This theoretical Perspective reviews spin–orbit coupling (SOC), including the Rashba effect
and Dresselhaus effect, in two-dimensional (2D) semiconductors. We first introduce the …

Ex-so-tic van der Waals heterostructures take advantage of electrically tunable layer
polarization to swap proximity exchange and spin-orbit coupling in the electronically active …

The impact of proximity-induced spin-orbit and exchange coupling on the correlated phase
diagram of rhombohedral trilayer graphene (RTG) is investigated theoretically. By employing …

Van der Waals heterostructures provide a rich platform for emergent physics due to their
tunable hybridization of layers, orbitals, and spin. Here, we find that twisted bilayer graphene …

The formation of a superlattice in graphene can serve as a way to modify its electronic band
structure and thus to engineer its electronic transport properties. Recent experiments have …

Ex-so-tic van der Waals heterostructures take advantage of the electrically tunable layer
polarization to swap proximity exchange and spin-orbit coupling in the electronically active …

Band structure and topology of magneto-spin–orbit graphene is investigated using the
proposed tight-binding model that incorporates both Rashba and sublattice-resolved …

Inversion symmetry in bilayer graphene allows for layered opposite Rashba spin-orbit
coupling (LO-RSOC)—the situation when the RSOC has the same magnitude but the …

For graphene nanoribbons with Rashba spin-orbit coupling, the peculiar magnetic response
due to the presence of a magnetization and geometric confinement are analyzed within a …

We establish a general Rashba Hamiltonian for trilayer graphene (TLG) by introducing an
extrinsic layer-dependent Rashba spin-orbit coupling (SOC) arising from the off-plane …