Europe’s critical minerals framework is expanding beyond mining, processing and imports, with recycling emerging as a structural component of long-term raw materials security. The shift reflects growing recognition that domestic circular supply chains will be required to support demand for lithium, nickel, cobalt, graphite and rare earths across industrial and energy sectors.
Under the EU Critical Raw Materials Act, the bloc has set a target for 25% of annual consumption of strategic raw materials to come from recycling by 2030, alongside targets of 10% domestic extraction and 40% domestic processing. The recycling benchmark arrives ahead of large-scale end-of-life battery and wind turbine magnet availability, requiring capacity to be built before full feedstock maturity.
Regulatory framework driving recycled material demand
The EU Battery Regulation establishes binding recycled content requirements across multiple battery chemistries. From 18 August 2031, electric vehicle batteries, industrial batteries above 2 kWh and starting-lighting-ignition batteries must contain minimum recycled content of 16% cobalt, 85% lead, 6% lithium and 6% nickel.
From 2036, thresholds rise to 26% cobalt, 85% lead, 12% lithium and 15% nickel, alongside tighter recovery obligations for lithium, cobalt, nickel, copper and lead. These rules convert recycled material from optional ESG input into a market-access requirement for battery and automotive manufacturers operating in the EU.
Finland’s integrated battery recycling and materials ecosystem
In Finland, Fortum Battery Recycling operates a hydrometallurgical facility in Harjavalta recovering nickel, cobalt, manganese and lithium from black mass and production scrap. The company’s Next Hydromet project is designed for 3,000 tonnes per year of black mass capacity, producing nickel sulphate, cobalt sulphate and lithium hydroxide sufficient for materials used in approximately 138,000 electric vehicles annually. Finland’s wider ecosystem includes Keliber’s lithium hydroxide development in Kokkola, Terrafame’s nickel and cobalt sulphate production in Sotkamo, and Easpring Finland New Materials’ cathode active material plant in Kotka, linking recycling directly to downstream battery material supply.
Nordic battery dismantling and early feedstock development
In Norway, Hydrovolt operates a battery recycling facility in Fredrikstad originally designed for around 12,000 tonnes of battery packs per year, equivalent to approximately 25,000 electric vehicle batteries, with recovery of black mass for refining.
The plant processes more than 400 battery types and reports up to 99% total recycling rates and 85% material recovery, supported by Norway’s early and rapidly growing end-of-life EV battery stream.
Sweden’s recycling infrastructure transition after Northvolt collapse
Northvolt’s bankruptcy in Sweden in March 2025 disrupted Europe’s flagship integrated battery and recycling strategy. The company’s Revolt recycling programme had been designed to connect cell manufacturing with materials recovery.
In February 2026, US-based Lyten acquired Northvolt’s Swedish assets, followed in March 2026 by a binding agreement to purchase the Revolt recycling facility in Skellefteå. The site has installed capacity of around 8,500 tonnes per year of battery recycling and infrastructure for expansion. Lyten plans to develop an industrial hub integrating recycling and cell production, initially targeting markets such as battery energy storage systems, data centres and defence applications.
French integrated battery recycling and materials platforms
France is developing large-scale integrated recycling and battery materials clusters. Orano and XTC New Energy are advancing a Dunkirk-based platform combining battery dismantling, precursor cathode active material production, cathode active material output and recycling.
The recycling segment includes a pre-treatment facility with capacity for 15,000 tonnes per year of battery modules and a hydrometallurgical plant designed to process 20,000 tonnes per year of black mass, recovering nickel, manganese, cobalt and lithium.
The project is scheduled to begin industrial operations around late 2026 and has been recognised under the EU strategic project framework.
Project suspension highlights commercial constraints in Europe
Eramet’s ReLieVe battery recycling project in Dunkirk, developed in partnership with Suez, was suspended in 2024. The project had included dismantling, black mass production and hydrometallurgical refining into battery-grade metal salts.
Eramet had operated a pilot facility in Trappes from 2023, but suspended industrial development due to weak economic conditions, limited battery manufacturing ramp-up and uncertainty over feedstock availability and offtake markets.
Umicore investment delays reflect market volatility
Umicore has reduced battery-material capital expenditure and delayed parts of its European recycling expansion following weakening battery materials markets and slower-than-expected EV demand.
The company has experience in recovering lithium, nickel, cobalt and copper into battery-grade outputs but has postponed large-scale recycling investments until at least the 2030s.
Poland emerges as major European recycling hub
Elemental Battery Metals, part of Elemental Group, is developing the POLVOLT project in Zawiercie, Poland, supported by a €150.7mn EU Innovation Fund grant and approximately €240mn in Polish government support, within a broader investment framework exceeding €700mn.
The project is designed to recover lithium, nickel, cobalt, copper and precious metals from electronic scrap, copper-bearing materials and battery black mass.
The initial Zawiercie facility under the AE Elemental joint venture with Ascend Elements is planned to process up to 12,000 tonnes of batteries per year, equivalent to around 28,000 electric vehicles, with black mass capacity expansion to 20,000 tonnes per year. A second plant in Germany is planned with capacity of up to 25,000 tonnes per year of battery recycling.
Italy’s Portovesme hub and metallurgical integration
The Portovesme CRM Hub in Sardinia, operated within the Glencore system, is designed to establish a European battery recycling and critical metals recovery platform.
Earlier development concepts with Li-Cycle included processing 50,000–70,000 tonnes per year of black mass, equivalent to up to 36 GWh of lithium-ion batteries, targeting recovery of lithium, nickel, cobalt, copper and manganese using existing metallurgical infrastructure and port access.
Rare earth magnet recycling expands across Europe
Rare earth magnet recycling remains smaller in scale but strategically critical due to dependence on imported permanent magnets.
HyProMag, linked to Mkango Resources and Maginito, opened a facility at Tyseley Energy Park in Birmingham in January 2026. The plant uses hydrogen processing of magnet scrap technology and can recover more than 400kg of rare earth alloy per batch, producing 100 tonnes per year of sintered magnets on a single shift, rising above 300 tonnes per year on multiple shifts. HyProMag’s German operations in Pforzheim have initial capacity of around 100 tonnes per year of NdFeB products, with potential expansion to 350 tonnes per year.
French magnet and rare earth recycling developments
MagREEsource operates a production site near Grenoble in Noyarey with capacity of approximately 50–80 tonnes per year of magnets, while its larger MagFactory project has been selected under EU strategic frameworks.
Carester’s Caremag project at Lacq is designed to recycle 2,000 tonnes per year of end-of-life magnets and process 5,000 tonnes per year of mineral concentrates, producing rare earth oxides including heavy rare earth elements, supported by approximately €216mn in financing.
Feedstock constraints limit near-term magnet recycling growth
Magnet recycling volumes remain constrained by limited availability of end-of-life wind turbine and electric vehicle motor scrap. Industry assessments indicate negligible wind turbine magnet scrap availability before 2030, with EV motor recycling still in early stages due to fleet age profiles.
Near-term feedstock is expected to come from production scrap, electronics, industrial motors and selected dismantling streams.
Graphite recycling and battery anode recovery
Graphite recycling is expanding as Europe seeks to reduce dependence on imported anode materials. tozero in Germany is targeting 2,000 tonnes per year of recycled graphite by 2027, equivalent to around 50,000 electric vehicles.
Altilium in the United Kingdom is developing recycled cathode materials and has conducted testing with automotive manufacturers including Jaguar Land Rover, demonstrating potential emissions reductions from recycled battery inputs.
Economics and chemistry challenges in recycling markets
Battery recycling economics vary significantly by chemistry. Nickel-manganese-cobalt (NMC) batteries provide higher recoverable metal value due to cobalt and nickel content, while lithium-iron-phosphate (LFP) batteries present lower-value recovery profiles under current pricing conditions.
As LFP adoption increases, recyclers are expected to rely more heavily on lithium recovery, graphite recovery, service fees, producer responsibility schemes and regulatory incentives to maintain viability.
Feedstock logistics and cross-border material flows
Black mass and battery scrap are already internationally traded, creating competition for European recyclers. Waste classification rules, hazardous material regulations and cross-border shipment policies significantly influence plant utilisation rates.
Some recyclers may import feedstock to maintain operations, while others risk exporting intermediate materials if downstream refining capacity is insufficient.
Industrial integration as a determining factor for viability
Successful recycling operations are increasingly linked to integrated industrial ecosystems. Fortum benefits from Finland’s battery materials chain, Orano from Dunkirk’s emerging battery valley, Elemental from Poland’s industrial base, and Portovesme from Sardinian metallurgy infrastructure.
Hydrovolt, HyProMag, Carester, MagREEsource, Ascend Elements, Umicore, Altilium, Lyten and tozero operate across different segments of battery, magnet and graphite recycling chains, forming a distributed European circular materials network.
Structural role of recycling in Europe’s mineral system
Recycling is becoming a core component of Europe’s critical minerals framework, enabling material recovery from batteries, vehicles, wind turbines, electronics and industrial waste streams already circulating within the economy.
While mining depends on geology and imports depend on external supply chains, recycling depends on the organisation of existing material flows, establishing a domestic source of lithium, nickel, cobalt, graphite and rare earths as end-of-life products enter large-scale recovery cycles in the 2030s.
