GLOBAL CRITICAL MINERALS & RARE EARTH ELEMENTS SUPPLY MARKET (2026 - 2030)

The Critical Minerals & Rare Earth Elements Supply Market was valued at USD 362,000 Million in 2025 and is projected to reach a market size of USD 575,097.8 Million by the end of 2030. Over the forecast period of 2026–2030, the market is projected to grow at a CAGR 9.70%.

The geopolitical weaponization of mineral supply chains is no longer a theoretical risk — it is the operating reality of 2025. China's export controls on gallium and germanium, enacted in 2023 and progressively tightened through 2024 and 2025, have removed the assumption that critical mineral supply is a commodity market governed by price and logistics. It is now a strategic instrument of state power, managed through licensing, export quotas, and bilateral trade agreements in ways that directly determine which nations and industries can access the foundational materials of the modern economy. The rare earth elements, gallium, germanium, graphite, lithium, cobalt, and nickel that underpin electric vehicle motors, semiconductor fabrication, defence guidance systems, renewable energy infrastructure, and advanced electronics are simultaneously in the highest demand in history and subject to the most concentrated, geopolitically managed supply environment ever recorded.

China dominates the critical minerals landscape at every layer of the value chain. It controls approximately 60% of global rare earth mining output, 85–90% of rare earth processing and separation capacity, 70% of global cobalt refining, and nearly all commercial-scale heavy rare earth separation — a capability that no Western facility had achieved at commercial scale as of early 2026. This processing monopoly is structurally more consequential than mining concentration alone: a nation can build mines, but the chemical engineering expertise, licensed separation technology, and environmental infrastructure required for rare earth refining took China three decades to develop. Alternative supply routes — Lynas in Australia and Malaysia, MP Materials in California, Arafura's Nolans project in Australia — are making progress, but Lynas is missing heavy-earth circuits, Arafura will not reach full output until 2027, and MP Materials' California output still travels to China for final refining.

Key Market Insights:

• Global demand for critical minerals is projected to grow 1.5× between 2024–2040, while rare earth demand (especially magnetic REEs) is expected to triple from 59,000 tons (2022) to 176,000 tons by 2035.
• Over 50% of total materials demand growth in the next decade will be driven by energy transition technologies like EVs and wind power.
• The U.S. Department of Energy issued a USD 134 million Notice of Funding Opportunity in December 2025 for domestic rare earth refining and recovery projects, reflecting the federal government's recognition that the critical mineral processing gap — not the mining gap — is the primary national security vulnerability in the U.S. critical minerals supply chain.
• Lynas Rare Earths partnered with South Korea-based JS Link in June 2025 to advance rare earth magnet manufacturing, strengthening downstream integration — part of a growing pattern of ex-China supply chain actors expanding from upstream ore production toward downstream magnet and alloy manufacturing to capture more of the value chain and reduce China's processing monopoly leverage.
• Japan launched a deep-sea mining vessel in January 2026 to explore seabed mud rich in rare earth minerals near Minamitori Island — a significant strategic investment reflecting Japan's determination to develop independent rare earth sources after experiencing the consequences of Chinese export restrictions on multiple occasions since 2010.
• Clean energy applications accounted for over 40% of total demand for copper and rare earth elements, 60–70% for nickel and cobalt, and nearly 90% for lithium in 2025, according to IEA data — confirming that the energy transition is the dominant demand driver that makes every supply disruption in this market a direct obstacle to national climate policy targets.
• Investments in critical mineral development increased 30% in 2022 and have sustained elevated levels through 2025, with lithium projects receiving the highest share at approximately 50% of new investment — but project lead times of 7–15 years from discovery to production mean that capital committed today will not relieve supply concentration before 2030 for most mineral classes.

Research Methodology:

1. Scope & Definitions

• • Market boundary: commercial revenues across the full critical minerals and rare earth elements value chain — mining and extraction, chemical processing and refining, separation and purification, downstream alloying and materials manufacturing, and recycled/secondary supply — for minerals classified as critical by the U.S. Geological Survey, IEA Critical Minerals Outlook, and EU Critical Raw Materials Act.
  • Minerals covered: rare earth elements (17 elements including neodymium, praseodymium, dysprosium, terbium, cerium, lanthanum, and yttrium), lithium, cobalt, nickel, manganese, graphite, gallium, germanium, and indium.
  • Excluded: bulk commodities (iron ore, coal, bauxite) not classified as critical under major government frameworks; processed end-products (batteries, magnets, semiconductors) where the critical mineral content is embodied in a manufactured product and commercial value is attributable to manufacturing rather than mineral supply.
  • Geography: global, with regional breakdowns for Asia-Pacific (including China separately), North America, Europe, Latin America, and Africa & Middle East. Timeframe: base year 2025; forecast 2026–2030.
  • Segmentation is MECE; double counting prevented by attributing revenue to a single value chain stage per transaction.

2. Evidence Collection (Primary + Secondary)

• • Primary: structured interviews with mining executives, rare earth processing engineers, EV and defence procurement directors, battery cell manufacturers, government critical minerals programme managers, and institutional investors in mining and materials projects.
  • Secondary: verifiable data from the IEA Critical Minerals Outlook, U.S. Geological Survey Mineral Commodity Summaries, U.S. Department of Energy Critical Minerals strategy documents, EU Critical Raw Materials Act regulatory impact assessments, Lynas Rare Earths annual reports, and publicly documented government procurement contracts with named suppliers. All key claims are source-cited inside the report.

3. Triangulation & Validation

• • Two sizing approaches applied per segment: bottom-up (production volume × average price per metric tonne by mineral and grade, validated against producer revenue disclosures) and top-down (total advanced technology and clean energy manufacturing spend filtered to critical mineral input cost sub-components).
  • Price data is sourced from spot market data, long-term contract price indices, and government price monitoring — with Chinese and ex-China price tracks maintained separately given persistent market bifurcation under export control conditions. Conflicting sources are documented and the variance explained in methodology appendix.

4. Presentation & Auditability

• • All findings are presented with source-linked evidence and traceable assumptions. Segmentation is MECE; each chapter sums to 100%.
  • Report includes a FEOC-compliance impact matrix by EV and battery manufacturer, a processing capacity gap analysis for heavy rare earths, a government policy tracker covering IRA, EU CRM Act, Canadian Critical Minerals Strategy, and Australian Critical Minerals Strategy, and a project pipeline database of ex-China mining and processing investments.
  • Formatted for enterprise decision use with stakeholder-specific implication sections for EV manufacturers, defence primes, semiconductor companies, battery producers, mining investors, and government procurement teams.

Market Drivers:

Electric Vehicle, Renewable Energy, and Defence Demand Surge

The energy transition and defence modernization programmes of every major economy are simultaneously driving demand for the same set of critical minerals to historical highs. EV production targets — with neodymium-iron-boron magnets consuming 1–2 kg of rare earth per motor — wind turbine installations requiring permanent magnets at scale, and defence programmes specifying rare earth alloys for guidance systems and radar are competing for the same supply base. The IEA forecasts that lithium demand will increase ninefold and copper demand will see the largest absolute growth in history as electrification proceeds — with critical minerals as the binding supply constraint on how fast this transition can actually occur.

Government Policy and FEOC Compliance Mandates

The U.S. Inflation Reduction Act's FEOC provisions, the EU Critical Raw Materials Act, Canada's Critical Minerals Strategy, and Australia's Critical Minerals Strategy have collectively created a policy-driven demand for ex-China critical mineral supply that is independent of pure market economics. FEOC compliance is a commercial prerequisite for IRA tax credit eligibility; CRM Act strategic project designation unlocks EU financing and accelerated permitting. These policies are creating non-discretionary demand for alternative supply chains at a speed that outpaces the project development timelines of the mining and processing industry.

Market Restraints and Challenges:

Processing bottlenecks, not mining gaps, are the primary constraint on critical mineral supply diversification. The chemical engineering expertise and licensed separation technology for heavy rare earth processing took China three decades to develop. New facilities in the West face capital requirements exceeding USD 500 million for medium-scale refineries, multi-year environmental permitting processes, and a shortage of qualified metallurgical engineering expertise. The environmental management of rare earth processing byproducts — including radioactive thorium and uranium — creates regulatory and community acceptance challenges that further extend timelines for new facilities in democratic jurisdictions with active civil society participation in permitting processes.

Market Opportunities:

The fastest near-term supply diversification opportunity is recycling infrastructure investment for rare earth magnets, battery cobalt and lithium, and semiconductor gallium. End-of-life EV motors, wind turbine generators, consumer electronics, and defence equipment contain recoverable rare earth elements at concentrations exceeding primary ore grades in many cases. The combination of IRA Section 45X production tax credits for critical mineral processing, DOE grant programmes, and growing manufacturer interest in closed-loop supply chains is creating the economic conditions for recycling investment at commercial scale — the one supply diversification strategy that can deliver volume within a 3–5 year horizon rather than the 7–15 year timeline of greenfield mining and processing projects.

How This Market Works End-to-End:

Critical mineral supply operates as a vertically integrated strategic system rather than a conventional commodity market. Understanding it requires tracing seven interconnected stages:

1. Geological Exploration and Resource Definition: Critical mineral supply chains begin with geological surveys, exploration drilling, and resource estimation — a process that typically takes 3–7 years from initial exploration to a resource that can support a pre-feasibility study. Government geological survey data, airborne magnetic and geophysical surveys, and private exploration company drilling programmes define the global ore resource base. Mineralogy — the chemical form in which elements occur in the ore — determines processing complexity and cost more than ore grade alone, making deposit characterisation a critical commercial decision point.

2. Mining and Ore Extraction: Once a deposit is permitted and financed — itself typically a 5–10 year process — the ore is extracted through open-pit or underground mining operations. The ore is crushed and concentrated into a mineral-rich material (typically a flotation concentrate or ore concentrate) that can be economically transported to processing facilities. Mining operations for critical minerals are geographically dispersed globally, but are heavily concentrated in Australia, Chile, South Africa, the Democratic Republic of Congo, and China for different mineral classes.

3. Chemical Processing and First-Stage Refining: Raw concentrates are subjected to hydrometallurgical or pyrometallurgical processing to produce an intermediate product — a mixed rare earth carbonate, lithium carbonate, cobalt hydroxide, or equivalent — that represents the first commercially traded stage of the value chain. This stage is where China's dominance is most absolute: the vast majority of global mining concentrate from non-Chinese mines travels to China for first-stage chemical processing, including from Lynas' Mt. Weld mine in Australia.

4. Separation and Purification: For rare earth elements, separation is the technically most complex stage. Individual rare earth elements occur together in ore and must be separated from each other through sequential solvent extraction processes to achieve commercial purity grades. This stage requires specialised chemical engineering infrastructure that China has developed at industrial scale over three decades. High-purity separated oxides and salts — neodymium oxide, dysprosium oxide, terbium oxide — are the primary product of this stage and the direct input to magnet and specialty alloy manufacturing.

5. Alloying and Downstream Materials Manufacturing: Separated rare earth oxides and other refined critical minerals are converted into alloys, specialty chemicals, and intermediate materials — NdFeB alloy powder for magnet manufacturing, lithium hydroxide for battery cathode production, gallium arsenide for semiconductor wafer fabrication. This stage is the direct interface with EV, electronics, defence, and clean energy manufacturing, and is where FEOC rules create compliance obligations for manufacturers using Chinese-origin materials.

6. End-Use Manufacturing Integration: Critical mineral inputs are incorporated into permanent magnets for EV and wind turbine motors, cathode active materials for lithium-ion battery cells, gallium nitride and gallium arsenide for power electronics and photovoltaics, specialty alloys for aerospace and defence components, and phosphors and catalysts for industrial and consumer applications. This stage is where the demand to pull originates — and where supply disruptions have their most direct and visible economic and operational consequence.

7. Recycling, Secondary Supply, and End-of-Life Recovery: At product end-of-life, critical minerals can theoretically be recovered from EV motors, wind turbines, consumer electronics, and industrial magnets. Current commercial recycling rates for rare earth elements from end-of-life products are below 5% globally, representing a major gap between theoretical potential and actual secondary supply. Hydrometallurgical and pyrometallurgical recycling processes are being developed and scaled, but face challenges of collection infrastructure, mixed-material disassembly, and purity grade requirements from downstream manufacturers.

Why This Market Matters Now:

The combination of China's demonstrated willingness to use mineral export controls as a geopolitical tool, the FEOC compliance clock running in real time for EV manufacturers, the absence of commercial-scale heavy rare earth processing outside China, and the 7–15 year lead time of new mining and processing projects has created a supply security crisis that is acute in the present, not theoretical in the future. Companies with existing China-dependent supply chains for gallium, germanium, rare earth oxides, graphite, and battery materials are already experiencing procurement cost increases, compliance risk, and customer pressure to demonstrate ex-China sourcing that they cannot currently fully satisfy.

Every stakeholder in the critical minerals supply chain — from mining companies to battery manufacturers to EV producers to defence primes to semiconductor fabs — is making strategic and capital decisions in 2025 and 2026 that will determine their supply security position for the decade. The window to establish credible ex-China sourcing arrangements, long-term offtake agreements with alternative producers, and recycling programme infrastructure is open now, but closing as demand growth outpaces alternative supply development.

What Matters Most When Evaluating Claims in This Market:

The critical minerals market is characterised by aggressive government and private-sector claims about supply chain security, domestic production capability, and FEOC compliance that require rigorous evaluation before commercial or policy decisions are made:

The Decision Lens:

A structured seven-step framework for EV manufacturers, defence primes, semiconductor companies, and investors making critical mineral supply security decisions:

1. Map your critical mineral exposure by element and tier: Before designing a sourcing strategy, identify which critical minerals are embedded in your products and at which tier of your supply chain they are sourced. Many EV manufacturers have full visibility of their battery cell suppliers but limited visibility of where those suppliers procure cobalt, lithium, and rare earth materials. FEOC compliance requires traceability to the mine, not just the immediate supplier.

2. Assess your FEOC compliance status against the full regulatory timeline: FEOC rules covering critical minerals took effect in 2024 and battery components in 2025, with progressively tighter definitions planned through 2026. Map your current sourcing against the FEOC entity list for each mineral, and quantify the revenue at risk from lost IRA tax credit eligibility under your current supply chain configuration.

3. Evaluate processing capability, not just mining origin: Sourcing from a non-Chinese mine does not resolve FEOC exposure if the ore is sent to a Chinese refinery for processing. Evaluate your supply chain for the processing stage specifically — identify where refining, separation, and purification occur, not just where mining occurs. The processing bottleneck is where China's leverage is most acute and most durable.

4. Develop a portfolio approach to supply diversification: No single alternative source can replace Chinese supply at current volume and cost for most critical minerals. Effective supply security requires a portfolio approach — combining primary production from multiple non-Chinese suppliers, government stockpile access agreements, long-term offtake contracts with developing projects, and recycling programme investment — across a 5–10 year horizon.

5. Engage government programme support actively: The IRA, DOE funding programmes, EU CRM Act strategic project designation, and equivalents in Canada and Australia offer material financial support for ex-China critical mineral supply chain development. Map the available programmes against your specific mineral exposure, and evaluate whether equity investment, offtake agreement co-funding, or loan guarantee programmes are available for the projects most relevant to your supply needs.

6. Model the cost premium of FEOC-compliant sourcing against the tax credit economics: Ex-China critical mineral supply typically carries a cost premium of 20–80% depending on mineral and grade, reflecting the processing cost differential and the scarcity of commercial-scale non-Chinese alternatives. Model this premium against the IRA tax credit revenue at stake from FEOC non-compliance, and the reputational and commercial risk of being unable to certify responsible mineral sourcing to customer and regulatory requirements.

7. Invest in recycling and circular economy programmes as a near-term supply contribution: Secondary supply from recycled critical minerals is the only supply diversification strategy that can deliver commercial volume within a 3–5 year horizon. Evaluate end-of-life material streams in your own operations and supply chain, and assess whether investment in reverse logistics, disassembly, and hydrometallurgical recycling can contribute meaningfully to your critical mineral supply balance while simultaneously addressing ESG and circular economy commitments.

The Contrarian View:

Several common errors are distorting investment decisions and policy expectations in this market:

• Conflating mining investment with supply security: Announced mining projects — of which there are hundreds targeting critical minerals globally — create the impression of a supply diversification boom that is not yet materialising in processed material available to manufacturers. The mining-to-refining gap means that most of this announced capacity will remain Chinese-processed for the foreseeable future, and mining investment metrics are a poor proxy for actual supply chain security progress.
• Assuming all FEOC-compliant sourcing claims are technically verified: The FEOC compliance certification market is new, and the audit standards, traceability technology, and enforcement mechanisms required to verify mine-to-product critical mineral provenance are still being developed. Manufacturers claiming FEOC compliance should be pressed on the specific audit methodology, third-party certification provider, and granularity of traceability documentation before these claims are accepted at face value.

Practical Implications by Stakeholder:

Electric Vehicle and Battery Manufacturers:

• FEOC compliance requires traceability to the mine and processing facility for every critical mineral in your battery and motor supply chain — build this traceability system now using blockchain-based provenance platforms or third-party audit programmes, rather than attempting to retrofit compliance documentation after regulatory scrutiny intensifies.
• Establish multi-year offtake agreements with ex-China rare earth processing facilities — Lynas, MP Materials, Arafura, and emerging players in Canada and Africa — even at cost premiums, to secure allocations from the limited commercial-scale non-Chinese separation capacity that exists or will exist within your procurement horizon.
• Invest in R&D programmes for reduced rare earth content magnet designs and motor architectures — including ferrite magnet and rare-earth-free motor alternatives — as a long-term hedge against rare earth supply constraint, while maintaining rare earth-based motor production as the performance standard in the near term.

Defence Primes and Aerospace Companies:

• Map your rare earth-dependent component bill of materials at the magnet, alloy, and specialty compound level — the U.S. DoD's own assessments identify specific weapon systems with single-source, Chinese-origin rare earth dependencies that are not publicly disclosed in defence supply chain documentation but represent genuine national security vulnerabilities.
• Engage actively with the DoD's Defence Production Act Title III funding programmes and National Defence Stockpile replenishment initiatives, which offer both financial support for domestic rare earth processing investment and priority access to strategic stockpile material for defence-critical applications.
• Develop a component qualification programme for rare earth materials sourced from ex-China producers — the transition from Chinese-origin to non-Chinese-origin magnets and alloys requires re-qualification testing that takes 12–24 months and should be initiated against current ex-China suppliers before supply emergencies force non-compliant substitutions.

Semiconductor and Electronics Companies:

• Gallium and germanium export controls have already demonstrated China's willingness to restrict semiconductor-critical mineral supply without warning — establish strategic inventory positions for these materials that provide at minimum 6–12 months of buffer against supply disruption, and actively develop alternative sourcing from European, Japanese, and North American gallium producers.
• Engage with the EU Critical Raw Materials Act strategic project process and equivalent U.S. programmes to support domestic gallium and germanium production — the commercial scale of non-Chinese supply will only develop if major semiconductor consumers provide long-term offtake commitments that justify the investment.
• Evaluate indium and germanium recycling from semiconductor manufacturing waste and end-of-life electronics as a near-term secondary supply contribution — semiconductor manufacturing generates recyclable material streams at higher purity and concentration than end-of-life consumer electronics, making in-process recycling the most technically feasible near-term source of non-Chinese gallium and germanium.

Mining and Processing Companies:

• Ex-China processing capability — particularly heavy rare earth separation — is the most commercially valuable and structurally scarce capability in the critical minerals market, and companies that can demonstrate commercial-scale, FEOC-compliant heavy rare earth separation outside China will command a structural pricing premium and preferred partner status with EV, defence, and semiconductor manufacturers for the foreseeable future.
• Government programme engagement is not optional for commercial viability in the current market: IRA production tax credits, DOE grant programmes, EU CRM Act strategic project designation, and bilateral government-to-government supply agreements are essential financing and offtake sources for ex-China projects whose economics cannot compete with Chinese integrated producers on pure market terms.
• Downstream integration — from mine through processing to magnet or alloy manufacturing — is the value chain position that captures the most margin and creates the strongest offtake relationships with EV and defence OEM customers; pure mining companies that sell concentrate into Chinese processing will increasingly find their supply chain participation is valued at the lowest commercial leverage point.

Investors and Private Equity:

• Critical mineral processing assets — particularly rare earth separation and battery material refining outside China — are the most strategically scarce and commercially defensible investment positions in the sector, commanding government financial support, priority customer relationships, and valuation premiums that pure mining assets do not enjoy in the current regulatory environment.
• Project timeline risk is the primary investment risk in critical minerals: announced ex-China processing projects routinely face permitting delays, technical commissioning challenges, and financing gaps that extend commercial production timelines by 3–5 years beyond initial estimates. Due diligence should stress-test project schedules against comparable facility development precedents rather than accepting promoter timelines.
• Recycling and secondary supply businesses represent the fastest path to commercial revenue from critical mineral supply diversification — with 3–5 year deployment timelines versus 7–15 years for greenfield mining and processing — and are increasingly supported by manufacturer reverse logistics programmes, government recycling mandates, and improving battery and magnet collection economics as EV fleets begin reaching end-of-life volumes.

GLOBAL CRITICAL MINERALS & RARE EARTH ELEMENTS SUPPLY MARKET

Market Segmentation:

Critical Minerals & Rare Earth Elements Supply Market – By Mineral Type

• Introduction/Key Findings
• Rare Earth Elements (Light & Heavy REEs)
• Lithium
• Cobalt & Nickel
• Gallium & Germanium
• Graphite & Graphene
• Others (Manganese, Indium, Tungsten, Vanadium)
• Y-O-Y Growth Trend & Opportunity Analysis

Rare Earth Elements is the dominant subsegment by strategic value and price per tonne in 2025, anchored by neodymium and dysprosium demand for permanent magnets in EV traction motors and wind turbines, and by the near-total Chinese control of heavy rare earth processing that gives this segment the highest geopolitical risk premium and the most acute supply security urgency for EV manufacturers and defence primes globally.

Gallium & Germanium is the fastest-growing subsegment by revenue growth trajectory in 2025–2030, driven by China's active export controls forcing non-Chinese producers to invest in alternative capacity at accelerated timelines, combined with surging semiconductor and photovoltaic demand for gallium nitride power electronics and high-efficiency solar cells that require these materials at increasing purity and volume.

Critical Minerals & Rare Earth Elements Supply Market – By Value Chain Stage

• Introduction/Key Findings
• Mining & Extraction
• Processing & Refining
• Separation & Purification
• Recycling & Secondary Supply
• Others
• Y-O-Y Growth Trend & Opportunity Analysis

Processing & Refining is the dominant value chain stage by revenue concentration and strategic control, with China commanding 80–85% of global rare earth processing and refining capacity — the stage where ore from non-Chinese mines is most frequently routed to Chinese facilities, creating the processing bottleneck that limits the effectiveness of ex-China mining investment as a supply diversification strategy.

Recycling & Secondary Supply is the fastest-growing value chain stage, driven by government recycling mandates, growing end-of-life EV and electronics volumes, IRA and EU CRM Act financial incentives for secondary material processing, and the competitive advantage of near-term volume delivery relative to the 7–15 year timeline of greenfield mining and processing project development.

Critical Minerals & Rare Earth Elements Supply Market – By End-Use Industry

• Introduction/Key Findings
• Electric Vehicles & Energy Storage
• Defence & Aerospace
• Semiconductors & Electronics
• Renewable Energy (Wind & Solar)
• Industrial & Chemical
• Others
• Y-O-Y Growth Trend & Opportunity Analysis

Critical Minerals & Rare Earth Elements Supply Market – By Supply Origin

• Introduction/Key Findings
• China-Sourced Supply
• Ex-China / Allied-Nation Supply
• Recycled & Secondary Supply
• Others
• Y-O-Y Growth Trend & Opportunity Analysis

Critical Minerals & Rare Earth Elements Supply Market – By Geography

• Introduction/Key Findings
• Asia-Pacific (including China)
• North America
• Europe
• Latin America
• Africa & Middle East
• Y-O-Y Growth Trend & Opportunity Analysis

Asia-Pacific dominates with approximately 86–87% of rare earth elements market share in 2025, led by China's integrated mine-to-magnet industry, Japan's advanced rare earth processing and magnet manufacturing base, South Korea's battery material processing capacity, and Australia's growing role as the most significant ex-China rare earth mining jurisdiction globally.

North America is the fastest-growing region for ex-China critical mineral supply investment, driven by IRA FEOC compliance urgency, DoD domestic sourcing mandates, USD 134 million DOE refining support, the Mountain Pass mine expansion, and multiple government-supported processing facility projects targeting commercial-scale heavy rare earth separation within the forecast period.

Latest Market News (2025–2026):

• September 2025 – MP Materials and Apple Strategic Partnership: MP Materials Corp. entered into a strategic partnership with Apple Inc. to supply rare earth magnets and expand domestic magnet manufacturing capacity in the United States — one of the most significant commercial signals that technology companies are treating rare earth supply chain security as a direct procurement priority rather than a policy issue.
• June 2025 – Lynas Rare Earths and JS Link Partnership: Lynas Rare Earths partnered with South Korea-based JS Link to advance rare earth magnet manufacturing, strengthening Lynas' downstream integration from ore processing toward finished magnet production — a strategic move to capture more of the value chain and reduce Chinese processing monopoly leverage over magnet-grade separated oxides.
• December 2025 – U.S. DOE Issues USD 134 Million Critical Minerals Funding: The U.S. Department of Energy's Office of Critical Minerals and Energy Innovation issued a Notice of Funding Opportunity for USD 134 million to support domestic rare earth refining and recovery projects, targeting commercial viability demonstration for refining and recovering rare earth elements from traditional feedstocks.
• January 2026 – Japan Launches Deep-Sea Rare Earth Mining Vessel: Japan dispatched a mining vessel to explore seabed mud rich in rare earth minerals near Minamitori Island in the Pacific, seeking to develop independent deep-sea rare earth sources as part of Japan's long-term strategy to reduce dependency on Chinese-controlled land-based supply.
• February 2025 – Rusal Develops Scandium Production: Russian aluminium producer Rusal announced establishment of a scandium production facility at its Bogoslovsky aluminum plant near the Ural Mountains, with initial capacity of 1.5 tonnes per year and expansion potential to 19 metric tonnes — reflecting growing commercial interest in rare earth and critical mineral production outside the traditional mining regions.

Key Players in the Market:

• China Northern Rare Earth (Group) High-Tech Co., Ltd.
• Lynas Rare Earths Limited
• MP Materials Corp.
• Albemarle Corporation
• Glencore plc
• Rio Tinto Group
• Pilbara Minerals Limited
• Arafura Rare Earths Ltd
• Neo Performance Materials Inc.
• Umicore S.A.