A systems biology approach for studying Wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.

Wolbachia are alpha-proteobacteria known to infect arthropods, which are of interest for disease control since they have been associated with improved resistance to viral infection. Although several genomes for different strains have been sequenced, there is little knowledge regarding the relationsh...

Full description

Bibliographic Details
Main Authors: Natalia E Jiménez, Ziomara P Gerdtzen, Álvaro Olivera-Nappa, J Cristian Salgado, Carlos Conca
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2019-08-01
Series:PLoS Neglected Tropical Diseases
Online Access:https://doi.org/10.1371/journal.pntd.0007678
id doaj-71188ce1086c431ab57334c5be76f128
record_format Article
spelling doaj-71188ce1086c431ab57334c5be76f1282021-04-21T23:53:46ZengPublic Library of Science (PLoS)PLoS Neglected Tropical Diseases1935-27271935-27352019-08-01138e000767810.1371/journal.pntd.0007678A systems biology approach for studying Wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.Natalia E JiménezZiomara P GerdtzenÁlvaro Olivera-NappaJ Cristian SalgadoCarlos ConcaWolbachia are alpha-proteobacteria known to infect arthropods, which are of interest for disease control since they have been associated with improved resistance to viral infection. Although several genomes for different strains have been sequenced, there is little knowledge regarding the relationship between this bacterium and their hosts, particularly on their dependency for survival. Motivated by the potential applications on disease control, we developed genome-scale models of four Wolbachia strains known to infect arthropods: wAlbB (Aedes albopictus), wVitA (Nasonia vitripennis), wMel and wMelPop (Drosophila melanogaster). The obtained metabolic reconstructions exhibit a metabolism relying mainly on amino acids for energy production and biomass synthesis. A gap analysis was performed to detect metabolic candidates which could explain the endosymbiotic nature of this bacterium, finding that amino acids, requirements for ubiquinone precursors and provisioning of metabolites such as riboflavin could play a crucial role in this relationship. This work provides a systems biology perspective for studying the relationship of Wolbachia with its host and the development of new approaches for control of the spread of arboviral diseases. This approach, where metabolic gaps are key objects of study instead of just additions to complete a model, could be applied to other endosymbiotic bacteria of interest.https://doi.org/10.1371/journal.pntd.0007678
collection DOAJ
language English
format Article
sources DOAJ
author Natalia E Jiménez
Ziomara P Gerdtzen
Álvaro Olivera-Nappa
J Cristian Salgado
Carlos Conca
spellingShingle Natalia E Jiménez
Ziomara P Gerdtzen
Álvaro Olivera-Nappa
J Cristian Salgado
Carlos Conca
A systems biology approach for studying Wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.
PLoS Neglected Tropical Diseases
author_facet Natalia E Jiménez
Ziomara P Gerdtzen
Álvaro Olivera-Nappa
J Cristian Salgado
Carlos Conca
author_sort Natalia E Jiménez
title A systems biology approach for studying Wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.
title_short A systems biology approach for studying Wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.
title_full A systems biology approach for studying Wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.
title_fullStr A systems biology approach for studying Wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.
title_full_unstemmed A systems biology approach for studying Wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.
title_sort systems biology approach for studying wolbachia metabolism reveals points of interaction with its host in the context of arboviral infection.
publisher Public Library of Science (PLoS)
series PLoS Neglected Tropical Diseases
issn 1935-2727
1935-2735
publishDate 2019-08-01
description Wolbachia are alpha-proteobacteria known to infect arthropods, which are of interest for disease control since they have been associated with improved resistance to viral infection. Although several genomes for different strains have been sequenced, there is little knowledge regarding the relationship between this bacterium and their hosts, particularly on their dependency for survival. Motivated by the potential applications on disease control, we developed genome-scale models of four Wolbachia strains known to infect arthropods: wAlbB (Aedes albopictus), wVitA (Nasonia vitripennis), wMel and wMelPop (Drosophila melanogaster). The obtained metabolic reconstructions exhibit a metabolism relying mainly on amino acids for energy production and biomass synthesis. A gap analysis was performed to detect metabolic candidates which could explain the endosymbiotic nature of this bacterium, finding that amino acids, requirements for ubiquinone precursors and provisioning of metabolites such as riboflavin could play a crucial role in this relationship. This work provides a systems biology perspective for studying the relationship of Wolbachia with its host and the development of new approaches for control of the spread of arboviral diseases. This approach, where metabolic gaps are key objects of study instead of just additions to complete a model, could be applied to other endosymbiotic bacteria of interest.
url https://doi.org/10.1371/journal.pntd.0007678
work_keys_str_mv AT nataliaejimenez asystemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT ziomarapgerdtzen asystemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT alvarooliveranappa asystemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT jcristiansalgado asystemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT carlosconca asystemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT nataliaejimenez systemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT ziomarapgerdtzen systemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT alvarooliveranappa systemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT jcristiansalgado systemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
AT carlosconca systemsbiologyapproachforstudyingwolbachiametabolismrevealspointsofinteractionwithitshostinthecontextofarboviralinfection
_version_ 1714664016210558976