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迈向卓越的电容储能:用于致密电极的孔工程最新进展。

Toward Superior Capacitive Energy Storage: Recent Advances in Pore Engineering for Dense Electrodes.

机构信息

Interdisciplinary Materials Research Center, Key Laboratory of Advanced Civil Engineering Materials (Ministry of Education), School of Materials Science and Engineering, Tongji University, Shanghai, 201804, China.

Shanghai Key Laboratory of Special Artificial Microstructure Materials and Technology, School of Physics Science and Engineering, Tongji University, Shanghai, 200333, China.

出版信息

Adv Mater. 2018 Apr;30(17):e1705713. doi: 10.1002/adma.201705713. Epub 2018 Mar 14.

Abstract

With the rapid development of mobile electronics and electric vehicles, future electrochemical capacitors (ECs) need to store as much energy as possible in a rather limited space. As the core component of ECs, dense electrodes that have a high volumetric energy density and superior rate capability are the key to achieving improved energy storage. Here, the significance of and recent progress in the high volumetric performance of dense electrodes are presented. Furthermore, dense yet porous electrodes, as the critical precondition for realizing superior electrochemical capacitive energy, have become a scientific challenge and an attractive research focus. From a pore-engineering perspective, insight into the guidelines of engineering the pore size, connectivity, and wettability is provided to design dense electrodes with different porous architectures toward high-performance capacitive energy storage. The current challenges and future opportunities toward dense electrodes are discussed and include the construction of an orderly porous structure with an appropriate gradient, the coupling of pore sizes with the solvated cations and anions, and the design of coupled pores with diverse electrolyte ions.

摘要

随着移动电子设备和电动汽车的快速发展,未来电化学电容器 (ECs) 需要在相当有限的空间内尽可能多地存储能量。作为 ECs 的核心组件,具有高体积能量密度和卓越倍率性能的致密电极是实现改进储能的关键。本文介绍了致密电极高体积性能的重要性和最新进展。此外,致密而多孔的电极作为实现卓越电化学电容能量的关键前提,已成为科学挑战和极具吸引力的研究焦点。从孔工程的角度来看,深入了解工程化孔径、连通性和润湿性的指导原则,可以设计具有不同多孔结构的致密电极,以实现高性能电容储能。本文还讨论了致密电极目前面临的挑战和未来的机遇,包括构建具有适当梯度的有序多孔结构、将孔径与溶剂化的阴阳离子耦合以及设计具有不同电解质离子的耦合孔。

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