自旋电子学
材料科学
手性(物理)
电化学
选择性
自旋极化
自旋(空气动力学)
单层
量子隧道
化学物理
分子
纳米技术
催化作用
凝聚态物理
化学
光电子学
电极
铁磁性
物理
物理化学
手征异常
有机化学
电子
量子力学
费米子
Nambu–Jona Lasinio模型
热力学
作者
Zhiyun Bian,Kenichi Kato,Tomoki Ogoshi,Zhou Cui,Baisheng Sa,Yusuke Tsutsui,Shu Seki,Masayuki Suda
出处
期刊:Advanced Science
[Wiley]
日期:2022-04-28
卷期号:9 (17): e2201063-e2201063
被引量:125
标识
DOI:10.1002/advs.202201063
摘要
Abstract The chiral‐induced spin selectivity effect enables the application of chiral organic materials for spintronics and spin‐dependent electrochemical applications. It is demonstrated on various chiral monolayers, in which their conversion efficiency is limited. On the other hand, relatively high spin polarization (SP) is observed on bulk chiral materials; however, their poor electronic conductivities limit their application. Here, the design of chiral MoS 2 with a high SP and high conductivity is reported. Chirality is introduced to the MoS 2 layers through the intercalation of methylbenzylamine molecules. This design approach activates multiple tunneling channels in the chiral layers, which results in an SP as high as 75%. Furthermore, the spin selectivity suppresses the production of H 2 O 2 by‐product and promotes the formation of ground state O 2 molecules during the oxygen evolution reaction. These potentially improve the catalytic activity of chiral MoS 2 . The synergistic effect is demonstrated as an interplay of the high SP and the high catalytic activity of the MoS 2 layer on the performance of the chiral MoS 2 for spin‐dependent electrocatalysis. This novel approach employed here paves way for the development of other novel chiral systems for spintronics and spin‐dependent electrochemical applications.
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