The transition to alternative fuels in African commercial transport fleets is unfolding not as a rapid technological leap, but as a constrained and highly selective evolution shaped by fuel economics, infrastructure gaps, and uneven policy support. Unlike Europe or China, where regulation is forcing rapid fleet electrification, Africa’s shift is primarily driven by operational cost pressures, supply chain resilience, and pilot-driven experimentation led by multinational logistics firms and OEMs.
Despite these constraints, real deployments already exist across biodiesel, electrification, and early hydrogen feasibility work. However, they remain fragmented, corridor-specific, and heavily dependent on imported technology ecosystems.
The most commercially advanced alternative fuel pathway in Africa today is biodiesel and renewable diesel blending. This is not theoretical; it is already in operational use in structured logistics corridors. In Kenya, DHL Supply Chain has deployed 25 Euro 5 biodiesel-powered trucks in partnership with Scania East Africa, marking one of the most significant structured biodiesel fleet introductions in East Africa. These trucks operate in DHL’s Kenyan distribution network and represent a deliberate attempt to reduce emissions while maintaining diesel-like operational reliability in long-haul and regional freight operations. Scania has explicitly positioned biodiesel as a “bridging fuel” in East Africa, supporting fleets that cannot yet transition to full electrification due to infrastructure limitations.
This DHL–Scania deployment is part of a broader pattern in which global OEMs are enabling biodiesel compatibility rather than introducing entirely new propulsion systems. Scania trucks in Africa are increasingly deployed with Euro-standard engines capable of running on biodiesel blends, allowing operators to reduce emissions without replacing fleets. In Kenya, Scania has also engaged with TotalEnergies Marketing Kenya to explore scalable biodiesel supply options ranging from B5 to B100, though cost and feedstock availability remain key barriers to mass adoption.
Beyond East Africa, biodiesel experimentation is also emerging in Southern Africa, particularly in South Africa’s industrial and mining logistics sectors. While these operations are still primarily diesel-based, they represent the infrastructure layer through which biodiesel adoption would scale if supply chains mature.
South Africa is also home to one of the most advanced biofuel production ecosystems on the continent. Companies such as Philisa Energy have developed industrial-scale biodiesel production from waste cooking oil, supplying cleaner fuel alternatives that can reduce lifecycle emissions significantly compared to fossil diesel. These producers are critical because they represent the missing link in Africa’s biodiesel transition: localized feedstock-to-fuel systems rather than imported renewable fuel.
A major real-world benchmark for biodiesel at scale comes from Scania’s global deployments that are relevant to African operations. Scania has supported large-scale B100 biodiesel trucking in agricultural logistics globally, including fleets operating entirely on biodiesel-compatible engines. These same engine platforms are now being deployed in African markets, meaning the technical readiness already exists even if fuel supply systems remain underdeveloped.
Electrification in African commercial fleets is still at an early pilot stage but is beginning to move beyond demonstration into structured testing. In South Africa, DHL Supply Chain has launched electric truck pilots in collaboration with Volvo Trucks and Unilever, including the deployment of Africa’s first fully electric superlink truck used for supply chain operations. This pilot is designed to evaluate performance, total cost of ownership, and operational feasibility in African freight conditions, where long distances and inconsistent charging infrastructure remain major challenges.
These trials highlight a critical constraint: electrification in Africa is not limited by vehicle availability but by grid stability, depot charging infrastructure, and capital investment capacity. As a result, electric trucks are currently viable mainly in short-haul, urban, or controlled industrial environments rather than cross-border freight corridors.
Chinese OEMs are beginning to shape Africa’s early electrification landscape, though still at limited scale. FAW has established a strong commercial presence in East and Southern Africa, supplying trucks widely used in logistics, mining, and construction sectors. While FAW’s African fleet remains predominantly diesel-powered, newer platforms are being introduced with improved efficiency standards and compatibility with alternative fuel pathways, including biodiesel readiness. FAW’s strategy in Africa is not disruptive electrification but gradual fleet modernization aligned with cost-sensitive operators.
Isuzu remains one of the most dominant commercial vehicle brands across Africa, particularly in light and medium-duty logistics. Its strength lies in durability, low maintenance costs, and suitability for harsh operating environments rather than alternative propulsion leadership. However, Isuzu’s global parent ecosystem is increasingly investing in electrification and hydrogen development in partnership with Toyota, suggesting that future African deployments may eventually integrate hybrid or fuel cell technologies, particularly in urban logistics.
Toyota’s role in Africa’s alternative fuel transition is indirect but strategically important. Globally, Toyota is one of the leading developers of hydrogen fuel cell technology and hybrid drivetrains, including heavy-duty applications through its Hino truck division. While hydrogen trucks are not yet deployed in Africa, Toyota’s technology roadmap is relevant for future adoption in ports, mining corridors, and long-haul freight networks, particularly in South Africa where hydrogen policy development is most advanced.
Hydrogen in Africa remains largely in the feasibility and policy exploration phase rather than commercial deployment. Unlike Europe, where Daimler Truck and Hyundai are already operating hydrogen fuel cell truck pilots in structured logistics corridors, Africa has not yet developed hydrogen refuelling infrastructure for transport at scale. The continent’s hydrogen activity is currently concentrated in production strategies, particularly in South Africa, where green hydrogen is being explored for export markets and industrial applications rather than trucking fleets.
Globally, hydrogen trucking is already operational in controlled environments through companies such as Hyroad Energy, which has taken over and commercialized Nikola’s hydrogen truck fleet in the United States. However, this model has not yet been replicated in Africa due to infrastructure and cost constraints.
Across the continent, the dominant structural reality is that diesel still defines commercial transport economics. Alternative fuels exist, but only at the margins of the system. Biodiesel is the most viable near-term pathway because it integrates into existing fleets, electrification is viable only in structured urban and industrial environments, and hydrogen remains a long-term option dependent on infrastructure build-out.
OEMs such as Scania, FAW, Isuzu, Volvo, and Toyota are not yet competing on alternative fuel dominance in Africa. Instead, they are competing on adaptability within a diesel-centric ecosystem. Logistics operators such as DHL are leading actual decarbonisation pilots, while fuel producers like Philisa Energy and emerging logistics fuel distributors are beginning to create the upstream supply base necessary for future scaling.
The African alternative fuels landscape is therefore not a transition in the conventional sense. It is an incremental layering of technologies over an entrenched diesel system, shaped by economics rather than mandates. The most advanced reality today is biodiesel integration in structured logistics fleets, early electrification in controlled corridors, and hydrogen remaining a distant but strategically watched option.
In practical terms, Africa is not yet undergoing a fuel revolution. It is undergoing a fuel accommodation process—where new energy systems are being tested, adapted, and selectively deployed only where they fit the continent’s operational and infrastructural realities.
