Europe’s drive to secure critical mineral supply chains is being tested most sharply in rare earths and graphite. Despite progress on domestic lithium production and battery manufacturing, rebuilding specialist processing capacity for rare earth elements and battery-grade graphite remains more complex. Rare earths are used in permanent magnets for electric vehicles, wind turbines, robotics, defense technologies and advanced electronics. Graphite is a key input for lithium-ion battery anodes.
Even with growing political support and industrial investment, Europe continues to rely heavily on China for processing expertise, manufacturing scale and pricing power. The strategic case for domestic production is described as clear, while the commercial case is described as harder to prove. This dependence leaves manufacturers exposed to disruptions, trade restrictions and shifting market dynamics. The challenge extends across both economic and geopolitical dimensions.
China’s concentration in refining and recycling
One obstacle highlighted for Europe is the concentration of global processing capacity. The International Energy Agency says refining and processing activities for most critical minerals have become more concentrated in recent years rather than more diversified. China remains dominant across a range of strategic materials, including rare earths and graphite, and also controls a substantial share of refining capacity for numerous battery-related minerals.
The same concentration is described as extending beyond primary processing. China has also captured a significant portion of global battery recycling growth, reinforcing its position across the critical materials value chain. For European manufacturers seeking secure supplies of magnets, batteries and advanced technologies, this creates exposure to external supply chains. The risk profile includes potential disruptions in availability and changes in pricing.
Solvay’s La Rochelle separation operations
Solvay’s La Rochelle facility in France is cited as a major effort to rebuild rare-earth processing capacity in Europe. The plant is described as one of the continent’s most visible rare-earth separation operations. Commercial production of rare earths for magnet applications has already begun at the site.
The company’s long-term objective is to help satisfy a substantial portion of Europe’s future demand for rare-earth materials by the end of the decade. Scaling production is described as requiring more than political support because large investments must be matched by customer commitments. Solvay’s expansion depends on long-term purchasing agreements even when imported materials may remain cheaper. Automakers, renewable energy developers and industrial manufacturers are identified as key customer groups.
LKAB moves toward recovery from industrial flows
In Sweden, LKAB is pursuing a different approach focused on resource recovery rather than relying solely on new mining projects. A demonstration facility in Luleå is being developed to extract both phosphorus and rare earth elements. The company describes this as creating a potential pathway toward large-scale commercial production.
The strategy is linked to integrating rare-earth recovery into existing industrial operations. LKAB expects this could reduce costs, improve efficiency and accelerate project development compared with entirely new mining ventures. Longer-term ambitions are tied to the Per Geijer deposit, described as one of Europe’s most significant rare-earth discoveries.
Northern Sweden development plans are also described as facing hurdles beyond technical feasibility. Environmental reviews and land-use concerns are part of the process, along with rights of Indigenous Sami communities whose traditional reindeer-herding activities intersect proposed development areas. Social acceptance is therefore highlighted alongside geology as a factor affecting project progress.
Mkango links Malawi ore to Poland processing
Mkango Resources is described as attempting to connect upstream mining with European processing capacity. Its Songwe Hill project in Malawi is designed to produce mixed rare-earth carbonate. A planned separation facility in Poland would process that material into higher-value products for European markets.
This integrated model addresses the need for mined material to have a clear pathway into downstream processing facilities. Rare-earth projects are described as highly capital-intensive and technically demanding, with success dependent not only on construction and financing but also on securing long-term customer commitments. Without reliable offtake agreements, even strategically important projects may struggle to attract investment.
Battery graphite projects face qualification delays
Graphite is presented as facing similar commercial obstacles to rare earths. It is identified as a critical battery input because it forms the basis of nearly all lithium-ion battery anodes. Europe’s graphite ambitions are exemplified by Talga Group’s Vittangi Anode Project in Sweden.
The Vittangi project is described as vertically integrated, aiming to produce battery-grade natural graphite anode material sourced from Swedish deposits and processed within Europe. Strategic alignment with European objectives is stated alongside limits on commercial certainty. Graphite producers must compete against established Asian supply chains supported by decades of investment, technical expertise and large-scale manufacturing capacity.
The projects also require lengthy qualification processes with battery manufacturers before meaningful sales contracts can be secured. These steps can delay revenues and increase investment risks during ramp-up periods.
Permanent magnets: downstream manufacturing remains difficult
The difficulties extend further down the value chain into permanent magnets made from rare earths. Permanent magnets are described as critical inputs for industries including electric mobility, defense and renewable energy applications. Establishing competitive magnet production in Europe has proven difficult according to the account provided.
Several planned investments are said to have struggled with profitability concerns while facing intense competition from lower-cost Asian manufacturers. The broader challenge highlighted is that even if Europe develops mines and separation facilities, downstream manufacturing capacity cannot be assumed to follow automatically. A complete value chain requires sustained investment at every stage.
Policy options include coordinated critical mineral stockpiles
To address vulnerabilities, European policymakers are increasingly considering security-oriented measures. One option listed involves coordinated stockpiles of critical materials including rare earth elements, graphite, tungsten, gallium, germanium and magnesium.
Strategic reserves are described as intended to provide a buffer against supply disruptions while supporting broader efforts to strengthen industrial resilience. The approach is framed as a shift away from relying exclusively on global markets toward treating critical minerals as strategic assets comparable to energy reserves or national security infrastructure.
Expected capabilities through 2030
The outlook through 2030 is described as gradual but incomplete progress toward strengthening capabilities in multiple parts of the value chain. Europe is expected to strengthen rare-earth separation, graphite processing, battery materials production and recycling technologies over that period.
Companies mentioned as likely participants include Solvay, LKAB, Mkango Resources and Talga Group. Complete self-sufficiency is described as unlikely due to China’s scale, technological leadership and integrated supply chains that are said not to be replicable overnight.
Market structures alongside projects
The need for market design beyond resource development is highlighted through requirements listed for long-term success. These include transparent pricing mechanisms, stable offtake agreements and strategic stockpiling programs alongside processing incentives and customer commitments.
The same set of factors also includes investment in downstream manufacturing capacity so that projects can compete against established global suppliers. Without those supporting structures, many projects are described as likely to struggle commercially against existing international supply sources.
