ASYMMETRIC PATCH SIZE DISTRIBUTION LEADS TO DISRUPTIVE SELECTION ON DISPERSAL
Numerous models have been designed to understand how dispersal ability evolves when organisms live in a fragmented landscape. Most of them predict a single dispersal rate at evolutionary equilibrium, and when diversification of dispersal rates has been predicted, it occurs as a response to perturbat...
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| Published in: | Evolution Vol. 65; no. 2; pp. 490 - 500 |
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| Abstract | Numerous models have been designed to understand how dispersal ability evolves when organisms live in a fragmented landscape. Most of them predict a single dispersal rate at evolutionary equilibrium, and when diversification of dispersal rates has been predicted, it occurs as a response to perturbation or environmental fluctuation regimes. Yet abundant variation in dispersal ability is observed in natural populations and communities, even in relatively stable environments. We show that this diversification can operate in a simple island model without temporal variability: disruptive selection on dispersal occurs when the environment consists of many small and few large patches, a common feature in natural spatial systems. This heterogeneity in patch size results in a high variability in the number of related patch mates by individual, which, in turn, triggers disruptive selection through a high per capita variance of inclusive fitness. Our study provides a likely, parsimonious and testable explanation for the diversity of dispersal rates encountered in nature. It also suggests that biological conservation policies aiming at preserving ecological communities should strive to keep the distribution of patch size sufficiently asymmetric and variable. |
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| AbstractList | Numerous models have been designed to understand how dispersal ability evolves when organisms live in a fragmented landscape. Most of them predict a single dispersal rate at evolutionary equilibrium, and when diversification of dispersal rates has been predicted, it occurs as a response to perturbation or environmental fluctuation regimes. Yet abundant variation in dispersal ability is observed in natural populations and communities, even in relatively stable environments. We show that this diversification can operate in a simple island model without temporal variability: disruptive selection on dispersal occurs when the environment consists of many small and few large patches, a common feature in natural spatial systems. This heterogeneity in patch size results in a high variability in the number of related patch mates by individual, which, in turn, triggers disruptive selection through a high per capita variance of inclusive fitness. Our study provides a likely, parsimonious and testable explanation for the diversity of dispersal rates encountered in nature. It also suggests that biological conservation policies aiming at preserving ecological communities should strive to keep the distribution of patch size sufficiently asymmetric and variable. Numerous models have been designed to understand how dispersal ability evolves when organisms live in a fragmented landscape. Most of them predict a single dispersal rate at evolutionary equilibrium, and when diversification of dispersal rates has been predicted, it occurs as a response to perturbation or environmental fluctuation regimes. Yet abundant variation in dispersal ability is observed in natural populations and communities, even in relatively stable environments. We show that this diversification can operate in a simple island model without temporal variability: disruptive selection on dispersal occurs when the environment consists of many small and few large patches, a common feature in natural spatial systems. This heterogeneity in patch size results in a high variability in the number of related patch mates by individual, which, in turn, triggers disruptive selection through a high per capita variance of inclusive fitness. Our study provides a likely, parsimonious and testable explanation for the diversity of dispersal rates encountered in nature. It also suggests that biological conservation policies aiming at preserving ecological communities should strive to keep the distribution of patch size sufficiently asymmetric and variable. [PUBLICATION ABSTRACT] |
| Author | Duputié, Anne David, Patrice Massol, François Jarne, Philippe |
| Author_xml | – sequence: 1 givenname: François surname: Massol fullname: Massol, François – sequence: 2 givenname: Anne surname: Duputié fullname: Duputié, Anne – sequence: 3 givenname: Patrice surname: David fullname: David, Patrice – sequence: 4 givenname: Philippe surname: Jarne fullname: Jarne, Philippe |
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| Copyright | Copyright © 2011 Society for the Study of Evolution 2010 The Author(s). © 2010 The Society for the Study of Evolution 2010 The Author(s). Evolution© 2010 The Society for the Study of Evolution. Copyright Society for the Study of Evolution Feb 2011 Distributed under a Creative Commons Attribution 4.0 International License |
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| Keywords | BIODIVERSITY evolutionary branching ENVIRONMENTS PERSPECTIVE Adaptive dynamics METAPOPULATION MODELS DEPENDENT DISPERSAL STRATEGIES DENSITY RATES EVOLUTION dispersal evolution kin selection habitat heterogeneity POPULATION-DYNAMICS evolutionarily stable strategy |
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| SubjectTerms | Adaptive dynamics Animals Biodiversity Biodiversity and Ecology Biological Evolution Biological variation Biota Carrying capacity Computer Simulation Conservation of Natural Resources dispersal evolution Disruptive selection Ecological competition Ecological genetics Ecosystem Environmental Sciences Evolution evolutionarily stable strategy Evolutionary biology evolutionary branching habitat heterogeneity kin selection Metapopulation ecology Modeling Models, Genetic Population size Selection, Genetic Species Stabilizing selection |
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| Title | ASYMMETRIC PATCH SIZE DISTRIBUTION LEADS TO DISRUPTIVE SELECTION ON DISPERSAL |
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