Quantum emulators, owing to their large degree of tunability and control, allow the
observation of fine aspects of closed quantum many-body systems, as either the regime …

Using quantum gas microscopy, we study the late-time effective hydrodynamics of an
isolated cold-atom Fermi-Hubbard system subject to an external linear potential (a “tilt”). The …

The interplay of strong quantum correlations and far-from-equilibrium conditions can give
rise to striking dynamical phenomena. We experimentally investigated the quantum motion …

We identify the chaotic phase of the Bose-Hubbard Hamiltonian by the energy-resolved
correlation between spectral features and structural changes of the associated eigenstates …

Synchronization and entanglement constitute fundamental collective phenomena in multi-
unit classical and quantum systems, respectively, both equally implying coordinated system …

We discuss recent research on quantum transport in complex materials, from photosynthetic
light-harvesting complexes to photonic circuits. We identify finite, disordered networks as the …

We consider the time evolution in the repulsive sine-Gordon quantum field theory after the
system is prepared in a particular class of initial states. We focus on the time dependence of …

Real-time dynamics in a quantum many-body system are inherently complicated and hence
difficult to predict. There are, however, a special set of systems where these dynamics are …

We report the observation and characterization of position-space Bloch oscillations using
cold atoms in a tilted optical lattice. While momentum-space Bloch oscillations are a …

We discuss applications of the theory of quantum chaos to one of the paradigm models of
many-body quantum physics—the Bose–Hubbard (BH) model, which describes, in …