |
Remedy: | Check the network settings. |
Remedy: | Check the settings of the inverter. |
Remedy: | Make sure that the Fronius Solar API is activated on the inverter. |
Cause: | Eco Mode is selected and the "Use PV surplus" and "Use Lumina Strom / aWattar" settings are disabled. |
Remedy: | Activate the setting "Use PV surplus" and/or "Use Lumina Strom / aWattar". |
Remedy: | Change the mode. |
Cause: | "Use Lumina Strom / aWattar" is enabled and there is no data connection to the Internet. Cached price data is still available. |
Remedy: | Check the network settings. |
Cause: | The specified time is not sufficient for the desired amount of energy. |
Remedy: | Extend the specified time for charging. |
Remedy: | Reduce the desired amount of energy. |
Cause: | The connection cannot be established. |
Remedy: | Check the network settings. |
Cause: | The vehicle is not being detected. |
Remedy: | Check vehicle cable and fit of charging plugs |
Cause: | No power on the junction box. |
Remedy: | Check the overload fuse of the connection. |
Cause: | Miniature fuse defective. |
Remedy: | Check the miniature fuse on the rear of the device. If it has melted, the power connection may not be installed properly. Check the polarity of the power connection before starting another test with a new miniature fuse. Use original miniature fuses only. |
Cause: | The brightness of the LEDs has been set to 0. |
Remedy: | Increase the brightness of the LEDs in the Fronius Solar.wattpilot app. |
Cause: | "Switch off LEDs after 10 s in standby" has been enabled. |
Remedy: | Deactivate "Switch off LEDs after 10 s in standby" or press the pushbutton on the Wattpilot. |
Detailed, country-specific warranty conditions are available on the internet
www.fronius.com/solar/garantie
Detailed, country-specific warranty conditions are available on the internet
www.fronius.com/solar/garantie
Waste electrical and electronic equipment must be collected separately and recycled in an environmentally sound manner in accordance with the European Directive and national law. Used equipment must be returned to the distributor or through a local authorized collection and disposal system. Proper disposal of the used device promotes sustainable recycling of resources and prevents negative effects on health and the environment.
Packaging materials