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Cycles of trans-Arctic dispersal and vicariance, and diversification of the amphi-boreal marine fauna. / Laakkonen, H.M.; Hardman, Michael; Strelkov, Petr ; Väinölä, R.

в: Journal of Evolutionary Biology, 09.09.2020.

Результаты исследований: Научные публикации в периодических изданияхстатьяРецензирование

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Laakkonen, H.M. ; Hardman, Michael ; Strelkov, Petr ; Väinölä, R. / Cycles of trans-Arctic dispersal and vicariance, and diversification of the amphi-boreal marine fauna. в: Journal of Evolutionary Biology. 2020.

BibTeX

@article{e41c9546a37540c88856d178394a7b8c,
title = "Cycles of trans-Arctic dispersal and vicariance, and diversification of the amphi-boreal marine fauna",
abstract = "The amphi‐boreal faunal element comprises closely related species and conspecific populations with vicarious distributions in the North Atlantic and North Pacific basins. It originated from an initial trans‐Arctic dispersal in the Pliocene after the first opening of the Bering Strait, and subsequent inter‐oceanic vicariance through the Pleistocene when the passage through the Arctic was severed by glaciations and low sea levels. Opportunities for further trans‐Arctic dispersal have risen at times, however, and molecular data now expose more complex patterns of inter‐oceanic affinities and dispersal histories. For a general view on the trans‐Arctic dynamics and of the roles of potential dispersal–vicariance cycles in generating systematic diversity, we produced new phylogeographic data sets for amphi‐boreal taxa in 21 genera of invertebrates and vertebrates, and combined them with similar published data sets of mitochondrial coding gene variation, adding up to 89 inter‐oceanic comparisons involving molluscs, crustaceans, echinoderms, polychaetes, fishes and mammals. Only 39% of the cases correspond to a simple history of Pliocene divergence; in most taxonomical groups, the range of divergence estimates implies connections through the entire Pliocene–Pleistocene–Holocene time frame. Repeated inter‐oceanic exchange was inferred for 23 taxa, and the latest connection was usually post‐glacial. Such repeated invasions have usually led to secondary contacts and occasionally to widespread hybridization between the different invasion waves. Late‐ or post‐glacial exchange was inferred in 46% of the taxa, stressing the importance of the relatively recent invasions to the current diversity in the North Atlantic. Individual taxa also showed complex idiosyncratic patterns and histories, and several instances of cryptic speciation were recognized. In contrast to a simple inter‐oceanic vicariance scenario underlying amphi‐boreal speciation, the data expose complex patterns of reinvasion and reticulation that complicate the interpretation of taxon boundaries in the region.",
keywords = "North Atlantic, North Pacific, phylogeography, secondary contact, speciation, vicariance, SPECIES COMPLEX, POPULATION, PHYLOGEOGRAPHY, MITOCHONDRIAL, MACOMA-BALTHICA, CLIMATE-CHANGE, HYBRIDIZATION, HYBRID SWARM, NORTH-ATLANTIC, SEA-URCHINS",
author = "H.M. Laakkonen and Michael Hardman and Petr Strelkov and R. V{\"a}in{\"o}l{\"a}",
year = "2020",
month = sep,
day = "9",
doi = "http://dx.doi.org/10.1111/jeb.13674",
language = "English",
journal = "Journal of Evolutionary Biology",
issn = "1010-061X",
publisher = "Wiley-Blackwell",

}

RIS

TY - JOUR

T1 - Cycles of trans-Arctic dispersal and vicariance, and diversification of the amphi-boreal marine fauna

AU - Laakkonen, H.M.

AU - Hardman, Michael

AU - Strelkov, Petr

AU - Väinölä, R.

PY - 2020/9/9

Y1 - 2020/9/9

N2 - The amphi‐boreal faunal element comprises closely related species and conspecific populations with vicarious distributions in the North Atlantic and North Pacific basins. It originated from an initial trans‐Arctic dispersal in the Pliocene after the first opening of the Bering Strait, and subsequent inter‐oceanic vicariance through the Pleistocene when the passage through the Arctic was severed by glaciations and low sea levels. Opportunities for further trans‐Arctic dispersal have risen at times, however, and molecular data now expose more complex patterns of inter‐oceanic affinities and dispersal histories. For a general view on the trans‐Arctic dynamics and of the roles of potential dispersal–vicariance cycles in generating systematic diversity, we produced new phylogeographic data sets for amphi‐boreal taxa in 21 genera of invertebrates and vertebrates, and combined them with similar published data sets of mitochondrial coding gene variation, adding up to 89 inter‐oceanic comparisons involving molluscs, crustaceans, echinoderms, polychaetes, fishes and mammals. Only 39% of the cases correspond to a simple history of Pliocene divergence; in most taxonomical groups, the range of divergence estimates implies connections through the entire Pliocene–Pleistocene–Holocene time frame. Repeated inter‐oceanic exchange was inferred for 23 taxa, and the latest connection was usually post‐glacial. Such repeated invasions have usually led to secondary contacts and occasionally to widespread hybridization between the different invasion waves. Late‐ or post‐glacial exchange was inferred in 46% of the taxa, stressing the importance of the relatively recent invasions to the current diversity in the North Atlantic. Individual taxa also showed complex idiosyncratic patterns and histories, and several instances of cryptic speciation were recognized. In contrast to a simple inter‐oceanic vicariance scenario underlying amphi‐boreal speciation, the data expose complex patterns of reinvasion and reticulation that complicate the interpretation of taxon boundaries in the region.

AB - The amphi‐boreal faunal element comprises closely related species and conspecific populations with vicarious distributions in the North Atlantic and North Pacific basins. It originated from an initial trans‐Arctic dispersal in the Pliocene after the first opening of the Bering Strait, and subsequent inter‐oceanic vicariance through the Pleistocene when the passage through the Arctic was severed by glaciations and low sea levels. Opportunities for further trans‐Arctic dispersal have risen at times, however, and molecular data now expose more complex patterns of inter‐oceanic affinities and dispersal histories. For a general view on the trans‐Arctic dynamics and of the roles of potential dispersal–vicariance cycles in generating systematic diversity, we produced new phylogeographic data sets for amphi‐boreal taxa in 21 genera of invertebrates and vertebrates, and combined them with similar published data sets of mitochondrial coding gene variation, adding up to 89 inter‐oceanic comparisons involving molluscs, crustaceans, echinoderms, polychaetes, fishes and mammals. Only 39% of the cases correspond to a simple history of Pliocene divergence; in most taxonomical groups, the range of divergence estimates implies connections through the entire Pliocene–Pleistocene–Holocene time frame. Repeated inter‐oceanic exchange was inferred for 23 taxa, and the latest connection was usually post‐glacial. Such repeated invasions have usually led to secondary contacts and occasionally to widespread hybridization between the different invasion waves. Late‐ or post‐glacial exchange was inferred in 46% of the taxa, stressing the importance of the relatively recent invasions to the current diversity in the North Atlantic. Individual taxa also showed complex idiosyncratic patterns and histories, and several instances of cryptic speciation were recognized. In contrast to a simple inter‐oceanic vicariance scenario underlying amphi‐boreal speciation, the data expose complex patterns of reinvasion and reticulation that complicate the interpretation of taxon boundaries in the region.

KW - North Atlantic

KW - North Pacific

KW - phylogeography

KW - secondary contact

KW - speciation

KW - vicariance

KW - SPECIES COMPLEX

KW - POPULATION

KW - PHYLOGEOGRAPHY

KW - MITOCHONDRIAL

KW - MACOMA-BALTHICA

KW - CLIMATE-CHANGE

KW - HYBRIDIZATION

KW - HYBRID SWARM

KW - NORTH-ATLANTIC

KW - SEA-URCHINS

UR - http://www.scopus.com/inward/record.url?scp=85090445013&partnerID=8YFLogxK

U2 - http://dx.doi.org/10.1111/jeb.13674

DO - http://dx.doi.org/10.1111/jeb.13674

M3 - Article

JO - Journal of Evolutionary Biology

JF - Journal of Evolutionary Biology

SN - 1010-061X

ER -

ID: 62104259