A comparative study of electrochemical and electrostatic doping modulation of magnetism in Fe3O4via ultracapacitor structure.

IF 2.3 4区 物理与天体物理 Q3 PHYSICS, CONDENSED MATTER Journal of Physics: Condensed Matter Pub Date : 2022-09-16 DOI:10.1088/1361-648X/ac8e47
Fangchao Gu, Leqing Zhang, Zhaohui Li, Jie Zhang, Yuanyuan Pan, Qinghao Li, Hongsen Li, Yufeng Qin, Qiang Li
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Abstract

Electric field control of magnetism can boost energy efficiency and have brought revolutionary breakthroughs in the development of widespread applications in spintronics. Electrolyte gating plays an important role in magnetism modulation. In this work, reversible room-temperature electric field control of saturation magnetization in Fe3O4via a supercapacitor structure is demonstrated with three types of traditional gate electrolytes for comparison. Different magnetization response and responsible mechanisms are revealed by Operando magnetometry PPMS/VSM and XPS characterization. The main mechanism in Na2SO4, KOH aqueous electrolytes is electrochemical effect, while both electrochemical and electrostatic effects were found in LiPF6organic electrolyte. This work offers a kind of reference basis for selecting appropriate electrolyte in magnetism modulation by electrolyte-gating in the future, meanwhile, paves its way towards practical use in magneto-electric actuation, voltage-assisted magnetic storage, facilitating the development of high-performance spintronic devices.

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通过超级电容器结构对fe3o4进行电化学和静电掺杂调制磁性的比较研究。
磁场控制可以提高能源效率,并在自旋电子学的广泛应用中带来了革命性的突破。电解质门控在磁调制中起着重要的作用。在这项工作中,通过超级电容器结构展示了可逆的室温电场控制fe3o4的饱和磁化,并与三种传统栅极电解质进行了比较。通过Operando磁强计、PPMS/VSM和XPS表征揭示了不同的磁化响应及其机制。Na2SO4、KOH水溶液的主要机理是电化学效应,而lipf6有机电解质的主要机理是电化学效应和静电效应。本工作为今后电解门控磁调制中选择合适的电解质提供了一种参考依据,同时为其在磁电驱动、电压辅助磁存储等方面的实际应用铺平了道路,促进了高性能自旋电子器件的发展。
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来源期刊
Journal of Physics: Condensed Matter
Journal of Physics: Condensed Matter 物理-物理:凝聚态物理
CiteScore
5.30
自引率
7.40%
发文量
1288
审稿时长
2.1 months
期刊介绍: Journal of Physics: Condensed Matter covers the whole of condensed matter physics including soft condensed matter and nanostructures. Papers may report experimental, theoretical and simulation studies. Note that papers must contain fundamental condensed matter science: papers reporting methods of materials preparation or properties of materials without novel condensed matter content will not be accepted.
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