Anderson localization is a universal phenomenon affecting non-interacting quantum
particles in a disordered environment. In three spatial dimensions, theory predicts a …

Dimension 2 is expected to be the lower critical dimension for Anderson localization in a
time-reversal-invariant disordered quantum system. Using an atomic quasiperiodic kicked …

Understanding the interplay of interaction and disorder in quantum transport poses long-
standing scientific challenges for theory and experiment. While highly controlled ultracold …

Recent experiments in noninteracting ultracold atoms in three-dimensional speckle
potentials have yielded conflicting results regarding the so-called mobility edge, ie, the …

We study the multifractal behavior of coherent states projected in the energy eigenbasis of
the spin-boson Dicke Hamiltonian, a paradigmatic model describing the collective …

We investigate both analytically and numerically the wavepacket's dynamics in momentum
space for a Floquet non-Hermitian system with a periodically kicked driven potential. We …

We study the dynamics of the many-body atomic kicked rotor with interactions at the mean-
field level, governed by the Gross-Pitaevskii equation. We show that dynamical localization …

We study experimentally a quantum kicked rotor with broken parity symmetry, supporting a
ratchet effect due to the presence of a classical accelerator mode. We show that the short …

I present the results of extensive numerical simulations, which reveal the glassy properties of
Anderson localization in dimension two at zero temperature: pinning, avalanches, and …

We report on the observation of the coherent enhancement of the return probability
[“enhanced return to the origin”(ERO)] in a periodically kicked cold-atom gas. By submitting …