Sign in
Systems BiologybioRxiv
Preprint

The genome design suite: enabling massive in-silico experiments to design genomes.

Oliver Chalkley, Oliver PurcelliD, Claire Suzanne GriersoniD, Lucia MarucciiD

Abstract

MotivationComputational biology is a rapidly developing field, and in-silico methods are being developed to aid the design of genomes to create cells with optimised phenotypes. Two barriers to progress are that in-silico methods are often only developed on a particular implementation of a specific model (e.g. COBRA metabolic models) and models with longer simulation time inhibit the large-scale in-silico experiments required to search the vast solution space of genome combinations.\n\nResultsHere we present the genome design suite (PyGDS) which is a suite of Python tools to aid the development of in-silico genome design methods. PyGDS provides a framework with which to implement phenotype optimisation algorithms on computational models across computer clusters. The framework is abstract allowing it to be adapted to utilise different computer clusters, optimisation algorithms, or design goals. It implements an abstract multi-generation algorithm structure allowing algorithms to avoid maximum simulation times on clusters and enabling iterative learning in the algorithm. The initial case study will be genome reduction algorithms on a whole-cell model of Mycoplasma genitalium for a PBS/Torque cluster and a Slurm cluster.\n\nAvailabilityThe genome design suite is written in Python for Linux operating systems and is available from GitHub on a GPL open-source licence.\n\nContacto.chalkley@bristol.ac.uk, lacsg@bristol.ac.uk, and lucia.marucci@bristol.ac.uk.

PDFDOI

02 /Specification & Classification

Click any tag to browse matching papers

Reproducibility ledger

Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.

Sign in to file a reproducibility report.

Similarity Map
SelectedSame fieldCross-field
THISRees '19Swainston '18Gherman '25Timmons '20Zulkower '20Starkey '22
66% semantic matchSynthetic Biology
Joshua Rees, Oliver Chalkley, Sophie Landon+3 more·bioRxiv·Mar 28, 2019· 4 citations