二维自旋轨道转矩磁性材料研究进展

None Yinong Xiong, None Chuangwen, None Chuantong Ren, None Dequan Meng, None Shiwei Chen, None Shiheng Liang
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引用次数: 0

摘要

信息技术的飞速发展对信息处理和存储设备的性能提出了更高的要求。同时,随着器件尺寸的不断缩小,传统基于电子电荷性质的半导体器件面临着热耗散和量子尺寸效应的问题和挑战,半导体技术进入了后摩尔时代。与传统的基于电荷的电子器件不同,基于自旋的非易失性自旋电子器件不仅具有较高的集成密度、读写速度和读写次数,而且可以有效地避免散热,为信息存储、处理和通信的发展建立了新的技术平台。近年来,二维材料以其独特的能带结构和丰富的物理性质引起了人们的广泛关注。二维磁性材料在自旋电子学领域显示出巨大的研究和应用潜力。与传统的块材料相比,二维材料的原子厚度、超干净的界面和灵活的堆叠为探索新的物理效应和超低功耗器件提供了巨大的机会。同时,随着拓扑材料(TMs)的兴起,其拓扑保护带结构、多样的晶体结构和对称性、强自旋轨道耦合和可调节的电导率为自旋电子学的研究提供了理想的物理研究平台。本文首先介绍了二维材料的常用制备方法,然后重点介绍了二维磁性材料在自旋轨道电子学领域的研究进展,最后展望了该领域的研究挑战。未来,随着二维磁性材料的制备、物理性质和器件应用研究的不断深入,二维磁性材料将在自旋电子学领域显示出更广泛的研究前景和应用价值。二维磁性材料将为自旋电子学的发展提供更多的材料体系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Progress of Two-Dimensional Magnetic Materials for Spin Orbit Torque
The rapid development of information technology has put forward higher requirements for the performance of information processing and storage devices. At the same time, with the continuous reduction of device size, traditional semiconductor devices based on electron charge properties face the problems and challenges of thermal dissipation and quantum size effect, and semiconductor technology has entered the post-molar era. Unlike traditional charge-based electronic devices, spin-based non-volatile Spintronic devices not only have high integrated density, read and write speed and read and write times, but also can effectively avoid heat dissipation, establishing a new technical platform for the development of information storage, processing and communication. In recent years, two-dimensional materials have attracted a lot of attention due to their unique band structure and rich physical properties. Two-dimensional magnetic materials have shown great research and application potential in the field of Spintronics. Compared to traditional block materials, the atomic thickness, ultra-clean interface and flexible stacking of two-dimensional materials provide great opportunities for exploring novel physical effects and ultra-low-power devices. At the same time, with the rise of topological materials (TMs), their topological protected band structures, diversified crystal structures and symmetries, strong spin-orbit coupling and adjustable electrical conductivity provide an ideal physical research platform for spintronics research. In this paper, we first introduce the common methods of preparing two-dimensional materials, then focus on the research progress of two-dimensional magnetic materials in the field of spin-orbit electronics, and finally look forward to the research challenges in this field. In the future, with continuous in-depth research on the preparation, physical properties and device applications of two-dimensional magnetic materials, two-dimensional magnetic materials will show more extensive research prospects and application value in the field of spintronics. Two-dimensional magnetic materials will provide more material systems for spintronics development.
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