Engineering magnetic anisotropy in two-dimensional magnetic materials

Although magnetism is one of the oldest branches of solid-state physics, studies of nanomagnetism are extremely vigorous in recent years, because of the accelerating miniaturization of magnetic units in spintronics devices, which drives the sizes of the magnetic units down to nanometer scale. In thi...

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Main Authors: Jun Hu, Peng Wang, Jijun Zhao, Ruqian Wu
Format: Article
Language:English
Published: Taylor & Francis Group 2018-01-01
Series:Advances in Physics: X
Subjects:
Online Access:http://dx.doi.org/10.1080/23746149.2018.1432415
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spelling doaj-fec8374ff9144056b760f4084ce3b7a32020-11-24T23:44:27ZengTaylor & Francis GroupAdvances in Physics: X2374-61492018-01-013110.1080/23746149.2018.14324151432415Engineering magnetic anisotropy in two-dimensional magnetic materialsJun Hu0Peng Wang1Jijun Zhao2Ruqian Wu3Soochow UniversityDalian University of Technology, Ministry of EducationDalian University of Technology, Ministry of EducationUniversity of CaliforniaAlthough magnetism is one of the oldest branches of solid-state physics, studies of nanomagnetism are extremely vigorous in recent years, because of the accelerating miniaturization of magnetic units in spintronics devices, which drives the sizes of the magnetic units down to nanometer scale. In this realm, the magnetic anisotropy is the critical factor because it prevents the random spin reorientation induced by thermal fluctuation. Extensive theoretical and experimental efforts have been made to enhance the magnetic anisotropy of the magnetic nanostructures to promote the stability of the magnetization, for the potential applications at high temperature. In this review, we will take a series of examples to address how the magnetic properties including the magnetic anisotropy can be manipulated, as well as the underlying mechanism associated with the manipulation. Thorough understanding of the magnetism of magnetic nanostructures not only provides guidance for engineering the magnetic properties in experiment, but also predicts promising candidates for applications in spintronics devices.http://dx.doi.org/10.1080/23746149.2018.1432415Two dimensional materialsmagnetic nanostructuresmagnetic anisotropy
collection DOAJ
language English
format Article
sources DOAJ
author Jun Hu
Peng Wang
Jijun Zhao
Ruqian Wu
spellingShingle Jun Hu
Peng Wang
Jijun Zhao
Ruqian Wu
Engineering magnetic anisotropy in two-dimensional magnetic materials
Advances in Physics: X
Two dimensional materials
magnetic nanostructures
magnetic anisotropy
author_facet Jun Hu
Peng Wang
Jijun Zhao
Ruqian Wu
author_sort Jun Hu
title Engineering magnetic anisotropy in two-dimensional magnetic materials
title_short Engineering magnetic anisotropy in two-dimensional magnetic materials
title_full Engineering magnetic anisotropy in two-dimensional magnetic materials
title_fullStr Engineering magnetic anisotropy in two-dimensional magnetic materials
title_full_unstemmed Engineering magnetic anisotropy in two-dimensional magnetic materials
title_sort engineering magnetic anisotropy in two-dimensional magnetic materials
publisher Taylor & Francis Group
series Advances in Physics: X
issn 2374-6149
publishDate 2018-01-01
description Although magnetism is one of the oldest branches of solid-state physics, studies of nanomagnetism are extremely vigorous in recent years, because of the accelerating miniaturization of magnetic units in spintronics devices, which drives the sizes of the magnetic units down to nanometer scale. In this realm, the magnetic anisotropy is the critical factor because it prevents the random spin reorientation induced by thermal fluctuation. Extensive theoretical and experimental efforts have been made to enhance the magnetic anisotropy of the magnetic nanostructures to promote the stability of the magnetization, for the potential applications at high temperature. In this review, we will take a series of examples to address how the magnetic properties including the magnetic anisotropy can be manipulated, as well as the underlying mechanism associated with the manipulation. Thorough understanding of the magnetism of magnetic nanostructures not only provides guidance for engineering the magnetic properties in experiment, but also predicts promising candidates for applications in spintronics devices.
topic Two dimensional materials
magnetic nanostructures
magnetic anisotropy
url http://dx.doi.org/10.1080/23746149.2018.1432415
work_keys_str_mv AT junhu engineeringmagneticanisotropyintwodimensionalmagneticmaterials
AT pengwang engineeringmagneticanisotropyintwodimensionalmagneticmaterials
AT jijunzhao engineeringmagneticanisotropyintwodimensionalmagneticmaterials
AT ruqianwu engineeringmagneticanisotropyintwodimensionalmagneticmaterials
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