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果蝇生殖表型变异中雌雄相互作用的遗传基础。

The genetic basis for male x female interactions underlying variation in reproductive phenotypes of Drosophila.

机构信息

Department of Molecular Biology and Genetics, Cornell University, Ithaca, New York 14853-2703, USA.

出版信息

Genetics. 2010 Dec;186(4):1355-65. doi: 10.1534/genetics.110.123174. Epub 2010 Sep 27.

Abstract

In Drosophila, where females mate multiply, sperm competition contributes strongly to fitness variability among males. Males transfer "Acp" seminal proteins to females during mating, and these proteins influence the outcome of sperm competition. Because Acps function within the female, male proteins can directly interact with female molecules in a manner that affects reproductive fitness. Here we begin to dissect the genetic architecture of male×female interactions underlying reproductive phenotypes important to sperm competition. By utilizing chromosome extraction lines, we demonstrate that the third and X chromosomes each have large effects on fertility phenotypes, female remating rate, and the sperm competition parameter, P1. Strikingly, the third and X chromosomes harbor genetic variation that gives rise to strong male×female interactions that modulate female remating rate and P1. Encoded on these chromosomes are, respectively, sex peptide (SP) and sex peptide receptor (SPR), the only pair of physically interacting male Acp and female receptor known. We identified several intriguing allelic interactions between SP and SPR. The results of this study begin to elucidate the complex genetic architecture of reproductive and sperm competition phenotypes and have significant implications for the evolution of male and female characters.

摘要

在雌性多次交配的果蝇中,精子竞争强烈影响雄性的适应度变异性。雄性在交配过程中向雌性传递“Acp”精液蛋白,这些蛋白影响精子竞争的结果。由于 Acp 在雌性体内发挥作用,因此雄性蛋白可以直接与雌性分子相互作用,从而影响生殖适应度。在这里,我们开始剖析影响与精子竞争有关的重要生殖表型的雄性-雌性相互作用的遗传结构。通过利用染色体提取系,我们证明第三和 X 染色体对生育表型、雌性再次交配率和精子竞争参数 P1 都有很大的影响。引人注目的是,第三和 X 染色体携带有遗传变异,这些变异导致强烈的雄性-雌性相互作用,调节雌性再次交配率和 P1。这些染色体上分别编码性肽(SP)和性肽受体(SPR),这是唯一一对已知的具有物理相互作用的雄性 Acp 和雌性受体。我们发现了 SP 和 SPR 之间的几种有趣的等位基因相互作用。这项研究的结果开始阐明生殖和精子竞争表型的复杂遗传结构,并对雄性和雌性特征的进化具有重要意义。

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