Biogeographic inferences across spatial and evolutionary scales

The field of biogeography unites landscape genetics and phylogeography under a common conceptual framework. Landscape genetics traditionally focuses on recent‐time, population‐based, spatial genetics processes at small geographical scales, while phylogeography typically investigates deep past, linea...

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Veröffentlicht in:Molecular ecology 2023-04, Vol.32 (8), p.2055-2070
Hauptverfasser: Wishingrad, Van, Thomson, Robert C.
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description The field of biogeography unites landscape genetics and phylogeography under a common conceptual framework. Landscape genetics traditionally focuses on recent‐time, population‐based, spatial genetics processes at small geographical scales, while phylogeography typically investigates deep past, lineage‐ and species‐based processes at large geographical scales. Here, we evaluate the link between landscape genetics and phylogeographical methods using the western fence lizard (Sceloporus occidentalis) as a model species. First, we conducted replicated landscape genetics studies across several geographical scales to investigate how population genetics inferences change depending on the spatial extent of the study area. Then, we carried out a phylogeographical study of population structure at two evolutionary scales informed by inferences derived from landscape genetics results to identify concordance and conflict between these sets of methods. We found significant concordance in landscape genetics processes at all but the largest geographical scale. Phylogeographical results indicate major clades are restricted to distinct river drainages or distinct hydrological regions. At a more recent timescale, we find minor clades are restricted to single river canyons in the majority of cases, while the remainder of river canyons include samples from at most two clades. Overall, the broad‐scale pattern implicating stream and river valleys as key features linking populations in the landscape genetics results, and high degree of clade specificity within major topographic subdivisions in the phylogeographical results, is consistent. As landscape genetics and phylogeography share many of the same objectives, synthesizing theory, models and methods between these fields will help bring about a better understanding of ecological and evolutionary processes structuring genetic variation across space and time.
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source MEDLINE; Wiley Online Library Journals Frontfile Complete
subjects Biogeography
Biological Evolution
Canyons
climate
ddRAD
elevation
Evolution
Genetic diversity
Genetic Variation - genetics
Genetics
Genetics, Population
genomics
Hydrology
Isolation by resistance (IBR)
Landscape
phylogenetics
Phylogeny
Phylogeography
Population genetics
Population structure
Population studies
reptile
River valleys
Rivers
Subdivisions
topography
vegetation
title Biogeographic inferences across spatial and evolutionary scales
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