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Rapid Evolution of the Mammalian HILS1 Gene and the Nuclear Condensation Process during Mammalian Spermiogenesis

Rapid Evolution of the Mammalian HILS1 Gene and the Nuclear Condensation Process during Mammalian Spermiogenesis
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摘要 Many genes associated with reproduction show rapid evolution across diverse animal groups, a result commonly due to adaptive evolution driven by positive selection (Swanson and Vacquier, 2002). Different theories have been proposed to explain the elevated rates of evolution (Swanson and Vacquier, 2002), including sperm competition, where sperm compete to fertilize eggs leading to the proteins in the sper- matozoa adaptively evolving to increase their ability to fertilize eggs; sexual conflict, where the egg experiences a loss of fitness when sperm are too abundant; sexual selection, where eggs bind sperm carrying adaptive alleles (Palumbi, 1999); and cryptic female choice (reviewed in Swanson and Vacquier, 2002). Many genes associated with reproduction show rapid evolution across diverse animal groups, a result commonly due to adaptive evolution driven by positive selection (Swanson and Vacquier, 2002). Different theories have been proposed to explain the elevated rates of evolution (Swanson and Vacquier, 2002), including sperm competition, where sperm compete to fertilize eggs leading to the proteins in the sper- matozoa adaptively evolving to increase their ability to fertilize eggs; sexual conflict, where the egg experiences a loss of fitness when sperm are too abundant; sexual selection, where eggs bind sperm carrying adaptive alleles (Palumbi, 1999); and cryptic female choice (reviewed in Swanson and Vacquier, 2002).
出处 《Journal of Genetics and Genomics》 SCIE CAS CSCD 2013年第1期55-59,共5页 遗传学报(英文版)
基金 supported by the grant from the National Natural Science Foundation of China(No.31061160189)
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