Parallels between drought and flooding: An integrated framework for plant eco‐physiological responses to water stress

Abstract Drought and flooding occur at opposite ends of the soil moisture spectrum yet their resulting stress responses in plants share many similarities. Drought limits root water uptake to which plants respond with stomatal closure and reduced leaf gas exchange. Flooding limits root metabolism due...

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Main Authors: Siluo Chen, Kirsten H. W. J. tenTusscher, Rashmi Sasidharan, Stefan C. Dekker, Hugo J. deBoer
Format: Article
Language:English
Published: Wiley 2023-08-01
Series:Plant-Environment Interactions
Subjects:
Online Access:https://doi.org/10.1002/pei3.10117
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author Siluo Chen
Kirsten H. W. J. tenTusscher
Rashmi Sasidharan
Stefan C. Dekker
Hugo J. deBoer
author_facet Siluo Chen
Kirsten H. W. J. tenTusscher
Rashmi Sasidharan
Stefan C. Dekker
Hugo J. deBoer
author_sort Siluo Chen
collection DOAJ
description Abstract Drought and flooding occur at opposite ends of the soil moisture spectrum yet their resulting stress responses in plants share many similarities. Drought limits root water uptake to which plants respond with stomatal closure and reduced leaf gas exchange. Flooding limits root metabolism due to soil oxygen deficiency, which also limits root water uptake and leaf gas exchange. As drought and flooding can occur consecutively in the same system and resulting plant stress responses share similar mechanisms, a single theoretical framework that integrates plant responses over a continuum of soil water conditions from drought to flooding is attractive. Based on a review of recent literature, we integrated the main plant eco‐physiological mechanisms in a single theoretical framework with a focus on plant water transport, plant oxygen dynamics, and leaf gas exchange. We used theory from the soil–plant–atmosphere continuum modeling as “backbone” for our framework, and subsequently incorporated interactions between processes that regulate plant water and oxygen status, abscisic acid and ethylene levels, and the resulting acclimation strategies in response to drought, waterlogging, and complete submergence. Our theoretical framework provides a basis for the development of mathematical models to describe plant responses to the soil moisture continuum from drought to flooding.
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spelling doaj.art-ffead875cde142e3bcf66064ebf7b78a2023-08-14T07:37:24ZengWileyPlant-Environment Interactions2575-62652023-08-014417518710.1002/pei3.10117Parallels between drought and flooding: An integrated framework for plant eco‐physiological responses to water stressSiluo Chen0Kirsten H. W. J. tenTusscher1Rashmi Sasidharan2Stefan C. Dekker3Hugo J. deBoer4Computational Developmental Biology, Department of Biology Utrecht University Utrecht The NetherlandsComputational Developmental Biology, Department of Biology Utrecht University Utrecht The NetherlandsPlant Stress Resilience, Institute of Environmental Biology Utrecht University Utrecht The NetherlandsEnvironmental Sciences, Copernicus Institute of Sustainable Development Utrecht University Utrecht The NetherlandsEnvironmental Sciences, Copernicus Institute of Sustainable Development Utrecht University Utrecht The NetherlandsAbstract Drought and flooding occur at opposite ends of the soil moisture spectrum yet their resulting stress responses in plants share many similarities. Drought limits root water uptake to which plants respond with stomatal closure and reduced leaf gas exchange. Flooding limits root metabolism due to soil oxygen deficiency, which also limits root water uptake and leaf gas exchange. As drought and flooding can occur consecutively in the same system and resulting plant stress responses share similar mechanisms, a single theoretical framework that integrates plant responses over a continuum of soil water conditions from drought to flooding is attractive. Based on a review of recent literature, we integrated the main plant eco‐physiological mechanisms in a single theoretical framework with a focus on plant water transport, plant oxygen dynamics, and leaf gas exchange. We used theory from the soil–plant–atmosphere continuum modeling as “backbone” for our framework, and subsequently incorporated interactions between processes that regulate plant water and oxygen status, abscisic acid and ethylene levels, and the resulting acclimation strategies in response to drought, waterlogging, and complete submergence. Our theoretical framework provides a basis for the development of mathematical models to describe plant responses to the soil moisture continuum from drought to flooding.https://doi.org/10.1002/pei3.10117droughtethylenefloodingmodelingoxygen deficitsoil‐plant‐atmosphere continuum
spellingShingle Siluo Chen
Kirsten H. W. J. tenTusscher
Rashmi Sasidharan
Stefan C. Dekker
Hugo J. deBoer
Parallels between drought and flooding: An integrated framework for plant eco‐physiological responses to water stress
Plant-Environment Interactions
drought
ethylene
flooding
modeling
oxygen deficit
soil‐plant‐atmosphere continuum
title Parallels between drought and flooding: An integrated framework for plant eco‐physiological responses to water stress
title_full Parallels between drought and flooding: An integrated framework for plant eco‐physiological responses to water stress
title_fullStr Parallels between drought and flooding: An integrated framework for plant eco‐physiological responses to water stress
title_full_unstemmed Parallels between drought and flooding: An integrated framework for plant eco‐physiological responses to water stress
title_short Parallels between drought and flooding: An integrated framework for plant eco‐physiological responses to water stress
title_sort parallels between drought and flooding an integrated framework for plant eco physiological responses to water stress
topic drought
ethylene
flooding
modeling
oxygen deficit
soil‐plant‐atmosphere continuum
url https://doi.org/10.1002/pei3.10117
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AT rashmisasidharan parallelsbetweendroughtandfloodinganintegratedframeworkforplantecophysiologicalresponsestowaterstress
AT stefancdekker parallelsbetweendroughtandfloodinganintegratedframeworkforplantecophysiologicalresponsestowaterstress
AT hugojdeboer parallelsbetweendroughtandfloodinganintegratedframeworkforplantecophysiologicalresponsestowaterstress