Previous studies have reported that boron arsenide (BAs) single crystals exhibit a thermal conductivity of 1500 W/m·K at room temperature.

It has been learned that recently, Boway Alloy, a leading domestic high-performance copper alloy materials company, disclosed on an investor interaction platform that its two new materials had achieved key progress in downstream certification and market development. Specifically, the special-shaped thermal material for the GB300 chip liquid cooling plate has passed the production line verification of two leading liquid cooling plate manufacturers, while the copper-aluminum composite material for low-voltage current carrying, developed jointly with TE Connectivity (TE), has also completed product certification and verification by several leading vehicle manufacturers. This dual breakthrough lays a solid foundation for the company to enter high-growth tracks.

Recently, Professor Ying Huang and Associate Researcher Meng Zong from the School of Chemistry and Chemical Engineering have made new progress in the field of flexible ultra-broadband absorbing materials. The team proposed a novel method for preparing flexible and repairable ultra-broadband electromagnetic wave (EMW) absorbing materials via a liquid-liquid phase separation (LLPS) strategy. This research provides a universal solution for the design of next-generation flexible electromagnetic materials and holds broad application prospects in fields such as wearable electronics and military stealth. The research findings has been published online in the international journal Advanced Materials (2025, 10139) under the title "A Flexible and Repairable Ultra-Broadband Electromagnetic Wave Absorber by Liquid-Liquid Phase Separation Strategy."