According to the Battery Scrap Market report published by OG Analysis, the global market is estimated at USD 43.6 billion in 2025 and projected to reach USD 135.2 billion by 2034, with a published CAGR of approximately 13%. Demand spans established lead-acid recovery networks and expanding lithium-ion recycling activity.
Market Overview
Battery scrap includes manufacturing offcuts, rejected cells and spent batteries from automotive, consumer and industrial applications. Collection and processing recover lead, lithium, nickel, cobalt, copper and other materials, depending on chemistry. Lead-acid recycling relies on established return networks, while lithium-ion treatment combines preprocessing with material recovery. Black mass is a concentrated intermediate from lithium-ion processing that requires further refining. Commercial value depends on feedstock quality, recovered-material prices and processing costs. Safe handling, traceability and customer relationships influence the reliability of scrap supply and subsequent material sales.
Key Market Insights
? Lead-acid and lithium-ion scrap require different collection systems, treatment routes and commercial models.
? Manufacturing scrap provides important lithium-ion feedstock while many electric-vehicle batteries remain in service.
? Recycling can return metals to battery production and reduce exposure to primary-material supply constraints.
? Plant utilization depends on contracts that secure suitable scrap volumes for the installed processing capacity.
? Material quality and dependable customers determine whether recovered products can enter new battery supply chains.
Market Dynamics
? Growth in battery manufacturing and eventual vehicle retirements creates opportunities for collection and materials recovery.
? Producer responsibility requirements and recovery rules encourage formal collection, traceability and documented recycling performance.
? Closed-loop partnerships connect automakers, cell manufacturers and recyclers, improving access to scrap and recovered-material customers.
? Mechanical, thermal and chemical processing technologies address different chemistries and produce different recovered-material streams.
? Lithium iron phosphate batteries contain lower-value material mixes, increasing the relevance of service fees and efficient processing.
? Transport, storage, fire prevention and environmental controls add costs that operators must manage across collection networks.
? Commodity-price swings and uneven feedstock availability can constrain margins and delay investment in recycling capacity.
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https://www.oganalysis.com/industry-reports/battery-scrap-market
Market Segmentation
By Battery Chemistry: Lead-Acid; Lithium-Ion; Nickel-Metal Hydride; Nickel-Cadmium; Others. By Source: Electric Vehicles; Consumer Electronics; Power Tools; Telecom Stations; Industrial Equipment; Others. By End Use: Material Extraction; Reuse; Disposal; Others. Geographic coverage includes North America, Europe, Asia-Pacific, the Middle East and Africa, and South and Central America.
Regional Insights
? North America: Established lead-battery collection supports the market, while automaker partnerships and processing investments develop lithium-ion material recovery.
? Europe: Recycling-efficiency requirements and investments such as BASF's Schwarzheide plant support regional collection, preprocessing and refining services.
? Asia-Pacific: China's large battery-manufacturing and recycling base shapes supply, while Indian operators expand lithium-ion processing alongside established lead recovery.
? The Middle East and Africa and South and Central America: Opportunities center on improved collection networks and formal recycling of automotive and industrial batteries.
Competitive Landscape
The competitive landscape includes battery manufacturers with internal recovery networks, specialist recyclers, metals processors and chemical companies. Collection coverage, dependable feedstock contracts and recovery performance influence competitive positioning. Operators also need customers able to qualify and use their recovered products. In lithium-ion recycling, producing black mass and refining it into usable materials are distinct stages, and companies may operate either or both. This creates partnerships between collection businesses, preprocessing facilities and metallurgical processors.
Relevant participants across battery scrap recovery and recycling include Clarios, Gravita India, Redwood Materials, BASF, Glencore, Cirba Solutions, Umicore and LOHUM. Their capabilities span lead recovery, lithium-ion preprocessing, metal refining and battery-lifecycle services. Li-Cycle activities acquired by Glencore are now represented within Glencore Battery Recycling.
Strategies include acquisitions, partnerships with battery manufacturers and expansion into additional chemistries. Redwood's collaboration with General Motors illustrates the connection between manufacturing-scrap recycling, retired-battery recovery and selective repurposing. Commercial planning must match processing investment with available feedstock, product quality requirements and reliable buyers for recovered materials.
Recent Developments
? October 27, 2026: Clarios announced plans to acquire Ecobat's three U.S. critical-mineral recovery facilities, which process more than 40 million batteries annually. The proposed transaction would strengthen its domestic recovery network; completion was expected in early 2027, subject to regulatory approvals and other closing conditions.
? September 22, 2026: Cirba Solutions and General Motors announced completion of a battery-recycling pilot with partners. Materials recovered from retired GM battery packs were used in new cells with cathode active material containing 100% recycled nickel, cobalt and manganese, demonstrating a route back into vehicle production.
? January 23, 2026: Gravita India announced the launch of its lithium-ion battery recycling plant at Mundra, Gujarat, with installed capacity of 6,000 metric tonnes per year. The investment extends its established recycling business into lithium-ion processing and supports development of domestic battery-material recovery.
? August 2025: Glencore acquired Li-Cycle operations and assets, bringing the acquired activities into Glencore Battery Recycling. The transaction adds processing infrastructure and technical capabilities to its battery-recycling business and reflects consolidation within the lithium-ion recycling industry.
? June 3, 2025: BASF began commercial operation of its Schwarzheide black-mass plant in Germany, with annual processing capacity of up to 15,000 tonnes of lithium-ion batteries and production scrap. The facility expands European preprocessing capacity and supplies intermediate material for subsequent refining.
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