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Male–driven evolution of DNA sequences in birds

Abstract

Assuming that new mutations arise mainly during DNA replication, sequence evolution in mammals has been seen as ‘male driven’ (ref. 1) because of the many more cell divisions in spermatogenesis than in oogenesis. Molecular support for this idea has been obtained from the observation of higher substitution rates in genes on the Y than on the X chromosome of primates and rodents2–4, which are species with male heterogamety, but has not been confirmed by the reciprocal analysis of organisms with female heterogamety. The recent suggestion that an intrinsic reduction in the X-chromosome mutation rate may be confounded with male effects in previous comparisons5, and the paradoxical finding of low levels of polymorphism on the primate Y chromosome6–8 indicate that the idea of male-biased mutation rate needs to be re-examined. We have analysed the molecular evolution of the gene CHD, which is present on the Z and W sex chromosomes of birds. The substitution rate at synonymous positions, as well as in intron DNA, was considerably higher on the Z chromosome than on the female-specific W chromosome, with an estimated male-to-female bias in mutation rate (αm) of 3.9–6.5. Thus, evolution appears to be male driven in birds—a situation that supports a neutral model of molecular evolution.

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Correspondence to Hans Ellegren.

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Ellegren, H., Fridolfsson, AK. Male–driven evolution of DNA sequences in birds. Nat Genet 17, 182–184 (1997). https://doi.org/10.1038/ng1097-182

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