An accelerator mode based technique for studying quantum chaos
arXiv:physics/0208104 · doi:10.1103/PhysRevA.67.023605
Abstract
We experimentally demonstrate a method for selecting small regions of phase space for kicked rotor quantum chaos experiments with cold atoms. Our technique uses quantum accelerator modes to selectively accelerate atomic wavepackets with localized spatial and momentum distributions. The potential used to create the accelerator mode and subsequently realize the kicked rotor system is formed by a set of off-resonant standing wave light pulses. We also propose a method for testing whether a selected region of phase space exhibits chaotic or regular behavior using a Ramsey type separated field experiment.
5 pages, 3 figures, some modest revisions to previous version (esp. to the figures) to aid clarity; accepted for publication in Physical Review A (due out on January 1st 2003)
Cited by in corpus (13)
- Dynamics of Loschmidt echoes and fidelity decay
- Quantum resonances and decoherence for delta-kicked atoms
- Exploring the phase space of the quantum delta kicked accelerator
- Decoherence alias Loschmidt echo of the environment
- Gravity-Sensitive Quantum Dynamics in Cold Atoms
- The manifestation of quantum resonances and antiresonances in a finite temperature dilute atomic gas
- Quantum resonances in an atom-optical delta-kicked harmonic oscillator
- Quantum Mechanical Cumulant Dynamics near Stable Periodic Orbits in Phase Space: Application to the classical-like dynamics of quantum accelerator modes
- Power-law behavior in the quantum-resonant evolution of the delta-kicked accelerator
- Fractional resonances in the atom-optical delta-kicked accelerator
- An -pseudoclassical model for quantum resonances in a cold dilute atomic gas periodically driven by finite-duration standing-wave laser pulses
- Non-monotonic diffusion rates in atom-optics Lévy kicked rotor
- Spinor Dynamics of Quantum Accelerator Modes near Higher Order Resonances