Passive cooling paint enabled by rational design of thermal-optical and mass transfer properties
Jipeng Fei, Xuan Zhang, Di Han, Lei Yue, Fei Xie, Kai Zhou, See Wee Koh, Junyu Ge 等 23 位
Nanyang Technological University Beijing Institute of Technology King Abdullah University of Science and Technology Changchun Institute of Optics, Fine Mechanics and Physics
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摘要与影响
Integrating radiative and evaporative cooling shows promise for enhancing passive cooling, but durable self-curing integrated cooling paints remain underdeveloped. We designed a modified cementitious structure with advanced thermal-optical and mass transfer properties, boosting cooling power while ensuring durability, mechanical strength, and broad adhesion. The paint achieves 88 to 92% solar reflectance (depending on wetting), 95% atmospheric window emittance, ~30% water retention, and self-replenishing properties, maintaining stable optical performance even when wet. Field tests in tropical Singapore demonstrated superior cooling performance compared with commercial white paints. Pilot-scale demonstrations highlighted consistent electricity savings under varying weather conditions, supported by theoretical modeling. By leveraging sustainable water evaporation and thermal radiation, this paint offers a practical and long-term solution for mitigating the urban heat island effect.
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工程Thermal Radiation and Cooling Technologies
Urban Heat Island Mitigation · Building Energy and Comfort Optimization
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