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

Trapping Atoms with Evanescent Light Fields from Integrated Waveguides, ed. by Y.B. Band

J. P. Burke, S T. Chu, Garnett W. Bryant, Carl J. Williams, Paul S. Julienne

Published Jan 1, 2001• 0 citations
OpenAlex

Related papers

Evanescent Light-Wave Atom Mirrors, Resonators, Waveguides, and Traps

Jonathan P. Dowling, Julio R. Gea-Banacloche

Advances in atomic, molecular, and optical physics•Jan 1, 1996•154 citations

Atom waveguide and 1D optical lattice using a two-color evanescent light field around an optical micro/nano-fiber

符建, 殷响, 李宁远 +1 more

Chinese Optics Letters•Jan 1, 2008•0 citations

Designing neutral-atom nanotraps with integrated optical waveguides

James P. Burke, Sai-Tak Chu, Garnett W. Bryant +2 more

Integrated optical structures offer the intriguing potential of compact, reproducible waveguide arrays, rings, Y junctions, etc., that could be used to design evanescent field traps to transport, store, and interact atoms in networks as complicated as any integrated optical waveguide circuit. We theoretically investigate three approaches to trapping atoms above linear integrated optical waveguides. A two-color scheme balances the decaying evanescent fields of red- and blue-detuned light to produce a potential minimum above the guide. A one-color surface trap proposal uses blue-detuned light and the attractive surface interaction to provide a potential minimum. A third proposal uses blue-detuned light in two guides positioned above and below one another. The atoms are confined to the ``dark'' spot in the vacuum gap between the guides. We find that all three approaches can be used to trap atoms in two or three dimensions with approximately 100 mW of laser power. We show that the dark spot guide is robust to light scatter and provides the most viable approach for constructing integrated optical circuits that could be used to transport and manipulate atoms in a controlled manner.

Physical Review A•Apr 4, 2002•56 citations

Atom Optics Using an Optical Waveguide-Based Evanescent Field

Rajani Ayachitula

•Jan 1, 2010•0 citations

Atomic waveguide using evanescent waves in a hollow fiber

Haruhiko Ito, Keiji Sakaki, Takeshi Nakata +2 more

Quantum Electronics and Laser Science Conference•May 22, 1995•0 citations

Trapping atoms with evanescent light fields from integrated optical waveguides

James P. Burke, Jr., Sai T. Chu, Garnett W. Bryant +2 more

We theoretically investigate three approaches to trapping atoms above linear integrated optical waveguides. A two- color scheme balances the decaying evanescent elds of red- and blue-detuned light to produce a potential minimum above the guide. A one-color surface trap proposal uses blue-detuned light and the attractive surface interaction to provide a potential minimum. A third proposal uses blue-detuned light in two guides positioned above and below one another. The atoms are con ned to the \dark" spot in the vacuum gap between the guides. We nd that all three approaches can be used in principle to trap atoms in two- or three-dimensions with a few 10's of mW of laser power. Of these three methods, we show that the dark spot guide is the most robust to power fluctuations and provides the most viable design approach to constructing integrated optical circuits that could transport and manipulate atoms in a controlled manner.

Proceedings of SPIE, the International Society for Optical Engineering/Proceedings of SPIE•Apr 12, 2001•0 citations
Integrated optical structures offer the intriguing potential of compact, reproducible waveguide arrays, rings, Y junctions, etc., that could be used to design evanescent field traps to transport, store, and interact atoms in networks as complicated as any integrated optical waveguide circuit. We theoretically investigate three approaches to trapping atoms above linear integrated optical waveguides. A two-color scheme balances the decaying evanescent fields of red- and blue-detuned light to produce a potential minimum above the guide. A one-color surface trap proposal uses blue-detuned light and the attractive surface interaction to provide a potential minimum. A third proposal uses blue-detuned light in two guides positioned above and below one another. The atoms are confined to the ``dark'' spot in the vacuum gap between the guides. We find that all three approaches can be used to trap atoms in two or three dimensions with approximately 100 mW of laser power. We show that the dark spot guide is robust to light scatter and provides the most viable approach for constructing integrated optical circuits that could be used to transport and manipulate atoms in a controlled manner.
We theoretically investigate three approaches to trapping atoms above linear integrated optical waveguides. A two- color scheme balances the decaying evanescent elds of red- and blue-detuned light to produce a potential minimum above the guide. A one-color surface trap proposal uses blue-detuned light and the attractive surface interaction to provide a potential minimum. A third proposal uses blue-detuned light in two guides positioned above and below one another. The atoms are con ned to the \dark" spot in the vacuum gap between the guides. We nd that all three approaches can be used in principle to trap atoms in two- or three-dimensions with a few 10's of mW of laser power. Of these three methods, we show that the dark spot guide is the most robust to power fluctuations and provides the most viable design approach to constructing integrated optical circuits that could transport and manipulate atoms in a controlled manner.