桥接(联网)
辐射冷却
电子设备和系统的热管理
透视图(图形)
热的
高效能源利用
机械工程
系统工程
辐射冷却
计算机科学
工作(物理)
领域(数学)
航空航天工程
水冷
辐射热
辐射传输
光子学
工程物理
可持续能源
工程类
材料科学
纳米技术
范式转换
系统设计
作者
Zhuojing Zhao,Zhenyu Guo,Y. Huang,Siming Zhao,Yonglu Zang,Fan Lan,Ren Liu,Linan Feng,Shuang Tao,Q. Cai,Mengxin Lei,Rufan Zhang
出处
期刊:Coatings
[Multidisciplinary Digital Publishing Institute]
日期:2025-12-26
卷期号:16 (1): 27-27
标识
DOI:10.3390/coatings16010027
摘要
The escalating global heatwave crisis demands urgent advancements in high-efficiency, energy-saving cooling technologies. Radiative cooling (RC) paints, capable of passively dissipating heat through the atmospheric transparent window (ATW, 8–13 μm) without external energy input, have emerged as a groundbreaking solution for sustainable thermal management. This perspective advocates for a paradigm shift in the field from solely focusing on optical performance optimization to comprehensive system design that simultaneously achieves high cooling power, industrial-scale manufacturability, long-term environmental durability, and customizable aesthetics. We systematically analyzed the fundamental design principles of RC paints, reviewed the construction strategy of the state-of-the-art RC paints, advanced multi-band spectral engineering, synergistic integration with complementary cooling technologies, and robust structural configurations for large-scale deployment. Addressing critical challenges for commercialization, we also proposed targeted solutions, including enhanced application-specific durability, cost-effective production scaling, and multifunctional system integration. This work provides a strategic roadmap to accelerate the transition of RC paints from laboratory prototypes to ubiquitous real-world applications, ultimately contributing to a sustainable future with improved thermal comfort.
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