Dedicated to the research and process development of high-performance carbon-based graphite and graphene films, with expertise in conventional PI-based graphite sheets, bendable graphite films, next-generation precursor-derived graphite films, multilayer graphite modification, and graphene-based thermal management materials.

Focused on the formulation and engineering of silicone-based thermal interface materials (TIMs), high-performance electronic adhesives, and integrated thermal management and EMI functional materials.

Core products include thermal gels, thermal greases, thermal pads, potting compounds, addition-cure silicone materials, carbon fiber thermal pads, electronic adhesives, thermally conductive structural adhesives, thermally conductive potting compounds, thermally conductive insulating materials, SLDT materials, and electromagnetic wave-absorbing materials.

Dedicated to the development of air-cooling and liquid-cooling thermal management modules, as well as comprehensive product reliability validation systems.

Core capabilities include welding technology, fluid system process development, prototype fabrication, manufacturing process optimization, and full-process development from prototype to mass production. The laboratory also addresses key industry challenges such as material degradation, leakage, high interfacial thermal resistance, and coolant-induced corrosion.

Serving as the innovation center for next-generation thermal management materials, the laboratory focuses on composite materials such as diamond-based thermal materials.

Research covers material formulation, microstructure design, manufacturing processes, sintering, welding, and surface modification technologies. The laboratory is dedicated to overcoming challenges including poor interfacial bonding, complex manufacturing processes, and high production costs, providing high-performance, lightweight thermal management materials for next-generation applications.

Utilizing advanced thermal analysis instruments including LFA, DSC, TGA, and TMA, we comprehensively characterize the thermal properties of graphite materials, including thermal conductivity, thermal expansion, and high-temperature stability.

For thermal management modules, we evaluate thermal resistance, temperature uniformity, and maximum heat dissipation capacity to meet the requirements of devices with different power levels.

For liquid cooling products, we have established a complete validation system covering incoming material inspection, welding quality assessment, performance evaluation, and reliability verification, ensuring consistent product quality throughout the entire development cycle.

Material composition is analyzed using spectroscopic and chromatographic techniques. Microstructural characteristics and surface morphology are evaluated using SEM, 3D digital microscopes, and surface roughness testers, while FTIR spectroscopy is employed to identify material composition.

omprehensive mechanical and physical testing capabilities support the evaluation of both thermal management materials and liquid cooling products. For graphite materials, testing includes true density, interfacial peel strength, and flexural durability. For liquid cooling components, testing covers hydrostatic pressure resistance, burst pressure, bending resistance, vibration, and mechanical shock, ensuring reliable mechanical performance under demanding operating conditions.

Comprehensive environmental reliability testing is conducted through salt spray, high- and low-temperature exposure, thermal shock, and other accelerated reliability tests to simulate extreme operating environments, including temperature cycling and high-temperature/high-humidity conditions. These evaluations verify long-term product stability, assess module reliability, and ensure consistent product quality throughout the service life.