Europe’s push to secure independent battery-material supply chains has entered a new phase as Australia’s International Graphite and Italian chemical producer Alkeemia move forward with plans to establish a major graphite processing hub in northern Italy.
The proposed partnership highlights a broader industrial transformation unfolding across Europe, where governments, battery manufacturers, and industrial groups are racing to localize critical mineral refining and purification capacity closer to European gigafactories, electric vehicle production, and clean-energy infrastructure.
The new facility, planned at Alkeemia’s industrial complex in Porto Marghera near Venice, is initially targeting production of approximately 10,000 tonnes of processed graphite annually, with long-term expansion plans potentially reaching 20,000 tonnes per year by 2030.
Graphite Processing Is Becoming More Valuable Than Mining
The strategic importance of the project lies not in graphite mining itself, but in the highly specialized downstream processing segment that remains overwhelmingly dominated by China. Although graphite is relatively abundant globally, the real bottleneck exists in converting raw graphite concentrate into ultra-high-purity material suitable for:
- Battery anodes
- Expandable graphite
- Advanced industrial applications
- Energy-storage technologies
This refining and purification stage has become one of Europe’s most significant supply-chain vulnerabilities. Most lithium-ion battery anodes still rely heavily on Chinese-processed graphite, with estimates suggesting China controls more than 80% of global processed graphite supply.
As Europe rapidly expands battery manufacturing capacity across Germany, France, Hungary, Sweden, and other industrial centers, dependence on Chinese graphite processing is increasingly viewed as a major strategic risk.
Italy’s Porto Marghera Offers a Strategic Industrial Advantage
The International Graphite–Alkeemia partnership reflects a growing trend within Europe’s critical-minerals strategy: using existing industrial and chemical infrastructure to accelerate battery-material processing development rather than relying entirely on expensive greenfield projects.
Porto Marghera offers several critical advantages.
The site already operates as an established industrial and chemical hub with:
- Existing permits
- Industrial utilities
- Logistics infrastructure
- Chemical-processing capabilities
- Hydrofluoric acid production capacity
This dramatically reduces project execution risk, lowers capital intensity, and shortens permitting timelines compared with building an entirely new standalone facility elsewhere in Europe.
Hydrofluoric Acid Is Critical for Battery-Grade Graphite
One of the most strategically important aspects of the project is direct access to hydrofluoric acid, a key chemical used in graphite purification. Producing battery-grade graphite is both chemically intensive and technologically complex. Integrating purification operations directly into an existing chemical platform significantly improves operational efficiency and overall project economics. This integrated industrial model is becoming increasingly important as Europe attempts to build competitive battery-material supply chains capable of rivaling Asia’s established processing ecosystems.
The Joint Venture Reflects a New Western Critical Minerals Strategy
The proposed ownership structure also highlights how Western critical-minerals projects are evolving.
Under the planned agreement:
- Alkeemia would hold 51% ownership
- International Graphite would retain 49%
- Profits would reportedly be shared equally
The strategy combines International Graphite’s downstream graphite expertise and feedstock supply capability with Alkeemia’s industrial infrastructure, purification technology, operational management, and workforce. Binding agreements are expected during 2026, followed by a final investment decision shortly afterward.
Pilot Testing Shows Extremely High Purity Results
The project appears to have progressed well beyond the conceptual stage. Pilot purification testing conducted during 2026 reportedly achieved graphite purity levels exceeding 99.9% total graphitic carbon, with peak results reaching approximately 99.98% purity. These numbers are extremely important for the battery industry.
Lithium-ion battery manufacturers require exceptionally high graphite purity levels before materials can qualify for battery-anode applications. As a result, purification and processing capture a far larger share of the overall value chain compared with raw graphite extraction alone.
Europe’s Battery Industry Needs Localized Processing Capacity
The economics of graphite are increasingly following the same industrial pattern seen in:
- Rare earth refining
- Lithium processing
- Battery precursor materials
In each case, downstream processing infrastructure is becoming more strategically valuable than upstream mining operations.
This aligns closely with the goals of the EU Critical Raw Materials Act (CRMA), which aims to expand Europe’s domestic processing capacity for strategic resources.
European industrial policy is increasingly focused on securing:
- Refining infrastructure
- Purification facilities
- Midstream processing capacity
- Battery-material ecosystems
rather than relying solely on imported finished battery components.
Flexible Supply Chains Are Becoming a Priority
Another important feature of the Italian project is its flexible feedstock strategy.
Instead of depending entirely on a single graphite mine, the facility is expected to process material sourced from multiple mining companies and commodity suppliers.
This approach provides:
- Greater supply flexibility
- Reduced mine-specific risk
- Improved feedstock security
- Better resilience during market volatility
Such diversification is becoming increasingly important as battery demand growth remains unpredictable and investors become more selective toward single-asset mining projects.
Graphite Could Become Europe’s Hardest Battery Material Challenge
For Europe, graphite may ultimately prove even more difficult to localize than lithium.
While Europe can potentially secure diversified lithium supplies from regions such as:
- South America
- Australia
- Africa
graphite processing remains deeply embedded within China’s industrial ecosystem, chemical-processing networks, and manufacturing infrastructure. This explains why existing chemical-processing facilities inside Europe have suddenly become highly strategic assets.
Projects capable of leveraging operational industrial infrastructure, established permits, and embedded chemical expertise are likely to advance significantly faster than competitors attempting to build entirely new facilities from scratch.
Industrial Permitting May Become Europe’s Biggest Obstacle
In practice, the largest barrier to Europe’s graphite independence may not be geology or financing alone.
The real challenge could be:
- Industrial permitting timelines
- Chemical-processing infrastructure availability
- Environmental approvals
- Construction speed
- Access to specialized industrial capabilities
As global competition for battery materials intensifies, Europe’s ability to accelerate industrial development could determine whether it successfully builds independent battery supply chains.
Europe’s Critical Minerals Strategy Is Entering a New Phase
The International Graphite–Alkeemia partnership represents more than another battery-material investment announcement. It reflects the emergence of a broader European industrial strategy centered on integrated ecosystems combining:
- Chemical processing
- Mineral refining
- Logistics infrastructure
- Battery manufacturing
- Regionalized supply chains
The next stage of the global energy-transition economy may ultimately be defined less by ownership of raw mineral deposits and more by control over the midstream industrial infrastructure that transforms those materials into battery-ready products. As Europe accelerates its clean-energy transition, graphite processing is rapidly becoming one of the continent’s most important industrial battlegrounds.
