Light-Wave Mixing and Scattering with Quantum Gases

Published

May 21, 2013

Author(s)

Lu Deng, Chengjie Zhu, Edward W. Hagley

Abstract

We present a general theoretical framework on light-wave mixing and scattering in quantum gases. We show that all such processes that originate from elementary excitations are stimulated Raman or hyper-Raman in nature. In the forward direction, the third-harmic generation originated from elementary excitation is strongly suppressed but a contribution independent of atomic centerof- motion grows as in a normal gas. In the backward direction, the third harmoni generation from electronic excitation is strongly suppressed because of the large optical wave phase mismatch. However, a highly efficient light-wave mixing process originating from elementary excitation occurs, resulting in ultra-slow light wave propagation with stimulated Raman or hyper-Raman gain, and highly efficient collective atomic recoil motion.

Citation

Physical Review Letters

Volume

110

Issue

(21)

Pub Type

Journals

Download Paper

https://doi.org/10.1103/PhysRevLett.110.210401

Keywords

nonlinear optics, light wave mixing, Bose-Einstein condensation

Citation

Deng, L. , Zhu, C. and Hagley, E. (2013), Light-Wave Mixing and Scattering with Quantum Gases, Physical Review Letters, [online], https://doi.org/10.1103/PhysRevLett.110.210401 (Accessed June 7, 2023)