From continuously trained algorithm models to real-time responsive intelligent decision-making, thermal conductive graphite sheets, with their stable heat dissipation capability, lay a solid "cool" foundation for machine learning devices. They enable more sustained computing power output and more thorough performance, emerging as a key enabler for driving intelligent iteration.

Thermal conductivity graphite sheet related parameters: Thin film polymer compounds can undergo chemical graphitization treatment under high temperature and high pressure, because carbon is a non-metallic element, but it has the electrical and thermal properties of metallic materials. It also has the same plasticity as organic plastics, and has special thermal properties, chemical stability, lubricity, and the ability to coat solid surfaces, as well as some good processability. Therefore, heat dissipating graphite materials has been widely used in many fields such as electronics, communication, lighting, etc. Thermal conductive graphite materials provide a unique combination of high performance and unique solutions for the thermal management industry.

Graphite thermal conductive foil, which has high thermal conductivity and flexibility, effectively adheres to the internal structure of glasses to achieve rapid heat dissipation of chips. Integrating graphite heat dissipation foil layer, utilizing its ultra-high thermal conductivity to dissipate SoC

Graphene thermal pad bases on graphene materials with high-quality properties such as low density, high thermal conductivity, and high compressibility, a graphene thermal pad with anti powder coating is prepared using edge wrapping or adhesive film coating technology. As a thermal interface material, it can effectively replace thermal conductive silicone pads, thermal conductive silicone grease, etc., providing excellent heat dissipation solutions for power semiconductors, consumer electronics, etc.

As global 5G base stations surpass 18 million units, graphite sheets with thickness under 0.1mm are becoming indispensable components, thanks to their exceptional thermal conductivity (1000-2000 W/mK).