2025 Battery Swapping Industry: Ecosystem Reshaping Amid Strong Supply and Demand

In 2025, battery-electric vehicles (BEVs) continue to gain global influence and strengthen their leadership position in the automotive market. Forecasts suggest global BEV growth will reach roughly 25% to 35% year-on-year, while China is expected to expand at an even faster 30% to 40% pace—an edge that highlights the resilience and momentum of the world’s largest EV market.

Data from CIC Consulting shows China’s BEV sales surged from 1.1 million units in 2020 to 6.9 million units in 2024, representing a 57.0% compound annual growth rate (CAGR). Looking ahead, sales are projected to reach 19.0 million units by 2030, with a 2024–2030 CAGR of 18.5%.

As one of the most important energy replenishment pathways for BEVs, battery swapping has accelerated rapidly—powered by electrification trends, policy tailwinds, and rising market demand. A growing roster of players is moving decisively into the space, leveraging technology, resources, and market reach to scale swapping networks and secure early advantages in a fast-forming industry.

01. A Competitive Landscape Takes Shape

In 2025, the battery swapping industry enters a phase of breakthrough expansion, marked by leading participants shifting from planning to accelerated execution and large-scale rollout.

CATL has emerged as one of the most influential forces in swapping. Centered on two flagship solutions—“Chocolate Swap” (for passenger cars and light commercial vehicles) and “Qiji Swap” (for heavy-duty trucks)—CATL is pushing the industry forward across four major fronts: technological innovation, strategic partnerships, network buildout, and scenario expansion. Together, these efforts aim to advance standardization and ecosystem-wide integration.

Throughout the year, CATL’s partnerships underscored its ambition to build a unified, scalable swapping ecosystem. On March 17, CATL and NIO signed a strategic cooperation agreement to co-develop what they described as the world’s largest battery swapping network and drive greater standard alignment. On April 23, CATL partnered with GAC Group, FAW Group, Changan Automobile, BAIC Group, and Chery Automobile to announce 10 new “Chocolate Swap” models. On August 4, CATL—together with Era EV Service, CAR Inc., and CMB Financial Leasing—formed a strategic alliance to expand swapping into the rental-car sector, aiming to leverage CAR Inc.’s 2,000+ offline outlets and parking resources to deploy over 100,000 swap-enabled vehicles. On November 9, a jointly launched “mass-market value car,” the Aion UT super (in collaboration with JD.com and GAC Group), entered the swapping market at an aggressive RMB 49,900 price point—bringing new attention to swap-enabled models.

Overall, CATL’s 2025 strategy can be summarized as “two-track parallel growth with multiple breakthroughs.” The company targets 1,000 “Chocolate Swap” stations within the year, while also building 300 “Qiji Swap” stations across 13 key regions. Its 2026 plan calls for a sharp acceleration—aiming for more than 2,500 “Chocolate Swap” stations across 120 cities nationwide. By 2030, CATL envisions the “Qiji” network forming a large-scale green logistics corridor—approximately 180,000 km in reach—covering about 80% of major trunk freight capacity and 16 major city clusters via an “eight horizontal, ten vertical” network structure.

NIO remains a powerhouse in swapping, combining technological strength with sustained infrastructure expansion. In 2025, NIO pushed forward on three core priorities: county-level coverage acceleration, standard unification, and cross-brand ecosystem collaboration.

In the first half of 2025, NIO achieved “battery swap access in every county” across 14 provincial-level regions and more than 1,200 counties—addressing what it framed as the “last mile” of energy replenishment in lower-tier markets. The company plans to complete coverage across 27 provincial-level regions and over 2,300 counties within the year, and to tackle the remaining provincial-level regions in 2026.

As of December 30, NIO had built 3,665 battery swapping stations nationwide. Along highways, it has formed what it describes as the world’s largest highway swapping network. Meanwhile, NIO’s fourth-generation swap stations have expanded rapidly in regions such as Shanghai, Zhejiang, and Anhui. NIO also plans to begin large-scale deployment of fifth-generation swap stations in the first quarter of 2026, with pilot testing already underway in Shanghai.

By driving network expansion, technology iteration, and ecosystem cooperation in parallel, NIO is accelerating a shift in battery swapping from a “NIO-only” solution toward an “industry-ready” capability.

Meanwhile, Aulton New Energy has posted notable results in station operations and business expansion. In December 2025, Aulton formally filed a prospectus with the Hong Kong Stock Exchange, aiming to become the market’s first “battery swapping stock” in Hong Kong. According to the filing, by the first half of 2025 Aulton had connected 521 swapping stations—covering 267 self-operated sites and 254 third-party stations—serving more than 130,000 registered EVs and managing over 160,000 batteries. Based on 2024 revenue from swapping station operations services, Aulton positions itself as China’s largest independent third-party battery swapping solution provider.

With multiple players accelerating their deployment in 2025, the industry has entered a fast lane. The competitive picture has evolved from NIO’s early dominance to a multi-force battleground—where participants compete through distinct strategic paths, partnerships, and target scenarios.

02. Key Industry Pain Points Still Need Solving

Policy support in 2025 provided significant momentum at both national and local levels, helping battery swapping move from niche pilots toward broader-scale adoption and mainstream relevance.

In September 2025, the National Development and Reform Commission and other authorities issued the “Three-Year Doubling Action Plan for Electric Vehicle Charging Infrastructure Service Capacity (2025–2027).” The plan explicitly included battery swapping as a priority for improving service capacity, proposing that by 2027 swapping networks should cover major city clusters and key trunk logistics corridors, while the share of swap-enabled models rises significantly.

Local governments also introduced differentiated initiatives aligned with regional industrial characteristics. Jiangsu promoted a “Hundred-Station Co-Build Plan,” piloting integrated charging-and-swapping sites in Nanjing and scaling the model across the province. Guangdong encouraged swapping providers to expand into the Hong Kong and Macau markets while supporting station construction at core transportation hubs—aiming to build an integrated swapping network across the Greater Bay Area.

These policy tailwinds are translating into upbeat market projections. CIC Consulting forecasts that swap-enabled vehicle sales will rise from 269,000 units in 2024 to 1.138 million units in 2030, representing a 27.1% CAGR from 2024 to 2030. Over the same period, the number of BEV swapping stations is projected to expand from 4,400 to 24,000—implying a 32.5% CAGR.

However, even with policy guidance accelerating buildout, innovation, and demand expansion, the industry still faces major friction points.

The most persistent challenge is “fragmented standards.” Battery swapping is highly customized, and battery makers often pursue different R&D paths and specifications. As a result, batteries vary widely in energy density, structural design, and physical dimensions—making cross-brand interoperability difficult. In practical terms, this often forces swap stations to serve only one brand or a narrow set of compatible models, limiting station utilization while raising construction and operating costs. For consumers, limited compatibility reduces choice and convenience—dampening the perceived value of swapping and risking idle capacity and wasted resources.

High capital expenditure and operating costs represent another major hurdle. Building swap stations requires substantial upfront investment, including land leasing, equipment procurement, and installation and commissioning—placing heavy financial pressure on operators from day one. Ongoing operations also demand significant labor and maintenance resources, including staffing, electricity costs, and equipment repairs. These recurring costs compress margins and can slow both profitability and industry-wide scaling.

Aulton’s financials illustrate the profitability challenge: it recorded net losses of RMB 785 million in 2022, RMB 655 million in 2023, RMB 419 million in 2024, and RMB 157 million in the first half of 2025. NIO also faces meaningful financial pressure. To date, it has reportedly invested around RMB 18 billion in charging-and-swapping technology and infrastructure, with an additional RMB 5 billion planned over the next decade to further densify its swapping network.

From an industry development perspective, resolving these pain points depends heavily on achieving scale economies—and scale, in turn, requires automakers and battery manufacturers to co-build unified standards. Yet the commercial negotiations and strategic differences behind standard setting make it clear: progress will be steady, not instant. Battery swapping is ultimately a long game—one that demands sustained, coordinated collaboration across the entire value chain.

03. Commercial Vehicles: A High-Impact “Alternative Route” to Scale

Battery swapping has found a particularly strong fit in commercial vehicles, where fast replenishment and operating cost advantages align closely with real-world needs.

Today, swapping adoption in commercial vehicles is led primarily by heavy-duty trucks. These trucks are a major source of transportation-related carbon emissions, making electrification a key pathway toward carbon neutrality. Because heavy trucks are used for long-haul freight, logistics distribution, and high-load operations, they typically require far larger battery packs than passenger vehicles. Even with DC fast charging, replenishment can take significant time—directly reducing operational efficiency. Given these usage patterns, swapping is often better aligned than charging for heavy-truck scenarios.

On one hand, swapping enables heavy trucks to restore a large battery pack in minutes, supporting continuous, high-intensity operations while preserving timeliness and unit economics. On the other hand, heavy-truck routes are usually relatively fixed, making station placement more predictable and helping reduce the complexity and cost of building an efficient network.

In addition, many heavy-truck swap stations rely on slower, controlled charging for battery maintenance. This approach supports battery longevity while enabling regular health checks, fault repairs, and structured fleet maintenance—further reducing lifecycle operating costs.

CATL currently stands out as the clear leader in heavy-truck swapping. In May 2025, CATL signed a provincial-level strategic cooperation agreement with the Shanxi provincial government and launched the construction of 41 “Qiji” swap stations in Linfen. The plan calls for Linfen to complete 41 stations and promote 1,000 swap-enabled heavy trucks within the year, then gradually expand to 60 stations, with a cumulative rollout target of 50,000 swap-enabled heavy trucks by 2030. CATL has also developed 11 “Qiji” swap stations in Shaanxi, anchored by Xi’an and extending coverage to Yulin, Yan’an, Tongchuan, and Baoji. The first “Qiji” station in Xi’an is expected to enter electrified operation in January 2026.

Outlook: Opportunity and Pressure, Side by Side

By 2025, NIO, CATL, and Aulton have secured meaningful market positions, shaping an initial competitive structure for the battery swapping industry. As competition intensifies, market concentration may rise further, amplifying the advantages of leading players with stronger networks, deeper partnerships, and better execution capabilities.

NIO is well-positioned to sustain leadership in private passenger-car swapping thanks to its first-mover advantage and extensive station footprint. CATL, meanwhile, is accelerating rapidly as a formidable “latecomer”—particularly in heavy-truck swapping, where it is poised to drive fast growth and scalable economics. At the same time, traditional energy companies are moving from early exploration to larger-scale, network-driven deployment, and their resource depth and channel advantages could materially reshape the competitive landscape.

Overall, battery swapping is entering a pivotal period where opportunity and challenge are tightly intertwined. The winners will be those that seize the policy and market window with precision, tackle interoperability and cost barriers head-on, and turn ecosystem collaboration into real, repeatable commercialization.