IonicRE Rare Earth Recycling Deal Targets Ex-China Magnet Supply Gap

Ionic rare earths

IonicRE rare earth recycling plans have gained a technology boost after the Australian rare earths miner, refiner and recycler signed a licensing agreement with US refiner Nth Cycle. The deal gives Ionic Rare Earths access to electro-extraction technology for its US and global recycling operations.

IonicRE rare earth recycling will focus on recovering rare earth oxides from neodymium-iron-boron permanent magnet dust. These oxides can then be reused in the production of new rare earth magnets.

IonicRE rare earth recycling is strategically important because magnet supply chains outside China remain weak in midstream processing and recycling. The agreement helps address that gap by adding technology that can convert magnet waste into reusable rare earth oxide products.

Nth Cycle’s technology can break down NdFeB magnet dust into rare earth oxides. This supports circular supply chains for materials used in electric vehicles, wind turbines, robotics, defence systems and advanced electronics.

NdFeB Magnet Dust Becomes a Strategic Feedstock

NdFeB magnet recycling is becoming more important as demand for rare earth permanent magnets grows. Magnet production generates upstream and downstream dust, and that material contains valuable neodymium, praseodymium and heavy rare earth elements.

IonicRE already has proprietary technology for recycling REPM metal dust. Nth Cycle’s electro-extraction process adds another capability and fills a specific midstream gap in the ex-China recycling chain.

The technology could be used at IonicRE’s Belfast recycling facility in Northern Ireland. It may also support the company’s 50:50 joint venture with Viridis at a planned recycling facility in Brazil.

The US is another important target. IonicRE already supplies technology to US Strategic Metals’ Missouri recycling facility, which is expected to recover neodymium-praseodymium oxide and heavy rare earths including dysprosium, terbium, samarium, gadolinium and holmium.

This matters because recycling can reduce dependence on mined supply and improve traceability. It can also create shorter, more secure material loops for magnet makers and industrial users.

Recycling Adds Depth to Ex-China Rare Earth Supply

IonicRE remains a small player in the global rare earth chain, but its strategy connects mining, refining and recycling. The company owns 60% of the Makuutu rare earth project in Uganda, which contains 617mn t of ore grading 630ppm total rare earth oxide.

The recycling technology agreement adds another route to supply. Rather than relying only on new mined material, IonicRE can target waste streams from magnet production and end-use supply chains.

This is important because China still dominates rare earth refining. China accounted for 91% of global rare earth refining in 2024, leaving western and allied supply chains exposed to processing concentration.

Recycling will not replace primary rare earth mining. But it can provide incremental supply, improve resilience and help build processing expertise outside China.

The real value lies in integration. Recovered rare earth oxides must be refined, qualified, converted into metals or alloys, and returned to magnet production.

IonicRE’s agreement with Nth Cycle therefore supports a wider strategic goal. It helps build the technical infrastructure needed for a circular rare earth magnet supply chain outside China.

The Metalnomist Commentary

IonicRE’s licensing deal shows that rare earth recycling is moving from sustainability language into supply-chain strategy. The key opportunity is not only recovering magnet waste, but turning it into qualified oxide feedstock that can support non-China magnet production.

Japan EU battery recycling alliance aims to cut China dependence

Japan, EU battery alliance

Japan EU battery recycling alliance marks a strategic push to reduce reliance on China in battery materials. The new Japan EU battery recycling alliance brings together key industry groups to strengthen recycling, black mass handling and data sharing. As a result, the Japan EU battery recycling alliance targets a more resilient and transparent battery supply chain across both regions.

Japan EU battery recycling alliance links tech strength and market scale

The Japan EU battery recycling alliance is built around three core industry associations. Japan’s Battery Association for Supply Chain, the European Battery Alliance and Brussels based Recharge have signed an initial agreement. Together, they will cooperate on improving recycling processes, materials flows and supply chain governance.

The agreement covers information exchange on issues such as data sharing and regulatory interpretation. It also includes joint studies on black mass classification, a key bottleneck for cross border recycling flows. Black mass refers to shredded cathode material containing nickel, cobalt and lithium from spent batteries. Therefore, clear definitions and standards for black mass are critical for trade, permitting and ESG compliance.

Japanese officials highlight the importance of combining Japan’s technology strength with Europe’s market size. Japan offers advanced recycling technologies and process know how developed over decades of battery manufacturing. Meanwhile, Europe provides a rapidly growing battery market driven by EV mandates and energy storage deployment. This mix gives the Japan EU battery recycling alliance strong industrial foundations.

Reducing strategic exposure to China dominated battery materials

The Japan EU battery recycling alliance clearly responds to geopolitical supply concerns. Officials from Japan’s trade and industry ministry note that the current battery supply chain depends heavily on one country. Although unnamed, the reference clearly points to China’s dominance in processed lithium, nickel, cobalt and anode materials.

By deepening cooperation, Tokyo and Brussels aim to reduce vulnerability to export controls or political friction. Recycling and black mass trade can partially offset primary supply risks from Chinese refineries and processors. In addition, improved data sharing should help track origin, quality and ESG performance of recovered materials. As a result, the Japan EU battery recycling alliance supports compliance with emerging battery passport and due diligence rules.

The initiative also fits within the broader Japan EU competitiveness alliance launched in July. That framework seeks closer coordination on semiconductors, clean energy, critical minerals and industrial standards. Battery recycling now becomes a visible test case for how quickly the partnership can move from statements to practical projects.

The Metalnomist Commentary

This partnership underlines how recycling is moving from a niche activity to a core pillar of battery security strategy. If the Japan EU battery recycling alliance can harmonise black mass standards and data systems, it will lower barriers for serious cross regional recycling investment. Market participants should watch for pilot projects, joint ventures and regulatory tweaks that follow this initial, largely framework level agreement.

Belfast Magnet Recycling Grant Strengthens the UK Rare Earth Supply Chain

IonicRE

The Belfast magnet recycling grant gives the UK a stronger position in the rare earth supply chain. Ionic Technologies will receive £12mn from the UK government for a commercial magnet recycling facility in Belfast. The plant will produce high-purity separated magnet rare earth oxides. As a result, the Belfast magnet recycling grant supports both industrial policy and strategic materials security.

This project matters because rare earth recycling is becoming more important in western supply chains. Governments want more local processing capacity for magnet materials. They also want lower dependence on imported rare earth products. Therefore, the Belfast magnet recycling grant reflects a wider push for resilient critical minerals infrastructure.

The planned facility will have capacity of 400 t/yr of separated magnet rare earth oxides. Product purity is expected to exceed 99.5pc. Ionic Technologies will use its long-loop recycling process at the site. Consequently, the project is positioned as a commercial recycling platform, not a pilot concept.

UK Rare Earth Supply Chain Gains a New Industrial Anchor

The UK rare earth supply chain has lacked enough domestic downstream processing capacity. This grant helps address that gap with targeted capital support. IonicRE said the funding will serve as a cornerstone of the project’s investment structure. Therefore, the government is helping reduce financing risk at a critical stage.

The policy context also matters. The grant comes through the UK’s Drive35 programme. That programme supports industrialisation linked to zero-emission vehicle technologies. As a result, the Belfast plant is tied not only to recycling, but also to future transport manufacturing needs.

This alignment could improve long-term project relevance. Magnet rare earth oxides are essential for advanced motors and electrified systems. Stronger domestic recycling can support cleaner industrial growth. Meanwhile, it can reduce exposure to volatile external supply chains.

Rare Earth Recycling Facility Fits a Wider Western Funding Trend

This rare earth recycling facility also fits a broader western investment pattern. IonicRE has already moved to develop vertically integrated rare earth oxide recycling in Missouri. That shows the company is building across more than one jurisdiction. Consequently, Belfast may become part of a larger transatlantic recycling strategy.

The market significance extends beyond its initial size. A 400 t/yr facility will not transform global rare earth balances alone. However, it can prove commercial viability and support regional supply security. Therefore, smaller strategic plants can still matter greatly in critical materials markets.

The Belfast magnet recycling grant also signals a policy shift in how governments support rare earth projects. Instead of focusing only on mining, they are backing recycling and downstream processing. That approach may create faster, more practical gains in supply chain resilience. As a result, recycling is becoming a serious industrial policy tool.

The Metalnomist Commentary

This grant is important because it supports processing capability, not just raw material ambition. The UK is backing a practical route into rare earth security through recycling and purification. If Belfast succeeds, it could become a model for how smaller western projects build strategic value.

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.

Solarcycle Georgia Recycling Plant Strengthens the US Solar Materials Loop

Solarcycle

The Solarcycle Georgia recycling plant marks an important step in building a domestic solar materials loop. Solarcycle has started operations at its new facility in Cedartown, Georgia. The site uses upgraded technology that more than doubles throughput versus earlier systems. As a result, the Solarcycle Georgia recycling plant could become a meaningful part of the US clean energy supply chain.

This project matters because solar waste is becoming a larger industrial issue. More end-of-life panels now need recovery rather than disposal. Solarcycle said the process diverts all material from landfill and recovers about 96pc of panel value. Therefore, the Solarcycle Georgia recycling plant is not just a waste solution. It is also a materials recovery platform.

The recovered materials also carry real industrial value. Silver, copper, aluminum, and glass are all embedded in used solar panels. These inputs matter for manufacturing economics and supply resilience. Consequently, solar panel recycling is becoming more relevant to both sustainability and domestic sourcing.

Solar Panel Recycling Is Moving Toward Industrial Scale

Solar panel recycling is shifting from niche activity toward industrial infrastructure. The Cedartown facility is already processing thousands of panels each week. Solarcycle expects that figure to rise to 1mn panels annually by the end of 2026. As a result, the company is building capacity for scale rather than demonstration.

Full capacity makes the project even more significant. The plant can process up to 5 GW per year of solar panels. That level of throughput places the facility among the more serious recycling assets in the US solar chain. Therefore, the Solarcycle Georgia recycling plant could influence how the market thinks about end-of-life solar economics.

The technology angle also matters. Higher throughput and full landfill diversion improve the commercial case for recycling. Better material recovery can support stronger margins and more stable downstream reuse. Meanwhile, it gives developers and manufacturers a clearer pathway for circularity.

Recycled Solar Glass Could Deepen US Solar Materials Capacity

Recycled solar glass is the next major part of Solarcycle’s strategy. The recycling facility sits next to the company’s planned solar glass manufacturing plant. That plant is expected to break ground in mid-2026 and begin producing glass in 2028. Consequently, Solarcycle is linking recycling directly to new manufacturing capacity.

This integrated model matters for the broader US solar sector. Domestic manufacturing has become more important as buyers seek local supply and policy support favors US production. Solarcycle said it has already secured customer commitments for more than 80pc of the future glass plant’s planned 5 GW capacity. Therefore, demand for recycled and US-made solar materials appears to be strengthening.

The business model also shows a wider industrial trend. Recycling is no longer just about compliance or waste reduction. It is becoming a feedstock strategy for new manufacturing. As a result, the Solarcycle Georgia recycling plant may prove more important as the front end of a circular materials chain than as a stand-alone recycling site.

The Metalnomist Commentary

This project stands out because it connects recycling scale with future manufacturing capacity. Solarcycle is not simply collecting old panels. It is building a domestic solar materials loop that could matter more as US clean energy deployment accelerates.

Japan tungsten recycling expansion accelerates after China export controls

the International Tungsten Industry Association(ITIA)

Japan tungsten recycling expansion is now central to the country’s response to China’s new export controls. Japan has no domestic tungsten mines and historically relied on Chinese APT and cemented carbide imports. As a result, Japan tungsten recycling expansion is becoming the primary lever to secure supply and stabilise its hard-metal value chain. Japan tungsten recycling expansion also reflects a broader shift toward circularity and strategic raw material resilience.

Scrap flows highlight the scale of Japan tungsten recycling expansion

Japan is ramping tungsten scrap utilisation to compensate for lower Chinese export volumes. The country generates 3,500–4,000t of tungsten scrap annually, with about half recycled domestically and half exported. However, Japan also imports 500–1,000t of scrap each year, underscoring its dependence on global recycling networks.

China’s export controls on APT and cemented carbide have sharply reduced shipments into Japan. No other producing country has fully offset this loss, creating a structural shortfall in virgin tungsten materials. Therefore, Japanese industry is pushing harder to capture and process scrap from cutting tools and hard-metal components.

Scrap exports to overseas processors have also surged as part of this adjustment. From April to June, Japan exported 865t of tungsten scrap, double the previous quarter. Much of this material goes to the US, Germany and Taiwan for conversion into tungsten carbide powder. Meanwhile, limited domestic processing capacity means Japan must then reimport refined powders or finished tools.

Japan lacks tungsten recycling capacity comparable to leading manufacturing countries such as Germany. Market participants agree that higher prices and strong scrap demand create a window to invest in domestic plants. Companies like Mitsubishi Materials and Sumitomo Group are intensifying recycling efforts, but significant capacity additions will take time to materialise.

Strategic impact of Japan tungsten recycling expansion on supply security

Japan tungsten recycling expansion carries important strategic implications beyond near-term supply balancing. By strengthening domestic scrap processing, Japan can reduce exposure to Chinese export policies over the medium term. At the same time, enhanced recycling supports national goals on circular economy and lower carbon metal supply.

Industry leaders emphasise that Japan still needs a framework for constructive cooperation with China. However, they also stress that recycling will play a growing role in any long-term procurement strategy. As a result, Japan tungsten recycling expansion is viewed as both a defensive and forward-looking move. It protects critical industries today while aligning with future ESG requirements.

Higher tungsten prices and constrained primary supply should continue to incentivise investment in collection, sorting and processing infrastructure. Tool manufacturers and end-users will likely see tighter take-back schemes and more advanced recycling logistics. In five to ten years, today’s disruption may be remembered as the catalyst that forced Japan to build a more robust, diversified tungsten procurement system.

The Metalnomist Commentary

Japan’s response to China’s tungsten export controls shows how quickly advanced manufacturing economies can pivot toward recycling when supply shocks hit. If current investment momentum holds, Japan could evolve from a largely import-dependent buyer into a more balanced scrap-and-powder hub. Market participants should watch where new recycling plants are sited and how quickly domestic processing capacity closes the gap with Germany and other leaders.

EGA Aluminium Recycling Plant Moves Closer to Commissioning at Al Taweelah

EGA Aluminium Recycling Plant

The EGA aluminium recycling plant has reached a major construction milestone at Al Taweelah. Emirates Global Aluminium charged the melting furnace for the first time at its new recycling site. That step moves the project closer to final completion and commercial start-up. As a result, the EGA aluminium recycling plant is becoming a more important part of the UAE’s aluminium value chain.

This development matters because the facility will expand domestic recycling capacity at industrial scale. EGA expects the plant to be completed by the end of this quarter. Scrap sorting equipment commissioning already began in December last year. Meanwhile, work continues on the casting and homogenisation stations. Therefore, the Al Taweelah recycling facility is shifting from construction into final execution.

The project also supports a broader market trend toward lower-carbon aluminium supply. The plant will blend recycled and primary aluminium into low-carbon billets and T-bars. These products will be sold under the RevivAL brand. Consequently, EGA is positioning recycled content as a commercial and strategic advantage.

UAE Aluminium Recycling Capacity Is Entering a New Phase

UAE aluminium recycling is moving into a much larger industrial phase with this project. The new melting furnace has a capacity of 90,000 t/yr. The wider plant will produce 185,000 t/yr of billets and T-bars. That makes the project much more than a niche sustainability initiative.

Scale matters because regional scrap processing capacity remains limited compared with primary aluminium strength. EGA has long been associated with primary metal production. However, the new plant adds a downstream recycling layer that can improve raw material flexibility. As a result, the company can strengthen its position across both primary and secondary aluminium flows.

The project also has national significance. EGA said the facility will become the largest aluminium recycling plant in the UAE. It will also make the company the country’s largest scrap processor. Therefore, the plant may help create a more integrated domestic aluminium ecosystem with stronger circularity.

Low-Carbon Aluminium Billets Could Strengthen EGA’s Market Position

Low-carbon aluminium billets are becoming more important as buyers demand lower-emission metal solutions. Customers in construction, transport, and industrial manufacturing increasingly want products with stronger carbon credentials. EGA’s recycling project responds directly to that shift. Meanwhile, the inclusion of primary aluminium gives the company more control over consistency and specification.

This blended production model may also offer commercial flexibility. Pure scrap-based output can face limits in chemistry control and product range. By combining recycled and primary metal, EGA can target both sustainability and performance. Consequently, the plant could appeal to customers that want lower-carbon material without sacrificing technical requirements.

The timing is also notable for the wider aluminium market. Producers are under pressure to show credible decarbonisation pathways, not only long-term targets. New recycling assets offer one of the fastest ways to improve emissions intensity. Therefore, the EGA aluminium recycling plant could become a visible example of how Gulf aluminium producers adapt to changing market expectations.

The Metalnomist Commentary

This project matters because it connects scale, recycling, and low-carbon product strategy in one asset. EGA is not just adding a furnace. It is building a stronger position in the future aluminium market, where recycled content and product quality will increasingly move together.

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.

Molymet Maritime House Rhenium Recycling JV Targets Aerospace Supply Growth

Molymet

The rhenium recycling JV between Molymet and Maritime House signals a strategic response to tightening aerospace material demand. The two companies signed an MoU for a planned 50:50 partnership focused on recycling rhenium-bearing materials. The JV aims to produce ammonium perrhenate, rhenium metal, pellets, and powder. As a result, the rhenium recycling JV could strengthen western supply security in a market under growing pressure.

This move matters because rhenium remains one of the most critical specialty metals in aerospace alloys. The metal is not replaceable in several nickel-based superalloys used for turbine blades. Demand from western aerospace manufacturers remains firm, while Chinese import demand for ammonium perrhenate is also supporting the market. Therefore, the rhenium recycling JV enters the market at a time of elevated strategic importance.

The structure of the plan also reflects practical execution. The partners intend to use existing facilities in Chile or Canada first. They will later assess whether a dedicated North American processing plant is commercially justified. Consequently, the rhenium recycling JV begins with flexibility while preserving a pathway to larger regional capacity.

Aerospace Rhenium Demand Is Raising the Value of Recycling

Aerospace rhenium demand is making recycling more important than ever. Engine makers continue to require high-performance superalloys for aircraft engines and industrial gas turbines. That keeps demand resilient even when broader industrial markets weaken. Meanwhile, rhenium prices have reached their highest levels in more than a decade.

That price environment is increasing the value of recycled feedstocks. Rhenium-bearing materials include nickel-based superalloy scrap and binary alloy scrap. These streams offer an alternative source of metal in a market where primary supply remains limited. Therefore, recycling is becoming a more strategic pillar rather than a secondary source.

Molymet and Maritime House also bring strong positioning to this effort. Molymet is the world’s largest primary rhenium producer. Maritime House is the world’s largest recycler of rhenium-containing materials. As a result, the partnership combines primary market scale with recycling expertise in a way few competitors can match.

Ammonium Perrhenate Supply Could Gain a Stronger North American Base

Ammonium perrhenate supply is one of the most important commercial outcomes of this partnership. APR is a critical intermediate product in the rhenium value chain. A more reliable recycled APR stream could support aerospace customers facing tighter procurement conditions. Consequently, the JV could improve both supply diversity and supply resilience.

The North American angle also deserves attention. The partners said they may evaluate a new regional processing facility if feed volumes exceed existing capacity. That would align with broader efforts to localize strategic material processing closer to end users. Therefore, the rhenium recycling JV could evolve from a recycling agreement into a more significant North American supply platform.

The decision to work with original equipment manufacturers also adds commercial depth. The JV plans to offer both recycling and primary supply solutions. That model could make procurement easier for aerospace customers seeking closed-loop or dual-source strategies. As a result, the partnership may gain relevance beyond simple metal conversion.

The Metalnomist Commentary

This deal stands out because it links recycling, primary production, and aerospace demand in one strategic framework. Rhenium remains a small-volume metal, but it carries outsized importance in high-performance superalloys. If this JV scales successfully, it could become one of the more important specialty metals partnerships in the western aerospace supply chain.

Heraeus Remloy Magnet Recycling Sale Strengthens Mkango’s European Rare Earth Platform

Heraeus

Heraeus Remloy magnet recycling is set to move under Mkango Resources after Germany-headquartered Heraeus agreed to sell its rare earth magnet recycling unit to the Canadian company. The deal gives Mkango direct access to a German platform for producing neodymium-iron-boron alloy powders.

Heraeus Remloy magnet recycling is strategically important because NdFeB powders can be used by customers to manufacture new permanent magnets. These magnets are critical for electric motors, wind turbines, robotics, electronics, defence systems and advanced industrial equipment.

Heraeus Remloy magnet recycling operates from Bitterfeld in Saxony-Anhalt. The facility can produce 600 t/yr of rare earth magnetic powders, with potential to ramp up to 1,200 t/yr.

The transaction is expected to close in summer 2026, subject to regulatory approvals. Financial details were not disclosed.

Bitterfeld Facility Adds NdFeB Powder Capacity

Heraeus Remloy was developed as an in-house startup within Heraeus. Its focus on NdFeB alloy powders places it in a valuable part of the magnet recycling chain.

This matters because recycling rare earth magnets is not only about collecting scrap. The material must be processed into usable feedstock that magnet makers can qualify and reuse.

The Bitterfeld plant gives Mkango an operational base in Germany, one of Europe’s core advanced manufacturing markets. That location could support customers seeking regional rare earth magnet materials with stronger supply-chain traceability.

The facility’s 600 t/yr current capacity is modest in global terms, but meaningful for Europe’s early-stage magnet recycling industry. The option to ramp up to 1,200 t/yr adds future flexibility if demand strengthens.

For Mkango, the acquisition can deepen its downstream rare earth position. Instead of focusing only on mining or separation, the company gains a route into recycled magnet powder production.

Europe’s Magnet Recycling Chain Gains Strategic Relevance

The deal comes as Europe tries to reduce dependence on China-dominated rare earth and magnet supply chains. Recycling is becoming one of the fastest practical routes to add regional material availability.

NdFeB magnets contain neodymium and praseodymium, and some high-performance applications also use dysprosium or terbium. Recovering these materials from magnet scrap can reduce pressure on primary supply and improve circularity.

Permanent magnet recycling also supports European industrial policy. Automotive, wind power, automation and defence manufacturers increasingly need secure, traceable and lower-risk sources of magnet materials.

However, recycled powders still need customer qualification. Magnet producers require consistent chemistry, particle characteristics and performance before they can use recycled feedstock at scale.

Mkango’s challenge will be to turn the Bitterfeld asset into a reliable commercial platform. If it can expand production and secure customers, the acquisition could strengthen Europe’s rare earth recycling ecosystem.

The Metalnomist Commentary

Mkango’s purchase of Heraeus Remloy shows that rare earth recycling is moving from concept to industrial asset consolidation. Europe’s magnet security will depend on practical facilities like Bitterfeld that can convert scrap into qualified, reusable magnetic materials.

Cyclic Lime Rare Earth Recycling Partnership Targets Electric Scooter Motor Magnets

Cyclic Materials

Cyclic Lime rare earth recycling partnership launched as Canadian recycler Cyclic Materials contracted with electric scooter company Lime to recover rare earth elements from decommissioned motors. The Cyclic Lime rare earth recycling collaboration will process magnets from Lime's retired electric bike and scooter fleet across US and Canadian operations, establishing a circular economy model for critical materials recovery from urban mobility infrastructure.

Hydrometallurgical Processing Creates Closed-Loop Supply Chain

Cyclic Lime rare earth recycling operations will utilize Cyclic's dual-facility processing network spanning Mesa, Arizona, and Kingston, Ontario. The Kingston facility employs hydrometallurgical processes to produce mixed rare earth oxide from recovered magnet materials. Mesa represents Cyclic's first US processing location, expanding the company's geographic reach for North American rare earth recycling operations.

Meanwhile, the partnership targets Lime's substantial fleet of over 270,000 electric bikes and scooters operating across 280 cities globally. This scale provides consistent feedstock volumes for rare earth recovery operations while addressing end-of-life disposal challenges for electric mobility devices. The collaboration demonstrates practical applications of circular economy principles in urban transportation sectors.

Scaling Operations Address Growing E-Mobility Waste Streams

However, Cyclic and Lime plan operational commencement within weeks, with activity scaling throughout 2025 as fleet retirement cycles mature. The timing aligns with growing volumes of first-generation electric scooters and bikes reaching end-of-life status after several years of intensive urban deployment. This natural replacement cycle creates predictable feedstock availability for recycling operations.

Therefore, the partnership addresses critical material recovery from permanent magnets containing neodymium, praseodymium, and dysprosium essential for motor performance. These rare earth elements maintain high value and strategic importance for electric vehicle and renewable energy applications. Recovery operations reduce dependence on primary mining while supporting domestic rare earth supply chain resilience.

Urban Mobility Recycling Model Demonstrates Industry Leadership

Furthermore, Lime's commitment to rare earth recycling complements existing battery recycling partnerships with companies like Redwood Materials. This comprehensive approach to component recycling establishes industry best practices for sustainable electric mobility operations. The integrated recycling strategy addresses both battery and motor component end-of-life management across Lime's global fleet.

As a result, the Cyclic partnership positions Lime as a leader in sustainable urban mobility practices while creating valuable secondary rare earth supply sources. The collaboration demonstrates how service-based mobility companies can contribute to critical materials circularity while managing operational costs through material recovery value. This model could influence broader electric vehicle and mobility industry recycling practices.

The Metalnomist Commentary

The Cyclic-Lime partnership represents an innovative approach to rare earth recycling that leverages the predictable replacement cycles of commercial electric mobility fleets to create sustainable feedstock streams for critical materials recovery. This collaboration demonstrates how urban mobility companies can transition from being solely consumers of critical materials to active participants in circular supply chains, potentially serving as a model for broader transportation electrification sectors.

Closed-Loop Recycling to Slash PGM Demand by 40% in 2024, Industry Report Finds

Johnson Matthey

PGM Recycling Revolutionizes Metal Demand with Close to 60% of Platinum Group Metals Being Recycled

In 2024, platinum group metals (PGMs) demand will see a significant reduction of nearly 40% due to the rise in closed-loop recycling, according to a report from UK-based chemicals company Johnson Matthey. With over 60% of PGMs used in new products now coming from recycled metal, the shift towards circularity in the PGM industry is transforming how metals are sourced and used.

Understanding Closed-Loop vs. Open-Loop Recycling

Recycling PGMs is categorized into two pathways: open-loop and closed-loop. Open-loop recycling occurs mainly in consumer markets, where metal ownership is passed along with the product's lifecycle, allowing the metal to be reused for different purposes. In contrast, closed-loop recycling, which dominates industries like chemicals and pharmaceuticals, involves the original buyer maintaining ownership of the metal, reusing it for the same purpose throughout its lifecycle.

This process greatly reduces the need for new PGMs, as the original purchaser reclaims and reuses the metal. In fact, Johnson Matthey's research shows that a substantial 15.7 million troy ounces (toz) of PGMs were recirculated globally in closed-loop systems last year, cutting down the net demand for primary PGMs to 35.4 million toz in 2024.

PGM Recycling Shifts the Industry Landscape

Recycled PGMs, whether through closed or open loops, now make up the majority of materials used in new and replacement products. As primary mining becomes supplementary to the increasing urban PGM mines, it’s clear that recycling is becoming the backbone of the global PGM supply chain. The well-established closed-loop system has proved to be an efficient, sustainable model for metal recycling, potentially setting a precedent for other metals in the industry.

Ryan from Johnson Matthey highlighted that the long-established network of PGM recycling has reached economies of scope and scale through decades of market-driven optimization. This model could serve as a roadmap for other sectors, where the international approach to recycling has not yet reached similar maturity.

Recycling efforts should not be confined within national borders. To ensure efficiency, scrap must be collected and recycled globally, transcending domestic limitations. Ryan advocates for a broader, global collaboration to boost recycling effectiveness and reduce dependence on newly mined metals.

Aperam Recycling North America Names Evan Dyal as New Chief Executive

Aperam Recycling

Aperam Recycling North America will move into new leadership on 1 July as Evan Dyal succeeds Chris Niles as chief executive of the company’s regional operations. The appointment places a long-serving ELG Metals USA executive at the head of Aperam’s North American recycling platform.

Aperam Recycling North America is strategically important because stainless steel producers increasingly rely on high-quality scrap flows to manage costs, improve circularity and support lower-carbon production. Leadership continuity matters in a market where scrap sourcing, customer relationships and alloy knowledge are critical.

Dyal is currently general manager of Aperam Recycling’s Mobile, Alabama, location. He has spent more than 18 years with Aperam subsidiary ELG Metals USA, giving him deep operational experience in specialty metals recycling.

Chris Niles will leave the company after 25 years. His departure marks a leadership transition for a business tied closely to stainless steel, nickel-bearing scrap and specialty alloy supply chains.

Leadership Continuity Supports Stainless Scrap Strategy

Aperam’s choice of Dyal signals a preference for internal continuity. Recycling operations depend heavily on supplier networks, material knowledge and disciplined quality control.

This is especially important in stainless steel recycling. Scrap streams can contain nickel, chromium, molybdenum and other valuable alloying elements, making accurate sorting and processing essential.

North American stainless scrap supply remains strategically valuable as mills seek more recycled units and lower-carbon feedstock. Processors that can secure clean, reliable and specification-ready scrap will remain important to stainless producers.

Dyal’s Mobile experience gives him direct exposure to yard operations, logistics, supplier management and customer requirements. That operational background should support Aperam Recycling North America as competition for quality scrap intensifies.

Commercial Role Strengthens Regional Customer Focus

Aperam also promoted Andres Montes to chief commercial officer of North America. Montes currently leads specialty sales for the region.

The appointment adds commercial focus alongside the leadership change. Specialty sales are important because stainless and alloy scrap markets require close coordination between processors, mills, traders and industrial customers.

This matters as recycling becomes more central to metals procurement. Buyers increasingly want traceable scrap supply, reliable chemistry and stable delivery into melt shops.

For Aperam, strengthening North American leadership and commercial coverage supports its broader circular metals strategy. The company’s recycling platform can help secure feedstock, improve value capture and support lower-emission stainless production.

The Metalnomist Commentary

Aperam’s leadership change is small in size but meaningful in direction. Stainless steel recycling is becoming more strategic, and experienced operators with alloy scrap knowledge will matter more as mills compete for cleaner recycled feedstock.

Brunp Battery Materials Project Expands CATL’s Recycling and LFP Supply Chain

Brunp Battery Materials

Brunp battery materials project development has advanced in Yichang, Hubei province, as Guangdong Brunp Recycling Technology broke ground on a 500,000 t/yr production complex. The project carries total investment of 6.1bn yuan, or about $840 million.

The new plant is designed to produce 300,000 t/yr of iron phosphate, 180,000 t/yr of nickel sulphate and 12,000 t/yr of cobalt sulphate. Construction is scheduled for completion in the second half of 2027.

Brunp battery materials project investment strengthens the upstream materials platform behind China’s battery industry. Brunp is a controlling subsidiary of CATL, the country’s largest battery producer, and focuses on recycling, resources and battery materials.

Yichang Base Builds Scale Across LFP and Recycling

The Yichang base will become a major integrated battery materials hub once the new project is operational. It will have 750,000 t/yr of iron phosphate capacity, 450,000 t/yr of lithium iron phosphate capacity and 500,000 t/yr of battery recycling capacity.

Brunp has already made several investments in Yichang since entering the city in 2021. The company launched a 450,000 t/yr LFP factory in December, reinforcing the site’s role in China’s expanding phosphate-based battery supply chain.

This matters because LFP batteries continue to gain share in electric vehicles and energy storage systems. Large-scale iron phosphate and LFP capacity gives CATL-linked supply chains stronger control over cost, material availability and recycling integration.

Recycling Capacity Deepens China’s Battery Materials Control

Brunp Recycling processed more than 200,000t of power batteries in 2025. The company now plans to raise total recycling and processing capacity to more than 1mn t/yr by 2030.

The strategy reflects a wider shift in battery materials sourcing. Recycling is becoming a strategic source of nickel, cobalt, lithium and other battery inputs, especially as governments and manufacturers seek lower-carbon and more secure supply chains.

The Yichang project also adds nickel sulphate and cobalt sulphate capacity, linking recycling with precursor material production. However, weaker upside in metals prices has limited buyer appetite in China’s black mass market, even as NCM payables edged higher in early March.

The Metalnomist Commentary

Brunp’s Yichang expansion shows how CATL is tightening control over the full battery materials loop, from recycling to LFP and sulphate production. The project also underlines China’s advantage in building scale across both primary materials processing and circular battery supply chains.

Livium LGES battery recycling deal extends Australia’s circular battery value chain

Livium

The Livium LGES battery recycling deal is expanding Australia’s role in the circular battery economy and black mass supply. Under the renewed Livium LGES battery recycling deal, Livium will process both recalled and end-of-life residential batteries. As a result, the Livium LGES battery recycling deal now runs to 2029 and anchors new growth in Australian black mass output.

Black mass volumes rise as Livium expands feedstock

Livium will continue processing LG Energy Solution batteries recalled in Australia and now add end-of-life units from local users. This expanded access to feedstock should increase black mass volumes and stabilise plant utilisation over the medium term.

The recycler sold over 350t of black mass in the 2024-25 financial year to 30 June. Therefore, management expects higher sales in 2025-26 as the Livium LGES battery recycling deal ramps up. Livium channels this black mass to processing partners such as South Korea’s SungEel Hitech. These partners convert black mass into battery chemicals, which return to global cathode and cell producers.

Meanwhile, LGES is building a 20,000 t/yr battery recycling plant in France with Derichebourg. That European joint venture will also produce and process black mass from end-of-life batteries from 2027. Together, these initiatives show how LGES is building regional recycling hubs to secure critical materials.

Livium LGES battery recycling deal supports lithium recovery innovation

The Livium LGES battery recycling deal also complements Livium’s work on recovering lithium from spodumene waste. Livium signed an agreement with Australian producer Mineral Resources in January to optimise this extraction technology. As a result, the partners formed a joint venture in August to commercialise the process at scale.

This positions Livium not only as a black mass producer but also as a technology player in lithium recovery. For LGES, the partnership reduces long-term exposure to mined feedstock volatility and environmental scrutiny. It also aligns with automakers’ and battery producers’ ESG targets on recycling and resource efficiency.

In strategic terms, expanding the Livium LGES battery recycling deal strengthens regional supply security for nickel, cobalt and lithium units locked in black mass. It also supports Australia’s ambition to move up the value chain from raw material supplier to processing and technology hub.

The Metalnomist Commentary

This partnership illustrates how structured offtake agreements can accelerate the build-out of regional battery recycling ecosystems. For metals markets, increasing black mass flows from deals like this will gradually reshape demand for primary material and reward recyclers with robust technology and downstream access.

Hubei STR anode recycling plant will start in March 2026 as China’s battery scrap accelerates

Lithium-Ion Battery

Hubei STR will start the Hubei STR anode recycling plant in March 2026. The project targets 50,000 t/yr of recycled anode materials for lithium-ion batteries. The company began site construction in January 2022. As a result, the facility enters the market as battery recycling volumes rise sharply.

Battery scrap volumes will surge as China’s first NEV wave reaches end-of-life. Lithium-ion batteries usually retire when capacity falls to 80%. The US Advanced Battery Consortium links this threshold to an 8–12 year service life. Therefore, post-2025 retirements should expand the available feedstock for anode material recycling.

China’s EV scale is turning recycling into a supply chain priority

China’s EV scale is making the Hubei STR anode recycling plant strategically timed. China pushed NEV output above one million units in 2018. NEVs reached 40.9% of total auto sales in 2024. Meanwhile, October NEV sales hit 1.72mn units and took 51.6% market share.

Recycling capacity must follow that growth curve. China Association of Automobile Manufacturers forecasts NEV sales near 16mn units in 2025, up from 12.86mn in 2024. China Automotive Engineering Society estimates retired power batteries exceeded 580,000t in 2023. It expects retirements to reach 6mn t by 2030. Consequently, anode recycling becomes a cost, ESG, and security lever for battery makers.

Graphite recovery and copper foil separation define the value capture

Graphite recovery drives much of the anode recycling economics. The lithium-ion battery recycling process starts with dismantling and material separation. Recyclers can recover plastics and the diaphragm from anode-side components. They can also extract aluminium foil from cathode materials.

Graphite recovery then becomes the key upgrade step. Recyclers separate graphite from copper foil in spent anodes. They purify the graphite and sell it back into the battery materials chain. Therefore, the Hubei STR anode recycling plant can support a more circular anode supply. It can also reduce exposure to price swings in battery-grade inputs.

The Metalnomist Commentary

China’s recycling race is shifting from metals recovery to materials performance. Therefore, graphite purity and consistent output will decide who wins long-term contracts. However, recyclers must prove traceability and ESG compliance to unlock premium pricing.

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.

Colorado Battery Recycling Law Sets Mandatory Lithium Recovery Targets

Colorado Battery Recycling

Colorado battery recycling law introduces mandatory recovery targets for lithium, nickel and cobalt from electric and hybrid vehicle batteries. The measure creates a more structured framework for recovering critical minerals from end-of-life batteries.

Colorado battery recycling law requires recyclers to recover 50% of lithium from spent batteries by 2031 and 80% by 2035. Nickel and cobalt recovery must reach 90% by 2031.

Colorado battery recycling law will also prohibit landfilling of EV batteries from July 2029. This should push more used packs toward reuse, dismantling and materials recovery.

The legislation strengthens the commercial case for domestic battery recycling by creating clearer collection obligations and long-term recovery requirements.

Mandatory Recovery Targets Support Secondary Battery Materials

The Battery Stewardship Act requires battery stewardship organizations to submit plans covering collection, transportation, processing and recycling.

The lithium target is particularly important because recovering lithium economically has historically been more challenging than recovering nickel and cobalt.

A 50% recovery requirement by 2031 gives recyclers time to improve process efficiency before the threshold rises to 80% in 2035.

The 90% recovery requirement for nickel and cobalt sets an even higher standard. Both metals remain valuable inputs for several lithium-ion battery chemistries.

Recovering these materials can reduce dependence on newly mined supply and create more domestic secondary feedstock for battery manufacturers.

The landfill ban reinforces that objective by keeping valuable battery materials inside the industrial supply chain.

Producer Fees Could Improve Battery Collection and Recycling Economics

Battery providers will fund part of the system through fees linked to their share of battery vehicles registered in Colorado.

An initial programme fee will support implementation. Annual payments beginning by July 2030 will cover administration, enforcement and regulatory costs.

This shifts more responsibility for end-of-life batteries toward companies placing battery vehicles into the market.

The framework could also improve feedstock certainty for recyclers. Reliable access to spent batteries remains one of the biggest challenges facing the emerging US battpery recycling industry.

Over time, the legislation may encourage better pack design for dismantling, reuse and materials recovery.

If similar policies spread to other states, US battery recycling could develop around mandatory recovery standards rather than voluntary collection alone.

The Metalnomist Commentary

Colorado is turning battery recycling into a regulated critical minerals supply chain. The most important benefit may be feedstock certainty, because recyclers need predictable battery volumes as much as better recovery technology.

Glencore Aluminum Recycling Stake Expands South Carolina Remelting Footprint

Aluminum Scrap

Glencore aluminum recycling exposure has expanded after the global commodities trading group acquired a 45% stake in a planned South Carolina aluminum facility. Alumicore will operate the plant and retain the remaining 55% interest.

The investment builds on Glencore’s earlier financial support for the recycling and remelting project. Those earlier investments were aimed at securing marketing rights for the plant’s future production.

Glencore aluminum recycling growth reflects rising interest in secondary aluminum supply in the US. Recycled aluminum can reduce energy intensity, support lower-carbon material demand, and improve feedstock optionality for manufacturers exposed to volatile primary aluminum markets.

Alumicore Platform Adds Recycling and Remelting Scale

The South Carolina site will become part of Alumicore’s wider recycling network. Glencore said the new plant, together with Alumicore’s operations in Monessen and Pittsburgh, Pennsylvania, will lift the company’s total recycling capacity to more than 120,000 t/yr.

Few details were disclosed about the planned facility near Charleston. However, the project appears focused on recycling and remelting, which are increasingly important parts of the North American aluminum value chain.

Aluminum remelting capacity gives processors a route to convert scrap into reusable material for downstream manufacturing. This is strategically relevant as automotive, packaging, construction, electrical and industrial customers look for lower-carbon aluminum inputs.

The marketing-rights element is also important. Glencore is not only taking an equity position; it is strengthening access to future metal flows from the facility. That fits the trading house’s broader strategy of combining physical assets, offtake control and scrap supply channels.

Charleston Area Becomes a Secondary Aluminum Growth Point

The deal also deepens Glencore’s footprint in South Carolina. The company previously entered a joint venture with nonferrous scrap recycler Zeb Metals in 2023 to develop an aluminum scrap and dross recycling operation around Charleston.

That earlier project and the Alumicore investment point to a regional strategy. Charleston offers logistics advantages, industrial demand access and a potential platform for collecting, processing and marketing secondary aluminum products.

Aluminum dross and scrap recycling are becoming more valuable as producers and traders try to capture more metal units from waste streams. Better recovery can reduce reliance on primary aluminum and support circular supply for domestic manufacturers.

For Glencore, the South Carolina investment strengthens its position in a market where recycled metal is becoming more strategic. For Alumicore, Glencore’s stake adds a global marketing partner with deep metals trading and supply-chain reach.

The Metalnomist Commentary

Glencore’s investment shows that aluminum recycling is becoming a strategic materials business, not only a scrap trade. Control over remelting capacity, dross recovery and marketing rights will matter more as customers seek lower-carbon aluminum supply.

BIR Conference Bangkok Recycling Industry signals Asia’s circular shift

2025 BIR(Bureau of International Recycling)

The BIR(Bureau of International Recycling) Conference Bangkok Recycling Industry gathered global stakeholders across the value chain. The forum covered ferrous, non-ferrous, and specialty metals in depth. The BIR Conference Bangkok Recycling Industry highlighted circular economy execution, not slogans. Therefore, participants focused on infrastructure, technology, and market standards. Meanwhile, BIR’s scale—1.5 million professionals and USD 160 billion—framed the agenda.

The BIR Conference Bangkok Recycling Industry underscored Asia-Pacific’s accelerating demand. Hosting in Bangkok reflected trade gravity tilting toward Asian hubs. As a result, discussions centered on capacity build-out and logistics reliability. Attendees examined traceability, quality assurance, and ESG disclosure. Moreover, members emphasized data for financing and cross-border compliance.

2025 BIR(Bureau of International Recycling)

Ferrous and non-ferrous flows anchor the circular backbone

Ferrous scrap now supplies over 30% of global steel output. EAF adoption increases scrap intensity and resilience. Therefore, ferrous scrap became a strategic raw material. Asia remains the largest import market for ferrous scrap. Korea, Japan, and Taiwan anchor steady tonnage. However, India’s fast-rising demand drew strong attention this year.

Non-ferrous recycling accelerates stainless steel’s circular economy. Over 70% of stainless production uses recycled feedstock today. Consequently, 300-series stainless scrap commands a nickel-driven premium. Copper, aluminum, and zinc recycling rates keep climbing. Meanwhile, EV batteries and e-waste create new metal pools. Processors target dismantling, black-mass recovery, and closed-loop contracts. As a result, service models expand beyond commodity trading.

2025 BIR(Bureau of International Recycling)

Specialty metals scale: Titanium and Nickel Superalloys

Specialty metals advanced from niche to priority. Titanium scrap offsets costly primary sponge and ingot. Proper sorting enables aircraft, reactor, and implant routes. Clean grades often trade at several thousand dollars per ton. Therefore, certification and segregation matter for aerospace and medical uses.

Nickel-based superalloy scrap rose with aerospace growth. Inconel and Hastelloy streams typically exceed 50% nickel. Refiners upgrade these into new superalloy melts. Moreover, chromium, molybdenum, and cobalt increase strategic value. As a result, secure collection and refining capacity became focal. Asia is emerging as the center for scale and skills.

The Metalnomist Commentary

BIR Bangkok confirmed recycling as core supply-chain strategy. Expect capital to target high-purity sorting, verified traceability, and melt capacity. Asian hubs that certify quality fastest will capture premium flows.