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Journal of the Optical Society of America B

Model for mirrorless optical multiple bistability due to increasing and decreasing absorption

Joseph W. Haus, Chi C. Sung, C. M. Bowden, J. M. Cookt

Published Dec 1, 1985• 14 citations
Publisher

Abstract

Heat conduction and propagation of the electromagnetic field as well as temperature-dependent absorption are considered in a model for mirrorless optical bistability. The effects of temperature and laser-frequency detuning are calculated and discussed. It is shown that the multiple bistability of output intensity as a function of input intensity can be induced and controlled by the temperature boundary conditions. It is emphasized that changes in these boundary conditions determine the details of the transmission characteristics.

DOI
10.1364/josab.2.001920

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Heat conduction and propagation of the electromagnetic field as well as temperature-dependent absorption are considered in a model for mirrorless optical bistability. The effects of temperature and laser-frequency detuning are calculated and discussed. It is shown that the multiple bistability of output intensity as a function of input intensity can be induced and controlled by the temperature boundary conditions. It is emphasized that changes in these boundary conditions determine the details of the transmission characteristics.
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