Electric field dissociation of H-2(+): close-coupled scattering calculations

Close-coupling scattering calculations have been carried out to predict the magnitude of electric fields required to dissociate specific vibration-rotation levels in H2+. Results for electric fields up to 40 kV cm-1, which may dissociate levels up to 25 cm-1 below the dissociation limit, are present...

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Main Authors: Leach, C, Child, MS, Manolopoulos, D
Format: Journal article
Language:English
Published: 1999
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author Leach, C
Child, MS
Manolopoulos, D
author_facet Leach, C
Child, MS
Manolopoulos, D
author_sort Leach, C
collection OXFORD
description Close-coupling scattering calculations have been carried out to predict the magnitude of electric fields required to dissociate specific vibration-rotation levels in H2+. Results for electric fields up to 40 kV cm-1, which may dissociate levels up to 25 cm-1 below the dissociation limit, are presented. The results are used to simulate spectra which are compared with experimental spectra. A method for extracting the eigenphase sum from a coupled channel scattering calculation is described in the appendix and used in the calculations. © 1999 Taylor and Francis Ltd.
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spelling oxford-uuid:01b4985f-2fd2-423e-a790-3f2b491b4c712022-03-26T08:36:30ZElectric field dissociation of H-2(+): close-coupled scattering calculationsJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:01b4985f-2fd2-423e-a790-3f2b491b4c71EnglishSymplectic Elements at Oxford1999Leach, CChild, MSManolopoulos, DClose-coupling scattering calculations have been carried out to predict the magnitude of electric fields required to dissociate specific vibration-rotation levels in H2+. Results for electric fields up to 40 kV cm-1, which may dissociate levels up to 25 cm-1 below the dissociation limit, are presented. The results are used to simulate spectra which are compared with experimental spectra. A method for extracting the eigenphase sum from a coupled channel scattering calculation is described in the appendix and used in the calculations. © 1999 Taylor and Francis Ltd.
spellingShingle Leach, C
Child, MS
Manolopoulos, D
Electric field dissociation of H-2(+): close-coupled scattering calculations
title Electric field dissociation of H-2(+): close-coupled scattering calculations
title_full Electric field dissociation of H-2(+): close-coupled scattering calculations
title_fullStr Electric field dissociation of H-2(+): close-coupled scattering calculations
title_full_unstemmed Electric field dissociation of H-2(+): close-coupled scattering calculations
title_short Electric field dissociation of H-2(+): close-coupled scattering calculations
title_sort electric field dissociation of h 2 close coupled scattering calculations
work_keys_str_mv AT leachc electricfielddissociationofh2closecoupledscatteringcalculations
AT childms electricfielddissociationofh2closecoupledscatteringcalculations
AT manolopoulosd electricfielddissociationofh2closecoupledscatteringcalculations