Intuitive, reproducible high-throughput molecular dynamics in Galaxy: a tutorial

Abstract This paper is a tutorial developed for the data analysis platform Galaxy. The purpose of Galaxy is to make high-throughput computational data analysis, such as molecular dynamics, a structured, reproducible and transparent process. In this tutorial we focus on 3 questions: How are protein-l...

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Main Authors: Simon A. Bray, Tharindu Senapathi, Christopher B. Barnett, Björn A. Grüning
Format: Article
Language:English
Published: BMC 2020-09-01
Series:Journal of Cheminformatics
Subjects:
Online Access:http://link.springer.com/article/10.1186/s13321-020-00451-6
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spelling doaj-97899385994e41b0a076064064b6661b2020-11-25T03:22:02ZengBMCJournal of Cheminformatics1758-29462020-09-0112111310.1186/s13321-020-00451-6Intuitive, reproducible high-throughput molecular dynamics in Galaxy: a tutorialSimon A. Bray0Tharindu Senapathi1Christopher B. Barnett2Björn A. Grüning3Department of Computer Science, University of FreiburgDepartment of Chemistry and Scientific Computing Research Unit, University of Cape TownDepartment of Chemistry and Scientific Computing Research Unit, University of Cape TownDepartment of Computer Science, University of FreiburgAbstract This paper is a tutorial developed for the data analysis platform Galaxy. The purpose of Galaxy is to make high-throughput computational data analysis, such as molecular dynamics, a structured, reproducible and transparent process. In this tutorial we focus on 3 questions: How are protein-ligand systems parameterized for molecular dynamics simulation? What kind of analysis can be carried out on molecular trajectories? How can high-throughput MD be used to study multiple ligands? After finishing you will have learned about force-fields and MD parameterization, how to conduct MD simulation and analysis for a protein-ligand system, and understand how different molecular interactions contribute to the binding affinity of ligands to the Hsp90 protein.http://link.springer.com/article/10.1186/s13321-020-00451-6GalaxyMolecular DynamicsReproducible
collection DOAJ
language English
format Article
sources DOAJ
author Simon A. Bray
Tharindu Senapathi
Christopher B. Barnett
Björn A. Grüning
spellingShingle Simon A. Bray
Tharindu Senapathi
Christopher B. Barnett
Björn A. Grüning
Intuitive, reproducible high-throughput molecular dynamics in Galaxy: a tutorial
Journal of Cheminformatics
Galaxy
Molecular Dynamics
Reproducible
author_facet Simon A. Bray
Tharindu Senapathi
Christopher B. Barnett
Björn A. Grüning
author_sort Simon A. Bray
title Intuitive, reproducible high-throughput molecular dynamics in Galaxy: a tutorial
title_short Intuitive, reproducible high-throughput molecular dynamics in Galaxy: a tutorial
title_full Intuitive, reproducible high-throughput molecular dynamics in Galaxy: a tutorial
title_fullStr Intuitive, reproducible high-throughput molecular dynamics in Galaxy: a tutorial
title_full_unstemmed Intuitive, reproducible high-throughput molecular dynamics in Galaxy: a tutorial
title_sort intuitive, reproducible high-throughput molecular dynamics in galaxy: a tutorial
publisher BMC
series Journal of Cheminformatics
issn 1758-2946
publishDate 2020-09-01
description Abstract This paper is a tutorial developed for the data analysis platform Galaxy. The purpose of Galaxy is to make high-throughput computational data analysis, such as molecular dynamics, a structured, reproducible and transparent process. In this tutorial we focus on 3 questions: How are protein-ligand systems parameterized for molecular dynamics simulation? What kind of analysis can be carried out on molecular trajectories? How can high-throughput MD be used to study multiple ligands? After finishing you will have learned about force-fields and MD parameterization, how to conduct MD simulation and analysis for a protein-ligand system, and understand how different molecular interactions contribute to the binding affinity of ligands to the Hsp90 protein.
topic Galaxy
Molecular Dynamics
Reproducible
url http://link.springer.com/article/10.1186/s13321-020-00451-6
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