Ultracold gases of interacting spin-orbit-coupled fermions are predicted to display exotic phenomena such as topological superfluidity and its associated Majorana fermions. Here, we experimentally demonstrate a route to strongly interacting single-component atomic Fermi gases by combining an s-wave Feshbach resonance (giving …

Raman-Induced Interactions in a Single-Component Fermi Gas Near an s-Wave Feshbach Resonance Read more »

Creating and measuring topological matter – with non-local order deeply embedded in the global structure of its quantum mechanical eigenstates – presents unique experimental challenges. Since this order has no signature in local correlation functions, it might seem experimentally inaccessible …

Review article: Detection of topological matter with quantum gases Read more »

Zitterbewegung, a force-free trembling motion first predicted for relativistic fermions like electrons, was an unexpected consequence of the Dirac equation’s unification of quantum mechanics and special relativity. Though the oscillatory motion’s large frequency and small amplitude have precluded its measurement with electrons, zitterbewegung is …

Direct observation of zitterbewegung in a Bose–Einstein condensate Read more »

Citation:  For innovative and pioneering work in quantum phenomena at the intersection of atomic and condensed matter physics, using quantum simulation with ultracold atoms, including the use of optical interactions to create artificial electromagnetic fields and spin-orbit coupling.

The Aubry-André or Harper (AAH) model has been the subject of extensive theoretical research in the context of quantum localization. Recently, it was shown that one-dimensional quasicrystals described by the incommensurate AAH model has a nontrivial topology. In this Letter, …

Topological Zero-Energy Modes in Gapless Commensurate Aubry-André-Harper Models Read more »