氮和硫共同掺杂的 MXene@FeCoNiP 作为增强型锂硫电池的高效催化剂

IF 6.7 2区 化学 Q1 CHEMISTRY, MULTIDISCIPLINARY Materials Today Chemistry Pub Date : 2024-09-04 DOI:10.1016/j.mtchem.2024.102289
Meng Du, Jiakang Shi, Pengbiao Geng, Wenfeng Zhou, Xiaoxing Zhang, Songtao Zhang, Huan Pang
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引用次数: 0

摘要

锂硫(Li-S)电池因其理论能量和功率密度高而被视为最有前途的储能系统之一。然而,锂多硫化物(LiPS)的严重穿梭效应和硫反应动力学的迟缓限制了它的发展。本文采用热迁移路线设计了氮/硫共掺杂 MXene@FeCoNiP(N,S-MXene@FeCoNiP)复合材料,作为锂-S 电池的催化剂。所制备的 N,S-MXene@FeCoNiP具有三维框架,可在电池循环过程中促进电子/离子的快速转移。氮/硫的共掺杂不仅能提高电子传导性,还能提供更多的催化位点。此外,高极性 MXene 和 FeCoNiP 以及氮/硫共掺的协同作用可以阻碍多硫化物的穿梭,促进锂离子电池的转化。得益于这些优势,N,S-MXene@FeCoNiP-S 阴极显示出高比容量、显著的速率能力和良好的循环稳定性。这项工作有望为先进锂-S 电池催化剂的合理设计提供启发。
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Nitrogen and sulfur co-doped MXene@FeCoNiP as an efficient catalyst for enhanced lithium-sulfur batteries
Lithium-sulfur (Li–S) batteries have been regarded as be one of the most promising energy storage systems on account of its high theoretical energy and power density. Nevertheless, it is limited by the severe shuttle effect of lithium polysulfides (LiPS) and retarded sulfur reaction kinetics. Herein, a thermal migration route was used to design nitrogen/sulfur co-doped MXene@FeCoNiP (N,S-MXene@FeCoNiP) composites as a promising catalyst for Li–S batteries. The prepared N,S-MXene@FeCoNiP possessing three-dimensional framework can promote rapid electron/ion transfer during battery cycling. The nitrogen/sulfur co-doping could not only improve electronic conductivity, but also provide more catalytic sites. Moreover, the synergy of highly polar MXene and FeCoNiP as well as N/S co-doping can hinder the shuttling of polysulfides and facilitate the LiPS conversion. Benefiting from these advantages, N,S-MXene@FeCoNiP–S cathode showed high specific capacity, remarkable rate capability and good cycling stability. This work is expected to provide inspiration for the reasonable design of catalysts toward advanced Li–S batteries.
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来源期刊
CiteScore
8.90
自引率
6.80%
发文量
596
审稿时长
33 days
期刊介绍: Materials Today Chemistry is a multi-disciplinary journal dedicated to all facets of materials chemistry. This field represents one of the fastest-growing areas of science, involving the application of chemistry-based techniques to the study of materials. It encompasses materials synthesis and behavior, as well as the intricate relationships between material structure and properties at the atomic and molecular scale. Materials Today Chemistry serves as a high-impact platform for discussing research that propels the field forward through groundbreaking discoveries and innovative techniques.
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