Xylem resistance to embolism presenting a simple diagnostic test for the open vessel artefact

Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels r...

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Published inThe New phytologist Vol. 215; no. 1; pp. 489 - 499
Main Authors Torres‐Ruiz, José M., Cochard, Hervé, Choat, Brendan, Jansen, Steven, López, Rosana, Tomášková, Ivana, Padilla‐Díaz, Carmen M., Badel, Eric, Burlett, Regis, King, Andrew, Lenoir, Nicolas, Martin‐StPaul, Nicolas K., Delzon, Sylvain
Format Journal Article
LanguageEnglish
Published England New Phytologist Trust 01.07.2017
Wiley Subscription Services, Inc
Wiley
Subjects
artefact
Botanics
Centrifugation
centrifuge technique
Centrifuges
Centrifuging
Conductance
Construction
Construction standards
Diagnostic systems
Diagnostic tests
Ecology
Embolism
Embolisms
Environmental Engineering
Environmental Sciences
Evaluation
Exposure
Fluid dynamics
Fluid flow
fluid mechanics
hydraulic conductivity
Hydraulics
Life Sciences
Measurement
Methods
micro-computed tomography
micro‐CT
Olea - physiology
olive
olives
Plant Diseases
Pressure
Resistance
Species
System reliability
Vegetal Biology
Vessels
Vulnerability
Water - metabolism
X ray microtomography
Xylem
Xylem - metabolism
Xylem - physiology
xylem
centrifuge technique
embolism
olive
micro-CT
artefact
activité hydraulique
courbe de vulnérabilité
centrifuging
centrifugation
artifact
xylème
biologie de la plante
microtomographie
embolie des vaisseaux
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Abstract Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open-vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non-invasive measurement of embolism on intact olive plants by X-ray microtomography. Results showed artefactual decreases in hydraulic conductance (k) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X-Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below −4.0 MPa, reaching 50% loss of hydraulic conductivity at −5.3 MPa. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.
AbstractList Summary Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open-vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non-invasive measurement of embolism on intact olive plants by X-ray microtomography. Results showed artefactual decreases in hydraulic conductance (k) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X-Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below -4.0 MPa, reaching 50% loss of hydraulic conductivity at -5.3 MPa. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.
Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open-vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non-invasive measurement of embolism on intact olive plants by X-ray microtomography. Results showed artefactual decreases in hydraulic conductance (k) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X-Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below -4.0 MPa, reaching 50% loss of hydraulic conductivity at -5.3 MPa. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.
Summary Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open‐vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non‐invasive measurement of embolism on intact olive plants by X‐ray microtomography. Results showed artefactual decreases in hydraulic conductance (k) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X‐Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below −4.0 MPa, reaching 50% loss of hydraulic conductivity at −5.3 MPa. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.
Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open‐vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non‐invasive measurement of embolism on intact olive plants by X‐ray microtomography. Results showed artefactual decreases in hydraulic conductance (k) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X‐Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below −4.0 MPa, reaching 50% loss of hydraulic conductivity at −5.3 MPa. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.
Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open-vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non-invasive measurement of embolism on intact olive plants by X-ray microtomography. Results showed artefactual decreases in hydraulic conductance (k) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X-Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below −4.0 MPa, reaching 50% loss of hydraulic conductivity at −5.3 MPa. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.
Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open‐vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non‐invasive measurement of embolism on intact olive plants by X‐ray microtomography. Results showed artefactual decreases in hydraulic conductance ( k ) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X‐Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below −4.0 MP a, reaching 50% loss of hydraulic conductivity at −5.3 MP a. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.
Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open-vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non-invasive measurement of embolism on intact olive plants by X-ray microtomography. Results showed artefactual decreases in hydraulic conductance (k) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X-Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below -4.0 MPa, reaching 50% loss of hydraulic conductivity at -5.3 MPa. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard centrifuge technique is widely used for the construction of vulnerability curves, although its accuracy when applied to species with long vessels remains under debate. We developed a simple diagnostic test to determine whether the open-vessel artefact influences centrifuge estimates of embolism resistance. Xylem samples from three species with differing vessel lengths were exposed to less negative xylem pressures via centrifugation than the minimum pressure the sample had previously experienced. Additional calibration was obtained from non-invasive measurement of embolism on intact olive plants by X-ray microtomography. Results showed artefactual decreases in hydraulic conductance (k) for samples with open vessels when exposed to a less negative xylem pressure than the minimum pressure they had previously experienced. X-Ray microtomography indicated that most of the embolism formation in olive occurs at xylem pressures below -4.0 MPa, reaching 50% loss of hydraulic conductivity at -5.3 MPa. The artefactual reductions in k induced by centrifugation underestimate embolism resistance data of species with long vessels. A simple test is suggested to avoid this open vessel artefact and to ensure the reliability of this technique in future studies.
Author Eric Badel
Steven Jansen
Andrew King
Ivana Tomášková
Regis Burlett
Carmen M. Padilla-Díaz
Rosana López
Nicolas K. Martin-St Paul
Sylvain Delzon
José M. Torres-Ruiz
Hervé Cochard
Nicolas Lenoir
Brendan Choat
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  givenname: José M.
  surname: Torres‐Ruiz
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  organization: BIOGECO INRA University of Bordeaux 33615 Pessac France
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  givenname: Hervé
  surname: Cochard
  fullname: Cochard, Hervé
  organization: PIAF INRA University of Clermont‐Auvergne 63100 Clermont‐Ferrand France
– sequence: 3
  givenname: Brendan
  surname: Choat
  fullname: Choat, Brendan
  organization: Western Sydney University Hawkesbury Institute for the Environment Richmond NSW 2753 Australia
– sequence: 4
  givenname: Steven
  surname: Jansen
  fullname: Jansen, Steven
  organization: Ulm University Institute of Systematic Botany and Ecology Albert‐Einstein‐Allee 11 89081 Ulm Germany
– sequence: 5
  givenname: Rosana
  surname: López
  fullname: López, Rosana
  organization: PIAF INRA University of Clermont‐Auvergne 63100 Clermont‐Ferrand France, Western Sydney University Hawkesbury Institute for the Environment Richmond NSW 2753 Australia
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  givenname: Ivana
  surname: Tomášková
  fullname: Tomášková, Ivana
  organization: Faculty of Forestry and Wood Sciences Czech University of Life Sciences Kamýcká 129 165 00 Praha 6 – Suchdol Czech Republic
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  givenname: Carmen M.
  surname: Padilla‐Díaz
  fullname: Padilla‐Díaz, Carmen M.
  organization: Instituto de Recursos Naturales y Agrobiología de Sevilla (IRNAS, CSIC) Avenida Reina Mercedes, 10 41012 Sevilla Spain
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  surname: Badel
  fullname: Badel, Eric
  organization: PIAF INRA University of Clermont‐Auvergne 63100 Clermont‐Ferrand France
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  organization: BIOGECO INRA University of Bordeaux 33615 Pessac France
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  fullname: King, Andrew
  organization: Synchrotron SOLEIL L'Orme de Merisiers 91190 Saint‐Aubin – BP48 Gif‐sur‐Yvette Cedex France
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  fullname: Lenoir, Nicolas
  organization: CNRS University of Bordeaux UMS 3626 Placamat F‐33608 Pessac France
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  organization: BIOGECO INRA University of Bordeaux 33615 Pessac France
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Issue 1
Keywords xylem
centrifuge technique
embolism
olive
micro-CT
artefact
activité hydraulique
courbe de vulnérabilité
centrifuging
centrifugation
artifact
xylème
biologie de la plante
microtomographie
embolie des vaisseaux
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#am
http://onlinelibrary.wiley.com/termsAndConditions#vor
2017 The Authors. New Phytologist © 2017 New Phytologist Trust.
Attribution - ShareAlike: http://creativecommons.org/licenses/by-sa
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Snippet Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The standard...
Summary Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The...
Summary Xylem vulnerability to embolism represents an essential trait for the evaluation of the impact of hydraulics in plant function and ecology. The...
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SubjectTerms artefact
Botanics
Centrifugation
centrifuge technique
Centrifuges
Centrifuging
Conductance
Construction
Construction standards
Diagnostic systems
Diagnostic tests
Ecology
Embolism
Embolisms
Environmental Engineering
Environmental Sciences
Evaluation
Exposure
Fluid dynamics
Fluid flow
fluid mechanics
hydraulic conductivity
Hydraulics
Life Sciences
Measurement
Methods
micro-computed tomography
micro‐CT
Olea - physiology
olive
olives
Plant Diseases
Pressure
Resistance
Species
System reliability
Vegetal Biology
Vessels
Vulnerability
Water - metabolism
X ray microtomography
Xylem
Xylem - metabolism
Xylem - physiology
Subtitle presenting a simple diagnostic test for the open vessel artefact
Title Xylem resistance to embolism
URI https://www.jstor.org/stable/90010665
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.14589
https://www.ncbi.nlm.nih.gov/pubmed/28467616
https://www.proquest.com/docview/1903787422
https://www.proquest.com/docview/1895276735
https://www.proquest.com/docview/2000446290
https://hal.science/hal-01518575
Volume 215
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