Decoupling of plant nitrogen and phosphorus under global change over the last two decades

Abstract It has long been assumed that nitrogen and phosphorus cycles are closely coupled. However, this assumption has not been rigorously examined under global change, limiting the predictive power of nitrogen and phosphorus cycling. We conducted a meta‐analysis of 1341 data points from 107 published articles on the response of leaf nitrogen and phosphorus resorption efficiency to major global change factors (i.e. warming, drought, increased rainfall, elevated CO 2 , nitrogen fertilization and phosphorus fertilization) over the last two decades. We showed contrast responses of plant nitrogen and phosphorus resorption to these global change factors, indicating a decoupling of plant nitrogen and phosphorus cycles in the face of global change. These divergent responses were primarily driven by the shifts in nitrogen and phosphorus limitations induced by global change, suggesting that the decoupling of nitrogen and phosphorus cycles may be a plant adaptation strategy in response to nutrient limitation. Furthermore, multiple global change factors exerted additive effects on nitrogen and phosphorus resorption, with nitrogen fertilization being the most influential among them. Synthesis. Our results highlight that the decoupling of plant nitrogen and phosphorus cycles should be incorporated into ecological models to accurately predict ecosystem responses to global change.

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Publication Details

Journal
Journal of Ecology
Published
2025-06-11
DOI
https://doi.org/10.1111/1365-2745.70081
Citations
2
Primary Topic
Soil Carbon and Nitrogen Dynamics
Type
article
Field-Weighted Citation Impact
2.37

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article

Decoupling of plant nitrogen and phosphorus under global change over the last two decades

Pete Smith, Robert L. Sinsabaugh, Xiao‐Tao Lü, Fernando T. Maestre et al.
2 citations
Journal of Ecology
Soil Carbon and Nitrogen Dynamics
2.37
article

Decoupling of plant nitrogen and phosphorus under global change over the last two decades

Pete Smith, Robert L. Sinsabaugh, Xiao‐Tao Lü, Fernando T. Maestre, Mohamed S. Sheteiwy, Dejun Li, Raúl Ochoa‐Hueso, Ji Chen, Hao Chen, Yixue Hong
article en
2 citations

Abstract

Abstract It has long been assumed that nitrogen and phosphorus cycles are closely coupled. However, this assumption has not been rigorously examined under global change, limiting the predictive power of nitrogen and phosphorus cycling. We conducted a meta‐analysis of 1341 data points from 107 published articles on the response of leaf nitrogen and phosphorus resorption efficiency to major global change factors (i.e. warming, drought, increased rainfall, elevated CO 2 , nitrogen fertilization and phosphorus fertilization) over the last two decades. We showed contrast responses of plant nitrogen and phosphorus resorption to these global change factors, indicating a decoupling of plant nitrogen and phosphorus cycles in the face of global change. These divergent responses were primarily driven by the shifts in nitrogen and phosphorus limitations induced by global change, suggesting that the decoupling of nitrogen and phosphorus cycles may be a plant adaptation strategy in response to nutrient limitation. Furthermore, multiple global change factors exerted additive effects on nitrogen and phosphorus resorption, with nitrogen fertilization being the most influential among them. Synthesis. Our results highlight that the decoupling of plant nitrogen and phosphorus cycles should be incorporated into ecological models to accurately predict ecosystem responses to global change.

Journal of EcologyVol. 113(8)
Sun Yat-sen University (CN), Mansoura University (EG), University of New Mexico (US), University of Aberdeen (GB), Chinese Academy of Sciences (CN), United Arab Emirates University (AE), Universidad de Cádiz (ES), Institute of Subtropical Agriculture (CN), Netherlands Institute of Ecology (NL), Institute of Applied Ecology (CN), Institute of Earth Environment (CN), King Abdullah University of Science and Technology (SA), Xi'an Jiaotong University (CN)
National Natural Science Foundation of China, Chinese Academy of Sciences, King Abdullah University of Science and Technology, Natural Science Foundation of Shaanxi Province, Agencia Estatal de Investigación, Basic and Applied Basic Research Foundation of Guangdong Province
Openalex Percentile: Top 12%
Soil Carbon and Nitrogen Dynamics
2.37
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