与内在复杂性协同推进富锂氧化物性能:工程领域结构

IF 7 2区 材料科学 Q2 CHEMISTRY, PHYSICAL
Juan C. Garcia, Hakim Iddir, Arturo Gutierrez, Subhadip Mallick, Yulin Lin, Jianguo Wen, Fulya Dogan, Hari Adhikari and Jason R. Croy*, 
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引用次数: 0

摘要

富锂和富锰复合正极材料的纳米畴结构通过合成条件被系统地改变,同时将更大规模的形态差异保持在最小。在所研究的样品中观察到电化学性能的明显变化,特别是在低电荷状态下的异常阻抗。原子尺度的建模,结合电化学测量和物理表征,揭示了高压活化电荷过程作为特定域结构函数的局部后果。此外,结果还解释了不同的活化结构对锂离子插入和放电过程中相关阻抗的影响。这项工作增加了我们对富含锂和锰的氧化物的一系列研究,表明通过合理的、高度控制的合成策略,基于对跨长度尺度的合成-结构-性质关系的理解,可以大大增强LMRs的固有性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Advancing the Performance of Lithium-Rich Oxides in Cooperation with Inherent Complexities: Engineering Domain Structure

Advancing the Performance of Lithium-Rich Oxides in Cooperation with Inherent Complexities: Engineering Domain Structure

The nanodomain structure of lithium- and manganese-rich, composite cathode materials has been systematically altered through synthesis conditions while keeping larger-scale morphological differences to a minimum. Clear changes in electrochemical performance across the samples studied are observed, especially with respect to the anomalous impedance at low states-of-charge. Atomic-scale modeling, coupled to electrochemical measurements and physical characterization, reveals the local consequences of the high-voltage activation charge process as a function of specific domain structures. Furthermore, the results explain the influence of different postactivation structures on the insertion of Li-ions and the associated impedance during discharge. This work adds to our series of studies on lithium- and manganese-rich oxides, demonstrating that the inherent performance of LMRs can be greatly enhanced through rational, highly controlled synthetic strategies based on an understanding of synthesis–structure–property relationships across length scales.

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来源期刊
Chemistry of Materials
Chemistry of Materials 工程技术-材料科学:综合
CiteScore
14.10
自引率
5.80%
发文量
929
审稿时长
1.5 months
期刊介绍: The journal Chemistry of Materials focuses on publishing original research at the intersection of materials science and chemistry. The studies published in the journal involve chemistry as a prominent component and explore topics such as the design, synthesis, characterization, processing, understanding, and application of functional or potentially functional materials. The journal covers various areas of interest, including inorganic and organic solid-state chemistry, nanomaterials, biomaterials, thin films and polymers, and composite/hybrid materials. The journal particularly seeks papers that highlight the creation or development of innovative materials with novel optical, electrical, magnetic, catalytic, or mechanical properties. It is essential that manuscripts on these topics have a primary focus on the chemistry of materials and represent a significant advancement compared to prior research. Before external reviews are sought, submitted manuscripts undergo a review process by a minimum of two editors to ensure their appropriateness for the journal and the presence of sufficient evidence of a significant advance that will be of broad interest to the materials chemistry community.
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