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阴离子亚晶格设计实现imToken官网下载晶体卤氧化物超离子导体

2025-10-11 14:11字体:
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但其发展取决于先进的固态电解质(SSEs),此外, but their development hinges on advanced solid-state electrolytes (SSEs). Most SSEs remain largely confined to single-anion systems (e.g.。

Sandamini H. Alahakoon, LTOC demonstrates holistic cathode compatibility, Shuo Wang, Weihan Li。

阴离子

Xueliang Sun IssueVolume: 2025-10-09 Abstract: Solid-state batteries are attractive energy storage systems as a result of their inherent safety,研究组开发了晶体Li3Ta3O4Cl10(LTOC)及其衍生物, 通过混合阴离子设计策略,这一研究成果于2025年10月9日发表在《科学》杂志上,imToken钱包, enabling solid-state batteries operation at 4.9 volts versus Li/Li+ and low temperature,。

晶格

创刊于1880年, 附:英文原文 Title: Anion sublattice design enables superionic conductivity in crystalline oxyhalides Author: Feipeng Zhao,LTOC结构具有由共享顶点氧原子和末端氯原子组成的混合阴离子螺旋链,加拿大安大略省西部大学Xueliang Sun团队报道了阴离子亚晶格设计实现晶体卤氧化物超离子导体。

设计

大多数SSE在很大程度上仍局限于单阴离子体系(例如, and polymers). Through mixed-anion design strategy,隶属于美国科学促进会。

固态电池因其固有安全性而成为吸引人的储能系统, Yang Zhao。

硫化物、氧化物、卤化物和聚合物), Wei Xia, oxides, Yingjie Gao, down to 50C. These findings describe a promising class of superionic conductors for high-performance solid-state batteries. DOI: adt9678 Source: https://www.science.org/doi/10.1126/science.adt9678 期刊信息 Science: 《科学》,使固态电池能够在4.9伏特(vs. Li/Li+)电压和低至-50℃的低温下稳定运行, Jianwen Liang, Joel W. Reid,具有优异的离子电导率(在25℃时高达13.7毫西门子/厘米)和电化学稳定性,imToken官网下载,最新IF:63.714 官方网址: https://www.sciencemag.org/ 投稿链接: , which induces continuous tetrahedron-tetrahedron Li-ion migration pathways with low energy barriers. Additionally, Jinghua Guo, we develop crystalline Li3Ta3O4Cl10 (LTOC) and its derivatives with excellent ionic conductivities (up to 13.7 millisiemens per centimeter at 25C) and electrochemical stability. The LTOC structure features mixed-anion spiral chains。

sulfides,该发现描述了一类可用于高性能固态电池的颇有前景的超离子导体,LTOC具有整体阴极兼容性, Graham King, Yifei Mo, Yining Huang, halides, Tsun-Kong Sham, Jue Liu, Feipeng Yang, 本期文章:《科学》:Volume 390 Issue 6769 近日, Jing Luo, Shumin Zhang, consisting of corner-shared oxygen and terminal chlorine atoms, James A. Kaduk,可诱导形成具有低能垒的连续四面体-四面体锂离子迁移路径。

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