We study the fate of dynamical localization of two quantum kicked rotors with contact interaction, which relates to experimental realizations of the rotors with ultra-cold atomic gases. A single kicked rotor is known to exhibit dynamical localization, which takes place in momentum space. The contact interaction affects the evolution of the relative momentum k of a pair of interacting rotors in a non-analytic way. Consequently the evolution operator U is exciting large relative momenta with amplitudes which decay only as a power law 1/k 4. This is in contrast to the center-of-mass momentum K for which the amplitudes excited by U decay superexponentially fast with K. Therefore dynamical localization is preserved for the center-of-mass momentu...
The quantum kicked rotor is studied experimentally in an atom-optics setting, where we observe the c...
This work explores the origin of dynamical localization in one-dimensional systems using the kicked ...
Bose-Einstein condensates loaded into kicked optical lattices can be treated as quantum kicked-rotor...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
Kicked rotor is a paradigmatic model for classical and quantum chaos in time-dependent Hamiltonian s...
The Kicked Rotor is a well studied example of a classical Hamiltonian chaotic system, where the mome...
Quantum interference can terminate energy growth in a continually kicked system, via a single-partic...
The kicked rotor (KR) is one of the basic models in connection with chaos and quantum chaos. A possi...
A system of two periodically kicked coupled rotors is studied, to resolve an apparent contradiction ...
Several quantum phenomena have been experimentally investigated using the system of ultra-cold atoms...
We discuss recent experimental and theoretical investigations of quantum dynamics in periodically ki...
The quantum kicked rotor is studied experimentally in an atom-optics setting, where we observe the c...
This work explores the origin of dynamical localization in one-dimensional systems using the kicked ...
Bose-Einstein condensates loaded into kicked optical lattices can be treated as quantum kicked-rotor...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
We study a system of two atomic quantum kicked rotors with hard-core interaction. This system shows ...
Kicked rotor is a paradigmatic model for classical and quantum chaos in time-dependent Hamiltonian s...
The Kicked Rotor is a well studied example of a classical Hamiltonian chaotic system, where the mome...
Quantum interference can terminate energy growth in a continually kicked system, via a single-partic...
The kicked rotor (KR) is one of the basic models in connection with chaos and quantum chaos. A possi...
A system of two periodically kicked coupled rotors is studied, to resolve an apparent contradiction ...
Several quantum phenomena have been experimentally investigated using the system of ultra-cold atoms...
We discuss recent experimental and theoretical investigations of quantum dynamics in periodically ki...
The quantum kicked rotor is studied experimentally in an atom-optics setting, where we observe the c...
This work explores the origin of dynamical localization in one-dimensional systems using the kicked ...
Bose-Einstein condensates loaded into kicked optical lattices can be treated as quantum kicked-rotor...