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Nonlinear Hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactions
This brief presents numerical methods for describing and calculating invariant phase space structures, as well as solving the classical and quantum equations of motion for polyatomic molecules. Examples covered include simple model systems to realistic cases of molecules spectroscopically studied. V...
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Lenguaje: | eng |
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Springer
2014
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Acceso en línea: | http://cds.cern.ch/record/2279062 |
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author | Farantos, Stavros C |
author_facet | Farantos, Stavros C |
author_sort | Farantos, Stavros C |
collection | CERN |
description | This brief presents numerical methods for describing and calculating invariant phase space structures, as well as solving the classical and quantum equations of motion for polyatomic molecules. Examples covered include simple model systems to realistic cases of molecules spectroscopically studied. Vibrationally excited and reacting molecules are nonlinear dynamical systems, and thus, nonlinear mechanics is the proper theory to elucidate molecular dynamics by investigating invariant structures in phase space. Intramolecular energy transfer, and the breaking and forming of a chemical bond have now found a rigorous explanation by studying phase space structures. |
id | cern-2279062 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2014 |
publisher | Springer |
record_format | invenio |
spelling | cern-22790622021-04-21T19:06:47Zhttp://cds.cern.ch/record/2279062engFarantos, Stavros CNonlinear Hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactionsGeneral Theoretical PhysicsThis brief presents numerical methods for describing and calculating invariant phase space structures, as well as solving the classical and quantum equations of motion for polyatomic molecules. Examples covered include simple model systems to realistic cases of molecules spectroscopically studied. Vibrationally excited and reacting molecules are nonlinear dynamical systems, and thus, nonlinear mechanics is the proper theory to elucidate molecular dynamics by investigating invariant structures in phase space. Intramolecular energy transfer, and the breaking and forming of a chemical bond have now found a rigorous explanation by studying phase space structures.Springeroai:cds.cern.ch:22790622014 |
spellingShingle | General Theoretical Physics Farantos, Stavros C Nonlinear Hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactions |
title | Nonlinear Hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactions |
title_full | Nonlinear Hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactions |
title_fullStr | Nonlinear Hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactions |
title_full_unstemmed | Nonlinear Hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactions |
title_short | Nonlinear Hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactions |
title_sort | nonlinear hamiltonian mechanics applied to molecular dynamics: theory and computational methods for understanding molecular spectroscopy and chemical reactions |
topic | General Theoretical Physics |
url | http://cds.cern.ch/record/2279062 |
work_keys_str_mv | AT farantosstavrosc nonlinearhamiltonianmechanicsappliedtomoleculardynamicstheoryandcomputationalmethodsforunderstandingmolecularspectroscopyandchemicalreactions |