International Graphite, an Australian company, and Italian chemical producer Alkeemia are advancing plans for a graphite processing hub in northern Italy. The project is linked to Europe’s efforts to secure independent battery-material supply chains. The facility is planned at Alkeemia’s industrial complex in Porto Marghera near Venice.
The new plant is initially designed to produce about 10,000 tonnes of processed graphite annually. Longer-term expansion could raise output to 20,000 tonnes per year by 2030. The partnership is positioned within a broader European push to localize refining and purification capacity closer to gigafactories, electric vehicle production, and clean-energy infrastructure.
Downstream graphite purification targeted for battery-grade use
The project focus is on downstream processing rather than graphite mining. The bottleneck described is the conversion of raw graphite concentrate into ultra-high-purity material. The resulting products are intended for battery anodes, expandable graphite, advanced industrial applications, and energy-storage technologies.
Europe’s supply-chain exposure is linked to the dominance of China in processed graphite. Estimates cited in the source indicate China controls more than 80% of global processed graphite supply. With lithium-ion battery anodes still relying heavily on Chinese-processed graphite, European battery manufacturing expansion across Germany, France, Hungary, Sweden and other industrial centers is described as increasing strategic risk.
Porto Marghera industrial platform includes permits and chemical utilities
The International Graphite–Alkeemia partnership reflects an approach that uses existing industrial and chemical infrastructure to develop battery-material processing capacity. Porto Marghera is presented as a site with established industrial operations rather than a new standalone location. The project benefits from the presence of existing industrial systems and support services.
The site is described as having existing permits, industrial utilities, logistics infrastructure, chemical-processing capabilities, and hydrofluoric acid production capacity. Using the existing platform is described as reducing execution risk, lowering capital intensity, and shortening permitting timelines compared with building a new facility elsewhere in Europe.
Hydrofluoric acid access supports purification operations
A key element of the plan is direct access to hydrofluoric acid, described as a key chemical used in graphite purification. Producing battery-grade graphite is characterized as chemically intensive and technologically complex. The project’s integration of purification into an existing chemical platform is described as improving operational efficiency and overall project economics.
The integrated model is positioned as relevant to efforts to build competitive battery-material supply chains in Europe. It is also framed around the need to match processing ecosystems already established in Asia. The source links this approach to leveraging existing chemical infrastructure for purification activities.
Joint venture structure and timeline for agreements
The proposed ownership arrangement assigns 51% ownership to Alkeemia and 49% to International Graphite under the planned agreement. Profits are reported to be shared equally between the partners. The strategy combines International Graphite’s downstream graphite expertise and feedstock supply capability with Alkeemia’s industrial infrastructure and purification technology.
The plan includes operational management and workforce contributions from Alkeemia alongside its role in purification operations. Binding agreements are expected during 2026, followed by a final investment decision shortly afterward. The source describes the partnership as extending beyond a single investment announcement toward an integrated industrial approach.
Pilot testing reports 99.9%+ purity results in 2026
The project is described as having moved beyond concept stage based on pilot purification testing conducted during 2026. Reported results show graphite purity levels exceeding 99.9% total graphitic carbon. Peak purity outcomes are reported at approximately 99.98%.
The source links these figures to requirements for lithium-ion battery anode qualification. It states that manufacturers require exceptionally high graphite purity before materials can qualify for battery-anode applications. It also notes that purification and processing capture a larger share of value chain returns compared with raw graphite extraction alone.
EU policy emphasis on midstream processing capacity
The source describes graphite economics aligning with patterns seen in rare earth refining, lithium processing, and battery precursor materials. In each case, downstream processing infrastructure is presented as becoming more strategically valuable than upstream mining operations.
This direction is tied to the EU Critical Raw Materials Act (CRMA), which aims to expand Europe’s domestic processing capacity for strategic resources. European industrial policy is described as focusing on refining infrastructure, purification facilities, midstream processing capacity, and battery-material ecosystems rather than relying solely on imported finished battery components.
Diversified feedstock strategy for processed graphite production
A feature of the Italian project highlighted in the source is a flexible feedstock strategy. Instead of relying entirely on one graphite mine, the facility is expected to process material sourced from multiple mining companies and commodity suppliers.
The approach is described as providing greater supply flexibility, reduced mine-specific risk, improved feedstock security, and better resilience during market volatility. The source also states that diversification has become increasingly important as battery demand growth remains unpredictable and investors become more selective toward single-asset mining projects.
Permitting timelines and specialized capabilities cited as key constraints
The source argues that barriers to Europe’s graphite independence may not be limited to geology or financing alone. It identifies potential challenges including industrial permitting timelines and availability of chemical-processing infrastructure. Environmental approvals are also listed alongside construction speed considerations.
Access to specialized industrial capabilities is further identified as part of the constraint set described in the source. As competition for battery materials intensifies globally, the ability to accelerate industrial development is presented as a factor affecting whether independent supply chains can be built.
Integrated ecosystem approach across chemical processing and battery manufacturing
The International Graphite–Alkeemia partnership is presented as reflecting a broader European strategy centered on integrated ecosystems. These ecosystems combine chemical processing, mineral refining, logistics infrastructure, battery manufacturing, and regionalized supply chains.
The source frames the next stage of the energy-transition economy as being defined less by ownership of raw mineral deposits and more by control over midstream industrial infrastructure that transforms materials into battery-ready products. It concludes by linking this shift to increased importance of graphite processing within Europe’s industrial landscape.
