QUANTUM FLUX REDISTRIBUTION DURING MOLECULAR PHOTODISSOCIATION

A new method proposed recently by Alexander for studying the mechanisms of inelastic collisions is adapted to the study of molecular photodissociation. This adaptation involves the determination of the current density associated with a driven photodissociation wave function at each fixed scattering...

Full description

Bibliographic Details
Main Authors: Manolopoulos, D, Alexander, M
Format: Journal article
Published: 1992
_version_ 1797100425287041024
author Manolopoulos, D
Alexander, M
author_facet Manolopoulos, D
Alexander, M
author_sort Manolopoulos, D
collection OXFORD
description A new method proposed recently by Alexander for studying the mechanisms of inelastic collisions is adapted to the study of molecular photodissociation. This adaptation involves the determination of the current density associated with a driven photodissociation wave function at each fixed scattering energy, and yields a picture of how, as a function of the dissociation coordinate, the outgoing photofragment flux rises in the Franck-Condon region on absorption of the photon and how it redistributes between the available internal channels as the photofragments move apart. This picture complements the usual time-dependent picture of photodissociation, allowing one in particular to analyze the mechanism of the photodissociation in detail at each individual excitation laser frequency. A study of flux redistribution in a simple two-state model for the electronically nonadiabatic photodissociation of methyl iodide is presented as a first illustration of the approach. © 1992 American Institute of Physics.
first_indexed 2024-03-07T05:37:18Z
format Journal article
id oxford-uuid:e45c61d0-11aa-4d8c-ab81-b78a09c2d20e
institution University of Oxford
last_indexed 2024-03-07T05:37:18Z
publishDate 1992
record_format dspace
spelling oxford-uuid:e45c61d0-11aa-4d8c-ab81-b78a09c2d20e2022-03-27T10:15:56ZQUANTUM FLUX REDISTRIBUTION DURING MOLECULAR PHOTODISSOCIATIONJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:e45c61d0-11aa-4d8c-ab81-b78a09c2d20eSymplectic Elements at Oxford1992Manolopoulos, DAlexander, MA new method proposed recently by Alexander for studying the mechanisms of inelastic collisions is adapted to the study of molecular photodissociation. This adaptation involves the determination of the current density associated with a driven photodissociation wave function at each fixed scattering energy, and yields a picture of how, as a function of the dissociation coordinate, the outgoing photofragment flux rises in the Franck-Condon region on absorption of the photon and how it redistributes between the available internal channels as the photofragments move apart. This picture complements the usual time-dependent picture of photodissociation, allowing one in particular to analyze the mechanism of the photodissociation in detail at each individual excitation laser frequency. A study of flux redistribution in a simple two-state model for the electronically nonadiabatic photodissociation of methyl iodide is presented as a first illustration of the approach. © 1992 American Institute of Physics.
spellingShingle Manolopoulos, D
Alexander, M
QUANTUM FLUX REDISTRIBUTION DURING MOLECULAR PHOTODISSOCIATION
title QUANTUM FLUX REDISTRIBUTION DURING MOLECULAR PHOTODISSOCIATION
title_full QUANTUM FLUX REDISTRIBUTION DURING MOLECULAR PHOTODISSOCIATION
title_fullStr QUANTUM FLUX REDISTRIBUTION DURING MOLECULAR PHOTODISSOCIATION
title_full_unstemmed QUANTUM FLUX REDISTRIBUTION DURING MOLECULAR PHOTODISSOCIATION
title_short QUANTUM FLUX REDISTRIBUTION DURING MOLECULAR PHOTODISSOCIATION
title_sort quantum flux redistribution during molecular photodissociation
work_keys_str_mv AT manolopoulosd quantumfluxredistributionduringmolecularphotodissociation
AT alexanderm quantumfluxredistributionduringmolecularphotodissociation