Excitation of torsional modes of proteins via collisional energy transfer: A quantum dynamical approach

Quantum theory was applied for the simulation of torsional vibrations in a protein by collision with a solvent molecule. Time-dependent as well as time independent methods were used for solving the scattering problem, and individual excitation of torsional modes was analyzed. A mode-selective effect...

Полное описание

Библиографические подробности
Главные авторы: Clary, D, Meijer, A
Формат: Journal article
Язык:English
Опубликовано: 2002
_version_ 1826295119982100480
author Clary, D
Meijer, A
author_facet Clary, D
Meijer, A
author_sort Clary, D
collection OXFORD
description Quantum theory was applied for the simulation of torsional vibrations in a protein by collision with a solvent molecule. Time-dependent as well as time independent methods were used for solving the scattering problem, and individual excitation of torsional modes was analyzed. A mode-selective effect was found in the computations. Results showed that it was easier to excite backbone torsions than sidechain torsions in the protein.
first_indexed 2024-03-07T03:56:10Z
format Journal article
id oxford-uuid:c2ef12c7-3ad1-4c54-9b83-adaade386f6f
institution University of Oxford
language English
last_indexed 2024-03-07T03:56:10Z
publishDate 2002
record_format dspace
spelling oxford-uuid:c2ef12c7-3ad1-4c54-9b83-adaade386f6f2022-03-27T06:12:46ZExcitation of torsional modes of proteins via collisional energy transfer: A quantum dynamical approachJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:c2ef12c7-3ad1-4c54-9b83-adaade386f6fEnglishSymplectic Elements at Oxford2002Clary, DMeijer, AQuantum theory was applied for the simulation of torsional vibrations in a protein by collision with a solvent molecule. Time-dependent as well as time independent methods were used for solving the scattering problem, and individual excitation of torsional modes was analyzed. A mode-selective effect was found in the computations. Results showed that it was easier to excite backbone torsions than sidechain torsions in the protein.
spellingShingle Clary, D
Meijer, A
Excitation of torsional modes of proteins via collisional energy transfer: A quantum dynamical approach
title Excitation of torsional modes of proteins via collisional energy transfer: A quantum dynamical approach
title_full Excitation of torsional modes of proteins via collisional energy transfer: A quantum dynamical approach
title_fullStr Excitation of torsional modes of proteins via collisional energy transfer: A quantum dynamical approach
title_full_unstemmed Excitation of torsional modes of proteins via collisional energy transfer: A quantum dynamical approach
title_short Excitation of torsional modes of proteins via collisional energy transfer: A quantum dynamical approach
title_sort excitation of torsional modes of proteins via collisional energy transfer a quantum dynamical approach
work_keys_str_mv AT claryd excitationoftorsionalmodesofproteinsviacollisionalenergytransferaquantumdynamicalapproach
AT meijera excitationoftorsionalmodesofproteinsviacollisionalenergytransferaquantumdynamicalapproach