Lithium-Ion Battery Recycling Market Report

The global lithium-ion battery recycling market size was USD 9.84 Billion in 2025 and is expected to register a revenue CAGR of 17.4% during the forecast period. Market revenue growth is supported by mandatory recycled content thresholds under the EU Battery Regulation, which requires lithium recovery rates of 80% from recycled batteries by 2031 and 85% by 2036, generating binding demand for certified hydrometallurgical processing capacity that currently does not exist at the required scale in Europe. The US Inflation Reduction Act Section 45X advanced manufacturing production credit, extended to critical mineral recovery from battery recycling, has catalysed investment in domestic black mass processing at facilities operated by Redwood Materials in Nevada and Li-Cycle in North America, with the IEA estimating that end-of-life lithium-ion batteries available for recycling globally will reach 1.7 million tonnes annually by 2030, representing approximately 140 gigawatt-hours of recoverable cell equivalent.

Lithium-ion battery chemistry presents fundamentally different recycling economics compared with lead-acid batteries because the value proposition depends on recovering lithium, cobalt, nickel, and manganese simultaneously from black mass rather than recovering a single dominant material. For instance, in March 2026, Umicore, Belgium, announced commissioning of its third hydrometallurgical refinery line at the Hoboken facility, adding 150,000 tonnes per year of black mass processing capacity and bringing total European hydrometallurgical capacity for lithium-ion black mass to approximately 420,000 tonnes annually, the largest single capacity expansion from any recycler operating in the European Union. These are some of the key factors driving revenue growth of the market.

However, lithium recovery yield from hydrometallurgical processing remains below 80% at most commercial facilities as of 2025, meaning that mandatory EU recycled content thresholds for lithium cannot be met by the 2031 deadline with current process technology unless substantial capital investment in improved solvent extraction and selective precipitation systems is deployed across the European recycling base. The absence of a standardised battery passport infrastructure before the February 2027 EU mandatory deadline creates traceability gaps that prevent recyclers from accurately certifying the chemistry composition of incoming black mass, adding cost and yield uncertainty to the economics of secondary material certification. These factors substantially limit lithium-ion battery recycling market growth over the forecast period.

Based on process type, the global lithium-ion battery recycling market is segmented into hydrometallurgical, pyrometallurgical, direct recycling, and mechanical pre-processing. The hydrometallurgical process segment commands the largest revenue share because it achieves the highest material recovery purity for lithium, cobalt, nickel, and manganese simultaneously, producing battery-grade precursor salts that can re-enter cathode active material manufacturing without additional refining steps. Hydrometallurgical processing involves leaching crushed black mass in acidic or alkaline solution, followed by selective solvent extraction and precipitation to separate individual metal streams, with commercial facilities achieving cobalt and nickel recovery rates above 98% and lithium recovery rates of 70% to 85% depending on the leaching chemistry employed.

The direct recycling segment is expected to register a rapid revenue growth rate in the global lithium-ion battery recycling market over the forecast period. Direct recycling preserves cathode active material structure rather than dissolving it, relying on relithiation and thermal treatment to restore electrochemical performance, and eliminates the energy-intensive hydrometallurgical dissolution and precipitation steps. Battery Resourcers in the United States and several Chinese recyclers including CATL's internal recycling subsidiary have demonstrated direct recycling yields above 90% for lithium iron phosphate cathode material at pilot scale, with cost savings of 30% to 40% compared to conventional hydrometallurgical routes for LFP chemistry where cobalt and nickel value does not justify dissolution processing.

Based on battery source, the global lithium-ion battery recycling market is segmented into automotive traction batteries, consumer electronics batteries, stationary energy storage batteries, and industrial batteries. The automotive traction battery segment dominates because electric vehicle battery packs represent the highest mass per unit and the highest concentration of recoverable critical minerals per tonne of incoming material, with a typical 75 kilowatt-hour NMC automotive pack containing approximately 8 to 12 kilograms of lithium carbonate equivalent, 5 to 15 kilograms of cobalt depending on NMC formulation, and 20 to 40 kilograms of nickel. IEA data indicates that end-of-life electric vehicle batteries reaching recyclers will increase from approximately 250,000 tonnes globally in 2025 to over 1.4 million tonnes by 2030 as the 2015 to 2018 first-generation BEV cohort reaches end of warranty and first-life retirement.

The stationary energy storage battery segment is expected to register a rapid revenue growth rate over the forecast period as grid-scale lithium iron phosphate battery installations from 2018 to 2022 approach their 10 to 12 year first-life design horizon, creating an incoming LFP black mass stream that requires different processing routes than NMC automotive black mass and for which direct recycling economics are materially more attractive.

Based on regional analysis, the lithium-ion battery recycling market in Asia Pacific accounted for largest revenue share in 2025, driven by China's concentration of battery manufacturing capacity and the correspondingly large volume of production scrap and end-of-life batteries available for domestic recycling. China's Ministry of Industry and Information Technology reported that battery recycling enterprises registered under the national management system processed 435,000 tonnes of end-of-life lithium-ion batteries in 2024, with CATL's GEM joint venture, Brunp Recycling, operating the largest single-site processing capacity at approximately 120,000 tonnes per year in Hunan Province. South Korea's three major cell manufacturers maintain captive recycling subsidiaries, with LG Energy Solution's recycling partnership with Li-Cycle and Samsung SDI's Ecomate subsidiary processing manufacturing scrap from domestic cell production. Japan's recycling infrastructure is concentrated around Sumitomo Metal Mining's Niihama smelter complex, which processes black mass from consumer electronics alongside automotive battery material using pyrometallurgical followed by hydrometallurgical refining routes.

• 01What is the global lithium-ion battery recycling market size in 2025 and what CAGR is expected during 2026–2035?
• 02How does hydrometallurgical recycling economics compare with pyrometallurgical and direct recycling routes for NMC versus LFP battery chemistry?
• 03What lithium recovery yield is currently achievable at commercial scale and how does this compare with the EU Battery Regulation 2031 mandatory threshold of 80%?
• 04Which European recyclers have confirmed capacity commitments sufficient to meet EU mandated recycled content thresholds for cathode active material production by 2031?
• 05How does the incoming black mass chemistry shift from NMC-dominated to LFP-dominated feedstock affect hydrometallurgical recycler economics through 2030?
• 06What impact does the IRA Section 45X production credit have on the economics of domestic lithium-ion battery recycling and critical mineral recovery in North America?
• 07How is CATL's closed-loop recycling to cell manufacturing model at Brunp Recycling positioned relative to third-party recyclers on cost per tonne of recovered material?
• 08What are the indicative black mass market prices by chemistry in Q2 2026 and how do LFP and NMC values diverge as cobalt content declines in incoming streams?
• 09How does the Strait of Hormuz disruption in Q1 2026 affect European recycler competitive positioning versus Asian recyclers supplying battery-grade recovered materials to EU cathode producers?
• 10Which battery collection and pre-processing regulatory frameworks in Asia Pacific, North America, and Europe determine the volume and chemistry composition of incoming end-of-life material streams?

This report covers the global lithium-ion battery recycling market across all major process technologies, recovered material streams, battery source categories, end-use applications, and geographic regions. The research combines primary panel interviews with hydrometallurgical process engineers, battery collection logistics operators, OEM battery sustainability executives, and critical mineral traders, cross-referenced against EU Commission implementing regulations, IEA battery demand data, USGS mineral production statistics, and company annual reports. All market size figures use 2025 as the base year with a 2026–2035 forecast period. The Strait of Hormuz supply chain disruption of Q1 2026 is incorporated in regional analysis where relevant to logistics cost dynamics affecting European recycler competitiveness. This report specifically covers lithium-ion battery recycling and does not include lead-acid battery recycling, which is covered in a separate Faradex Partners title.