Movement and Genomic Methods Reveal Mechanisms Promoting Connectivity in a Declining Shorebird: The Lesser Yellowlegs

Integrating tracking technology and molecular approaches provides a comprehensive picture of contemporary and evolutionary mechanisms promoting connectivity. We used mitochondrial DNA and double digest restriction-site associated DNA (ddRAD) sequencing combined with satellite telemetry to investigat...

Full description

Bibliographic Details
Main Authors: Katherine Christie, Robert E. Wilson, James A. Johnson, Christian Friis, Christopher M. Harwood, Laura A. McDuffie, Erica Nol, Sarah A. Sonsthagen
Format: Article
Language:English
Published: MDPI AG 2023-04-01
Series:Diversity
Subjects:
Online Access:https://www.mdpi.com/1424-2818/15/5/595
_version_ 1797600387025338368
author Katherine Christie
Robert E. Wilson
James A. Johnson
Christian Friis
Christopher M. Harwood
Laura A. McDuffie
Erica Nol
Sarah A. Sonsthagen
author_facet Katherine Christie
Robert E. Wilson
James A. Johnson
Christian Friis
Christopher M. Harwood
Laura A. McDuffie
Erica Nol
Sarah A. Sonsthagen
author_sort Katherine Christie
collection DOAJ
description Integrating tracking technology and molecular approaches provides a comprehensive picture of contemporary and evolutionary mechanisms promoting connectivity. We used mitochondrial DNA and double digest restriction-site associated DNA (ddRAD) sequencing combined with satellite telemetry to investigate the connectivity of geographically disparate breeding populations of a declining boreal shorebird, the lesser yellowlegs (<i>Tringa flavipes</i>). We were able to track 33 individuals on their round-trip migrations to Central and South America and back to the boreal wetlands of North America. Nearly all (93%) adults captured on the breeding grounds returned to within 5 km of the original capture site, with a median dispersal distance of 629 m. While our telemetry data revealed limited breeding dispersal in adults, genetic data uncovered significant interconnectedness across the species’ range. Very little genetic structure was estimated at ddRAD autosomal (<i>Φ<sub>ST</sub></i> = 0.001), Z-linked (<i>Φ<sub>ST</sub></i> = 0.001), and mtDNA loci (<i>Φ<sub>ST</sub></i> = 0.020), and maximum likelihood-based clustering methods placed all individuals in a single cluster regardless of capture location, indicating the species is panmictic. Our data indicate that large-scale juvenile dispersal is the main mechanism maintaining connectivity in this species, resulting in the absence of genomic structure.
first_indexed 2024-03-11T03:47:24Z
format Article
id doaj.art-227e2804b4084b1180b6061abfb16f1d
institution Directory Open Access Journal
issn 1424-2818
language English
last_indexed 2024-03-11T03:47:24Z
publishDate 2023-04-01
publisher MDPI AG
record_format Article
series Diversity
spelling doaj.art-227e2804b4084b1180b6061abfb16f1d2023-11-18T01:06:04ZengMDPI AGDiversity1424-28182023-04-0115559510.3390/d15050595Movement and Genomic Methods Reveal Mechanisms Promoting Connectivity in a Declining Shorebird: The Lesser YellowlegsKatherine Christie0Robert E. Wilson1James A. Johnson2Christian Friis3Christopher M. Harwood4Laura A. McDuffie5Erica Nol6Sarah A. Sonsthagen7Alaska Department of Fish and Game, Threatened, Endangered and Diversity Program, Anchorage, AK 99518, USASchool of Natural Resources, University of Nebraska-Lincoln, Lincoln, NE 68583, USAU.S. Fish and Wildlife Service, Division of Migratory Birds, Anchorage, AK 99503, USAEnvironment and Climate Change Canada, Canadian Wildlife Service, Toronto, ON M3H 5T4, CanadaU.S. Fish and Wildlife Service, Kanuti National Wildlife Refuge, Fairbanks, AK 99701, USAU.S. Geological Survey, Alaska Science Center, Anchorage, AK 99508, USABiology Department, Trent University, Peterborough, ON K9L 0G2, CanadaU.S. Geological Survey, Nebraska Cooperative Fish and Wildlife Research Unit, School of Natural Resources, University of Nebraska-Lincoln, Lincoln, NE 68583, USAIntegrating tracking technology and molecular approaches provides a comprehensive picture of contemporary and evolutionary mechanisms promoting connectivity. We used mitochondrial DNA and double digest restriction-site associated DNA (ddRAD) sequencing combined with satellite telemetry to investigate the connectivity of geographically disparate breeding populations of a declining boreal shorebird, the lesser yellowlegs (<i>Tringa flavipes</i>). We were able to track 33 individuals on their round-trip migrations to Central and South America and back to the boreal wetlands of North America. Nearly all (93%) adults captured on the breeding grounds returned to within 5 km of the original capture site, with a median dispersal distance of 629 m. While our telemetry data revealed limited breeding dispersal in adults, genetic data uncovered significant interconnectedness across the species’ range. Very little genetic structure was estimated at ddRAD autosomal (<i>Φ<sub>ST</sub></i> = 0.001), Z-linked (<i>Φ<sub>ST</sub></i> = 0.001), and mtDNA loci (<i>Φ<sub>ST</sub></i> = 0.020), and maximum likelihood-based clustering methods placed all individuals in a single cluster regardless of capture location, indicating the species is panmictic. Our data indicate that large-scale juvenile dispersal is the main mechanism maintaining connectivity in this species, resulting in the absence of genomic structure.https://www.mdpi.com/1424-2818/15/5/595<i>Tringa flavipes</i>genetic diversityborealconnectivityharvestshorebird
spellingShingle Katherine Christie
Robert E. Wilson
James A. Johnson
Christian Friis
Christopher M. Harwood
Laura A. McDuffie
Erica Nol
Sarah A. Sonsthagen
Movement and Genomic Methods Reveal Mechanisms Promoting Connectivity in a Declining Shorebird: The Lesser Yellowlegs
Diversity
<i>Tringa flavipes</i>
genetic diversity
boreal
connectivity
harvest
shorebird
title Movement and Genomic Methods Reveal Mechanisms Promoting Connectivity in a Declining Shorebird: The Lesser Yellowlegs
title_full Movement and Genomic Methods Reveal Mechanisms Promoting Connectivity in a Declining Shorebird: The Lesser Yellowlegs
title_fullStr Movement and Genomic Methods Reveal Mechanisms Promoting Connectivity in a Declining Shorebird: The Lesser Yellowlegs
title_full_unstemmed Movement and Genomic Methods Reveal Mechanisms Promoting Connectivity in a Declining Shorebird: The Lesser Yellowlegs
title_short Movement and Genomic Methods Reveal Mechanisms Promoting Connectivity in a Declining Shorebird: The Lesser Yellowlegs
title_sort movement and genomic methods reveal mechanisms promoting connectivity in a declining shorebird the lesser yellowlegs
topic <i>Tringa flavipes</i>
genetic diversity
boreal
connectivity
harvest
shorebird
url https://www.mdpi.com/1424-2818/15/5/595
work_keys_str_mv AT katherinechristie movementandgenomicmethodsrevealmechanismspromotingconnectivityinadecliningshorebirdthelesseryellowlegs
AT robertewilson movementandgenomicmethodsrevealmechanismspromotingconnectivityinadecliningshorebirdthelesseryellowlegs
AT jamesajohnson movementandgenomicmethodsrevealmechanismspromotingconnectivityinadecliningshorebirdthelesseryellowlegs
AT christianfriis movementandgenomicmethodsrevealmechanismspromotingconnectivityinadecliningshorebirdthelesseryellowlegs
AT christophermharwood movementandgenomicmethodsrevealmechanismspromotingconnectivityinadecliningshorebirdthelesseryellowlegs
AT lauraamcduffie movementandgenomicmethodsrevealmechanismspromotingconnectivityinadecliningshorebirdthelesseryellowlegs
AT ericanol movementandgenomicmethodsrevealmechanismspromotingconnectivityinadecliningshorebirdthelesseryellowlegs
AT sarahasonsthagen movementandgenomicmethodsrevealmechanismspromotingconnectivityinadecliningshorebirdthelesseryellowlegs