In addition to foliar manganese concentration, both iron and zinc provide proxies for rhizosheath carboxylates in chickpea under low phosphorus supply

Aims Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is a proxy for the amount of rhizosheath carboxylates. Whether the concentrations of other leaf micronutrient, such as iron ([Fe]), zinc ([Zn]...

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Published inPlant and soil Vol. 465; no. 1/2; pp. 31 - 46
Main Authors Wen, Zhihui, Pang, Jiayin, Ryan, Megan H., Shen, Jianbo, Siddique, Kadambot H. M., Lambers, Hans
Format Journal Article
LanguageEnglish
Published Cham Springer Science + Business Media 01.08.2021
Springer International Publishing
Springer
Springer Nature B.V
Subjects
Agriculture
Analysis
Biomedical and Life Sciences
Carboxylases
Carboxylates
Chemical properties
Chickpea
Chickpeas
Copper
Correlation
Ecology
Flowers & plants
Genetic aspects
Genotypes
Greenhouses
Growth media
Iron
Leaves
Life Sciences
Manganese
Micronutrients
Nutritional aspects
Phosphorus
Phosphorus content
Plant Physiology
Plant Sciences
Planting
Proxies
Regular Article
REGULAR ARTICLES
rivers
sand
soil
Soil mixtures
Soil Science & Conservation
Soils
Structure
Zinc
Australia
Organic anions
Phosphorus mobilisation
Phosphorus acquisition
Leaf micronutrients
Carboxylate exudation
Online AccessGet full text

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Abstract Aims Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is a proxy for the amount of rhizosheath carboxylates. Whether the concentrations of other leaf micronutrient, such as iron ([Fe]), zinc ([Zn]) and copper ([Cu]), show a similar signal for rhizosheath carboxylates is unclear. Methods We grew a large number of chickpea genotypes in two glasshouse studies with different growth media, P sources and P levels. Seven weeks after sowing, we determined concentrations of micronutrients in mature leaves, and the quantity and composition of rhizosheath carboxylates. Results For 100 genotypes grown in river sand with low P supply, leaf [Fe] (R 2  = 0.36) and [Zn] (R 2  = 0.22), like leaf [Mn] (R 2  = 0.38), were positively correlated with the total amount of rhizosheath carboxylates. For 20 genotypes grown in a soil mixture, leaf [Fe], [Zn], [Cu] and [Mn] showed positive correlations with total rhizosheath carboxylates that were stronger under moderately low P (R 2  = 0.59, 0.59, 0.54, 0.72) than severely low P (R 2  = 0.39, 0.28, 0.20, 0.36) or sufficient P (R 2  = 0.36, 0.00, 0.01, 0.50) supply. Malonate was the predominant carboxylate in the rhizosheath and was significantly correlated with leaf micronutrient concentrations in both experiments. Conclusions In addition to leaf [Mn], leaf [Fe] and [Zn] can be used as alternative and easily measurable proxies for belowground carboxylate-releasing processes in chickpea under low-P supply, particularly on moderately low-P soils.
AbstractList Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is a proxy for the amount of rhizosheath carboxylates. Whether the concentrations of other leaf micronutrient, such as iron ([Fe]), zinc ([Zn]) and copper ([Cu]), show a similar signal for rhizosheath carboxylates is unclear. We grew a large number of chickpea genotypes in two glasshouse studies with different growth media, P sources and P levels. Seven weeks after sowing, we determined concentrations of micronutrients in mature leaves, and the quantity and composition of rhizosheath carboxylates. For 100 genotypes grown in river sand with low P supply, leaf [Fe] (R.sup.2 = 0.36) and [Zn] (R.sup.2 = 0.22), like leaf [Mn] (R.sup.2 = 0.38), were positively correlated with the total amount of rhizosheath carboxylates. For 20 genotypes grown in a soil mixture, leaf [Fe], [Zn], [Cu] and [Mn] showed positive correlations with total rhizosheath carboxylates that were stronger under moderately low P (R.sup.2 = 0.59, 0.59, 0.54, 0.72) than severely low P (R.sup.2 = 0.39, 0.28, 0.20, 0.36) or sufficient P (R.sup.2 = 0.36, 0.00, 0.01, 0.50) supply. Malonate was the predominant carboxylate in the rhizosheath and was significantly correlated with leaf micronutrient concentrations in both experiments. In addition to leaf [Mn], leaf [Fe] and [Zn] can be used as alternative and easily measurable proxies for belowground carboxylate-releasing processes in chickpea under low-P supply, particularly on moderately low-P soils.
AIMS: Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is a proxy for the amount of rhizosheath carboxylates. Whether the concentrations of other leaf micronutrient, such as iron ([Fe]), zinc ([Zn]) and copper ([Cu]), show a similar signal for rhizosheath carboxylates is unclear. METHODS: We grew a large number of chickpea genotypes in two glasshouse studies with different growth media, P sources and P levels. Seven weeks after sowing, we determined concentrations of micronutrients in mature leaves, and the quantity and composition of rhizosheath carboxylates. RESULTS: For 100 genotypes grown in river sand with low P supply, leaf [Fe] (R² = 0.36) and [Zn] (R² = 0.22), like leaf [Mn] (R² = 0.38), were positively correlated with the total amount of rhizosheath carboxylates. For 20 genotypes grown in a soil mixture, leaf [Fe], [Zn], [Cu] and [Mn] showed positive correlations with total rhizosheath carboxylates that were stronger under moderately low P (R² = 0.59, 0.59, 0.54, 0.72) than severely low P (R² = 0.39, 0.28, 0.20, 0.36) or sufficient P (R² = 0.36, 0.00, 0.01, 0.50) supply. Malonate was the predominant carboxylate in the rhizosheath and was significantly correlated with leaf micronutrient concentrations in both experiments. CONCLUSIONS: In addition to leaf [Mn], leaf [Fe] and [Zn] can be used as alternative and easily measurable proxies for belowground carboxylate-releasing processes in chickpea under low-P supply, particularly on moderately low-P soils.
Aims Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is a proxy for the amount of rhizosheath carboxylates. Whether the concentrations of other leaf micronutrient, such as iron ([Fe]), zinc ([Zn]) and copper ([Cu]), show a similar signal for rhizosheath carboxylates is unclear. Methods We grew a large number of chickpea genotypes in two glasshouse studies with different growth media, P sources and P levels. Seven weeks after sowing, we determined concentrations of micronutrients in mature leaves, and the quantity and composition of rhizosheath carboxylates. Results For 100 genotypes grown in river sand with low P supply, leaf [Fe] (R.sup.2 = 0.36) and [Zn] (R.sup.2 = 0.22), like leaf [Mn] (R.sup.2 = 0.38), were positively correlated with the total amount of rhizosheath carboxylates. For 20 genotypes grown in a soil mixture, leaf [Fe], [Zn], [Cu] and [Mn] showed positive correlations with total rhizosheath carboxylates that were stronger under moderately low P (R.sup.2 = 0.59, 0.59, 0.54, 0.72) than severely low P (R.sup.2 = 0.39, 0.28, 0.20, 0.36) or sufficient P (R.sup.2 = 0.36, 0.00, 0.01, 0.50) supply. Malonate was the predominant carboxylate in the rhizosheath and was significantly correlated with leaf micronutrient concentrations in both experiments. Conclusions In addition to leaf [Mn], leaf [Fe] and [Zn] can be used as alternative and easily measurable proxies for belowground carboxylate-releasing processes in chickpea under low-P supply, particularly on moderately low-P soils.
Aims Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is a proxy for the amount of rhizosheath carboxylates. Whether the concentrations of other leaf micronutrient, such as iron ([Fe]), zinc ([Zn]) and copper ([Cu]), show a similar signal for rhizosheath carboxylates is unclear. Methods We grew a large number of chickpea genotypes in two glasshouse studies with different growth media, P sources and P levels. Seven weeks after sowing, we determined concentrations of micronutrients in mature leaves, and the quantity and composition of rhizosheath carboxylates. Results For 100 genotypes grown in river sand with low P supply, leaf [Fe] (R 2  = 0.36) and [Zn] (R 2  = 0.22), like leaf [Mn] (R 2  = 0.38), were positively correlated with the total amount of rhizosheath carboxylates. For 20 genotypes grown in a soil mixture, leaf [Fe], [Zn], [Cu] and [Mn] showed positive correlations with total rhizosheath carboxylates that were stronger under moderately low P (R 2  = 0.59, 0.59, 0.54, 0.72) than severely low P (R 2  = 0.39, 0.28, 0.20, 0.36) or sufficient P (R 2  = 0.36, 0.00, 0.01, 0.50) supply. Malonate was the predominant carboxylate in the rhizosheath and was significantly correlated with leaf micronutrient concentrations in both experiments. Conclusions In addition to leaf [Mn], leaf [Fe] and [Zn] can be used as alternative and easily measurable proxies for belowground carboxylate-releasing processes in chickpea under low-P supply, particularly on moderately low-P soils.
AimsPlants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is a proxy for the amount of rhizosheath carboxylates. Whether the concentrations of other leaf micronutrient, such as iron ([Fe]), zinc ([Zn]) and copper ([Cu]), show a similar signal for rhizosheath carboxylates is unclear.MethodsWe grew a large number of chickpea genotypes in two glasshouse studies with different growth media, P sources and P levels. Seven weeks after sowing, we determined concentrations of micronutrients in mature leaves, and the quantity and composition of rhizosheath carboxylates.ResultsFor 100 genotypes grown in river sand with low P supply, leaf [Fe] (R2 = 0.36) and [Zn] (R2 = 0.22), like leaf [Mn] (R2 = 0.38), were positively correlated with the total amount of rhizosheath carboxylates. For 20 genotypes grown in a soil mixture, leaf [Fe], [Zn], [Cu] and [Mn] showed positive correlations with total rhizosheath carboxylates that were stronger under moderately low P (R2 = 0.59, 0.59, 0.54, 0.72) than severely low P (R2 = 0.39, 0.28, 0.20, 0.36) or sufficient P (R2 = 0.36, 0.00, 0.01, 0.50) supply. Malonate was the predominant carboxylate in the rhizosheath and was significantly correlated with leaf micronutrient concentrations in both experiments.ConclusionsIn addition to leaf [Mn], leaf [Fe] and [Zn] can be used as alternative and easily measurable proxies for belowground carboxylate-releasing processes in chickpea under low-P supply, particularly on moderately low-P soils.
Audience Academic
Author Wen, Zhihui
Lambers, Hans
Shen, Jianbo
Pang, Jiayin
Ryan, Megan H.
Siddique, Kadambot H. M.
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  givenname: Kadambot H. M.
  surname: Siddique
  fullname: Siddique, Kadambot H. M.
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  givenname: Hans
  surname: Lambers
  fullname: Lambers, Hans
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ISSN 0032-079X
IngestDate Fri Jul 11 00:56:11 EDT 2025
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IsPeerReviewed true
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Issue 1/2
Keywords Organic anions
Phosphorus mobilisation
Phosphorus acquisition
Leaf micronutrients
Carboxylate exudation
Language English
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PublicationSubtitle An International Journal on Plant-Soil Relationships
PublicationTitle Plant and soil
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Springer International Publishing
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Snippet Aims Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn]...
Aims Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn]...
Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is a...
AimsPlants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn] is...
AIMS: Plants deploying a phosphorus (P)-mobilising strategy via carboxylate release have relatively high leaf manganese concentrations ([Mn]). Thus, leaf [Mn]...
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SubjectTerms Agriculture
Analysis
Biomedical and Life Sciences
Carboxylases
Carboxylates
Chemical properties
Chickpea
Chickpeas
Copper
Correlation
Ecology
Flowers & plants
Genetic aspects
Genotypes
Greenhouses
Growth media
Iron
Leaves
Life Sciences
Manganese
Micronutrients
Nutritional aspects
Phosphorus
Phosphorus content
Plant Physiology
Plant Sciences
Planting
Proxies
Regular Article
REGULAR ARTICLES
rivers
sand
soil
Soil mixtures
Soil Science & Conservation
Soils
Structure
Zinc
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  providerName: Springer Nature
Title In addition to foliar manganese concentration, both iron and zinc provide proxies for rhizosheath carboxylates in chickpea under low phosphorus supply
URI https://www.jstor.org/stable/27293534
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