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一种珍稀兰花间断分布种群中基于微卫星的遗传多样性模式

Microsatellite-based genetic diversity patterns in disjunct populations of a rare orchid.

作者信息

Pandey Madhav, Richards Matt, Sharma Jyotsna

机构信息

Department of Plant and Soil Science, Texas Tech University, Lubbock, TX, 79409, USA.

Molecular Research LP, Shallowater, TX, 79363, USA.

出版信息

Genetica. 2015 Dec;143(6):693-704. doi: 10.1007/s10709-015-9867-9. Epub 2015 Oct 20.

DOI:10.1007/s10709-015-9867-9
PMID:26481007
Abstract

We investigated the patterns of genetic diversity and structure in seven disjunct populations of a rare North American orchid, Cypripedium kentuckiense by including populations that represented the periphery and the center of the its range. Eight nuclear and two chloroplast microsatellites were used. Genetic diversity was low across the sampled populations of C. kentuckiense based on both nuclear (average An = 4.0, Ho = 0.436, He = 0.448) and cpDNA microsatellites (average An = 1.57, Nh = 1.57 and H = 0.133). The number of private alleles ranged from one to four per population with a total of 17 private alleles detected at five nuclear microsatellites. One private allele at one cpDNA microsatellite was also observed. Although the absolute values for nuclear microsatellite based population differentiation were low (Fst = 0.075; ϕPT = 0.24), they were statistically significant. Pairwise Fst values ranged from 0.038 to 0.123 and each comparison was significant. We also detected isolation by distance with nDNA microsatellites based on the Mantel test (r(2) = 0.209, P = 0.05). STRUCTURE analysis and the neighbor joining trees grouped the populations similarly whereby the geographically proximal populations were genetically similar. Our data indicate that the species is genetically depauperate but the diversity is distributed more or less equally across its range. Population differentiation and isolation by distance were detectable, which indicates that genetic isolation is beginning to manifest itself across the range in this rare species.

摘要

我们通过纳入代表其分布范围边缘和中心的种群,研究了北美珍稀兰花肯塔基杓兰七个间断分布种群的遗传多样性和结构模式。使用了八个核微卫星和两个叶绿体微卫星。基于核微卫星(平均等位基因数An = 4.0,观察杂合度Ho = 0.436,期望杂合度He = 0.448)和叶绿体DNA微卫星(平均等位基因数An = 1.57,单倍型数Nh = 1.57,基因多样性H = 0.133),肯塔基杓兰采样种群的遗传多样性较低。每个种群的私有等位基因数量从1到4个不等,在五个核微卫星上共检测到17个私有等位基因。在一个叶绿体DNA微卫星上也观察到一个私有等位基因。尽管基于核微卫星的种群分化绝对值较低(Fst = 0.075;ϕPT = 0.24),但具有统计学意义。成对Fst值范围为0.038至0.123,每次比较均具有显著性。基于Mantel检验,我们还用核DNA微卫星检测到了距离隔离(r(2) = 0.209,P = 0.05)。STRUCTURE分析和邻接树对种群的分组方式相似,即地理上相邻的种群在遗传上相似。我们的数据表明,该物种在遗传上较为贫乏,但多样性在其分布范围内或多或少均匀分布。种群分化和距离隔离是可检测到的,这表明在这个珍稀物种的整个分布范围内,遗传隔离开始显现。

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