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Landscape dynamics and evolution of colonizer syndromes: interactions between reproductive effortand dispersal in a metapopulation

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Abstract

The evolutionary consequences of changes in landscape dynamics for the evolution of life history syndromes are studied using a metapopulation model. We consider in turn the long-term effects of a change in the local disturbance rate, in the maximal local population persistence, in habitat productivity, and in habitat fragmentation. We examine the consequences of selective interactions between dispersal and reproductive effort by comparing the outcome of joint evolution to a situation where the species has lost the potential to evolve either its reproductive effort or its dispersal rate. We relax the classical assumption that any occupied site in the metapopulation reaches its carrying capacity immediately after recolonization. Our main conclusions are the following: (1) genetic diversity modifies the range of landscape parameters for which the metapopulation is viable, but it alters very little the qualitative evolutionary trends observed for each trait within this range. Although they are both part of a competition/colonization axis, reproductive effort and dispersal are not substitutable traits: their evolution reflects more directly the change in the landscape dynamics, than a selective interaction among them. (2) no general syndrome of covariation between reproductive effort and dispersal can be predicted: the pattern of association between the two traits depends on the type of change in landscape dynamics and on the saturation level. We review empirical evidence on colonizer syndromes and suggest lines for further empirical work.

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  1. Institut des Sciences de l'Evolution, Université de Montpellier, Place Eugène Bataillon, Montpellier Cedex 05, France

    Ophélie Ronce, Florence Perret & Isabelle Olivieri

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  1. Ophélie Ronce
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  2. Florence Perret
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  3. Isabelle Olivieri
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Ronce, O., Perret, F. & Olivieri, I. Landscape dynamics and evolution of colonizer syndromes: interactions between reproductive effortand dispersal in a metapopulation. Evolutionary Ecology 14, 233–260 (2000). https://doi.org/10.1023/A:1011068005057

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