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- Articles by Pollak, E.
On the Theory of Partially Inbreeding Finite Populations. I. Partial Selfing
Edward Pollak 1
1 Department of Statistics, Iowa State University, Ames, Iowa
50011
Some stochastic theory is developed for monoecious populations
of size N in which there are probabilities ß and 1 - ß
of reproduction by selfing and by random mating. It is assumed that ß >>
N-1. Expressions are derived for the inbreeding coefficient
of one random individual and the coefficient of kinship of two random separate
individuals at time t. The mean and between-lines variance of the
fraction of copies of a locus that are identical in two random separate individuals
in an equilibrium population are obtained under the assumption that there
is an infinite number of possible alleles. It is found that the theory for
random mating populations holds if the effective population number is
Ne = N'/(1 + FIS), where
FIS is the inbreeding coefficient at equilibrium when
N is infinite and N' is the reciprocal of the probability
that two gametes contributing to random separate adults come from the same
parent. When there is a binomial distribution of successful gametes emanating
from each adult, N' = N. An approximation to the probability
that an allele A survives if it is originally present in one
A
heterozygote is found to be 2(N'/N)(
FISs1 + (1 - FIS)
s2), where s1 and s2 are
the selective advantages of AA and A
in comparison
with 
. In the last section it is shown that if there
is partial full sib mating and binomial offspring distributions N
e = N/(1 + 3FIS).
Accepted on June 24, 1987
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