Leaf economics and slow-fast adaptation across the geographic range of Arabidopsis thaliana

被引:0
作者
Kevin Sartori
François Vasseur
Cyrille Violle
Etienne Baron
Marianne Gerard
Nick Rowe
Oscar Ayala-Garay
Ananda Christophe
Laura Garcia de Jalón
Diane Masclef
Erwan Harscouet
Maria del Rey Granado
Agathe Chassagneux
Elena Kazakou
Denis Vile
机构
[1] Univ Montpellier,
[2] CNRS,undefined
[3] EPHE,undefined
[4] IRD,undefined
[5] Univ Paul Valéry Montpellier 3,undefined
[6] Univ Montpellier,undefined
[7] INRA,undefined
[8] Montpellier SupAgro,undefined
[9] LEPSE,undefined
[10] Univ Montpellier,undefined
[11] CIRAD,undefined
[12] CNRS,undefined
[13] INRA,undefined
[14] IRD,undefined
[15] Programa de Recursos Genéticos y Productividad (RGP)-Fisiología Vegetal,undefined
[16] Colegio de Postgraduados,undefined
[17] Office National de la Chasse et de la Faune sauvage,undefined
[18] DRE Unité,undefined
[19] Ongulés sauvages,undefined
[20] Univ Montpellier,undefined
[21] INRA,undefined
[22] Montpellier SupAgro,undefined
来源
Scientific Reports | / 9卷
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摘要
Life history strategies of most organisms are constrained by resource allocation patterns that follow a ‘slow-fast continuum’. It opposes slow growing and long-lived organisms with late investment in reproduction to those that grow faster, have earlier and larger reproductive effort and a short longevity. In plants, the Leaf Economics Spectrum (LES) depicts a leaf-level trade-off between the rate of carbon assimilation and leaf lifespan, as stressed in functional ecology from interspecific comparative studies. However, it is still unclear how the LES is connected to the slow-fast syndrome. Interspecific comparisons also impede a deep exploration of the linkage between LES variation and adaptation to climate. Here, we measured growth, morpho-physiological and life-history traits, at both the leaf and whole-plant levels, in 378 natural accessions of Arabidopsis thaliana. We found that the LES is tightly linked to variation in whole-plant functioning, and aligns with the slow-fast continuum. A genetic analysis further suggested that phenotypic differentiation results from the selection of different slow-fast strategies in contrasted climates. Slow growing and long-lived plants were preferentially found in cold and arid habitats while fast growing and short-lived ones in more favorable habitats. Our findings shed light on the role of the slow-fast continuum for plant adaptation to climate. More broadly, they encourage future studies to bridge functional ecology, genetics and evolutionary biology to improve our understanding of plant adaptation to environmental changes.
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