Modelling functional motions of biological systems by customised natural moves
Simulating the functional motions of biomolecular systems requires large computational resources. We introduce a computationally inexpensive protocol for the systematic testing of hypotheses regarding the dynamic behaviour of proteins and nucleic acids. The protocol is based on Natural Move Monte Ca...
Main Authors: | , , , |
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Format: | Journal article |
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Biophysical Society
2016
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_version_ | 1826281666895675392 |
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author | Demharter,, S Knapp, B Deane, C Minary, P |
author_facet | Demharter,, S Knapp, B Deane, C Minary, P |
author_sort | Demharter,, S |
collection | OXFORD |
description | Simulating the functional motions of biomolecular systems requires large computational resources. We introduce a computationally inexpensive protocol for the systematic testing of hypotheses regarding the dynamic behaviour of proteins and nucleic acids. The protocol is based on Natural Move Monte Carlo, a highly efficient conformational sampling method with in-built customisation capabilities that allows researchers to design and perform a large number of simulations to investigate functionalmotions in biological systems. We demonstrate the use of this protocol on both a protein and a DNA case study. Firstly, we investigate the plasticity of a class II major-histo-compatibility complex in the absence of a bound peptide. Secondly, we study the effects of the epigenetic mark 5-hydroxymethyl on cytosine on the structure of the Dickerson-Drew dodecamer. We show how our customised Natural Moves protocol can be used to investigate causal relationships of functional motions in biological systems. |
first_indexed | 2024-03-07T00:32:14Z |
format | Journal article |
id | oxford-uuid:80368733-4299-4ff6-abca-f32372c41f55 |
institution | University of Oxford |
last_indexed | 2024-03-07T00:32:14Z |
publishDate | 2016 |
publisher | Biophysical Society |
record_format | dspace |
spelling | oxford-uuid:80368733-4299-4ff6-abca-f32372c41f552022-03-26T21:21:48ZModelling functional motions of biological systems by customised natural movesJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:80368733-4299-4ff6-abca-f32372c41f55Symplectic Elements at OxfordBiophysical Society2016Demharter,, SKnapp, BDeane, CMinary, PSimulating the functional motions of biomolecular systems requires large computational resources. We introduce a computationally inexpensive protocol for the systematic testing of hypotheses regarding the dynamic behaviour of proteins and nucleic acids. The protocol is based on Natural Move Monte Carlo, a highly efficient conformational sampling method with in-built customisation capabilities that allows researchers to design and perform a large number of simulations to investigate functionalmotions in biological systems. We demonstrate the use of this protocol on both a protein and a DNA case study. Firstly, we investigate the plasticity of a class II major-histo-compatibility complex in the absence of a bound peptide. Secondly, we study the effects of the epigenetic mark 5-hydroxymethyl on cytosine on the structure of the Dickerson-Drew dodecamer. We show how our customised Natural Moves protocol can be used to investigate causal relationships of functional motions in biological systems. |
spellingShingle | Demharter,, S Knapp, B Deane, C Minary, P Modelling functional motions of biological systems by customised natural moves |
title | Modelling functional motions of biological systems by customised natural moves |
title_full | Modelling functional motions of biological systems by customised natural moves |
title_fullStr | Modelling functional motions of biological systems by customised natural moves |
title_full_unstemmed | Modelling functional motions of biological systems by customised natural moves |
title_short | Modelling functional motions of biological systems by customised natural moves |
title_sort | modelling functional motions of biological systems by customised natural moves |
work_keys_str_mv | AT demharters modellingfunctionalmotionsofbiologicalsystemsbycustomisednaturalmoves AT knappb modellingfunctionalmotionsofbiologicalsystemsbycustomisednaturalmoves AT deanec modellingfunctionalmotionsofbiologicalsystemsbycustomisednaturalmoves AT minaryp modellingfunctionalmotionsofbiologicalsystemsbycustomisednaturalmoves |