Africa’s Evolution: How the EV Transition Will Change Who Fixes the Car

The internal-combustion engine has anchored Africa’s automotive aftermarket for decades.

A vehicle arrives at a workshop with a familiar set of challenges: an overdue oil change, a worn suspension arm, a failing alternator, a slipping transmission, or an engine misfire that requires a mechanic who knows how to listen to the block.

That foundational model is beginning to shift.

Electric vehicles are entering African roads, bringing an entirely different technical architecture: high-voltage battery packs, electric traction motors, power electronics, motor controllers, battery-management systems (BMS), and software-driven diagnostics.

The public debate routinely asks whether Africa will deploy sufficient charging networks. But an equally pressing infrastructural question is often overlooked:

Who is going to repair and maintain these vehicles?

The answer will determine whether Africa’s electric-mobility transition becomes an expensive imported-technology story or evolves into an indigenous industrial and employment opportunity.

The Transition Is Already Happening

Africa’s electric-car market remains modest compared to China, Europe, or the United States, but it is accelerating.

According to data published in the IEA Global EV Outlook 2026: Trends in Electric Cars, annual electric-car sales across Africa grew from roughly 4,000 units in 2023 to approximately 25,000 in 2025. Egypt (7,900), Morocco (5,500), and South Africa (3,800) accounted for nearly 70% of that volume. As the IEA notes, around 60% of annual additions to the continent's car stock are imported used vehicles, meaning new-car sales capture only an initial sliver of the broader fleet transition.

However, the real volume driver is unfolding on two wheels.

Sales of electric two-wheelers in Africa surged from fewer than 1,000 units in 2020 to approximately 70,000 in 2025. Regional adoption is concentrated in East Africa: according to the IEA Global EV Outlook 2026 analysis, Uganda surpassed 30,000 electric two-wheeler sales in 2025 alone, while Kenya exceeded 25,000 units. Commercial operators in the motorcycle taxi (boda-boda) and last-mile delivery sectors are spearheading adoption, enabled by scalable battery-swapping networks.

The primary mass-market electric vehicle in an African city is rarely a high-end luxury sedan.

It is a commercial motorcycle operating 12 hours a day—and that workhorse requires skilled technical support to remain operational.

The Mechanic’s Job Is Expanding, Not Disappearing

An electric powertrain eliminates several legacy maintenance procedures:

• No crankcase oil, spark plugs, or fuel filters to replace.
• The elimination of timing belts, exhaust manifolds, and complex multi-gear transmissions.
• Substantially fewer moving mechanical components under friction wear.

Yet simpler mechanical design does not mean simpler servicing. The trade requires mastery over systems that sit far outside the traditional mechanic’s repertoire:

• High-voltage (HV) bus safety protocols and isolation testing
• Lithium-ion battery pack assembly, balancing, and state-of-health (SOH) monitoring
• Inverter power electronics and DC-DC converters
• Permanent magnet and induction drive motors
• Dedicated Battery Management Systems (BMS) and ECU communications (CAN/LIN)

The mechanic is not becoming obsolete. The mechanic’s skill set is expanding into electrical engineering and digital diagnostics. A technician who built their career tuning carburetors and rebuilding gearboxes now needs electrical and telemetry fluency to keep vehicles on the road.

National Strategies: Uganda and Kenya

Workforce preparation is shifting from ad-hoc training to official policy.

Uganda

The Uganda Science, Technology and Innovation (STI) Mobility Secretariat and the Uganda E-Mobility Outlook Report have embedded technical training directly into the National E-Mobility Strategy. Recognizing that physical infrastructure cannot outpace human capital, national programs have targeted mechanics and informal-sector technicians for practical EV reskilling.

Initiatives such as the UNDP and Kiira Motors E-Mobility Skilling Programme and specialized vocational curricula developed under the GIZ and Gogo Electric DRIVe project provide hands-on training covering battery pack assembly, power electronics, motor maintenance, and charging installations.

Kenya

Kenya’s two-wheeler sales momentum where electric models represented roughly 15% of new two-wheeler registrations in 2025 has spurred equivalent vocational reforms. With commercial riders seeking relief from volatile fuel prices, Kenya has worked with technical institutes to roll out dedicated technical training for servicing electric motorcycles, tricycles, and light delivery commercial vehicles.

The common lesson across both markets is clear: you cannot scale an electric vehicle fleet without scaling the technicians who keep it moving.

The Battery-as-a-Service Aftermarket

Commercial electrification is decoupling vehicle ownership from battery ownership.

Because high-mileage urban riders cannot afford hours of charging downtime, battery-swapping models dominate commercial adoption. This creates a distinct operational model:

• Decoupled Ownership: The rider owns or leases the motorcycle chassis, while a third-party energy network owns the battery.
• Split Diagnostics: A mechanical breakdown (brakes, frame, bearings) remains with the local garage, while an energy or range fault moves through a specialized battery-swapping station or lab.
• Component-Level Swapping: Technicians diagnose modular battery cells, BMS firmware errors, and contactor relays rather than tearing down combustion cylinder heads.

The aftermarket is broadening from localized mechanical shops to a network connecting battery fleet operators, swap-station attendants, and specialized electronics diagnostic centers.

The Independent Workshop Cannot Be Left Behind

In mature automotive markets, original equipment manufacturers (OEMs) often restrict EV servicing to authorized dealerships using closed diagnostic tools and proprietary access keys.

That framework cannot work across Africa’s automotive landscape.

The overwhelming majority of commercial transport and private motoring in Africa depends on independent workshops and informal garages. If high-voltage diagnostics, safety standards, and replacement modules remain locked behind proprietary dealer walls, the broad aftermarket will be stranded—and vehicle owners will face crippling repair costs.

Providing independent technicians with accessible diagnostic protocols, affordable safety gear, and standardized technical data will determine whether the transition becomes inclusive or deeply bottlenecked.

The Next Decade’s Technician

Picture an independent workshop ten years from now.

A vehicle arrives with an intermittent propulsion cut-out. The technician does not reach for a wrench or check for a fluid leak.

Instead, they:

1. Connect an OBD/CAN diagnostic terminal to monitor live state-of-health and state-of-charge parameters.
2. Check insulation resistance and contactor continuity across the high-voltage bus using an insulated multimeter.
3. Review thermal management logs for individual battery modules to diagnose cell degradation.

The technician running that bay may have started out rebuilding starter motors and alternators. Through practical upskilling, they have evolved into an electro-mechanical systems specialist.

1698’s Perspective

The electric mobility conversation frequently fixates on the vehicle: the purchase price, the range, and the design.

The enduring economic impact lies in the infrastructure surrounding the vehicle.

• The technicians diagnosing high-voltage battery systems
• The domestic workshops servicing commercial fleets
• The independent suppliers stocking verified electronic components
• The software platforms managing vehicle health and provenance data

Africa does not need to duplicate an electrification roadmap conceived for Europe or North America. By focusing on the commercial two- and three-wheelers driving adoption today, and investing directly into the technicians who maintain them, the continent can turn an energy transition into a lasting technical workforce.