Foliar P- but not N resorption efficiency depends on the P-concentration and the N:P ratio in trees of temperate forests

Key message While there is evidence that foliar P concentration controls foliar P resorption efficiency, this is not found for N. Likewise, the foliar N:P ratio affects P, but not N resorption. This study focuses on foliar nutrient resorption efficiency, which describes the proportion of foliar nutr...

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Published inTrees (Berlin, West) Vol. 32; no. 5; pp. 1443 - 1455
Main Authors Sohrt, Jakob, Herschbach, Cornelia, Weiler, Markus
Format Journal Article
LanguageEnglish
Published Berlin/Heidelberg Springer Berlin Heidelberg 01.10.2018
Springer Nature B.V
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ISSN0931-1890
1432-2285
DOI10.1007/s00468-018-1725-9

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Abstract Key message While there is evidence that foliar P concentration controls foliar P resorption efficiency, this is not found for N. Likewise, the foliar N:P ratio affects P, but not N resorption. This study focuses on foliar nutrient resorption efficiency, which describes the proportion of foliar nutrients that is resorbed before abscission. The two main tree types of temperate forests—deciduous and coniferous—are compared in this context. The aim of this meta-analysis is to describe the foliar resorption efficiency of N and P as a function of absolute and relative concentrations of these nutrients in mature foliage, which may serve as a proxy for the plants nutritional status. In addition to prior work on this subject which has focused mainly on single-nutrient resorption efficiency, the effects of relative- and absolute foliar N and P levels are decoupled and analyzed separately. P resorption efficiency was significantly higher at lower absolute foliar P concentration and strongly tied to the original foliar P concentration for both deciduous trees and conifers. In addition, a significant correlation between P resorption efficiency and the foliar N:P ratio was found for deciduous but not for coniferous trees. In contrast, the N resorption efficiency did not relate to the foliar N concentration, nor to the foliar N:P ratio for deciduous and coniferous trees. The results of this study provide strong evidence, that the decoupling of absolute and relative N- and P concentrations in mature foliage is a critical factor for assessing the effect of relative N:P nutrition on nutrient resorption from foliage. If the statistical dependency among absolute and relative foliar N and P concentrations is not considered, the effect of relative N:P nutrition on single nutrient resorption efficiency is likely over-estimated. Overall the results point towards trees of temperate forests being P limited rather than N limited.
AbstractList Key message While there is evidence that foliar P concentration controls foliar P resorption efficiency, this is not found for N. Likewise, the foliar N:P ratio affects P, but not N resorption. This study focuses on foliar nutrient resorption efficiency, which describes the proportion of foliar nutrients that is resorbed before abscission. The two main tree types of temperate forests—deciduous and coniferous—are compared in this context. The aim of this meta-analysis is to describe the foliar resorption efficiency of N and P as a function of absolute and relative concentrations of these nutrients in mature foliage, which may serve as a proxy for the plants nutritional status. In addition to prior work on this subject which has focused mainly on single-nutrient resorption efficiency, the effects of relative- and absolute foliar N and P levels are decoupled and analyzed separately. P resorption efficiency was significantly higher at lower absolute foliar P concentration and strongly tied to the original foliar P concentration for both deciduous trees and conifers. In addition, a significant correlation between P resorption efficiency and the foliar N:P ratio was found for deciduous but not for coniferous trees. In contrast, the N resorption efficiency did not relate to the foliar N concentration, nor to the foliar N:P ratio for deciduous and coniferous trees. The results of this study provide strong evidence, that the decoupling of absolute and relative N- and P concentrations in mature foliage is a critical factor for assessing the effect of relative N:P nutrition on nutrient resorption from foliage. If the statistical dependency among absolute and relative foliar N and P concentrations is not considered, the effect of relative N:P nutrition on single nutrient resorption efficiency is likely over-estimated. Overall the results point towards trees of temperate forests being P limited rather than N limited.
KEY MESSAGE: While there is evidence that foliar P concentration controls foliar P resorption efficiency, this is not found for N. Likewise, the foliar N:P ratio affects P, but not N resorption. This study focuses on foliar nutrient resorption efficiency, which describes the proportion of foliar nutrients that is resorbed before abscission. The two main tree types of temperate forests—deciduous and coniferous—are compared in this context. The aim of this meta-analysis is to describe the foliar resorption efficiency of N and P as a function of absolute and relative concentrations of these nutrients in mature foliage, which may serve as a proxy for the plants nutritional status. In addition to prior work on this subject which has focused mainly on single-nutrient resorption efficiency, the effects of relative- and absolute foliar N and P levels are decoupled and analyzed separately. P resorption efficiency was significantly higher at lower absolute foliar P concentration and strongly tied to the original foliar P concentration for both deciduous trees and conifers. In addition, a significant correlation between P resorption efficiency and the foliar N:P ratio was found for deciduous but not for coniferous trees. In contrast, the N resorption efficiency did not relate to the foliar N concentration, nor to the foliar N:P ratio for deciduous and coniferous trees. The results of this study provide strong evidence, that the decoupling of absolute and relative N- and P concentrations in mature foliage is a critical factor for assessing the effect of relative N:P nutrition on nutrient resorption from foliage. If the statistical dependency among absolute and relative foliar N and P concentrations is not considered, the effect of relative N:P nutrition on single nutrient resorption efficiency is likely over-estimated. Overall the results point towards trees of temperate forests being P limited rather than N limited.
Key messageWhile there is evidence that foliar P concentration controls foliar P resorption efficiency, this is not found for N. Likewise, the foliar N:P ratio affects P, but not N resorption.This study focuses on foliar nutrient resorption efficiency, which describes the proportion of foliar nutrients that is resorbed before abscission. The two main tree types of temperate forests—deciduous and coniferous—are compared in this context. The aim of this meta-analysis is to describe the foliar resorption efficiency of N and P as a function of absolute and relative concentrations of these nutrients in mature foliage, which may serve as a proxy for the plants nutritional status. In addition to prior work on this subject which has focused mainly on single-nutrient resorption efficiency, the effects of relative- and absolute foliar N and P levels are decoupled and analyzed separately. P resorption efficiency was significantly higher at lower absolute foliar P concentration and strongly tied to the original foliar P concentration for both deciduous trees and conifers. In addition, a significant correlation between P resorption efficiency and the foliar N:P ratio was found for deciduous but not for coniferous trees. In contrast, the N resorption efficiency did not relate to the foliar N concentration, nor to the foliar N:P ratio for deciduous and coniferous trees. The results of this study provide strong evidence, that the decoupling of absolute and relative N- and P concentrations in mature foliage is a critical factor for assessing the effect of relative N:P nutrition on nutrient resorption from foliage. If the statistical dependency among absolute and relative foliar N and P concentrations is not considered, the effect of relative N:P nutrition on single nutrient resorption efficiency is likely over-estimated. Overall the results point towards trees of temperate forests being P limited rather than N limited.
Author Weiler, Markus
Sohrt, Jakob
Herschbach, Cornelia
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  fullname: Sohrt, Jakob
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  organization: Albert Ludwigs University of Freiburg
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  givenname: Cornelia
  surname: Herschbach
  fullname: Herschbach, Cornelia
  organization: Albert Ludwigs University of Freiburg
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  givenname: Markus
  surname: Weiler
  fullname: Weiler, Markus
  organization: Albert Ludwigs University of Freiburg
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Nitrogen
Foliar resorption efficiency
Coniferous
Deciduous
Foliar N:P ratio
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Snippet Key message While there is evidence that foliar P concentration controls foliar P resorption efficiency, this is not found for N. Likewise, the foliar N:P...
Key messageWhile there is evidence that foliar P concentration controls foliar P resorption efficiency, this is not found for N. Likewise, the foliar N:P ratio...
KEY MESSAGE: While there is evidence that foliar P concentration controls foliar P resorption efficiency, this is not found for N. Likewise, the foliar N:P...
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SubjectTerms Abscission
Agriculture
Biomedical and Life Sciences
Coniferous trees
Conifers
Deciduous forests
Deciduous trees
Decoupling
Dependence
Efficiency
Foliage
Forestry
Forests
leaf nutrient resorption
Leaves
Life Sciences
meta-analysis
nitrogen content
Nutrient resorption
Nutrients
Nutrition
Nutritional status
Original Article
Plant Anatomy/Development
Plant nutrition
Plant Pathology
Plant Physiology
Plant Sciences
resorption
Temperate forests
Trees
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Title Foliar P- but not N resorption efficiency depends on the P-concentration and the N:P ratio in trees of temperate forests
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