Biobased Boston Ivy‐Inspired Cryogel Integrating Radiative Cooling and Phase Change Energy Storage for Adaptive Thermal Regulation
Sining Huang, Zhiguo Li, Yang Liu, Chengyu Wang, Yi Chen Lu, Erlantz Lizundia, Siqi Huan
Northeast Forestry University Chinese Academy of Sciences Institute of Process Engineering University of the Basque Country
阅读操作
确认中在文库中上传 PDF 后可生成中文音频讲解。
摘要与影响
Boston ivy is a traditional plant for building heat management through shading and transpiration. Inspired by its “vine‐leaf” system, we design a bionic cryogel that functionalizes daytime cooling and nighttime thermal buffering, promoting sustainable and comfortable housing and living environments. The aligned channels mimic vine tendrils, delivering an ultralow radial thermal conductivity (0.035 W m −1 ·K −1 ), high solar reflectance (95.28%), and high infrared emissivity (97.04%). Embedded phase‐change materials (PCMs) present leaf‐like, functionalized structures that store excess solar energy during the daytime and release latent heat at night, achieving 6.2°C sub‐ambient cooling under sunlight. In darkness, the stored latent heat is released, keeping the cryogel 2.4°C above ambient and preventing nocturnal overcooling. This spatiotemporal synergy between daytime radiative cooling and nighttime heat release enables climate‐adaptive thermal management, reducing the urban heat buildup with no need for electricity consumption. Our bionic design shifts thermal regulation from passive adaptation to active thermal planning using low carbon footprint materials as proven by life cycle assessment (LCA), offering a more sustainable pathway for energy‐efficient buildings.
逐年被引趋势
暂无年度引用数据
关键指标
同类平均 = 1
同领域 · 同年份 · 同类型
Google Scholar 与 OpenAlex 的被引统计范围不同,数值存在差异属正常。
AI 辅助阅读
依据:摘要
可就本文提问;依据不足时会说明。
学术脉络
学科主题
工程Thermal Radiation and Cooling Technologies
Phase Change Materials Research · Advanced Materials and Mechanics