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冰期后欧洲野苹果(Malus sylvestris Mill.)的再殖民历史,它是驯化苹果的野生贡献者。

Postglacial recolonization history of the European crabapple (Malus sylvestris Mill.), a wild contributor to the domesticated apple.

机构信息

CNRS, Laboratoire Ecologie Systématique et Evolution, UMR8079, Orsay, France.

出版信息

Mol Ecol. 2013 Apr;22(8):2249-63. doi: 10.1111/mec.12231. Epub 2013 Feb 12.

DOI:10.1111/mec.12231
PMID:23402276
Abstract

Understanding the way in which the climatic oscillations of the Quaternary Period have shaped the distribution and genetic structure of extant tree species provides insight into the processes driving species diversification, distribution and survival. Deciphering the genetic consequences of past climatic change is also critical for the conservation and sustainable management of forest and tree genetic resources, a timely endeavour as the Earth heads into a period of fast climate change. We used a combination of genetic data and ecological niche models to investigate the historical patterns of biogeographic range expansion of a wild fruit tree, the European crabapple (Malus sylvestris), a wild contributor to the domesticated apple. Both climatic predictions for the last glacial maximum and analyses of microsatellite variation indicated that M. sylvestris experienced range contraction and fragmentation. Bayesian clustering analyses revealed a clear pattern of genetic structure, with one genetic cluster spanning a large area in Western Europe and two other genetic clusters with a more limited distribution range in Eastern Europe, one around the Carpathian Mountains and the other restricted to the Balkan Peninsula. Approximate Bayesian computation appeared to be a powerful technique for inferring the history of these clusters, supporting a scenario of simultaneous differentiation of three separate glacial refugia. Admixture between these three populations was found in their suture zones. A weak isolation by distance pattern was detected within each population, indicating a high extent of historical gene flow for the European crabapple.

摘要

理解第四纪气候振荡如何塑造现存树种的分布和遗传结构,有助于深入了解驱动物种多样化、分布和生存的过程。解析过去气候变化的遗传后果对于保护和可持续管理森林和树木遗传资源也至关重要,因为地球正进入一个快速气候变化的时期。我们结合遗传数据和生态位模型来研究野生果树欧洲海棠(Malus sylvestris)的生物地理分布范围扩张的历史模式,欧洲海棠是驯化苹果的野生贡献者。末次冰盛期的气候预测和微卫星变异分析都表明,M. sylvestris 的分布范围曾发生收缩和碎片化。贝叶斯聚类分析显示出明显的遗传结构模式,一个遗传群落在西欧的一个大区域内延伸,另外两个遗传群落在东欧的分布范围更为有限,一个在喀尔巴阡山脉周围,另一个则局限于巴尔干半岛。近似贝叶斯计算似乎是推断这些群体历史的有力技术,支持了三个独立的冰川避难所同时分化的情景。在它们的缝合区域发现了这三个种群之间的混合。每个种群内都检测到了微弱的距离隔离模式,表明欧洲海棠具有高度的历史基因流。

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