Ultracold bosonic atoms in optical lattices self-organize into a variety of structural and
quantum phases when placed into a single-mode cavity and pumped by a laser. Cavity …

We study the equilibrium properties of the one-dimensional disordered Bose–Hubbard
model by means of a gauge-adaptive tree tensor network variational method suitable for …

Using large-scale simulations based on matrix product state and quantum Monte Carlo
techniques, we study the superfluid to Bose glass transition for one-dimensional attractive …

This paper addresses the so-called inverse problem which consists in searching for
(possibly multiple) parent target Hamiltonian (s), given a single quantum state as input …

Many-body localization (MBL) addresses the absence of thermalization in interacting
quantum systems, with nonergodic high-energy eigenstates behaving as ground states, only …

We investigate the zero-temperature superfluid to insulator transitions in a diluted two-
dimensional quantum rotor model with particle-hole symmetry. We map the Hamiltonian …

We determine the dynamical critical exponent z appearing at the Bose glass to superfluid
transition in two dimensions by performing large scale numerical studies of two …

We analyze the disorder-driven localization of the two-dimensional Bose-Hubbard model by
evaluating the full low-energy quasiparticle spectrum via a recently developed fluctuation …

Quantum computers hold the potential to unlock new discoveries in complex quantum
systems by enabling the simulation of physical systems that have heretofore been …

We use the stochastic series expansion quantum Monte Carlo method, together with the
eigenstate-to-Hamiltonian construction, to map the localized Bose glass ground state of the …