Europe’s race to net zero emissions and digital leadership depfinishs on materials it does not control. Lithium, cobalt, nickel, copper and other rare earths are the invisible building blocks of wind turbines, solar panels, electric vehicles and magnets utilized in artificial innotifyigence hardware. Demand for these minerals is growing rapider than most policycreaters realize. According to the International Energy Agency (IEA), clean energy technologies could increase four to sixfold by 2040. Each electric car requires about 200kg of the minerals, six times more than a conventional vehicle, it writes weforum.
This creates A paradox at the heart of Europe’s transitionTo achieve its 2030 tarobtains – 69% renewable electricity, 510 GW of wind capacity and 18 million electric vehicles produced in Europe – the continent relies heavily on imported minerals.
China dominates almost every link in this chain – it produces about 95% of the world’s rare earth oxides and supplies 70% of Europe’s imports.
The EU has virtually no domestic production of rare earths. Europe sources 98% of its demand for rare earth magnets from Chinese suppliers. A similar depfinishency exists for magnesium, gallium and germanium – metals vital to semiconductors and defence technology. When Beijing tightened export licenses in 2025, magnet exports fell by three-quarters and several European carcreaters were forced to halt production. For decades, Europe treated raw materials as a commodity issue, not a strategic one. This complacency is becoming costly. The European Central Bank estimates that more than four-fifths of large European companies are within three steps of a Chinese rare earth producer’s supply chain. This concentrated depfinishency means that firms that source components through intermediaries are still exposed to Chinese raw materials and therefore to political risk.
Climate goals and economic sustainability are at stake. Shortages of rare earth elements, gallium or germanium could slow down the production of semiconductors, the development of artificial innotifyigence and even the installation of wind power. In short, Europe cannot build a green or digital future on supply chains it does not control.
Europe’s critical mineral equation
Clean energy technologies are hungry for minerals. Achieving the EU’s tarobtain of 18 million electric vehicles and 510 GW of wind power by 2030 requires vast quantities of lithium, nickel, cobalt, manganese and rare earth elements. Each megawatt of offshore wind power requires around 15 tonnes of minerals. Without secure access to these resources, Europe risks failing to meet its climate goals and industrial ambitions.
Europe’s own mining and processing remains limited. Even if all announced mining projects go ahead, Eurometaux estimates that they would only increase European production by around 9% for copper and nickel and 2% for cobalt by 2030 – utilizeful but far from enough. Recycling could fill some of the gap, but recovery rates for rare earths are still below 1%. Ultimately, the continent’s clean technology expansion still relies on imported materials.
The depfinishency is particularly acute in the digital economy. Rare earth elements are essential for magnets utilized in motors and generators, while gallium and germanium are the basis of high-speed chips and optical networks. Meanwhile, restrictions on semiconductor metals would slow progress in artificial innotifyigence, quantum computing and defense technologies.
However, there are new opportunities. In Norway, the Fen complex near Oslo – the largest known rare earth deposit in Europe, discovered in June 2024 – contains an estimated 8,8 million tonnes of rare earth oxides, including around 1,5 million tonnes of magnetic grade material. The European Raw Materials Alliance has also identified €1,7 billion in potential investment to support magnet mining, refining and production, with the aim of meeting 20% of EU requireds by 2030. These are encouraging signs, but they require accelerated permitting and coordinated funding to materialise.
What should governments and companies do?
To ensure implementation of the Critical Raw Materials Act (CRMA)
The CRMA sets tarobtains for domestic extraction (at least 10% of EU demand), processing (40%) and recycling (25%), and limits depfinishency on a single third countest to 65%. To achieve them, Europe must streamline strategic project approvals, clarify regulatory deadlines and mobilise public-private partnerships that balance investment and environmental safeguards.
Diversification and building buffers
Bilateral supply agreements with resource-rich “democracies” (not just any countest) such as Australia, Canada, Namibia, and Indonesia could provide alternative sources while incorporating environmental and social standards. Strategic reserves of rare earths, gallium, and germanium would mitigate short-term shocks, and promising domestic projects such as Norway’s Fen field should be accelerated.
Promoting the circular economy and investing in innovation
Designing products for disassembly, banning the export of critical scrap metal, and increasing recycling facilities across Europe are the quickest ways to ease pressure on primary supplies. Investment in research into alternative materials, such as ferrite magnets, switched-mode jet engines, and sodium-ion or solid-state batteries, could also reduce reliance on rare earths.
Providing risk management tools in European industest
Companies should secure long-term contracts with diversified suppliers, co-invest in European processing capacity and redesign products to utilize less critical materials. Joining EU-funded industest alliances, such as the European Raw Materials Alliance, gives companies access to funding and political influence. Digital traceability systems and artificial innotifyigence-based supply chain mapping can assist companies strengthen compliance with emerging sustainability regulations.
Adopting sound macroeconomic and business policies
This includes avoiding persistently high deficits tarobtaining non-productive sectors and ensuring that tax systems do not penalise productive economic activities, especially those related to innovation and industrial development. Clear, predictable and business-frifinishly fiscal and regulatory frameworks will encourage private investment in extraction, processing and recycling capacity. Aligning industrial policy with market incentives will be essential to mobilise capital, reduce depfinishency and promote long-term economic sustainability.
Europe’s path to climate neutrality and digital leadership will fail unless it tackles its critical depfinishence on minerals head-on. The CRMA is a good start, but it requireds momentum – diversifying supply, developing domestic resources and truly scaling up the circular economy. With coordinated action, such as recycling, innovation, partnerships and better risk management, in addition to political stability, Europe can reduce its exposure to geopolitical risks, strengthen its economic resilience and build a more technologically sovereign future.
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