通过电化学沉积制备宽带高效光吸收 SS-PPy@CNT 膜,用于光热转换

IF 9 1区 工程技术 Q1 ENERGY & FUELS
Mengyan Liu , Benfeng Zhu , Na Chen , Jie Zhu , Caihe Lei , Ruopeng Li , Yumeng Yang , Jiao Liu , Zhao Zhang , Peixia Yang , Oleg Levin , Elena Alekseeva , Bo Fang , Guoying Wei , Jingjing Yang
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引用次数: 0

摘要

太阳能是一种具有环保意识的替代能源,为了吸收太阳能并将其转化为热能,光吸收材料需要具有宽光谱的光吸收能力。在此,我们介绍了通过简便的电化学沉积路线制备宽光谱光吸收聚吡咯-羧基碳纳米管膜的方法。通过操纵电化学沉积时间,对膜的结构进行了定制,从而增强了吸收能力,在整个太阳光谱范围内的吸收率超过 98.95%。在光热转换过程中,薄膜表现出了出色的热效率和对入射角度的不敏感性,与环境条件相比,薄膜使模拟温室内的温度明显升高了 12 °C。因此,这些膜在光热转换和温室技术的广泛应用方面具有相当大的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Broadband efficient light-absorbing SS-PPy@CNT membranes prepared by electrochemical deposition for photothermal conversion
Solar energy is an eco-conscious substitute, for solar energy absorption and subsequent light-to-heat conversion, light-absorbing materials require broad-spectrum light absorption capabilities. Herein, we present the fabrication of broadband light-absorbing polypyrrole-carboxylated carbon nanotube membranes via a facile electrochemical deposition route. By manipulating electrochemical deposition time, the structure of the membranes was tailored, resulting in enhanced absorption, achieving over 98.95 % across the entire solar spectrum. The membranes demonstrated exemplary thermal efficacy and insensitivity to incident angles in photothermal conversion, the membranes facilitated a notable 12 °C temperature elevation within a simulated greenhouse compared to ambient conditions. Thus, these membranes exhibit considerable potential for widespread application in photothermal conversion and greenhouse technology.
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来源期刊
Renewable Energy
Renewable Energy 工程技术-能源与燃料
CiteScore
18.40
自引率
9.20%
发文量
1955
审稿时长
6.6 months
期刊介绍: Renewable Energy journal is dedicated to advancing knowledge and disseminating insights on various topics and technologies within renewable energy systems and components. Our mission is to support researchers, engineers, economists, manufacturers, NGOs, associations, and societies in staying updated on new developments in their respective fields and applying alternative energy solutions to current practices. As an international, multidisciplinary journal in renewable energy engineering and research, we strive to be a premier peer-reviewed platform and a trusted source of original research and reviews in the field of renewable energy. Join us in our endeavor to drive innovation and progress in sustainable energy solutions.
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