辐射冷却
形态学(生物学)
环境科学
可扩展性
城市形态
白天
地理
计算机科学
生态学
生物
气象学
地质学
古生物学
物理
大气科学
数据库
城市规划
作者
Shaoning Zeng,Sijie Pian,Minyu Su,Zhuning Wang,Maoqi Wu,Xinhang Liu,Mingyue Chen,Yuanzhuo Xiang,Jiawei Wu,Manni Zhang,Qingqing Cen,Yuwei Tang,Xianheng Zhou,Zhiheng Huang,Rui Wang,Alitenai Tunuhe,Xiyu Sun,Zhigang Xia,Mingwei Tian,Min Chen
出处
期刊:Science
[American Association for the Advancement of Science]
日期:2021-07-09
卷期号:373 (6555): 692-696
被引量:717
标识
DOI:10.1126/science.abi5484
摘要
Incorporating passive radiative cooling structures into personal thermal management technologies could effectively defend humans against intensifying global climate change. We show that large-scale woven metafabrics can provide high emissivity (94.5%) in the atmospheric window and high reflectivity (92.4%) in the solar spectrum because of the hierarchical-morphology design of the randomly dispersed scatterers throughout the metafabric. Through scalable industrial textile manufacturing routes, our metafabrics exhibit desirable mechanical strength, waterproofness, and breathability for commercial clothing while maintaining efficient radiative cooling ability. Practical application tests demonstrated that a human body covered by our metafabric could be cooled ~4.8°C lower than one covered by commercial cotton fabric. The cost-effectiveness and high performance of our metafabrics present substantial advantages for intelligent garments, smart textiles, and passive radiative cooling applications.
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