リチウムイオン電池リサイクル市場2025-2045：市場、予測、技術、プレイヤー

Li-ion Battery Recycling Market 2025-2045: Markets, Forecasts, Technologies, and Players

世界のリチウムイオン電池リサイクル市場の分析（技術、政策、経済、プレイヤーの活動、電気自動車、製造スクラップ、エネルギー貯蔵システム、家電製品からのリチウムイオン電池の20年間のリサイクル予測など... もっと見る

出版社	出版年月	電子版価格	納期	ページ数	言語
IDTechEx アイディーテックエックス	2025年4月30日	US$7,000 電子ファイル（1-5ユーザライセンス）ライセンス・価格情報注文方法はこちら	お問合わせください	464	英語

サマリー

世界のリチウムイオン電池リサイクル市場の分析（技術、政策、経済、プレイヤーの活動、電気自動車、製造スクラップ、エネルギー貯蔵システム、家電製品からのリチウムイオン電池の20年間のリサイクル予測など）。

IDTechExでは、リチウムイオン電池のリサイクル市場は2045年までに520億米ドルに達すると予測している。リチウムイオン電池（LIB）の需要は、電気自動車（EV）、エネルギー貯蔵システム（ESS）、民生用電子機器市場全体で伸び続けている。リチウムイオン電池の持続可能性は、寿命末期（EOL）を含むライフサイクル全体の管理にかかっている。最終的に、LIB はその性能要件を満たさなくなり、EOL に達する。EOL になった LIB はリサイクルすることで、その中に含まれる貴重で重要な原材料を回収し、新しい LIB 製造に再導入することができる。また、これらの電池を第二の用途に再利用し、リサイクルを遅らせることもできる。このような使用済み電池の管理経路を合わせて、LIB の循環型経済が形成される。

LIBをリサイクルすることで、新しい電池メーカーは不安定な原料価格から身を守り、より安定した原料供給を国内化し、主要地域の規制目標を達成することができる。リサイクル業者はまた、ブラックマスやバッテリーグレードの金属塩など、リサイクルの主要製品から収益を得ることもできる。すべての関係者がLIBリサイクルの利点を認識していることから、この市場は今後20年間、年平均成長率17%で成長すると予測されている。

リチウムイオン電池のリサイクル市場の動きとバリューチェーン

このIDTechExのレポートでは、リサイクル事業者が近年発表した120件以上の発表を取り上げており、新しいリサイクル施設の発表、31億米ドルの資金調達と投資、主要なパートナーシップなどを取り上げている。この動きは、リサイクル業者が世界的に事業を拡大し、技術を開発し、自動車OEM、回収物流業者、セル製造業者、化学品供給業者、定置用ESS、二次電池業者と供給や戦略的契約を結ぶなど、LIBリサイクル市場が活発化し、混雑していることを示唆している。

ここ数年で、機械的精製や湿式精製を含む、大量のリチウムイオン電池のリサイクル設備が新設された。2024 年末までに、世界の完全な EOL LIB のリサイクル能力は 879 ktpa (キロトン/年) にまで拡大した。欧州と北米の市場で機械的リサイクルによって生産される多くの黒色塊は、より多くの湿式冶金精製能力が存在するアジア太平洋地域に流出している。ここでは、黒色塊は原料として使用され、より価値の高い電池用金属塩を製造するために精製される。そのため、西側諸国のリサイクル業者は、重要な材料がそれぞれの地域から流出するのを防ぐため、より商業規模の湿式冶金能力を確立しようとしている。

このIDTechExレポートでは、リサイクル施設と拡張ロードマップ、資金調達と投資、パートナーシップ、合弁事業（JV）、覚書（MOU）、合併・買収（M＆A）に関する主要プレーヤー別、主要地域別の活動を詳細に掲載しています。

LIBリサイクル技術の進歩 - 直接リサイクル、グラファイト、バインダー

多くのリサイクル業者と自動車OEMは、従来からLIBリサイクルからリチウム、コバルト、ニッケルなど、正極からの高価値金属の回収に注力してきた。これらの材料を回収する技術は十分に確立されており、機械的、湿式冶金的、または高温冶金的プロセスを含んでいる。

しかし、価値の低いLFPカソードは、カソードにニッケルやコバルトが含まれていないため、リサイクルしても収益性が低い。この化学が欧米のEV市場に浸透し始め、ESS市場を席巻していることから、この化学のより経済的なリサイクルを長期的に促進するためには、他の技術が必要になるかもしれない。リチウムイオンの直接リサイクル技術は、LFP（およびその他の化学物質）のリサイクルに、より低コストのソリューションを提供する可能性がある。しかし、この技術は開発の初期段階にあり、化学物質のアップサイクルや再生カソード性能の実証に関する要因が克服すべき重要な障壁となっている。この IDTechEx レポートでは、主要な LIB リサイクル技術について詳述し、主要企業の直接的な LIB リサイクル技術、技術成熟度（TRL）、潜在的なコストメリット、利点、課題について分析している。

これまで高価値の正極材料の回収が優先されてきたため、負極材料、すなわち黒鉛の回収は軽視されてきた。しかし、LFPの人気の高まり、より地域化されたサプライチェーンの試み、電池用黒鉛供給における中国への継続的な依存、黒鉛負極の継続的な需要の伸び、これらすべてがLIBからの黒鉛のリサイクルに焦点を当て始めている。LIBのリサイクル業者数社と、この分野に特化した新興企業数社が、バッテリーグレードの黒鉛リサイクル技術を開発している。IDTechExの本レポートは、LIB向け黒鉛リサイクル技術、この分野の主要プレーヤー、黒鉛リサイクル特許分析に関する徹底的な調査を提供している。

LIB のもう一つの主要部品はバインダーである。PVDFはLIB正極に最も使用されているバインダーである。しかし、PVDF はフッ素樹脂であり、炭素-フッ素結合を含むため、PFAS 材である。PFASが非合法化されれば、リチウムイオン電池のバインダーとしてのPVDFの使用に影響が出る可能性がある。これはEVとESS市場に大きな影響を与える可能性がある。このIDTechExレポートは、LIBバインダー、PFAS規制、PVDF代替品、バインダーリサイクル技術戦略、経済性に関する徹底的な考察と分析を提供しています。

リチウムイオン電池のリサイクル規制

主要地域の政策と規制は、電池回収率、リサイクルによる材料回収効率、新電池中のリサイクル材料の最低含有量の目標を強制する。これは特に、EU電池規則によるEUや、2022年廃棄物管理規則によるインドのケースである。これらの目標は時間の経過とともに増加するため、まずリサイクル能力を確立することの重要性が強調され、次にこれらの能力を拡大し、使用する技術の効率を改善する必要性が強調されている。IDTechExの本レポートは、地域別に政策と規制の深堀りを行い、EU電池規則で義務付けられているように、リサイクル業者と自動車OEMが最低リサイクル含有量目標を達成する可能性についての分析を含んでいる。

予測

本レポートでは、リチウムイオン電池のリサイクル市場について、2023年から2045年までの20年間の市場予測を数量と市場金額の両方で提供しています。予測の内訳は、地域別、正極ケミストリ別、LIBリサイクル原料/市場セクター別（製造スクラップ、EV、エネルギー貯蔵システム、家電）、主要金属（リチウム、ニッケル、コバルト、マンガン、グラファイト、アルミニウム、鉄、アルミニウムと銅の集電フォイル）回収別となっている。EVは、バッテリーEV車、その他のEV（トラック、バス、小型商用車）、プラグインハイブリッド車（PHEV）に分けられる。データはGWh、キロトン（kt）、億米ドルで提供される。

企業プロファイル

本レポートには、リチウムイオン電池のリサイクル業者や、回収物流・輸送業者、黒鉛リサイクル業者、高度または半自動電池解体技術を開発する業者など、LIB循環経済におけるその他のプレイヤーを含む60社以上の企業プロファイルが含まれています。

主要な側面

本レポートは以下の情報を提供する：

世界のリチウムイオンバッテリーリサイクル市場に関する詳細な分析。過去数年間にリチウムイオンバッテリーリサイクル企業が行った120以上の発表を掲載。これには、主要プレイヤーの活動、新規および計画中のリサイクル施設とその容量、技術、容量、製品、施設のロードマップが含まれます。また、リサイクル業者の資金調達や投資、自動車OEM、回収ロジスティクス業者、化学品サプライヤーなどとの戦略的契約や供給契約に関する主要調査も含まれています。その他、合弁事業（JV）、合併・買収（M＆A）、売却、世界的な事業拡大、定置型蓄電池システム（BESS）のリサイクルなど、主要な発表が含まれています。
機械的リサイクル技術、湿式冶金技術、乾式冶金技術、直接リサイクル技術など、リチウムイオン電池のリサイクル技術に関する包括的な考察と分析。
主要企業の技術や技術準備レベル（TRL）、潜在的なコストメリット、利点、克服すべき課題に関する分析を含め、ダイレクトリサイクル技術に関する新たな徹底的な調査と展望を提供。
本レポートでは、リチウムイオン電池用黒鉛リサイクルに関する章を新たに設け、黒鉛リサイクルの重要性、克服すべき課題、主要企業の電池用黒鉛のリサイクルと回収能力に関する議論と分析を掲載している。主要な黒鉛リサイクル技術、リチウムイオン電池負極用黒鉛リサイクルに特化したLIBリサイクル企業や小規模新興企業の活動についても論じている。また、黒鉛リサイクルに関する特許分析も提供し、主要なLIBリサイクル企業の技術について論じている。
LIBバインダー、PFAS規制、PVDF代替品、バインダーリサイクル技術戦略、経済性に関する徹底的な議論と分析を含む新しい章。
リチウムイオン電池リサイクルのバリューチェーンとリサイクルの経済性を詳細に分析。これには、LFPを含むさまざまなLIB化学物質のリサイクル、リサイクルによる主要製品、バリューチェーンを通じた主要製品や材料の流れ、EVバッテリーの二次利用による競争、EVバッテリーの予想以上の長寿命化、オープンループとクローズドループのビジネスモデルなどの主要トレンドに関する主要な考察が含まれます。
地域別のリチウムイオン電池リサイクル規制と政策に関する主な考察と分析。これには、新型EVバッテリーの最低リサイクル量に関するEU電池規制目標を達成するための、LIBリサイクル業者と自動車OEMの実行可能性に関するIDTechExによる真新しい分析も含まれている。この分析では、EU域内で異なる原料（EVバッテリーと製造スクラップ）を異なる回収率でリサイクルする複数のシナリオを提示している。
また、リチウムイオン電池市場、さまざまなリチウムイオン電池の用途、電池の循環経済についての紹介と概要も示している。
2023年から2045年までの20年間のリチウムイオン電池リサイクルの地域別、 中国、米国、欧州、RoW （GWh、キロトン、金額（億米ドル））、化学組成別 LFP、LMFP、低ニッケル、中ニッケル、高ニッケル、超高ニッケル、Li-Mn-Rich、LNMO、LMO、LCO（GWh、キロトン）の詳細予測。
リチウム、ニッケル、コバルト、マンガン、グラファイト、アルミニウム、鉄、アルミニウムと銅の集電箔のリサイクルから回収される重要な電池材料と金属の2023～2045年の粒状市場予測（キロトン、金額（億米ドル））。
2023年～2045年までのリチウムイオン電池のリサイクルに関する20年間の詳細な市場予測（BEV車、製造スクラップ、その他のEV（バス、トラック、LCV）、PHEV車、エネルギー貯蔵システム（ESS）、民生用電子機器を含む原料供給元/市場分野別（トン）。
中国、米国、欧州、RoWの各地域も独自の予測セクションがあり、正極の化学的性質、リサイクル原料の供給源/市場セクター、回収される重要な材料と金属ごとに内訳が記載されています。
リチウムイオン電池のリサイクル業者や、回収物流・輸送業者、グラファイトのリサイクル業者、高度な電池解体技術や半自動解体技術を開発する業者など、LIB循環経済におけるその他のプレイヤーを含む60社以上の企業プロファイル。

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Summary

Global Li-ion battery recycling market analysis including technologies, policies, economics, player activity, & 20-year recycling forecasts for Li-ion batteries from electric vehicles, manufacturing scrap, energy storage systems, & consumer electronics.

IDTechEx forecasts that the Li-ion battery recycling market will reach US$52B in value by 2045. Li-ion battery (LIB) demand continues to grow across electric vehicle (EV), energy storage system (ESS), and consumer electronics markets. The sustainability of Li-ion batteries relies on their entire lifecycle management, including at end-of-life (EOL). Eventually, LIBs no longer meet their performance requirements and reach EOL. EOL LIBs can be recycled to reclaim the valuable and critical raw materials contained within them, and have these materials reintroduced into new LIB manufacturing. These batteries could also be repurposed for second-life applications, which would delay recycling. Together, these EOL management routes form the LIB circular economy.

By recycling LIBs, this can allow new battery manufacturers to shield themselves against volatile raw material prices, domesticate a more stable supply of materials, and meet regulated targets in key regions. Recyclers can also generate revenues from the key products of recycling, including black mass and/or battery-grade metal salts. With all stakeholders recognizing the benefits of LIB recycling, this market is projected to grow at a CAGR of 17% over the next twenty years.

Li-ion Battery Recycling Market Activity and Value Chain

This IDTechEx report features over 120 announcements made by recyclers in recent years, covering new recycling facility announcements, US$3.1B in funding and investments, and key partnerships. This activity suggests that the LIB recycling market is hyperactive and becoming more crowded, with recyclers expanding their operations globally, developing their technologies, and forming supply and strategic agreements with automotive OEMs, collection logistics players, cell manufacturers, chemical suppliers, stationary ESS and second-life battery players.

A significant volume of new LIB recycling capacity was added across the last few years, including mechanical and hydrometallurgical refining capacity. By the end of 2024, global recycling capacity grew to 879 ktpa (kilotonnes-per-annum) of complete EOL LIBs. Much black mass being produced from mechanical recycling in European and North American markets is leaving to the Asia-Pacific where more hydrometallurgical refining capacity exists. Here, the black mass is used as feedstock and refined to produce higher value battery-grade metal salts. Therefore, recyclers in western countries are looking to establish more commercial-scale hydrometallurgical capacity to prevent critical materials leaving their respective regions.

This IDTechEx report details activity by key player and by key region across recycling facilities and expansion roadmaps, funding and investments, partnerships, joint ventures (JV), memorandums of understanding (MOU), mergers and acquisitions (M&A).

Advancements in LIB Recycling Technologies - Direct Recycling, Graphite and Binders

Many recyclers and automotive OEMs have traditionally focused on the recovery of high-value metals from the cathode including lithium, cobalt, and nickel from LIB recycling. Technologies for recovering these materials are well established, and encompass mechanical, hydrometallurgical, or pyrometallurgical processes.

However, lower value LFP cathodes are less profitable to recycle given the absence of nickel or cobalt in the cathode. With this chemistry starting to penetrate European and US EV markets and dominate ESS markets, other technologies may be needed to facilitate the more economic recycling of this chemistry long-term. Direct Li-ion recycling technologies may offer a lower cost solution for LFP recycling (and other chemistries). However, this technology is in a much earlier stage of development and factors related to chemistry upcycling and demonstrating regenerated cathode performance are key barriers to be overcome. This IDTechEx report details key LIB recycling technologies, and analyses key players' direct LIB recycling technologies, and technology readiness level (TRL), potential cost benefits, advantages and challenges.

Given the historical priority on recovering high-value cathode materials, this has contributed to the neglect of recovering anode materials, namely graphite. However, the increasing popularity of LFP, attempts for more localised supply chains, ongoing reliance on China for battery graphite supplies, and continued growth in graphite anode demand, has all started to put focus on the recycling of graphite from LIBs. Several LIB recyclers, alongside several start-ups focused specifically on this, are developing battery-grade graphite recycling technologies. This IDTechEx report provides thorough research into graphite recycling technologies for LIBs, key players in this sector, and a graphite recycling patent analysis.

Another key component in LIBs is the binder. PVDF is the most used binder in LIB cathodes. However, it is a PFAS material since it is a fluoropolymer, containing carbon-fluorine bonds. If PFAS is outlawed, this could have an impact on the use of PVDF as a binder in Li-ion batteries. This could impact EV and ESS markets significantly. This IDTechEx report provides thorough discussion and analysis on LIB binders, PFAS restrictions, PVDF alternatives, and binder recycling technologies strategies, and economics.

Li-ion Battery Recycling Regulations

Policies and regulations in key regions will enforce targets for battery collection rates, material recovery efficiencies from recycling, and minimum contents of recycling materials in new batteries. This is particularly the case in the EU, as per the EU Battery Regulation, alongside India with its Waste Management Rules 2022. These targets increase over time, highlighting the importance of first establishing recycling capacity but then the need to expand these capacities and improve the efficiency of the technologies used. This IDTechEx report provides a policy and regulation deep-dive by region and includes analysis into the viability of recyclers and automotive OEMs meeting minimum recycled contents targets, as mandated in the EU Battery Regulation.

Forecasts

This IDTechEx report provides 20-year market forecasts on the Li-ion battery recycling market for the period 2023-2045, in both volume and market value. Forecast breakdowns are provided by region, cathode chemistry, LIB recycling feedstock / market sector (manufacturing scrap, EVs, energy storage systems, and consumer electronics), and key metals (lithium, nickel, cobalt, manganese, graphite, aluminium, iron, and aluminium and copper current collector foils) recovered. EVs are split into battery EV cars, other EVs (trucks, buses, light-commercial vehicles) and plug-in hybrid electric vehicles (PHEV). Data is provided in GWh, kilotonnes (kt) and US$B.

Company Profiles

This IDTechEx report includes 60+ company profiles, including Li-ion battery recyclers, and other players in the LIB circular economy such as collection logistics and transportation companies, graphite recyclers, and players developing advanced or semi-automated battery disassembly technologies.

Key Aspects

This report provides the following information:

In-depth analysis on the global Li-ion battery recycling market, featuring over 120 announcements made by Li-ion battery recyclers across the last few years. This includes key player activity, new and planned recycling facilities with their capacities, technologies, capacities, products, and facility roadmaps. Also included is key research on recycler funding and investments, strategic and supply agreements with automotive OEMs, collection logistics players, and chemical suppliers, etc. Other key announcements include joint ventures (JV), mergers and acquisitions (M&A), divestments, global expansions, and recycling stationary battery energy storage systems (BESS).
Comprehensive discussion and analysis on Li-ion battery recycling technologies, including mechanical, hydrometallurgical, pyrometallurgical, and direct recycling technologies.
A new and thorough investigation and landscape into direct recycling technologies is provided, including analyses on key players' technologies and technology readiness level (TRL), potential cost benefits, advantages and challenges to be overcome.
A new chapter on graphite recycling for Li-ion batteries is provided in this report, including discussion and analysis on the importance of graphite recycling, challenges to be overcome and key players' ability to recycle and recover battery-grade graphite. This discusses key graphite recycling technologies, and key player activity from LIB recyclers and smaller start-ups focused specifically on graphite recycling for Li-ion battery anodes. A patent analysis on graphite recycling is also provided, which discusses key LIB recyclers' technologies.
A new chapter including thorough discussion and analysis on LIB binders, PFAS restrictions, PVDF alternatives, and binder recycling technologies strategies, and economics.
Detailed analysis of Li-ion battery recycling value chain and economics of recycling. This includes key discussion on recycling different LIB chemistries, including LFP, key products from recycling, and key trends such as flow of key products and materials through the value chain, competition from second-life EV battery repurposing, EV batteries lasting longer than anticipated, and open-loop and closed-loop business models.
Key discussion and analysis on Li-ion battery recycling regulations and policies by region. This includes brand-new analysis from IDTechEx on the viability of LIB recyclers and automotive OEMs to meet EU Battery Regulation targets for minimum recycled contents in new EV batteries. This presents several scenarios which use the recycling of different feedstocks (EV batteries and manufacturing scrap) within the EU, at different collection rates.
An introduction and overview of the Li-ion battery market, different LIB applications, and the battery circular economy is also provided.
Granular 20-year Li-ion battery recycling forecasts, by region China, US, Europe, RoW (GWh, kilotonnes, value (US$B)), by chemistry LFP, LMFP, low-nickel, mid-nickel, high-nickel, ultra-high-nickel, Li-Mn-Rich, LNMO, LMO, LCO (GWh, kilotonnes) for the 2023 - 2045 period.
Granular 20-year market forecasts for critical battery materials and metals to be recovered from recycling lithium, nickel, cobalt, manganese, graphite, aluminium, iron, and aluminium and copper current collector foils (kilotonnes, value (US$B)) for the 2023 - 2045 period.
Granular 20-year market forecasts for Li-ion battery recycling by source of feedstock / market sector, including BEV cars, manufacturing scrap, other EVs (buses, trucks, LCVs), PHEV cars, energy storage systems (ESS), and consumer electronics (ktonnes) for the 2023 - 2045 period.
Each region China, US, Europe, RoW also includes its own forecast section, with breakdowns by cathode chemistry, source of recycling feedstock / market sector, and critical materials and metals to be recovered.
60+ company profiles including Li-ion battery recyclers, and other players in the LIB circular economy such as collection logistics and transportation companies, graphite recyclers, and players developing advanced or semi-automated battery disassembly technologies.

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1. EXECUTIVE SUMMARY

1.1. Introduction to Li-ion battery recycling and LIB circular economy

1.2. Li-ion battery recycling: key market conclusions

1.3. Key drivers and opportunities for Li-ion battery recycling

1.4. Key challenges in Li-ion battery recycling

1.5. Li-ion battery recycling technologies

1.6. Recycling technologies summary & comparison

1.7. Pyrometallurgy

1.8. Hydrometallurgy

1.9. Direct recycling summary

1.10. Advantages and disadvantages of Li-ion direct recycling technologies

1.11. Direct Li-ion recycling technology & commercial readiness levels by key player

1.12. Directly recycled electrode costs vs virgin electrode prices (US$/kg)

1.13. Graphite recycling summary

1.14. Graphite recycling technology summary

1.15. Key LIB recycling players in graphite recycling summary

1.16. Non-LIB-recyclers focused on battery-grade graphite recycling

1.17. LIB binders - summary on recycling, PFAS implications, and management strategies

1.18. LIB recycling technologies for binder recovery summary

1.19. Commercial feasibility of LIB binder recycling

1.20. EV battery recycling value chain

1.21. Key products from LIB recycling

1.22. Closed-loop value chain of electric vehicle batteries - sources of LIB recycling feedstock and flow of materials

1.23. Economics of recycling are influenced by the Li-ion chemistry and volatile material prices

1.24. Global LIB recycling capacity and player map

1.25. LIB recycling technology breakdown by region

1.26. LIB recycling market summary - key updates

1.27. LIB recycling facility announcements in 2023 and 2024 by region and type of announcement

1.28. New LIB recycling capacity by region and type of recycling technology (mechanical, hydrometallurgical / refining)

1.29. New global LIB recycling facilities and capacities map (2023-2024)

1.30. Funding raised by key Li-ion recycler and by country in 2023 and 2024 (US$M)

1.31. LIB recycling partnerships in 2023 and 2024 by country, region, and type of partnership (supply agreements, MOUs, JVs, etc.)

1.32. LIB recycling policies and regulations - global map

1.33. LIB recycling policy summary by region

1.34. Specific policy targets and funding summary by region

1.35. Viability of meeting EU Battery Regulation targets: minimum recycled contents

1.36. Global Li-ion battery recycling market 2023-2045 by region (GWh)

1.37. Global Li-ion battery recycling market 2023-2045 by chemistry (GWh)

1.38. Global Li-ion battery recycling market 2023-2045 by chemistry (GWh) - data table

1.39. Global Li-ion battery recycling market 2023-2045 by region (kilotonnes)

1.40. Global Li-ion battery recycling market 2023-2045 by chemistry (ktonnes)

1.41. Global Li-ion battery recycling market 2023-2045 by chemistry (ktonnes) - data table

1.42. Global recycled critical metals and materials from Li-ion batteries 2023-2045 (ktonnes)

1.43. Global recycled critical metals and materials from Li-ion batteries 2023-2045 (ktonnes) - data table

1.44. Global Li-ion battery recycling market value 2023-2045 by region (US$B)

1.45. Global Li-ion battery recycling market value 2023-2045 by material (US$B)

1.46. Global Li-ion battery recycling market value 2023-2045 by material (US$B)

2. INTRODUCTION AND LI-ION BATTERY MARKET OVERVIEW

2.1. What is a Li-ion battery?

2.2. The key markets for lithium-ion batteries (LIBs) and their applications

2.3. Cathode chemistry for different applications

2.4. Li-ion battery cathode outlook

2.5. Li-ion battery demand is driven by the EV sector

2.6. Types of lithium battery by anode

2.7. Anode materials

2.8. Cycle life and end-of-life

2.9. Why do batteries fail?

2.10. Li-ion degradation complexity

2.11. What happens to end-of-life Li-ion batteries

2.12. When will Li-ion batteries be recycled?

2.13. Li-ion battery circular economy

2.14. Drivers and restraints for LIB recycling

3. RECYCLING REGULATIONS AND POLICY

3.1. Recycling regulations and policy summary

3.1.1. Executive summary (1)

3.1.2. Executive summary (2)

3.1.3. Can EU Battery Regulation minimum recycled contents in new EV batteries be met? (Analysis of lithium, cobalt, and nickel demand in EVs in Europe)

3.1.4. Summary - EU Battery Regulation minimum recycled contents targets for new EV batteries in the EU being met in certain scenarios

3.1.5. Recycling policies and regulations map

3.1.6. Policy Summary

3.1.7. Specific policy targets and funding summary by region

3.1.8. Battery circular economy

3.1.9. Benefits of recycling regulation

3.1.10. Extended producer responsibility

3.1.11. Transportation

3.2. China

3.2.1. China's specifications

3.2.2. Overview of Chinese regulations

3.2.3. China's policy framework

3.2.4. The EV battery traceability management system in China

3.2.5. China's Traceability Management Platform

3.2.6. Drawbacks of Chinas policy framework

3.3. EU

3.3.1. EU critical raw materials

3.3.2. EU Battery Regulation commentary

3.3.3. Can EU Battery Regulation minimum recycled contents in new EV batteries be met? (Analysis of lithium, cobalt, and nickel demand in EVs in Europe)

3.3.4. Scenario 1 - New BEV car batteries using recycled metals derived from European BEV cars (100% collection rate)

3.3.5. Scenario 2 - New BEV car batteries using recycled metals derived from European BEV cars (75% collection rate)

3.3.6. Scenario 3 - New BEV car batteries using recycled metals derived from European cell manufacturing scrap (100% collection rate)

3.3.7. Scenario 4 - New BEV car batteries using recycled metals derived from European cell manufacturing scrap and European BEV cars (75% collection rate)

3.3.8. Scenario 5 - New BEV car batteries using recycled metals derived from European cell manufacturing scrap and European BEV cars [excluding LFP] (75% collection rate)

3.3.9. Summary - viability to Meet EU Battery Regulation minimum recycled contents targets for new EV batteries in 2031 and 2036

3.3.10. Viability of meeting EU Battery Regulation targets: minimum recycled contents

3.4. US

3.4.1. US Critical Minerals Act

3.4.2. Inflation Reduction Act

3.4.3. US Li-ion battery recycling incentives and tax breaks (examples pre-IRA)

3.4.4. US policy

3.4.5. National Blueprint for Lithium Batteries (US)

3.5. India

3.5.1. India's Battery Waste Management Rules

3.6. UK

3.6.1. Building a policy framework in the UK

3.6.2. UK battery recycling industry

3.7. South Korea and Japan

3.7.1. South Korea and Japan

3.8. Australia

3.8.1. Australia

3.8.2. Battery Stewardship Scheme and ABRI

4. LI-ION RECYCLING TECHNOLOGIES AND PROCESSES

4.1. Introduction to Li-ion recycling technologies and processes

4.1.1. Recycling history - Pb-acid

4.1.2. Pb-acid batteries

4.1.3. Pb-acid vs Li-ion cost breakdown

4.1.4. Lessons to be learned

4.1.5. Recycling alkaline cells

4.1.6. Drivers for recycling Li-ion batteries

4.1.7. Constraints on recycling Li-ion batteries

4.1.8. LIB recycling process overview

4.1.9. Recycling feedstock streams

4.1.10. Li-ion battery recycling technologies

4.1.11. LIB recycling approaches overview and recycler capabilities

4.1.12. BEV LIB recycling mass flow

4.2. Mechanical LIB recycling

4.2.1. Recycling different Li-ion batteries

4.2.2. Lack of pack standardisation

4.2.3. EV LIB discharge and disassembly

4.2.4. LIB disassembly

4.2.5. Mechanical processing and separation

4.2.6. Mechanical processing and separation process example

4.2.7. Pack-level or module-level shredding?

4.2.8. Recycling pre-treatments and processing

4.2.9. Sieving

4.2.10. Gravity separation/Eddy current separation

4.2.11. Froth flotation

4.2.12. Mechanical separation flow diagram

4.2.13. Recupyl mechanical separation flow diagram

4.2.14. TES-AMM black mass process

4.3. Pyrometallurgy

4.3.1. Pyrometallurgical recycling

4.3.2. Pyrometallurgical recycling

4.3.3. Pyrometallurgical recycling strengths/weaknesses

4.3.4. Umicore recycling flow diagram

4.4. Hydrometallurgy and material recovery

4.4.1. Hydrometallurgical recycling

4.4.2. Hydrometallurgical recycling strengths/weaknesses

4.4.3. Recycling example via hydrometallurgy

4.4.4. Recupyl recycling flow diagram

4.4.5. TES-AMM hydrometallurgical process flow diagram

4.4.6. Electrometallurgy

4.4.7. Solvent extraction

4.4.8. Precipitation

4.4.9. Opportunities in Li-ion recycling

4.5. Direct recycling technologies and market activity

4.5.1. Direct recycling summary

4.5.2. Advantages and disadvantages of Li-ion direct recycling technologies

4.5.3. Direct Li-ion recycling technology & commercial readiness levels by key player

4.5.4. Introduction to direct recycling

4.5.5. Direct Li-ion recycling process flowchart

4.5.6. Pre-processing

4.5.7. Electrolyte separation

4.5.8. Cathode-cathode and cathode-anode separation

4.5.9. Binder removal

4.5.10. Relithiation

4.5.11. Solid-state and electrochemical relithiation

4.5.12. Upcycling older Li-ion chemistries to newer chemistries via direct recycling

4.5.13. Feedstock for direct Li-ion recycling: electrode manufacturing scrap, cell manufacturing scrap, and EOL LIBs

4.5.14. Li-ion manufacturing scrap compositions

4.5.15. Direct Li-ion recycling flowchart using different feedstocks: electrode manufacturing scrap, cell manufacturing scrap, and EOL LIBs

4.5.16. Directly recycled electrode costs vs virgin electrode prices (US$/kg)

4.5.17. Life-cycle analysis of Li-ion recycling technologies

4.5.18. OnTo Technology

4.5.19. OnTo Technology Cathode HealingTM (hydrothermal)

4.5.20. OnTo Technology Cathode HealingTM vs solid-state relithiation

4.5.21. OnTo Technology - performance of cells using rejuvenated cathode via direct recycling (1)

4.5.22. OnTo Technology - performance of cells using rejuvenated cathode via direct recycling (2)

4.5.23. OnTo Technology - cost of directly recycled LFP cathode production vs virgin LFP cathode price

4.5.24. OnTo Technology - demonstration project of mobile EOL LIB neutralization technology

4.5.25. Princeton NuEnergy - direct recycling technology and flagship facility

4.5.26. Princeton NuEnergy - direct recycling technology patent and key advantages

4.5.27. Princeton NuEnergy - patent for CAM upcycling to meet current Li-ion chemistry market demand

4.5.28. Princeton NuEnergy - cell performance using directly recycled cathode

4.5.29. Li Industries - funding for direct LFP CAM recycling plant and direct recycling technology

4.5.30. ReCell Center overview

4.5.31. ReCell Center - key direct recycling developments

4.5.32. Oak Ridge National Laboratory - separation of electrodes and current collectors as part of direct recycling

4.5.33. Oak Ridge National Laboratory - solvent-based separation of electrodes and current collectors

4.5.34. Oak Ridge National Laboratory - delamination of cathode materials from current collectors

4.5.35. Oak Ridge National Laboratory - technology costs and challenges

4.5.36. Botree Cycling - direct recycling technology for cathode scraps

4.5.37. Botree Cycling - recycled cathode scrap electrochemical performance

4.5.38. Fraunhofer IWKS shockwave and direct recycling technology (1)

4.5.39. Fraunhofer IWKS shockwave and direct recycling technology (2)

4.5.40. CellCircle mechanical-plus-direct recycling technology

4.5.41. CellCircle mechanical-plus-direct recycling technology and Project "ReUse"

4.5.42. Hydrometallurgical-direct hybrid recycling technologies: Ascend Elements and RecycLiCo

4.6. Recycling technology conclusions

4.6.1. Trends in Li-ion recycling

4.6.2. Recycling methods map

4.6.3. Li-ion production chain/loop

4.6.4. Designed for recycling

4.6.5. Recycling technology conclusions

4.6.6. Recycling technologies summary & comparison

5. GRAPHITE RECYCLING FOR LI-ION BATTERIES

5.1. Graphite recycling summary

5.1.1. Graphite recycling summary

5.1.2. Graphite recycling technology summary

5.1.3. Non-LIB-recyclers focused on battery-grade graphite recycling

5.1.4. Key LIB recycling players in graphite recycling summary

5.2. Introduction to graphite anodes in Li-ion batteries

5.2.1. Introduction to graphite in Li-ion battery anodes

5.2.2. Importance of de-risking graphite supply dependencies

5.2.3. Impact of graphite costs and existing LIB recycling technologies on graphite recovery

5.3. Lab-stage graphite recycling technologies

5.3.1. Graphite recycling technologies being developed at lab-scale

5.3.2. Lab-stage graphite recycling technology summary

5.3.3. Key examples of graphite recycling processes at lab-scale

5.3.4. Graphite recycling process with 99.9% purity and 85% process efficiency (1)

5.3.5. Graphite recycling process with 99.9% purity and 85% process efficiency (2)

5.3.6. Graphite recycling process with acid washing

5.3.7. Microwave stripping of graphite from copper foils

5.4. Graphite recycling players in the battery industry

5.4.1. Green Graphite Technologies

5.4.2. Green Graphite Technologies patent

5.4.3. EcoGraf

5.4.4. Graphite One

5.4.5. X-BATT

5.5. Li-ion battery recyclers developing graphite recycling technologies

5.5.1. Ascend Elements' progress on graphite recycling (1)

5.5.2. Ascend Elements' progress on graphite recycling (2)

5.5.3. Other key Li-ion recycler player activity in graphite recycling (1)

5.5.4. Other key Li-ion recycler player activity in graphite recycling (2)

5.6. Key player graphite recycling patent analysis

5.6.1. Graphite recycling patent overview from key Li-ion recyclers

5.6.2. Ascend Elements patent US20240286905A1 - "Recycled graphite for Li-ion batteries"

5.6.3. Attero Recycling patents WO2024079705A1 and IN202211026297A

5.6.4. BRUNP Recycling - graphite recycling patent WO2025007240A1

5.6.5. BRUNP Recycling - graphite recycling patent WO2024216488A1

5.6.6. BRUNP Recycling - graphite recycling patent US20210376305A1

5.6.7. BRUNP Recycling - graphite recycling patent EP4407747A1

5.6.8. Farasis recycling process patent

6. LIB BINDER RECYCLING, PFAS IMPLICATIONS AND ALTERNATIVES

6.1. Summary and introduction

6.1.1. LIB binders - summary on recycling, PFAS implications, and management strategies

6.1.2. Binders in Li-ion batteries

6.1.3. Introduction to PFAS

6.1.4. Growing concerns about the negative impact of PFAS

6.1.5. A spectrum of PFAS regulations exists globally

6.2. Alternative LIB binder materials, PFAS management strategies & economics of binder recycling

6.2.1. Binders - aqueous vs non-aqueous and alternatives to PVDF

6.2.2. Summary of binder material alternatives for LIBs

6.2.3. OnTo Technology - early stage PFAS-free binder development for LIBs

6.2.4. Management strategies for PVDF binders in LIBs - recycling

6.2.5. LIB recycling technologies: advantages and disadvantages for binder recycling

6.2.6. Direct LIB recycling for binder recovery in LIBs

6.2.7. LIB recycling technologies for binder recovery summary

6.2.8. Commercial feasibility of LIB binder recycling

6.2.9. Further research on PFAS alternatives, regulations, and treatment, and materials for EV battery cells and packs

7. VALUE CHAIN AND BUSINESS MODELS FOR LI-ION BATTERY RECYCLING

7.1. Why do batteries fail?

7.2. What happens to end-of-life Li-ion batteries

7.3. Li-ion battery circular economy

7.4. Overview of the Li-ion battery recycling value chain

7.5. Closed-loop value chain of electric vehicle batteries - sources of recycling feedstock and flow of materials

7.6. Key products from LIB recycling

7.7. EV battery recycling value chain

7.8. The lifecycle view of EV battery recycling value chain

7.9. When will Li-ion batteries be recycled?

7.10. Reports of EV batteries lasting longer than anticipated (1)

7.11. Reports of EV batteries lasting longer than anticipated (2)

7.12. Is recycling Li-ion batteries economic?

7.13. Economics of recycling are influenced by the Li-ion chemistry and volatile material prices

7.14. Recycling or second-life? (1)

7.15. Recycling or second-life (2)?

7.16. Recycling LFP batteries

7.17. Further research on second-life EV batteries

7.18. European market trends from Battery Recycling Conference & Expo 2024 (1)

7.19. European market trends from Battery Recycling Conference & Expo 2024 (2)

7.20. Impact of recycling on Li-ion battery cost reduction

7.21. Reverse logistics of Li-ion battery collection

7.22. Case study of an EV battery collection network in China

7.23. Battery sorting and disassembling

7.24. Design for recycling

7.25. Concluding remarks

8. LI-ION BATTERY RECYCLING MARKET

8.1. Li-ion battery recycling market summary

8.1.1. LIB recycling market summary - key updates

8.1.2. Global LIB recycling capacity

8.1.3. Location of Li-ion recycling companies

8.1.4. Global LIB recycling capacity and player map

8.1.5. New LIB recycling capacity by region and type of recycling technology (mechanical, hydrometallurgical / refining)

8.1.6. New global LIB recycling facilities and capacities map (2023-2024)

8.1.7. China LIB LIB recycling capacity by player

8.1.8. Asia-Pacific (excl. China) LIB recycling capacity by player

8.1.9. Europe LIB recycling capacity by player

8.1.10. North America LIB recycling capacity by player

8.1.11. Sector involvement in LIB recycling

8.1.12. Recycling commercialization stages by region

8.1.13. LIB recycling technology breakdown by region

8.2. Li-ion recycling announcement timeline: 2023-January 2025

8.2.1. Overview of global Li-ion recycling announcements in 2023 and 2024

8.2.2. Global Li-ion recycling market and player updates in 2023 (1)

8.2.3. Global Li-ion recycling market and player updates in 2023 (2)

8.2.4. Global Li-ion recycling market and player updates in 2023 (3)

8.2.5. Global Li-ion recycling market and player updates in 2024 (1)

8.2.6. Global Li-ion recycling market and player updates in 2024 (2)

8.2.7. Global Li-ion recycling market and player updates in 2024 (3)

8.2.8. Global Li-ion recycling market and player updates in 2024 and January 2025

8.3. LIB recycling facilities updates 2023 - 2024

8.3.1. Recycling facility announcements made by Li-ion recyclers in 2023 and 2024

8.3.2. LIB recycling facility announcements in 2023 and 2024 by region and type of announcement

8.3.3. New LIB recycling capacity by region and type of recycling technology (mechanical, hydrometallurgical / refining)

8.3.4. New global LIB recycling facilities and capacities map (2023-2024)

8.3.5. LIB recycling facility announcements - Europe (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) (1)

8.3.6. LIB recycling facility announcements - Europe (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) (2)

8.3.7. LIB recycling facility announcements - Europe (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) (3)

8.3.8. LIB recycling facility announcements - Europe (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) (4)

8.3.9. LIB recycling facility announcements - Europe (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) (5)

8.3.10. LIB recycling facility announcements - Europe (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) (5)

8.3.11. LIB recycling facility announcements - North America (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) (1)

8.3.12. LIB recycling facility announcements - North America (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) (2)

8.3.13. LIB recycling facility announcements - North America (commissioning, new plans, construction updates, JVs, LOIs, pilot plants) ()

8.3.14. LIB recycling facility announcements - Asia-Pacific (1) (commissioning, new plans, construction updates, JVs, LOIs, pilot plants)

8.3.15. LIB recycling facility announcements - Asia-Pacific (1) (commissioning, new plans, construction updates, JVs, LOIs, pilot plants)

8.3.16. LIB recycling facility announcements - Africa, Middle East (commissioning, new plans, construction updates, JVs, LOIs, pilot plants)

8.3.17. New global LIB recycling facilities in 2023 and 2024 - by capacity, player, country, recycling technology, and end product

8.3.18. New LIB recycling facilities in 2023 and 2024 - by capacity, player, country, recycling technology, and end product (Asia-Pacific)

8.3.19. New LIB recycling facilities in 2023 and 2024 - by capacity, player, country, recycling technology, and end product (North America)

8.3.20. New LIB recycling facilities in 2023 and 2024 - by capacity, player, country, recycling technology, and end product (Europe)

8.3.21. Li-ion battery recycling capacity roadmap: China

8.3.22. Li-ion battery recycling capacity roadmap: Asia-Pacific (excl. China)

8.3.23. Li-ion battery recycling capacity roadmap: North America

8.3.24. Li-ion battery recycling capacity roadmap: Europe (1)

8.3.25. Li-ion battery recycling capacity roadmap: Europe (2)

8.3.26. Li-ion battery recycling capacity roadmap: Africa, Middle East

8.4. Funding & investments updates 2023 - 2024

8.4.1. Types of financial raises made by Li-ion recyclers in 2023 and 2024

8.4.2. Funding raised by key Li-ion recycler in 2023 and 2024 (US$M)

8.4.3. Li-ion recycler funding raised by country in 2023 and 2024 (US$M)

8.4.4. Funding raised by North American LIB recyclers by type of funding in 2023 and 2024 (US$M)

8.4.5. Key funding and investments received by LIB recyclers in 2023 and 2024 (North America) (1)

8.4.6. Key funding and investments received by LIB recyclers in 2023 and 2024 (North America) (2)

8.4.7. Key funding and investments received by LIB recyclers in 2023 and 2024 (North America) (3)

8.4.8. Key funding and investments received by LIB recyclers in 2023 and 2024 (North America) (4)

8.4.9. Key funding and investments received by LIB recyclers in 2023 and 2024 (North America) (5)

8.4.10. Key funding and investments received by LIB recyclers in 2023 and 2024 (North America) (6)

8.4.11. Key funding and investments received by LIB recyclers in 2023 and 2024 (Europe) (1)

8.4.12. Key funding and investments received by LIB recyclers in 2023 and 2024 (Europe) (2)

8.4.13. Key funding and investments received by LIB recyclers in 2023 and 2024 (Europe) (3)

8.4.14. Key funding and investments received by LIB recyclers in 2023 and 2024 (South Korea, Morocco, India)

8.5. Partnerships updates 2023 - 2024: supply & strategic agreements, MOUs, JVs, second-life batteries

8.5.1. Types of partnerships made by Li-ion recyclers in 2023 and 2024

8.5.2. Where are most LIB recycling partnerships being formed? (LIB recycling partnerships in 2023 and 2024 by country and region)

8.5.3. Key LIB recycler partnerships - North America (supply & strategic agreements, MOUs, JVs, second-life batteries) (1)

8.5.4. Key LIB recycler partnerships - North America (supply & strategic agreements, MOUs, JVs, second-life batteries) (2)

8.5.5. Key LIB recycler partnerships - North America (supply & strategic agreements, MOUs, JVs, second-life batteries) (2)

8.5.6. Key LIB recycler partnerships - North America (supply & strategic agreements, MOUs, JVs, second-life batteries) (3)

8.5.7. Key LIB recycler partnerships - Europe (supply & strategic agreements, MOUs, JVs, second-life batteries) (1)

8.5.8. Key LIB recycler partnerships - Europe (supply & strategic agreements, MOUs, JVs, second-life batteries) (2)

8.5.9. Key LIB recycler partnerships - Europe (supply & strategic agreements, MOUs, JVs, second-life batteries) (3)

8.5.10. Key LIB recycler partnerships - Asia-Pacific (supply & strategic agreements, MOUs, JVs, second-life batteries)

8.5.11. Key LIB recycler partnerships - Asia-Pacific & Africa (supply & strategic agreements, MOUs, JVs, second-life batteries)

8.5.12. South Korean Li-ion recycling company relationships

8.5.13. Li-Cycle and Glencore company relationships

8.6. Other key announcements updates 2023-2025: technologies, divestments, acquisitions, etc.

8.6.1. Other key LIB recycling announcements made in 2023 and 2024

8.6.2. Other LIB recycling announcements (technologies, divestments, player expansions, acquisitions, recycling stationary BESS) (1)

8.6.3. Other LIB recycling announcements (technologies, divestments, player expansions, acquisitions, recycling stationary BESS) (2)

8.7. Q4 2021-Q1 2023 updates timeline

8.7.1. Li-ion battery recycling timeline Q4 2021 - Q3 2022

8.7.2. Li-ion battery recycling timeline Q4 2022 - Q1 2023

8.7.3. November 2021 - January 2022

8.7.4. January 2022 - April 2022

8.7.5. May 2022 - June 2022

8.7.6. August 2022 - September 2022

8.7.7. October 2022

8.7.8. November 2022 - December 2022

8.7.9. December 2022 - February 2023

8.7.10. February 2023 - March 2023

9. LI-ION RECYCLING MARKET FORECASTS 2023 - 2045

9.1. Forecast summary and methodology

9.1.1. Global LIB recycling forecasts summary

9.1.2. LIB recycling forecast methodology (1)

9.1.3. LIB recycling forecast methodology (2)

9.1.4. Reports of EV batteries lasting longer than anticipated (1)

9.1.5. Reports of EV batteries lasting longer than anticipated (2)

9.1.6. LFP and other LIB material considerations

9.2. Global LIB recycling forecasts

9.2.1. Global Li-ion battery recycling market 2023-2045 by region (GWh)

9.2.2. Global Li-ion battery recycling market 2023-2045 by chemistry (GWh)

9.2.3. Global Li-ion battery recycling market 2023-2045 by chemistry (GWh) - data table

9.2.4. Global Li-ion battery recycling market 2023-2045 by region (kilotonnes)

9.2.5. Global Li-ion battery recycling market 2023-2045 by chemistry (ktonnes)

9.2.6. Global Li-ion battery recycling market 2023-2045 by chemistry (ktonnes) - data table

9.2.7. Global Li-ion battery recycling market by chemistry in major regions

9.2.8. Global recycled critical metals and materials from Li-ion batteries 2023-2045 (ktonnes)

9.2.9. Global recycled critical metals and materials from Li-ion batteries 2023-2045 (ktonnes) - data table

9.2.10. Material price assumptions

9.2.11. Global Li-ion battery recycling market value 2023-2045 by region (US$B)

9.2.12. Global Li-ion battery recycling value market share by region in 2025, 2035, and 2045

9.2.13. Global Li-ion battery recycling market value 2023-2045 by material (US$B)

9.2.14. Global Li-ion battery recycling market value 2023-2045 by material (US$B)

9.3. China LIB recycling forecasts

9.3.1. Li-ion battery recycling market 2023-2045 in China by sector (GWh)

9.3.2. Li-ion battery recycling market 2023-2045 in China by sector (ktonnes)

9.3.3. Li-ion battery recycling market share by sector in China (ktonnes) in 2025, 2035, and 2045

9.3.4. Li-ion battery recycling market 2023-2045 in China by chemistry (GWh)

9.3.5. Li-ion battery recycling market 2023-2045 in China by chemistry (GWh) - data table

9.3.6. Li-ion battery recycling market 2023-2045 in China by chemistry (ktonnes)

9.3.7. Li-ion battery recycling market 2023-2045 in China by chemistry (ktonnes) - data table

9.3.8. Li-ion battery recycling market share by chemistry in China (ktonnes) in 2025, 2035, and 2045

9.3.9. Recycled critical metals and materials from Li-ion batteries 2023-2045 in China (ktonnes)

9.3.10. Recycled critical metals and materials from Li-ion batteries 2023-2045 in China (ktonnes) - data table

9.4. US LIB recycling forecasts

9.4.1. Li-ion battery recycling market 2023-2045 in US by sector (GWh)

9.4.2. Li-ion battery recycling market 2023-2045 in US by sector (ktonnes)

9.4.3. Li-ion battery recycling market share by sector in US (ktonnes) in 2025, 2035, and 2045

9.4.4. Li-ion battery recycling market 2023-2045 in US by chemistry (GWh)

9.4.5. Li-ion battery recycling market 2023-2045 in US by chemistry (GWh) - data table

9.4.6. Li-ion battery recycling market 2023-2045 in US by chemistry (ktonnes)

9.4.7. Li-ion battery recycling market 2023-2045 in US by chemistry (ktonnes) - data table

9.4.8. Li-ion battery recycling market share by chemistry in US (ktonnes) in 2025, 2035, and 2045

9.4.9. Recycled critical metals and materials from Li-ion batteries 2023-2045 in US (ktonnes)

9.4.10. Recycled critical metals and materials from Li-ion batteries 2023-2045 in US (ktonnes) - data table

9.5. Europe LIB recycling forecasts

9.5.1. Li-ion battery recycling market 2023-2045 in Europe by sector (GWh)

9.5.2. Li-ion battery recycling market 2023-2045 in Europe by sector (ktonnes)

9.5.3. Li-ion battery recycling market share by sector in Europe (ktonnes) in 2025, 2035, and 2045

9.5.4. Li-ion battery recycling market 2023-2045 in Europe by chemistry (GWh)

9.5.5. Li-ion battery recycling market 2023-2045 in Europe by chemistry (GWh) - data table

9.5.6. Li-ion battery recycling market 2023-2045 in Europe by chemistry (ktonnes)

9.5.7. Li-ion battery recycling market 2023-2045 in Europe by chemistry (ktonnes) - data table

9.5.8. Li-ion battery recycling market share by chemistry in Europe (ktonnes) in 2025, 2035, and 2045

9.5.9. Recycled critical metals and materials from Li-ion batteries 2023-2045 in Europe (ktonnes)

9.5.10. Recycled critical metals and materials from Li-ion batteries 2023-2045 in Europe (ktonnes) - data table

9.6. Rest of the World (RoW)

9.6.1. Li-ion battery recycling market 2023-2045 in RoW by sector (GWh)

9.6.2. Li-ion battery recycling market 2023-2045 in RoW by sector (ktonnes)

9.6.3. Li-ion battery recycling market share by sector in RoW (ktonnes) in 2025, 2035, and 2045

9.6.4. Li-ion battery recycling market 2023-2045 in RoW by chemistry (GWh)

9.6.5. Li-ion battery recycling market 2023-2045 in RoW by chemistry (GWh) - data table

9.6.6. Li-ion battery recycling market 2023-2045 in RoW by chemistry (ktonnes)

9.6.7. Li-ion battery recycling market 2023-2045 in RoW by chemistry (ktonnes) - data table

9.6.8. Li-ion battery recycling market share by chemistry in RoW (ktonnes) in 2025, 2035, and 2045

9.6.9. Recycled critical metals and materials from Li-ion batteries 2023-2045 in RoW (ktonnes)

9.6.10. Recycled critical metals and materials from Li-ion batteries 2023-2045 in RoW (ktonnes) - data table

9.7. Global LIB recycling market by sector / source of feedstock 2023-2045

9.7.1. Global Li-ion battery recycling market 2023-2045 by sector (ktonnes)

9.7.2. Global LIB recycling market 2023-2045 for manufacturing scrap as feedstock (ktonnes)

9.7.3. Global capacity of LIBs available for recycling from EVs vs global second-life battery installations 2023-2045 (GWh)

9.7.4. Global LIB recycling market 2023-2045 for BEV cars by chemistry (ktonnes)

9.7.5. Global LIB recycling market 2023-2045 for other EVs (buses, LCVs, trucks), and PHEVs by chemistry (ktonnes)

9.7.6. Global LIB recycling market 2029-2045 for ESS (ktonnes)

9.7.7. Global LIB recycling market 2029-2045 for consumer electronics (ktonnes)

10. COMPANY PROFILES

10.1. ABTC (2023)

10.2. Accurec (2023)

10.3. ACE Green Recycling (2023)

10.4. Altilium (2025)

10.5. Aqua Metals (2025)

10.6. Ascend Elements (2023)

10.7. Botree Cycling (2024)

10.8. Botree Cycling (2023)

10.9. CellCircle (2024)

10.10. Cirba Solutions (2023)

10.11. Cirba Solutions (2023)

10.12. Circu Li-ion (2024)

10.13. Circunomics (2024)

10.14. Cylib (2025)

10.15. Cylib (2024)

10.16. Duesenfeld (2024)

10.17. Ecobat (2023)

10.18. Ecobat (2023)

10.19. EcoGraf (2025)

10.20. Electra Battery Materials (2025)

10.21. Envirostream (2025)

10.22. Exigo Recycling (2023)

10.23. Exitcom Recycling (2024)

10.24. FAMCe (2023)

10.25. Fortum (2024)

10.26. Fortum (2023)

10.27. Fraunhofer IWKS (2024)

10.28. Graphite One (2025)

10.29. Green Graphite Technologies (2025)

10.30. Huayou Recycling (2024)

10.31. Li-Cycle (2023)

10.32. Li-Cycle (2023)

10.33. Librec (2023)

10.34. Liebherr-Verzahntechnik GmbH (2024)

10.35. Lithion Recycling (2021)

10.36. Lithion Technologies (2023)

10.37. Lithium Australia (Envirostream) (2023)

10.38. Lohum (2023)

10.39. Mecaware (2024)

10.40. NEU Battery Materials (2024)

10.41. Nickelhütte Aue GmbH (2024)

10.42. Northvolt (2021)

10.43. Nth Cycle (2025)

10.44. OnTo Technology (2023)

10.45. POSCO (2023)

10.46. Pure Battery Technologies (2023)

10.47. Primobius (2023)

10.48. RecycLiCo (2023)

10.49. Redivivus (2021)

10.50. Redwood Materials (2025)

10.51. Redwood Materials (2021)

10.52. SK tes (2024)

10.53. SungEel Hi-Tech (2023)

10.54. TES-AMM

10.55. Umicore (2024)

10.56. Umicore (2022)

10.57. URT Umwelt- und Recyclingtechnik GmbH (2024)

10.58. Veolia (2024)

10.59. Veolia (2023)

10.60. Wanhua Chemical Group (2024)

10.61. X-BATT (2025)

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リチウムイオン電池リサイクル市場2025-2045：市場、予測、技術、プレイヤー

サマリー

リチウムイオン電池のリサイクル市場の動きとバリューチェーン

LIBリサイクル技術の進歩 - 直接リサイクル、グラファイト、バインダー

リチウムイオン電池のリサイクル規制

予測

企業プロファイル

主要な側面

目次

Summary

Li-ion Battery Recycling Market Activity and Value Chain

Advancements in LIB Recycling Technologies - Direct Recycling, Graphite and Binders

Li-ion Battery Recycling Regulations

Forecasts

Company Profiles

Key Aspects

Table of Contents

ご注文は、お電話またはWEBから承ります。お見積もりの作成もお気軽にご相談ください。

本レポートと同分野（電池）の最新刊レポート

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データリソース社はどのような会社ですか?