Simulations of recombination lasing in Ar7(+) driven by optical field ionization in a capillary discharge waveguide

We present calculations of the small-signal gain coefficient, gain length, and output energy of a recombination laser in Ar7+ driven by optical field ionization. Simulations are presented for both 400 and 800 nm pump radiation, and for two targets containing mixtures of argon and hydrogen: a gas cel...

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Main Authors: Spence, D, Hooker, S
Format: Journal article
Language:English
Published: 2005
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author Spence, D
Hooker, S
author_facet Spence, D
Hooker, S
author_sort Spence, D
collection OXFORD
description We present calculations of the small-signal gain coefficient, gain length, and output energy of a recombination laser in Ar7+ driven by optical field ionization. Simulations are presented for both 400 and 800 nm pump radiation, and for two targets containing mixtures of argon and hydrogen: a gas cell, and a gas-filled capillary discharge waveguide. Extremely high values for the small-signal gain coefficient are calculated for the 4s-3p transition at 23.2 nm using a pump wavelength of 400 nm for both the gas cell and waveguide. Operation in the waveguide is predicted to greatly increase the XUV laser output owing to a large increase of the gain length. The calculations also show that use of the waveguide allows significant single-pass gain to be achieved even with pump radiation of 800 nm wavelength. © 2005 Elsevier B.V. All rights reserved.
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spelling oxford-uuid:699f5a42-6557-45dc-b12e-0b381a858e472022-03-26T18:52:07ZSimulations of recombination lasing in Ar7(+) driven by optical field ionization in a capillary discharge waveguideJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:699f5a42-6557-45dc-b12e-0b381a858e47EnglishSymplectic Elements at Oxford2005Spence, DHooker, SWe present calculations of the small-signal gain coefficient, gain length, and output energy of a recombination laser in Ar7+ driven by optical field ionization. Simulations are presented for both 400 and 800 nm pump radiation, and for two targets containing mixtures of argon and hydrogen: a gas cell, and a gas-filled capillary discharge waveguide. Extremely high values for the small-signal gain coefficient are calculated for the 4s-3p transition at 23.2 nm using a pump wavelength of 400 nm for both the gas cell and waveguide. Operation in the waveguide is predicted to greatly increase the XUV laser output owing to a large increase of the gain length. The calculations also show that use of the waveguide allows significant single-pass gain to be achieved even with pump radiation of 800 nm wavelength. © 2005 Elsevier B.V. All rights reserved.
spellingShingle Spence, D
Hooker, S
Simulations of recombination lasing in Ar7(+) driven by optical field ionization in a capillary discharge waveguide
title Simulations of recombination lasing in Ar7(+) driven by optical field ionization in a capillary discharge waveguide
title_full Simulations of recombination lasing in Ar7(+) driven by optical field ionization in a capillary discharge waveguide
title_fullStr Simulations of recombination lasing in Ar7(+) driven by optical field ionization in a capillary discharge waveguide
title_full_unstemmed Simulations of recombination lasing in Ar7(+) driven by optical field ionization in a capillary discharge waveguide
title_short Simulations of recombination lasing in Ar7(+) driven by optical field ionization in a capillary discharge waveguide
title_sort simulations of recombination lasing in ar7 driven by optical field ionization in a capillary discharge waveguide
work_keys_str_mv AT spenced simulationsofrecombinationlasinginar7drivenbyopticalfieldionizationinacapillarydischargewaveguide
AT hookers simulationsofrecombinationlasinginar7drivenbyopticalfieldionizationinacapillarydischargewaveguide