Molecular-dynamic calculation of the relaxation of the electron energy distribution function in a plasma

A molecular-dynamic (MD) code for calculating the relaxation of an arbitrary electron energy distribution in a plasma was described. The MD approach provided a more fundamental set of equations, with fewer assumptions. The accuracy of the MD approach was proved by comparing its results with the Mont...

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Những tác giả chính: David, N, Hooker, S
Định dạng: Journal article
Ngôn ngữ:English
Được phát hành: 2003
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author David, N
Hooker, S
author_facet David, N
Hooker, S
author_sort David, N
collection OXFORD
description A molecular-dynamic (MD) code for calculating the relaxation of an arbitrary electron energy distribution in a plasma was described. The MD approach provided a more fundamental set of equations, with fewer assumptions. The accuracy of the MD approach was proved by comparing its results with the Monte Carlo and Fokker-Planck codes using a set of plasma parameters for which the Fokker-Planck calculation gave incorrect results. Calculating energy relaxation in plasmas proved important for the understanding of the operation of new types of short-wavelength lasers based on optical field ionization.
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spelling oxford-uuid:c53f45ed-7488-4a70-a11d-ee82782d3e7c2022-03-27T06:29:27ZMolecular-dynamic calculation of the relaxation of the electron energy distribution function in a plasmaJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:c53f45ed-7488-4a70-a11d-ee82782d3e7cEnglishSymplectic Elements at Oxford2003David, NHooker, SA molecular-dynamic (MD) code for calculating the relaxation of an arbitrary electron energy distribution in a plasma was described. The MD approach provided a more fundamental set of equations, with fewer assumptions. The accuracy of the MD approach was proved by comparing its results with the Monte Carlo and Fokker-Planck codes using a set of plasma parameters for which the Fokker-Planck calculation gave incorrect results. Calculating energy relaxation in plasmas proved important for the understanding of the operation of new types of short-wavelength lasers based on optical field ionization.
spellingShingle David, N
Hooker, S
Molecular-dynamic calculation of the relaxation of the electron energy distribution function in a plasma
title Molecular-dynamic calculation of the relaxation of the electron energy distribution function in a plasma
title_full Molecular-dynamic calculation of the relaxation of the electron energy distribution function in a plasma
title_fullStr Molecular-dynamic calculation of the relaxation of the electron energy distribution function in a plasma
title_full_unstemmed Molecular-dynamic calculation of the relaxation of the electron energy distribution function in a plasma
title_short Molecular-dynamic calculation of the relaxation of the electron energy distribution function in a plasma
title_sort molecular dynamic calculation of the relaxation of the electron energy distribution function in a plasma
work_keys_str_mv AT davidn moleculardynamiccalculationoftherelaxationoftheelectronenergydistributionfunctioninaplasma
AT hookers moleculardynamiccalculationoftherelaxationoftheelectronenergydistributionfunctioninaplasma