In interacting one-dimensional (1D) systems, the quasi-particle picture in Fermi-liquid theory
cannot successfully describe low-energy physics. Instead, electron dynamics in one …

We study the minimal excitations of fractional quantum Hall edges, extending the notion of
levitons to interacting systems. Using both perturbative and exact calculations, we show that …

Topology in condensed matter physics manifests itself in the emergence of edge or surface
states protected by underlying symmetries. We review two-dimensional topological …

We consider thermoelectric transport properties of the edge states of a two-dimensional
topological insulator in a double quantum point contact geometry coupled to two thermally …

Topological effects in edge states are clearly visible on short lengths only, thus largely
impeding their studies. On larger distances, one may be able to dynamically enhance …

In this paper, we consider the topological abelian BF theory with radial boundary on a
generic 3D manifold, as we were motivated by the recently discovered accelerated edge …

We show that, when a spatially localized electric pulse is applied at the edge of a quantum
spin Hall system, electron wave packets of the helical states can be photoexcited by purely …

Time-resolved charge transport measurement for one-dimensional edge states is a powerful
means for investigating nonequilibrium charge dynamics and underlying interaction effects …

Since the pioneering works of Hanbury‐Brown and Twiss, intensity–intensity correlations
have been widely used in astronomical systems, for example, to detect binary stars. They …

We developed a coherent frequency-domain terahertz (THz) spectroscopic technique on a
coplanar waveguide in the ultrabroad frequency range from 200 MHz to 1.6 THz based on …