We present a theoretical study of an interaction-driven quantum phase diagram of twisted
bilayer MoTe 2 at hole filling factor ν h= 1 as a function of twist angle θ and layer potential …

Topological flat moiré bands with nearly ideal quantum geometry have been identified in
homobilayer transition metal dichalcogenide moiré superlattices, and are thought to be …

We discover an intrinsic dipole Hall effect in a variety of magnetic insulating states at integer
fillings of twisted MoTe2 moiré superlattice, including topologically trivial and nontrivial ferro …

Twisted homobilayer transition metal dichalcogenide (TMD) attracts an expanding
experimental interest recently for exhibiting a variety of topological and magnetic states even …

Artificial honeycomb lattices are essential for understanding exotic quantum phenomena
arising from the interplay between Dirac physics and electron correlation. This work shows …

We present a theoretical study of mapping between Chern bands and generalized Landau
levels in twisted bilayer MoTe $ _2 $, where fractional Chern insulators have been …

We theoretically derive the sum rule for the negative first moment of the absorptive optical
conductivity with excitonic effects and establish its connection to the quantum weight $ K …

We study electron-electron interaction-induced states of twisted bilayer MoTe 2 in an out-of-
plane magnetic field B z ̂ near one hole per moiré unit cell filling. The three-dimensional …

Moiré patterns with large periods emerge when layers of van der Waals materials are
stacked with a twist or lattice mismatch. These patterns modify energy bands, leading to …

To assess prior mean-field studies that the interacting Kane-Mele model supports a novel
antiferromagnetic Chern insulating phase (AFCI) for a wide range of sublattice potentials, we …