辐射冷却
蒸发冷却器
环境科学
辐射传输
热的
能源消耗
辐射能
热辐射
能量(信号处理)
被动冷却
高效能源利用
辐射冷却
辐射
热能
核工程
节能
水冷
大气科学
功率(物理)
冷却能力
宽带
能源预算
太阳能
主动冷却
红外窗口
气象学
材料科学
作者
Zhengui Zhou,Ablimit Aili,Shancheng Wang,Rong Liu,Shaowen Cao,Gang Tan,Yi Long
出处
期刊:Science Advances
[American Association for the Advancement of Science]
日期:2026-07-03
卷期号:12 (27): eaed6069-eaed6069
被引量:1
标识
DOI:10.1126/sciadv.aed6069
摘要
Electricity-free radiative cooling (RC) techniques are gaining ever-increasing attention to decrease energy consumption and carbon dioxide (CO 2 ) emissions. However, the cooling power of RC in summer is severely limited by atmospheric window constraints and its negative effect in winter offsets annual energy savings in four-season regions. This study introduces a dynamic evaporative and radiative cooling (DERC) device to maximize the cooling power in hot summer and achieve year-round dynamic thermal management. Adaptive to changes in environmental temperature, the DERC device demonstrates dynamic regulation of water evaporation, along with notable modulation of solar and thermal radiation (Δ A sol = 87%; Δε Broadband = 63%). Theoretical and real-time experiments demonstrate that the DERC device is more energy-efficient than cutting-edge dynamic radiative cooling (DRC) techniques. The energy-saving simulations indicate that the DERC device yields over 40% primary energy savings and CO 2 emission reduction compared to the DRC device. This DERC device represents a conceptual advancement, paving the way for global energy savings and emission reductions.
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