Germany rare earth recycling has moved from laboratory demonstration to commercial operation in 2026, with two industrial-scale facilities now processing neodymium-iron-boron (NdFeB) magnet scrap in the country. HyProMag GmbH’s plant in Pforzheim — launched in April 2026 — and the Heraeus Remloy facility in Bitterfeld-Wolfen represent the most advanced rare earth magnet recycling infrastructure in continental Europe. Both are operating against a backdrop of China’s 2025–2026 export restrictions on permanent magnets and processed rare earth materials, which have sharpened the German automotive and wind energy sectors’ exposure to single-source supply.
Germany Rare Earth Recycling: The Two Operational Facilities
HyProMag GmbH, a spinout from University of Birmingham research backed by Mkango Resources (LSE: MKA), commissioned its Pforzheim plant in April 2026. The facility uses Hydrogen Processing of Magnet Scrap (HPMS), a patented short-loop method that bypasses full chemical reprocessing. Rather than dissolving magnets into individual rare earth compounds, HPMS converts end-of-life NdFeB magnets directly into reusable magnetic powder — preserving the original alloy structure and cutting CO₂ emissions by an estimated 80–95% versus primary extraction. Pforzheim started at approximately 100 tonnes per annum (tpa) of NdFeB input, permitted to scale to 750 tpa by 2028.
The second facility, Heraeus Remloy in Bitterfeld-Wolfen, opened in May 2024. It converts end-of-life electronics into nanocrystalline magnetic powders at a baseline capacity of 600 tpa, designed to scale to 1,200 tpa. Mkango Resources subsequently acquired key recycling assets from Heraeus Remloy to build a multi-loop recycling platform spanning both HPMS short-loop processing and conventional hydrometallurgical routes for lower-quality feedstock. Germany’s combined nameplate recycling capacity from both facilities is approaching 2,000 tpa at full ramp — against European NdFeB magnet consumption of approximately 20,000 tpa.
Both facilities receive support under Germany’s BMBF (Federal Ministry of Education and Research) critical raw materials funding framework, which prioritises domestic processing capacity for materials classified as strategically critical under the EU Critical Raw Materials Act (CRMA).
EU CRMA Recycling Targets and the Regulatory Driver
The EU CRMA, which entered force in 2024, establishes binding supply chain targets that directly shape the investment case for germany rare earth recycling infrastructure. By 2030, the EU must source at least 25% of its annual strategic raw material consumption from recycled material. Separately, no more than 65% of any strategic raw material can be imported from a single non-EU country — a provision that directly targets rare earth and magnet import dependence on China.
Germany is the EU’s largest consumer of NdFeB magnets, driven by automotive OEMs — Volkswagen Group, BMW, Mercedes-Benz, Stellantis — and the wind turbine sector. Current neodymium prices sit at $124.87/kg (SMM industrial benchmark, April 2026), with dysprosium at $220.93/kg — both elevated by China’s export restriction measures. These price levels strengthen the economics of domestic recycling relative to primary import supply.
The CRMA’s 25% recycling target by 2030 is ambitious against current baseline: less than 1% of rare earth elements used across the EU are currently collected and recycled. Germany’s two operational facilities are necessary first steps, but closing the gap requires a significant expansion of both collection infrastructure and processing capacity across the decade. For broader context on China’s rare earth export controls and their impact on European supply chains, see our full analysis.
German Automotive Demand: The Scale Constraint in Context
Germany’s automotive sector is the primary demand driver for NdFeB magnets and therefore the principal beneficiary of domestic germany rare earth recycling capacity. Electric vehicle motors use between 1 and 3 kg of NdFeB magnet per unit; the German automotive industry is scheduled to produce several million EV units annually by the late 2020s. Wind turbine generators using direct-drive permanent magnet systems — increasingly preferred for offshore applications — require 600 kg to 1,000 kg of NdFeB magnets per MW of installed capacity.
The scale arithmetic is stark. At 750 tpa, HyProMag’s Pforzheim facility at full capacity would supply enough recycled NdFeB powder for approximately 250,000 to 750,000 EV motors — a significant volume, but representing low single-digit percentages of projected German EV output. The Heraeus Remloy facility adds further capacity, but Europe’s combined recycling output remains a structural supplement to, not a replacement for, primary rare earth supply. For context on the companies producing NdFeB magnets from this recovered material, see the top 10 rare earth magnet manufacturers.
A feedstock timing constraint compounds the scale challenge. The largest future source of NdFeB scrap — end-of-life EV motors — will not enter recycling streams in meaningful volumes until the late 2020s and early 2030s, reflecting the 10–15 year vehicle life cycle. Near-term feedstock is sourced from hard disk drives, manufacturing offcuts, and retired industrial equipment. HyProMag’s HPMS process is designed to handle variable feedstock quality, with medium and long-loop processing routes for material that cannot be short-looped directly.
Research Infrastructure: Fraunhofer, TU Freiberg and Beyond
Germany’s recycling ambitions extend beyond the two operational plants. Fraunhofer IFAM in Dresden has developed high-selectivity hydrometallurgical processing routes that eliminate the need for solvent extraction — reducing the environmental footprint of chemical-route recycling. TU Bergakademie Freiberg has validated recovery frameworks for scandium, lanthanum, and cerium from retired hydrogen electrolysis cells, targeting a feedstock stream that will grow as Europe’s electrolyser fleet ages. Clausthaler Umwelttechnik Institut (CUTEC) has demonstrated a multi-reactor system for extracting rare earth oxalates from industrial slag on a continuous basis.
TU Darmstadt and Fraunhofer IWKS are running joint AI modelling programmes to engineer rare-earth-lean permanent magnets — reducing the volume of critical material required per unit and therefore the recycling burden at end of life. This design-for-recycling approach addresses the problem upstream rather than at the processing stage.
Germany Rare Earth Recycling: Structural Limitations
Germany’s progress on germany rare earth recycling is genuine but bounded by two constraints that extend beyond domestic policy reach. First, Europe — including Germany — lacks large-scale solvent extraction and separation infrastructure for heavy rare earths. Dysprosium and terbium, critical for high-temperature magnet performance in EV motors and wind turbines, require separation chemistry that China currently dominates. Short-loop HPMS recycling preserves the NdFeB alloy but does not solve the heavy rare earth separation problem.
Second, price competition from Chinese primary supply remains a structural headwind. When Chinese domestic neodymium prices soften, the margin available to recyclers narrows. Government subsidy and CRMA-mandated procurement preferences are the primary mechanisms for sustaining recycling economics through price cycles — a model closer to strategic infrastructure than purely commercial operation. Europe’s broader rare earth strategy context, including primary projects in Sweden, Norway, and Finland, provides the full supply picture alongside recycling.
Germany Rare Earth Recycling: Facility Comparison
| Facility | Location | Technology | Current Capacity | Target Capacity | Operator / Backer |
|---|---|---|---|---|---|
| HyProMag GmbH | Pforzheim | HPMS (hydrogen short-loop) | ~100 tpa NdFeB | 750 tpa by 2028 | HyProMag / Mkango Resources |
| Heraeus Remloy (now Mkango / HyProMag assets) | Bitterfeld-Wolfen | Nanocrystalline powder (hydrometallurgical) | 600 tpa | 1,200 tpa | Mkango Resources / Maginito |
Sources: German Federal Ministry for Economic Affairs and Climate Action (BMWK); USGS Rare Earths Statistics and Information.
For a full ranking of global operators in this sector, see the top 10 rare earth recycling companies and the rare earth recycling and circular economy analysis.
This article is for informational purposes only and does not constitute investment advice. Prices are subject to change without notice.
What is Germany’s rare earth recycling capacity in 2026?
Germany has two operational NdFeB magnet recycling facilities in 2026. HyProMag GmbH’s Pforzheim plant is commissioning at approximately 100 tpa, permitted to 750 tpa by 2028. The Heraeus Remloy facility in Bitterfeld-Wolfen operates at 600 tpa baseline, scaling to 1,200 tpa. Combined nameplate capacity approaches 2,000 tpa against European consumption of around 20,000 tpa annually.
What is HPMS technology and how does HyProMag use it?
Hydrogen Processing of Magnet Scrap (HPMS) is a short-loop recycling method developed at the University of Birmingham. It uses hydrogen gas to decrepitate NdFeB magnets directly into reusable magnetic powder without full chemical dissolution — preserving the alloy structure, reducing processing cost, and cutting CO₂ emissions by an estimated 80–95% versus primary extraction. HyProMag GmbH operates the technology commercially at its Pforzheim facility.
What are the EU CRMA rare earth recycling targets?
The EU Critical Raw Materials Act requires the EU to source at least 25% of annual strategic raw material demand from recycled material by 2030, and caps imports from any single non-EU country at 65% of total supply. Both targets are directly relevant to rare earth elements and NdFeB magnets, where China currently dominates primary supply and processing.
Why is Germany focused on rare earth recycling?
Germany is Europe’s largest consumer of NdFeB magnets, driven by automotive OEMs and wind turbine manufacturers. China’s 2025–2026 export restrictions on processed rare earths and permanent magnets exposed German supply chains to acute disruption risk. Domestic recycling reduces that dependence and supports CRMA compliance, which mandates diversified sourcing by 203
What are the main constraints on Germany rare earth recycling scaling?
Three principal constraints: scale relative to demand (combined German capacity is below 10% of European NdFeB consumption), feedstock availability (EV motor scrap won’t enter recycling streams in volume until the late 2020s), and the absence of European heavy rare earth separation infrastructure for dysprosium and terbium.
