Herb hydraulics: Variation and correlation for traits governing drought tolerance and efficiency of water transport

草本植物 草本植物 福布 生物 比叶面积 导水率 木本植物 特质 生态学 植物 草药 土壤水分 光合作用 草原 医学 计算机科学 程序设计语言 传统医学
作者
Ruike Huang,Nan Di,Benye Xi,Jinyan Yang,Jie Duan,Ximeng Li,Jinchao Feng,Brendan Choat,David T. Tissue
出处
期刊:Science of The Total Environment [Elsevier]
卷期号:907: 168095-168095 被引量:3
标识
DOI:10.1016/j.scitotenv.2023.168095
摘要

Hydraulic traits dictate plant response to drought, thus enabling better understanding of community dynamics under global climate change. Despite being intensively documented in woody species, herbaceous species (graminoids and forbs) are largely understudied, hence the distribution and correlation of hydraulic traits in herbaceous species remains unclear. Here, we collected key hydraulic traits for 436 herbaceous species from published literature, including leaf hydraulic conductivity (Kleaf), water potential inducing 50 % loss of hydraulic conductivity (P50), stomatal closure (Pclose) and turgor loss (Ptlp). Trait variation of herbs was analyzed and contrasted with angiosperm woody species within the existing global hydraulic traits database, as well as between different growth forms within herbs. Furthermore, hydraulic traits coordination was also assessed for herbaceous species. We found that herbs showed overall more negative Pclose but less negative Ptlp compared with angiosperm woody species, while P50 did not differ between functional types, regardless of the organ (leaf and stem). In addition, correlations were found between Kleaf and P50 of leaf (P50leaf), as well as between Pclose, P50leaf and Kleaf. Within herbs, graminoids generally exhibited more negative P50 and Ptlp, but lower Kleaf, relative to forbs. Within herbs, no clear pattern regarding hydraulic traits-climate relationship was found. Our analysis provided insights into herb hydraulic, and highlighted the knowledge gaps need to be filled regarding the response of herbs to drought.

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