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Mining & Resources 2026Updated

List of Rare Earth Mineral Recycling Companies

Comprehensive database of companies recovering and recycling rare earth elements from end-of-life magnets, e-waste, and industrial scrap—ideal for sourcing secondary REE supply and diversifying away from primary mining.

Available Data Fields

Company Name
Headquarters
Recycling Technology
Target Materials
Processing Capacity (tonnes/year)
Feedstock Sources
End Products
Year Founded
Certifications
Website

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Company NameHeadquartersRecycling TechnologyTarget Materials
Noveon MagneticsSan Marcos, TX, USAMagnet-to-Magnet (EcoFlux)Nd, Pr, Dy, Tb
Cyclic MaterialsToronto, CanadaREEPure HydrometallurgyNd, Pr, Dy, Ce, La
Solvay (La Rochelle)Brussels, BelgiumSolvent ExtractionNd, Pr
Geomega ResourcesMontreal, CanadaISR Technology (acid-free)Nd, Pr, Dy, Tb
HyProMagBirmingham, UKHPMS (Hydrogen Processing)Nd, Pr, Dy

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Rare Earth Mineral Recycling: Building a Secondary Supply Chain

Rare earth elements—neodymium, praseodymium, dysprosium, and terbium—are critical inputs for permanent magnets powering EVs, wind turbines, and defense systems. With primary supply concentrated in China (roughly 60% of mining and over 85% of processing), recycling has emerged as a strategic imperative for manufacturers seeking supply chain resilience.

Market Landscape

The global rare earth recycling market was valued at approximately USD 550 million in 2024 and is projected to exceed USD 1 billion by 2033, growing at a CAGR of around 7%. Growth is driven by tightening export controls, ESG mandates, and the sheer volume of end-of-life magnets entering the waste stream from hard disk drives, consumer electronics, and early-generation EV motors.

Key Recycling Technologies

Magnet-to-Magnet
Companies like Noveon Magnetics use powder metallurgy and sintering to convert scrap NdFeB magnets directly into new finished magnets, retaining up to 84% of original magnetic strength while achieving 90% energy savings over virgin production.
Hydrometallurgical Separation
Cyclic Materials (REEPure) and Solvay use chemical leaching and solvent extraction to produce separated rare earth oxides at >99% purity from mixed feedstocks.
Hydrogen Processing (HPMS)
HyProMag patented process uses hydrogen to decrepitate magnets embedded in scrap equipment, preserving alloy integrity for direct reprocessing into new magnets.
Acid-Free Processes
Geomega Resources ISR Technology achieves >90% recovery with >99% purity while recycling reagents and minimizing effluent—addressing a major environmental concern of conventional hydromet routes.

Government-Backed Momentum

The U.S. Department of Energy allocated USD 134 million in 2024-2025 to boost domestic rare earth recovery. The DoD previously invested USD 28.8 million in Noveon Magnetics (then Urban Mining Company) through the Defense Production Act. The EU Critical Raw Materials Act sets a target of 25% domestic recycling of critical materials by 2030, catalyzing investments from Solvay, Carester, and others across Europe.

Feedstock and Capacity

CompanyPlanned CapacityPrimary Feedstock
Noveon Magnetics2,000 t/yr NdFeB magnetsEnd-of-life magnets, manufacturing scrap
Cyclic Materials600 t/yr MREO (expanding to 1,800 t)EV motors, wind turbines, HDDs
Solvay La Rochelle2,000-5,000 t/yr REO potentialEnd-of-life motors, recycled MREO
HyProMag750 t/yr NdFeB (by 2027)Scrap electronics, industrial magnets
Carester (Caremag)2,000 t/yr magnets (by 2026)Recycled magnets, mining concentrates

Frequently Asked Questions

Q.What rare earth elements can be recovered through recycling?

Recyclers primarily target the four magnet-grade REEs—neodymium (Nd), praseodymium (Pr), dysprosium (Dy), and terbium (Tb)—since these carry the highest economic value. Some processes also recover cerium, lanthanum, and cobalt as co-products.

Q.How does recycled rare earth purity compare to mined material?

Leading recyclers achieve over 99% purity for separated rare earth oxides, meeting or exceeding specifications for magnet-grade applications. Magnet-to-magnet processes retain approximately 84% of original magnetic performance.

Q.Where does recycling feedstock come from?

Primary sources include end-of-life hard disk drives, EV and hybrid vehicle motors, wind turbine generators, MRI machines, consumer electronics speakers, and manufacturing scrap from magnet factories. As early-generation EVs reach end-of-life, motor magnets are expected to become the dominant feedstock.

Q.Can I request data on recyclers in a specific region?

Yes. When you submit a request, our AI crawls the web in real time to compile a current list filtered by geography, technology type, capacity, or target materials—covering publicly available information only.

Q.What is the typical lead time for rare earth recycling vs. mining?

Recycling facilities can typically ramp up in 2-3 years from construction to commercial output, compared to 7-15 years for new mining projects from exploration to production. This shorter timeline makes recycling attractive for near-term supply diversification.