Root-released organic anions in response to low phosphorus availability: recent progress, challenges and future perspectives
Background To improve plant phosphorus (P)-acquisition efficiency to secure sustainable food production, an important step is to increase the concentration of plant-available P in the rhizosphere. Root exudation of organic anions is a key strategy in mobilizing less-available soil P. Scope This revi...
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Published in | Plant and soil Vol. 447; no. 1-2; pp. 135 - 156 |
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Main Authors | , |
Format | Journal Article |
Language | English |
Published |
Cham
Springer International Publishing
01.02.2020
Springer Springer Nature B.V |
Subjects | |
Online Access | Get full text |
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Abstract | Background
To improve plant phosphorus (P)-acquisition efficiency to secure sustainable food production, an important step is to increase the concentration of plant-available P in the rhizosphere. Root exudation of organic anions is a key strategy in mobilizing less-available soil P.
Scope
This review covers how organic anions (carboxylates) mobilize soil P and research methodologies applied. It then discusses the root-release of organic anions induced by low P availability and their contribution to soil P mobilization and plant P acquisition, and highlights the impact, challenges and perspectives in this research area.
Conclusions
The release of organic anions is increased considerably in some plant species, but very little in others under low P availability. Rhizosphere organic anions play important roles in increasing plant-available P, but the contribution is greatly affected by many factors. In future research, improved and ecologically meaningful root exudation sampling methods, the use of mature leaf manganese (Mn) concentration or total
14
C exudation as a proxy for rhizosphere carboxylates, case-by-case field experiments, molecular mechanisms underpinning organic anion biosynthesis and efflux under low P availability warrant further attention. Finally, carbon costs and multiple root trait combinations (e.g., root hairs plus root exudation) should be considered in crop breeding programs to generate more P-efficient cultivars. |
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AbstractList | Background
To improve plant phosphorus (P)-acquisition efficiency to secure sustainable food production, an important step is to increase the concentration of plant-available P in the rhizosphere. Root exudation of organic anions is a key strategy in mobilizing less-available soil P.
Scope
This review covers how organic anions (carboxylates) mobilize soil P and research methodologies applied. It then discusses the root-release of organic anions induced by low P availability and their contribution to soil P mobilization and plant P acquisition, and highlights the impact, challenges and perspectives in this research area.
Conclusions
The release of organic anions is increased considerably in some plant species, but very little in others under low P availability. Rhizosphere organic anions play important roles in increasing plant-available P, but the contribution is greatly affected by many factors. In future research, improved and ecologically meaningful root exudation sampling methods, the use of mature leaf manganese (Mn) concentration or total
14
C exudation as a proxy for rhizosphere carboxylates, case-by-case field experiments, molecular mechanisms underpinning organic anion biosynthesis and efflux under low P availability warrant further attention. Finally, carbon costs and multiple root trait combinations (e.g., root hairs plus root exudation) should be considered in crop breeding programs to generate more P-efficient cultivars. BackgroundTo improve plant phosphorus (P)-acquisition efficiency to secure sustainable food production, an important step is to increase the concentration of plant-available P in the rhizosphere. Root exudation of organic anions is a key strategy in mobilizing less-available soil P.ScopeThis review covers how organic anions (carboxylates) mobilize soil P and research methodologies applied. It then discusses the root-release of organic anions induced by low P availability and their contribution to soil P mobilization and plant P acquisition, and highlights the impact, challenges and perspectives in this research area.ConclusionsThe release of organic anions is increased considerably in some plant species, but very little in others under low P availability. Rhizosphere organic anions play important roles in increasing plant-available P, but the contribution is greatly affected by many factors. In future research, improved and ecologically meaningful root exudation sampling methods, the use of mature leaf manganese (Mn) concentration or total 14C exudation as a proxy for rhizosphere carboxylates, case-by-case field experiments, molecular mechanisms underpinning organic anion biosynthesis and efflux under low P availability warrant further attention. Finally, carbon costs and multiple root trait combinations (e.g., root hairs plus root exudation) should be considered in crop breeding programs to generate more P-efficient cultivars. Background To improve plant phosphorus (P)-acquisition efficiency to secure sustainable food production, an important step is to increase the concentration of plant-available P in the rhizosphere. Root exudation of organic anions is a key strategy in mobilizing less-available soil P. Scope This review covers how organic anions (carboxylates) mobilize soil P and research methodologies applied. It then discusses the root-release of organic anions induced by low P availability and their contribution to soil P mobilization and plant P acquisition, and highlights the impact, challenges and perspectives in this research area. Conclusions The release of organic anions is increased considerably in some plant species, but very little in others under low P availability. Rhizosphere organic anions play important roles in increasing plant-available P, but the contribution is greatly affected by many factors. In future research, improved and ecologically meaningful root exudation sampling methods, the use of mature leaf manganese (Mn) concentration or total .sup.14C exudation as a proxy for rhizosphere carboxylates, case-by-case field experiments, molecular mechanisms underpinning organic anion biosynthesis and efflux under low P availability warrant further attention. Finally, carbon costs and multiple root trait combinations (e.g., root hairs plus root exudation) should be considered in crop breeding programs to generate more P-efficient cultivars. |
Audience | Academic |
Author | Lambers, Hans Wang, Yanliang |
Author_xml | – sequence: 1 givenname: Yanliang orcidid: 0000-0001-6095-8235 surname: Wang fullname: Wang, Yanliang email: wylzq888@163.com organization: Norwegian Institute of Bioeconomy Research (NIBIO), Key Laboratory for Plant Diversity and Biogeography of East Asia, Kunming Institute of Botany, Chinese Academy of Sciences – sequence: 2 givenname: Hans surname: Lambers fullname: Lambers, Hans organization: School of Biological Sciences and Institute of Agriculture, University of Western Australia, National Academy of Agriculture Green Development, China Agricultural University |
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Keywords | P acquisition P availability Soil P mobilization Leaf Mn concentration Plant nutrition Root exudation Carboxylates |
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PublicationSubtitle | An International Journal on Plant-Soil Relationships |
PublicationTitle | Plant and soil |
PublicationTitleAbbrev | Plant Soil |
PublicationYear | 2020 |
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To improve plant phosphorus (P)-acquisition efficiency to secure sustainable food production, an important step is to increase the concentration of... Background To improve plant phosphorus (P)-acquisition efficiency to secure sustainable food production, an important step is to increase the concentration of... BackgroundTo improve plant phosphorus (P)-acquisition efficiency to secure sustainable food production, an important step is to increase the concentration of... |
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SubjectTerms | Anions Availability Bile Biomedical and Life Sciences Biosynthesis Carbon 14 Carboxylates Cultivars Ecology Efflux Exudation Field tests Food production Life Sciences Manganese Molecular modelling Organic phosphorus Phosphorus Plant breeding Plant Physiology Plant Sciences Plant species Regular Article Rhizosphere Root hairs Sampling methods Soil Science & Conservation Sustainable food systems Sustainable production |
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Title | Root-released organic anions in response to low phosphorus availability: recent progress, challenges and future perspectives |
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