TITLE:
E-Mobility (EV’s) & Nigeria’s Energy Infrastructure (Looming Demand Shock & the Path to National Grid Sustainability): A Secondary Data Analysis & Deterministic Scenario Modelling Perspective
AUTHORS:
Abel Eseoghene Owotemu, Oluwafemi Adeola Alade
KEYWORDS:
Infrastructure, Electric Vehicles, Nigeria, National Grid, Charging Load, Demand Scenario, Grid Capacity, Energy Transition, Level 2 Charging, DC Fast Charging, Hydropower, Natural Gas, Solar, Paratransit, Sub-Saharan Africa
JOURNAL NAME:
Journal of Service Science and Management,
Vol.19 No.4,
August
25,
2026
ABSTRACT: Nigeria’s electric vehicle transition is accelerating. In January 2024, the Nigerian Customs Service announced duty exemptions on electric vehicles; the VAT Modification Order 2024 formally exempted EVs from the country’s 7.5% value-added tax; and Nigeria signed the Zero Emission Vehicles Declaration at the 2024 International Transport Forum committing to 100% ZEV sales for cars and vans by 2040. As of early 2025, an estimated 15,000 to 20,000 EVs are on Nigeria’s roads, with the market projected to grow from US$58 million in 2024 to US$230 million by 2030. This paper examines whether Nigeria’s national electricity grid can support this EV adoption trajectory. Using a secondary data analysis and deterministic scenario modelling methodology, the paper applies a formal charging load equation to nine scenarios spanning four fleet sizes (15,000 - 20,000, 100,000, 350,000, and 1,000,000 vehicles), two charger types (Level 2 AC at 7 kW and DC fast at 50 kW), and three simultaneous utilisation rates (5%, 10%, and 20%), and compares the resulting incremental demand against Nigeria’s verified available grid output of approximately 5000 MW. The analysis draws on Nigerian expert interview evidence from 31 Nigerian EV experts, Nigerian grid performance data from NERC, and Nigerian-specific EV adoption survey findings alongside the international comparative data. The study finds that Nigeria’s grid, which delivered available generation of approximately 4915 to 5528 MW in 2024 against a forecasted peak demand of approximately 20,000 MW, and collapsed more than twelve times during the same year cannot absorb the incremental charging demand of an EV fleet exceeding approximately 350,000 vehicles on Level 2 charging or 100,000 vehicles on DC fast charging without risking additional grid instability. Critically, these constraints are confirmed by Nigerian expert evidence as the primary adoption barrier rather than consumer preference or vehicle cost. The study evaluates three charging infrastructure models and concludes that grid-based public fast charging is the target architecture, contingent on nationally coordinated multi-source grid investment drawing on Nigeria’s 209.26 TCF natural gas reserves, 14,000+ MW undeveloped hydropower potential, and 5.5 kWh/m2/day solar irradiance.