Wang Xinyue, Ding Yi, Yu Xinxin, Dai Peng, Bai Zhiman, Wu Mingzai, Jiang Tongtong
School of Materials Science and Engineering, Key Laboratory of Structure and Functional Regulation of Hybrid Materials, Ministry of Education, Institute of Energy, Anhui University, Hefei, 230601, P. R. China.
School of Materials and Chemical Engineering, Anhui Jianzhu University, Hefei, Anhui, 230601, China.
Small. 2024 Sep;20(36):e2402310. doi: 10.1002/smll.202402310. Epub 2024 May 10.
Solar energy, as a renewable energy source, dominates the vast majority of human energy, which can be harvested and converted by photovoltaic solar cells. However, the intermittent availability of solar energy restricts the actual utilization circumstances of solar cells. Integrating photo-responsive electrodes into an energy storage device emerges as a dependable and executable strategy, fostering the creation of photo-stimulated batteries that seamlessly amalgamate the process of solar energy collection, conversion, and storage in one system. Endowed by virtues such as cost-effectiveness, facile manufacturing, safety, and environmental friendliness, photo-stimulated Zn-based batteries have attracted considerable attention. The progress report furnishes a brief overview, summarizing various photo-stimulated Zn-based batteries. Their configurations, operational principles, advancements, and the intricate engineering of photoelectrode designs are introduced, respectively. Through rigorous architectural design, photo-stimulated Zn-based batteries exhibit the ability to initiate charging by saving electricity usage, and in certain instances, even without the need for external electrical grids under illumination. Furthermore, the compensation of solar energy can be explored to improve the output electric energy. At last, opportunities and challenges toward photo-stimulated Zn-based batteries in the process of development are proposed and discussed in the hope of expanding their application scenarios and accelerating the commercialization progress.
太阳能作为一种可再生能源,在绝大多数人类能源中占据主导地位,它可以通过光伏太阳能电池进行收集和转换。然而,太阳能的间歇性供应限制了太阳能电池的实际使用情况。将光响应电极集成到储能装置中成为一种可靠且可行的策略,推动了光激发电池的产生,这种电池能在一个系统中无缝融合太阳能收集、转换和存储的过程。光激发锌基电池因其具有成本效益、易于制造、安全和环保等优点而备受关注。本进展报告提供了简要概述,总结了各种光激发锌基电池。分别介绍了它们的结构、工作原理、进展以及光电极设计的复杂工程。通过严谨的结构设计,光激发锌基电池具备通过节省电力消耗来启动充电的能力,在某些情况下,甚至在光照下无需外部电网。此外,可以探索太阳能的补偿以提高输出电能。最后,提出并讨论了光激发锌基电池在开发过程中面临的机遇和挑战,以期扩大其应用场景并加速商业化进程。