Europe is rapidly reshaping its industrial strategy as governments and companies invest in domestic rare earth refining and processing capacity. For decades, European industries relied heavily on imported rare-earth elements used in advanced technologies, renewable energy systems, and defense applications. However, this model is increasingly viewed as a strategic vulnerability.
Today, nearly 90 percent of the world’s rare-earth refining capacity is concentrated in China, leaving European manufacturers exposed to supply disruptions and geopolitical risks. As demand for critical materials grows, European policymakers are now pushing to develop local refining capabilities that can support the continent’s technological and energy transitions.
The effort marks a major shift in Europe’s approach to raw material security, aiming to reduce reliance on overseas processing and strengthen regional supply chains for key industrial inputs.
Rare Earths Power the Clean Technology Revolution
Rare earth elements play a crucial role in modern technologies, particularly in electric vehicles, wind turbines, and advanced electronics. Permanent magnets made from elements such as neodymium, praseodymium, dysprosium, and terbium are essential for high-efficiency electric motors and generators.
These magnets are used in everything from electric vehicle drivetrains to offshore wind turbine generators. Despite hosting some of the world’s most advanced automotive and engineering industries, Europe historically developed very little capacity to refine rare-earth materials.
The result has been a major imbalance: Europe excels in manufacturing high-tech products but depends largely on external suppliers for the processed materials required to produce them.
Recognizing this gap, governments and private investors are now supporting a new generation of rare earth processing plants and recycling facilities across the continent.
Estonia’s Silmet Plant: Europe’s Rare Earth Anchor
One of the most important facilities in Europe’s rare-earth value chain is located in Sillamäe, Estonia, where Neo Performance Materials operates the Silmet rare-earth separation plant. The facility processes rare-earth concentrates into high-purity oxides used in magnets, electronics, and industrial catalysts.
Originally built during the Soviet era to process strategic metals, the Silmet plant has become a central pillar of Europe’s modern rare-earth supply chain. At present, it remains the only large-scale commercial rare-earth separation facility operating within the European Union.
The importance of the facility has grown even further with Neo Performance Materials’ decision to expand its operations nearby. The company has opened a permanent magnet manufacturing facility in Narva, also in Estonia, designed to produce approximately 2,000 tonnes of NdFeB magnets annually, with future plans to increase output to around 5,000 tonnes per year.
These magnets are vital components in electric vehicles and offshore wind turbines, industries that are expected to grow rapidly as Europe accelerates its transition toward low-carbon energy systems.
France Emerges as Europe’s Rare Earth Processing Hub
While Estonia hosts Europe’s primary separation plant, France is becoming the center of a broader rare-earth processing ecosystem.
In the port city of La Rochelle, the Belgian chemical company Solvay operates a long-established rare-earth processing facility that historically produced materials used in catalytic converters and specialty chemical applications. In recent years, however, the plant has shifted its focus toward producing neodymium-praseodymium (NdPr)—the key metals used in high-performance permanent magnets.
Solvay’s expansion plans are part of a wider strategy to secure raw material supply for European manufacturers involved in electric mobility and renewable energy technologies. By the end of the decade, the company aims to supply 20 to 30 percent of Europe’s demand for NdPr, significantly reducing the continent’s reliance on imported magnet materials.
Rare Earth Recycling Gains Strategic Importance
Alongside refining, rare-earth recycling is becoming a crucial pillar of Europe’s critical raw materials strategy. One of the most ambitious projects in this field is the Caremag recycling facility currently under construction in Lacq in southwestern France.
Developed by the company Carester, the plant will process end-of-life permanent magnets recovered from electric vehicles, wind turbines, and electronic equipment. Once operational, the facility is expected to produce roughly 1,400 tonnes of rare-earth oxides each year, creating one of Europe’s largest recycling streams for magnet materials.
The project represents a significant investment of around €216 million, supported by both industrial partners and government funding. By recovering valuable materials from existing products, the facility will help Europe reduce its dependence on imported ores while building a more circular supply chain.
The Lacq industrial zone is also attracting additional investment linked to rare-earth processing. The British company Less Common Metals, one of the few Western producers of rare-earth metals and alloys, plans to build a €110 million refining and alloy production facility adjacent to the Caremag project. The plant is expected to begin operations around 2027, supplying processed rare-earth metals for magnet manufacturers across Europe.
Together, these projects are expected to transform Lacq into one of Europe’s largest rare-earth processing clusters, combining recycling, refining, and alloy production within a single industrial ecosystem.
Scandinavia and Germany Join the Supply Chain Effort
Elsewhere in Europe, additional initiatives are emerging to strengthen the continent’s rare-earth capabilities.
In Sweden, the Norra Kärr rare-earth project has attracted attention as one of Europe’s most advanced deposits containing heavy rare-earth elements. These materials are particularly valuable for high-temperature magnets used in electric vehicles and renewable energy systems. Although the project is still under development, it could eventually integrate both mining and downstream processing.
Meanwhile, Germany, Europe’s largest manufacturing economy, has focused more on advanced magnet production and materials engineering rather than large-scale chemical separation. Companies such as Vacuumschmelze (VAC) specialize in high-performance magnetic alloys used in electric vehicles, aerospace systems, and industrial electronics.
These manufacturers form a critical link between raw materials processing and final industrial products, ensuring that Europe maintains strong capabilities in high-value technology manufacturing.
Rare Earth Demand Set to Surge
The urgency of building a domestic rare-earth supply chain is closely linked to the rapid growth of clean energy technologies.
Electric vehicles require significant quantities of rare-earth permanent magnets for their motors. A typical electric motor may contain between one and two kilograms of rare-earth magnet materials. Offshore wind turbines use even larger amounts, often incorporating hundreds of kilograms of rare-earth elements in their generator systems. As Europe expands renewable power capacity and electrifies transportation, demand for these materials is expected to increase sharply.
To address this challenge, the European Union introduced the Critical Raw Materials Act, which sets ambitious targets for strengthening supply chains. By 2030, the EU aims for at least 40 percent of critical minerals processing to occur within Europe, while 25 percent of supply should come from recycling.
These targets reflect a broader recognition that secure supply chains require not only mining projects but also the complex chemical infrastructure needed to transform raw ores into usable industrial materials.
Building a Strategic Materials Ecosystem
Developing rare-earth refining facilities is technically demanding and capital intensive. The process involves multi-stage chemical separation techniques capable of isolating individual elements that occur together in mineral concentrates. Establishing such plants requires advanced engineering expertise, large investments, and strict environmental safeguards.
As a result, Europe’s rare-earth refining sector is expected to grow gradually, supported by public funding, industrial partnerships, and long-term supply agreements.
The emerging network of facilities—from Estonia’s separation plant to France’s recycling and refining hubs, Germany’s magnet manufacturers, and Scandinavia’s potential mining projects—suggests that Europe is beginning to assemble the foundations of a regional rare-earth supply chain.
Europe’s Strategic Shift Away From Dependence
Despite these developments, Europe will still rely heavily on imported rare-earth materials for much of the coming decade. China’s processing infrastructure, developed over several decades, continues to dominate global supply.
What is changing, however, is Europe’s long-term strategy. Instead of relying almost entirely on global markets, the continent is now investing in selective domestic capacity building aimed at strengthening supply security.
Each new refining facility, recycling plant, or magnet manufacturing site reduces the risk of supply disruptions while reinforcing Europe’s position in the global clean technology and advanced manufacturing sectors.
A New Era for Europe’s Rare Earth Industry
The emerging network of refining and processing hubs in Estonia, France, Germany, Sweden, and the United Kingdom remains relatively modest compared with the massive rare-earth complexes operating in Asia. Nevertheless, these projects collectively represent the foundation of a European rare-earth materials ecosystem.
If the current wave of investment continues through the late 2020s, Europe could gradually shift from being primarily a downstream consumer of imported rare-earth materials to a region capable of refining, recycling, and manufacturing key components needed for the global energy transition.
Such a transformation would strengthen Europe’s industrial resilience while supporting the technologies—electric vehicles, renewable energy systems, and advanced electronics—that will shape the next generation of the global economy.
