Use electrochemistry to charge the next dynamic thermal metamaterials

Next Energy Pub Date : 2024-04-01 Epub Date: 2024-01-30 DOI:10.1016/j.nxener.2024.100108
Qizhang Li , Ting-Hsuan Chen , Po-Chun Hsu
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Abstract

Electrochemistry has enabled a wide range of important energy technologies such as fuel cells and batteries, emerging as a powerful tool to achieve active materials and devices with novel applications. In this Perspective, we highlight the great potential of electrochemistry in propelling the next generation of dynamic thermal metamaterials with a focus on thermal radiation applications. After a brief introduction of the mechanisms of electrochemistry to change material properties, we discuss the possibilities of achieving highly tunable thermal radiation features by electrochemically manipulating the carrier densities of plasmonic materials. Recent studies in the intersections between electrochemistry, metamaterials, and thermal radiation applications are reviewed, indicating an emerging research direction incorporating these three fields — electrochemically dynamic thermal metamaterials. Towards this direction, we anticipate a promising pathway of employing conducting polymers and point out its remarkable opportunities and potential challenges. We hope this perspective could encourage more researchers to contribute to the development of this interdisciplinary field targeting the next energy technologies and applications.

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利用电化学为下一代动态热超材料充电
电化学促成了燃料电池和电池等一系列重要能源技术的发展,成为实现新型活性材料和器件应用的有力工具。在本《视角》中,我们将着重介绍电化学在推动下一代动态热超材料方面的巨大潜力,重点是热辐射应用。在简要介绍了电化学改变材料特性的机制之后,我们讨论了通过电化学操纵等离子材料的载流子密度来实现高度可调热辐射特性的可能性。我们回顾了最近在电化学、超材料和热辐射应用之间的交叉研究,指出了结合这三个领域的新兴研究方向--电化学动态热超材料。在这一方向上,我们预计采用导电聚合物的途径大有可为,并指出了其显著的机遇和潜在的挑战。我们希望这一观点能鼓励更多的研究人员为这一跨学科领域的发展做出贡献,并以下一代能源技术和应用为目标。
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