Quantum gas microscopes are versatile and powerful tools for fundamental science as well
as promising candidates for enticing applications such as in quantum simulation or quantum …

We report an experimental measurement of a light wavelength at which the ac electric
polarizability equals zero for Rb 87 atoms in the F= 2 ground hyperfine state. The …

We perform a theoretical and experimental study of a system of two ultracold atoms with
tunable interaction in an elongated trapping potential. We show that the coupling of center-of …

We show that a 2D spin-polarized Fermi gas immersed in a 3D Bose-Einstein condensate
constitutes a very promising system for realizing apx+ ipy superfluid. The fermions attract …

We propose a scheme for a single-atom quantum heat engine based on ultra-cold atom
technologies. Building on the high degree of control typical of cold atom systems, we …

The application of optical lattices allows a tuning of the geometry of Bose-Einstein
condensates to effectively reduced dimensions. In the context of solid-state physics the …

We review theoretical aspects of unitary Fermi gas (UFG), which has been realized in
ultracold atom experiments. We first introduce the ϵ expansion technique based on a …

We perform a measurement of the tune-out wavelength, λ 0, between the D 1, 6 2 S 1/2→ 6
2 P 1/2, and D 2, 6 2 S 1/2→ 6 2 P 3/2, transitions for Cs 133 in the ground hyperfine state …

Using near-exact numerical simulations, we study the propagation of an impurity through a
one-dimensional Bose lattice gas for varying bosonic interaction strengths and filling factors …

We show that repulsive neutral-atom impurities in a dilute gas Bose-Einstein condensate
(BEC) can self-localize in bubble polaron states formally analogous to electron bubbles in …