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Physical Review A

Hysteresis loop with controllable shape and direction in an optical ring cavity

Amitabh Joshi, Wenge Yang, Min Xiao

Published Oct 14, 2004• 39 citations
Publisher

Abstract

We have experimentally observed a ``backward'' (clockwise rotating) hysteresis cycle in the system of an optical ring cavity containing three-level ($\ensuremath{\Lambda}$-type configuration) rubidium atoms. The shape and direction of the observed hysteresis cycles can be easily controlled with experimental parameters. Such an interesting phenomenon is caused by the greatly modified absorption, dispersion, and nonlinear optical properties of the three-level atomic medium, due to the induced atomic coherence.

DOI
10.1103/physreva.70.041802

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Physical Review A•Sep 22, 2004•19 citations
We have experimentally observed a ``backward'' (clockwise rotating) hysteresis cycle in the system of an optical ring cavity containing three-level (\ensuremathΛ\ensuremath{\Lambda}\ensuremathΛ-type configuration) rubidium atoms. The shape and direction of the observed hysteresis cycles can be easily controlled with experimental parameters. Such an interesting phenomenon is caused by the greatly modified absorption, dispersion, and nonlinear optical properties of the three-level atomic medium, due to the induced atomic coherence.
We have experimentally studied the optical bistable behavior in an optical ring cavity filled with a collection of three-level $\ensuremath{\Lambda}$-type rubidium atoms, interacting with two collinearly propagating laser beams. The bistability so observed is very sensitive to the induced atomic coherence in this electromagnetically induced transparency system or consequently to the altered nonlinearity in the system and, thus, can easily be controlled by changing the intensity and the frequency detuning of the coupling field.
Dynamic instability and chaos are experimentally observed in the output field of an optical cavity consisting of three-level atoms near the condition of electromagnetically induced transparency (EIT). The observed dynamic instability and route to chaos can be well controlled by the coupling laser field, and are greatly enhanced by the modified absorption, dispersion, and nonlinearity due to induced atomic coherence in the three-level atomic EIT system. A theoretical model is developed to quantitatively explain the observed results.
Dynamic instability in the transmission field of an optical ring cavity containing three-level $\ensuremath{\Lambda}$-type rubidium atoms is studied in detail both experimentally and theoretically. The onset and periodicity of such dynamic oscillations in the cavity field can be controlled by the experimental parameters, such as intensity and frequency detuning of the coupling field and∕or cavity field. Such nonlinear dynamic behavior is caused by competition between optical saturation of the cavity field and optical population pumping by the coupling field in the three-level atomic system.