bioRxivEvolutionary Biology
Bernstein polynomial approximation of fixation probability in finite population evolutionary games
Abstract
We use the Bernstein polynomials of degree d as the basis for constructing a uniform approximation to the rate of evolution (related to the fixation probability) of a species in a two-component finite-population frequency-dependent evolutionary game setting. The approximation is valid over the full range 0 [≤] w [≤] 1, where w is the selection pressure parameter, and converges uniformly to the exact solution as d [->] {infty}. We compare it to a widely used non-uniform approximation formula in the weak-selection limit (w [~] 0) as well as numerically computed values of the exact solution. Because of a boundary layer that occurs in the weak-selection limit, the Bernstein polynomial method is more efficient at approximating the rate of evolution in the strong selection region (w [~] 1) (requiring the use of fewer modes to obtain the same level of accuracy) than in the weak selection regime.
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