Grassland plant species with slow-growing strategy are more resistant to extreme drought

Abstract The frequency and intensity of extreme droughts are increasing and are predicted to be more severe in the coming decades. Clarifying the reasons for species-specific resistance to extreme drought is vital for predicting changes in community structure and ecosystem functioning. While the ‘slow-fast’ economics spectrum is widely used to explain inter-specific variations in ecological strategies, community assembly, and ecosystem functioning, its role in driving plant resistance to extreme drought is under debate. We examined the relationship between the resistance of plants to extreme drought (60% reduction in growing season precipitation) and the ‘slow-fast’ economics spectrum across 13 species in a temperate steppe. We found significant interspecific variations in the resistance of plants to extreme drought, with the dominant grass, Leymus chinensis, showing the strongest resistance. Extreme drought resistance was negatively associated with the slow-fast continuum, with higher resistance of slow-growing species than the fast-growing ones. Chemical traits were more important than morphological traits in predicting plant resistance to extreme drought. Our results provide direct evidence for the strong association between the plant economics spectrum and species-level resistance to extreme drought and call for more attention to species with fast strategy due to their higher vulnerability to extreme drought.

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Publication Details

Journal
Journal of Plant Ecology
Published
2025-11-13
DOI
https://doi.org/10.1093/jpe/rtaf192
Primary Topic
Pasture and Agricultural Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

Grassland plant species with slow-growing strategy are more resistant to extreme drought

Alemayehu Adugna, Xiao‐Tao Lü, Xiaohua Yang, Xiaosa Liang et al.
Journal of Plant Ecology
Pasture and Agricultural Systems
article

Grassland plant species with slow-growing strategy are more resistant to extreme drought

Alemayehu Adugna, Xiao‐Tao Lü, Xiaohua Yang, Xiaosa Liang, Yuan Shi, Xiaoru Zhang, Xiaojing Zhang, Yuan-Xiu Wu, Cong Ding
article en

Abstract

Abstract The frequency and intensity of extreme droughts are increasing and are predicted to be more severe in the coming decades. Clarifying the reasons for species-specific resistance to extreme drought is vital for predicting changes in community structure and ecosystem functioning. While the ‘slow-fast’ economics spectrum is widely used to explain inter-specific variations in ecological strategies, community assembly, and ecosystem functioning, its role in driving plant resistance to extreme drought is under debate. We examined the relationship between the resistance of plants to extreme drought (60% reduction in growing season precipitation) and the ‘slow-fast’ economics spectrum across 13 species in a temperate steppe. We found significant interspecific variations in the resistance of plants to extreme drought, with the dominant grass, Leymus chinensis, showing the strongest resistance. Extreme drought resistance was negatively associated with the slow-fast continuum, with higher resistance of slow-growing species than the fast-growing ones. Chemical traits were more important than morphological traits in predicting plant resistance to extreme drought. Our results provide direct evidence for the strong association between the plant economics spectrum and species-level resistance to extreme drought and call for more attention to species with fast strategy due to their higher vulnerability to extreme drought.

Journal of Plant Ecology
Institute of Forest Ecology of the Slovak Academy of Sciences (SK), Institute of Applied Ecology (CN), Ambo University (ET), University of Chinese Academy of Sciences (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 61%
Pasture and Agricultural Systems
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