As quantum technologies develop, a specific class of electrically conducting materials is
rapidly gaining interest because they not only form the core quantum‐enabled elements in …

Layers of two-dimensional materials stacked with a small twist angle give rise to beating
periodic patterns on a scale much larger than the original lattice, referred to as a “moiré …

Eigenstate multifractality is a distinctive feature of noninteracting disordered metals close to
a metal–insulator transition, whose properties are expected to extend to superconductivity …

In this work, we propose an electronic Lévy glass built from graphene nanoribbons in the
presence of regions with enhanced spin-orbit coupling. Although electrons in graphene …

We present the first experimental evidence for the multifractality of a transport property at a
topological phase transition. In particular, we show that conductance fluctuations display …

We offer a new perspective on the problem of characterizing mesoscopic fluctuations in the
interplateau regions of the integer quantum Hall transition. We found that longitudinal and …

In recent experimental and theoretical studies of graphene, disorder scattering processes
have been suggested to play an important role in its electronic and transport properties. In a …

Two-dimensional topological insulators are characterized by the bulk gap and one-
dimensional helical states running along the edges. The theory predicts the topological …

In this paper we propose an electronic Lévy glass, analogous to a recent optical realization.
To that end, we investigate the transmission of electrons in graphene nanoribbons in the …

We perform a multifractal detrended fluctuation analysis of the magnetoconductance data of
two standard types of mesoscopic systems: a disordered nanowire and a ballistic chaotic …