The approach to thermal equilibrium, or thermalization, in isolated quantum systems is
among the most fundamental problems in statistical physics. Recent theoretical studies have …

Over the past decade, there has been remarkable progress in our understanding of
equilibration, thermalization and prethermalization, due in large part to experimental …

We propose a general method to embed target states into the middle of the energy spectrum
of a many-body Hamiltonian as its energy eigenstates. Employing this method, we construct …

Non-Hermitian random matrices have been utilized in such diverse fields as dissipative and
stochastic processes, mesoscopic physics, nuclear physics, and neural networks. However …

The transverse-field Ising model is one of the fundamental models in quantum many-body
systems, yet a full understanding of its dynamics remains elusive in higher than one …

We verify that the eigenstate thermalization hypothesis (ETH) holds universally for locally
interacting quantum many-body systems. Introducing random matrix ensembles with …

We use entanglement witnesses to detect entanglement in the XY chain in thermal
equilibrium and determine the temperature bound below which the state is detected as …

Nonequilibrium dynamics of a nonintegrable system without the eigenstate thermalization
hypothesis is studied. It is shown that, in the thermodynamic limit, this model thermalizes …

We elucidate how the presence of higher-form symmetries affects the dynamics of
thermalization in isolated quantum systems. Under reasonable assumptions, we analytically …

We provide a rigorous proof of the absence of nontrivial local conserved quantities in all spin-
1/2 chains with symmetric nearest-neighbor interaction, except for known integrable …