Commercial Electric Fleets Drive Surge in Charging Demand
South Africa’s Rubicon charging network saw its energy dispensed increase by 142% in 2025, reaching 625 MWh, demonstrating that charging demand from commercial electric two- and three-wheelers has surpassed the capacity of traditional power grids. This growth is primarily driven by commercial fleets. A joint analysis by McKinsey and Company and the Shell Foundation projects that by 2040, over 80% of electric vehicle sales in Sub-Saharan Africa will come from two-wheelers, due to their low charging requirements, rapid fleet turnover, and competitive lifetime costs.
The United Nations Economic Commission for Africa (UNECA) reported in 2026 that the continent currently has over 400,000 electric vehicles but fewer than 1,000 public charging stations, distributed across 26 countries. The report forecasts that Africa’s charging infrastructure market will expand eightfold, from $31.93 million in 2022 to $256.53 million by 2030. UNECA identifies two distinct development models across the continent: South Africa and Morocco are focusing on high-power highway charging corridors for four-wheeled passenger vehicles, while Kenya and Rwanda are scaling distributed battery swapping networks to meet the needs of high-mileage commercial fleets.
Battery Swapping Emerges as Dominant Solution
In cities such as Nairobi, Kigali, Cotonou, and Johannesburg, traditional fuel stations are rapidly transforming into battery swapping depots. Fuel retailers Vivo Energy and TotalEnergies have opened their forecourts to clean mobility companies like Ampersand, Roam, and Spiro, converting conventional fuel stations into battery swapping hubs. Drivers can complete a battery swap in under two minutes, pay via mobile platforms like M-Pesa, and immediately return to operations, effectively addressing the time-sensitive pressures faced by commercial fleets.
A 2026 study published in *Energy Reports* concluded that battery swapping represents a “viable pathway for accelerating electrification in developing countries,” as it eliminates downtime for commercial drivers, reduces vehicle acquisition costs, and insulates charging networks from grid fluctuations. Operational data from South African commercial electric fleets shows a 27% cost advantage over traditional internal combustion engine fleets, further driving the scaling of infrastructure.
Solar Microgrids Overcome Power Supply Bottlenecks
Africa’s electric vehicle charging model has achieved a major breakthrough by bypassing fragile central grids and adopting solar microgrids. A research team from ETH Zurich, the Paul Scherrer Institute, Makerere University, the University of Port Harcourt, and Stellenbosch University analyzed the electrification potential of over 2,000 locations across 52 African nations. Their findings indicate that electric vehicles paired with off-grid solar photovoltaic systems and stationary battery storage can achieve total cost parity with internal combustion engine vehicles well before 2040.
Bessie Noll, lead author and senior researcher at ETH Zurich, stated, “Many models assume internal combustion engines will dominate in Africa until mid-century, but empirical data shows that electrification is far more feasible than previously thought. Access to financing is the critical variable—if financing costs can be reduced, the transition will accelerate dramatically.” The McKinsey and Shell Foundation report estimates that Sub-Saharan Africa will require an investment of $3.5 billion to $8.9 billion in vehicle assembly, charging infrastructure, and asset financing to support large-scale industry development.
Highway Charging Networks and Diverse Use Cases
South African infrastructure developer Zero Carbon Charge is constructing a nationwide network of off-grid ultra-fast charging plazas along major highways such as the N1, N2, and N3. Each charging station operates as an independent microgrid, powered by on-site solar arrays and large-scale battery storage systems, with charging capacities of up to 300 kilowatts. This design not only avoids South Africa’s frequent rolling blackouts but also ensures that charging stations deliver 100% renewable electricity.
Kenya’s approach demonstrates solutions for diverse charging needs. French energy company Rubis Energy has partnered with electric bus manufacturer BasiGo to install direct-current fast-charging equipment across its network of over 300 fuel stations. The Rubis Sabaki station, located along the high-traffic Nairobi-Mombasa corridor, is equipped with 100-kilowatt dual-standard chargers capable of powering passenger cars, delivery vans, and transit buses in under an hour. With over 90% of Kenya’s national grid powered by geothermal, hydro, and wind energy, traditional fuel stations are seamlessly transitioning into multi-vehicle charging hubs.
In North Africa, countries like Morocco are connecting highway charging stations to the Noor solar complex, creating zero-carbon transport corridors between Tangier, Casablanca, and Marrakech. Fuel retailers in Sub-Saharan cities are diversifying revenue streams by leasing automated battery lockers and selling goods. These innovative models are redefining Africa’s energy distribution systems and fundamentally reshaping the modern transportation landscape.
