Spintronics in 2D graphene-based van der Waals heterostructures
David T. S. Perkins, Aires Ferreira

TL;DR
This paper reviews the emerging field of 2D graphene-based van der Waals heterostructures in spintronics, highlighting their unique electronic properties, proximity effects, and potential for spin manipulation and device applications.
Contribution
It provides a comprehensive overview of the principles, theory, and experimental techniques in 2D material-based spintronics, emphasizing recent advances and future prospects.
Findings
Graphene heterostructures enable electrical control of spins.
Proximity effects induce spin-orbit coupling in graphene.
Spin Hall and inverse spin galvanic effects are key phenomena.
Abstract
Spintronics has become a broad and important research field that intersects with magnetism, nano-electronics, and materials science. Its overarching aim is to provide a fundamental understanding of spin-dependent phenomena in solid-state systems that can enable a new generation of spin-based logic devices. Over the past decade, graphene and related 2D van der Waals crystals have taken center stage in expanding the scope and potential of spintronic materials. Their distinctive electronic properties and atomically thin nature have opened new opportunities to probe and manipulate internal electronic degrees of freedom. Purely electrical control over conduction-electron spins can be attained in graphene-transition metal dichalcogenide heterostructures, due to proximity effects combined with graphene's high electronic mobility. Specifically, graphene experiences a proximity-induced…
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Taxonomy
TopicsGraphene research and applications · 2D Materials and Applications · Quantum and electron transport phenomena
