HyProMag Rare Earth Magnet Recycling Plant Opens in Germany

HyProMag

HyProMag rare earth magnet recycling has moved into commercial-scale production in Germany after the company opened a new recycling and manufacturing plant in Pforzheim. The facility strengthens Europe’s effort to build a circular rare earth magnet supply chain outside China.

HyProMag rare earth magnet recycling will focus on neodymium-iron-boron magnets and alloys. The plant will start with 100 t/yr of production capacity, with plans to increase output to 350 t/yr.

HyProMag rare earth magnet recycling is strategically important because NdFeB magnets are critical for electric vehicles, wind turbines, robotics, electronics, defence systems and industrial motors. Europe needs more local magnet capacity as China continues to dominate rare earth processing and magnet production.

The plant is permitted for production of up to 750 t/yr. HyProMag and parent company Mkango Resources are evaluating a scale-up to that level over the next three years.

HPMS Technology Targets Magnet Scrap Recovery

The Pforzheim plant will use Hydrogen Processing of Magnet Scrap technology, known as HPMS. The process was developed at the University of Birmingham and is designed to recover rare earth magnets from scrap streams more efficiently.

This technology matters because magnet recycling can reduce dependence on mined rare earth feedstock and conventional separation routes. It can also shorten supply chains by recovering material already embedded in end-of-life products and industrial scrap.

Recycled NdFeB magnets can support European manufacturers that need secure and traceable supply. Automotive, wind power, electronics and defence customers increasingly want material with clearer origin and lower supply-chain risk.

The initial 100 t/yr capacity is modest compared with China’s magnet industry. However, the strategic value lies in proving that commercial-scale recycling and magnet manufacturing can operate inside Europe.

The planned expansion to 350 t/yr, and potentially 750 t/yr, would make the site more meaningful for regional supply. It would also help Europe develop technical expertise in magnet scrap collection, processing, alloying and remanufacturing.

EU Critical Raw Materials Strategy Gains Recycling Base

HyProMag’s German plant fits directly into Europe’s critical raw materials strategy. The EU wants to reduce dependence on imported rare earth materials by supporting domestic mining, separation, recycling and manufacturing capacity.

Mkango Resources adds another layer to this strategy. The Canadian company owns a rare earths project in Malawi and a proposed rare earths separation plant in Poland.

Both projects have been selected as strategic projects under the EU Critical Raw Materials Act. This gives Mkango a broader position across upstream rare earth resources, midstream separation and downstream magnet recycling.

The German plant therefore is not just a standalone recycling facility. It could become part of a wider European rare earth value chain connecting African feedstock, European separation and recycled magnet production.

For Europe, this model is important. Mining alone will not solve rare earth dependence if separation, metal making, alloying and magnet manufacturing remain concentrated elsewhere.

HyProMag’s Pforzheim facility helps address one of the most difficult parts of the chain: turning rare earth scrap into usable magnet products. If the company scales successfully, it could support a more resilient European magnet ecosystem.

The Metalnomist Commentary

HyProMag’s plant shows that Europe’s rare earth strategy is moving from policy ambition into industrial execution. The key test will be whether recycling capacity can scale fast enough to supply real magnet demand in EVs, wind power and defence.

China Rare Earth Mining Regulations Tighten as Beijing Targets Illegal Supply

China Rare Earth Mining

China rare earth mining regulations are set to become more detailed as Beijing moves to strengthen control over mining, smelting, recycling and trading activity. The industry and information technology ministry has released a draft plan that would impose administrative penalties of up to 5mn yuan for violations.

China rare earth mining regulations already place rare earth production under a state quota system. The latest proposal would clarify penalty levels for companies that mine, smelt, process or trade rare earth materials outside approved channels.

China rare earth mining regulations are strategically important because China remains dominant across global rare earth mining, separation, metal production and magnet supply. Stronger enforcement could tighten unofficial supply and improve state oversight of material flows.

The draft plan released on 28 April sets clearer benchmarks for discretionary penalties. It is aimed at illegal mining, unauthorised smelting, quota breaches, unapproved feedstock use and failures in reporting or traceability.

Quota Enforcement Extends Across Mining, Smelting and Recycling

The draft plan targets enterprises that produce rare earth products beyond state-allocated mining quotas. Companies that conduct smelting without approved quotas would also face fines.

The rules would also cover comprehensive recycling firms that use rare earth ore as feedstock without authorisation. This is important because recycling and secondary processing can become loopholes if ore origin and flow reporting are weak.

Companies that buy, process or sell illegally produced rare earth ore or smelting products would also be penalised. This widens enforcement from producers to the broader trading and processing chain.

Firms that fail to comply with rare earth flow reporting and traceability requirements would face penalties. Companies that refuse or obstruct government supervision and inspection would also be targeted.

This shows that Beijing is not only regulating output volumes. It is building a more detailed control system around material origin, movement, processing rights and end-market access.

Rare earth traceability is becoming more important because these materials are strategic inputs for electric vehicles, wind turbines, robotics, defence systems, aerospace, electronics and high-end manufacturing.

The policy also strengthens China’s ability to monitor both primary and secondary supply. That matters as rare earth scrap recycling grows and as downstream magnet demand continues to increase.

State Control Reinforces China’s Strategic Rare Earth Position

China has tightened control over rare earth resources for more than a decade. The sector has been consolidated under several large state-owned groups to reduce illegal mining, improve environmental oversight and strengthen industrial coordination.

The State Council issued comprehensive rare earth regulations on 29 June 2024 covering mining, smelting, processing, recycling, trading and imports and exports. Those rules took effect on 1 October 2024, but did not define detailed penalty levels.

The latest draft fills that gap. It turns broad regulatory control into a more enforceable administrative system with clearer financial consequences.

China’s two major rare earth groups, Northern Rare Earth and China Rare Earth, now control domestic resources after China Rare Earth consolidated Xiamen Tungsten and Guangdong Rare Earth. Mining, smelting and separation quotas are allocated only to these groups and their affiliates.

Private firms and individuals are prohibited from processing rare earths. This gives Beijing a high level of control over domestic supply channels and industrial output.

From 2025, China also included imported rare earth ore in its quota system. This expanded oversight beyond domestic mining and gave the government more control over imported feedstock entering Chinese smelting and separation plants.

The move is strategically significant. China is treating rare earths as controlled industrial resources rather than ordinary commodities. Production discipline, traceability and export controls are now part of the same policy framework.

For global buyers, tighter regulation could reduce illegal or informal supply flows. It may also increase dependence on approved producers and make rare earth availability more closely tied to Chinese quota and export policy.

The Metalnomist Commentary

China’s rare earth enforcement push shows that Beijing wants full visibility over every stage of the value chain. For western buyers, the risk is clear: rare earth supply is becoming more regulated, more traceable and more politically controlled at the source.

Huahong Rare Earth Output Rises as NdFeB Scrap Recycling Supports Magnet Demand

Huahong Rare Earth

Huahong rare earth output increased sharply in 2025 as stronger demand from new energy vehicles, industrial automation and energy-saving motors lifted China’s rare earth recycling and magnet supply chain. Zhejiang Huahong Technology produced 8,794t of rare earth oxides during the year, up 71% from 2024.

Huahong rare earth output growth was also supported by tighter rare earth supply conditions in China. Stricter government controls on mining, processing and production capacity helped lift prices and encouraged stronger output from qualified oxide and magnet producers.

Huahong rare earth output is strategically important because the company recovers rare earth oxides from neodymium-iron-boron scrap. This recycling route gives China another feedstock source for magnet production at a time when primary supply, mining quotas and scrap availability remain sensitive.

Sales of rare earth oxides rose by 57% to 9,165t in 2025, while inventories increased by 7% to 359t. The figures show that downstream demand remained strong enough to absorb most of the company’s higher oxide output.

NdFeB Scrap Recycling Gains Value Under Tighter Rare Earth Supply

Huahong operates three production bases for NdFeB scrap recycling: Ji’an Xintai, Jishui Jincheng and Jiangxi Wanhong. Together, these sites have 12,000 t/yr of rare earth oxide capacity using neodymium-iron-boron scrap as feedstock.

This recycling capacity matters because magnet scrap is becoming a strategic rare earth resource. NdFeB magnets contain neodymium, praseodymium and, in higher-performance grades, heavy rare earths such as dysprosium and terbium.

Recovering these materials from scrap can reduce dependence on mined feedstock and improve supply efficiency. It also supports China’s circular rare earth strategy, especially as demand from electric vehicles, robotics and industrial motors rises.

Market participants said some oxide plants are facing shutdowns or output restrictions because their capacity exceeds government standards. Tighter mining quotas, limited spot availability and higher NdFeB scrap costs have also created pressure in the oxide market.

These conditions favour producers with approved capacity and secure scrap channels. Huahong’s stronger oxide output suggests that recycled feedstock is becoming more important in balancing China’s rare earth supply chain.

The company’s revenue rose by 41% to 7.83bn yuan in 2025, while profit increased by 157% to 204mn yuan. The profit growth shows how higher rare earth prices and stronger magnet demand improved margins across the business.

High-Performance Magnet Demand Drives Capacity Expansion

Huahong’s rare earth magnetic materials output rose by 27% to 15,791t in 2025. Sales increased by 19% to 14,035t, while inventories rose by 29% to 1,042t.

The growth reflects rising demand for high-performance magnets in new energy vehicles, industrial robots, automation systems and energy-saving motors. These sectors require magnets with stronger magnetic performance, thermal stability and reliability.

China produced 16.6mn new energy vehicles in 2025, up 29% from a year earlier. NEV sales rose by 28% to 16.5mn units, supporting demand for high-performance NdFeB magnets used in traction motors, pumps, sensors, braking systems and other vehicle components.

Huahong said high-performance NdFeB magnetic materials accounted for around 42% of China’s total magnet output last year. That share is likely to remain important as vehicles become more electrified, automated and motor-intensive.

Industrial robots also supported magnet demand. Global industrial robot output exceeded 600,000 units in 2025, with compound annual growth above 10%. Robotics growth increases demand for compact, efficient and high-torque motor systems.

Huahong plans to start trial operations at the first phase of its Baotou facility in May-June 2026. The first phase will add 10,000 t/yr of high-performance magnet capacity.

Once the first phase comes on line, Huahong’s total high-performance magnet capacity will reach 20,000 t/yr. This positions the company more deeply in the downstream magnet chain, not only in rare earth oxide recycling.

The expansion shows how China’s rare earth industry is moving toward integrated recycling, oxide production and magnet manufacturing. Companies with access to scrap feedstock and downstream magnet capacity may be better positioned as rare earth supply becomes more regulated.

The Metalnomist Commentary

Huahong’s growth shows that rare earth recycling is no longer a secondary supply story. As NEV and robotics demand rises, NdFeB scrap recovery is becoming a strategic feedstock route for China’s high-performance magnet industry.

EU Raw Materials Platform Targets Strategic Metals Supply Security

EU, Raw Materials Platform

EU raw materials platform development has advanced as the European Commission launched a new online mechanism to connect European offtakers with suppliers of strategic raw materials. The EU raw materials platform is designed to support demand aggregation, joint purchasing and better market information across critical supply chains.

The platform covers all 17 strategic raw materials listed under the Critical Raw Materials Act. These materials are central to batteries, rare earth magnets, defence systems, semiconductors, renewable energy, advanced manufacturing and industrial resilience.

EU raw materials platform activity will take place through structured rounds. The first diversification round will target operational projects where materials are already available or expected in the near term, with a focus on rare earths, defence-related materials and battery metals.

The mechanism will not provide financing or directly support negotiations. However, it can improve visibility across supply, demand, storage, investment opportunities and financing options, which are often fragmented in strategic raw material markets.

Demand Aggregation Could Strengthen Minor Metals Markets

Demand aggregation is the most important function of the platform. Many strategic materials are needed in small volumes by individual companies, but they carry high industrial and defence value.

This is especially true for minor metals such as gallium and germanium. These materials are used in semiconductors, optics, solar technologies, defence electronics and advanced communications systems, but individual buyers may not require large enough volumes to support new supply projects alone.

Pooling demand can change that equation. If several European buyers aggregate requirements, suppliers may see larger, more stable offtake volumes. This can improve confidence for upstream mining, refining, recycling and midstream processing projects.

The same logic applies to rare earths. Magnet makers, motor producers, defence manufacturers and clean-energy equipment suppliers often need secure access to neodymium, praseodymium, dysprosium and terbium. Aggregated demand could make European purchasing more credible to non-EU suppliers.

Battery metals may also benefit. Lithium, cobalt, nickel, manganese and graphite supply chains are increasingly shaped by long-term offtake, regional qualification and industrial policy. A shared platform can help buyers identify supply options before shortages become acute.

The platform therefore addresses a structural weakness in Europe’s critical materials strategy. Europe has strong downstream industries, but many of those industries purchase strategic metals in fragmented, company-by-company channels.

By collecting and exchanging market data, the mechanism could help convert dispersed demand into more bankable offtake signals. That is important for suppliers seeking financing, customers and predictable long-term buyers.

Platform Supports EU Diversification but Does Not Replace Financing

The EU raw materials platform is part of a broader strategy to reduce external dependencies under the Critical Raw Materials Act. Europe wants to diversify supply, strengthen domestic processing and secure access to materials needed for the energy transition and defence.

However, the mechanism is not a full project-financing tool. Negotiations will take place outside the system, and the platform will not guarantee deals or provide direct financial backing.

This limits what the mechanism can achieve by itself. Strategic raw material projects still need permitting, capital, technology, customer qualification, logistics and long-term price visibility.

But the platform can still play a useful role. It can bring buyers and suppliers into the same market framework, improve demand transparency and identify where joint purchasing could support supply diversification.

The first diversification round will be important because it focuses on projects close to availability. This avoids the problem of relying only on long-dated mining projects that may take years to enter production.

The inclusion of storage options is also relevant. Strategic materials supply security is not only about production. It also depends on inventories, emergency access, buffer stocks and coordinated procurement during disruption.

The broader platform also includes gas and hydrogen mechanisms. This shows that the EU is applying a similar strategic procurement model across energy and raw materials, where fragmented buying can weaken market leverage.

For Europe’s industrial base, the key issue is execution. The platform must move beyond data sharing and create real commercial connections between offtakers and suppliers. Otherwise, it risks becoming another policy tool without enough market impact.

For suppliers, the opportunity is clearer. A credible pool of European demand could make projects more attractive, especially in rare earths, gallium, germanium and battery materials where supply diversification is politically urgent.

The Metalnomist Commentary

The EU raw materials platform is not a financing solution, but it could become an important demand-signalling tool. Its success will depend on whether Europe can turn fragmented buyer interest into real offtake volumes that support new strategic metals supply.

Rare Earth Magnet Recycling Gains Momentum as Japanese Firms Target Air Conditioner Compressors

Daikin

Rare earth magnet recycling is moving into Japan’s commercial air conditioning sector as Daikin Industries, Shin-Etsu Chemical, Hitachi and Tokyo Eco Recycle prepare a joint recovery initiative. The project will recover rare earth magnets from compressors used in commercial air conditioners and return the material to new magnet production.

The companies plan to develop automated recovery equipment in 2026 and start full-scale operations in 2027. Daikin aims to collect around 10,000 compressors a year and eventually recycle several tonnes of rare earth magnets annually.

Rare earth magnet recycling is strategically important because compressors use internal motors that contain neodymium-based magnets. These magnets are essential for high-efficiency air conditioners, electric vehicles, industrial motors and other electrified systems.

The initiative also addresses a gap in Japan’s recycling infrastructure. Daikin said there is currently no established framework in Japan for recovering rare earth magnets from commercial air conditioner compressors.

Compressor Motors Offer a New Urban Mine

Commercial air conditioner compressors are a practical target for rare earth magnet recycling because they are large, identifiable and collected through equipment replacement channels. This makes them easier to trace than many small electronic products.

Daikin will collect used compressors under the scheme. Tokyo Eco Recycle, working with Hitachi, will extract the rare earth magnets from the units. Shin-Etsu Chemical will then use the recovered magnets as raw material for new rare earth magnet production.

This structure creates a closed-loop model. It connects product collection, disassembly, magnet recovery and remanufacturing inside one coordinated supply chain.

The industrial meaning is significant. Japan is trying to recover strategic materials from domestic end-of-life equipment rather than relying only on imported rare earths. This can reduce exposure to supply disruptions and improve material security for manufacturers.

Neodymium magnets are particularly important because they support compact, high-efficiency motors. Air conditioner makers need these motors to reduce energy consumption, while EV and industrial motor producers need them for power density and performance.

The project could also become a model for other equipment categories. If companies can recover magnets efficiently from compressors, similar approaches may be applied to motors, pumps, factory equipment and vehicle components.

Automation and Policy Support Strengthen Japan’s Recycling Model

The companies plan to improve recovery efficiency through automation. AI-based image recognition and robotics will help optimise disassembly processes for different compressor models.

This is important because recycling rare earth magnets is not only a materials issue. It is also a dismantling and sorting problem. Magnet recovery becomes difficult when product designs, motor structures and fastening systems vary across models.

A centralised data system will manage the full process from collection to remanufacturing. This should improve traceability, recovery planning and quality control across the recycling chain.

The policy backdrop is also supportive. Japan’s environment ministry has allocated about ¥37.9bn, or $238mn, in its fiscal 2026 budget to promote recycling of metal resources, including rare metals and rare earths.

This shows that Japan views critical minerals recycling as both an environmental and economic security priority. Recycling reduces waste, but it also lowers dependence on concentrated foreign supply chains.

China still dominates much of the global rare earth supply chain, from mining and separation to metal conversion and magnet production. For Japan, domestic recycling can provide a supplementary source of magnet raw materials and reduce supply risk for strategic industries.

However, the scale will be modest at first. Recycling several tonnes of magnets annually will not replace primary supply. But it can create a repeatable industrial system that grows as collection networks, automation and remanufacturing improve.

The bigger value lies in building capability. Japan is connecting equipment makers, recyclers and magnet producers before supply stress becomes more severe.

The Metalnomist Commentary

Rare earth magnet recycling from compressors shows how industrial equipment can become a strategic materials source. Japan’s advantage will come from turning product traceability, automation and chemical expertise into a scalable recycling loop before rare earth supply risks intensify.

High-Purity Iron Plant Targets US Rare Earth Magnet Supply Gap

Hertha Metals

High-purity iron is emerging as a hidden bottleneck in the US rare earth magnet supply chain as new defense sourcing rules approach. Houston-based Hertha Metals plans to build a 10,000 t/yr plant in Texas to produce high-purity iron used in neodymium-iron-boron permanent magnets.

The project targets a less visible vulnerability in magnet manufacturing. US policy has focused heavily on rare earth elements such as neodymium and praseodymium, but NdFeB magnets also require high-purity iron. Hertha Metals says about 90% of this material is currently produced in China.

The timing is strategically important. Updated Defense Federal Acquisition Regulations are set to take effect on 1 January 2027, restricting Chinese-origin rare earth magnets and constituent materials in covered US defense systems. That rule could force defense contractors, magnet makers and upstream material suppliers to rebuild supply chains around non-China sources.

Hertha Metals plans to break ground later this summer. The company says its Texas plant will become the first domestic producer of high-purity iron for this application, positioning the project at the intersection of magnet security, steelmaking technology and US industrial policy.

DFARS Rules Put Magnet Inputs Under Supply Chain Pressure

The 2027 DFARS deadline changes the strategic value of upstream magnet materials. Compliance will not depend only on where final magnets are assembled. It will also depend on the origin of constituent materials used in defense-related systems.

This creates a direct opportunity for domestic high-purity iron. NdFeB magnets require neodymium, praseodymium and often dysprosium or terbium for performance, but iron remains the major base component. If high-purity iron remains China-dependent, US magnet supply chains could still face compliance risk even if rare earth oxides or metals are sourced elsewhere.

Hertha Metals is trying to address that gap with its FLEXHERS process, short for flexible fuel hydrogen electric reduction smelting. The process combines electric arc furnace technology with natural gas or hydrogen to produce iron and steel.

The company says the technology can use lower-grade ores and iron ore fines that are difficult to process economically through conventional blast furnace routes. This could widen the domestic feedstock base and reduce dependence on imported high-purity iron.

Hertha currently operates a one-tonne-per-day demonstration plant in Conroe, Texas. It describes the site as the largest demonstration-scale single-step steelmaking facility in the US. Ore is sourced domestically from Minnesota, and the pilot facility is already producing material that meets customer specifications.

The planned high-purity iron facility will also produce trial steel products. Hertha sees the project as a stepping stone toward broader iron and steelmaking capacity, with a target of reaching roughly 500,000 t/yr of production within four to five years.

Cost competitiveness will be critical. Hertha says it does not plan to rely on a domestic supply premium. Instead, it aims to compete economically by replacing metallurgical coal with natural gas and electricity while using lower-cost ore feedstocks.

This claim matters because strategic materials projects often struggle when policy support is stronger than market economics. If Hertha can produce competitively without relying on premium pricing, the company could build a more durable position in both defense and commercial supply chains.

Hertha Metals CEO Laureen Meroueh

Domestic Iron Production Links Magnets, Electrical Steel and Clean Manufacturing

High-purity iron has strategic importance beyond NdFeB magnets. The material can also support electrical steel used in transformers, electric vehicle motors and other electromagnetic applications. These sectors are becoming more important as grid investment, electrification and domestic manufacturing policy expand.

The project also fits a wider shift in iron and steel markets. Traditional blast furnace production depends heavily on metallurgical coal and higher-emission processing routes. Meanwhile, demand for higher-grade iron inputs suitable for lower-carbon steelmaking is expected to rise as producers shift toward cleaner technologies.

Hertha’s process aims to sit inside that transition. By using electricity, natural gas or hydrogen, the company is positioning FLEXHERS as a lower-carbon alternative to legacy ironmaking. The ability to process lower-grade ore and fines could also help revive domestic iron production without requiring only premium feedstocks.

The US steel industry has increasingly focused on scrap-fed electric arc furnaces. That model supports recycling and lower emissions, but it does not fully solve domestic iron supply for high-purity applications. Magnets, electrical steel and advanced components often need controlled chemistry that scrap alone cannot easily provide.

This is where Hertha’s strategy becomes industrially relevant. The company is not only proposing another steel plant. It is targeting a specific materials gap between critical minerals policy, rare earth magnet manufacturing and advanced steelmaking.

Competition from subsidized overseas producers remains a risk. Hertha says it can compete on cost, but Chinese industrial support and below-cost exports could still challenge domestic producers. This is why policy, procurement rules and long-term customer commitments may become important even if the production technology works.

The company has not disclosed financing details, future fundraising plans or offtake agreements. That leaves open questions about capital structure, customer readiness and the pace of commercial scale-up. However, the 2027 DFARS deadline gives the project a clear market catalyst.

The broader implication is that rare earth magnet supply security cannot be solved by rare earth mining alone. The full chain includes ore, separation, metal conversion, alloying, magnet manufacturing and supporting inputs such as high-purity iron. Any weak link can create dependence.

Hertha Metals is betting that the next phase of US critical materials policy will recognise that reality. If the company can scale production, secure customers and maintain cost discipline, high-purity iron could become a small but essential piece of the domestic magnet supply chain.

The Metalnomist Commentary

Hertha Metals highlights a critical point often missed in rare earth policy: magnet security depends on more than rare earths. High-purity iron, electrical steel and alloy inputs will become strategic materials if US defense and electrification supply chains must move away from China.

Volkswagen ID.4 Production Halt Shows US EV Demand Pressure

Volkswagen EV

Volkswagen ID.4 production in the US will end as the German automaker shifts its Chattanooga, Tennessee, plant toward higher-volume internal combustion vehicle output. The decision reflects weaker electric vehicle demand in the US and the need to protect North American manufacturing utilisation.

Volkswagen said the EV market continues to challenge the industry and requires measured decisions. The company will stop producing the ID.4 at Chattanooga and begin assembling the all-new second-generation Atlas from mid-April 2026.

Volkswagen ID.4 production has been strategically important because the model is the company’s top-selling EV in the US. However, the ID.4 sold 22,373 units in 2025, far below the Atlas, which sold 71,044 units and remained Volkswagen’s second-best-selling model for the past three years.

The decision shows how automakers are adjusting production footprints as EV adoption slows. US EV sales fell by 27% year on year to 216,300 units in the first quarter, creating pressure on manufacturers to rebalance plant capacity, dealer inventory and product planning.

Chattanooga Shift Prioritises Higher-Volume SUV Demand

The Chattanooga plant will now focus on the second-generation Atlas, a three-row sport utility vehicle with much stronger US sales momentum. This gives Volkswagen a clearer volume base in a market where larger SUVs remain commercially attractive.

The move is not a full retreat from the ID.4. Volkswagen said model-year 2026 ID.4 vehicles will remain available through current inventory, supporting US demand into 2027. The company also plans a future version of the ID.4 for North America, although details have not yet been disclosed.

Still, the production shift is significant. Automakers rarely remove capacity from a model unless demand, margin or manufacturing strategy has changed. In this case, Volkswagen appears to be choosing a higher-volume SUV platform over a slower-moving EV in the near term.

This reflects a wider industry trend. EV demand has become more uneven as consumers respond to vehicle prices, charging access, policy uncertainty and changing incentive structures. Automakers now need more flexible production strategies rather than relying on straight-line EV growth forecasts.

EV Slowdown Could Weigh on Battery Materials Demand

Volkswagen ID.4 production changes also matter for the battery materials supply chain. Lower EV output can reduce near-term demand for lithium, nickel, graphite, manganese, copper, aluminium and rare earth magnet materials linked to electric drivetrains and battery systems.

The effect will not come from Volkswagen alone. The bigger issue is that several automakers are reassessing EV production rates in response to slower consumer adoption. If this pattern continues, battery material demand growth may become more volatile than earlier industry forecasts suggested.

For suppliers, the shift creates a timing problem. Many battery, cathode, anode and recycling investments were planned around rapid EV market expansion. Slower model-level output can leave material producers exposed to weaker offtake, lower utilisation and price pressure.

At the same time, Volkswagen’s decision does not eliminate long-term EV demand. It shows that the transition may move in phases, with automakers balancing EVs, hybrids and combustion vehicles depending on regional demand. North America may therefore remain a more mixed powertrain market than China or parts of Europe.

The Metalnomist Commentary

Volkswagen’s ID.4 decision shows that EV strategy is now being tested by real factory economics. The energy transition is still moving forward, but automakers will increasingly prioritise models that protect utilisation, margins and supply-chain stability.

Shenghe Rare Earth Expansion Targets Higher Capacity and Overseas Resources

Shenghe Resources

Shenghe rare earth expansion plans for 2026-28 show the Chinese producer moving to strengthen its position across rare earth processing, recycling, overseas mining and heavy mineral supply. The company aims to raise revenue, expand capacity and secure more seaborne resource reserves over the next three years.

Shenghe rare earth expansion will be supported by stronger market conditions. The company expects 2025 profits of 790mn-910mn yuan, sharply higher than a year earlier, helped by higher rare earth prices and increased sales volumes.

Shenghe rare earth expansion also reflects China’s broader strategy to deepen control across rare earth value chains. The company already operates across oxide separation, metal processing and scrap recycling, while also extending into polishing powders, catalysts and magnetic materials.

Rare Earth Capacity Growth Anchors the 2026-28 Plan

Shenghe aims to lift rare earth oxide output capacity to more than 30,000 t/yr. It also plans to keep operating rates above 95% across its rare earth processing and recycling businesses.

The company plans to raise rare earth scrap recycling capacity to 15,000 t/yr during 2026-28. This is strategically important because recycling can improve feedstock security and reduce dependence on primary mined supply.

The Ngualla rare earth project in Tanzania is central to Shenghe’s overseas growth plan. Shenghe acquired the project in 2025, gaining access to 4.62mn t of rare earth oxide resources and 887,000t of rare earth oxide reserves.

Construction at Ngualla is targeted for completion in 2027, with commercial production expected in 2028. If delivered, the project could strengthen Shenghe’s access to non-domestic rare earth concentrate and support its long-term processing growth.

Heavy Minerals Add Zircon and Titanium Growth Platform

Shenghe is also expanding beyond rare earths into zircon-titanium heavy minerals. The company aims to increase zircon-titanium heavy mineral capacity to more than 1.5mn t/yr and raise domestic beneficiation plant utilisation above 80%.

Revenue from zirconium and titanium businesses is targeted to exceed 30% of total revenue. This gives Shenghe a broader industrial minerals platform linked to ceramics, refractories, titanium feedstocks, zirconium chemicals and mineral sands processing.

The company is advancing overseas heavy mineral projects in Tanzania and Madagascar. It plans to expand Nyati capacity to 300,000 t/yr in 2026 and 500,000 t/yr in 2028, while the Jiacheng plant in Madagascar is expected to produce its first heavy mineral concentrate in 2027 and reach 1mn t/yr by 2028.

Shenghe also plans to invest at least 3bn yuan over the next three years in overseas resources, domestic rare earth deep-processing, and zirconium and titanium businesses. This underlines its ambition to become a more integrated rare earth and heavy minerals supplier.

The Metalnomist Commentary

Shenghe’s plan shows that China’s rare earth leaders are no longer focused only on separation capacity. The next stage is securing overseas ores, scaling recycling, and building downstream materials exposure before global supply chains diversify further.

US Critical Materials Funding Targets Recycling, Refining and DLE Technologies

DOE (the Department of Energy)

US critical materials funding is moving deeper into domestic production and refining after the Department of Energy announced up to $69 million for new technologies and processes. The notice of funding opportunity, announced on 7 April, targets critical materials including rare earth elements.

The funding is designed to help move technologies from bench-scale innovation toward commercial deployment. That focus is important because the US critical materials funding gap is often not resource identification, but the ability to scale processing, refining and recovery technologies into reliable industrial supply.

The programme covers three main areas: recycling from manufacturing and end-of-life scrap, refining of gallium, germanium and silicon, and direct lithium extraction alongside critical material recovery from volcanic-hosted geothermal systems.

Recycling and Refining Move Higher on the US Supply Chain Agenda

The first funding area targets recycling from manufacturing scrap and end-of-life scrap. This could support recovery routes for valuable metals already present in electronics, magnets, batteries, industrial components and advanced manufacturing waste streams.

The second area focuses on refining gallium, germanium and silicon. These materials are strategically important for semiconductors, optics, solar technologies, defense systems, data infrastructure and advanced electronics.

US critical materials funding for these metals reflects growing concern over concentrated supply chains. China dominates several critical material processing routes, making domestic refining capability a central issue for industrial resilience and national security.

DLE and Geothermal Systems Add New Resource Pathways

The third topic area covers direct lithium extraction and exploration of critical materials and rare earth elements from volcanic-hosted geothermal systems. This could open new pathways for lithium and mineral recovery beyond conventional mining.

Direct lithium extraction remains strategically important because it may improve recovery efficiency, reduce land use and shorten production timelines compared with traditional brine evaporation. However, commercial scalability remains the decisive test.

The DOE said the $69 million opportunity is part of several programmes totalling nearly $1 billion. These initiatives aim to advance mining, processing and manufacturing technologies across the critical materials supply chain.

The Metalnomist Commentary

The US critical materials funding programme shows that Washington is now targeting the weakest links between laboratory success and industrial supply. The key test will be whether these grants create commercial refining and recovery capacity, not only promising pilot projects.

MMC ReElement Rare-Earth Recycling Deal Strengthens Allied Supply Chains

MMC, ReElement

MMC ReElement rare-earth recycling plans mark another step in Japan’s effort to build resilient rare earth supply chains outside China. Mitsubishi Materials will invest in Indiana-based ReElement Technologies through preferred shares and collaborate on recycling rare earths from secondary sources.

The partnership will combine Mitsubishi Materials pretreatment and metal recovery capabilities with ReElement’s chromatography-based separation and purification technology. The companies aim to recover rare earths from home appliances, automotive parts and electronic scrap.

MMC ReElement rare-earth recycling is strategically important because recycling can reduce dependence on primary mining and imported separated rare earth products. It also gives Japan and North America another route to support domestic and allied manufacturing.

Chromatography Technology Targets High-Purity Rare Earth Recovery

ReElement’s technology uses proprietary chromatography-based processes to separate and purify rare earths. The company says the process can recover rare earths at purity above 99.5% and yield above 95%.

This matters because rare earth recycling is not simply a scrap collection business. The real challenge is separating complex mixed materials into high-purity products that can meet downstream specifications.

Mitsubishi Materials plans to apply the technology in North America and Japan. By integrating pretreatment, metal recovery, separation and purification, the companies could create a more complete recycling route for rare earth-bearing waste streams.

Japan and North America Build Circular Rare Earth Capacity

MMC ReElement rare-earth recycling cooperation fits a broader push to secure magnet and advanced materials supply chains. Rare earths recovered from appliances, automotive parts and electronic scrap could support manufacturing sectors that use motors, sensors, electronics and high-performance components.

The companies may also establish a joint venture to scale the model. That would move the relationship beyond financial investment and into deeper industrial collaboration.

For Mitsubishi Materials, the agreement supports its resource circulation strategy. For ReElement, the investment adds a major Japanese industrial partner with experience in metals processing and recycling.

The Metalnomist Commentary

MMC ReElement rare-earth recycling shows that supply security is moving from mining projects into urban mining and advanced separation. The strongest model will combine scrap access, pretreatment know-how and high-purity separation technology into one scalable value chain.

NATO Defense Spending Boost Strengthens Demand Outlook for Critical Minerals

NATO Defense

NATO defense spending rose sharply in 2025 as alliance members invested more than $1.4 trillion in defense capabilities. The increase signals a stronger long-term demand outlook for weapons systems, military infrastructure, aerospace platforms, and the critical minerals used across defense supply chains.

NATO defense spending among non-US members climbed to $574 billion, up from $480 billion in 2024. Luxembourg, Belgium, and Slovenia recorded the largest year-on-year increases in real terms, showing how smaller European members are also accelerating military investment.

NATO defense spending reached a symbolic milestone in 2025, with all member countries meeting the 2% of GDP defense spending guideline for the first time. The target was first agreed at the alliance’s 2014 Wales summit and has become a central measure of burden-sharing inside NATO.

European Defense Investment Moves Into a Higher Spending Cycle

European governments are increasing defense budgets under sustained geopolitical pressure and stronger US demands for burden-sharing. Luxembourg nearly doubled its spending, while Belgium and Slovenia raised expenditure by more than 58% and 53%, respectively.

US defense spending still remained the largest in absolute terms at $838 billion. However, it fell by 1.4% from the previous year, reinforcing the pressure on European allies to take greater responsibility for regional defense capacity.

The alliance also agreed to a new 5% target at its summit in the Netherlands last June. The framework includes 3.5% of GDP for core military spending such as weapons and personnel, and 1.5% for defense-related infrastructure.

Critical Minerals Become More Strategic for Military Supply Chains

Higher NATO defense spending will increase demand for rare earths and other critical minerals used in advanced military systems. Defense applications rely on materials such as germanium, tungsten, titanium, rare earth magnets, nickel alloys, specialty steels, and high-performance electronics materials.

Rare earths support sensors, precision-guided systems, electric motors, radar systems, and advanced defense electronics. Germanium is important for infrared optics and semiconductors, while tungsten is used in high-density and heat-resistant military applications. Titanium remains essential for aerospace structures, engines, armor systems, and high-performance components.

This creates a direct link between defense budgets and mineral security. As NATO members scale weapons production and military infrastructure, governments will need stronger supply chains for mining, refining, recycling, and advanced materials manufacturing.

The Metalnomist Commentary

NATO’s spending surge turns defense procurement into a critical minerals issue. The next strategic bottleneck may not be budget approval, but access to the rare earths, germanium, tungsten, titanium, and specialty materials needed to convert spending into real military capacity.

Japan US Critical Minerals Cooperation Expands Into Deep-Sea Resources and Recycling

US, Japan critical minerals Cooperation

Japan US critical minerals cooperation is moving into a broader strategic phase as both countries seek more resilient supply chains for rare earths, copper, nickel, and battery materials. Japanese prime minister Sanae Takaichi and US president Donald Trump agreed to expand collaboration during a summit in Washington.

Japan US critical minerals cooperation now includes an initial agreement on deep-sea mineral development. The agreement covers resources such as rare earth-rich mud around Minamitorishima and manganese nodules, which could become alternative supply sources outside conventional land-based mining.

Japan US critical minerals cooperation also reflects a shared concern over China’s dominant position in rare earth separation and refining. Both governments are trying to combine Japanese technology, US regulatory frameworks, and private-sector investment to accelerate non-China supply options.

Deep-Sea Minerals Add a New Layer to Rare Earth Security

Deep-sea mineral development could become a strategic supply route for rare earths and other critical minerals. Japan has long studied rare earth-rich mud near Minamitorishima, while manganese nodules offer potential exposure to metals used in batteries, alloys, and advanced industrial systems.

The new working group between Japan’s trade and industry ministry Meti and the US Department of Commerce will focus on technical cooperation. This structure suggests both governments want to move beyond political statements and build practical project-level collaboration.

The industrial meaning is clear. Rare earth supply security depends not only on mining rights, but also on separation technology, environmental standards, financing, and downstream demand from magnets, EV motors, defense systems, and renewable energy equipment.

Recycling, Copper, and Nickel Projects Broaden the Supply Chain Agenda

The summit also highlighted private-sector initiatives that extend beyond deep-sea resources. Mitsubishi Materials is considering cooperation with ReElement Technologies on rare earth recycling in Indiana, targeting recovery from used magnets and other secondary sources.

This recycling angle is important because magnet scrap can become a strategic rare earth feedstock. It also reduces dependence on primary mining and supports a circular supply model for high-value elements such as neodymium, praseodymium, dysprosium, and terbium.

Mitsubishi is also advancing a feasibility study for the Copper World project in Arizona, where it holds a 30pc stake alongside Hudbay Minerals. The project aims to produce around 100,000 tonnes per year of copper from around 2029, strengthening North American copper supply for electrification, grids, and manufacturing.

Sumitomo Metal Mining’s plan to expand nickel matte production at its Hyuga smelter adds another battery materials dimension. Supported by Meti subsidies under Japan’s economic security framework, the project links Japanese refining capacity with battery material security for both Japan and the US.

The Metalnomist Commentary

The Japan-US agenda shows that critical minerals cooperation is no longer limited to mining deals. The real strategy is to connect deep-sea resources, recycling, copper projects, nickel refining, and government-backed industrial policy into one supply chain security framework.

China Rare Earth Resources Expand as Maoniuping REO Estimate Nearly Doubles

China Natural Resources

China rare earth resources have received another major boost after the natural resources ministry confirmed 9.67 million tonnes of rare earth oxide resources at the Maoniuping mining area in Sichuan province. The updated estimate nearly doubles the 4.96 million tonnes of REO previously reported by China Rare Earth Group in September 2024.

The Maoniuping mine is operated by China Rare Earth Group, the country’s largest state-owned rare earth producer. The new resource verification strengthens China’s upstream position in a sector where it already dominates separation, refining, magnet materials, and downstream industrial applications.

China rare earth resources remain central to global supply chains for electric vehicles, wind turbines, defense systems, robotics, electronics, and advanced manufacturing. The larger Maoniuping resource base gives Beijing more long-term optionality as rare earth demand rises and geopolitical competition intensifies.

Maoniuping Reinforces China’s Rare Earth Industrial Advantage

The Maoniuping update is strategically important because China’s rare earth strength is not limited to mining. The country controls the most advanced and integrated rare earth processing system, from ore extraction to separated oxides, metals, alloys, and permanent magnets.

A larger confirmed REO resource base supports that industrial chain. It gives China Rare Earth Group a stronger reserve platform and reinforces Beijing’s ability to manage supply, pricing, and export policy across rare earth markets.

The timing also matters. China has pledged to launch a new round of mineral exploration actions over the next five years, aiming for breakthroughs in strategic resources. The Maoniuping result shows how exploration and state-backed consolidation are working together to protect China rare earth resources and industrial competitiveness.

Antimony Discovery Adds Weight to Strategic Mineral Policy

China also confirmed antimony resources equivalent to 51,455 tonnes of metal at the Waxigou mine in Gansu province. The project is held by Gansu Sanchang Mining and adds another resource point in a market already affected by tight supply and export controls.

Antimony has become more strategically visible because it is used in flame retardants, alloys, semiconductors, ammunition, and defense-related applications. China accounts for a dominant share of global refining capacity, making any new domestic resource confirmation important for both supply security and policy leverage.

Beijing has already placed antimony and rare earths under stricter dual-use export licensing controls. As a result, ex-China supply has tightened, prices have surged, and overseas buyers are reassessing dependence on Chinese-controlled critical mineral chains.

The Metalnomist Commentary

China’s latest rare earth and antimony confirmations show that Beijing is strengthening both the upstream and regulatory sides of critical mineral control. For the US, EU, Japan, and Korea, the message is clear: diversification must include mining, refining, recycling, and advanced material production, not just alternative offtake contracts.

REalloys DLA Contract Targets US Samarium and Gadolinium Metal Production

REalloys

REalloys DLA contract support will help scale domestic production of samarium and gadolinium metals, two rare earth materials with strategic value for defense and advanced manufacturing. The US Defense Logistics Agency awarded the contract to Terves, whose rare earth assets were acquired by REalloys in March 2025.

The REalloys DLA contract focuses on next-generation metallothermal processing for samarium and gadolinium. A core deliverable is the full plant design for a 300 t/yr modular facility that can reduce mixed samarium-europium-gadolinium feedstocks into high-purity metals.

The project matters because commercial-scale separated samarium and gadolinium metal production does not currently exist in the US. Domestic users therefore remain exposed to offshore supply at a time when rare earth supply chains are viewed as a strategic vulnerability.

Modular Metallothermal Processing Could Reduce Dependence on Offshore Supply

REalloys aims to advance both wet chemistry preparation and reduction-to-metal operations under the DLA-backed program. The goal is to establish a commercial-scale domestic route for producing rare earth metals from SEG feedstocks.

The company said its process differs from conventional rare earth production, which often relies on large solvent extraction circuits. A modular approach could offer a more flexible processing model if it can prove quality, cost, throughput, and repeatability at scale.

REalloys has also filed a provisional patent covering direct reduction of SEG feedstocks and direct recycling of all byproducts. The company said this zero-waste configuration could reduce capital intensity and lower production costs by up to 50pc compared with traditional processing routes.

Defense Demand Raises Strategic Value of Rare Earth Metals

The REalloys DLA contract fits into a wider US effort to reduce rare earth supply-chain exposure. The DLA manages the US National Defense Stockpile and has identified rare earth supply chains as a strategic vulnerability amid geopolitical tensions.

Samarium and gadolinium are not the highest-volume rare earths, but they carry high strategic importance. Samarium is used in specialty permanent magnets, while gadolinium has applications across advanced materials, electronics, and defense-related technologies.

REalloys is also developing an integrated North American rare earth platform. Its strategy includes the Hoidas Lake project in Saskatchewan and downstream metallization operations in Ohio, linking upstream resource development with US-based metal production capability.

The Metalnomist Commentary

The REalloys DLA contract shows that rare earth security is moving beyond mining and separation into metallization. For defense supply chains, the critical question is whether North America can produce qualified rare earth metals at commercial scale, not simply recover oxides.

Neo Rare Earth Recycling Deal Strengthens Circular Magnet Supply Chain

Neo performance materials

Neo rare earth recycling plans with Cyclic Materials will support a more circular supply chain for rare earth magnets in Europe and North America. The agreement allows Neo Performance Materials to feed recovered rare earth elements into its alloy and magnet manufacturing operations.

Neo rare earth recycling also aligns with the EU Critical Raw Materials Act, which aims to increase rare earth processing and recycling capacity. This is important because Europe needs more secure access to magnet materials used in EVs, wind turbines, robotics, automation, defence systems, and advanced electronics.

Cyclic Materials recovers rare earth elements from magnet production scrap and end-of-life magnet-bearing materials. Under the agreement, Neo will supply magnet production scrap from its European operations to Cyclic, which will recycle the material into mixed rare earth oxide.

Recycled Rare Earth Oxides Support Neo’s Magnet Platform

Neo will receive mixed rare earth oxides and related products from Cyclic. These materials will come from end-of-life magnets and third-party magnet manufacturing scrap, creating a secondary feedstock stream for Neo’s downstream operations.

This structure matters because rare earth magnet supply chains remain highly exposed to China-dominated processing and refining capacity. Recycling does not eliminate the need for primary rare earth mining, but it can improve resilience, reduce waste, and support traceable supply for strategic customers.

Neo operates a 2,000 t/yr magnet production facility in Estonia and plans to expand it to 5,000 t/yr. A reliable recycled feedstock channel could become more valuable as European magnet production scales and customers demand stronger ESG and supply-chain security credentials.

Cyclic Expands North American Rare Earth Recycling Capacity

Cyclic is building a rare earth recycling campus in South Carolina with initial processing capacity of 2,000 t/yr of magnets. The site is expected to produce 600 t/yr of mixed rare earth oxide, with expansion plans to reach 6,000 t/yr of magnet processing and 1,800 t/yr of MREO output.

The company also has an agreement with Vacuumschmelze to recycle production scrap from the German group’s Sumter, South Carolina, magnet facility. This shows that rare earth recycling is moving from pilot concepts toward integrated industrial supply agreements.

The Neo-Cyclic partnership connects European magnet manufacturing, North American recycling capacity, and recycled rare earth oxide supply. That model could become increasingly important as governments push for domestic and allied rare earth value chains outside China.

The Metalnomist Commentary

Rare earth recycling is becoming a strategic complement to mining and separation, not a side activity. The key advantage will go to companies that can connect scrap collection, oxide recovery, alloying, and magnet production into one qualified supply chain.

MP Materials Magnet Campus in Texas Expands US Rare Earth Manufacturing Capacity

MP Materials

MP Materials magnet campus plans in Northlake, Texas, mark a major step in building a larger US rare earth magnet supply chain. The company’s planned “10X” facility will lift its total neodymium-iron-boron magnet production capacity to about 10,000 t/yr.

The MP Materials magnet campus is expected to require more than $1.25bn in investment. Engineering and equipment procurement are already underway, and commissioning is scheduled for 2028. The project strengthens the company’s position as one of the few integrated Western rare earth producers moving from mining and refining into finished magnet production.

The location also carries strategic value. Northlake sits fewer than 10 miles from MP’s existing Independence facility in Fort Worth, allowing the company to build a regional magnet manufacturing cluster with shared industrial infrastructure, workforce development, and supply-chain connectivity.

Texas Incentives Support Domestic Magnet Scale-Up

Texas, Denton County, and the City of Northlake approved an incentive package worth $200mn over a decade. The package includes grants, abatements, and exemptions designed to support one of the most capital-intensive segments of the rare earth value chain.

This support reflects the strategic importance of neodymium-iron-boron magnets. These magnets are used in electric motors, robotics, drones, defense systems, wind power, industrial automation, and advanced electronics. For the US, domestic magnet capacity is becoming a national competitiveness issue as China continues to dominate much of the rare earth processing and magnet manufacturing chain.

The MP Materials magnet campus also expands the company’s role beyond raw material supply. MP describes itself as an integrated magnet producer, with activities spanning mining, refining, metallization, alloying, sintering, finished magnet production, and recycling. That vertical model is important because rare earth supply security depends on every step between ore and magnet-ready components.

Northlake Adds Scale to Fort Worth Magnet Platform

MP’s existing Independence facility in Fort Worth provides the foundation for the Northlake expansion. Independence has 1,000 t/yr of magnet production capacity, with a 2,000 t/yr expansion already underway. That site is also anchored by a partnership with Apple focused on magnet recycling.

The Northlake project adds a much larger scale-up pathway. By targeting about 10,000 t/yr in total neodymium-iron-boron magnet capacity, MP is positioning itself to serve higher-volume demand from automotive, electronics, energy, and defense customers.

Recycling will also become more important as magnet demand grows. Recovered magnets can provide an additional rare earth feedstock stream and reduce pressure on primary supply. In a market exposed to geopolitical risk, recycling can strengthen domestic material resilience and improve traceability.

The Metalnomist Commentary

MP’s Northlake project shows that the US rare earth strategy is shifting from mining announcements to industrial execution. The critical test will be whether domestic magnet production can scale with competitive costs, qualified customers, and reliable feedstock flows.

ReElement Rare Earth Processing Award Strengthens US Mine-to-Magnet Strategy

ReElement

ReElement rare earth processing has gained fresh support from the US Department of Defense through a $2mn award to expand separation capacity in Marion, Indiana. The funding reflects Washington’s continued push to reduce reliance on Chinese-dominated rare earth supply chains and build domestic processing capacity for defense and commercial applications.

The two-year award will support processing of ores, recycled magnets, and manufacturing waste. This is important because the US rare earth supply chain needs more than new mines. It also needs refining, separation, recycling, and oxide production capacity that can feed permanent magnet manufacturing.

ReElement rare earth processing uses chromatography-based refining technology to produce high-purity rare earth oxides. These oxides are used in permanent magnets for defense systems, electric motors, electronics, and other advanced industrial applications.

Rare Earth Separation Remains the Critical Bottleneck

Rare earth separation is one of the most important weaknesses in the Western critical minerals supply chain. Mining projects can produce concentrates, but those materials must still be separated and refined into usable oxides before they can support magnet production.

The Department of Defense award targets that gap. By supporting ReElement rare earth processing in Indiana, the US is trying to expand the domestic industrial base around materials that are essential for missiles, aircraft, radar systems, robotics, electric vehicles, wind power, and precision electronics.

The funding also covers recycled magnets and manufacturing waste, which could strengthen circular supply channels. Recycling cannot replace primary supply entirely, but it can reduce dependence on imported feedstock and improve resilience when geopolitical tensions disrupt traditional flows.

Defense Funding Supports the 2027 Mine-to-Magnet Initiative

The award is part of the Department of Defense’s 2027 mine-to-magnet initiative. That strategy aims to connect raw material sourcing, separation, oxide production, metal making, alloying, and magnet manufacturing inside a more secure domestic and allied supply chain.

The funding comes through the Industrial Base Analysis and Sustainment program. Since 2014, the program has invested more than $2.6bn across 207 projects to expand US industrial base capacity. This shows that rare earths are now treated as a defense-industrial issue, not only a mining or technology issue.

The delayed announcement also highlights the importance of continuity in critical minerals policy. Government shutdowns and budget delays can slow execution, but the strategic direction remains clear. The US wants more domestic capacity for rare earth processing, especially for materials tied to permanent magnets and national security.

The Metalnomist Commentary

The ReElement award is small in dollar terms but important in strategic direction. The US rare earth challenge will not be solved by mining alone; the real contest is in separation, refining, recycling, and magnet-ready material production.

Cyclic US REE Recycling Expansion Deepens North American Magnet Supply Ambitions

Cyclic

Cyclic US REE recycling expansion is accelerating as the company moves to build a second US facility in South Carolina. The new McBee site will process 600 metric tonnes per year of mixed rare-earth oxides, with expansion planned to 1,800 t/yr. Operations are expected to begin in 2028. As a result, Cyclic US REE recycling expansion is becoming a more serious part of the North American magnet supply chain.

This project matters because rare earth recycling is moving from pilot scale toward industrial relevance. Cyclic is investing more than $82mn in the McBee facility. The company is also building on a larger spoke-hub strategy rather than a single isolated plant. Therefore, Cyclic US REE recycling expansion reflects a broader effort to localize critical rare earth processing in North America.

The location also adds strategic value. McBee sits close to Vacuumschmelze’s magnet manufacturing site in Sumter, South Carolina. Cyclic already has a 10-year exclusive agreement with VAC to recycle magnet production byproducts. Consequently, the new plant links recycling capacity directly to downstream magnet manufacturing demand.

North American Rare Earth Recycling Is Moving Toward Industrial Scale

North American rare earth recycling is gaining more industrial depth through this investment. Cyclic said the McBee facility will operate as a combined spoke-and-hub. It will also become the company’s largest hub to date. That means the project is designed for system scale, not just regional collection.

The company is also supporting this buildout with stronger capital backing. Cyclic recently closed a $75mn equity funding round, bringing total equity funding above $162mn. That financial support gives the company more room to scale processing infrastructure. As a result, North American rare earth recycling is attracting more serious investor confidence.

The broader network already shows how this model is developing. Cyclic operates its first hub in Ontario and has invested in a large Arizona facility for end-of-life rare-earth permanent magnets. These sites support a cross-border recycling chain rather than a single-country model. Therefore, the company is positioning itself as a multi-node recycler in a strategically sensitive market.

Magnet Recycling Supply Chain Gains a Stronger US Processing Base

The magnet recycling supply chain stands to benefit most from the McBee project. The facility will process mixed rare-earth oxides, which are critical intermediate materials in the rare earth value chain. Stronger domestic processing capacity can reduce dependence on longer and more fragile overseas routes. Consequently, the new site could improve both resilience and lead times.

The VAC relationship makes that especially important. Recycling magnet production byproducts creates a more closed-loop industrial model. That can improve feedstock security while supporting lower-waste manufacturing. Meanwhile, it gives Cyclic a direct commercial pathway rather than relying only on spot material flows.

The international dimension also remains important. Cyclic already has an agreement to supply Solvay’s La Rochelle plant for further separation and purification from its Ontario hub output. That means the company is building a chain that connects North American recycling with allied refining capacity. Therefore, Cyclic US REE recycling expansion supports both regional resilience and transatlantic processing cooperation.

The Metalnomist Commentary

This project matters because rare earth strategy now depends as much on recycling systems as on mining. Cyclic is building a supply chain model that connects scrap, oxides, and magnets more directly. If McBee ramps successfully, it could become a meaningful benchmark for western rare earth circularity.