Reduced transpiration response to precipitation pulses precedes mortality in a piñon–juniper woodland subject to prolonged drought

Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above-average precipitation altered the capacity to res...

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Published inThe New phytologist Vol. 200; no. 2; pp. 375 - 387
Main Authors Plaut, Jennifer A., Wadsworth, W. Duncan, Pangle, Robert, Yepez, Enrico A., McDowell, Nate G., Pockman, William T.
Format Journal Article
LanguageEnglish
Published England New Phytologist Trust 01.10.2013
Wiley Subscription Services, Inc
Subjects
Additives
Agricultural Irrigation
Atmospheric precipitations
Carbon - metabolism
carbon starvation
Climate change
Climate prediction
die‐off
Drought
Droughts
Ecosystem
Global climate
hydraulic conductance
hydraulic failure
Hydraulics
infrastructure
Irrigation
Juniperus - physiology
mixed effects model
Modeling
Models, Theoretical
Mortality
New Mexico
Pinus
Pinus - physiology
pinyon-juniper
Plant Transpiration - physiology
Precipitation
Pulse irrigation
Rain
Rainfall
semi‐arid
Soil
Soil moisture
Soil water
Survival
Transpiration
Trees
Vapor Pressure
vapor pressure deficit
Vapour pressure
Woodlands
hydraulic conductance
die-off
carbon starvation
hydraulic failure
semi-arid
mixed effects model
Online AccessGet full text

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Abstract Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above-average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon–juniper (Pinus edulis–Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post-event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post-pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought-related mortality.
AbstractList Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above-average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon-juniper (Pinus edulis-Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post-event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post-pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought-related mortality.Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above-average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon-juniper (Pinus edulis-Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post-event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post-pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought-related mortality.
Summary Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above‐average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon–juniper (Pinus edulis–Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post‐event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post‐pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought‐related mortality. Featured paper: See also the Editorial by McDowell et al
Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above‐average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon–juniper (Pinus edulis–Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post‐event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post‐pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought‐related mortality.
Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above‐average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon–juniper ( P inus edulis – J uniperus monosperma ) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post‐event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post‐pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought‐related mortality. Featured paper: See also the Editorial by McDowell et al
Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above-average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon–juniper (Pinus edulis–Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post-event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post-pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought-related mortality.
Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above-average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon-juniper (Pinus edulis-Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post-event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post-pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought-related mortality.
Summary Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above-average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival. We analyzed 5 yr of data from a rainfall manipulation experiment in piñon-juniper (Pinus edulis-Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post-event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control. Mortality was highest under drought, and the reduced post-pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses. Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought-related mortality. Featured paper: See also the Editorial by McDowell et al [PUBLICATION ABSTRACT]
Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality are difficult to predict. Our objective was to determine whether prolonged drought or above-average precipitation altered the capacity to respond to the individual precipitation pulses that drive productivity and survival.We analyzed 5 yr of data from a rainfall manipulation experiment in pinon-juniper (Pinus edulis-Juniperus monosperma) woodland using mixed effects models of transpiration response to event size, antecedent soil moisture, and post-event vapor pressure deficit. Replicated treatments included irrigation, drought, ambient control and infrastructure control.Mortality was highest under drought, and the reduced post-pulse transpiration in the droughted trees that died was attributable to treatment effects beyond drier antecedent conditions and reduced event size. In particular, trees that died were nearly unresponsive to antecedent shallow soil moisture, suggesting reduced shallow absorbing root area. Irrigated trees showed an enhanced response to precipitation pulses.Prolonged drought initiates a downward spiral whereby trees are increasingly unable to utilize pulsed soil moisture. Thus, the additive effects of future, more frequent droughts may increase drought-related mortality.Original Abstract: Featured paper: See also the Editorial by McDowell et al
Author Jennifer A. Plaut
Enrico A. Yepez
Nate G. Mc Dowell
W. Duncan Wadsworth
Robert Pangle
William T. Pockman
Author_xml – sequence: 1
  givenname: Jennifer A.
  surname: Plaut
  fullname: Plaut, Jennifer A.
  organization: 1 University of New Mexico
– sequence: 2
  givenname: W. Duncan
  surname: Wadsworth
  fullname: Wadsworth, W. Duncan
  organization: Rice University
– sequence: 3
  givenname: Robert
  surname: Pangle
  fullname: Pangle, Robert
  organization: 1 University of New Mexico
– sequence: 4
  givenname: Enrico A.
  surname: Yepez
  fullname: Yepez, Enrico A.
  organization: Instituto Tecnológico de Sonora
– sequence: 5
  givenname: Nate G.
  surname: McDowell
  fullname: McDowell, Nate G.
  organization: Los Alamos National Laboratory
– sequence: 6
  givenname: William T.
  surname: Pockman
  fullname: Pockman, William T.
  organization: 1 University of New Mexico
BackLink https://www.ncbi.nlm.nih.gov/pubmed/23844951$$D View this record in MEDLINE/PubMed
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ContentType Journal Article
Copyright 2013 New Phytologist Trust
2013 The Authors. New Phytologist © 2013 New Phytologist Trust
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Issue 2
Keywords hydraulic conductance
die-off
carbon starvation
hydraulic failure
semi-arid
mixed effects model
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#vor
2013 The Authors. New Phytologist © 2013 New Phytologist Trust.
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Snippet Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation mortality...
Summary Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation...
Summary Global climate change is predicted to alter the intensity and duration of droughts, but the effects of changing precipitation patterns on vegetation...
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StartPage 375
SubjectTerms Additives
Agricultural Irrigation
Atmospheric precipitations
Carbon - metabolism
carbon starvation
Climate change
Climate prediction
die‐off
Drought
Droughts
Ecosystem
Global climate
hydraulic conductance
hydraulic failure
Hydraulics
infrastructure
Irrigation
Juniperus - physiology
mixed effects model
Modeling
Models, Theoretical
Mortality
New Mexico
Pinus
Pinus - physiology
pinyon-juniper
Plant Transpiration - physiology
Precipitation
Pulse irrigation
Rain
Rainfall
semi‐arid
Soil
Soil moisture
Soil water
Survival
Transpiration
Trees
Vapor Pressure
vapor pressure deficit
Vapour pressure
Woodlands
Title Reduced transpiration response to precipitation pulses precedes mortality in a piñon–juniper woodland subject to prolonged drought
URI https://www.jstor.org/stable/newphytologist.200.2.375
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.12392
https://www.ncbi.nlm.nih.gov/pubmed/23844951
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Volume 200
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