Oomycete metabolism is highly dynamic and reflects lifestyle adaptations

The selective pressure of pathogen-host symbiosis drives adaptations. How these interactions shape the metabolism of pathogens is largely unknown. Here, we use comparative genomics to systematically analyse the metabolic networks of oomycetes, a diverse group of eukaryotes that includes saprotrophs as well as pathogens of animal- and plant pathogens, the latter causing devastating diseases with significant economic and/or ecological impact. In our analyses of 44 oomycete species, we uncover considerable variation in metabolism that can be linked to lifestyle differences. Comparisons of metabolic gene content reveal that plant pathogenic oomycetes have a bipartite metabolism consisting of a conserved core and an accessory set. The accessory set can be associated with the degradation of defence compounds produced by plants when challenged by pathogens. Obligate biotrophic oomycetes have smaller metabolic networks, and taxonomically distantly related biotrophic lineages display convergent evolution by repeated gene losses in both the conserved as well as the accessory set of metabolism. When investigating to what extent the metabolic networks in obligate biotrophs differ from those in hemibiotrophic plant pathogens, we observe that the losses of metabolic enzymes in obligate biotrophs are not random and that gene losses predominantly influence the terminal branches of the metabolic networks. Our analyses represent the first metabolism-focused comparison of oomycetes at this scale and will contribute to a better understanding of the evolution of oomycete metabolism in relation to lifestyle adaptation.

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Main Authors: Rodenburg, Sander, de Ridder, Dick, Govers, Francine, Seidl, Michael
Format: Article/Letter to editor biblioteca
Language:English
Subjects:Life Science,
Online Access:https://research.wur.nl/en/publications/oomycete-metabolism-is-highly-dynamic-and-reflects-lifestyle-adap-2
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spelling dig-wur-nl-wurpubs-6329832024-12-04 Rodenburg, Sander de Ridder, Dick Govers, Francine Seidl, Michael Article/Letter to editor Molecular Plant-Microbe Interactions 37 (2024) 7 ISSN: 0894-0282 Oomycete metabolism is highly dynamic and reflects lifestyle adaptations 2024 The selective pressure of pathogen-host symbiosis drives adaptations. How these interactions shape the metabolism of pathogens is largely unknown. Here, we use comparative genomics to systematically analyse the metabolic networks of oomycetes, a diverse group of eukaryotes that includes saprotrophs as well as pathogens of animal- and plant pathogens, the latter causing devastating diseases with significant economic and/or ecological impact. In our analyses of 44 oomycete species, we uncover considerable variation in metabolism that can be linked to lifestyle differences. Comparisons of metabolic gene content reveal that plant pathogenic oomycetes have a bipartite metabolism consisting of a conserved core and an accessory set. The accessory set can be associated with the degradation of defence compounds produced by plants when challenged by pathogens. Obligate biotrophic oomycetes have smaller metabolic networks, and taxonomically distantly related biotrophic lineages display convergent evolution by repeated gene losses in both the conserved as well as the accessory set of metabolism. When investigating to what extent the metabolic networks in obligate biotrophs differ from those in hemibiotrophic plant pathogens, we observe that the losses of metabolic enzymes in obligate biotrophs are not random and that gene losses predominantly influence the terminal branches of the metabolic networks. Our analyses represent the first metabolism-focused comparison of oomycetes at this scale and will contribute to a better understanding of the evolution of oomycete metabolism in relation to lifestyle adaptation. en application/pdf https://research.wur.nl/en/publications/oomycete-metabolism-is-highly-dynamic-and-reflects-lifestyle-adap-2 10.1094/MPMI-12-23-0200-R https://edepot.wur.nl/670774 Life Science https://creativecommons.org/licenses/by-nc-nd/4.0/ https://creativecommons.org/licenses/by-nc-nd/4.0/ Wageningen University & Research
institution WUR NL
collection DSpace
country Países bajos
countrycode NL
component Bibliográfico
access En linea
databasecode dig-wur-nl
tag biblioteca
region Europa del Oeste
libraryname WUR Library Netherlands
language English
topic Life Science
Life Science
spellingShingle Life Science
Life Science
Rodenburg, Sander
de Ridder, Dick
Govers, Francine
Seidl, Michael
Oomycete metabolism is highly dynamic and reflects lifestyle adaptations
description The selective pressure of pathogen-host symbiosis drives adaptations. How these interactions shape the metabolism of pathogens is largely unknown. Here, we use comparative genomics to systematically analyse the metabolic networks of oomycetes, a diverse group of eukaryotes that includes saprotrophs as well as pathogens of animal- and plant pathogens, the latter causing devastating diseases with significant economic and/or ecological impact. In our analyses of 44 oomycete species, we uncover considerable variation in metabolism that can be linked to lifestyle differences. Comparisons of metabolic gene content reveal that plant pathogenic oomycetes have a bipartite metabolism consisting of a conserved core and an accessory set. The accessory set can be associated with the degradation of defence compounds produced by plants when challenged by pathogens. Obligate biotrophic oomycetes have smaller metabolic networks, and taxonomically distantly related biotrophic lineages display convergent evolution by repeated gene losses in both the conserved as well as the accessory set of metabolism. When investigating to what extent the metabolic networks in obligate biotrophs differ from those in hemibiotrophic plant pathogens, we observe that the losses of metabolic enzymes in obligate biotrophs are not random and that gene losses predominantly influence the terminal branches of the metabolic networks. Our analyses represent the first metabolism-focused comparison of oomycetes at this scale and will contribute to a better understanding of the evolution of oomycete metabolism in relation to lifestyle adaptation.
format Article/Letter to editor
topic_facet Life Science
author Rodenburg, Sander
de Ridder, Dick
Govers, Francine
Seidl, Michael
author_facet Rodenburg, Sander
de Ridder, Dick
Govers, Francine
Seidl, Michael
author_sort Rodenburg, Sander
title Oomycete metabolism is highly dynamic and reflects lifestyle adaptations
title_short Oomycete metabolism is highly dynamic and reflects lifestyle adaptations
title_full Oomycete metabolism is highly dynamic and reflects lifestyle adaptations
title_fullStr Oomycete metabolism is highly dynamic and reflects lifestyle adaptations
title_full_unstemmed Oomycete metabolism is highly dynamic and reflects lifestyle adaptations
title_sort oomycete metabolism is highly dynamic and reflects lifestyle adaptations
url https://research.wur.nl/en/publications/oomycete-metabolism-is-highly-dynamic-and-reflects-lifestyle-adap-2
work_keys_str_mv AT rodenburgsander oomycetemetabolismishighlydynamicandreflectslifestyleadaptations
AT deridderdick oomycetemetabolismishighlydynamicandreflectslifestyleadaptations
AT goversfrancine oomycetemetabolismishighlydynamicandreflectslifestyleadaptations
AT seidlmichael oomycetemetabolismishighlydynamicandreflectslifestyleadaptations
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