Javascript must be enabled to continue!
Progress of Two-Dimensional Magnetic Materials for Spin Orbit Torque
View through CrossRef
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.
Acta Physica Sinica, Chinese Physical Society and Institute of Physics, Chinese Academy of Sciences
Title: Progress of Two-Dimensional Magnetic Materials for Spin Orbit Torque
Description:
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.
Related Results
Dynamics of spinor fermions
Dynamics of spinor fermions
Ultracold atomic gases have established themselves as quantum systems, which are clean and offer a high degree of control over crucial parameters. They are well isolated from their...
Electronic and magnetic properties of two dimensional crystals
Electronic and magnetic properties of two dimensional crystals
<p>In the last few years, two dimensional crystals have become available for experimental studies. Good examples of such systems are monolayers and bilayers of graphene and m...
Spin to charge current interconversion in Rasha interfaces and topological insulators
Spin to charge current interconversion in Rasha interfaces and topological insulators
Conversion entre courant de spin et courant de charge dans des interfaces Rashba et des isolants topologiques
L'interconversion entre courants de spin et de charge ...
Ab initio spin-free-state-shifted spin-orbit configuration interaction calculations on singly ionized iridium
Ab initio spin-free-state-shifted spin-orbit configuration interaction calculations on singly ionized iridium
This work presents a systematic test of the performance of a spin-orbit operator founded upon the Wood-Boring-based ab initio model potential method [J. Chem. Phys. 102, 8078 (1995...
Improving tidal modeling for rocky worlds
Improving tidal modeling for rocky worlds
<p>The high number of discovered close-in planets motivates the improvement of tidal modeling.Among the five thousand exoplanets discovered up to now, half of them ha...
Modification of spin electronic properties of Fen/GaSe monolayer adsorption system
Modification of spin electronic properties of Fen/GaSe monolayer adsorption system
Group-ⅢA metal-monochalcogenides have been extensively studied due to their unique optoelectronic and spin electronic properties. To realize the device applications, modifying thei...
Comparison of spin Hall angles measured by spin accumulation, spin–orbit torque, and spin Hall magnetoresistance
Comparison of spin Hall angles measured by spin accumulation, spin–orbit torque, and spin Hall magnetoresistance
Abstract
We investigate the temperature dependence of the spin Hall angle (θ
SH) in BiSb/interlayer/CoFe heterostructures using three complementary...
Magnetic cloak made of NdFeB permanent magnetic material
Magnetic cloak made of NdFeB permanent magnetic material
In the past few years, the concept of an electromagnetic invisibility cloak has received much attention. Based on the pioneering theoretical work, invisibility cloaks have been gre...

