Genetic structure among 50 species of the northeastern Pacific rocky intertidal community

Comparing many species' population genetic patterns across the same seascape can identify species with different levels of structure, and suggest hypotheses about the processes that cause such variation for species in the same ecosystem. This comparative approach helps focus on geographic barri...

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Veröffentlicht in:PloS one 2010-01, Vol.5 (1), p.e8594-e8594
Hauptverfasser: Kelly, Ryan P, Palumbi, Stephen R
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description Comparing many species' population genetic patterns across the same seascape can identify species with different levels of structure, and suggest hypotheses about the processes that cause such variation for species in the same ecosystem. This comparative approach helps focus on geographic barriers and selective or demographic processes that define genetic connectivity on an ecosystem scale, the understanding of which is particularly important for large-scale management efforts. Moreover, a multispecies dataset has great statistical advantages over single-species studies, lending explanatory power in an effort to uncover the mechanisms driving population structure. Here, we analyze a 50-species dataset of Pacific nearshore invertebrates with the aim of discovering the most influential structuring factors along the Pacific coast of North America. We collected cytochrome c oxidase I (COI) mtDNA data from populations of 34 species of marine invertebrates sampled coarsely at four coastal locations in California, Oregon, and Alaska, and added published data from 16 additional species. All nine species with non-pelagic development have strong genetic structure. For the 41 species with pelagic development, 13 show significant genetic differentiation, nine of which show striking FST levels of 0.1-0.6. Finer scale geographic investigations show unexpected regional patterns of genetic change near Cape Mendocino in northern California for five of the six species tested. The region between Oregon and Alaska is a second focus of intraspecific genetic change, showing differentiation in half the species tested. Across regions, strong genetic subdivision occurs more often than expected in mid-to-high intertidal species, a result that may reflect reduced gene flow due to natural selection along coastal environmental gradients. Finally, the results highlight the importance of making primary research accessible to policymakers, as unexpected barriers to marine dispersal break the coast into separate demographic zones that may require their own management plans.
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subjects Animals
Biodiversity
Biogeography
Bioinformatics
Biology
Biometrics
Coastal ecosystems
Coastal environments
Coastal zone
Coasts
Comparative analysis
Cytochrome
Cytochrome-c oxidase
Data analysis
Demographics
Differentiation
Dispersal
DNA, Mitochondrial - genetics
Ecology/Marine and Freshwater Ecology
Ecology/Population Ecology
Ecosystem biology
Ecosystems
Electron Transport Complex IV - genetics
Environmental changes
Fisheries
Gene flow
Genetic research
Genetic structure
Genetics and Genomics/Population Genetics
Genetics, Population
Integrated software
Invertebrates
Marine and Aquatic Sciences/Biological Oceanography
Marine and Aquatic Sciences/Ecology
Marine and Aquatic Sciences/Evolutionary Biology
Marine and Aquatic Sciences/Genetics, Genomics, and Barcoding
Marine Biology
Marine ecology
Marine invertebrates
Mitochondrial DNA
Natural selection
Northwestern United States
Paleobiology
Population (statistical)
Population genetics
Population structure
Software packages
Species
Tide pools
Tigriopus californicus
title Genetic structure among 50 species of the northeastern Pacific rocky intertidal community
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