DRAFT 1

According to WiseGuy Reports, the Lithium Ion Battery Reuse and Recycling Market was valued at USD 3,900 million in 2025 and is projected to reach USD 19.8 billion by 2035, expanding at a CAGR of 17.5% during the forecast period from 2026 to 2035. The market was valued at USD 3,400 million in 2024. Increasing electric vehicle adoption, rising battery waste generation, growing demand for critical minerals, and the expansion of stationary energy storage are strengthening the need for effective battery reuse and recycling solutions.

Rising Electric Vehicle Adoption Accelerates Battery Recycling Demand

The rapid growth of electric vehicles is creating a substantial future stream of end-of-life lithium-ion batteries. As electric mobility expands across passenger vehicles, commercial fleets, and other transportation applications, manufacturers and recycling companies are developing more efficient systems for collecting, testing, repurposing, and processing used batteries. Batteries that no longer meet the performance requirements of vehicles may still offer value in less demanding applications, including stationary energy storage.

This growing emphasis on second-life utilization is supporting the reuse segment of the market. At the same time, batteries that cannot be economically reused are being directed toward recycling processes designed to recover valuable materials such as lithium, cobalt, nickel, manganese, and other components.

Hydrometallurgical Recycling Gains Importance

Among the major recycling methods, hydrometallurgical processing is gaining attention because of its potential to recover valuable battery materials with high efficiency. Pyrometallurgical techniques remain important for large-scale processing, while mechanical separation and bioleaching provide additional approaches for specific battery chemistries and operating conditions.

Technological development is focused on improving recovery rates, reducing energy consumption, lowering processing costs, and minimizing environmental impacts. The development of advanced recycling systems is expected to remain a central factor shaping market competition.

Battery Chemistry Influences Recycling Strategies

Lithium cobalt oxide, lithium iron phosphate, lithium nickel manganese cobalt, and lithium manganese oxide batteries represent key battery types covered by the market. Differences in material composition, performance characteristics, and residual value influence the most appropriate reuse or recycling pathway.

The growing deployment of lithium iron phosphate batteries is also encouraging recyclers to develop specialized recovery strategies, as the chemistry has a different material value profile from nickel- and cobalt-rich battery systems. Such developments are likely to increase the importance of chemistry-specific processing capabilities.

Grid Storage Creates New Opportunities for Battery Reuse

The expansion of grid storage is providing a significant opportunity for repurposed batteries. Batteries removed from electric vehicles can potentially be used for backup power, renewable energy integration, peak-load management, and other stationary applications after suitable testing and refurbishment.

This second-life model can extend battery utilization while supporting the wider adoption of renewable energy systems. As energy storage deployment increases, the reuse of batteries is expected to become a more established component of the broader circular battery economy.

Asia Pacific Maintains a Strong Market Position

Asia Pacific is expected to remain a major region for the lithium-ion battery reuse and recycling industry because of its extensive battery manufacturing base, large electric vehicle market, and growing investment in recycling infrastructure. China and other regional manufacturing centers continue to influence battery supply chains and the availability of end-of-life materials.

North America and Europe are also witnessing strong development as regulatory initiatives, sustainability targets, and investments in domestic battery supply chains encourage the expansion of recycling capacity. Regional markets are increasingly focused on reducing dependence on imported raw materials and strengthening battery material recovery.

Competitive Landscape

The competitive environment includes companies such as Umicore, NexCycle, SungEel MCC Americas, OnTo Technology, Duesenfeld GmbH, American Battery Technology Company, Aqua Metals, GEM Co Ltd, Li-Cycle, Battery Resourcers, Redwood Materials, and Retriev Technologies. These participants are focusing on process innovation, battery collection networks, material recovery, second-life applications, and strategic expansion.

Market Outlook

The Lithium Ion Battery Reuse and Recycling Market is positioned for substantial expansion as battery demand rises across electric mobility, consumer electronics, and energy storage. The transition toward circular supply chains is increasing the value of recovering materials from used batteries while creating new opportunities for second-life energy applications. With the market projected to grow from USD 3,900 million in 2025 to USD 19.8 billion by 2035, technology development and recycling infrastructure expansion are expected to remain central to future industry growth.

DRAFT 2

According to WiseGuy Reports, the Lithium Ion Battery Reuse and Recycling Market is expected to expand from USD 3.9 billion in 2025 to USD 19.8 billion by 2035, registering a CAGR of 17.5% between 2026 and 2035. The market reached USD 3.4 billion in 2024. The rapid expansion of battery-powered transportation, increasing deployment of energy storage systems, and the need to secure supplies of valuable battery materials are creating favorable conditions for the development of reuse and recycling infrastructure.

Battery Circularity Becomes a Strategic Industry Priority

The increasing volume of lithium-ion batteries entering the market is creating a long-term requirement for efficient end-of-life management. Manufacturers, energy companies, recyclers, and technology developers are increasingly examining ways to retain the value of batteries after their initial use.

Reuse provides one pathway by extending the functional life of batteries in applications with lower performance requirements. Recycling provides another by extracting useful materials for reintegration into industrial and battery supply chains. Together, these approaches are supporting the development of a more circular battery ecosystem.

Electric Vehicles Represent a Major Source of Future Feedstock

The electric vehicle industry is emerging as one of the most important contributors to future battery reuse and recycling volumes. As the global fleet of electric vehicles expands, the number of batteries requiring assessment, refurbishment, repurposing, or material recovery is also expected to rise.

The growing availability of retired vehicle batteries can support second-life applications such as grid storage and backup power. Battery testing and diagnostic technologies are therefore becoming increasingly important for determining whether a used battery should be reused or sent for material recovery.

Recycling Technology Continues to Advance

Hydrometallurgical, pyrometallurgical, mechanical, and bioleaching processes form the principal technological categories in the market. Companies are working to improve the efficiency of these methods while addressing the cost and environmental challenges associated with battery processing.

Hydrometallurgical systems are attracting interest for their ability to support targeted material recovery, whereas mechanical and thermal processes can contribute to large-scale treatment and material separation. Ongoing research is expected to produce more integrated systems combining several processing techniques.

Demand for Recovered Battery Materials Supports Market Expansion

The need for lithium, nickel, cobalt, and manganese is strengthening the commercial case for recycling. Recovering these materials from used batteries can help reduce the pressure on primary mining operations and improve the resilience of battery supply chains.

Material recovery is particularly important as battery production expands. Recycling companies that can achieve high recovery rates while managing complex battery chemistries may gain a stronger position within the evolving market.

Second-Life Storage Broadens the Reuse Opportunity

Used batteries can retain useful capacity even after they are no longer suitable for automotive applications. This creates opportunities for deployment in stationary systems supporting renewable power, backup electricity, and other energy management functions.

The growth of grid storage is therefore contributing to the commercial potential of battery reuse. As testing, refurbishment, and monitoring technologies improve, more batteries may be redirected toward secondary applications before being processed for final material recovery.

Regional Investments Strengthen Industry Development

Asia Pacific is expected to remain a significant market because of its strong battery manufacturing ecosystem and expanding electric vehicle industry. The region also benefits from established chemical processing and materials recovery capabilities.

Europe and North America are strengthening their positions through investments in domestic battery value chains and recycling facilities. Growing attention to supply security, resource efficiency, and environmental management is encouraging the development of regional collection and processing networks.

Key Companies Compete Through Technology and Expansion

The market includes Umicore, NexCycle, SungEel MCC Americas, OnTo Technology, Duesenfeld GmbH, American Battery Technology Company, Aqua Metals, GEM Co Ltd, Li-Cycle, Battery Resourcers, Redwood Materials, and Retriev Technologies. Competitive strategies include the development of advanced recovery technologies, expansion of processing capacity, strategic partnerships, and the creation of integrated battery collection and recycling systems.

Future Growth Prospects

The Lithium Ion Battery Reuse and Recycling Market is entering a period of accelerated development as the global battery economy expands. Increasing electric vehicle penetration will generate more future feedstock, while demand for recovered materials and second-life storage solutions will create additional commercial opportunities. The projected increase from USD 3.9 billion in 2025 to USD 19.8 billion by 2035 reflects the growing importance of battery circularity across transportation, energy, and industrial markets.