The Power of Metabolism for Predicting Microbial Community Dynamics
Quantitative understanding and prediction of microbial community dynamics are an outstanding challenge. We test the hypothesis that metabolic mechanisms provide a foundation for accurate prediction of dynamics in microbial systems. In our research, metabolic models have been able to accurately predi...
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American Society for Microbiology
2019-06-01
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Online Access: | https://doi.org/10.1128/mSystems.00146-19 |
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doaj-4f2b31abff0f480c9e45d2d316e1dc572020-11-25T01:57:18ZengAmerican Society for MicrobiologymSystems2379-50772019-06-0143e00146-1910.1128/mSystems.00146-19The Power of Metabolism for Predicting Microbial Community DynamicsJeremy M. ChacónWilliam R. HarcombeQuantitative understanding and prediction of microbial community dynamics are an outstanding challenge. We test the hypothesis that metabolic mechanisms provide a foundation for accurate prediction of dynamics in microbial systems. In our research, metabolic models have been able to accurately predict species interactions, evolutionary trajectories, and response to perturbation in simple synthetic consortia.Quantitative understanding and prediction of microbial community dynamics are an outstanding challenge. We test the hypothesis that metabolic mechanisms provide a foundation for accurate prediction of dynamics in microbial systems. In our research, metabolic models have been able to accurately predict species interactions, evolutionary trajectories, and response to perturbation in simple synthetic consortia. However, metabolic models have many constraints and often serve best as null models to identify additional processes at play. We anticipate that major advances in metabolic systems biology will involve scaling bottom-up approaches to complex communities and expanding the processes that are incorporated in a metabolic perspective. Ultimately, cellular metabolism will inform predictive ecology that enables precision management of microbial systems.https://doi.org/10.1128/mSystems.00146-19metabolismantibioticsbacteriophageecologyevolutiongenome-scale modelingsystems biology |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Jeremy M. Chacón William R. Harcombe |
spellingShingle |
Jeremy M. Chacón William R. Harcombe The Power of Metabolism for Predicting Microbial Community Dynamics mSystems metabolism antibiotics bacteriophage ecology evolution genome-scale modeling systems biology |
author_facet |
Jeremy M. Chacón William R. Harcombe |
author_sort |
Jeremy M. Chacón |
title |
The Power of Metabolism for Predicting Microbial Community Dynamics |
title_short |
The Power of Metabolism for Predicting Microbial Community Dynamics |
title_full |
The Power of Metabolism for Predicting Microbial Community Dynamics |
title_fullStr |
The Power of Metabolism for Predicting Microbial Community Dynamics |
title_full_unstemmed |
The Power of Metabolism for Predicting Microbial Community Dynamics |
title_sort |
power of metabolism for predicting microbial community dynamics |
publisher |
American Society for Microbiology |
series |
mSystems |
issn |
2379-5077 |
publishDate |
2019-06-01 |
description |
Quantitative understanding and prediction of microbial community dynamics are an outstanding challenge. We test the hypothesis that metabolic mechanisms provide a foundation for accurate prediction of dynamics in microbial systems. In our research, metabolic models have been able to accurately predict species interactions, evolutionary trajectories, and response to perturbation in simple synthetic consortia.Quantitative understanding and prediction of microbial community dynamics are an outstanding challenge. We test the hypothesis that metabolic mechanisms provide a foundation for accurate prediction of dynamics in microbial systems. In our research, metabolic models have been able to accurately predict species interactions, evolutionary trajectories, and response to perturbation in simple synthetic consortia. However, metabolic models have many constraints and often serve best as null models to identify additional processes at play. We anticipate that major advances in metabolic systems biology will involve scaling bottom-up approaches to complex communities and expanding the processes that are incorporated in a metabolic perspective. Ultimately, cellular metabolism will inform predictive ecology that enables precision management of microbial systems. |
topic |
metabolism antibiotics bacteriophage ecology evolution genome-scale modeling systems biology |
url |
https://doi.org/10.1128/mSystems.00146-19 |
work_keys_str_mv |
AT jeremymchacon thepowerofmetabolismforpredictingmicrobialcommunitydynamics AT williamrharcombe thepowerofmetabolismforpredictingmicrobialcommunitydynamics AT jeremymchacon powerofmetabolismforpredictingmicrobialcommunitydynamics AT williamrharcombe powerofmetabolismforpredictingmicrobialcommunitydynamics |
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1715618200089001984 |