Recent years have seen tremendous progress in the theoretical understanding of quantum
systems driven dissipatively by coupling to different baths at their edges. This was possible …

We consider charge transport through a nanoscopic object, eg, single molecules, short
nanotubes, or quantum dots, that is weakly coupled to metallic electrodes. We account for …

We consider a quantum spin Hall system in a two-terminal setup, with an extended tunneling
contact connecting upper and lower edges. We analyze the effects of this geometry on the …

We propose a device consisting of an antidot periodically driven in time by a magnetic field
as a fractional quantum Hall counterpart of the celebrated mesoscopic capacitor-based …

The transport properties of an interacting one-dimensional quantum dot capacitively coupled
to an atomic force microscope probe are investigated. The dot is described within a Luttinger …

Thermal effects on the total charge density are studied for a one-dimensional correlated
quantum dot by means of the path integral Monte Carlo method. The competition between …

The transport properties of quantum dots with up to N= 7 electrons ranging from a weak to a
strong interacting regime are investigated via the projected Hartree–Fock technique. As …

We consider resonant electron tunneling in various nanostructures, including single-wall
carbon nanotubes, molecular transistors, and quantum wires, formed in two-dimensional …

We study an electrically controlled quantum spin Hall antidot embedded in a two-
dimensional topological insulating bar. Helical edge states around the antidot and along the …

Electronic states and vibrons in carbon nanotube quantum dots have, in general, different
location and size. As a consequence, the conventional Anderson-Holstein model, coupling …