Superlyophilic Interfaces Assisted Thermal Management

doi:10.1007/s40242-022-2063-4

Abstract

Abstract: Thermal management has become a critical issue owing to the increasing need for various devices including heat dissipation and adsorption. Recently, the rapid growth of scientific reports is seen to improve thermal management efficiency by developing materials with high transfer coefficient and surface improvement to enhance heat transfer rate. Inspired by nature, constructing superlyophilic interfaces has been proved to be an effective way for thermal management and applied in industry and daily life. Herein, state-of-the-art developments of superlyophilic interfaces assisted thermal management are reported mainly from four perspectives around boiling, evaporation, radiation, and condensation. In particular, we discussed the unique role of superlyophilic interfaces during the heat transfer process, such as increasing bubble detachment rate, superspreading assisted efficient evaporation, directional liquid transfer in textiles during radiative cooling, and so forth. Finally, challenges of thermal management assisted by superlyophilic interfaces toward future applications are presented.

Key words: Superhydrophilic, Boiling heat transfer, Evaporation, Radiative cooling, Condensation

LUO Xianfeng, ZHU Zhongpeng, YOU Jun, TIAN Ye, and JIANG Lei. Superlyophilic Interfaces Assisted Thermal Management[J]. Chemical Research in Chinese Universities, 2022, 38(3): 643-652.

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