Kicked rotor is a paradigmatic model for classical and quantum chaos in time-dependent
Hamiltonian systems. More than fifty years since the introduction of this model, there is an …

We explore prethermal Floquet steady states and instabilities of the weakly interacting two-
dimensional Bose-Hubbard model subject to periodic driving. We develop a description of …

Contrary to a driven classical system that exhibits chaotic behaviour and diffusive energy
growth, a kicked quantum system can exhibit the emergence of dynamical localization …

We have observed high-order quantum resonances in a realization of the quantum δ-kicked
rotor, using Bose-condensed Na atoms subjected to a pulsed standing wave of laser light …

The double kicked rotor model is a physically realizable extension of the paradigmatic
kicked rotor model in the study of quantum chaos. Even before the concept of Floquet …

We investigate the tunneling dynamics of Bose-Einstein condensates (BECs) in a symmetric
as well as in a tilted triple-well trap within the framework of mean-field treatment. The …

The understanding of how classical dynamics can emerge in closed quantum systems is a
problem<? format?> of fundamental importance. Remarkably, while classical behavior …

We obtain a striking spin soliton in a two-component Bose-Einstein condensate and
investigate its motions in the presence of a constant force. The initially static spin soliton first …

A periodically driven rotor is a prototypical model that exhibits a transition to chaos in the
classical regime and dynamical localization (related to Anderson localization) in the …

We study quantum chaos for systems with more than one degree of freedom, for which we
present an analysis of the dynamics of entanglement. Our analysis explains the main …