Periodic driving can be used to control the properties of a many-body state coherently and to
realize phases that are not accessible in static systems. For example, exposing materials to …

The maximum speed with which information can propagate in a quantum many-body system
directly affects how quickly disparate parts of the system can become correlated,,, and how …

Driven quantum systems may realize novel phenomena absent in static systems, but driving-
induced heating can limit the timescale on which these persist. We study heating in …

With the production of polar molecules in the quantum regime,, long-range dipolar
interactions are expected to facilitate understanding of strongly interacting many-body …

Understanding quantum dynamics away from equilibrium is an outstanding challenge in the
modern physical sciences. Out-of-equilibrium systems can display a rich variety of …

Gaussian models provide an excellent effective description of many quantum many-body
systems ranging from condensed-matter systems, all the way to neutron stars. Gaussian …

Alkaline-earth atoms have metastable 'clock'states with minute-long optical lifetimes, high-
spin nuclei and SU (N)-symmetric interactions, making them powerful platforms for atomic …

Tunnelling of material particles through a classically impenetrable barrier constitutes one of
the hallmark effects of quantum physics. When interactions between the particles compete …

Time-periodic driving provides a promising route toward engineering nontrivial states in
quantum many-body systems. However, while it has been shown that the dynamics of …

Discrete time-translational symmetry in a periodically driven many-body system can be
spontaneously broken to form a discrete time crystal, an exotic new phase of matter. We …