The EU Critical Raw Materials Act (CRMA) has moved decisively from policy design into implementation, marking a turning point where Europe’s industrial strategy is no longer theoretical but measurable. What began as a regulatory framework listing strategic raw materials has now evolved into a full execution system—linking permitting, financing, procurement, and industrial policy into a single coordinated mechanism aimed at reshaping Europe’s supply chains before 2030.
At its core, the CRMA represents Europe’s attempt to convert strategic autonomy ambitions into real-world capacity: mines, refineries, recycling plants, and processing infrastructure capable of reducing dependence on external suppliers.
2030 Targets Become Industrial Benchmarks
The CRMA establishes clear and ambitious 2030 targets for critical raw materials:
- At least 10% of annual EU demand from domestic extraction
- At least 40% from EU processing capacity
- At least 25% from recycling streams
- No more than 65% dependency on a single third country
These thresholds now function as more than policy goals. They are increasingly embedded in project finance models, trade negotiations, offtake agreements, and public funding decisions across key materials such as lithium, nickel, cobalt, graphite, rare earths, tungsten, copper, manganese, and gallium.
First Execution Wave: 60 Strategic Projects Selected
In 2025, the European Commission selected 60 Strategic Projects under the CRMA framework, marking the first concrete implementation step.
- 47 projects inside the EU
- 13 projects outside the EU and in partner territories
- Spread across 13 member states and multiple allied countries
The external pipeline includes projects in Serbia, Greenland, Norway, Ukraine, Canada, Kazakhstan, Madagascar, Brazil, South Africa, and the United Kingdom, highlighting a key reality: Europe cannot achieve supply security through domestic geology alone.
Battery Materials Dominate Europe’s Strategic Focus
A major share of selected projects focuses on battery supply chains, reflecting the central role of electrification in Europe’s industrial future:
- Lithium (22 projects)
- Nickel (12 projects)
- Graphite (11 projects)
- Cobalt (10 projects)
- Manganese (7 projects)
This distribution reflects Europe’s exposure to EV batteries, grid storage systems, and industrial electrification, where supply-chain concentration risk remains high.
Lithium: Europe’s Most Advanced but Risky Pipeline
The EU’s lithium project pipeline includes major developments across France, Germany, Portugal, Finland, Spain, and Czechia.
Key projects include:
- Eramet’s Ageli geothermal lithium project (France)
- Savannah Resources’ Barroso Lithium (Portugal)
- Imerys’ EMILI project (France)
- Keliber Lithium (Finland)
- Vulcan Energy’s Zero Carbon Lithium (Germany)
- Rock Tech’s Guben converter (Germany)
Some projects are highly advanced. For example, Vulcan Energy’s integrated German system targets ~24,000 tonnes/year of lithium hydroxide, while Imerys’ EMILI aims for ~34,000 tonnes/year, enough for hundreds of thousands of EVs. Permitting delays, social opposition, and financing complexity—particularly in Portugal’s Barroso project—highlight a key issue: strategic designation does not guarantee execution.
Graphite: Europe’s Hidden Battery Bottleneck
Graphite remains one of the most strategically sensitive battery materials due to Europe’s dependence on Chinese processing capacity for anode materials.
Key EU projects include:
- Talga’s Vittangi graphite-to-anode project (Sweden)
- Tokai COBEX BAM4EVER (France)
- UP Catalyst CO₂Graphite (Estonia)
- Hycamite (Finland)
- SALROM (Romania)
Outside the EU, projects in Greenland, Ukraine, Madagascar, and Kazakhstan expand supply options. The strategic shift is clear: Europe is moving from raw graphite extraction toward full anode material production, purification, and coating, which is where real value is created in battery supply chains.
Rare Earths and Magnets: The Most Geopolitical Segment
The rare earth sector represents the most geopolitically sensitive part of the CRMA framework.
Key EU projects include:
- CAREMAG (France)
- MagREEsource recycling hub (France)
- Mkango’s separation plant (Poland)
- LKAB’s ReeMAP (Sweden)
Outside Europe, Malawi and South Africa projects expand diversification.
The key weakness is not mining but midstream processing: separation, metal-making, alloy production, and especially rare earth permanent magnets, which remain heavily dependent on external supply chains.
Tungsten and Defence Materials: Quiet Strategic Security
Tungsten is essential for defence, aerospace, machining, and industrial tooling, yet remains highly concentrated in global supply.
EU-linked projects include:
- El Moto (Spain)
- P6 Metals (Spain)
- Tungsten West (UK)
Although less visible than lithium or nickel, tungsten represents a classic strategic vulnerability material due to limited substitution options and concentrated production.
Gallium and By-Product Recovery: Industrial Efficiency as Strategy
Gallium supply depends largely on alumina and zinc processing, not primary mining.
A key EU project in Greece led by METLEN Energy & Metals integrates:
- bauxite
- alumina
- aluminium
- gallium recovery
This reflects a broader CRMA trend: critical materials are increasingly recovered from industrial waste streams rather than mined directly.
Copper: Electrification’s Core Metal
Copper remains foundational to Europe’s energy transition and electrification strategy.
Key projects include:
- Aguablanca (Spain)
- Atlantic Copper CirCular recycling (Spain)
- SOMINCOR expansions (Portugal)
- Cobre Las Cruces (Spain)
- Sakatti (Finland)
- Rovina (Romania)
Together, these projects link mining, recycling, and polymetallic processing, reinforcing copper’s role as the backbone of grid expansion, EV infrastructure, and renewable energy systems.
Second Execution Wave: Rising Competition for Strategic Status
A second CRMA call closed in 2026 with:
- 160+ applications
- 95 from EU
- 66 from outside EU
- 75 battery-related proposals
- 21 rare earth projects
This highlights a growing reality: strategic status is becoming scarce, and competition between projects is intensifying.
Permitting Reform: Faster Approval, Higher Pressure
Strategic projects are expected to benefit from accelerated permitting:
- 27 months for extraction
- 15 months for processing and recycling
If implemented effectively, this could significantly reduce Europe’s traditional development bottlenecks. However, success depends heavily on national administrative capacity and legal coordination, which varies widely across member states.
Financing Gap: The CRMA’s Weakest Link
While the CRMA establishes structure, it does not provide large-scale dedicated funding.
The complementary RESourceEU Action Plan (2025) aims to mobilize up to €3 billion, alongside support from the European Investment Bank and national agencies.
However, individual projects often require billions in capital:
- Vulcan Energy: ~€2.2bn
- Keliber: ~€783mn
- Multiple lithium and rare earth projects in the €100mn–€1bn range
This creates a structural gap between policy ambition and industrial-scale financing needs.
Recycling: Essential but Not Enough (Yet)
The EU targets 25% recycling by 2030, but current recycling rates for many critical materials remain extremely low.
For several materials, recycling is still:
- below 5%
- or effectively non-existent at scale
Key recycling projects include:
- Northvolt Revolt (Sweden)
- Fortum Battery Recycling (Finland)
- Orano (France)
- Umicore (Belgium)
Recycling is becoming central to Europe’s circular raw materials economy, but it cannot yet replace primary supply chains.
External Projects: Managed Dependence, Not Autarky
Strategic projects outside the EU include:
- Jadar (Serbia, lithium)
- GreenRoc (Greenland graphite)
- Dumont (Canada nickel)
- SMP (Brazil nickel/cobalt)
- Songwe Hill (Malawi rare earths)
This confirms a key CRMA principle: Europe is pursuing diversified dependency management, not full resource independence.
