In last year’s Georgia State of Electric Mobility 2025 report, our inaugural whitepaper and first edition in this annual series, we framed the market as one defined by rapid acceleration and the early stages of a dramatic reordering in the global automotive industry, as electric vehicles began to scale and reshape competitive dynamics. That underlying trajectory remains intact. What has fundamentally changed over the past year is the structure of the market itself.
Over the past two decades, electric mobility has unfolded across three distinct phases, each addressing a different constraint within what has become a complex, once-in-a-generation transformation across energy, mobility, and infrastructure systems.
The first phase, spanning roughly from 1995 to 2015 globally and more specifically from 2010 to 2016 in the United States, was defined by cost reduction along the battery cost curve. Beginning with early lithium-ion development and scaling through consumer electronics, and later accelerating with EV-driven manufacturing, battery costs fell dramatically, from over $1,000 per kilowatt-hour to below $150 per kilowatt-hour. This sustained cost decline was the foundational breakthrough that enabled commercial-scale viability and set the stage for everything that followed.
The second phase, emerging around 2018 and continuing through the early 2020s, was defined by manufacturing scale and early market adoption. What had previously been a niche segment driven by early adopters and a small number of breakthrough companies such as Tesla and BYD scaled into a global production system. Automakers scaled capacity, supply chains matured, and EV sales began to grow at double-digit rates year over year. This phase marked the transition from technological viability to commercial reality, resulting in more than 80 million electric vehicles in operation globally today, driven in large part by R&D investment, manufacturing incentives, and industrial policy across major markets including the U.S. and China. Within the United States, this phase also drove a significant geographic reconfiguration of the automotive sector, with Georgia emerging as a leading hub for electric vehicle and battery manufacturing investment, securing more than $30 billion in announced investments. More broadly, the Southeast Battery Belt accounted for over 50 percent of total U.S. EV and battery-related investment during this period, reflecting a structural shift toward new centers of production and supply chain development, a dynamic that was central to last year’s 2025 edition.
We are now entering a third phase of the electric mobility transition. While first-order dynamics such as battery costs and manufacturing capacity continue to improve, the transition is increasingly shaped by more complex, system-level challenges. As tax credits, incentives, and subsidies are phased out across the United States, Europe, and China, and as global competition intensifies around critical minerals and automotive market share, new constraints are emerging. At the same time, second-order dynamics, including charging infrastructure, grid readiness, and overall consumer experience, are becoming key drivers of market differentiation, shaping competitive advantage and determining consumer adoption and retention. The question is no longer whether electric vehicles can be produced at scale, but whether the system can sustain that scale under real-world conditions.
The next era of mobility will be defined by system integration. Electric mobility operates at the intersection of energy systems, infrastructure, manufacturing, workforce development, and consumer behavior, all of which must function in coordination across different timelines, regulatory structures, and economic incentives. That coordination is proving increasingly difficult to maintain. Infrastructure deployment has not kept pace with vehicle growth in many markets, grid capacity constraints are becoming more visible, particularly alongside rising energy demand from sectors such as data centers, and workforce pipelines remain fragmented. Capital and production capacity in some markets are beginning to shift toward adjacent applications such as battery energy storage systems (BESS), as OEMs and battery manufacturers respond to revised demand forecasts and seek to protect margins. This reallocation is contributing to increased volatility across manufacturing capacity, workforce demand, and supply chain planning. As policy support evolves, demand is becoming more sensitive to pricing, reliability, and overall user experience.
These dynamics are not temporary disruptions. They are structural signals of a market adjusting from early acceleration to operational complexity and mainstream adoption. This shift is already reshaping global industry dynamics, with Chinese manufacturers, most prominently BYD, continuing to gain global market share as traditional incumbents face increasing pressure. At the same time, even leading EV manufacturers are adjusting to a more constrained environment, with forecasts being revised, margins tightening, and expansion strategies increasingly shaped by infrastructure readiness and policy conditions. Despite these constraints, growth remains strong. In 2025 alone, more than 1.7 million electric vehicles were added in the United States and over 20 million globally, with the global fleet expected to exceed 115 million vehicles in operation by the end of 2026.
Expectations of sustained exponential growth have proven overly optimistic. The market is now entering a phase of maturation, where growth continues, but is increasingly shaped by structural constraints and the adoption pathway varies significantly across regions, segments, and use cases. As this transition evolves into a more complex phase, the defining challenge is no longer innovation alone, but the ability to execute despite system-level friction.
