Polymorphic 2D materials allow structural and electronic phase engineering, which can be
used to realize energy-efficient, cost-effective, and scalable device applications. The phase …

The realization of graphene gapped states with large on/off ratios over wide do** ranges
remains challenging. Here, we investigate heterostructures based on Bernal-stacked bilayer …

Electronic correlations in two-dimensional materials play a crucial role in stabilising
emergent phases of matter. The realisation of correlation-driven phenomena in graphene …

We show that topological flat minibands can be engineered in a class of narrow gap
semiconductor films using only an external electrostatic superlattice potential. We …

Magnetic fields can have profound effects on the motion of electrons in quantum materials.
Two-dimensional electron systems subject to strong magnetic fields are expected to exhibit …

We briefly summarize more than fifteen years of intense research in 2D materials (2DM)-
based spintronics, which has led to an in-depth understanding of fundamental spin transport …

Spin‐polarized bands in pristine and proximity‐induced magnetic materials are promising
building blocks for future devices. Conceptually new memory, logic, and neuromorphic …

Emergent quantum phenomena in two-dimensional van der Waal (vdW) magnets are largely
governed by the interplay between exchange and Coulomb interactions. The ability to …

The quantum Hall effect can be substantially affected by interfacial coupling between the
host two-dimensional electron gases and the substrate, and has been predicted to give rise …

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 …