Publication | Open Access
2D materials for spintronic devices
593
Citations
181
References
2020
Year
EngineeringTwo-dimensional MaterialsLow Dimensional MaterialSpintronic MaterialSpin PhenomenonSemiconductorsMagnetismSpin TransistorsLow-dimensional SpintronicsNanoelectronicsMagnetic Thin FilmsMaterials SciencePhysicsTopological HeterostructuresSpin Logic DevicesSpintronic DevicesSpin Logic SwitchesSpintronicsNatural SciencesApplied PhysicsCondensed Matter PhysicsFunctional Materials
2D materials are attractive for nanoelectronics because of their atomic thickness and unique physical properties, and they promise improved spin manipulation in emerging spintronic devices. This review surveys graphene and other inorganic 2D semiconductors for spintronic applications, introduces their spin‑orbit and spin‑valley coupled properties, and outlines future directions. The authors examine the use of 2D materials in spin logic switches, spin valves, and spin transistors, and analyze how spin‑orbit and spin‑valley interactions can be harnessed. They identify key challenges to integrating 2D materials into spintronic devices and propose a future perspective for spin logic technologies.
Abstract 2D materials are attractive for nanoelectronics due to their ultimate thickness dimension and unique physical properties. A wide variety of emerging spintronic device concepts will greatly benefit from the use of 2D materials, leading a better way to manipulating spin. In this review, we discuss various 2D materials, including graphene and other inorganic 2D semiconductors, in the context of scientific and technological advances in spintronic devices. Applications of 2D materials in spin logic switches, spin valves, and spin transistors are specifically investigated. We also introduce the spin-orbit and spin-valley coupled properties of 2D materials to explore their potential to address the crucial issues of contemporary electronics. Finally, we highlight major challenges in integrating 2D materials into spintronic devices and provide a future perspective on 2D materials for spin logic devices.
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