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Eco‐evolutionary feedbacks—Theoretical models and perspectives
Author(s) -
Govaert Lynn,
Fronhofer Emanuel A.,
Lion Sébastien,
Eizaguirre Christophe,
Bonte Dries,
Egas Martijn,
Hendry Andrew P.,
De Brito Martins Ayana,
Melián Carlos J.,
Raeymaekers Joost A. M.,
Ratikainen Irja I.,
Saether BerntErik,
Schweitzer Jennifer A.,
Matthews Blake
Publication year - 2019
Publication title -
functional ecology
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.272
H-Index - 154
eISSN - 1365-2435
pISSN - 0269-8463
DOI - 10.1111/1365-2435.13241
Subject(s) - ecology , evolutionary ecology , trait , evolutionary dynamics , context (archaeology) , biological dispersal , rotation formalisms in three dimensions , computer science , biology , population , sociology , paleontology , demography , programming language , host (biology) , geometry , mathematics
Theoretical models pertaining to feedbacks between ecological and evolutionary processes are prevalent in multiple biological fields. An integrative overview is currently lacking, due to little crosstalk between the fields and the use of different methodological approaches. Here, we review a wide range of models of eco‐evolutionary feedbacks and highlight their underlying assumptions. We discuss models where feedbacks occur both within and between hierarchical levels of ecosystems, including populations, communities and abiotic environments, and consider feedbacks across spatial scales. Identifying the commonalities among feedback models, and the underlying assumptions, helps us better understand the mechanistic basis of eco‐evolutionary feedbacks. Eco‐evolutionary feedbacks can be readily modelled by coupling demographic and evolutionary formalisms. We provide an overview of these approaches and suggest future integrative modelling avenues. Our overview highlights that eco‐evolutionary feedbacks have been incorporated in theoretical work for nearly a century. Yet, this work does not always include the notion of rapid evolution or concurrent ecological and evolutionary time scales. We show the importance of density‐ and frequency‐dependent selection for feedbacks, as well as the importance of dispersal as a central linking trait between ecology and evolution in a spatial context. A plain language summary is available for this article.