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比较 wing geometry data 和 genetic data 以评估埃及伊蚊的种群结构。

Comparison of wing geometry data and genetic data for assessing the population structure of Aedes aegypti.

机构信息

Instituto Butantan - Seção Parasitologia, Av. Vital Brazil, 1500 São Paulo, SP, Brazil.

出版信息

Infect Genet Evol. 2012 Apr;12(3):591-6. doi: 10.1016/j.meegid.2011.11.013. Epub 2011 Dec 8.

DOI:10.1016/j.meegid.2011.11.013
PMID:22178147
Abstract

Aedes aegypti is the most important vector of dengue viruses in tropical and subtropical regions. Because vaccines are still under development, dengue prevention depends primarily on vector control. Population genetics is a common approach in research involving Ae. aegypti. In the context of medical entomology, wing morphometric analysis has been proposed as a strong and low-cost complementary tool for investigating population structure. Therefore, we comparatively evaluated the genetic and phenotypic variability of population samples of Ae. aegypti from four sampling sites in the metropolitan area of São Paulo city, Brazil. The distances between the sites ranged from 7.1 to 50 km. This area, where knowledge on the population genetics of this mosquito is incipient, was chosen due to the thousands of dengue cases registered yearly. The analysed loci were polymorphic, and they revealed population structure (global F(ST)=0.062; p<0.05) and low levels of gene flow (Nm=0.47) between the four locations. Principal component and discriminant analyses of wing shape variables (18 landmarks) demonstrated that wing polymorphisms were only slightly more common between populations than within populations. Whereas microsatellites allowed for geographic differentiation, wing geometry failed to distinguish the samples. These data suggest that microevolution in this species may affect genetic and morphological characters to different degrees. In this case, wing shape was not validated as a marker for assessing population structure. According to the interpretation of a previous report, the wing shape of Ae. aegypti does not vary significantly because it is stabilised by selective pressure.

摘要

埃及伊蚊是热带和亚热带地区登革热病毒最重要的传播媒介。由于疫苗仍在开发中,登革热的预防主要依赖于病媒控制。种群遗传学是研究埃及伊蚊的常用方法。在医学昆虫学中,翅膀形态测量分析已被提议作为研究种群结构的有力且低成本的补充工具。因此,我们比较评估了来自巴西圣保罗市大都市区四个采样点的埃及伊蚊种群样本的遗传和表型变异性。采样点之间的距离从 7.1 到 50 公里不等。选择这个区域是因为每年都有数千例登革热病例,该区域对这种蚊子的种群遗传学知之甚少。分析的基因座是多态的,它们揭示了种群结构(全球 F(ST)=0.062;p<0.05)和四个地点之间的低基因流(Nm=0.47)。翅膀形状变量(18 个标志)的主成分和判别分析表明,翅膀多态性在种群之间比在种群内部稍微更常见。虽然微卫星允许进行地理分化,但翅膀几何形状无法区分样本。这些数据表明,该物种的微观进化可能在不同程度上影响遗传和形态特征。在这种情况下,翅膀形状未被验证为评估种群结构的标记。根据之前一份报告的解释,埃及伊蚊的翅膀形状没有显著变化,因为它受到选择性压力的稳定。

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