If you are a cell producer dealing with high raw material costs and supply chain risks — this project developed anode materials with capacity > 350 mAh/g that reduce dependence on foreign graphite suppliers.
Sustainable Low-Cost Synthetic Graphite Production for High-Performance Battery Anodes
Imagine making battery parts from trash and old batteries instead of expensive oil. This project finds a way to bake these materials at much lower temperatures, like using a home oven instead of a blast furnace. The result is a better battery heart that stores more energy and costs less to make.
What needed solving
EU battery manufacturers rely heavily on foreign graphite suppliers and expensive, energy-intensive petroleum-based production methods.
What was built
A production chain for synthetic graphite using bio-waste and recycled materials, featuring low-temperature processing and high-capacity anode coatings.
Who needs this
Who can put this to work
If you are a recycler dealing with low-value waste streams — this project developed processes to recover graphite with >90% purity from end-of-life batteries and >98% purity from production scrap.
If you are a manufacturer dealing with extreme energy bills for graphitization — this project developed low-temperature techniques (<1000°C) that offer a >30% potential reduction in energy consumption.
Quick answers
How does this impact production costs?
The project targets a >30% potential reduction in production costs through the use of low-temperature graphitization techniques.
Is this technology ready for industrial scale?
Yes, the project demonstrates technologies at TRL6/7 in industrially relevant environments, including 1Ah prototype pouch cells.
Who owns the IP and how is it licensed?
Based on available project data, the technologies will be directly exploited by top-level industrial partners within the consortium who have established commercial channels.
What is the timeline for deployment?
The project runs from May 2023 to August 2027, with TRL7 validation expected by the end of the period.
How does it integrate into existing battery lines?
The project focuses on producing battery-grade synthetic graphite and formulated anodes that fit into standard pouch cell prototypes.
Who built it
The consortium is heavily industry-driven, with 11 industrial partners representing 73% of the group, including 4 SMEs. This strong commercial presence, combined with 4 research organizations across 9 European countries, indicates a high likelihood of direct market adoption and a focus on practical scalability rather than pure academic research.
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