The spreading of entanglement in out-of-equilibrium quantum systems is currently at the
center of intense interdisciplinary research efforts involving communities with interests …

A key goal of quantum chaos is to establish a relationship between widely observed
universal spectral fluctuations of clean quantum systems and random matrix theory (RMT) …

Out-of-time-ordered correlation functions (OTOCs) are presently being extensively debated
as quantifiers of dynamical chaos in interacting quantum many-body systems. We argue that …

We study many-body quantum dynamics using Floquet quantum circuits in one space
dimension as simple examples of systems with local interactions that support ergodic …

The eigenstate thermalization hypothesis provides to date the most successful description of
thermalization in isolated quantum systems by conjecturing statistical properties of matrix …

We demonstrate that the dynamics of kicked spin chains possess a remarkable duality
property. The trace of the unitary evolution operator for N spins at time T is related to one of a …

We study quantum chaos and spectral correlations in periodically driven (Floquet) fermionic
chains with long-range two-particle interactions, in the presence and absence of particle …

Recent years have seen an increasing interest in quantum chaos and related aspects of
spatially extended systems, such as spin chains. However, the results are strongly system …

We study operator spreading in many-body quantum systems by its potential to generate an
informationally complete measurement record in quantum tomography. We adopt …

Having spectral correlations that, over small enough energy scales, are described by
random matrix theory is regarded as the most general defining feature of quantum chaotic …