Ex-China Rare Earth Scrap Recycling: From "Technology Verification" to "Locking in Materials and Customers" [SMM Analysis]

The global rare earth recycling rate is still below 1%. In 2025, Europe and the US accelerated support for domestic recycling capacity—the EU's Critical Raw Materials Act requires at least 25% of strategic raw material consumption to come from recycling by 2030, and China's series of export controls in 2025 turned “urban mining” from an ESG slogan into a supply-chain necessity. But what is really driving the industry inflection point is not policy documents, but the intensive recycling-side positioning of top-tier players such as MP Materials, Noveon, Cyclic Materials, HyProMag, and Carester. They have all shifted their competitive focus from “lab recovery rates” to “who can reliably secure scrap magnets and who can turn recycled powder into material that magnet plants are willing to sign long-term agreements for.”

North America: vertical integration and short-process routes proceeding in parallel

MP Materialsis pursuing the West's only current closed loop spanning “mining–separation–recycling–magnet.” On July 15, 2025, MP and Apple announced a $500 million partnership to build a dedicated recycling line at Mountain Pass, California, to process scrap magnets into raw material and send it to the Independence magnet plant in Fort Worth, Texas, with deliveries of 100% recycled-content magnets starting in 2027; Apple prepaid $200 million, and Independence's magnet capacity is expected to expand from 1,000 mt/year to 3,000 mt/year. The key to this route is using primary mine operations to cross-subsidize the recycling line, allowing recycled material to bypass constraints tied to China's oxide export licensing and be consumed directly by the magnet plant—third-party estimates suggest the partnership could enable the US to contribute about 20% of global recycled rare earth output by 2030, but that remains to be seen.

Noveon Magnetics(San Marcos, Texas, part of the former Urban Mining Co. system) is focused on its proprietary Magnet-to-Magnet® short process: rather than shredding housings, it targets disassembly of hard drives/motors/MRI magnets, blends 100% recycled powder back into sintered NdFeB, and claims no grade degradation. In February 2025, it signed an offtake agreement with Nidec, one of the world's largest motor manufacturers, embedding the “pure recycler” business model into the motor supply chain. It proved one thing: without touching any mine, by focusing relentlessly on shredding-free pretreatment and magnet-plant certification, a recycling plant can survive independently.

Cyclic Materialsis using a “hub-and-spoke” network to race for feed sources. In January 2026, it announced an $82 million investment to build a recycling campus at McBee in the Carolinas, with initial capacity of 600 mt/year of mixed rare earth oxides (MREO), 1,800 mt in the longer term, and long-term magnet processing capacity of 6,000 mt; it also signed a 10-year exclusive swarf recycling agreement with VACUUMSCHMELZE to lock in high-end feed material. The combination of the Kingston demonstration plant, Mesa pretreatment plant, and Arizona separation plant brought its cumulative equity financing to $237 million by August 2026. But it is worth noting soberly that its Kingston pilot used Mag-X+RapidSX to process real EV motor scrap, and by mid-2026 the overall recovery rate was only 41%—designed capacity does not equal economical commercial production.

HyProMag USA(part of the Mkango/CoTec system) is licensing Birmingham's HPMS hydrogen decrepitation technology to Dallas-Fort Worth, with designed NdFeB processing capacity of nearly 750 mt/year and first production targeted for 2027;ReElement Technologiesis using ligand-assisted chromatography for high-purity separation in Indiana and has received US Department of Defense funding to expand production. North America's recycling segment has now formed a four-corner structure: MP's closed loop, Noveon's short process, Cyclic's network, and HyProMag's technology licensing.

Europe: policy-driven recycling and heavy rare earth separation

European companies' recycling plans bear a clear CRMA policy imprint. The EU has not only set a 25% recycling target but also plans to restrict permanent magnet scrap exports before Q2 2026, ensuring NdFeB scrap stays within the EU for local processors—in effect using administrative means to “feed” European recycling plants.

HyProMagis the technical benchmark. The Birmingham Tyseley plant produced its first recycled alloy powder in June 2025 and officially opened in January 2026, with single batches >400 kg, 100 mt/year per shift, and a longer-term scale of 1,000 mt; by April 2026 it had produced a cumulative 9.2 mt of powder and worked with Siemens on SIMOTICS servo rotor prototypes shown at Hannover Messe. The Pforzheim plant in Germany starts at 100 mt/year and is permitted for 750 mt/year; HyProMag USA is replicating this model in Dallas. The value of HPMS is that it uses hydrogen to crack scrap magnets and directly produce alloy powder, bypassing hydrometallurgical separation, but the scale-up bottlenecks are the pace of hard-drive pretreatment and automation of automotive rotor dismantling.

Carester (Caremag)is Europe's most strategically significant integrated recycling and refining project. The Lacq site in France has received about €216 million from French and Japanese capital (including €106 million from the French government), will process 2,000 mt/year of end-of-life magnets plus 5,000 mt of concentrates, and will produce 620 mt of rare earth oxides (including the heavy rare earths dysprosium and terbium); it has signed a long-term agreement with Stellantis and is expected to be completed in autumn 2026, with commissioning from end-2026 to early 2027. It is the first heavy rare earth refinery outside China, positioned to provide a China-independent source of dysprosium and terbium for European EVs and wind power.

In the supporting tier, Solvay's plant in La Rochelle, France, is the only facility in Europe capable of separating all 17 rare earth elements, with the goal of supplying 30% of Europe's rare earth demand from recycled feedstock by 2030;Heraeus Remloyprocesses waste electronics and industrial motors at about 600 mt/year in Bitterfeld, Germany;Oranoopened Europe's first magnet recycling pilot line in September 2025;Ionic Technologiesin Belfast produces 99.5% oxides via a hydrometallurgical process and has received £12 million in UK government DRIVE35 funding to expand to the 400-mt class. Europe's recycling segment is characterized by “policy support plus a division of labor across France, Germany, and the UK,” but there is still a huge gap to the 25% target—Europe's current recycling rate is also below 1%.

Japan and cross-company comparison: steady but limited in scale

Japanese companies are pursuing a low-key route of “end-user recycling plus hydrogen-decrepitation dry processing.”Proterial (formerly Hitachi Metals)recovers magnets from hard drives and compressors, with an Nd recovery rate in the 94% range; however, constrained by the volume of domestic scrap magnets, its annual recycling equivalent remains only in the hundreds of mt, serving more as a strategic backup than a commercial mainstay. Mitsubishi Electric only launched mt-scale attempts in 2026 to recover Nd magnets from retired air-conditioner compressors. The hallmark of Japan's model is not the pursuit of large scale, but embedding recycling into the quality systems of existing magnet plants to ensure certification equivalence between “recycled material = virgin material.”

Common bottlenecks and assessment

Taken together, the plans of companies outside China show three clear competitive trends in 2025–2026:First, the vertical integration camp(MP type) uses primary mine operations to cross-subsidize recycling in exchange for long-term OEM agreements;second, the horizontal network camp(Cyclic type) uses pretreatment nodes plus capital to stockpile feed sources and build a “hub-and-spoke” funnel;third, the regional policy camp(HyProMag and Carester types) feeds on the CRMA and national subsidies, but is held back by the reality of scrap magnet collection rates <5%.

But all players face the same hard constraint:feed material. Globally, less than 1% of rare earths come from recycling, and the vast majority of scrap magnets still end up in landfills or flow to China—China not only holds more than 90% of refining capacity but also controls the scrap pool at both the upstream and downstream ends. Cyclic's 41% recovery rate and Europe's sub-1% recycling rate remind us that the “hundreds of mt” and “thousands of mt” figures disclosed by companies are mostly designed capacity or longer-term targets, not actual output of qualified material.

Recycling will not replace mines, but it will become a “multiplier” for the Western rare earth supply chain—faster permitting, higher heavy rare earth recovery rates, and greater resilience to export controls. Whichever company first builds the bridge of “automated dismantling + batch composition passports + magnet-plant recertification” into contracts, that route will be the first to cross the “technology valley”