用于增强电化学过程的非晶/结晶异质界面的构建

IF 42.9 Q1 ELECTROCHEMISTRY
Binbin Jia , Baohong Zhang , Zhi Cai , Xiuyi Yang, Lidong Li, Lin Guo
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引用次数: 6

摘要

非晶态纳米材料由于其惊人的物理化学性质,已成为储能和转化的潜在候选者。最近的研究证明,操纵非晶态纳米材料可以进一步提高电化学性能。到目前为止,已经提出了各种可行的策略,其中非晶/结晶(a-c)异质界面工程被认为是突破电极材料固有活性限制的有效方法。以下综述讨论了用于增强电化学过程的a-c异质界面的最新研究进展。首先概述了合成a-c异质结的一般策略。随后,我们重点介绍了a-c异质界面在电化学领域的各种先进应用,包括超级电容器、电池和电催化剂。我们还阐明了晶相和非晶相在电化学过程中的协同机制。最后,我们总结了挑战,提出了我们的个人观点,并对a-c纳米材料的进一步发展提供了一个批判性的视角。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Construction of amorphous/crystalline heterointerfaces for enhanced electrochemical processes

Construction of amorphous/crystalline heterointerfaces for enhanced electrochemical processes

Amorphous nanomaterials have emerged as potential candidates for energy storage and conversion owing to their amazing physicochemical properties. Recent studies have proved that the manipulation of amorphous nanomaterials can further enhance electrochemical performance. To date, various feasible strategies have been proposed, of which amorphous/crystalline (a-c) heterointerface engineering is deemed an effective approach to break through the inherent activity limitations of electrode materials. The following review discusses recent research progress on a-c heterointerfaces for enhanced electrochemical processes. The general strategies for synthesizing a-c heterojunctions are first summarized. Subsequently, we highlight various advanced applications of a-c heterointerfaces in the field of electrochemistry, including for supercapacitors, batteries, and electrocatalysts. We also elucidate the synergistic mechanism of the crystalline phase and amorphous phase for electrochemical processes. Lastly, we summarize the challenges, present our personal opinions, and offer a critical perspective on the further development of a-c nanomaterials.

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CiteScore
33.70
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