Europe’s effort to establish a more independent rare-earth supply chain is moving from technology development toward the practical requirements of industrial recycling. The challenge is no longer limited to recovering metals from discarded products. Industrial operators must build systems capable of collecting, identifying, dismantling and processing permanent magnets and manufacturing scrap before returning usable material to European manufacturers at commercially viable prices.
The Horizon Europe MAGELLAN project is developing a short-loop recycling model based on recovering neodymium-iron-boron permanent magnets from electric-vehicle traction motors, e-bikes, e-scooters and other end-of-life equipment. Instead of separating recovered material into individual rare-earth oxides and subsequently rebuilding the alloy, the proposed magnet-to-alloy process would convert recovered magnets directly into new alloys for use in new magnets.
MAGELLAN is targeting at least 25 per cent recycled rare-earth content by weight in high-performance permanent magnets. The project estimates that this approach could cut magnet-related greenhouse-gas emissions by as much as 50 per cent compared with conventional production.
Its technical programme also covers partial substitution of neodymium, powder injection moulding and rotor designs intended to simplify magnet removal when products reach the end of their useful lives. MAGELLAN completed its sustainability guidelines in December 2025, with publication following in July 2026.
European dependence remains concentrated in processing and magnets
The need for alternative recycling capacity reflects Europe’s dependence on Chinese supply chains. China accounts for an estimated 69–70 per cent of global rare-earth mining, approximately 90 per cent of refining and about 95 per cent of permanent-magnet manufacturing.
The concentration is particularly significant further down the value chain. The European Commission estimates that 100 per cent of the rare earths used in permanent magnets in the EU are refined in China, leaving European manufacturers highly dependent on Chinese processing even when the original mineral feedstock is sourced elsewhere.
The materials are used across electric vehicles, wind turbines, industrial motors, robotics, medical-imaging equipment, electronics and defence systems. Neodymium and praseodymium provide magnetic strength in NdFeB magnets, while dysprosium and terbium help maintain performance under elevated temperatures.
Although rare earths account for only a small proportion of the mass or cost of products such as vehicles and turbines, a shortage of the required magnetic materials can prevent production of the finished equipment.
Europe currently recycles less than 1 per cent of its rare earths, despite the quantity of permanent magnets already incorporated into products circulating within the European economy. Recycling therefore represents a potential source of supply from material already present in the regional industrial system.
Demand for NdFeB magnets in Europe is projected at approximately 51,000 tonnes in 2040 and 58,000 tonnes in 2050. Wind turbines could account for about 44 per cent of 2050 demand, followed by electric vehicles at 35 per cent, electric bicycles at 10 per cent, household appliances at 5 per cent and consumer electronics at approximately 3 per cent.
Under stronger collection and circularity scenarios, secondary material could supply 16–34 per cent of demand by 2040 and approximately one-quarter to one-half of demand by 2050.
Recycling carries a different environmental footprint
The environmental case for secondary production also reflects the characteristics of primary rare-earth extraction and processing. Deposits can contain relatively low concentrations of target elements, requiring substantial quantities of rock to be mined and treated.
Rare-earth separation can involve sulphuric acid, hydrochloric acid, solvents and other reagents. Some deposits also contain thorium and uranium. Poorly controlled operations can produce acidic wastewater, contaminated tailings, radioactive residues, heavy-metal pollution and fluoride emissions, while refining can require substantial energy and water and cause extensive land disturbance.
Recycling does not remove environmental and safety requirements. End-of-life vehicles and traction motors have to be collected, transported, stored and dismantled safely. Lithium-ion batteries introduce fire risks during collection and pre-treatment.
Demagnetisation, shredding and thermal treatment can generate dust and diffuse emissions. Hydrometallurgical processing produces chemical residues and wastewater, while pyrometallurgical methods can involve significantly higher energy consumption.
MAGELLAN’s reviewed lifecycle assessments indicate that magnet-to-magnet recycling can lower environmental impacts by approximately 64–96 per cent compared with virgin magnet production, depending on the environmental category and process configuration.
The industrial systems under consideration therefore incorporate closed-loop wastewater treatment, filtration, temperature-controlled battery storage, fire-detection systems and process-chemical recovery as elements of the process design.
Feedstock collection remains a major industrial constraint
The main challenge for European recycling capacity extends beyond metallurgy. European magnet producers can face material costs 50–200 per cent higher than competing Chinese suppliers, while raw materials can account for as much as 80 per cent of total magnet costs.
That cost structure leaves limited room for offsetting higher European input prices through improvements in labour productivity or energy efficiency. European customers also rarely pay a corresponding premium for magnets that are locally produced, traceable or manufactured from recycled material.
Recyclers face a separate problem in obtaining feedstock. Magnets are distributed among numerous components and arrive in different geometries, coatings, adhesives and assembly configurations. Less than an estimated 5 per cent of magnets in today’s vehicles are actually recovered.
Large quantities instead enter shredding streams, are exported as mixed scrap, downcycled, incinerated or landfilled because identifying and removing individual magnets can cost more than their immediately recoverable value.
This leaves European recyclers with an uneven supply base. The region is seeking to increase secondary rare-earth production without yet having sufficient predictable feedstock for processing facilities, while procurement continues to be heavily influenced by unit cost.
Research support can advance recycling technology, but it does not protect a technically viable facility from commodity-price volatility that can quickly make European production uncompetitive.
Contract structures and regional hubs could support recycling plants
Extended producer-responsibility schemes also do not automatically guarantee feedstock availability. Where such systems are managed by original equipment manufacturers or their contracted waste operators, independent recyclers can face difficulty securing consistent access to end-of-life motors and other magnet-bearing components.
Waste classifications and shipment procedures also vary between EU member states, creating additional complications when pre-treated materials move between dismantlers, alloy processors and magnet manufacturers.
A bankable recycling facility therefore requires more than an effective processing flowsheet. It needs contracted feedstock volumes, dependable information about material composition, modular equipment capable of processing different magnet types, predictable energy and reagent costs and long-term offtake agreements with an OEM or Tier 1 supplier.
Tolling arrangements and hybrid ownership structures may provide alternatives to conventional spot purchasing when the composition and value of incoming material remain uncertain.
Location can also influence economics. Co-locating dismantling, sorting and alloy-processing facilities with existing vehicle-recycling or electronics-scrap operations can reduce transportation costs and material losses.
Regional recovery hubs could combine feedstock from several EU member states while supporting investment in automated rotor separation, magnetic scanning, sensor-based sorting and alloy-characterisation equipment.
Automation depends on identifying variable magnet feedstock
Automation remains difficult because rare-earth recycling involves effectively reverse-engineering products that were not necessarily designed for recovery.
Permanent magnets reach recyclers in different shapes, grades, coatings and chemical compositions. Automated systems must distinguish NdFeB magnets from ferrites, determine whether magnets are magnetised or demagnetised and establish whether recovered alloys meet the specifications required for new magnet production.
Variations that appear minor during dismantling can become significant material-quality issues further downstream during alloy production.
Feedstock information therefore has direct financial importance. Batch-level data can allow processors to manage alloy chemistry, production yields, warranty exposure and environmental claims.
Digital Product Passports could eventually provide information on the location, weight, composition and removability of magnets. Older products, however, will continue entering recycling systems without such identifiers for many years, while labels can be damaged or lost during use and dismantling.
MAGELLAN is consequently supporting a combination of product passports, harmonised waste codes, batch documentation and supplier verification. The proposed chain of custody begins with collection rather than at the magnet factory.
It must establish the product’s origin, distinguish pre-consumer from post-consumer material, document the dismantling process, identify the recovery route and track how recycled content is ultimately allocated to the finished product.
EU critical-minerals rules introduce recycled-content requirements
The EU’s regulatory framework is also moving toward greater domestic extraction, processing and recycling capacity. The Critical Raw Materials Act establishes 2030 benchmarks under which EU capacity should cover at least 10 per cent of extraction, 40 per cent of processing and 25 per cent of recycling for strategic raw materials.
The framework also sets a limit under which dependence on any single third country should not exceed 65 per cent of annual EU consumption at the relevant processing stage.
Strategic extraction projects can benefit from permitting periods limited to 27 months, while processing and recycling projects have a 15-month target.
Permanent magnets receive specific treatment under the framework. Products containing more than 0.2 kilograms of permanent magnets will progressively become subject to information and recycled-content disclosure requirements.
The rules cover equipment including wind generators, industrial robots, electric vehicles, light means of transport, cooling systems, heat pumps, electric motors, automatic washing machines, tumble dryers, microwave ovens and magnetic-resonance imaging equipment.
The methodology used to calculate recycled magnet content must distinguish between pre-consumer and post-consumer feedstock, short and long recycling loops, open and closed systems and different chain-of-custody structures.
The Commission’s technical work has favoured controlled mass balancing, standardised documentation and tiered conformity assessment, with third-party verification expected for claims made for regulatory and market purposes. Evidence may need to be retained for 10 years.
The disclosure requirement is scheduled to start on 24 May 2027, or two years after the relevant delegated act enters into force, whichever is later. It will cover recycled shares of neodymium, praseodymium, dysprosium, terbium, boron, samarium, nickel and cobalt.
The methodology remained under technical development in the Joint Research Centre’s March 2026 review, leaving a gap between the regulatory objectives and a fully operational verification system.
European funding programmes target rare-earth supply chains
The disclosure framework could alter procurement by making magnet origin and circularity more visible to customers, regulators and investors. Disclosure itself, however, does not establish a price premium for secondary material.
Potential measures identified for addressing the cost differential include minimum recycled-content requirements, resilience criteria in public procurement, price-support mechanisms and contracts-for-difference-style structures designed to recognise the difference between European production costs and imported magnet prices.
The RESourceEU Action Plan, adopted in December 2025, places rare-earth permanent magnets alongside battery and defence raw materials among its priorities. It targets projects capable of entering operation by 2029.
The Commission estimates that mature projects could cut selected European supply dependencies by 30–50 per cent by that date, while requiring approximately €2.15 billion in combined capital and operating expenditure.
Under the plan, InvestEU is expected to mobilise around €2 billion of additional critical-raw-material investment during 2026–2027. The 2025 Innovation Fund call also assigns €1 billion to clean-technology manufacturing, including rare-earth magnet and battery value chains.
A further €700 million or more is envisaged for a 2026 clean-technology and critical-raw-materials call. Horizon Europe’s 2026–2027 programme includes a further €593 million, while the European Innovation Council is expected to provide €100 million through two blended-finance challenges.
European projects combine primary resources and secondary feedstock
The European project pipeline includes primary rare-earth deposits, recovery from industrial by-products and urban-mining initiatives.
In Finland, Sokli, controlled by Finnish Minerals Group, has a preliminary rare-earth grade of approximately 1.2 per cent total rare-earth oxides. The project is estimated to have the potential to supply close to 10 per cent of EU demand.
Its development must address effects involving reindeer herding, water bodies, fish stocks and tourism.
In northern Sweden, LKAB’s Per Geijer deposit contains more than 1 million tonnes of rare-earth oxides. The project could recover rare earths and phosphorus from material associated with LKAB’s existing iron-ore operations.
The related ReeMAP concept would use by-product recovery to reduce the requirement for a separate mine while sharing infrastructure with an established industrial operation.
Norra Kärr, held by Leading Edge Materials, illustrates permitting and social-licence challenges. Its heavy rare-earth and zirconium resource is located near Lake Vättern and Natura 2000 areas. A previous mining lease was annulled after deficiencies were identified in the environmental assessment.
Greenland’s Kvanefjeld project presents another regulatory constraint. Its association with uranium brought it into conflict with Greenland’s prohibition on uranium exploration and extraction above 100 parts per million.
Secondary-material and processing projects include CAREMAG and MagREEsource’s MagFactory in France, LIFE INSPIREE in Italy, the Puławy Rare Earths Separation Plant in Poland and LKAB’s ReeMAP in Sweden.
These projects represent different stages of recycling and processing infrastructure. Their role extends beyond individual production capacity because separation, purification, alloy production and magnet manufacturing are required before collected European scrap can become usable industrial feedstock.
Traceability standards are expanding into recycled materials
Responsible-sourcing requirements will also have to develop alongside recycling infrastructure. Primary mining already operates under established systems including the OECD due-diligence framework, the Extractive Industries Transparency Initiative, International Council on Mining and Metals principles and the Initiative for Responsible Mining Assurance.
IRMA’s mine standard contains more than 420 auditable requirements, while the recycling sector has substantially fewer dedicated assurance systems.
The Responsible Minerals Initiative has begun extending its audit process to recycled and scrap materials. IRMA is developing a standard covering responsible recycling and reprocessing.
Rare-earth traceability is also being developed through ISO 23664:2021, ISO 17887:2025 and work under CEN/TC 472.
These frameworks could provide recycled feedstock with an auditable environmental, social and governance profile and chain of custody comparable with that applied to responsibly mined primary materials.
Financing requires evidence of environmental performance
The development of recycling standards is relevant to lenders as well as manufacturers. Financial institutions cannot automatically treat recycling facilities as environmentally benign.
Project financing can require evidence covering feedstock provenance, worker exposure, battery-fire prevention, air emissions, wastewater, hazardous residues, energy consumption, recovery rates and community impacts.
The environmental advantage of a recycling project must therefore be demonstrated against a credible primary-production baseline and supported by operational data.
Vehicle manufacturers, wind-turbine suppliers, industrial-motor producers and Tier 1 component companies are central to the emerging system. Their product designs determine whether magnets can be economically removed, while procurement policies influence whether European recyclers can secure long-term financing.
A magnet that is difficult to access, lacks chemical identification and enters a purchasing system governed solely by upfront price remains difficult to recycle commercially, regardless of the theoretical value of its contained rare earths.
Europe’s proposed rare-earth recycling system consequently depends on coordinated product design, waste collection, documentation and offtake arrangements alongside metallurgical processing. Under the model being developed, OEM take-back systems would provide predictable feedstock, dismantlers would selectively recover magnets, processors would maintain batch-level traceability, alloy and magnet producers would accept controlled secondary inputs, and manufacturers would purchase the resulting material under contracts long enough to support investment.
