An Excimer XeCl Minilaser

An electric-discharge XeCl minilaser and the results of its experimental modeling are described. The laser uses a two-stage system of magnetic compression of current pulses, semiconductor high-voltage bipolar transistors as a switch, and preionization of the working medium by barrier discharge radia...

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Published in:Atmospheric and oceanic optics 2022-10, Vol.35 (5), p.601-605
Main Authors: Anufrick, S. S., Volodenkov, A. P., Znosko, K. F., Losev, V. F.
Format: Article
Language:English
Subjects:
Bipolar transistors
Capacitors
Compression
Current pulses
Discharge
Excimers
Lasers
Magnetic compression
Optical Devices
Optical Sources and Receivers for Environmental Studies
Optics
Photonics
Physics
Physics and Astronomy
Preionization
Pulse duration
Radiation
Semiconductor devices
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container_title Atmospheric and oceanic optics
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creator Anufrick, S. S.
Volodenkov, A. P.
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Losev, V. F.
description An electric-discharge XeCl minilaser and the results of its experimental modeling are described. The laser uses a two-stage system of magnetic compression of current pulses, semiconductor high-voltage bipolar transistors as a switch, and preionization of the working medium by barrier discharge radiation from under the grid electrode. The dependence of the output parameters of the minilaser on the excitation conditions and the composition of the active medium is derived. The maximal pulse energy of ∼12 mJ was obtained for a mixture 1.5 Torr HCl + 15 Torr Xe + 4 atm Ne at a voltage across the peaking capacitor of 20 kV and a lasing pulse duration at half maximum of ∼20 ns. The efficiency of the XeCl minilaser in terms of the energy stored in the sharpening capacitor is ∼4%.
doi_str_mv 10.1134/S1024856022050049
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source Springer Nature
subjects Bipolar transistors
Capacitors
Compression
Current pulses
Discharge
Excimers
Lasers
Magnetic compression
Optical Devices
Optical Sources and Receivers for Environmental Studies
Optics
Photonics
Physics
Physics and Astronomy
Preionization
Pulse duration
Radiation
Semiconductor devices
title An Excimer XeCl Minilaser
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