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Home > News > Paint & Coating News > Graphjet Achieves Breakthrough in High-Purity Green Graphite from Agricultural Waste

Graphjet Achieves Breakthrough in High-Purity Green Graphite from Agricultural Waste

ECHEMI 2025-08-11

Graphjet Technology, a pioneer in patented processes for directly converting agricultural waste into graphite and graphene, has announced a significant advancement in catalytic graphitization for producing high-quality synthetic graphite through its proprietary green graphite technology.

 

According to Aiden Lee, Graphjet’s CEO and Co-Founder, synthetic green graphite derived from palm biomass residue has achieved a 99.99% purity and 98.8% graphitization rate, as verified by independent third-party testing. Both metrics exceed the standards for premium-grade graphite. “These results confirm the maturity and reliability of our patented process, underscoring our commitment to delivering industry-leading synthetic graphite with trusted, benchmarked performance. This innovation reinforces our position as a global leader in sustainable graphite production,” Lee stated.

 

Graphjet’s green graphite process is the world’s first to produce synthetic graphite directly from palm kernel shells—a widely available byproduct in Malaysia and Indonesia. Pilot-scale operations have demonstrated the ability to consistently reach 99.99% purity, validating the technology’s competitiveness against both mined natural graphite and other synthetic graphite manufacturing methods.

 

The technology’s 98.8% graphitization rate is a key differentiator, as higher graphitization indicates a highly ordered crystal lattice, which enhances both the physical and chemical properties of the graphite. This makes the material exceptionally well-suited for high-performance applications such as lithium-ion battery anodes, thermal management systems, and graphite electrodes.

 

“Our proprietary catalyst formulation enables us to efficiently produce top-grade graphite while maintaining economic viability,” Lee explained. “Controlling parameters such as temperature, pressure, reaction time, and graphitization gases is critical to achieving such high graphitization levels and performance.” Independent laboratory tests conducted in China have validated these results.

 

Synthetic graphite is valued for its high thermal conductivity, stability, and chemical resistance, with growing applications across energy storage, high-performance ceramics, and advanced manufacturing. As technology advances, demand for ultra-high-quality synthetic graphite is expected to accelerate. Graphjet’s production capability positions it to play a pivotal role in supporting next-generation electric vehicle batteries and other emerging markets.

 

Recently, Graphjet commissioned the world’s first and largest green graphite facility in Malaysia, with an annual capacity of 3,000 tonnes of battery-grade graphite—enough to supply an estimated 40,000 electric vehicles per year. Moreover, its process produces only 2.95 kg of CO₂ per kg of graphite, compared to 16.8 kg for natural graphite mining and 17 kg for conventional synthetic graphite manufacturing in China. This makes Graphjet’s technology one of the lowest carbon-footprint graphite production methods globally.

Disclaimer: ECHEMI reserves the right of final explanation and revision for all the information.

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