Decoupling the influence of leaf and root hydraulic conductances on stomatal conductance and its sensitivity to vapour pressure deficit as soil dries in a drained loblolly pine plantation
The study examined the relationships between whole tree hydraulic conductance (Ktree) and the conductance in roots (Kroot) and leaves (Kleaf) in loblolly pine trees. In addition, the role of seasonal variations in Kroot and Kleaf in mediating stomatal control of transpiration and its response to vap...
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| Published in | Plant, cell and environment Vol. 32; no. 8; pp. 980 - 991 |
|---|---|
| Main Authors | , , , , , , , |
| Format | Journal Article |
| Language | English |
| Published |
Oxford, UK
Oxford, UK : Blackwell Publishing Ltd
01.08.2009
Blackwell Publishing Ltd Blackwell |
| Subjects | |
| Online Access | Get full text |
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| Abstract | The study examined the relationships between whole tree hydraulic conductance (Ktree) and the conductance in roots (Kroot) and leaves (Kleaf) in loblolly pine trees. In addition, the role of seasonal variations in Kroot and Kleaf in mediating stomatal control of transpiration and its response to vapour pressure deficit (D) as soil-dried was studied. Compared to trunk and branches, roots and leaves had the highest loss of conductivity and contributed to more than 75% of the total tree hydraulic resistance. Drought altered the partitioning of the resistance between roots and leaves. As soil moisture dropped below 50%, relative extractable water (REW), Kroot declined faster than Kleaf. Although Ktree depended on soil moisture, its dynamics was tempered by the elongation of current-year needles that significantly increased Kleaf when REW was below 50%. After accounting for the effect of D on gs, the seasonal decline in Ktree caused a 35% decrease in gs and in its sensitivity to D, responses that were mainly driven by Kleaf under high REW and by Kroot under low REW. We conclude that not only water stress but also leaf phenology affects the coordination between Ktree and gs and the acclimation of trees to changing environmental conditions. |
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| AbstractList | ABSTRACTThe study examined the relationships between whole tree hydraulic conductance (Ktree) and the conductance in roots (Kroot) and leaves (Kleaf) in loblolly pine trees. In addition, the role of seasonal variations in Kroot and Kleaf in mediating stomatal control of transpiration and its response to vapour pressure deficit (D) as soil-dried was studied. Compared to trunk and branches, roots and leaves had the highest loss of conductivity and contributed to more than 75% of the total tree hydraulic resistance. Drought altered the partitioning of the resistance between roots and leaves. As soil moisture dropped below 50%, relative extractable water (REW), Kroot declined faster than Kleaf. Although Ktree depended on soil moisture, its dynamics was tempered by the elongation of current-year needles that significantly increased Kleaf when REW was below 50%. After accounting for the effect of D on gs, the seasonal decline in Ktree caused a 35% decrease in gs and in its sensitivity to D, responses that were mainly driven by Kleaf under high REW and by Kroot under low REW. We conclude that not only water stress but also leaf phenology affects the coordination between Ktree and gs and the acclimation of trees to changing environmental conditions. The study examined the relationships between whole tree hydraulic conductance (K(tree)) and the conductance in roots (K(root)) and leaves (K(leaf)) in loblolly pine trees. In addition, the role of seasonal variations in K(root) and K(leaf) in mediating stomatal control of transpiration and its response to vapour pressure deficit (D) as soil-dried was studied. Compared to trunk and branches, roots and leaves had the highest loss of conductivity and contributed to more than 75% of the total tree hydraulic resistance. Drought altered the partitioning of the resistance between roots and leaves. As soil moisture dropped below 50%, relative extractable water (REW), K(root) declined faster than K(leaf). Although K(tree) depended on soil moisture, its dynamics was tempered by the elongation of current-year needles that significantly increased K(leaf) when REW was below 50%. After accounting for the effect of D on g(s), the seasonal decline in K(tree) caused a 35% decrease in g(s) and in its sensitivity to D, responses that were mainly driven by K(leaf) under high REW and by K(root) under low REW. We conclude that not only water stress but also leaf phenology affects the coordination between K(tree) and g(s) and the acclimation of trees to changing environmental conditions. The study examined the relationships between whole tree hydraulic conductance (Ktree) and the conductance in roots (Kroot) and leaves (Kleaf) in loblolly pine trees. In addition, the role of seasonal variations in Kroot and Kleaf in mediating stomatal control of transpiration and its response to vapour pressure deficit (D) as soil-dried was studied. Compared to trunk and branches, roots and leaves had the highest loss of conductivity and contributed to more than 75% of the total tree hydraulic resistance. Drought altered the partitioning of the resistance between roots and leaves. As soil moisture dropped below 50%, relative extractable water (REW), Kroot declined faster than Kleaf. Although Ktree depended on soil moisture, its dynamics was tempered by the elongation of current-year needles that significantly increased Kleaf when REW was below 50%. After accounting for the effect of D on gs, the seasonal decline in Ktree caused a 35% decrease in gs and in its sensitivity to D, responses that were mainly driven by Kleaf under high REW and by Kroot under low REW. We conclude that not only water stress but also leaf phenology affects the coordination between Ktree and gs and the acclimation of trees to changing environmental conditions. ABSTRACT The study examined the relationships between whole tree hydraulic conductance (Ktree) and the conductance in roots (Kroot) and leaves (Kleaf) in loblolly pine trees. In addition, the role of seasonal variations in Kroot and Kleaf in mediating stomatal control of transpiration and its response to vapour pressure deficit (D) as soil‐dried was studied. Compared to trunk and branches, roots and leaves had the highest loss of conductivity and contributed to more than 75% of the total tree hydraulic resistance. Drought altered the partitioning of the resistance between roots and leaves. As soil moisture dropped below 50%, relative extractable water (REW), Kroot declined faster than Kleaf. Although Ktree depended on soil moisture, its dynamics was tempered by the elongation of current‐year needles that significantly increased Kleaf when REW was below 50%. After accounting for the effect of D on gs, the seasonal decline in Ktree caused a 35% decrease in gs and in its sensitivity to D, responses that were mainly driven by Kleaf under high REW and by Kroot under low REW. We conclude that not only water stress but also leaf phenology affects the coordination between Ktree and gs and the acclimation of trees to changing environmental conditions. ABSTRACT The study examined the relationships between whole tree hydraulic conductance ( K tree ) and the conductance in roots ( K root ) and leaves ( K leaf ) in loblolly pine trees. In addition, the role of seasonal variations in K root and K leaf in mediating stomatal control of transpiration and its response to vapour pressure deficit ( D ) as soil‐dried was studied. Compared to trunk and branches, roots and leaves had the highest loss of conductivity and contributed to more than 75% of the total tree hydraulic resistance. Drought altered the partitioning of the resistance between roots and leaves. As soil moisture dropped below 50%, relative extractable water (REW), K root declined faster than K leaf . Although K tree depended on soil moisture, its dynamics was tempered by the elongation of current‐year needles that significantly increased K leaf when REW was below 50%. After accounting for the effect of D on g s , the seasonal decline in K tree caused a 35% decrease in g s and in its sensitivity to D , responses that were mainly driven by K leaf under high REW and by K root under low REW. We conclude that not only water stress but also leaf phenology affects the coordination between K tree and g s and the acclimation of trees to changing environmental conditions. |
| Author | MCNULTY, STEVEN G GAVAZZI, MICHAEL J KING, JOHN S TREASURE, EMRYS A NOORMETS, ASKO DOMEC, JEAN-CHRISTOPHE BOGGS, JOHNNY L SUN, GE |
| Author_xml | – sequence: 1 fullname: DOMEC, JEAN-CHRISTOPHE – sequence: 2 fullname: NOORMETS, ASKO – sequence: 3 fullname: KING, JOHN S – sequence: 4 fullname: SUN, GE – sequence: 5 fullname: MCNULTY, STEVEN G – sequence: 6 fullname: GAVAZZI, MICHAEL J – sequence: 7 fullname: BOGGS, JOHNNY L – sequence: 8 fullname: TREASURE, EMRYS A |
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| Keywords | Relative humidity leaf phenology Vapor pressure Pinus taeda Hydraulic conductivity water potential conductivity Softwood forest tree Gymnospermae Root soil moisture Stomatal conductance Plant ecology Plant leaf Embolism coastal plain Drainage Soils Sensitivity Decoupling Plain Artificial forest stand LAI Coniferales Spermatophyta |
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| Publisher | Oxford, UK : Blackwell Publishing Ltd Blackwell Publishing Ltd Blackwell |
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| Snippet | The study examined the relationships between whole tree hydraulic conductance (Ktree) and the conductance in roots (Kroot) and leaves (Kleaf) in loblolly pine... ABSTRACT The study examined the relationships between whole tree hydraulic conductance (Ktree) and the conductance in roots (Kroot) and leaves (Kleaf) in... The study examined the relationships between whole tree hydraulic conductance (K(tree)) and the conductance in roots (K(root)) and leaves (K(leaf)) in loblolly... ABSTRACT The study examined the relationships between whole tree hydraulic conductance ( K tree ) and the conductance in roots ( K root ) and leaves ( K leaf )... ABSTRACTThe study examined the relationships between whole tree hydraulic conductance (Ktree) and the conductance in roots (Kroot) and leaves (Kleaf) in... |
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| SubjectTerms | Biological and medical sciences coastal plain conductivity embolism Fundamental and applied biological sciences. Psychology LAI leaf phenology Pinus taeda Pinus taeda - physiology Plant Leaves - physiology Plant Roots - physiology Plant Stomata - physiology Plant Transpiration - physiology Seasons Soil - analysis soil moisture soil water Vapor Pressure Water - metabolism water potential |
| Title | Decoupling the influence of leaf and root hydraulic conductances on stomatal conductance and its sensitivity to vapour pressure deficit as soil dries in a drained loblolly pine plantation |
| URI | https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fj.1365-3040.2009.01981.x https://www.ncbi.nlm.nih.gov/pubmed/19344336 https://search.proquest.com/docview/21249641 https://search.proquest.com/docview/734131931 |
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