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一个核单核苷酸多态性(SNP),可能有助于从 Rhodnius robustus 隐种复合体(半翅目:Reduviidae)中分离 Rhodnius prolixus。

A nuclear single-nucleotide polymorphism (SNP) potentially useful for the separation of Rhodnius prolixus from members of the Rhodnius robustus cryptic species complex (Hemiptera: Reduviidae).

机构信息

Laboratório de Sistemáticae Bioquímica, Instituto Oswaldo Cruz, FIOCRUZ, Rio de Janeiro, Brazil.

出版信息

Infect Genet Evol. 2013 Mar;14:426-33. doi: 10.1016/j.meegid.2012.10.018. Epub 2012 Dec 6.

Abstract

The design and application of rational strategies that rely on accurate species identification are pivotal for effective vector control. When morphological identification of the target vector species is impractical, the use of molecular markers is required. Here we describe a non-coding, single-copy nuclear DNA fragment that contains a single-nucleotide polymorphism (SNP) with the potential to distinguish the important domestic Chagas disease vector, Rhodnius prolixus, from members of the four sylvatic Rhodnius robustus cryptic species complex. A total of 96 primer pairs obtained from whole genome shotgun sequencing of the R. prolixus genome (12,626 random reads) were tested on 43 R. prolixus and R. robustus s.l. samples. One of the seven amplicons selected (AmpG) presented a SNP, potentially diagnostic for R. prolixus, on the 280th site. The diagnostic nature of this SNP was then confirmed based on the analysis of 154 R. prolixus and R. robustus s.l. samples representing the widest possible geographic coverage. The results of a 60% majority-rule Bayesian consensus tree and a median-joining network constructed based on the genetic variability observed reveal the paraphyletic nature of the R. robustus species complex, with respect to R. prolixus. The AmpG region is located in the fourth intron of the Transmembrane protein 165 gene, which seems to be in the R. prolixus X chromosome. Other possible chromosomal locations of the AmpG region in the R. prolixus genome are also presented and discussed.

摘要

设计和应用合理的策略,依赖于准确的物种鉴定,这对于有效的病媒控制至关重要。当目标病媒物种的形态鉴定不切实际时,需要使用分子标记。在这里,我们描述了一个非编码的、单拷贝的核 DNA 片段,其中包含一个单核苷酸多态性(SNP),有可能将重要的家栖恰加斯病病媒——棕尾𫛚(Rhodnius prolixus)与四个野生棕尾𫛚隐匿种复合体的成员区分开来。总共从棕尾𫛚基因组的全基因组鸟枪法测序(12626 个随机读取)中获得了 96 对引物,在 43 个棕尾𫛚和棕尾𫛚 s.l.样本上进行了测试。从 7 个扩增子中选择的一个(AmpG)在第 280 位呈现出一个 SNP,可能是棕尾𫛚的诊断标记。然后,根据对代表尽可能广泛地理覆盖范围的 154 个棕尾𫛚和棕尾𫛚 s.l.样本的分析,确认了该 SNP 的诊断性质。基于观察到的遗传变异构建的 60%多数规则贝叶斯共识树和中位数连接网络的结果揭示了棕尾𫛚种复合体相对于棕尾𫛚的并系性质。AmpG 区域位于跨膜蛋白 165 基因的第四个内含子中,该基因似乎位于棕尾𫛚的 X 染色体上。还提出并讨论了 AmpG 区域在棕尾𫛚基因组中的其他可能染色体位置。

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