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SNP 基因分型定义了非洲疟疾传播媒介蚊子之间复杂的基因流动边界。

SNP genotyping defines complex gene-flow boundaries among African malaria vector mosquitoes.

机构信息

Broad Institute, Cambridge, MA 02142, USA.

Imperial College London, London SW7 2AZ, UK.

出版信息

Science. 2010 Oct 22;330(6003):514-517. doi: 10.1126/science.1193036.

Abstract

Mosquitoes in the Anopheles gambiae complex show rapid ecological and behavioral diversification, traits that promote malaria transmission and complicate vector control efforts. A high-density, genome-wide mosquito SNP-genotyping array allowed mapping of genomic differentiation between populations and species that exhibit varying levels of reproductive isolation. Regions near centromeres or within polymorphic inversions exhibited the greatest genetic divergence, but divergence was also observed elsewhere in the genomes. Signals of natural selection within populations were overrepresented among genomic regions that are differentiated between populations, implying that differentiation is often driven by population-specific selective events. Complex genomic differentiation among speciating vector mosquito populations implies that tools for genome-wide monitoring of population structure will prove useful for the advancement of malaria eradication.

摘要

冈比亚按蚊复合体中的蚊子表现出快速的生态和行为多样化,这些特征促进了疟疾的传播,并使病媒控制工作复杂化。高密度的全基因组蚊子 SNP 基因分型阵列允许对表现出不同程度生殖隔离的种群和物种之间的基因组分化进行作图。着丝粒附近或多态倒位内部的区域表现出最大的遗传分化,但在基因组的其他地方也观察到了分化。种群内的自然选择信号在种群间分化的基因组区域中过度表达,这意味着分化通常是由种群特异性选择事件驱动的。在正在形成的病媒蚊子种群中,复杂的基因组分化意味着用于全基因组监测种群结构的工具将有助于推进疟疾消除工作。

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