Electrification & E-Mobility Transitions

Africa's electric-mobility transition is happening, and it is not happening the way the default narrative expects. The default narrative — imported from electric-vehicle markets in China, Europe, and North America — assumes passenger cars, centralised public charging, and a gradual cost-parity crossing that favours middle-class consumers. None of those assumptions travel well to sub-Saharan Africa. The actual transition, measured where it is most visible, is running on two wheels; it is being carried largely by productive-asset finance rather than consumer preference; it is interacting with mobile-money infrastructure in ways that have no comparable parallel in richer markets; and the charging question is being answered, in the clearest cases, by battery swapping rather than by plug-in.

The Lab's electrification programme is organised around understanding what this transition actually looks like, why it is taking the shape it is taking, and what the shape implies for infrastructure change in emerging markets more widely.

A useful analytic starting point is the observation that Kenya's EV registration stock grew from 1,378 units at the end of 2022 to 39,324 units at the end of 2025, per Ministry of Roads and Transport data. The growth factor is an order of magnitude. The composition of that growth is decisive: the overwhelming majority of the registered stock is two-wheeler, a significant minority is three-wheeler (tuk-tuk), and passenger cars remain a small residual. This is not how the electric-vehicle transition is typically visualised in Western public discourse, and the composition matters because it determines which infrastructure questions are consequential.

Two-wheelers, in the Kenyan context, are not a recreational or lifestyle vehicle; they are the productive backbone of the boda-boda economy — motorcycle-taxi operators who constitute one of the largest single occupational categories in urban Kenya. Approximately 1.4 million boda-boda operators work across Nairobi, Mombasa, Kisumu, and the smaller urban centres; their daily utilisation is high, their daily fuel spend is a primary operating cost, and the commercial case for switching to electric at the asset level depends almost entirely on the interaction between upfront cost, daily energy cost, and financing terms.

The Lab's empirical argument, developed across this programme and the adjacent finance programme, is that the Kenyan transition is being carried by a specific configuration: (a) ride-to-own and pay-as-you-go asset finance that aligns repayment with daily cash flow; (b) battery-swap infrastructure that removes the battery from the vehicle-financing decision and converts it into an operating expenditure; (c) a mobile-money payment rail that makes micro-payments at the asset-finance and swap-station level operationally viable; and (d) a regulatory environment that, since February 2026, has explicitly named electrification as a policy priority.

The Lab's signature methodological contribution — the bypass–repurpose–weaken (BRW) typology — is most legible in the electrification context, because the industry actors are pursuing different BRW strategies in parallel, and the contrast between them sharpens the analytical framework. The typology was initially developed through exactly this case.

A brief restatement of the three strategies and how they apply to Kenyan electric-mobility:

The Lab's observation, developed in comparative case work across the main industry actors, is that the fastest-moving parts of the Kenyan transition are running on bypass and repurpose strategies; the weaken strategies are the ones policy is most directly responsible for and are the ones where the transition's speed is most policy-limited. A programme of research that takes the weaken dimension seriously is therefore a programme that is, implicitly, a policy-research programme. We accept the implication.

A working hypothesis, developed in the Lab's comparative work and articulated for the first time here in public: the Kenyan transition is an instance of what we call bounded leapfrogging.

The "leapfrog" framing is a staple of development-technology discourse — typically invoked to suggest that an emerging market will skip a generation of infrastructure entirely, moving from pre-industrial to post-industrial without an industrial middle stage. The canonical example, cited widely, is mobile telephony in Africa, which reached widespread adoption without the prior build-out of landline infrastructure that Western markets passed through. The leapfrog framing is useful as far as it goes, but it oversimplifies. Africa did not, in fact, skip landlines; landline infrastructure in Kenya remains available, remains operationally significant for specific use cases, and remains part of the policy environment in which mobile telephony operates.

Bounded leapfrogging is a more precise framing. The thesis is that an emerging-market transition can, in the right combination of BRW strategies, proceed to widespread adoption without waiting for legacy infrastructure to be fully built out — provided that the boundary of the leapfrog is recognised. The boundary is typically the specific infrastructure layer at which the legacy regime still has effective lock-in. In the Kenyan e-mobility case, the legacy regime's lock-in is at the petrol-retail and vehicle-finance layers; the leapfrog moves directly to electric two-wheelers financed through mobile-money-integrated PAYGO and powered through battery swap. The grid-connection layer — which would matter for plug-in charging — is effectively bypassed, which is a bounded leapfrog rather than an unbounded one: the grid still matters for three-wheelers and for any future passenger-car transition, which is why the bounded-leapfrog framing does not overclaim what it explains.

The concept is being developed in the Lab's MSc thesis work on ROAM Electric, and will be the subject of a forthcoming working paper. For the current public treatment, the bounded-leapfrogging concept is named here and its analytic contribution is previewed; full development follows.

Africa's electric-mobility market has, in the space of a single decade, produced four distinct financing architectures — each designed to cross the affordability threshold in a market where formal consumer credit reaches less than a third of adults. The Lab's dedicated entry develops the full analysis. A brief summary, oriented to the electrification programme specifically, follows.

1. Pay-as-you-go (PAYGO)

   Small deposit plus daily or weekly digital micropayments, secured by SIM-linked device-locking. M-KOPA is the canonical reference, with over USD 1.6 billion in cumulative consumer credit. PAYGO has been extended from solar home systems to electric motorcycles in recent years; the architecture is a clean repurpose strategy.

2. Ride-to-own

   Deposit plus daily instalments over a fixed term, ending in outright transfer of asset title. ROAM / 4G Capital, Watu Credit, and MOGO are the reference cases. Terms are typically KES 25,000 deposit plus KES 460 daily for 24 months. Ride-to-own has elements of both repurpose (existing motorcycle-finance channels redirected to electric products) and bypass (new balance-sheet facilities built specifically for the electric transition).

3. Battery-as-a-Service (BaaS)

   Vehicle and battery financed separately; battery ownership stays with the swap-network operator; rider pays per swap. Spiro and Ampersand are the canonical operators, with typical swap pricing of KES 290 per 80 km range (versus roughly KES 360 for equivalent petrol). BaaS is the purest bypass strategy in the sector — a swap-station network that does not rely on the petrol-retail footprint at all.

4. Concessional climate finance

   Wholesale, longer-dated, below-market-rate capital from development-finance institutions, climate funds, and donors, routed through retail operators. UDB, Ecobank-DriveEV, GCF, and SEFA are examples. Operates one layer up from the retail products; its effect on the end-user is mediated through the retail operators whose balance sheets it strengthens. Concessional finance is closely aligned with weaken strategies — it is the instrument most capable of funding shared-infrastructure components (interoperability layers, identity primitives, regulatory-sandbox participation) that no single commercial operator has the incentive to fund alone.

The Lab's electrification programme treats each architecture's relationship to the underlying payment and identity infrastructure as a first-class research question. The four architectures share three structural payment-layer features — closed-loop payment integration, proprietary payment-history ledgers, cross-border opacity — each of which the Lab's finance programme studies explicitly. See The Four Financing Architectures for full detail.

The battery-swap infrastructure that carries a large share of Kenyan electric two-wheelers is one of the most analytically interesting pieces of the transition, and deserves its own treatment.

Battery swapping works well for the motorcycle use case because the battery is the single most expensive component, the single component with the most uncertain residual value, and the component whose finance economics most heavily constrain the affordability case. Removing it from the rider's financing decision — by keeping battery ownership with the swap-network operator and charging per-swap — converts a capitalised expenditure into an operating expenditure, which aligns naturally with the rider's daily cash flow.

The operational case is strong. The analytic question the Lab's programme focuses on is the architecture of the swap network — specifically, the fact that each swap-network operator today runs its own closed network, its own swap-station footprint, its own rider-identity credential, and its own payment integration. A rider who buys a Spiro-compatible motorcycle can swap only at Spiro stations; a rider who wants to switch to Ampersand has to rebuild the relationship.

The pattern is structurally analogous to the state of mobile telecommunications before GSM roaming: the network works beautifully for its own customers within its own coverage, and substantially fails at the edges between networks. The fix, in the swap case, would be structurally similar to the GSM-roaming solution: a shared identity and settlement layer that permits a rider associated with one operator to swap at another operator's station, with appropriate settlement between operators in the background. The Lab's cross-programme work on payment-rail interoperability is directly relevant here; the finance programme's interoperability deep-dive develops the substantive argument.

Kenya is the Lab's primary research site, but the electrification transition is playing out across several African markets at once, each on a distinctive trajectory. The cross-market comparative view is part of the programme's 2026–2027 research agenda and is summarised in outline below; full country-level treatments will be published as they are developed.

Uganda. A roughly similar two-wheeler structure to Kenya's, with Spiro and Zembo operating swap infrastructure, but with a materially different mobile-money environment (MTN Mobile Money dominant, not M-Pesa). The BRW lens applied to Uganda yields a similar configuration of bypass-heavy swap infrastructure and repurpose-heavy PAYGO, but the payment-rail interaction differs substantially.

Rwanda. Ampersand's primary market. A smaller but more policy-coordinated transition, with direct government partnership on the swap-network rollout. A useful comparative case for understanding what coordinated weaken-strategy policy looks like in practice.

Nigeria. A much larger two-wheeler market with substantially less mobile-money depth and a more fragmented ride-hailing layer. The financing architectures that work in Kenya face different constraints; the Nigerian case is a valuable check on whether the Lab's Kenyan findings generalise.

Ghana. Ecobank's DriveEV partnership is one of the more interesting concessional-finance cases; a useful comparative case for understanding the weaken-strategy potential of concessional capital.

A fuller comparative paper is in preparation; see articles for the current publication pipeline.

Four concrete outputs are scheduled for the 2026–2027 cycle.

The ROAM Electric MSc thesis, conducted under the supervision of Dr. Gideon Ndubuisi at TU Delft TPM, which is the methodological origin of the BRW typology. Scheduled completion mid-2026; a public summary will appear on the articles page following submission.

A comparative African e-mobility paper extending the BRW lens across Kenya, Uganda, Rwanda, Nigeria, and Ghana. The paper's argument is that the BRW strategy mix is not uniform across markets and that the differences are legible — they track identifiable variations in mobile-money depth, grid capacity, and regulatory posture.

A battery-swap interoperability analysis that applies the Lab's finance-programme work on payment-rail interoperability specifically to the BaaS architecture. The analysis complements the swap-network operators' own technical work with an outside, open-standards-informed reading of what interoperability between networks would require.

Structured inputs to policy processes in Kenya and neighbouring markets, including a policy brief on the electric-mobility implications of the Central Bank of Kenya's payments-systems framework, developed jointly with the finance programme. See regulatory frameworks for the underlying reading.