Scaling law and stability for a noisy quantum system
arXiv:0808.3824 · doi:10.1103/PhysRevE.78.025206
Abstract
We show that a scaling law exists for the near resonant dynamics of cold kicked atoms in the presence of a randomly fluctuating pulse amplitude. Analysis of a quasi-classical phase-space representation of the quantum system with noise allows a new scaling law to be deduced. The scaling law and associated stability are confirmed by comparison with quantum simulations and experimental data.
Published in Physical Review E (Rapid Comm.)
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Cited by in corpus (7)
- Dynamical tunneling of a Bose-Einstein condensate in periodically driven systems
- Phase Noise in the Delta Kicked Rotor: From Quantum to Classical
- Steering random walks with kicked ultracold atoms
- Pseudo-classical theory for fidelity of nearly resonant quantum rotors
- Fidelity for kicked atoms with gravity near a quantum resonance
- Engineering transport by concatenated maps
- Kicked-rotor quantum resonances in position space: Application to situations of experimental interest