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跨越海冰的运动脉冲:北极狐的种群连通性和时间遗传结构。

Pulses of movement across the sea ice: population connectivity and temporal genetic structure in the arctic fox.

机构信息

Department of Zoology, Stockholm University, Stockholm, Sweden.

出版信息

Oecologia. 2011 Aug;166(4):973-84. doi: 10.1007/s00442-011-1939-7. Epub 2011 Feb 23.

DOI:10.1007/s00442-011-1939-7
PMID:21344255
Abstract

Lemmings are involved in several important functions in the Arctic ecosystem. The Arctic fox (Vulpes lagopus) can be divided into two discrete ecotypes: "lemming foxes" and "coastal foxes". Crashes in lemming abundance can result in pulses of "lemming fox" movement across the Arctic sea ice and immigration into coastal habitats in search for food. These pulses can influence the genetic structure of the receiving population. We have tested the impact of immigration on the genetic structure of the "coastal fox" population in Svalbard by recording microsatellite variation in seven loci for 162 Arctic foxes sampled during the summer and winter over a 5-year period. Genetic heterogeneity and temporal genetic shifts, as inferred by STRUCTURE simulations and deviations from Hardy-Weinberg proportions, respectively, were recorded. Maximum likelihood estimates of movement as well as STRUCTURE simulations suggested that both immigration and genetic mixture are higher in Svalbard than in the neighbouring "lemming fox" populations. The STRUCTURE simulations and AMOVA revealed there are differences in genetic composition of the population between summer and winter seasons, indicating that immigrants are not present in the reproductive portion of the Svalbard population. Based on these results, we conclude that Arctic fox population structure varies with time and is influenced by immigration from neighbouring populations. The lemming cycle is likely an important factor shaping Arctic fox movement across sea ice and the subsequent population genetic structure, but is also likely to influence local adaptation to the coastal habitat and the prevalence of diseases.

摘要

旅鼠在北极生态系统中发挥着多种重要作用。北极狐(Vulpes lagopus)可分为两种截然不同的生态型:“旅鼠狐”和“沿海狐”。旅鼠数量的锐减会导致大量“旅鼠狐”穿越北极海冰,向沿海地区迁徙以寻找食物,这种迁徙脉冲会影响接收种群的遗传结构。我们通过在 5 年内夏季和冬季分别采集 162 只北极狐的 7 个微卫星位点的遗传变异数据,来检验移民对斯瓦尔巴特群岛“沿海狐”种群遗传结构的影响。分别通过 STRUCTURE 模拟和偏离 Hardy-Weinberg 比例推断记录遗传异质性和遗传时间变化。迁移的最大似然估计以及 STRUCTURE 模拟均表明,斯瓦尔巴特群岛的移民和遗传混合程度均高于相邻的“旅鼠狐”种群。STRUCTURE 模拟和 AMOVA 表明,夏季和冬季种群的遗传组成存在差异,表明斯瓦尔巴特群岛的繁殖群体中没有移民。基于这些结果,我们得出结论,北极狐种群结构随时间变化而变化,并受到来自相邻种群的移民的影响。旅鼠周期可能是塑造北极狐穿越海冰的重要因素,并影响随后的种群遗传结构,但也可能影响对沿海栖息地的适应和疾病的流行。

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