06/29/2026 | Press release | Distributed by Public on 06/29/2026 10:30
African policymakers dealing with the current oil shock would do well to recall the Chinese word for crisis, 危机 (wēijī), which has two characters: 危 (wēi), meaning "danger", and 机 (jī), meaning "opportunity". The current oil shock presents Africa with both. Import costs are rising, currencies are depreciating, fuel subsidies are consuming scarce fiscal space, and higher transport costs are pushing up food prices in economies where households have little room to absorb further strain. But within that danger lies an opportunity: to use this crisis to pivot Africa's transport systems away from imported petroleum toward locally produced clean energy. Countries that act on that opportunity will break a cycle of fuel dependence that has repeatedly drained their foreign exchange and transmitted external shocks through their economies.
The conditions for a serious policy pivot are now more favorable than at any previous point. World Bank research and practical experience in Africa has demonstrated the economic case of electric mobility transition. Ethiopia, Rwanda, and Kenya have already demonstrated operational feasibility. Mission 300, the joint World Bank Group-African Development Bank initiative to connect 300 million people in Africa to electricity by 2030, is expanding the relevant energy infrastructure. Countries that respond only with subsidies and tax cuts will face the next shock with less fiscal room and no structural progress to show for the cost of this one.
Road transport accounts for roughly 80% of imported fuel consumption across Africa, and median spending on gasoline and diesel imports amounts to 3.6% of GDP, which is higher than in any other region of the world. Between 80 and 90% of goods in Africa move by road, and transport costs account for up to 45% of the final retail price of basic staples such as maize, rice, and cassava. Higher fuel prices translate rapidly into higher freight rates, which pass through to consumer prices with minimal delay. In economies where households spend close to 40% of their income on food, the consequences fall hardest on those least able to absorb them. The fiscal consequences follow. Governments respond through subsidies, VAT reductions, and price controls, measures that widen deficits, crowd out development spending, and once introduced are politically difficult to reverse. Fossil fuel subsidies in Sub-Saharan Africa doubled after the 2022 energy price crisis and are expected to rise further under the current one. Meanwhile, rising import bills widen current account deficits, pressure exchange rates, and currency depreciation raises the local cost of fuel further, amplifying the original shock. Transport is not simply one sector affected by the disruption. It is the mechanism through which an oil price movement becomes an economy-wide crisis.
Governments across the region have responded with familiar instruments. South Africa introduced emergency fuel levy relief at an estimated fiscal cost of R17.2 billion. Kenya deployed KSh5 billion from the Petroleum Development Levy Fund. Ethiopia has introduced rationing and administrative allocation measures. None of these responses reduce the underlying exposure. The billions deployed on subsidies and levy relief are a recurring fiscal cost that returns with every price cycle. Redirecting even a portion of that expenditure toward electric mobility would begin to reduce the import dependence that makes such interventions necessary.
Binyam Reja, World Bank Practice Manager for Transport in the East and Southern Africa Region notes that, "Electric mobility should be part of Africa's economic resilience strategy. By shifting transport from imported petroleum to increasingly domestic electricity, countries can reduce exposure to oil price shocks, protect scarce foreign exchange, and lower the cost of moving people and goods. Our analysis on the economics of e-mobility shows that this transition is not only technically possible, but already economically viable in several high use market segments, including buses, taxis, ride hailing fleets, and two and three wheelers."
The global electric vehicle market is expanding rapidly. According to the IEA's latest Global EV Outlook, electric vehicle sales reached approximately 21 million units in 2025, representing one in every four new vehicles sold globally, and are projected to rise to 23 million in 2026. Growth is no longer confined to advanced economies. In Southeast Asia, sales more than doubled in the first quarter of 2026, while India recorded growth exceeding 30 percent. In Africa, electric vehicle sales grew from roughly 4,000 units in 2023 to nearly 25,000 in 2025. A recent World Bank report on electric mobility finds that in many developing economies, the total lifetime cost of owning and operating an electric vehicle is already lower than a conventional one in the segments that carry the most passengers and consume the most fuel, and that this holds without large consumer subsidies. The strongest economics are in high-utilization segments: urban buses, taxis, ride-hailing fleets, and two and three-wheelers. Electrifying these segments reduces petroleum imports, lowers foreign exchange requirements, and reduces the transmission of international oil price volatility into domestic prices. These are macroeconomic benefits as much as sectoral ones, which is why this agenda belongs in finance ministries and central banks, not only in transport and environment agencies.
Several African countries are already moving in this direction. Ethiopia has banned imports of new gasoline and diesel passenger vehicles as part of a broader effort to reduce fuel import dependence and foreign exchange pressures. Rwanda has become a leader in electric motorcycles and electric public transport. Kenya has witnessed rapid growth in commercially driven electric motorcycle fleets and charging networks, supported largely by favourable operator economics rather than regulatory mandates.
Mission 300 offers a significant and underused opportunity to advance transport electrification. About half of the new connections to electricity are expected to come from distributed renewable systems such as solar home systems and mini-grids. Their value can be increased further if they are designed to support vehicle charging. Transport electrification can also reinforce the energy access agenda: charging infrastructure for public and private transport can provide anchor demand, improve system utilization, and reduce the cost of expanding electricity access to nearby communities.
A solar home system that also charges an electric motorcycle overnight eliminates a daily fuel expense for the operator at near-zero marginal cost once the system is paid off. At the mini-grid level, electric vehicle charging provides the productive daytime load that improves commercial viability, lowers unit electricity costs for all users, and makes the energy access investment more durable without ongoing subsidy. In both cases, the transport and energy investments are mutually reinforcing, and integrating them at the design stage costs far less than retrofitting the connection afterward. These two agendas have largely been managed through separate institutional channels. Specifying charging compatibility in solar home systems, incorporating vehicle loads into mini-grid demand projections, and embedding e-mobility targets in National Energy Compacts would improve the returns on both at marginal additional cost.
"One of our foci under Mission 300 is on productive use of energy and quality connections. In the current context, connecting and electrifying mobility systems will allow significant fiscal and economic gain. Many countries across Africa will benefit from a shift to e-mobility," says Simon Stolp, World Bank Practice Manager for Energy in the East and Southern Africa Region.
Scaling transport electrification in Africa requires four practical shifts. First, governments should measure the right outcomes. Counting electric vehicles sold reveals little about whether fuel import dependence is declining. Targets should be set in terms of petroleum displaced and foreign exchange saved, the indicators that matter for reducing external vulnerability.
Second, aggregate demand. No single African country is large enough to negotiate competitive terms from global manufacturers on its own. Pooling procurement across cities, countries, and regional bodies reduces unit costs, attracts manufacturer commitment, and builds the supply chain depth needed for long-term maintenance.
Third, adapt financing to operator realities. The higher upfront cost of electric vehicles is a real barrier for motorcycle taxi riders, minibus operators, and small fleet owners who rely on informal credit. Financing structured around the fuel savings the vehicle generates, supported by blended finance instruments and fleet aggregation that creates bankable transaction sizes, can move these models from pilots to standard practice.
Fourth, treat charging infrastructure as a public good. Operators will not switch at scale without reliable charging. Governments need to plan for charging access with the same seriousness applied to roads and electricity connections, including in secondary towns and along freight corridors, and should recognize that transport electrification as an anchor load can also improve the economics of broader energy access investment under Mission 300.
The current oil shock will eventually ease, as such shocks always do, but it will not be the last. The structural dependence on imported petroleum that makes each episode so costly will not diminish unless the fuels powering transport begin to change. The 危 (wēi) is real, and its costs are already visible in fiscal accounts, exchange rates, and household budgets. The 机 (jī) is that viable solutions are present to pivot Africa's transport energy. Whether the opportunity is used to drive structural change will determine how exposed African economies remain when the next disruption arrives.