Recent experimental studies on graphene on hexagonal boron nitride (hBN) have demonstrated that hBN is not only a passive substrate that ensures superb electronic properties of graphene's carriers, but that it actively modifies their massless Dirac fermion character through a periodic moiré potential. Here we present a theory of the plasmon excitation spectrum of massless Dirac fermions in a moiré superlattice. We demonstrate that graphene-hBN stacks offer a rich platform for plasmonics in which control of plasmon modes can occur not only via electrostatic gating but also by adjusting, e.g., the relative crystallographic alignment
The specific rotational alignment of two-dimensional lattices results in a moire superlattice with a...
We investigate the magnetic minibands of a heterostructure consisting of bilayer graphene (BLG) and ...
Using a general symmetry-based approach, we provide a classification of generic miniband structures ...
Recent experimental studies on graphene on hexagonal boron nitride (hBN) have demonstrated that hBN ...
van der Waals heterostructures employing graphene and hexagonal boron nitride (hBN) crystals have em...
The Schrödinger equation dictates that the propagation of nearly free electrons through a weak perio...
In this Thesis, I provide a theoretical description of the properties of graphene on atomically flat...
Superlattices have attracted great interest because their use may make it possible to modify the spe...
Moiré patterns are periodic superlattice structures that appear when two crystals with a minor latti...
We present a phenomenological theory of the low energy moir\'e minibands of Dirac electrons in graph...
While Fabry-Perot (FP) resonances and Moire superlattices are intensively studied in graphene on hex...
A scalable tight-binding model is applied for large-scale quantum transport calculations in clean gr...
Graphene's planar structure and unique low energy spectrum make it an intriguing material to study i...
We report the experimental observation of commensurability oscillations (COs) in 1D graphene superla...
The specific rotational alignment of two-dimensional lattices results in a moiré superlattice with ...
The specific rotational alignment of two-dimensional lattices results in a moire superlattice with a...
We investigate the magnetic minibands of a heterostructure consisting of bilayer graphene (BLG) and ...
Using a general symmetry-based approach, we provide a classification of generic miniband structures ...
Recent experimental studies on graphene on hexagonal boron nitride (hBN) have demonstrated that hBN ...
van der Waals heterostructures employing graphene and hexagonal boron nitride (hBN) crystals have em...
The Schrödinger equation dictates that the propagation of nearly free electrons through a weak perio...
In this Thesis, I provide a theoretical description of the properties of graphene on atomically flat...
Superlattices have attracted great interest because their use may make it possible to modify the spe...
Moiré patterns are periodic superlattice structures that appear when two crystals with a minor latti...
We present a phenomenological theory of the low energy moir\'e minibands of Dirac electrons in graph...
While Fabry-Perot (FP) resonances and Moire superlattices are intensively studied in graphene on hex...
A scalable tight-binding model is applied for large-scale quantum transport calculations in clean gr...
Graphene's planar structure and unique low energy spectrum make it an intriguing material to study i...
We report the experimental observation of commensurability oscillations (COs) in 1D graphene superla...
The specific rotational alignment of two-dimensional lattices results in a moiré superlattice with ...
The specific rotational alignment of two-dimensional lattices results in a moire superlattice with a...
We investigate the magnetic minibands of a heterostructure consisting of bilayer graphene (BLG) and ...
Using a general symmetry-based approach, we provide a classification of generic miniband structures ...