**Introduction** China’s electrification initiatives across the Global South — covering power generation and grids, electric buses and two- and three-wheelers, charging infrastructure, and battery-linked industrial projects — have the potential to reshape regional development trajectories while altering the structure of global electric vehicle (EV) and battery markets. By combining infrastructure finance, manufacturing scale, and vertically integrated supply chains, these initiatives can accelerate urban electrification and industrial activity in emerging markets. At the same time, they may expand demand for Chinese vehicles and batteries, influence pricing dynamics, and shape standards and supply-chain configurations worldwide. **Contextual background** Electrification in developing economies often begins with segments where utilization rates are high and charging can be centralized — urban buses, taxis, and two- and three-wheelers[1]. In these segments, total cost of ownership can become competitive more quickly, especially when supported by coordinated grid upgrades and charging deployment. This creates a foundation for broader transport and industrial electrification while linking mobility, energy systems, and trade. **Implications for regional development and global EV and battery markets** **1.** **Accelerated urban and industrial upgrading** When electrification initiatives combine grid investment, fleet procurement, and charging infrastructure, they can compress development timelines in fast-growing cities. Reliable electricity and lower operating costs for public transport improve urban productivity and reduce fuel import exposure[1][2]. Large-scale deployment — particularly of electric buses and two- and three-wheelers — also supports the formation of local service ecosystems, including charging operations, maintenance services, fleet management, and component distribution[2]. These activities generate employment and operational capabilities that can anchor broader industrial upgrading if supported by training, standards development, and procurement transparency. The developmental impact is strongest where electrification reduces systemic bottlenecks such as unreliable power supply, high transport costs, and limited urban mobility. **2.** **Expansion of demand and intensified competition in EV and battery markets** Electrification in the Global South introduces a significant new source of EV and battery demand beyond advanced markets. Global battery demand is projected to increase several-fold by 2030–2035 under current policy trajectories, with emerging economies playing a growing role[3]. If China-linked projects scale rapidly in cost-sensitive markets, three market effects are likely. First, higher volumes reinforce learning effects and cost reductions, particularly in battery chemistries optimized for affordability and durability[3]. Second, expanded South-South trade in vehicles and battery packs can reorient trade flows and embed long-term supplier relationships[4]. Third, intensified competition may exert downward pressure on global EV prices, accelerating adoption but also reshaping the competitive landscape for producers in other regions. As adoption spreads across developing economies, firms that provide integrated systems — vehicles, batteries, charging hardware, and software — gain advantages in setting operational norms and technical specifications in fast-growing markets. **3.** **Reconfiguration of value chains and resource dependencies** EV value chains place growing importance on battery production, critical mineral processing, and power electronics[4]. As electrification projects expand across the Global South, initiatives that combine financing, engineering services, and equipment supply can speed up deployment. However, when procurement and technical standards are closely tied to a limited group of suppliers, long-term commercial relationships can become concentrated[4][5]. At the same time, scaling battery production increases pressure on mineral supply chains, recycling capacity, and environmental governance. For developing economies, the policy objective is to ensure that electrification contributes to domestic capability formation. This can include activities such as vehicle assembly, battery-pack integration, component production, and recycling, alongside the development of technical standards, maintenance services, and workforce skills. Without deliberate industrial and skills strategies, electrification may expand access to new technologies while generating limited local value added. Electricity access and grid reliability remain binding constraints in several parts of the Global South. Rapid growth in electric mobility without parallel investment in distribution networks and system planning can strain local grids or limit charging availability[6]. Effective electrification strategies therefore depend on coordination across transport policy, power-sector reform, and industrial planning so that infrastructure capacity expands in step with vehicle deployment. **Conclusion** China’s electrification initiatives in the Global South have the potential to reshape both regional development trajectories and the structure of global EV and battery markets. When aligned with grid investment and institutional capacity-building, these initiatives can reduce transport costs, improve urban productivity, and support targeted industrial upgrading. At the global level, stronger demand from emerging markets may accelerate cost declines, intensify competition, and shift trade flows in vehicles and batteries. Over the longer term, outcomes will hinge on whether electrification builds durable local capabilities and more diversified supply chains, rather than entrenching concentrated supplier ecosystems or new forms of resource dependence. Development gains are most durable when electrification is embedded in transparent governance frameworks, coordinated infrastructure planning, and strategies that expand domestic participation across the EV and battery value chain.
