
through the mobile application after the end of the session. To download the receipt, follow
these steps in the app: Go to 'Activity,' select the charging session for which you want the
receipt, then click the three dots in the upper right corner and choose 'Download receipt’. The
user receives a relevant notification to download the file, while maintaining access to it from
the list of charges within the application.
12 How is the charge made to registered users who have an ElpeFuture /
EKO Charge&Go RFID card?
When registering, a valid bank card is requested. Card charges are made through the payment
provider Stripe.
In the case of corporate customers, a valid corporate fuel card is requested.
At the end of the charge, the stored card is charged based on the actual value of the charge. In
case the automated charging fails, the user receives a relevant notification and the ability to
start new charges is disabled. For reactivation, the balance in the user area in elpefuture.gr
must be settled.
Registered users receive the legal tax document (receipt) for the provision of the service in their
email after the end of the session, while maintaining access to the list of their charges and
documents, through the user area on elpefuture.gr.
13 What is the difference between AC and DC charging?
All electrified vehicles, hybrid (PHEV) and fully electric (BEV) carry a high-voltage Direct Current
(DC) battery usually 400 V or 800 V. Battery needs direct current (DC) to be charged. The
electrical network, however, has an alternating (AC) voltage of 230V and can provide
alternating current (AC) to the devices connected to it.
For the necessary conversion from AC to DC, inverters or chargers are used.
In AC charging (Type2 plug), the charging device (Wallbox or floor charger) exclusively provides
AC voltage and current, just as the connected electrical network provides. The conversion is
undertaken by the inverter built into the car, called On-Board-Charger (OBC). Each car model is
offered with a specific OBC, which determines the maximum power of the charge. Examples:
● Hybrid vehicles (e.g. Renault Captur PHEV): OBC 3.7kW max (single phase 16A)
● Electric vehicles (e.g. Peugeot e208): OBC 7.4kW max (single phase 32A)
● Electric vehicles (e.g. VW ID3): OBC 11kW max (three phase 16A)
● Electric vehicles (e.g. Renault Zoe): OBC 22kW max (three-phase 32A)
This means that even if an AC charger is 22kW, the vehicle will charge at a maximum power
specified by its OBC.
Generally, AC charging is considered normal charging, where the vehicle will remain connected
either for a short duration (30min) to replenish its "daily" kilometers, or will remain 4-6 hours
parked to fully replenish its battery.
In DC charging (CCS2 plug or CHAdeMO), the charging device (floor cabin) undertakes the
conversion from AC to DC and directly gives direct current to the car battery, bypassing the
OBC. Therefore, there is no power limitation of the OBC and the vehicle can "pull" all the power
of the charger. In fact, the computer of the car supervises the process of charging and adjusts