Making E-Mobility a Global Market: What LMICs Reveal About EV Growth, Policy, and Supply Chains
This article frames e-mobility in low- and middle-income countries as a market-building story, not just a technology adoption story. Drawing on a 2023 perspective article and the report "Mapping the e-Mobility Transition: Opportunities and Enablers," it examines how policy frameworks, infrastructure, and workforce development shape EV growth across six markets: Michigan, California, India, China, South Africa, and Brazil. The piece will connect near-term business opportunities in light-duty vehicles and adjacent electrifying segments to deeper questions about industrial policy, local value creation, and how LMICs can influence global EV supply chains over the next five to ten years.

Making E-Mobility a Global Market: What LMICs Reveal About EV Growth, Policy, and Supply Chains
E-mobility in LMICs is shaping markets, not just following them
The global conversation about electric vehicles often starts with the same reference points: China’s manufacturing scale, Europe’s regulation, and the United States’ consumer market. But that framing can miss a more important reality. In low- and middle-income countries (LMICs), e-mobility is not simply a delayed version of rich-country adoption. It is becoming a market-shaping process with its own logic, constraints, and industrial consequences.
[IMAGE: A split-screen global map showing EVs, charging stations, factories, and urban mobility scenes across emerging markets]
A 2023 perspective article argued that the transition depends on coordinated action from government, industry, academia, and other stakeholders. That matters because EV growth is not driven by technology alone. It is an ecosystem outcome. Policy, infrastructure, financing, workforce readiness, and supply chains all have to move together.
In LMICs, this is especially true. Affordability, grid readiness, vehicle usage patterns, and urban density all differ from high-income markets. So do national priorities. Many governments see e-mobility not only as a clean transportation strategy, but also as a way to support industrial policy, reduce fuel imports, improve air quality, and create jobs. That makes EV adoption part of a broader economic development agenda.
This is why the most useful question is not whether LMICs will “catch up” with U.S. or European EV adoption. It is how they will shape the next phase of the global electric vehicle market.
What the report is actually measuring
The report *Mapping the e-Mobility Transition: Opportunities and Enablers* is not a snapshot of current adoption rates. It is a forward-looking assessment of where business opportunities may emerge over the next five to ten years. That time horizon matters. It shifts the conversation from consumer enthusiasm or one-year sales trends to market structure.
[IMAGE: A clean infographic-style view of the EV value chain, from vehicles and batteries to charging, software, and services]
The report focuses primarily on light-duty vehicles, which are the most visible part of the EV market in many countries. But it also recognizes that adjacent segments may electrify earlier or more easily in certain contexts. These can include two- and three-wheelers, buses, delivery fleets, and other urban mobility services. In many LMIC cities, these segments are not side stories; they are the main entry point for e-mobility.
From a business perspective, this broadens the investment lens. Value may not be captured only in vehicle sales. It can also appear in assembly, component manufacturing, charging infrastructure, software platforms, fleet operations, maintenance, and financing. In other words, the e-mobility market is larger than the number of EVs on the road.
The three enablers that determine whether an EV market forms
The report highlights three conditions that shape whether a real EV market can develop: policy framework, infrastructure, and workforce. These are not separate issues. They reinforce one another.
1. Policy framework
No EV market scales without credible policy. Regulations, incentives, public procurement, standards, and institutional coordination all influence whether demand is stable enough for companies to invest.
In some LMICs, policy is doing more than encouraging purchase. It is creating the market itself. Governments may use procurement programs for buses or fleets, impose local content requirements, or set import duties that shift the economics of vehicle assembly and component sourcing. These tools can accelerate adoption while also steering industrial development.
The key point is that policy frameworks do more than support EVs. They define who participates in the market and how value is distributed.
2. Infrastructure
Even the best policy cannot compensate for weak infrastructure. Charging access, grid reliability, and integration with urban transport systems determine whether EV use can scale beyond early adopters.
This is where mobility hubs become important. In dense cities, a mobility hub can combine charging, parking, fleet management, and connections to public or shared transport. That model is often more practical than assuming every household will have private charging. It also matches the realities of LMIC urban form, where multi-family housing, constrained land, and variable grid quality can limit home charging.
Infrastructure is therefore not just about plugging in vehicles. It is about designing a system that fits actual mobility patterns.
3. Workforce
The workforce dimension is often overlooked, but it is essential. Technicians, engineers, operators, software specialists, and logistics managers all affect whether EV systems function reliably.
[IMAGE: Three connected pillars with icons representing policy, infrastructure, and workforce]
A country may import vehicles and batteries, but it still needs people who can deploy chargers, manage fleets, maintain high-voltage systems, and coordinate operations. Without this capacity, deployments remain pilots rather than scalable businesses.
Workforce development also shapes local value creation. Training programs, vocational education, and technical certification can determine whether LMICs capture only import and distribution margins or move deeper into the EV value chain.
Six markets, six different pathways
The report’s six markets—Michigan, California, India, China, South Africa, and Brazil—show why e-mobility cannot be reduced to a single global model.
Michigan and California represent mature industrial and policy environments, but even there the focus differs. California is known for regulatory ambition and consumer adoption, while Michigan is tied to manufacturing, supplier transformation, and the future of automotive labor.
China offers scale, integrated supply chains, and a deep industrial base. It is not just an EV market; it is a global production hub that influences costs, technology diffusion, and component availability.
India shows a market shaped by high population density, price sensitivity, two- and three-wheeler electrification, and a strong emphasis on public policy and domestic industrial goals. Here, e-mobility is tightly linked to urban transport efficiency and import reduction.
South Africa presents a different picture. Its vehicle industry is export-oriented, but domestic EV adoption faces affordability and infrastructure challenges. At the same time, policy choices could determine whether the country remains mainly a producer for external markets or builds a more active local EV ecosystem.
Brazil combines a large transport market with a powerful industrial base and significant regional potential. Its pathway may depend on fleet electrification, bioenergy coexistence, and the pace at which charging and supply chains mature.
Taken together, these markets show that EV growth is not a linear diffusion process. It is a sequence of locally specific transitions.
The deeper question: who captures value in the EV supply chain?
Most EV coverage focuses on adoption rates, range, or charging counts. But the more consequential issue may be ownership of the value chain. Who earns the margins? Who controls the data? Who supplies the parts? Who develops the software? Who provides the maintenance and fleet management?
This is where LMICs could matter more than many assume.
Even if they do not lead in core battery intellectual property, LMICs can still become important sites for assembly, component production, fleet services, and operational innovation. The economics of EVs open space for new kinds of local participation, especially in markets where labor is competitive and transport demand is growing quickly.
For example, electric fleets require software for dispatch and charging optimization. Charging networks require site development, payment systems, and customer support. Maintenance and diagnostics require trained technicians. Battery logistics and second-life applications will create further service niches. These are not marginal activities. They are parts of the commercial structure of e-mobility.
The implication is clear: countries that build enabling ecosystems may capture more than vehicle sales. They can shape the distribution of skills, capital, and industrial capability.
Why this matters for policy and business over the next five to ten years
The next phase of EV growth will likely be defined less by headline sales and more by market formation. That means countries and firms need to look beyond simple adoption targets.
For policymakers, the challenge is to align clean transportation goals with industrial development. That may mean supporting local assembly, investing in workforce programs, standardizing charging systems, or using procurement to create predictable demand.
For investors and companies, the opportunity lies in identifying where the market is still being built. In many LMICs, that may be in charging deployment, fleet electrification, operations software, maintenance services, or component localization rather than full-scale passenger-car sales.
For labor and education systems, the priority is skills. EV growth will depend on whether training institutions can produce the technicians and engineers needed to install, operate, and service the system.
And for LMIC governments, the strategic question is whether they want to be buyers in a global EV market or co-builders of it.
Conclusion: e-mobility as industrial transition
E-mobility in LMICs should be understood as an industrial and institutional transition, not just a cleaner vehicle choice. The markets are still forming, and that gives policy, infrastructure, and workforce decisions outsized importance.
The six markets examined in the report show that EV growth does not follow one path. It adapts to local affordability, mobility needs, and industrial priorities. That makes the global e-mobility transition more complex—but also more open to new entrants.
Over the next five to ten years, the countries that align EV policy, infrastructure, and capability building may not only accelerate clean transportation. They may also influence how the EV supply chain is organized, where value is captured, and who benefits from the shift to electric mobility.