纳米结构的电化学外延

Yuwei Guo , Yang Hu , Jian Shi
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引用次数: 0

摘要

纳米结构材料的外延是开发功能性纳米器件的关键步骤。电化学外延在推进纳米材料部署方面已显示出稳健和低成本。本文简要回顾了过去几十年来通过电化学外延方法合成的一大类纳米结构材料和相。该综述强调了电化学方法在可接近目标材料的相、形态和产率方面优于其他高温、高真空技术。电化学外延在实现某些在真空条件下无法达到的价态方面的非凡能力,可能会为开发过多的亚稳态功能材料带来新的概念。它还概述了可能用于开发新兴材料和阶段的生长模式和机制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Electrochemical epitaxy of nanostructures

Epitaxy of nanostructured materials is a critical step in developing functional nanodevices. Electrochemical epitaxy has been shown robust and low-cost in advancing the deployment of nanomaterials. This paper offers a brief review on a wide category of nanostructured materials and phases synthesized via electrochemical epitaxy approaches over the past several decades. The review highlights the advantages of electrochemical approach over other high-temperature, high-vacuum technologies in terms of accessibility to target materials’ phases, morphologies and yield. Electrochemical epitaxy's extraordinary ability in enabling certain valence states which cannot be reached at vacuum condition could bring new concepts in developing a plethora of metastable functional materials. It also gives an overview on possible growth modes and mechanisms that may be employed in developing emerging materials and phases.

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