Semiclassical theory of dye lasers: the single-frequency and multifrequency steady states of operation
- 1 May 1988
- journal article
- Published by Optica Publishing Group in Journal of the Optical Society of America B
- Vol. 5 (5) , 899-908
- https://doi.org/10.1364/josab.5.000899
Abstract
A semiclassical theory of dye lasers is presented in which the relevant energy-level diagram of a dye molecule is assumed to consist of a bandlike ground state with many sublevels and an excited single state. This theory not only describes the single-frequency operation, which has a low instability threshold, but also describes the two-frequency and multifrequency steady states of operation and the transitions between the different steady states. The general solution of a multifrequency operation is given explicitly and differs essentially from the well-known Rabi oscillation. The theoretical predictions are in good agreement with recent experiments done by Hillman et al. [Phys. Rev. Lett. 52, 1605 (1984)], which cannot be explained by the conventional Maxwell—Bloch laser theory derived from twolevel atoms.Keywords
This publication has 15 references indexed in Scilit:
- Semiclassical dye-laser equations and the unidirectional single-frequency operationPhysical Review A, 1987
- Bichromatic emission in a ring dye laserPhysical Review A, 1987
- On the stability of a multimode inhomogeneously broadened ring laserOptics Communications, 1985
- Self-pulsing instability in inhomogeneously broadened traveling-wave lasersJournal of the Optical Society of America B, 1985
- Observation of Higher Order Dynamical States of a Homogeneously Broadened LaserPhysical Review Letters, 1984
- Influence of Lorentz broadening on the stability of monomode ring lasersOptics Communications, 1983
- Stability criteria for non-Doppler lasersPhysical Review A, 1981
- Stability criteria for high-intensity lasersPhysical Review A, 1980
- Spontaneous coherent pulsations in laser oscillatorsIEEE Journal of Quantum Electronics, 1978
- Theory of collision effects on atomic and molecular line shapesApplied Physics A, 1975