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Physical Review Letters

Time-Dependent Photoelectric Counting Statistics for a Q -Switched Laser near Threshold

David W. Meltzer, L. Mandeļ

Published Nov 23, 1970• 19 citations
Publisher
DOI
10.1103/physrevlett.25.1536.2

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Time-Dependent Photoelectric Counting Statistics for a Q -Switched Laser Near Threshold

David W. Meltzer, L. Mandeļ

The time-dependent variation of the photoelectric counting probability has been measured for a $Q$-switched single-mode laser, whose steady state is in the neighborhood of the threshold of oscillation. The mean and the variance of the instantaneous light intensity, at various times and for various pump parameters, are derived and found to be in very good agreement with the values predicted by Risken and Vollmer.

Physical Review Letters•Oct 26, 1970•40 citations

Dynamics of a Q-Switched Laser near Threshold

David W. Meltzer, L. Mandeļ

The time evolution of the optical field produced by a $Q$-switched He:Ne laser has been investigated experimentally, in the neighborhood of the threshold of oscillation. The experiment was based on a measurement of the variation of the photoelectric counting probability with time, following the turn-on of the laser. $Q$ switching was achieved with the help of an external mirror to extinguish the laser, and a Pockels cell to switch out the mirror. The working point of the laser could be held anywhere in the threshold region, by use of a feedback arrangement which controlled the cavity length, and therefore the atomic gain. Results are presented showing the evolution of the mean light intensity, the variance of the light intensity, and the counting probability with time, for several different values of the laser pump parameter. The results are found to be in very good agreement with the calculations of Risken and Vollmer, based on a rotating-wave van der Pol oscillator model of the laser.

Physical Review A•May 1, 1971•40 citations
The time-dependent variation of the photoelectric counting probability has been measured for a QQQ-switched single-mode laser, whose steady state is in the neighborhood of the threshold of oscillation. The mean and the variance of the instantaneous light intensity, at various times and for various pump parameters, are derived and found to be in very good agreement with the values predicted by Risken and Vollmer.
The time evolution of the optical field produced by a QQQ-switched He:Ne laser has been investigated experimentally, in the neighborhood of the threshold of oscillation. The experiment was based on a measurement of the variation of the photoelectric counting probability with time, following the turn-on of the laser. QQQ switching was achieved with the help of an external mirror to extinguish the laser, and a Pockels cell to switch out the mirror. The working point of the laser could be held anywhere in the threshold region, by use of a feedback arrangement which controlled the cavity length, and therefore the atomic gain. Results are presented showing the evolution of the mean light intensity, the variance of the light intensity, and the counting probability with time, for several different values of the laser pump parameter. The results are found to be in very good agreement with the calculations of Risken and Vollmer, based on a rotating-wave van der Pol oscillator model of the laser.