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 …

The quantum localization is one of the remarkable phenomena in the studies of quantum
chaos and plays an important role in various contexts. Thus, an understanding of the …

Quantum chaos is generally referred to as the study of quantum manifestations or
fingerprints of nonlinear dynamical and chaotic behaviors in the corresponding classical …

We study the effect of many-body quantum interference on the dynamics of coupled
periodically kicked systems whose classical dynamics is chaotic and shows an unbounded …

Using a numerically exact method we study the stability of dynamical localization to the
addition of interactions in a periodically driven isolated quantum system which conserves …

We study the dynamics of periodically kicked many-body systems away from the high-
frequency regime, and discuss a family of Floquet systems where the notion of …

Measuring the degree of localization of quantum states in phase space is essential for the
description of the dynamics and equilibration of quantum systems, but this topic is far from …

We study synchronization between periodically driven, interacting classical spins
undergoing a Hamiltonian dynamics. In the thermodynamic limit there is a transition …

The kicked rotor system is a textbook example of how classical and quantum dynamics can
drastically differ. The energy of a classical particle confined to a ring and kicked periodically …

Driven many-body systems typically experience heating due to the lack of energy
conservation. Heating may be suppressed for time-periodic drives, but little is known for less …