Prethermalization has been extensively studied in systems close to integrability. We propose
a more general, yet conceptually simpler, setup for this phenomenon. We consider a …

We prove the second law of thermodynamics and the nonequilibrium fluctuation theorem for
pure quantum states. The entire system obeys reversible unitary dynamics, where the initial …

We study heating rates in strongly interacting quantum lattice systems in the thermodynamic
limit. Using a numerical linked cluster expansion, we calculate the energy as a function of …

We demonstrate that numerical linked cluster expansions (NLCE) yield a powerful approach
to calculate time-dependent correlation functions for quantum many-body systems in one …

We propose a generalization of the linked-cluster expansions to study driven-dissipative
quantum lattice models, directly accessing the thermodynamic limit of the system. Our …

We implement numerical linked cluster expansions (NLCEs) to study dynamics of lattice
systems following quantum quenches, and focus on a hard-core boson model in one …

Quantum simulators have made a remarkable progress towards exploring the dynamics of
many-body systems, many of which offer a formidable challenge to both theoretical and …

We study quantum quenches in the transverse-field Ising model defined on different lattice
geometries such as chains, two-and three-leg ladders, and two-dimensional square lattices …

We study the prethermalization and thermalization dynamics of local observables in weakly
perturbed nonintegrable systems, with Hamiltonians of the form H ̂ 0+ g V ̂, where H ̂ 0 …

For an isolated generic quantum system out of equilibrium, the long time average of
observables is given by the diagonal ensemble, ie, the mixed state with the same probability …