Regional spotlight: EV charging infrastructure in Sub-Saharan Africa — what's different and why it matters

As of early 2026, Sub-Saharan Africa has fewer than 3,000 publicly accessible EV charging points serving a population of over 1.2 billion people, compared to more than 2.7 million chargers installed across China alone. Yet EV adoption in the region grew 142% between 2023 and 2025, driven primarily by two- and three-wheeler electrification and a rapidly expanding secondhand EV import market (International Energy Agency, 2025). For product and design teams developing charging solutions, Sub-Saharan Africa represents a fundamentally different market from Europe, North America, or East Asia: one where grid instability, informal transport networks, mobile money dominance, and leapfrog technology adoption create both constraints and opportunities that standard global playbooks fail to address.

Why It Matters

Sub-Saharan Africa's transport sector accounts for approximately 14% of the region's total greenhouse gas emissions, a share projected to rise to 22% by 2035 as motorization rates increase with economic growth (African Development Bank, 2025). The region is adding approximately 4 million new vehicles annually, and without intervention, nearly all will be internal combustion engine (ICE) models. Electrification of transport is a critical decarbonization lever, but it requires charging infrastructure that works within the region's unique energy and economic landscape.

The market opportunity is substantial. BloombergNEF estimates that Sub-Saharan Africa will need between 120,000 and 250,000 public charging points by 2035 to support projected EV fleets, representing a $4.5 billion to $9 billion cumulative investment requirement (BloombergNEF, 2025). The companies and policymakers who figure out workable charging models for the region will shape mobility for hundreds of millions of people.

The challenge is equally significant. Grid electricity reaches only 48% of the Sub-Saharan population, and even where grid connections exist, average power reliability is far below global standards. The World Bank estimates that Sub-Saharan African businesses experience an average of 8.6 power outages per month, compared to 0.4 in OECD countries (World Bank, 2025). Charging infrastructure must be designed around this reality rather than treating it as a temporary inconvenience.

Key Concepts

Grid Architecture Mismatch

In markets like the US, EU, or China, EV charging infrastructure design assumes a reliable, high-capacity grid backbone. Planners calculate transformer capacity, evaluate distribution feeder headroom, and connect chargers to established utility networks. In Sub-Saharan Africa, this model breaks down in multiple ways. Most urban distribution networks operate at 60 to 80% capacity during peak hours, leaving minimal headroom for additional loads. Rural and peri-urban areas often lack three-phase power connections required for DC fast charging. Voltage fluctuations of plus or minus 15% are common, compared to the plus or minus 5% tolerance specified by most global charging equipment manufacturers.

This creates a design imperative for hybrid charging stations that combine grid connections with on-site solar photovoltaic arrays (typically 20 to 50 kW), battery energy storage systems (BESS) of 50 to 200 kWh, and in some cases diesel or biodiesel backup generators. These hybrid architectures increase capital costs by 40 to 80% compared to grid-only installations but reduce operational risk from grid unreliability and can actually lower per-kWh charging costs in areas with electricity tariffs above $0.20 per kWh by offsetting grid consumption with solar generation.

Two- and Three-Wheeler Dominance

Global EV charging discourse focuses overwhelmingly on passenger cars. In Sub-Saharan Africa, the most important vehicle segment for electrification is two- and three-wheelers, which account for an estimated 70 to 80% of motorized trips in cities like Kampala, Kigali, Lagos, and Nairobi (United Nations Environment Programme, 2024). These vehicles require fundamentally different charging solutions: lower power levels (1 to 3 kW AC charging or battery swapping), different physical form factors, and integration with existing informal transport hubs.

Battery swapping has emerged as the dominant model for commercial motorcycle (boda-boda and okada) electrification because it addresses two critical constraints simultaneously: it reduces vehicle downtime from hours to under 90 seconds, and it removes the upfront battery cost from the vehicle purchase price. This makes electric motorcycles cost-competitive with ICE equivalents on a total cost of ownership basis, even without subsidies.

Mobile Money as Payment Infrastructure

Sub-Saharan Africa processes over $800 billion annually through mobile money platforms, compared to less than $2 billion in credit card transactions in most countries outside South Africa (GSMA, 2025). Any charging solution that requires credit card payment, app-based payment linked to traditional banking, or RFID cards modeled on European charging networks will exclude the majority of potential customers. Successful charging networks in the region integrate directly with M-Pesa, MTN MoMo, Airtel Money, and other mobile money platforms, enabling pay-per-use transactions with no minimum balance or subscription requirement.

What's Working

Battery Swapping Networks for Motorcycles

Ampersand, operating in Rwanda and Kenya, has deployed over 3,500 electric motorcycles supported by 45 battery swap stations across Kigali and Nairobi. Their model provides drivers with an electric motorcycle on a lease-to-own basis, with battery swapping priced per swap (approximately $1.20 per swap, delivering 70 to 90 km of range). Drivers report 30 to 40% savings on fuel costs compared to gasoline motorcycles. Ampersand's swap stations operate on a hybrid power model: grid-connected with 10 to 20 kW solar arrays and 50 kWh battery storage, enabling 18 to 22 hours of daily operation even during extended grid outages (Ampersand, 2025).

Spiro (formerly M Auto), backed by $60 million in venture funding, operates the largest electric two-wheeler fleet in West Africa with over 13,000 electric motorcycles and 85 swap stations across Benin, Togo, and Rwanda. Spiro's stations are designed for high-throughput commercial motorcycle operations, processing an average of 120 swaps per station per day. The company has demonstrated that battery swapping economics improve dramatically at scale: stations processing more than 80 swaps per day achieve payback within 18 to 24 months, while those below 40 swaps per day struggle to break even (Spiro, 2025).

Solar-Powered Charging Hubs

BasiGo, a Kenyan electric bus company, has installed dedicated depot charging infrastructure for its fleet of 30 electric buses operating on Nairobi routes. Their charging depot combines 150 kW grid connections with 100 kW rooftop solar and 400 kWh battery storage, reducing grid dependency by approximately 35% and insulating operations from Kenya Power tariff increases. BasiGo's model demonstrates that fleet-dedicated charging can achieve utilization rates of 70 to 85%, far above the 10 to 25% utilization typical of public passenger car chargers in early-stage markets (BasiGo, 2025).

In South Africa, GridCars operates the country's largest open-access charging network with over 350 charging points across the country. The network includes a mix of 22 kW AC and 60 kW DC chargers, with newer installations incorporating 10 to 30 kW solar canopies. GridCars has navigated South Africa's severe load-shedding crisis (Eskom implemented over 200 days of rolling blackouts in 2023) by equipping high-traffic stations with 100 to 200 kWh battery storage systems that maintain charging availability during Stage 1 to Stage 4 load-shedding events.

What's Not Working

Passenger Car Charging Business Models

Attempts to replicate European or US passenger car public charging models have largely failed in Sub-Saharan Africa. ChargePoint-style networks requiring high-power DC fast chargers at highway corridors face insurmountable unit economics challenges: low EV passenger car penetration (under 0.1% of the fleet in most countries), high capital costs for equipment that must be imported with 15 to 35% import duties, and insufficient grid capacity for 150+ kW charging without major utility infrastructure upgrades costing $200,000 to $500,000 per site.

Several early entrants, including Uber-backed charging pilots in South Africa and standalone charging point operators in Nigeria, have reported utilization rates below 5%, making revenue generation insufficient to cover even operational costs. The lesson is clear: Sub-Saharan Africa's EV charging market will develop along a different trajectory than mature markets, starting with two-wheelers and commercial fleets before passenger car infrastructure becomes viable.

Standards Fragmentation

The region lacks harmonized charging standards. South Africa has adopted a mix of CCS Type 2 and CHAdeMO connectors. East African markets have seen an influx of Chinese-manufactured vehicles using GB/T connectors. Two-wheeler battery swap systems operate on proprietary standards, with Ampersand, Spiro, Zembo, and other operators using incompatible battery packs. This fragmentation increases costs for operators who must support multiple standards and creates confusion for consumers. The African Union's 2025 draft framework for EV charging interoperability proposes adoption of CCS2 as the regional standard for four-wheeled vehicles, but implementation timelines extend to 2030 and enforcement mechanisms remain undefined (African Union, 2025).

Import Policy Barriers

Most Sub-Saharan African countries impose import duties of 10 to 35% on EV charging equipment, treating it as general electrical equipment rather than providing preferential tariff treatment. Kenya reduced import duties on EVs to zero in 2024 but maintained 25% duties on charging equipment, creating an asymmetry that accelerates vehicle imports while constraining infrastructure deployment. Rwanda's comprehensive approach, eliminating duties on both EVs and charging infrastructure since 2022, has contributed to its outsized role as a regional leader in EV adoption relative to its economic size.

Key Players

Established Companies

• Eskom (South Africa): Largest utility in Sub-Saharan Africa, operating pilot EV charging programs at select service stations
• Kenya Power: National utility implementing time-of-use tariffs for commercial EV charging operators
• GridCars (South Africa): Largest open-access charging network operator on the continent with 350+ points

Startups

• Ampersand (Rwanda/Kenya): Battery swapping pioneer for electric motorcycles with 3,500+ vehicles
• Spiro (Benin/Togo/Rwanda): Largest electric two-wheeler fleet operator in West Africa with 13,000+ vehicles
• BasiGo (Kenya): Electric bus operator with integrated solar-hybrid depot charging
• Roam (Kenya): Electric motorcycle and bus manufacturer with integrated charging solutions
• Zembo (Uganda): Electric motorcycle battery swapping focused on the Kampala market

Investors and Development Finance

• Africa Finance Corporation: $50 million allocation for EV infrastructure across member states
• International Finance Corporation (World Bank Group): Active investor in Ampersand, Spiro, and other e-mobility startups
• Shell Foundation: Early-stage funding for off-grid and hybrid charging solutions

Action Checklist

• Design charging hardware for voltage fluctuation tolerance of plus or minus 20% and ambient temperatures up to 45 degrees Celsius
• Integrate mobile money payment APIs (M-Pesa, MTN MoMo, Airtel Money) as the primary payment method, not an afterthought
• Size on-site solar PV and battery storage to maintain minimum 8 hours of autonomous operation during grid outages
• Prioritize two- and three-wheeler charging or battery swapping infrastructure over passenger car fast charging in initial deployments
• Evaluate import duty structures per country and advocate for charging equipment tariff parity with EV vehicle imports
• Design physical charging station layouts for security, weather protection, and compatibility with informal transport hub locations
• Build modular, expandable station architectures that can scale from 5 to 50 charging or swapping points as demand grows
• Establish local maintenance and spare parts supply chains rather than relying on international service agreements

FAQ

Q: Why is battery swapping more successful than plug-in charging for two-wheelers in Sub-Saharan Africa? A: Battery swapping addresses three critical constraints simultaneously. First, it reduces downtime from 3 to 6 hours (plug-in charging) to under 90 seconds, which is essential for commercial motorcycle drivers whose income depends on vehicle availability. Second, it separates the battery cost from the vehicle purchase price, reducing upfront costs by 30 to 40% and making electric motorcycles affordable for drivers who typically purchase vehicles through microfinance. Third, swap stations can charge batteries during off-peak hours and from solar generation, optimizing energy costs and reducing grid impact. The combination of these factors makes battery swapping the economically and operationally rational choice for commercial two-wheeler electrification in the region.

Q: How does grid unreliability affect the business case for EV charging in Sub-Saharan Africa? A: Grid unreliability increases capital costs (due to required solar and storage backup) but does not necessarily destroy the business case. Hybrid solar-battery-grid charging stations in East Africa report all-in energy costs of $0.12 to $0.18 per kWh, competitive with grid-only costs of $0.15 to $0.22 per kWh in many markets. The key design parameter is sizing battery storage to bridge typical outage durations (4 to 8 hours in most urban areas) while maintaining minimum service levels. Stations designed for full grid-independent operation are prohibitively expensive, but those designed for grid-supplemented hybrid operation achieve acceptable economics.

Q: What role does policy play in accelerating EV charging deployment across the region? A: Policy impact varies dramatically by country. Rwanda's comprehensive approach of zero import duties on EVs and charging equipment, combined with government procurement of electric motorcycles for public services, has created a virtuous cycle of demand and infrastructure investment. Kenya's partial approach of reducing vehicle duties while maintaining equipment duties has created an infrastructure gap. Nigeria's lack of any EV-specific policy framework has left deployment entirely to private sector initiative. The most impactful policy interventions are import duty reductions on charging equipment, time-of-use electricity tariffs that incentivize off-peak charging, and building codes requiring EV charging provisions in new commercial developments.

Q: Is the secondhand EV import market a help or hindrance to charging infrastructure planning? A: It is both. Secondhand EVs imported from Japan, Europe, and China are accelerating EV adoption by providing affordable vehicles (often $8,000 to $15,000 compared to $30,000+ for new EVs). However, they introduce connector standard fragmentation: Japanese imports use CHAdeMO, European imports use CCS2, and Chinese imports use GB/T. Charging operators must either support multiple standards (increasing equipment costs by 20 to 40%) or risk excluding segments of the market. The long-term solution is regional standardization, but in the near term, multi-standard chargers and adaptor solutions are necessary compromises.

Sources

• International Energy Agency. (2025). Global EV Outlook 2025: Sub-Saharan Africa Regional Analysis. Paris: IEA.
• African Development Bank. (2025). African Transport Sector Emissions: Baseline Assessment and Decarbonization Pathways. Abidjan: AfDB.
• BloombergNEF. (2025). Electric Vehicle Charging Infrastructure in Emerging Markets: Investment Requirements and Market Sizing. London: BNEF.
• World Bank. (2025). Enterprise Surveys: Infrastructure Indicators for Sub-Saharan Africa. Washington, DC: World Bank Group.
• United Nations Environment Programme. (2024). Electric Two- and Three-Wheelers in Africa: Market Analysis and Policy Recommendations. Nairobi: UNEP.
• GSMA. (2025). State of the Industry Report on Mobile Money 2025. London: GSMA.
• African Union. (2025). Draft Framework for Electric Vehicle Charging Interoperability in Africa. Addis Ababa: AU Commission.
• Ampersand. (2025). Annual Impact Report 2024: Electric Motorcycle Operations in Rwanda and Kenya. Kigali: Ampersand Ltd.
• Spiro. (2025). West Africa Electric Two-Wheeler Market: Operational Data and Scale Economics. Cotonou: Spiro.
• BasiGo. (2025). Electric Bus Operations in Nairobi: Fleet Performance and Charging Infrastructure Report. Nairobi: BasiGo Inc.