材料科学
热的
保温
辐射冷却
航天器
工作(物理)
热质量
电子设备和系统的热管理
环境科学
极热
辐射传输
多孔性
复合材料
核工程
大气科学
极端环境
红外线的
被动冷却
热障涂层
相对湿度
航空航天工程
极端紫外线
可靠性(半导体)
温度控制
热红外
小气候
材料性能
仰角(弹道)
极寒
多孔介质
辐照度
气象学
作者
Yan He,Zhi Liang,Zitan Yang,Z L Li,Pan Xiong,Chong Hou
摘要
ABSTRACT Effective thermal management is essential for maintaining habitable conditions and system reliability in environments with extreme diurnal temperature variations. However, conventional thermoregulatory materials fail to deliver bidirectional thermal regulation under such conditions. Radiative coolers often cause excessive nocturnal overcooling due to continuous heat loss. Conversely, pure thermal insulators cannot actively dissipate accumulated heat during the day. Prolonged UV exposure further accelerates material degradation, compromising long‐term performance stability. Overcoming these compounding environmental challenges necessitates a unified design strategy. Here, we present UV‐resistant hierarchical structured thermoregulatory (HiST) coatings that synergistically integrate high‐performance radiative cooling and superior thermal insulation within a scalable architecture. The coatings show outstanding thermal‐optical properties: 97.58% solar reflectance with robust UV rejection, 97.34% infrared emissivity, and 35 mW m −1 K −1 thermal conductivity. Field tests in extreme environments reveal ∼19.8°C temperature reduction relative to an uncoated control and ∼4.1°C peak nighttime interior temperature elevation above the ambient, buffering interiors against thermal shocks. This work establishes a robust materials platform for effective thermal management in applications ranging from energy‐efficient buildings to spacecraft and habitats for extreme terrestrial and space environments.
科研通智能强力驱动
Strongly Powered by AbleSci AI