When single layers of 2D materials are stacked on top of one another with a small twist in
orientation, the resulting structure often involves incommensurate moiré patterns. In these …

Carbon has numerous one-dimensional (1D), two-dimensional (2D), and three-dimensional
(3D) allotropic structures. The study of carbon materials has long been a major focus of …

Electrons in quantum materials exhibiting coexistence of dispersionless (flat) bands piercing
dispersive (steep) bands give rise to strongly correlated phenomena and are associated …

Twisted van der Waals materials have been shown to host a variety of tunable electronic
structures. Here we put forward twisted trilayer graphene (TTG) as a platform to emulate …

Twisted bilayer graphene (TBG) has taken the spotlight in the condensed matter community
since the discovery of correlated phases. In this work, we study heterostructures of TBG and …

Twisted graphene bilayers provide a versatile platform to engineer metamaterials with novel
emergent properties by exploiting the resulting geometric moiré superlattice. Such …

Twisted graphene multilayers have been demonstrated to yield a versatile playground to
engineer controllable electronic states. Here, by combining first-principles calculations and …

Electron-electron interactions are intrinsically long ranged, but many models of strongly
interacting electrons only take short-ranged interactions into account. Here, we present …

Extracting Hamiltonian parameters from available experimental data is a challenge in
quantum materials. In particular, real-space spectroscopy methods such as scanning …

The emergence of correlated insulating phases in magic-angle twisted bilayer graphene
exhibits strong sample dependence. Here, we derive an Anderson theorem governing the …