Recycling & Sustainability 2026Updated

List of Rare Earth Element Recycling Processors

A comprehensive database of companies that recycle and reprocess rare earth elements from end-of-life magnets, e-waste, and industrial scrap. Ideal for procurement managers sourcing recycled NdPr, dysprosium, and other critical materials outside of traditional mining supply chains.

Available Data Fields

Company Name
Headquarters
Recycling Technology
Target REEs
Feedstock Sources
Processing Capacity (t/year)
Operational Status
Certifications
End Products
Funding Raised
Key Customers/Partners

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Company NameHeadquartersTarget REEsFeedstock Sources
Cyclic MaterialsToronto, CanadaNdPr, Dy, TbEnd-of-life magnets, wind turbines
Noveon MagneticsSan Marcos, TX, USANd, Pr, DyRecycled NdFeB magnets
Geomega ResourcesBoucherville, QC, CanadaNd, Pr, Dy, TbMagnet production scrap, end-of-life magnets
HyProMagBirmingham, UKNd, PrHard drives, electric motors
REEtecHerøya, NorwayNdPr oxideMineral concentrates, recycled feedstock

85+ records available for download.

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Rare Earth Element Recycling: A Critical Supply Chain Imperative

With China controlling over 60% of rare earth mining and nearly 90% of processing globally, the recycling of rare earth elements has emerged as a strategic priority for manufacturers in the EV, defense, and renewable energy sectors. Recycled rare earths now represent a small but rapidly growing share of total supply, with the global recycling market valued at approximately $550 million in 2024 and projected to exceed $1 billion by 2033.

Key Recycling Technologies

Hydrometallurgical Processing
Uses acid or alkaline solutions to dissolve and selectively precipitate rare earth oxides. Companies like Cyclic Materials (REEPure™) and Geomega achieve >90% recovery rates with >99% purity.
Hydrogen Decrepitation (HPMS)
HyProMag's approach uses hydrogen gas to embrittle NdFeB magnets into powder, enabling direct reprocessing without full chemical separation—significantly reducing cost and energy use.
Direct Magnet-to-Magnet Recycling
Noveon Magnetics' EcoFlux process produces finished sintered magnets from recycled feedstock, using 20% less heavy rare earth material and under 10% of the energy of virgin production.

Primary Feedstock Sources

SourceREE ContentAvailability
Hard disk drive magnets25-30% NdHigh (e-waste streams)
Wind turbine generatorsNd, Pr, DyGrowing (decommissioning wave)
EV motor magnetsNd, Pr, Dy, TbEmerging (end-of-life EVs)
Manufacturing scrap/swarfVariableConsistent (magnet production waste)
MRI machinesHigh Nd contentLow volume, high value

Geographic Concentration

North America and Europe lead in recycling capacity buildout, driven by government incentives and supply chain security concerns. The U.S. Department of Energy has funded multiple rare earth recycling initiatives through the Critical Materials Institute, while the EU Critical Raw Materials Act has accelerated investment in European separation and recycling capacity.

Frequently Asked Questions

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

The most commonly recycled rare earths are neodymium (Nd), praseodymium (Pr), dysprosium (Dy), and terbium (Tb)—the key elements in permanent magnets used in EVs, wind turbines, and electronics. Some processors also recover samarium, gadolinium, and other light or heavy REEs depending on their feedstock and technology.

Q.How does the data cover companies at different stages of development?

The dataset includes companies at all stages: lab-scale R&D, pilot plants, demonstration facilities, and full commercial operations. Each entry indicates the current operational status so you can filter for production-ready suppliers versus emerging technology providers.

Q.Are Chinese rare earth recyclers included?

Yes. While many buyers seek non-Chinese supply alternatives, the dataset includes recyclers operating in China (such as GanZhou QianDong and Shenghe Resources) since they represent a significant share of global recycling capacity. You can filter by geography to focus on specific regions.

Q.How is processing capacity data sourced?

Capacity figures are gathered from publicly available sources including company press releases, regulatory filings, government grant announcements, and industry reports. These represent stated or permitted capacity, not necessarily current utilization rates.