クリティカル・マテリアル回収 2026-2046年：技術、市場、プレーヤー

Critical Material Recovery 2026-2046: Technologies, Markets, Players

二次ソースの重要材料抽出技術、重要材料回収技術、レアアースリサイクル、リチウムイオン電池技術の金属回収、重要半導体回収、白金族金属回収の市場 IDTechExは、2046年までに年間810万トン... 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9月9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	300	英語

サマリー

二次ソースの重要材料抽出技術、重要材料回収技術、レアアースリサイクル、リチウムイオン電池技術の金属回収、重要半導体回収、白金族金属回収の市場

IDTechExは、2046年までに年間810万トンを超える重要材料が廃棄物から回収され、これは660億米ドルを超える価値のある材料に相当すると予測している。使用済み機器、自動車、電気自動車、電子廃棄物、製造スクラップを含む二次原料は、貴重な重要材料の急速な出現源である。本レポートでは、重要素材回収市場、主要な抽出・回収技術、新たな二次原料、市場プレイヤーを特徴付けています。希土類元素、リチウムイオン電池材料、白金族金属、重要半導体を含む4つの主要な重要材料セグメントについて、最新の重要材料回収イノベーションを調査しています。IDTechExは、重要材料回収市場が2026年から2046年にかけて年平均成長率9.2%で成長すると予測し、価値機会の拡大を特定している。

重要材料とは、供給リスクが高く、地域経済にとって経済的価値の高い戦略的材料と定義される。リチウム、ニッケル、コバルト、グラファイト、レアアース、白金族金属、シリコン、その他の半導体などの重要材料は、輸送、エネルギー、通信、産業、消費者、防衛の各用途で不可欠である。重要素材のサプライチェーンが地理的に局所化していることは、世界経済に大きなリスクをもたらし、輸出規制の強化が圧力をかけ続けている。世界中で重要素材が増加するにつれ、戦略的素材供給を多様化し再保有するために、代替ソースからの重要素材回収を求める強い市場牽引力が存在する。

製造スクラップ、使用済み製品、廃棄物などの二次的な供給源から重要素材を回収することで、廃棄物の流れを有効利用しながら供給リスクを軽減することができる。重要材料が電気自動車、脱炭素エネルギー、高性能コンピューティング、AIアプリケーションに集約されるにつれて、消費時点で生産される使用済み機器が重要な重要材料供給源となる。IDTechExの報告書では、主要な新興重要材料原料の特徴を明らかにし、重要材料リサイクルの経済性と回収を支えるビジネスモデルを評価している。

重要材料の回収技術は、ほぼ準備が整っている。次の問題は、二次的な材料源としてどれだけ容易に再利用できるかである。一次鉱物処理のために開拓された高温冶金および湿式冶金による重要物質回収技術は、高い回収効率で拡張可能であるため、二次原料の流れに展開するのに適している。未解決の課題は、二次原料の複雑な組成プロファイルに回収プロセスを適合させることである。二次原料は、一般的に、プラスチック、接着剤、低価金属、無機材料と重要材料の混合物を含む。本レポートでは、13の重要材料抽出技術を評価し、SWOT分析、技術準備レベルのベンチマーク、商業応用に関するケーススタディを提供している。

このIDTechEx調査レポートは、4つの重要材料セグメントを調査している：リチウムイオン電池材料、希土類元素、白金族金属、重要半導体である。白金族金属回収は、最も成熟した重要材料回収セグメントであり、世界的な一次供給量の少なさと、白金、パラジウム、イリジウム、ロジウム金属の本質的価値の高さに牽引されている。IDTechExは、自動車触媒、宝飾品、電子機器からの大量プラチナ族金属回収が、いかにして新たな重要素材回収市場へのロードマップとなり得るかについて論じている。本レポートはまた、水素燃料電池と水電解槽技術における白金族金属の役割を特徴付け、グリーン水素触媒リサイクルの発展を評価する。

重要な電池材料回収は最も急成長している市場セグメントであり、IDTechExは2046年までに年平均成長率15.9％で成長すると予測している。リチウムイオンバッテリーのリサイクルは、大量の電気自動車が使用済みとなり、リチウム、ニッケル、コバルト、グラファイト、銅、マンガンの二次供給の新たな流れが生まれることから、2030年代半ばに本格化すると見られている。IDTechExの本レポートは、湿式冶金、乾式冶金、直接リチウムイオン電池リサイクル技術を包括的に評価し、ベンチマークを行っている。また、規制、リチウムイオンバッテリーリサイクルの経済性、リサイクル能力、主要なバッテリーリサイクル業者、ビジネスモデルなどの市場動向についても論じています。

磁石からの重要なレアアースリサイクルは、レアアース元素が世界的に輸出規制の強化に直面しているため、主要な成長市場となっています。レアアースは、電気自動車モーター、風力タービンエネルギー発電機、ハードディスクドライブのアクチュエーターに使用される高性能NdFeBおよびSmCo磁石の重要な材料です。世界のレアアース磁石供給の88%以上が中国に集約されており、重要なレアアース元素のリサイクル技術には強い市場牽引力が存在します。本レポートでは、ロングループおよびショートループのレアアース磁石リサイクルのための溶媒抽出、液体クロマトグラフィー、水素脱硝、粉末冶金技術を批判的に評価しています。IDTechExは、2026年から2046年にかけての新たな循環型サプライチェーン、レアアースリサイクラー、リサイクル能力、供給原料の入手可能性を特徴づけています。

電子廃棄物（e-waste）と太陽光発電からの重要な半導体回収は、リサイクル技術の革新に依存する。クリティカル半導体の回収には自動分解技術が台頭しており、高価値材料コンポーネントの効率的な回収と、太陽光発電リサイクルのOpExコストの最適化を提供する。本レポートでは、2026年における重要なシリコン、インジウム、ガリウム、ゲルマニウム、テルルの回収技術と、リサイクルを支える市場ダイナミクスを特徴づける。

本レポートの主な内容

二次ソースからの重要材料抽出および重要材料回収技術のレビュー

二次ソースからの重要材料抽出および回収のために出現した重要技術の概要
重要材料回収技術の批判的評価、ベンチマーク、技術準備レベル分析
湿式冶金、乾式冶金、イオン液体、溶媒抽出、イオン交換、および直接リサイクル技術を含む、重要物質抽出・回収技術の 15 の SWOT 分析
主要な重要材料回収技術が二次資源に提示する進化する価値提案の議論

主要な二次ソースセグメントにおける重要材料回収技術の完全な市場特性評価

レアアース元素、リチウムイオン電池技術金属、半導体と電子廃棄物市場、白金族金属を含む重要材料市場セグメントの広範な特性評価
重要素材回収のための二次ソース市場における主要原料および成長機会の特定
主要プレーヤーとビジネスモデルの分析
バリューチェーンとサプライチェーンの評価と市場マッピング
該当する場合、規制とリサイクル義務の概要とスケジュール
各重要素材技術分野の商業的成功と欠点を特徴とするケーススタディを使用した重要市場評価

重要素材回収市場分析

45社以上の企業プロフィールを含む、各主要部門における重要素材回収企業のレビュー
4つの二次ソースの重要な材料回収技術分野について、2026年から2046年までの回収重量と価値の市場予測

ページTOPに戻る

Summary

Market for secondary source critical material extraction technology, critical material recovery technology, rare earth recycling, lithium-ion battery technology metal recovery, critical semiconductor recovery, platinum group metal recovery

IDTechEx forecasts that over 8.1 million tonnes of critical materials will be recovered from waste annually by 2046, equivalent to over US$66B in valuable materials. Secondary raw materials, including end-of-life equipment, automotive vehicles, electric vehicles, e-waste and manufacturing scrap, represent a rapidly emerging source of valuable critical materials. This report characterizes the critical material recovery market, key extraction and recovery technologies, emerging secondary sources and market players. The latest critical material recovery innovations are explored across four key critical material segments, including rare earth elements, Li-ion battery materials, platinum group metals, and critical semiconductors. IDTechEx identifies a growing value opportunity, with the critical material recovery market forecast to grow at a CAGR of 9.2% from 2026-2046.

Critical materials are defined as strategic materials with high supply risks and high economic value to regional economies. Critical materials such as lithium, nickel, cobalt, graphite, rare earths, platinum group metals, silicon and other semiconductors are vital in transportation, energy, communications, industrial, consumer, and defense applications. The high geographical localization of critical material supply chains presents major risks to global economies, with intensifying export controls continuing to mount pressure. As the number of critical materials increases across the world, there exists a strong market pull for critical material recovery from alternative sources to diversify and reshore strategic material supply.

Critical material recovery from secondary sources such as manufacturing scrap, end-of-life products and waste materials can mitigate supply risks while valorizing waste streams. As critical materials consolidate in electric vehicles, decarbonized energy, high performance computing and AI applications, end-of-life equipment produced at the point of consumption will become important critical material sources. IDTechEx's report characterizes key emerging critical material feedstocks, evaluating the economics of critical material recycling and business models underpinning recovery.

Critical material recovery technologies are largely ready to go: the next question is how easily they can be repurposed for secondary material sources. Pyrometallurgical and hydrometallurgical critical material recovery technologies pioneered for primary mineral processing are scalable with high recovery efficiency, making them well-positioned for deployment in secondary source streams. The outstanding challenge remains adapting the recovery processes to the complex composition profile of secondary materials, which commonly contain mixtures of critical materials with plastics, adhesives, low value metals and inorganic materials. This report evaluates 13 critical material extraction technology, providing SWOT analysis, technology readiness level benchmarking, and case studies on commercial application.

This IDTechEx research report examines four critical material segments: Li-ion battery materials, rare earth elements, platinum group metals, and critical semiconductors. Platinum group metal recovery is the most mature critical material recovery segment, driven by low global primary supply and the high intrinsic value of platinum, palladium, iridium, and rhodium metals. IDTechEx discusses how established high volume platinum group metal recycling from automotive catalysts, jewelry, and electronics can provide a roadmap for emerging critical material recovery markets. This report also characterizes the role of platinum group metals in hydrogen fuel cell and water electrolyzer technology, evaluating the developments in green hydrogen catalyst recycling.

Critical battery material recovery represents the fastest growing market segment, which IDTechEx forecasts will grow at a CAGR of 15.9% by 2046. Li-ion battery recycling is set to take-off in the mid-2030s as significant volumes of electric vehicles reach end-of-life, unlocking a new stream of secondary lithium, nickel, cobalt, graphite, copper and manganese supply. This IDTechEx report comprehensively evaluates and benchmarks hydrometallurgical, pyrometallurgical, and direct lithium-ion battery recycling technology. This report also discusses market trends in regulations, Li-ion battery recycling economics, recycling capacities, key battery recyclers and business models.

Critical rare earth recycling from magnets is a key growth market, as rare earth elements face increasing export restrictions globally. Rare earths are critical materials in high performance NdFeB and SmCo magnets used in electric vehicle motors, wind turbine energy generators, and hard disk drive actuators. With over 88% of global rare earth magnet supply consolidated in China, a strong market pull exists for critical rare earth element recycling technology. This report critically evaluates solvent extraction, liquid chromatography, hydrogen decrepitation and powder metallurgy technology for long-loop and short-loop rare earth magnet recycling. IDTechEx characterizes emerging circular supply chains, rare earth recyclers, recycling capacities and feedstock availability between 2026-2046.

Critical semiconductor recovery from electronic waste (e-waste) and photovoltaics will rely on recycling technology innovation. Automated disassembly technologies are emerging for critical semiconductor recovery, offering efficient recovery of high value material components and optimized OpEx costs within photovoltaic recycling. This report characterizes critical silicon, indium, gallium, germanium and tellurium recovery technologies and market dynamics underpinning recycling in 2026.

Key aspects of this report:

A review of technologies for critical material extraction and critical material recovery from secondary sources

Overview of important technologies emerging for secondary source critical material extraction and recovery.
Critical evaluation, benchmarking, technology readiness level analysis of critical material recovery technology.
15 SWOT analyses of critical material extraction and recovery technologies, including hydrometallurgy, pyrometallurgy, ionic liquids, solvent extraction, ion exchange, and direct recycling technologies.
Discussion of the evolving value proposition presented by key critical material recovery technologies for secondary sources.

Full market characterization of critical material recovery technology in key secondary source segments

Extensive characterization of critical material market segments, including rare earth elements, lithium-ion battery technology metals, semiconductors and e-waste market, and platinum group metals.
Identification of key feedstocks and growth opportunities within secondary source markets for critical material recovery.
Key players and business model analysis.
Evaluation and market mapping of value and supply chains.
Overview and timelines of regulations and recycling mandates, where applicable.
Critical market evaluation using case studies featuring commercial successes and shortcomings for each critical material technology segment.

Critical material recovery market analysis

Reviews of critical material recovery players throughout each key sector, including over 45 company profiles.
Recovered weight and value market forecasts from 2026-2046 for four secondary source critical material recovery technology areas, including full narratives, price assumptions, limitations, and methodologies for each.

ページTOPに戻る

1. EXECUTIVE SUMMARY

1.1. What are critical materials

1.2. The number of critical materials is increasing globally

1.3. Critical material recovery from primary and secondary sources

1.4. Technologies for critical material recovery from secondary sources

1.5. Established and emerging secondary sources for critical material recovery

1.6. Business models for critical material recovery from secondary sources

1.7. Critical material extraction technology overview

1.8. Technology readiness evaluation of critical material extraction techniques

1.9. Critical material extraction methods evaluated by key performance metrics

1.10. Evolution of the value proposition for critical material extraction technologies

1.11. Critical material recovery technology overview

1.12. Critical metal recovery technologies evaluated and compared

1.13. Critical material recovery technologies from secondary materials - Key findings

1.14. Overview of key technologies for recycling rare earth magnets from waste

1.15. Rare earth magnet recycling in 2025 dominated by long-loop technology

1.16. Magnet manufacturing waste to become a key feedstock for recyclers until end-of-life waste availability increases

1.17. Critical Li-ion battery technology metal recovery - Key conclusions

1.18. Li-ion battery recycling technologies summary & comparison

1.19. Li-ion battery recycling policies and regulations - global map

1.20. Critical semiconductor material recovery from secondary sources - Key conclusions

1.21. Business models for critical semiconductor material recovery

1.22. Critical platinum group metal recovery from secondary sources - Key conclusions

1.23. Business models and established players in platinum group metal recycling

1.24. Critical metal recycling from hydrogen fuel cells and water electrolyzers won't happen until 2040s

1.25. 20-year overall global recovered critical materials forecast, annual value forecast, 2026-2046

1.26. Electrification driving transfer of critical material recovery value from platinum group metals to Li-ion battery materials

1.27. 20-year overall global recovered critical materials forecast by material, annual weight forecast, 2026-2046

2. MARKET FORECASTS

2.1. Forecasting methodology and key updates

2.1.1. Forecasting methodology

2.1.2. Discontinuity in secondary source availability from renewable energy applications

2.1.3. Critical Li-ion battery material price assumptions

2.1.4. Critical rare earth material price assumptions

2.1.5. Critical platinum group metal price assumptions

2.1.6. Notable forecast updates since previous report edition (1/2)

2.1.7. Notable forecast updates since previous report edition (2/2)

2.2. Critical material recovery forecasts

2.2.1. 20-year overall global recovered critical materials forecast, annual weight forecast, 2026-2046

2.2.2. 20-year overall global recovered critical materials forecast, annual weight forecast, excluding from Li-ion batteries materials, 2026-2046

2.2.3. 20-year overall global recovered critical materials forecast by material, annual weight forecast, 2026-2046

2.2.4. 20-year overall global recovered critical materials forecast by element, annual weight forecast, excluding Li-ion battery materials, 2026-2046

2.2.5. 20-year overall global recovered critical materials forecast, annual value forecast, 2026-2046

2.2.6. 20-year overall global recovered critical materials forecast, annual value forecast, excluding from Li-ion batteries, 2026-2046

2.2.7. Electrification driving transfer of critical material recovery value from platinum group metals to Li-ion battery materials

2.2.8. 20-year global recovered critical rare earth element forecast, annual weight forecast, 2026-2046

2.2.9. 20-year global recovered critical rare earth element forecast, segmented by secondary source, annual weight forecast, 2026-2046

2.2.10. 20-year global recovered critical rare earth element forecast, annual value forecast, 2026-2046

2.2.11. 20-year global recovered critical materials from Li-ion batteries, annual weight forecast, 2026-2046

2.2.12. 20-year global recovered critical materials from Li-ion batteries, annual value forecast, 2026-2046

2.2.13. 20-year global recovered critical semiconductor material forecast, annual weight forecast, 2026-2046

2.2.14. 20-year global recovered critical semiconductor material forecast, annual weight forecast, excluding silicon, 2026-2046

2.2.15. 20-year global recovered critical semiconductor material forecast, annual value forecast, 2026-2046

2.2.16. 20-year global recovered critical platinum group metal forecast, annual weight forecast, 2026-2046

2.2.17. 20-year global recovered critical platinum group metal forecast, segmented by feedstock source, annual weight forecast, 2026-2046

2.2.18. 20-year global recovered critical platinum group forecast, annual value forecast, 2026-2046

3. INTRODUCTION

3.1. What are critical materials

3.2. The rise of the mineral economy and the emergence of critical materials

3.3. Increasing critical material demand drives growth in global supply

3.4. The number of critical materials is increasing globally

3.5. Growing export restrictions intensify supply risks and drive critical material strategy development

3.6. Critical material recovery from primary and secondary sources

3.7. Established critical material recovery from primary sources

3.8. Critical material recycling increasingly important as investment in mining operations reduces

3.9. How critical materials are recovered from secondary sources

3.10. Technologies for critical material recovery from secondary sources

3.11. Overview of critical material supply, value, and recycling rates

3.12. Lessons from the established critical platinum group metal recovery market

3.13. Defining Traits in Established Critical Material Recovery Markets

3.14. Market drivers for critical material recovery from secondary sources

3.15. Established and emerging secondary sources for critical material recovery

3.16. Business models for critical material recovery from secondary sources

3.17. Critical material price pressures continue to impact recycling profitability

3.18. Enabling technological and commercial innovation required to unlock critical material recovery

3.19. Critical material recovery report content and outline

4. CRITICAL MATERIAL EXTRACTION TECHNOLOGY FROM SECONDARY SOURCES

4.1. Overview of critical material extraction

4.1.1. Critical material extraction technology from secondary sources - Chapter overview

4.1.2. Critical material extraction technology overview

4.1.3. Critical material extraction: Extraction technologies

4.2. Critical material extraction technologies

4.2.1. Hydrometallurgical extraction

4.2.2. Lixiviants used in hydrometallurgical metal extraction from secondary material sources

4.2.3. SWOT analysis of hydrometallurgical extraction of critical material

4.2.4. Pyrometallurgical extraction: Introduction

4.2.5. Pyrometallurgical extraction: Methods

4.2.6. SWOT analysis of pyrometallurgical extraction of critical materials

4.2.7. Biometallurgy: Introduction

4.2.8. Bioleaching processes and their applicability to critical materials

4.2.9. Biometallurgy: Areas of development

4.2.10. SWOT analysis of biometallurgy for critical material extraction

4.2.11. Ionic liquids and deep eutectic solvents

4.2.12. Challenges facing commercialization of ionic liquid and deep eutectic solvent technologies

4.2.13. SWOT analysis of ionic liquids and deep eutectic solvents for critical material extraction

4.2.14. Electroleaching extraction

4.2.15. SWOT analysis of electrochemical leaching for critical material extraction

4.2.16. Supercritical fluid extraction

4.2.17. SWOT analysis of supercritical fluid extraction technology

4.3. Summary and conclusions

4.3.1. Summary of critical material extraction from secondary sources

4.3.2. Technology readiness evaluation of critical material extraction techniques

4.3.3. Critical material extraction technologies and state of adoption

4.3.4. Critical material extraction methods evaluated by key metric

4.3.5. Evolution of the value proposition for critical material extraction technologies

5. CRITICAL MATERIAL RECOVERY TECHNOLOGY FROM SECONDARY SOURCES

5.1. Overview of critical material recovery

5.1.1. Critical material recovery technology from secondary sources - Chapter overview

5.1.2. Critical material recovery: Introduction and process overview

5.1.3. Critical metal recovery: Recovery technologies

5.2. Critical material recovery technologies

5.2.1. Critical material recovery by solvent extraction

5.2.2. Rare-earth element recovery by solvent extraction

5.2.3. Critical metal recovery from Li-ion batteries, fuel cells and electrolysers with solvent extraction and associated challenges

5.2.4. SWOT analysis of solvent extraction recovery technology

5.2.5. Ion exchange recovery

5.2.6. Critical metal extraction using ion exchange resins

5.2.7. SWOT analysis of ion exchange resin recovery technology

5.2.8. Ionic liquid (IL) and deep eutectic solvent (DES) recovery

5.2.9. Coupling ionic liquid / deep eutectic solvent recovery with electrodeposition

5.2.10. Challenges facing ionic liquid and deep eutectic solvent recovery technology

5.2.11. SWOT analysis of ionic liquids and deep eutectic solvents for critical material recovery

5.2.12. Critical metal recovery by precipitation

5.2.13. Selective coagulation and flocculation to enhance precipitation efficiency

5.2.14. SWOT analysis of precipitation for critical material recovery

5.2.15. Critical metal recovery using biosorption

5.2.16. SWOT analysis of biosorption for critical material recovery

5.2.17. Critical metal recovery by electrowinning

5.2.18. Nickel and cobalt recovery from Li-ion batteries and consumer electronics waste using electrowinning

5.2.19. Rare-earth oxide (REO) processing using molten salt electrolysis

5.2.20. Emerging electrowinning systems for critical material recovery and areas for innovation

5.2.21. SWOT analysis of electrowinning for critical material recovery

5.2.22. Direct recovery approaches: Rare-earth magnet recycling by hydrogen decrepitation

5.2.23. Direct recovery approaches: Direct recycling of Li-ion battery cathodes by sintering

5.2.24. SWOT analysis of direct critical material recovery technology

5.3. Summary and Conclusions

5.3.1. Critical metal recovery technologies evaluated and compared

5.3.2. Critical material recovery technologies from secondary materials - Key findings

5.3.3. Technology readiness of critical material recovery technologies by secondary material sources

5.3.4. Evolving requirements of critical material recovery technologies

6. CRITICAL RARE EARTH ELEMENT RECOVERY

6.1. Overview of rare earth recycling

6.1.1. Rare earth magnet recycling - Chapter overview

6.1.2. Trends in rare earth recycling

6.1.3. Critical rare earth elements: Introduction

6.1.4. Critical rare earth elements: Product markets and applications

6.1.5. Critical rare earth elements: Geographic concentration of primary material supply chain

6.1.6. Rare earth element demand concentrating in magnet applications

6.1.7. Primary and secondary material streams for rare-earth element recovery

6.1.8. Rare earth element content in secondary material sources

6.2. Rare earth recycling technologies

6.2.1. Overview of key technologies for recycling rare earth magnets from waste

6.2.2. Long-loop and short-loop rare earth recycling methods

6.2.3. Short-loop rare-earth magnet recycling by hydrogen decrepitation

6.2.4. Short-loop rare-earth magnet recycling by powder metallurgy

6.2.5. Short-loop recycled magnets show weaker magnetic properties compared to virgin magnets

6.2.6. SWOT analysis of short-loop rare-earth magnet recycling

6.2.7. Long-loop magnet recycling

6.2.8. Long-loop rare-earth magnet recycling: Recovery technologies

6.2.9. Long-loop magnet recovery using solvent extraction

6.2.10. Breakdown of operating expenditure (OpEx) of long-loop recycling using solvent extraction

6.2.11. Liquid chromatography rare earth separation technology offers feedstock flexibility

6.2.12. Liquid chromatography uses ion exchange resins to recycle magnets

6.2.13. Emerging business model for rare earth recovery using ion exchange / liquid chromatography

6.2.14. Comparison of Commercial Rare Earth Separation Technologies

6.2.15. SWOT analysis of long-loop rare earth magnet recycling recovery

6.2.16. Short-loop and long-loop rare earth magnet recycling: Summary and key players

6.2.17. The role of waste pre-processing and automation in magnet recycling

6.3. Rare earth recycling markets

6.3.1. Rare earth magnet recycling in 2025 dominated by long-loop technology

6.3.2. Overview of key rare earth recyclers

6.3.3. Emerging rare earth magnet recycling value chain

6.3.4. Global rare earth magnet recyclers

6.3.5. Circular supply chains for critical rare earths are emerging out of necessity

6.3.6. Increasing rare earth magnet recycling capacity by 2030 highlights need for greater feedstock sourcing to maximize utilization

6.3.7. Electric motors, energy generators, and hard disk drives emerge as key secondary sources of rare earths

6.3.8. Pre-processing challenges for rare-earth magnet recycling from electric rotors

6.3.9. Availability of magnets for recycling influenced by lifetimes of integrated products and recycling efficiency

6.3.10. Magnet manufacturing waste to become a key feedstock for recyclers until end-of-life waste availability increases

6.3.11. Many long-loop recyclers focus on securing primary mineral feedstocks until secondary sources come online

6.3.12. Barriers to growth and areas requiring development for rare earth magnet recovery growth to be realized

6.4. Critical Rare earth recovery summary and outlook

6.4.1. Rare earth magnet recovery technology summary and outlook

6.4.2. Rare-earth magnet market summary and outlook

6.4.3. Overview of opportunities and trends for long-loop and short-loop rare earth magnet recycling technologies

6.4.4. Innovation areas for rare-earth magnet recycling

6.4.5. Rare earth magnet recycling value chain

7. CRITICAL LI-ION BATTERY MATERIAL RECOVERY

7.1. Overview of Li-ion battery recycling

7.1.1. Critical Li-ion battery technology metal recovery - Chapter overview

7.1.2. Critical Li-ion battery metals: Introduction

7.1.3. Key trends impacting critical battery material demand (1)

7.1.4. Key trends impacting critical battery material demand (2)

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

7.1.6. Li-ion battery recycling market summary and key updates

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

7.1.8. Global LIB recycling capacity and player map

7.1.9. More information can be found in IDTechEx's report: Li-ion Battery Recycling Market 2025-2045: Markets, Forecasts, Technologies, and Players

7.2. Li-ion battery metal recovery technologies

7.2.1. Overview of Li-ion battery recycling technologies

7.2.2. Pyrometallurgical Li-ion battery recycling

7.2.3. Hydrometallurgical Li-ion battery recycling

7.2.4. Direct Li-ion battery recycling methods

7.2.5. Recycling technologies summary & comparison

7.2.6. Graphite recycling from Li-ion batteries

7.2.7. Graphite recycling technology summary

7.3. Li-ion battery metal recovery markets

7.3.1. Electric vehicle battery recycling value chain

7.3.2. When will Li-ion batteries be recycled?

7.3.3. Is recycling Li-ion batteries economical?

7.3.4. Impact of cathode chemistries on recycling economics

7.3.5. Recycling regulations and policies

7.3.6. Specific policy targets and funding summary by region

7.3.7. Li-ion battery recycling policies and regulations - global map

7.3.8. Li-ion battery recycling: Sector involvement

7.3.9. Li-ion battery recycling technology breakdown by region

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

8. CRITICAL SEMICONDUCTOR MATERIAL RECOVERY

8.1. Overview of critical semiconductor material recovery

8.1.1. Semiconductor material recovery - Chapter overview

8.1.2. Critical semiconductor materials: Introduction

8.1.3. Critical semiconductor materials: Rising demand and supply chain challenges

8.1.4. Critical semiconductors: Applications and recycling rates

8.2. Electronic waste (e-waste)

8.2.1. E-waste is rapidly accumulating but recycling struggles to keep up

8.2.2. Disparate and low semiconductor content in key applications is prohibiting recovery

8.2.3. Critical semiconductor recovery from e-waste will rely on more effective pre-processing

8.2.4. Trends in electronic waste recycling and emerging feedstocks

8.2.5. Trends in e-waste feedstock composition

8.2.6. Recovery of critical semiconductors from e-waste

8.2.7. Sources of primary and secondary gallium for recovery

8.2.8. Overview of gallium and indium recyclers

8.2.9. Established germanium recovery from secondary sources

8.2.10. Business models for critical semiconductor material recovery

8.2.11. Critical semiconductor recovery takes the backseat to precious metals in e-waste recycling

8.3. Photovoltaic and solar technologies

8.3.1. Critical semiconductors in photovoltaic panels: Introduction

8.3.2. Critical semiconductors in photovoltaics: Cell stack composition and design

8.3.3. Critical semiconductor recovery from photovoltaics

8.3.4. Different processes are required to recycle crystalline silicon and thin-film photovoltaic modules

8.3.5. Silicon recovery technology for crystalline-Si PVs

8.3.6. Most of the value in silicon photovoltaic module recycling resides in base and precious metal recovery

8.3.7. Breakdown of value recovered from silicon PV panel recycling

8.3.8. Tellurium recovery from CdTe thin-film photovoltaics

8.3.9. Challenges facing thin film CdTe PV recycling

8.3.10. Solar panel manufacturers and recycling capabilities (I)

8.3.11. Solar panel manufacturers and recycling capabilities (II)

8.4. Market summary and outlook

8.4.1. Conclusions for critical semiconductor material recovery and market outlook

8.4.2. Technology readiness of critical semiconductor recovery technologies

8.4.3. Critical semiconductor recovery: Key player overview

8.4.4. Market drivers, opportunities and barriers for critical semiconductor recovery

8.4.5. Key challenges that must be addressed to unlock the secondary critical semiconductor material stream

9. CRITICAL PLATINUM GROUP METAL RECOVERY

9.1. Overview of critical platinum group metal recovery

9.1.1. Platinum group metal recovery - Chapter overview

9.1.2. Critical platinum group metals: Introduction

9.1.3. Critical platinum group metals: Supply chain considerations

9.1.4. Global PGM demand and application segmentation

9.1.5. Critical platinum group metals: Applications and recycling rates

9.1.6. Critical platinum group metal recovery is driven by high intrinsic metal value

9.1.7. Historical PGM price volatility

9.1.8. Historical iridium supply and demand

9.2. PGM recovery from spent automotive catalysts

9.2.1. Critical PGMs in automotive catalysts

9.2.2. Critical PGM recovery from spent automotive catalysts

9.2.3. Global recovery of platinum, palladium and rhodium from automotive scrap

9.2.4. Key global automotive catalyst recycling players

9.3. PGM recovery from hydrogen electrolyzers and fuel cells

9.3.1. Critical metals for the hydrogen economy

9.3.2. Proton exchange membrane electrolyzer materials & components

9.3.3. Green hydrogen's influence on critical materials

9.3.4. Importance of technological advancements & PGM recycling

9.3.5. Challenges in transitioning to new PEMEL catalysts and the role of PGM recycling

9.3.6. Recovering critical PGMs from catalyst coated membranes (CCMs)

9.3.7. Recycling of critical PGMs from fuel cell catalysts

9.3.8. Proton exchange membrane catalyst and ionomer recycling: Player overview

9.3.9. Critical metal recycling from hydrogen fuel cells and water electrolyzers won't happen until 2040s

9.3.10. Key suppliers of catalysts for fuel cells

9.4. Market summary and outlook

9.4.1. Critical PGM recovery: Conclusions and outlook

9.4.2. Technology readiness of critical PGM recovery from secondary sources

9.4.3. Business models and established players in platinum group metal recycling

9.4.4. Opportunities and threats to growth for critical PGM recovery

9.4.5. What valuable lessons from the LIB & EV industries can be applied to PGM recovery from hydrogen technology

10. COMPANY PROFILES

10.1. Accurec Recycling GmbH

10.2. ACE Green Recycling

10.3. Altilium

10.4. Ascend Elements

10.5. Australian Strategic Materials Ltd (ASM)

10.6. Ballard Power Systems

10.7. Carester (Caremag)

10.8. Carester (Caremag)

10.9. CellCircle (Battery Recycling)

10.10. Cirba Solutions

10.11. Cirba Solutions

10.12. Cyclic Materials

10.13. Cyclic Materials

10.14. Cylib

10.15. EcoGraf

10.16. Ecoprogetti

10.17. Exigo Recycling

10.18. Exitcom Recycling (Battery Recycling)

10.19. Fortum (Battery Recycling)

10.20. Garner Products

10.21. Green Graphite Technologies

10.22. Heraeus: Catalysts for the Hydrogen Economy

10.23. Huayou Recycling

10.24. HyProMag

10.25. HyProMag Ltd

10.26. Ionic Technologies

10.27. JL Mag

10.28. Li-Cycle

10.29. Librec

10.30. Lithium Australia

10.31. Lohum

10.32. Mecaware

10.33. Neo Performance Materials - Rare Metals

10.34. Noveon Magnetics

10.35. OnTo Technology

10.36. POSCO (Battery Recycling)

10.37. Primobius

10.38. Rare Earth Technologies Inc. (RETi)

10.39. Redwood Materials

10.40. ReElement Technologies

10.41. REETec

10.42. Seloxium

10.43. Solar Materials

10.44. SungEel Hi-Tech

10.45. Umicore (Battery Recycling)

10.46. Veolia (Battery Recycling)

ページTOPに戻る

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。

webからのご注文・お問合せはこちらのフォームから承ります

本レポートと同分野（ケミカル）の最新刊レポート

IDTechEx社の先端材料 - Advanced Materials分野での最新刊レポート

本レポートと同じKEY WORD（）の最新刊レポート

本レポートと同じKEY WORDの最新刊レポートはありません。

よくあるご質問

IDTechEx社はどのような調査会社ですか?

IDTechExはセンサ技術や3D印刷、電気自動車などの先端技術・材料市場を対象に広範かつ詳細な調査を行っています。データリソースはIDTechExの調査レポートおよび委託調査（個別調査）を取り扱う日... もっと見る

調査レポートの納品までの日数はどの程度ですか?

在庫のあるものは速納となりますが、平均的には 3-４日と見て下さい。
但し、一部の調査レポートでは、発注を受けた段階で内容更新をして納品をする場合もあります。
発注をする前のお問合せをお願いします。

注文の手続きはどのようになっていますか?

1)お客様からの御問い合わせをいただきます。
2)見積書やサンプルの提示をいたします。
3)お客様指定、もしくは弊社の発注書をメール添付にて発送してください。
4)データリソース社からレポート発行元の調査会社へ納品手配します。
5) 調査会社からお客様へ納品されます。最近は、pdfにてのメール納品が大半です。

お支払方法の方法はどのようになっていますか?

納品と同時にデータリソース社よりお客様へ請求書（必要に応じて納品書も）を発送いたします。
お客様よりデータリソース社へ（通常は円払い）の御振り込みをお願いします。
請求書は、納品日の日付で発行しますので、翌月最終営業日までの当社指定口座への振込みをお願いします。振込み手数料は御社負担にてお願いします。
お客様の御支払い条件が60日以上の場合は御相談ください。
尚、初めてのお取引先や個人の場合、前払いをお願いすることもあります。ご了承のほど、お願いします。

データリソース社はどのような会社ですか?

当社は、世界各国の主要調査会社・レポート出版社と提携し、世界各国の市場調査レポートや技術動向レポートなどを日本国内の企業・公官庁及び教育研究機関に提供しております。
世界各国の「市場・技術・法規制などの」実情を調査・収集される時には、データリソース社にご相談ください。
お客様の御要望にあったデータや情報を抽出する為のレポート紹介や調査のアドバイスも致します。

クリティカル・マテリアル回収 2026-2046年：技術、市場、プレーヤー

サマリー

二次ソースの重要材料抽出技術、重要材料回収技術、レアアースリサイクル、リチウムイオン電池技術の金属回収、重要半導体回収、白金族金属回収の市場

本レポートの主な内容

目次

1.要旨

2.市場予測

3.序論

4.二次資料からの重要素材抽出技術

5.二次資料からの重要物質回収技術

6.重要レアアース元素の回収

7.重要なリチウムイオン電池材料の回収

8.クリティカル半導体材料回収

9.クリティカル・マテリアル回収

10.企業プロフィール

Summary

Market for secondary source critical material extraction technology, critical material recovery technology, rare earth recycling, lithium-ion battery technology metal recovery, critical semiconductor recovery, platinum group metal recovery

Key aspects of this report:

Table of Contents

1. EXECUTIVE SUMMARY

2. MARKET FORECASTS

3. INTRODUCTION

4. CRITICAL MATERIAL EXTRACTION TECHNOLOGY FROM SECONDARY SOURCES

5. CRITICAL MATERIAL RECOVERY TECHNOLOGY FROM SECONDARY SOURCES

6. CRITICAL RARE EARTH ELEMENT RECOVERY

7. CRITICAL LI-ION BATTERY MATERIAL RECOVERY

8. CRITICAL SEMICONDUCTOR MATERIAL RECOVERY

9. CRITICAL PLATINUM GROUP METAL RECOVERY

10. COMPANY PROFILES

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（ケミカル）の最新刊レポート

IDTechEx社の先端材料 - Advanced Materials分野での最新刊レポート

本レポートと同じKEY WORD（）の最新刊レポート

よくあるご質問

IDTechEx社はどのような調査会社ですか?

調査レポートの納品までの日数はどの程度ですか?

注文の手続きはどのようになっていますか?

お支払方法の方法はどのようになっていますか?

データリソース社はどのような会社ですか?

クリティカル・マテリアル回収 2026-2046年：技術、市場、プレーヤー

サマリー

二次ソースの重要材料抽出技術、重要材料回収技術、レアアースリサイクル、リチウムイオン電池技術の金属回収、重要半導体回収、白金族金属回収の市場

本レポートの主な内容

目次

1.要旨

2.市場予測

3.序論

4.二次資料からの重要素材抽出技術

5.二次資料からの重要物質回収技術

6.重要レアアース元素の回収

7.重要なリチウムイオン電池材料の回収

8.クリティカル半導体材料回収

9.クリティカル・マテリアル回収

10.企業プロフィール

Summary

Market for secondary source critical material extraction technology, critical material recovery technology, rare earth recycling, lithium-ion battery technology metal recovery, critical semiconductor recovery, platinum group metal recovery

Key aspects of this report:

Table of Contents

1. EXECUTIVE SUMMARY

2. MARKET FORECASTS

3. INTRODUCTION

4. CRITICAL MATERIAL EXTRACTION TECHNOLOGY FROM SECONDARY SOURCES

5. CRITICAL MATERIAL RECOVERY TECHNOLOGY FROM SECONDARY SOURCES

6. CRITICAL RARE EARTH ELEMENT RECOVERY

7. CRITICAL LI-ION BATTERY MATERIAL RECOVERY

8. CRITICAL SEMICONDUCTOR MATERIAL RECOVERY

9. CRITICAL PLATINUM GROUP METAL RECOVERY

10. COMPANY PROFILES

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（ケミカル）の最新刊レポート

IDTechEx社の 先端材料 - Advanced Materials分野 での最新刊レポート

本レポートと同じKEY WORD（）の最新刊レポート

よくあるご質問

IDTechEx社はどのような調査会社ですか?

調査レポートの納品までの日数はどの程度ですか?

注文の手続きはどのようになっていますか?

お支払方法の方法はどのようになっていますか?

データリソース社はどのような会社ですか?

IDTechEx社の先端材料 - Advanced Materials分野での最新刊レポート