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中欧石松属(Diphasiastrum,石松科)的遗传多样性和杂种形成——来自 cp 微卫星、两个核标记和 AFLP 的新见解。

Genetic diversity and hybrid formation in Central European club-mosses (Diphasiastrum, Lycopodiaceae) - New insights from cp microsatellites, two nuclear markers and AFLP.

机构信息

Institute of Botany and Landscape Ecology, Ernst Moritz Arndt University of Greifswald, Soldmannstraße 15, D-17487 Greifswald, Germany.

Büro für angewandte Geobotanik und Landschaftsökologie (BaGL), Frankenstraße 2, D-91077 Dormitz, Germany.

出版信息

Mol Phylogenet Evol. 2019 Feb;131:181-192. doi: 10.1016/j.ympev.2018.11.001. Epub 2018 Nov 9.

DOI:10.1016/j.ympev.2018.11.001
PMID:30415022
Abstract

In Europe, the genus Diphasiastrum (Lycopodiophyta) forms a reticulate network of six diploid taxa, including three parent species (D. alpinum, D. complanatum and D. tristachyum) and three hybrids (D. × issleri, D. × oellgaardii and D. × zeilleri). It was not clear if the hybrids arose once or repeatedly, if they have reproductive competence and if backcrossing occurs. We addressed these questions by analysing 209 accessions for chloroplast microsatellites (cp), two nuclear markers (introns of the RPB and LFY genes) and AFLP. For D. complanatum we show a sexual life cycle with alternation of generations: the gametophytic DNA amount is half of that of the sporophyte. With the exception of a single accession all hybrids display one of the two parental cp haplotypes; their frequencies do not differ significantly from a 1:1 ratio. Genotypes of nuclear markers are species-specific, displaying 2/4/1 (RPB) and 1/8/1 alleles (LFY) for the three parents mentioned above; all hybrids have one allele from each parent. All three hybrid taxa apparently represent independent F1 crosses. Hybridisation occurs bidirectional; no evidence for recent backcrossing was found. Asexual reproduction via agamospory is at least rare, since AFLP showed all hybrid plants to be different.

摘要

在欧洲,Diphasiastrum 属(石松植物门)形成了一个由六个二倍体分类群组成的网状网络,其中包括三个亲种(D. alpinum、D. complanatum 和 D. tristachyum)和三个杂种(D. × issleri、D. × oellgaardii 和 D. × zeilleri)。不清楚这些杂种是一次性产生的还是多次产生的,它们是否具有生殖能力,以及是否发生回交。我们通过分析 209 个叶绿体微卫星(cp)、两个核标记(RPB 和 LFY 基因的内含子)和 AFLP 来解决这些问题。对于 D. complanatum,我们展示了一个具有世代交替的有性生命周期:配子体的 DNA 含量是孢子体的一半。除了一个单独的样本外,所有杂种都显示出两个亲本 cp 单倍型中的一个;它们的频率与 1:1 比例没有显著差异。核标记的基因型是种特异性的,显示出上述三个亲本的 2/4/1(RPB)和 1/8/1 等位基因(LFY);所有杂种都有来自每个亲本的一个等位基因。显然,这三个杂种分类群都代表了独立的 F1 杂交。杂交是双向的;没有发现最近回交的证据。通过无配子生殖的无性繁殖至少很少见,因为 AFLP 显示所有杂种植物都是不同的。

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