Genetic structure of deep-water redfish, Sebastesmentella, populations across the North Atlantic

By S. Roques, J. Sévigny, L. Bernatchez. 2002

98 citations recorded by the source corpus.

Subfields: Global and Planetary Change, Molecular Biology, Nature and Landscape Conservation

View Paper: https://www.semanticscholar.org/paper/5cf534923363f8c501bbba69e4a1c73a6bef8e2f

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Global and Planetary Change

1. Rochelle D. Seitz
2. Stefano Mariani
3. A. Shanks
4. Francisco Saborido-Rey
5. W. G. Hill
6. T. Ysebaert
7. Jessica A. Miller
8. C. Stransky

In Molecular Biology

1. W. G. Hill
2. Bruce S. Weir
3. A. Shanks
4. Rochelle D. Seitz
5. S. Cadrin

In Nature and Landscape Conservation

1. Francisco Saborido-Rey
2. W. G. Hill
3. Jessica A. Miller
4. C. Stransky
5. Bruce S. Weir
6. A. Shanks
7. L. Kerr
8. Benjamin Planque

Citations in the corpus

• Population structure of beaked redfish, Sebastes mentella: evidence of divergence associated with different habitats (2010, methodology): “For example, the lack of correlation between genetic distance and geographic distance among samples from the Faroe Islands to the Grand Banks (e.g. Roques et al., 2002) probably results from depth-based differences among locations that are geographically close.”
• Ecological value of coastal habitats for commercially and ecologically important species (2014, background): “…(1973, 1994); Chanet (2003) Sebastes marinus Golden redfish 50 –300 Pikanwski et al. (1999) Sebastes mentella Beaked redfish 300–1 400 Pikanwski et al. (1999); Roques et al. (2002) Solea solea Sole N, F S, M Yes ,60 Dorel et al. (1991); Koutsikopoulos et al. (1991); Cabral (2000); Grioche et al.…”
• Connectivity, sustainability, and yield: bridging the gap between conventional fisheries management and marine protected areas (2009, background): “While PLD can be coupled with mean current velocity to obtain dispersal distances (e.g., Roberts 1997 ), such a simplistic approach is typically not valid and it is generally recognized that metapopulation level outcomes are more complex than this.”
• Molecular genetic structure suggests limited larval dispersal in grass rockfish, Sebastes rastrelliger (2003, background): “In previous studies, genetic breaks were detected at large spatial scales in rockfishes that are dispersed far offshore (Rocha-Olivares and Vetter 1999; Roques et al. 2002 ).”
• Evidence for limited larval dispersal in black rockfish (Sebastes melanops): implications for population structure and marine-reserve design (2004, background): “Such studies hypothesize that limited larval dispersal may be one mechanism contributing to the genetic divergence observed (Withler et al. 2001; Buonaccorsi et al. 2002; Roques et al. 2002 ).”
• Estimating F-statistics. (2002, methodology): “The paper is still widely cited; in the first three months of 2002 the methods it described were applied to data on ash trees (59), Barbus (86), barley (42), barnacle (22), butterfly (18), cherry (54), cod (44), cord grass (85), Drosophila (32), eelgrass (64), frog (84), housefly (23), insects (58, ”
• Limited realized dispersal and introgressive hybridization influence genetic structure and conservation strategies for brown rockfish, Sebastes auriculatus (2005, background): “…the Pteropodus lineage of rockfishes contrasts with the population structure detected in deeper water Pan-oceanic S. mentella in the north Atlantic (Roques et al. 2002), the effects of oceanographic circulation seen in S. helvomaculatus (RochaOlivares and Vetter 1999), and the complex island…”