In recent years, the ability of cold atom experiments to explore condensed-matter-related
questions has dramatically progressed. Transport experiments, in particular, have expanded …

Ultracold atoms confined by engineered magnetic or optical potentials are ideal to study
phenomena otherwise difficult to realize or probe in the solid state, thanks to the ability to …

In isolated nonlinear optical waveguide arrays, simultaneous conservation of longitudinal
momentum flow (“internal energy”) and optical power (“particle number”) of the optical …

We study thermoelectric currents of neutral, fermionic atoms flowing through a mesoscopic
channel connecting a hot and a cold reservoir across the superfluid transition. The …

The transport of atoms is experimentally studied in a transistor-like triple-well potential
consisting of a narrow gate well surrounded by source and drain wells. Atoms are initially …

A semiclassical formalism is used to investigate the transistor-like behavior of ultracold
atoms in a triple-well potential. Atom current flows from the source well, held at fixed …

In isolated nonlinear optical waveguide arrays with bounded energy spectrum, simultaneous
conservation of energy and power of the optical modes enables study of coupled thermal …

Interacting cold-atomic gases in optical lattices offer an experimental approach to
outstanding problems of many body physics. One important example is the interplay of …

The last fifteen years have established ultracold atomic gases as efficient quantum
simulators [1–4]. Using those extremely flexible systems in which geometry, interactions and …

Research in the field of atomtronics aims to develop a new paradigm for the use of ultracold
atomic systems in a manner that mimics the functionality of electronic circuits and devices …