CO2-Derived Graphite Meets Lithium-Ion Battery Standards

On December 17, UP Catalyst confirmed that its CO2-derived graphite for lithium-ion batteries has achieved battery-grade performance, marking a significant advancement in sustainable battery materials. The material demonstrates technical characteristics that align with stringent industry benchmarks required for next-generation energy storage applications.
Battery-Grade Performance Achieved

• The CO2-derived graphite reached a purity level of 99.95 percent, placing it firmly within the specifications demanded for lithium-ion battery anode materials.

Alongside high purity, the graphite delivered a discharge capacity of 361 mAh per gram and achieved 90 percent first-cycle coulombic efficiency, both critical indicators of electrochemical stability and performance.
Implications for Electric Vehicles and Electronics
These performance metrics indicate that CO2-derived graphite for lithium-ion batteries is suitable not only for electric vehicle battery systems but also for consumer electronics such as smartphones and portable devices. Meeting these benchmarks ensures reliable energy density, charging behavior, and cycle life across diverse applications.
Cost-Competitive and Scalable Production
Beyond performance, UP Catalyst demonstrated that its CO2-derived graphite can be manufactured at a cost level comparable to conventional fossil-based graphite. This cost parity strengthens the commercial viability of carbon-derived battery materials and supports broader adoption within the lithium-ion battery supply chain.
By converting captured carbon dioxide into high-purity graphite, UP Catalyst positions CO2-derived graphite for lithium-ion batteries as a viable solution that aligns performance, sustainability, and economic feasibility within the evolving battery materials landscape.