Europe’s lithium strategy is moving beyond political targets and entering the more difficult stage of industrial execution. Across the continent, companies are advancing lithium mining projects, refining facilities, geothermal extraction technologies and battery recycling systems designed to create a more secure European supply chain for critical battery materials.
The shift reflects a broader change in how lithium is viewed. Once considered primarily an energy-transition commodity, lithium has become a strategic industrial resource linked to:
- Electric vehicles
- Energy storage systems
- Grid flexibility
- Defence technologies
- Advanced manufacturing
Europe’s dependence on imported raw materials has transformed battery supply chains into a question of industrial security. The challenge is no longer only reducing emissions. It is ensuring that European manufacturers have reliable access to the materials needed for the next generation of technology.
Europe’s Critical Minerals Policy Creates a Framework for Lithium Development
The policy foundation for Europe’s lithium ambitions is built around the EU Critical Raw Materials Act, which establishes targets for strengthening domestic supply chains by 2030.
The legislation aims for the European Union to achieve:
- 10% of annual strategic raw material demand from domestic extraction
- 40% from processing capacity
- 25% from recycling
- A maximum dependence of 65% on any single third-country supplier at any stage of the value chain
The European Commission has also introduced the RESourceEU Action Plan, designed to mobilise up to €3 billion over 12 months to accelerate projects that reduce dependence on external suppliers and strengthen alternative sources of critical minerals. These initiatives are changing how lithium projects are evaluated. European lithium developments are no longer viewed simply as mining ventures. They are increasingly treated as strategic supply-chain assets capable of producing traceable, battery-grade materials close to Europe’s industrial base.
The emerging European lithium landscape includes multiple approaches:
- Hard-rock lithium mining
- Geothermal lithium extraction
- Lithium refining
- Battery recycling
- Black-mass processing
- Cathode material production
Germany Becomes a Key Testing Ground for Geothermal Lithium
Germany is emerging as one of Europe’s most important lithium development hubs, particularly through geothermal extraction technology. Vulcan Energy Resources’ Lionheart project in the Upper Rhine Valley represents a different approach from traditional mining.
Instead of extracting lithium from ore, the project aims to recover lithium directly from geothermal brines while simultaneously producing renewable heat and electricity. The project targets approximately 24,000 tonnes per year of lithium hydroxide monohydrate, a battery-grade chemical used in electric vehicle batteries.
The integrated model combines:
- Direct lithium extraction
- Geothermal energy production
- Renewable power generation
- Battery-material processing
The project is designed around a long-term operating model, with expectations of a production life of around 30 years.
Beyond lithium output, the project could also contribute approximately:
- 275 GWh of renewable electricity annually
- 560 GWh of renewable heat for local users
This makes Lionheart more than a lithium project. It represents a potential example of how Europe can combine energy infrastructure and critical mineral production.
ABB Infrastructure Supports Europe’s New Lithium Industrial Model
The involvement of ABB highlights how lithium production is becoming increasingly dependent on industrial automation and energy infrastructure. ABB has secured contracts worth approximately €46 million to supply electrical systems for Vulcan’s lithium operations, including:
- The lithium extraction facility in Landau
- The central lithium plant at Frankfurt’s Industriepark Höchst
- Supporting geothermal well sites
The project scope includes:
- High-voltage systems
- Medium- and low-voltage distribution
- Transformers
- Industrial drives
- UPS systems
- Protection equipment
The significance goes beyond equipment supply.
Modern lithium production requires reliable electrification, efficient energy management and advanced process control. In Europe, where energy costs remain a major competitiveness issue, industrial efficiency will be as important as mineral resources.
Finland’s Keliber Project Builds an Integrated Lithium Supply Chain
Finland represents another important European lithium model through Sibanye-Stillwater’s Keliber project.
Unlike geothermal projects, Keliber follows a traditional hard-rock approach based on spodumene mining and chemical conversion.
The integrated project combines:
- Lithium ore extraction
- Concentrate production
- Lithium hydroxide refining
Production is expected to reach approximately 15,000 tonnes per year of battery-grade lithium hydroxide monohydrate over a mine life of at least 18 years. Keliber has received EU Strategic Project status under the Critical Raw Materials Act, placing it within Europe’s official framework for strengthening raw-material security. The project demonstrates the importance of vertical integration. Europe does not only need lithium resources. It needs the ability to convert those resources into high-value battery materials.
France, Portugal and Spain Expand Europe’s Lithium Pipeline
Beyond Germany and Finland, several additional European lithium projects are advancing.
France’s EMILI Lithium Project
Developed by Imerys, the EMILI project aims to produce approximately 34,000 tonnes of lithium hydroxide annually. The project is considered one of France’s most significant battery-material initiatives and could support domestic electric vehicle manufacturing.
Czech Republic’s Cínovec Project
The Cínovec lithium project, developed through Geomet, a joint venture between ČEZ and European Metals Holdings, is considered one of Europe’s largest hard-rock lithium resources. The project has targeted production potential of around 29,380 tonnes of battery-grade lithium hydroxide per year.
Portugal and Spain Lithium Developments
Portugal’s Barroso Lithium Project, led by Savannah Resources, and Spanish projects such as San José Valdeflórez and Las Navas add further supply options.
However, these projects face common European challenges:
- Permitting delays
- Community opposition
- Water management concerns
- Environmental reviews
- Legal disputes
Europe’s lithium future will depend not only on resources but on social acceptance and responsible development.
Serbia’s Jadar Project Remains a Strategic Lithium Test Case
Serbia’s Jadar project remains one of Europe’s most strategically significant and politically sensitive lithium developments. Rio Tinto has long described Jadar as a major lithium-borates resource, with earlier development plans targeting approximately 58,000 tonnes of battery-grade lithium carbonate annually.
The project has also become a broader test of:
- Environmental credibility
- Public acceptance
- Investment certainty
- EU-Western Balkans raw material cooperation
Rio Tinto has stated that Jadar received EU Strategic Project status and remains under care and maintenance while the company manages legal requirements and local assets. The project illustrates both the opportunity and complexity of European lithium development. A large domestic resource could reduce dependence on imported materials and strengthen links between Serbia and European battery manufacturers.
Long-term success depends on:
- Transparent environmental safeguards
- Community support
- Clear economic benefits
- Local infrastructure development
- Higher-value processing capabilities
Lithium security based only on extraction would remain vulnerable. A stronger model would combine mining with refining, industrial investment, employment and downstream battery production.
The United Kingdom Develops Lithium Through Geothermal and Recycling Routes
The United Kingdom is following a different approach by combining geothermal lithium extraction with battery recycling. At United Downs in Cornwall, Geothermal Engineering Ltd has demonstrated lithium extraction from geothermal waters containing more than 340 parts per million of lithium, among the highest concentrations identified in a production well. The company plans to use £10 million in financing from ABN AMRO to expand direct lithium extraction capacity.
The development pathway includes:
- Around 100 tonnes of lithium carbonate annually in early operations
- Growth toward approximately 2,000 tonnes per year by 2028/29
- A longer-term ambition exceeding 18,000 tonnes annually across multiple UK sites
The project highlights the potential of geothermal resources as an alternative European lithium source.
Battery Recycling Could Become Europe’s Fastest Supply Solution
While mining projects often require many years to develop, recycling could provide a faster route toward supply security. Altilium, based in Plymouth, is developing technology to recover valuable materials from end-of-life electric vehicle batteries.
The company aims to transform used batteries into new battery materials, recovering:
- Up to 95% of cathode materials
- Up to 99% of graphite
This approach treats future battery waste as an urban resource.
The company’s development roadmap includes:
- Smaller validation facilities
- Expanded processing plants
- ACT 3, designed for approximately 24,000 EV batteries annually
- ACT 4, focused on gigafactory production scrap
The timing challenge is significant.
Battery recycling volumes are still developing, but Europe cannot wait until large-scale battery waste becomes available. The infrastructure must be built before the recycling opportunity fully arrives.
BASF Expands Europe’s Battery Recycling Network
BASF is also developing a broader battery-material recycling ecosystem. The company’s Schwarzheide facility in Germany already includes black-mass production capabilities, while cooperation with TSR provides access to a recycling network covering approximately 190 locations across Europe.
This integrated model represents the type of infrastructure Europe needs:
- Battery collection
- Dismantling
- Discharge processes
- Black-mass production
- Material recovery
- Cathode material reintegration
The future battery supply chain will depend not only on mines but also on circular material flows.
Lithium Projects Face Tougher Investment Requirements
The financial environment for lithium development remains challenging.
The sector has experienced:
- Significant price volatility
- Chinese processing dominance
- Delays in battery manufacturing projects
- Reassessment of gigafactory investments
As a result, investors are becoming more selective.
The strongest European lithium projects will likely be those with:
- Integrated refining capacity
- Reliable energy solutions
- Strong ESG systems
- Confirmed customers
- Battery-grade production capability
Strategic importance alone will not guarantee financing.
Projects must demonstrate commercial competitiveness.
Europe’s Lithium Future Depends on Execution, Not Announcements
Europe now has a growing portfolio of lithium projects, financing mechanisms and industrial demand.
However, major challenges remain:
- Complex permitting procedures
- High energy costs
- Public resistance
- Limited refining capacity
- Global competition
The next stage of Europe’s lithium strategy will be determined by which projects can move from strategic designation to actual production.
Lithium sovereignty will not be achieved through policy documents alone.
It will require:
- Mines that secure community support
- Refineries capable of producing battery-grade materials
- Recycling facilities processing real battery volumes
- Industrial contracts keeping materials inside European supply chains
Europe has moved from defining the lithium challenge to building the solutions. The winners will be the companies capable of turning strategic ambition into reliable industrial output.
