Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Nature

Nonlinear and quantum atom optics

S. L. Rolston, William D. Phillips

Published Mar 1, 2002• 113 citations
Publisher
DOI
10.1038/416219a

Related papers

Dissipative nonlinear quantum dynamics in atomic optics

Sigurd Dyrting, Gerard J Milburn

It is proposed that the atomic optical system of an ytterbium atom in a time-dependent optical standing wave be used to experimentally observe quantum nonlinear motion and, in particular, predict the quantum behavior of a system whose classical analog ranges from completely integrable, to near integrable, and finally to globally chaotic motion. We extend previous treatments to include spontaneous emission. From the study of theoretical models of dissipative quantum nonlinear motion, it is known that even small amounts of dissipation can significantly alter the quantum dynamics through the destruction of coherences. In this paper we present some theoretical and numerical results of the effect of spontaneous emission on nonlinear nonintegrable dynamics in atomic optics. When spontaneous emission is included, we show that the nature of the light-atom interaction introduces interesting features not usually investigated in models of dissipative quantum nonlinear dynamics. These include a potential that depends on the atom's internal state, a band structure, and a time-dependent dissipative process.

Physical Review A•Apr 1, 1995•19 citations

Nonlinear Quantum Optics with Few Atoms

Ullrich Martini, Christian Wagner, Axel Schenzle

Springer proceedings in physics•Jan 1, 1994•0 citations

Advances in quantum and atom optics

Journal of Optics B Quantum and Semiclassical Optics•Aug 1, 1999•0 citations

Nonlinear Optics of Matter Waves

We give a brief overview of how atomic physics is now developing in a way reminiscent of the optics revolution of the 1 9605. Thanks in particular to recent progress in atomic trapping and cooling, the new field of atom optics is rapidly leading to exciting new developments such as nonlinear atom optics and quantum atom optics . We illustrate these advances with examples out of our own research .

CRC Press eBooks•Jul 6, 2000•2 citations

Quantum Nonlinear Dynamics in Atom Optics

Sigurd Dyrting, Wenyu Chen, Gerard J Milburn

Springer proceedings in physics•Jan 1, 1994•0 citations

Nonlinear optics of matter waves

Elena V. Goldstein, M. G. Moore, O. Zobay +1 more

We give a brief overview of the way atomic physics is now developing in a way reminiscent of the optics revolution of the 1960's. Thanks in particular to recent developments in atomic trapping and cooling, the new field of atom optics is rapidly leading to exciting new developments such as nonlinear atom optics and quantum atom optics. We illustrate these developments with examples out of our own research.

arXiv:cond-mat/9807392•Jul 29, 1998•0 citations
It is proposed that the atomic optical system of an ytterbium atom in a time-dependent optical standing wave be used to experimentally observe quantum nonlinear motion and, in particular, predict the quantum behavior of a system whose classical analog ranges from completely integrable, to near integrable, and finally to globally chaotic motion. We extend previous treatments to include spontaneous emission. From the study of theoretical models of dissipative quantum nonlinear motion, it is known that even small amounts of dissipation can significantly alter the quantum dynamics through the destruction of coherences. In this paper we present some theoretical and numerical results of the effect of spontaneous emission on nonlinear nonintegrable dynamics in atomic optics. When spontaneous emission is included, we show that the nature of the light-atom interaction introduces interesting features not usually investigated in models of dissipative quantum nonlinear dynamics. These include a potential that depends on the atom's internal state, a band structure, and a time-dependent dissipative process.