Abstract Two-dimensional (2D) materials can serve as a platform for develo** novel
spintronic devices and circuits for low-power electronics. In particular, inducing magnetism …

The magnetic proximity effect can induce a spin dependent exchange shift in the band
structure of graphene. This produces a magnetization and a spin polarization of the …

The evolution of low-dimensional materials has frequently revolutionized new intriguing
physical standards and suggests a unique approach to scientifically design a novel device …

The presence of two sublattices in hexagonal graphene brings two energetically degenerate
extremes in the conduction and valence bands, which are identified by the valley quantum …

Graphene provides a wealth of advantageous functionalities but lags behind in spintronic
applications due to lack of magnetism. A solution currently explored is proximity coupling of …

Intrinsic functionality of 2D materials is crucial for both fundamental studies and practical
applications. In particular, 2D magnetism has recently emerged as a major research field …

We show that thin layers of EuO, a ferromagnetic insulator, can be achieved by topotactic
reduction under titanium of a Eu 2 O 3 film deposited on top of a graphene template. The …

2D materials offer the ability to expose their electronic structure to manipulations by a
proximity effect. This could be harnessed to craft properties of 2D interfaces and van der …

Recent discoveries of intrinsic two-dimensional (2D) magnets open up vast opportunities to
address fundamental problems in condensed matter physics, giving rise to applications from …

Recently, antiferromagnetic (AFM) materials have attracted rapid attention, because they are
considered as outstanding candidates to replace the widely used ferromagnets in the next …