基于蝶翅三级微纳米结构的定制光子工程辐射制冷纺织品

郭竑宇, 牛田野, 俞建勇, 王学利, 斯阳

工程（英文） ›› 2023, Vol. 31 ›› Issue (12) : 120-126.

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工程（英文） ›› 2023, Vol. 31 ›› Issue (12) : 120-126. DOI: 10.1016/j.eng.2023.07.019
研究论文
Article

基于蝶翅三级微纳米结构的定制光子工程辐射制冷纺织品

作者信息 +

Tailoring Photonic-Engineered Textiles with Butterfly-Mimetic Tertiary Micro/Nano Architectures for Superior Passive Radiative Cooling

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摘要

通过将被动辐射制冷策略与个人热管理技术相结合，为缓解人体在户外活动中的热不适感提供了新的思路。然而，目前大多数被动辐射制冷材料在穿着舒适性和耐用性方面存在不足。本文采用微阵列技术，成功制备出了具有辐射制冷能力的定制光子工程可穿戴纺织品。所开发的辐射制冷纺织品（RCTs）具有一定的透气透湿性、结构稳定性和扩展光谱响应性（太阳光反射率91.7%、大气窗口发射率95.8%）。在正午炎热环境的室外降温测试中，RCTs所覆盖的皮肤模拟器温度比棉织物低4.4 ℃。这种仿生结构的开发为可穿戴、热湿舒适和结构稳定的辐射制冷纺织品在个人热管理领域的应用提供了新的见解。

Abstract

People could potentially mitigate heat discomfort when outdoors by combining passive radiative cooling (PRC) strategies with personal thermal management techniques. However, most current PRC materials lack wearing comfort and durability. In this study, a microarray technique is applied to fabricate the tailoring photonic-engineered textiles with intriguing PRC capability and appealing wearability. The developed radiative cooling textiles (RCTs) demonstrate appropriate air-moisture permeability, structural stability, and extended spectroscopic response with high sunlight reflectivity (91.7%) and robust heat emissivity (95.8%) through the atmospheric transparent spectral window (ATSW). In a hot outdoor cooling test, a skin simulator covered by the RCTs displays a temperature drop of approximately 4.4 °C at noon compared with cotton textiles. The evolution of our mimetic structures may provide new insights into the generation of wearable, thermal-wet comfortable, and robust textiles for exploring PRC techniques in personal thermal management applications.

关键词

仿生材料 / 个人热管理 / 纺织品 / 辐射制冷

Keywords

Biomimetic materials / Personal thermal management / Textiles / Passive radiative cooling

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郭竑宇, 牛田野, 俞建勇. 基于蝶翅三级微纳米结构的定制光子工程辐射制冷纺织品. Engineering. 2023, 31(12): 120-126 https://doi.org/10.1016/j.eng.2023.07.019

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