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在外生菌根共生中,宿主植物的系统发育关系解释了真菌物种丰富度和群落组成的差异。

Phylogenetic relationships among host plants explain differences in fungal species richness and community composition in ectomycorrhizal symbiosis.

机构信息

Natural History Museum, University of Tartu, Tartu, Estonia.

出版信息

New Phytol. 2013 Aug;199(3):822-31. doi: 10.1111/nph.12328. Epub 2013 May 21.

DOI:10.1111/nph.12328
PMID:23692134
Abstract

Geographic and taxonomic host ranges determine the distribution of biotrophic organisms. Host phylogenetic distance strongly affects the community composition of pathogens and parasites, but little is known about the host phylogeny effect on communities of mutualists, such as plant-pollinator and plant-mycorrhizal fungi systems. By incorporating phylogenetic eigenvectors into univariate and multivariate models, we aimed to determine the relative contribution of host phylogeny and environmental variables to mycorrhizal traits and community composition of ectomycorrhizal (EcM) fungi in Salicaceae at the local scale. Host phylogeny explained 75% of the variation in fungal species richness and 20% of the variation in community composition. We also re-analyzed a system involving eight hosts from Japan, in which host phylogeny explained 26% and 9% of the variation in fungal richness and community composition, respectively. [Correction added after online publication 21 May 2013: in the preceding sentence the values 9% and 26% have been transposed.] Phylogenetic eigenvectors that differentially account for clades and terminal taxa across the phylogeny revealed stronger host effects than did the treatment of host species as categorical or dummy variables in multiregression models, and in comparison with methods such as Mantel test and its analogs. Our results indicate the usefulness of the eigenvector method for the quantification of the host phylogeny effect, which represents an integrated complex function of taxonomic sampling effect and phylogenetic distance per se.

摘要

地理和分类宿主范围决定了生物营养体生物的分布。宿主系统发育距离强烈影响病原体和寄生虫的群落组成,但对于互利共生体(如植物传粉者和植物菌根真菌系统)群落的宿主系统发育效应知之甚少。通过将系统发育特征向量纳入单变量和多变量模型,我们旨在确定宿主系统发育和环境变量对柳科植物外生菌根(EcM)真菌的菌根特征和群落组成的相对贡献。在局部尺度上,宿主系统发育解释了真菌物种丰富度变化的 75%和群落组成变化的 20%。我们还重新分析了一个涉及来自日本的 8 个宿主的系统,其中宿主系统发育分别解释了真菌丰富度和群落组成变化的 26%和 9%。[在线出版后更正 2013 年 5 月 21 日:在前一句中,9%和 26%的值已互换。]与多回归模型中分类单元和末端分类单元的处理相比,系统发育特征向量分别解释了进化枝和末端分类单元的差异,比处理宿主物种为分类或虚拟变量的方法更能说明宿主的影响,与 Mantel 检验及其类似物等方法相比也是如此。我们的结果表明,特征向量方法在宿主系统发育效应的量化方面非常有用,这代表了分类采样效应和进化距离本身的综合复杂函数。

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