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巨叶大戟属(大戟科)主要结构特征的系统发育与演化。

Phylogenetics and the evolution of major structural characters in the giant genus Euphorbia L. (Euphorbiaceae).

机构信息

Department of Botany, Smithsonian Institution, NMNH MRC-166, P.O. Box 37012, Washington, DC 20013-7012, USA.

出版信息

Mol Phylogenet Evol. 2012 May;63(2):305-26. doi: 10.1016/j.ympev.2011.12.022. Epub 2012 Jan 21.

DOI:10.1016/j.ympev.2011.12.022
PMID:22273597
Abstract

Euphorbia is among the largest genera of angiosperms, with about 2000 species that are renowned for their remarkably diverse growth forms. To clarify phylogenetic relationships in the genus, we used maximum likelihood, bayesian, and parsimony analyses of DNA sequence data from 10 markers representing all three plant genomes, averaging more than 16kbp for each accession. Taxon sampling included 176 representatives from Euphorbioideae (including 161 of Euphorbia). Analyses of these data robustly resolve a backbone topology of four major, subgeneric clades--Esula, Rhizanthium, Euphorbia, and Chamaesyce--that are successively sister lineages. Ancestral state reconstructions of six reproductive and growth form characters indicate that the earliest Euphorbia species were likely woody, non-succulent plants with helically arranged leaves and 5-glanded cyathia in terminal inflorescences. The highly modified growth forms and reproductive features in Euphorbia have independent origins within the subgeneric clades. Examples of extreme parallelism in trait evolution include at least 14 origins of xeromorphic growth forms and at least 13 origins of seed caruncles. The evolution of growth form and inflorescence position are significantly correlated, and a pathway of evolutionary transitions is supported that has implications for the evolution of Euphorbia xerophytes of large stature. Such xerophytes total more than 400 species and are dominants of vegetation types throughout much of arid Africa and Madagascar.

摘要

大戟属是被子植物中最大的属之一,约有 2000 种,以其形态多样而闻名。为了阐明属内的系统发育关系,我们使用了来自代表三个基因组的 10 个标记的 DNA 序列数据进行最大似然法、贝叶斯法和简约法分析,每个序列的平均长度超过 16kbp。分类群采样包括 176 种大戟科(包括 161 种大戟属)的代表。对这些数据的分析稳健地确定了四个主要的亚属分支的骨干拓扑结构——Euphorbioideae,其中包括 Esula、Rhizanthium、Euphorbia 和 Chamaesyce——它们是连续的姐妹谱系。六个生殖和生长形式特征的祖先状态重建表明,最早的大戟属植物可能是木质的、非肉质植物,具有螺旋排列的叶子和末端花序中的 5 个腺体的杯状花序。大戟属植物中高度特化的生长形式和生殖特征具有亚属分支内的独立起源。特征进化中至少有 14 个起源的旱生生长形式和至少 13 个起源的种皮隆突的例子是极端平行进化的例子。生长形式和花序位置的进化显著相关,支持了一个进化过渡的途径,这对高大的大戟属旱生植物的进化有影响。这种旱生植物共有 400 多种,是整个干旱非洲和马达加斯加大部分地区植被类型的优势种。

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