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Journal of Xinyang Normal University

To realize laser guiding of atoms in a hollow optical fiber

Xiong Bao

Published Jan 1, 1999• 0 citations
OpenAlex

Abstract

We describe the history of laser guiding of atoms in a hollow optical fibers,theroretical analyses and the tenet of the experimental realizing and we research prespects,and look into possible apprications

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We have used optical forces to guide atoms through hollow-core optical fibers. Laser light is launched into the hollow region of a glass capillary fiber and guided by grazing-incidence reflection from the walls. When the laser is detuned 1--30 GHz red of the Rb D2 resonance lines, dipole forces attract atoms to the high-intensity region along the axis and guide them through the fiber. We show that atoms may be guided around bends in the fiber and that in initial experiments the atoms experience up to 18 reflections from the potential walls with minimal loss.
We use evanescent laser light to guide atoms through hollow-core optical fibers. The light, detuned to the blue side of rubidium's D2{D}_{2}D2​ resonance lines, is launched into the glass region of a hollow capillary fiber and guided through the fiber by total internal reflection from the glass walls. Atoms interacting with the evanescent component of the field are repelled from the wall and guided through the fiber hollow. A second laser tuned to the red side of resonance is used to initially inject the atoms into the evanescent guide. An optical intensity threshold for guiding is observed as the evanescent-field-induced dipole forces exceed the van der Waals forces.
Summary form only given. We present a theoretical model aimed at interpreting our experiments on optical guiding of neutral atoms through hollow-core fibers. We present calculations of the atomic flux of atoms guided through a fiber and investigate its dependence on the intensity of the laser light, detuning from the resonance and the fiber bend radius. For relatively short and/or large-diameter fibers the contribution of the nonconservative force is negligible and the experimental results are well described by the conservative contribution. In the opposite limit we find a clear signature of the viscous heating force manifested in the appearance of additional maxima in the dependence of the flux on the detuning and in the decrease of the flux with laser intensity.