Shifts and rebound in microbial community function following repeated introduction of a novel species

Natural microbial communities continually encounter novel species that may successfully establish or simply be transient, yet both outcomes can alter the resident community composition and function. Preserving natural microbial communities and innovating synthetic ones requires insight on the immediate and long-term impact of species introductions on both composition and function. For instance, it remains unclear whether there are gradual and long-term impacts from repeated introductions where the introduced species fails to establish – so-called failed invaders. To investigate the persistent impacts by failed invaders, we present an experimental test of community stability over multiple generations against repeated novel species introduction. We propagated a natural microbial community from a traditional fermented milk beverage for approximately 100 generations, with or without, repeated introduction of Escherichia coli at each transfer. Community function was determined by metabolic profiling, and we observed alterations therein immediately after E. coli introduction, followed by recovery, or rebound once ceased. In contrast to this proxy of community function, changes in the bacterial community composition were never detected. Our results evidence that community composition and function do not necessarily respond in parallel to an introduced species, potentially due to genotypic changes below species level detection or metabolic plasticity. Our work shows an ability for functional recovery in microbial communities and contributes insight on long-term community stability to sustained disturbances.

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Bibliographic Details
Main Authors: Leale, Alanna M., Reyes Marquez, Francisca, Zwaan, Bas, Smid, Eddy J., Schoustra, Sijmen
Format: Article/Letter to editor biblioteca
Language:English
Subjects:Escherichia coli, community recovery, milk, serial propagation, traditional fermentation,
Online Access:https://research.wur.nl/en/publications/shifts-and-rebound-in-microbial-community-function-following-repe
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spelling dig-wur-nl-wurpubs-6393892025-01-16 Leale, Alanna M. Reyes Marquez, Francisca Zwaan, Bas Smid, Eddy J. Schoustra, Sijmen Article/Letter to editor Oikos (2024) ISSN: 0030-1299 Shifts and rebound in microbial community function following repeated introduction of a novel species 2024 Natural microbial communities continually encounter novel species that may successfully establish or simply be transient, yet both outcomes can alter the resident community composition and function. Preserving natural microbial communities and innovating synthetic ones requires insight on the immediate and long-term impact of species introductions on both composition and function. For instance, it remains unclear whether there are gradual and long-term impacts from repeated introductions where the introduced species fails to establish – so-called failed invaders. To investigate the persistent impacts by failed invaders, we present an experimental test of community stability over multiple generations against repeated novel species introduction. We propagated a natural microbial community from a traditional fermented milk beverage for approximately 100 generations, with or without, repeated introduction of Escherichia coli at each transfer. Community function was determined by metabolic profiling, and we observed alterations therein immediately after E. coli introduction, followed by recovery, or rebound once ceased. In contrast to this proxy of community function, changes in the bacterial community composition were never detected. Our results evidence that community composition and function do not necessarily respond in parallel to an introduced species, potentially due to genotypic changes below species level detection or metabolic plasticity. Our work shows an ability for functional recovery in microbial communities and contributes insight on long-term community stability to sustained disturbances. en application/pdf https://research.wur.nl/en/publications/shifts-and-rebound-in-microbial-community-function-following-repe 10.1111/oik.10880 https://edepot.wur.nl/684308 Escherichia coli community recovery milk serial propagation traditional fermentation https://creativecommons.org/licenses/by/4.0/ https://creativecommons.org/licenses/by/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 Escherichia coli
community recovery
milk
serial propagation
traditional fermentation
Escherichia coli
community recovery
milk
serial propagation
traditional fermentation
spellingShingle Escherichia coli
community recovery
milk
serial propagation
traditional fermentation
Escherichia coli
community recovery
milk
serial propagation
traditional fermentation
Leale, Alanna M.
Reyes Marquez, Francisca
Zwaan, Bas
Smid, Eddy J.
Schoustra, Sijmen
Shifts and rebound in microbial community function following repeated introduction of a novel species
description Natural microbial communities continually encounter novel species that may successfully establish or simply be transient, yet both outcomes can alter the resident community composition and function. Preserving natural microbial communities and innovating synthetic ones requires insight on the immediate and long-term impact of species introductions on both composition and function. For instance, it remains unclear whether there are gradual and long-term impacts from repeated introductions where the introduced species fails to establish – so-called failed invaders. To investigate the persistent impacts by failed invaders, we present an experimental test of community stability over multiple generations against repeated novel species introduction. We propagated a natural microbial community from a traditional fermented milk beverage for approximately 100 generations, with or without, repeated introduction of Escherichia coli at each transfer. Community function was determined by metabolic profiling, and we observed alterations therein immediately after E. coli introduction, followed by recovery, or rebound once ceased. In contrast to this proxy of community function, changes in the bacterial community composition were never detected. Our results evidence that community composition and function do not necessarily respond in parallel to an introduced species, potentially due to genotypic changes below species level detection or metabolic plasticity. Our work shows an ability for functional recovery in microbial communities and contributes insight on long-term community stability to sustained disturbances.
format Article/Letter to editor
topic_facet Escherichia coli
community recovery
milk
serial propagation
traditional fermentation
author Leale, Alanna M.
Reyes Marquez, Francisca
Zwaan, Bas
Smid, Eddy J.
Schoustra, Sijmen
author_facet Leale, Alanna M.
Reyes Marquez, Francisca
Zwaan, Bas
Smid, Eddy J.
Schoustra, Sijmen
author_sort Leale, Alanna M.
title Shifts and rebound in microbial community function following repeated introduction of a novel species
title_short Shifts and rebound in microbial community function following repeated introduction of a novel species
title_full Shifts and rebound in microbial community function following repeated introduction of a novel species
title_fullStr Shifts and rebound in microbial community function following repeated introduction of a novel species
title_full_unstemmed Shifts and rebound in microbial community function following repeated introduction of a novel species
title_sort shifts and rebound in microbial community function following repeated introduction of a novel species
url https://research.wur.nl/en/publications/shifts-and-rebound-in-microbial-community-function-following-repe
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AT zwaanbas shiftsandreboundinmicrobialcommunityfunctionfollowingrepeatedintroductionofanovelspecies
AT smideddyj shiftsandreboundinmicrobialcommunityfunctionfollowingrepeatedintroductionofanovelspecies
AT schoustrasijmen shiftsandreboundinmicrobialcommunityfunctionfollowingrepeatedintroductionofanovelspecies
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