材料科学
蒸发
太阳能
吸收(声学)
化学工程
水蒸气
吸收率
光电子学
光学
气象学
复合材料
生态学
生物
反射率
物理
工程类
作者
Pengfei Wang,Xiaoyang Wang,Siyi Chen,Jiahong Zhang,Xiaojiang Mu,Yulian Chen,Zhiqiang Sun,Anyun Wei,Yongzhi Tian,Jianhua Zhou,Xiaoxin Liang,Lei Miao,Nagahiro Saito
标识
DOI:10.1021/acsami.1c05228
摘要
The emergent solar-driven water evaporation technology provides a reassuring scheme for red mud (RM) utilization in environment and materials science. With fewer restrictions on raw materials, wide availability of sheer quantity, and high complexity in chemical composition, the RM may be a promising candidate for solar absorbers. Here, we developed a novel solar absorber with reduced RM. It features favorable light absorption and photothermal conversion ability using biomass pyrolysis. When added to the polyvinyl alcohol and chitosan gel substrate, the light absorptance can reach 94.65%, while the corresponding evaporation rate is as high as 2.185 kg m–2 h–1 under an illumination density of 1 kW m–2. We further demonstrated its potential as an efficient solar absorber in the solar-driven water evaporation and the thermoelectric device to realize the stable and efficient coproduction of vapor and electricity.
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