…an atomic Fermi gas, a highly controllable form of quantum degenerate matter. We reveal the spin-orbit gap via spin-injection spectroscopy, which characterizes the energy-momentum dispersion and spin composition of the…
Understanding strongly correlated quantum many-body states is one of the most difficult challenges in modern physics. For example, there remain fundamental open questions on the phase diagram of the Hubbard…
Simple molecules at ultracold temperatures, combined with high-resolution optical spectroscopy, open the door to molecular and fundamental science that is hard to access with other physical systems. In this talk,…
Simple molecules at ultracold temperatures, combined with high-resolution optical spectroscopy, open the door to molecular and fundamental science that is hard to access with other physical systems. In this talk,…
…cascade driven by the evaporative heating of vortices, leading to steady-state configurations characterized by negative absolute temperatures. Our results open a pathway for quantitative studies of emergent structures in interacting…
Accurately characterizing the spectral properties of environmental noise in open quantum systems is a prerequisite for quantitative modeling and prediction. In particular, gaining such detailed knowledge is a key step…
We report on the formation of ultracold fermionic Feshbach molecules of $^{23}$Na$^{40}$K, the first fermionic molecule that is chemically stable in its ground state. The lifetime of the nearly degenerate…
…While classical approximations perform well for many chemical problems, they often fail to accurately make predictions about compounds where quantum effects dominate. However, existing quantum computing approaches are prohibitively expensive…