Influence of Interfacial Energy on Li Nucleation Behaviors during Electrodeposition Process

IF 3.6 4区 工程技术 Q3 ENERGY & FUELS Energy technology Pub Date : 2024-04-30 DOI:10.1002/ente.202400374
Liguang Qin, Bo Zhang, Haitao Yang, Jingyi Chen, Yalin Sun, Shangqi Sun, Chang Guo
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Abstract

It is generally believed that the introduction of the 3D structure in Cu current collector (CuCC) is beneficial for the uniform deposition of Li due to the reduced local current density and mitigatory reaction rate. However, the influence of the microstructure change in CuCC on the nucleation behaviors of Li through mechanical treatment has been ignored. Hence, microindent is used to prepare 3D structure on the surface of CuCC, the structure evolution during microindentation as well as its impact on Li nucleation behaviors are investigated. It is found that the increased specific surface area results in decreased current density and reduced nucleation driving force. The crystal misorientation beneath the indent leads to the increased surface energy and inhomogeneous nucleation of Li. Thus, the indented CuCC (Ind CuCC) exhibits higher nucleation overpotential and slower electron transfer rate. This manuscript provides a new perspective to the study of the impact of the microstructure of current collector on the nucleation behaviors of Li.

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电沉积过程中界面能对锂成核行为的影响
一般认为,在铜集流器(CuCC)中引入三维结构有利于锂的均匀沉积,因为这样可以降低局部电流密度和减缓反应速率。然而,CuCC 中微观结构的变化对通过机械处理的锂成核行为的影响一直被忽视。因此,采用微压痕在 CuCC 表面制备三维结构,研究微压痕过程中的结构演变及其对锂成核行为的影响。研究发现,比表面积的增加会导致电流密度降低和成核驱动力减弱。压痕下的晶体错向导致表面能增加和锂的不均匀成核。因此,压痕 CuCC(Ind CuCC)表现出更高的成核过电位和更慢的电子转移率。该手稿为研究集流体的微观结构对锂成核行为的影响提供了一个新的视角。
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来源期刊
Energy technology
Energy technology ENERGY & FUELS-
CiteScore
7.00
自引率
5.30%
发文量
0
审稿时长
1.3 months
期刊介绍: Energy Technology provides a forum for researchers and engineers from all relevant disciplines concerned with the generation, conversion, storage, and distribution of energy. This new journal shall publish articles covering all technical aspects of energy process engineering from different perspectives, e.g., new concepts of energy generation and conversion; design, operation, control, and optimization of processes for energy generation (e.g., carbon capture) and conversion of energy carriers; improvement of existing processes; combination of single components to systems for energy generation; design of systems for energy storage; production processes of fuels, e.g., hydrogen, electricity, petroleum, biobased fuels; concepts and design of devices for energy distribution.
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