[果蝇在高温和低温下的雄性不育]。

Journal de la Societe de biologie Pub Date : 2008-01-01 Epub Date: 2008-06-13 DOI:10.1051/jbio:2008014
Jean R David
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引用次数: 5

摘要

众所周知,在哺乳动物中,精子发生需要比身体温度低的温度。在变温动物中,例如昆虫,根据环境条件的雄性不育/生育能力仍然是一个被忽视的领域。1971年,黑腹果蝇(Drosophila melanogaster)在30℃条件下发育后完全雄性不育。两年后,在低温下观察到类似的现象。最近的比较研究表明,在黑腹龙身上发现的东西也适用于其他物种。在每种情况下,都可以定义与完整开发相兼容的温度范围。然而,根据所调查的物种,这一范围变化很大,例如6-26摄氏度或16-32摄氏度。在每种情况下,在达到致死阈值之前,都观察到雄性不育的发生。这种现象对于了解物种的地理分布可能很重要。世界各地的黑腹龙生活在非常不同的气候下,并表现出相应的适应能力。在夏季非常炎热的国家,如印度或非洲萨赫勒地区,男性不育仅在31摄氏度时出现。法国温带人群与耐热印度人群的杂交表明,遗传差异的很大一部分是由Y染色体携带的。这样的结果令人惊讶,因为Y染色体只包含极少数的基因。总之,果蝇物种在进化过程中能够适应非常不同的气候,并且随着这些适应,热不育阈值也发生了变化。但是,我们仍然缺乏一个进化假说来解释为什么在所有情况下,在极端、低温或高温下都会产生不育的雄性。
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[Male sterility at high and low temperatures in Drosophila].

It is well known that in Mammals, spermatogenesis requires a temperature lower than that of the body. In Ectotherms, for example in Insects, male sterility/ fertility according to environmental conditions also remains a neglected field. In Drosophila melanogaster, a complete male sterility after development at 30 degrees C was described in 1971. A similar phenomenon, observed at low temperature, was described two years later. Recent comparative investigations have shown that what was found in D. melanogaster was also valid in other species. In each case, it is possible to define a range of temperatures compatible with a complete development. According to the investigated species, however, this range is very variable, for example 6-26 degrees C or 16-32 degrees C. In each case, the occurrence of sterile males is observed before the lethality threshold is reached. Such a phenomenon is probably important for understanding the geographic distributions of species. The cosmopolitan D. melanogaster lives under very different climates and exhibits corresponding adaptations. In countries with a very hot summer, such as India or the African Sahel, male sterility appears only at 31 degrees C. Crosses between a temperate population from France and a heat-resistant Indian population revealed that a large part of the genetic difference was carried by the Y chromosome. Such a result is surprising since the Y chromosome harbors only a very small number of genes. In conclusion, drosophilid species, during their evolution, were able to adapt to very different climates and the thermal sterility thresholds have changed, following these adaptations. But we still lack an evolutionary hypothesis for explaining why sterile males are, in all cases, produced at extreme, low or high temperatures.

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