Genealogies in simple models of evolution
arXiv:1202.5997 · doi:10.1088/1742-5468/2013/01/P01006
Abstract
We review the statistical properties of the genealogies of a few models of evolution. In the asexual case, selection leads to coalescence times which grow logarithmically with the size of the population in contrast with the linear growth of the neutral case. Moreover for a whole class of models, the statistics of the genealogies are those of the Bolthausen-Sznitman coalescent rather than the Kingman coalescent in the neutral case. For sexual reproduction, the time to reach the first common ancestors to the whole population and the time for all individuals to have all their ancestors in common are also logarithmic in the neutral case, as predicted by Chang []. We discuss how these times are modified in a simple way of introducing selection.
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Cited by in corpus (7)
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- The genealogy of a solvable population model under selection with dynamics related to directed polymers
- The critical behaviors and the scaling functions of a coalescence equation
- Statistical physics methods provide the exact solution to a long-standing problem of genetics
- Let my people go (home) to Spain: a genealogical model of Jewish identities since 1492