Increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitats

Abstract Estimation of leaf nutrient composition of dominant plant species from contrasting habitats (i.e., karst and nonkarst forests) provides an opportunity to understand how plants are adapted to karst habitats from the perspective of leaf traits. Here, we measured leaf traits—specific leaf area...

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Main Authors: Songbo Tang, Jianfeng Liu, Hans Lambers, Lingling Zhang, Zhanfeng Liu, Yutong Lin, Yuanwen Kuang
Format: Article
Language:English
Published: Wiley 2021-08-01
Series:Ecology and Evolution
Subjects:
Online Access:https://doi.org/10.1002/ece3.7832
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spelling doaj-127d55159767437cb94710915ce655912021-08-02T18:48:03ZengWileyEcology and Evolution2045-77582021-08-011115102771028910.1002/ece3.7832Increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitatsSongbo Tang0Jianfeng Liu1Hans Lambers2Lingling Zhang3Zhanfeng Liu4Yutong Lin5Yuanwen Kuang6Key Laboratory of Vegetation Restoration and Management of Degraded Ecosystems South China Botanical Garden Chinese Academy of Sciences Guangzhou ChinaKey Laboratory of Tree Breeding and Cultivation of State Forestry Administration Research Institute of Forestry Chinese Academy of Forestry Beijing ChinaSchool of Biological Sciences University of Western Australia Perth WA AustraliaKey Laboratory of Vegetation Restoration and Management of Degraded Ecosystems South China Botanical Garden Chinese Academy of Sciences Guangzhou ChinaKey Laboratory of Vegetation Restoration and Management of Degraded Ecosystems South China Botanical Garden Chinese Academy of Sciences Guangzhou ChinaKey Laboratory of Vegetation Restoration and Management of Degraded Ecosystems South China Botanical Garden Chinese Academy of Sciences Guangzhou ChinaKey Laboratory of Vegetation Restoration and Management of Degraded Ecosystems South China Botanical Garden Chinese Academy of Sciences Guangzhou ChinaAbstract Estimation of leaf nutrient composition of dominant plant species from contrasting habitats (i.e., karst and nonkarst forests) provides an opportunity to understand how plants are adapted to karst habitats from the perspective of leaf traits. Here, we measured leaf traits—specific leaf area (SLA), concentrations of total carbon ([TC]), nitrogen ([TN]), phosphorus ([TP]), calcium ([Ca]), magnesium ([Mg]), manganese ([Mn]), minerals ([Min]), soluble sugars, soluble phenolics, lipids, and organic acids ([OA])—and calculated water‐use efficiency (WUE), construction costs (CC), and N/P ratios, and searched for correlations between these traits of 18 abundant plant species in karst and nonkarst forests in southwestern China. Variation in leaf traits within and across the abundant species was both divergent and convergent. Leaf [TC], [Ca], [Min], [OA], and CC were habitat‐dependent, while the others were not habitat‐ but species‐specific. The correlations among [TN], [TP], SLA, [TC], CC, [Min], WUE, [OA], and CC were habitat‐independent, and inherently associated with plant growth and carbon allocation; those between [CC] and [Lip], between [Ca] and [Mg], and between [Mg] and [WUE] were habitat‐dependent. Habitat significantly affected leaf [Ca] and thus indirectly affected leaf [OA], [Min], and CC. Our results indicate that plants may regulate leaf [Ca] to moderate levels via adjusting leaf [OA] under both high and low soil Ca availability, and offer new insights into the abundance of common plant species in contrasting habitats.https://doi.org/10.1002/ece3.7832adaptationcalciumGuizhoumineralnonkarstnutrients
collection DOAJ
language English
format Article
sources DOAJ
author Songbo Tang
Jianfeng Liu
Hans Lambers
Lingling Zhang
Zhanfeng Liu
Yutong Lin
Yuanwen Kuang
spellingShingle Songbo Tang
Jianfeng Liu
Hans Lambers
Lingling Zhang
Zhanfeng Liu
Yutong Lin
Yuanwen Kuang
Increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitats
Ecology and Evolution
adaptation
calcium
Guizhou
mineral
nonkarst
nutrients
author_facet Songbo Tang
Jianfeng Liu
Hans Lambers
Lingling Zhang
Zhanfeng Liu
Yutong Lin
Yuanwen Kuang
author_sort Songbo Tang
title Increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitats
title_short Increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitats
title_full Increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitats
title_fullStr Increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitats
title_full_unstemmed Increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitats
title_sort increase in leaf organic acids to enhance adaptability of dominant plant species in karst habitats
publisher Wiley
series Ecology and Evolution
issn 2045-7758
publishDate 2021-08-01
description Abstract Estimation of leaf nutrient composition of dominant plant species from contrasting habitats (i.e., karst and nonkarst forests) provides an opportunity to understand how plants are adapted to karst habitats from the perspective of leaf traits. Here, we measured leaf traits—specific leaf area (SLA), concentrations of total carbon ([TC]), nitrogen ([TN]), phosphorus ([TP]), calcium ([Ca]), magnesium ([Mg]), manganese ([Mn]), minerals ([Min]), soluble sugars, soluble phenolics, lipids, and organic acids ([OA])—and calculated water‐use efficiency (WUE), construction costs (CC), and N/P ratios, and searched for correlations between these traits of 18 abundant plant species in karst and nonkarst forests in southwestern China. Variation in leaf traits within and across the abundant species was both divergent and convergent. Leaf [TC], [Ca], [Min], [OA], and CC were habitat‐dependent, while the others were not habitat‐ but species‐specific. The correlations among [TN], [TP], SLA, [TC], CC, [Min], WUE, [OA], and CC were habitat‐independent, and inherently associated with plant growth and carbon allocation; those between [CC] and [Lip], between [Ca] and [Mg], and between [Mg] and [WUE] were habitat‐dependent. Habitat significantly affected leaf [Ca] and thus indirectly affected leaf [OA], [Min], and CC. Our results indicate that plants may regulate leaf [Ca] to moderate levels via adjusting leaf [OA] under both high and low soil Ca availability, and offer new insights into the abundance of common plant species in contrasting habitats.
topic adaptation
calcium
Guizhou
mineral
nonkarst
nutrients
url https://doi.org/10.1002/ece3.7832
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