EV Charging Cost in Nigeria: Actual Tariff Samples and Naira Calculations
Calculate EV charging costs with published Nigerian electricity tariff samples, metered energy, charging losses and cost-per-kilometre examples.

Tochukwu Nkwocha
Founder

The most direct way to calculate EV charging cost is to multiply the electricity drawn from the supply by the price paid per kWh. For a useful business decision, go one step further: divide the charging cost by the kilometres driven, then include installation, maintenance and any backup-power costs in your ownership budget.
Every Sure Imports EV comes with a compatible wall-mountable charger for Nigerian mains electricity. You still need to budget for any installation work and the electricity used. The electricity rates below are actual published samples; consumption and efficiency remain explicitly stated modelling assumptions. They are not promised vehicle performance.
The actual electricity rates used in this guide
NERC’s September 2026 order for Ikeja Electric, Table 3 on page 7, lists ₦209.50/kWh for A–Non-MD and ₦62.48/kWh for B–Non-MD. This particular order’s end-user tariff section covers the yet-to-be-transitioned Ikeja franchise area in Ogun State; these are not universal Nigerian or Lagos rates. Read the official tariff order.
Our calculations use the published energy rates, before any separately applied VAT or other billing charges. Check your vending receipt for your own effective rate, band and deductions. The fuel comparisons linked below use May 2026 NBS observations, so this is a dated sample comparison rather than a same-day market quotation. Sources checked on 28 September 2026.
Start with electricity purchased, not only battery size
Session cost = metered electricity in kWh × applicable ₦/kWh. If a session draws 40 kWh and you use the published A–Non-MD sample of ₦209.50/kWh, its energy component is ₦8,380. Use the tariff and charges applicable to your own account; do not adopt a social-media example as your electricity rate.
If a dedicated charger meter or other reliable measurement is available, use it consistently. A vehicle display and an electricity meter may report different boundaries: energy going into the battery is not necessarily the same as electricity taken from the building supply.
Allow for losses without counting them twice
For a planning example, assume you need to add 30 kWh to the battery and charging efficiency is 90%. Estimated supply energy is 30 ÷ 0.9 = 33.33 kWh. At the ₦209.50/kWh sample rate that is about ₦6,983.33. The efficiency is an assumption to test against your actual installation, not a guaranteed value.
If your meter already records the 33.33 kWh drawn from the supply, do not add another loss percentage to it. You would be charging yourself for the same effect twice. Label every number in a spreadsheet as either battery-side energy or supply-side energy.
Turn a charging bill into cost per kilometre
Imagine a measured week in which a vehicle covers 600 km and its charging uses 150 kWh at the meter. Metered energy intensity is 150 ÷ 600 = 0.25 kWh/km, or 25 kWh per 100 km. At the published ₦209.50/kWh sample rate, the energy component costs ₦52.375/km, about ₦52.38/km.
| Published sample tariff | Assumed metered consumption | Energy cost per km | For 3,000 km |
|---|---|---|---|
| IE Ogun A–Non-MD: ₦209.50/kWh | 0.25 kWh/km | ₦52.38 | ₦157,125 |
| IE Ogun B–Non-MD: ₦62.48/kWh | 0.25 kWh/km | ₦15.62 | ₦46,860 |
Monthly results use unrounded calculations. You cannot simply choose the lower band’s price: your account classification and actual supply arrangement determine your tariff. Replace the sample with your receipt rate, and replace assumed consumption with measured route data. Different supply availability may also change how much backup charging you need.
Compare with petrol or diesel using the same boundary
For a combustion vehicle, fuel cost per kilometre is litres per 100 km × price per litre ÷ 100. Use actual purchase prices and measured consumption from the route you are replacing. Do not compare a lightly loaded EV on a short urban route with a heavily loaded diesel vehicle on a different job.
The Department of Energy’s charging guidance similarly relates electricity cost to energy use per distance. Our examples apply that arithmetic in Naira; they do not import US electricity prices into a Nigerian business case.
Build an ownership budget beyond energy
- Upfront: confirmed landed price, installation, agreed onward delivery and other separately priced services.
- Recurring: electricity, planned maintenance, tyres, insurance and any charging-system service costs.
- Operational: driver time, downtime, replacement transport and backup-power use.
- Longer term: financing if arranged, parts availability and an appropriately evidenced resale assumption.
A lower energy cost alone does not establish a payback period. To estimate payback, compare the total cost difference between options and the net annual saving after all relevant operating expenses. If an input is uncertain, show a range rather than a single confident result.
Keep a simple first-month log
Record date, kilometres, route, load, meter energy, energy price and whether grid or backup electricity was used. Note unusual delays or refrigeration use. At month-end, calculate energy cost per kilometre and per completed job. Those figures make fleet planning more useful than a generic claim that an EV is always a fixed percentage cheaper.
Use our range-planning guide to check the operating assumptions, then share your route and quantity requirements for a vehicle quotation.
For the full comparison, including generator charging and the parts budget, read EV versus petrol and diesel: total ownership cost in Nigeria.



