Evolution of chinook salmon (Oncorhynchus tshawytscha) populations in New Zealand: pattern, rate, and process.

By Thomas R. Quinn, M. Kinnison, M. Unwin. 2001

104 citations recorded by the source corpus.

Subfields: Ecology, Genetics, Nature and Landscape Conservation

View Paper: https://www.semanticscholar.org/paper/16b0007f4bd58c6fde50586c9ddfa1d23e965a67

How researchers see this paper

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

In Ecology

1. F. Utter
2. Jerald B. Johnson
3. C. Correa
4. P. Levin
5. Robin S. Waples
6. F. Mollet
7. A. Rijnsdorp
8. G. Pess

In Genetics

1. F. Utter
2. N. Hairston
3. M. Kinnison
4. C. Correa
5. Jerald B. Johnson
6. Robin S. Waples
7. A. Rijnsdorp
8. P. Kareiva

In Nature and Landscape Conservation

1. F. Utter
2. Jerald B. Johnson
3. C. Correa
4. P. Levin
5. Robin S. Waples
6. F. Mollet
7. A. Rijnsdorp
8. G. Pess

Citations in the corpus

• Chinook salmon invade southern South America (2008, background): “While homing rates are generally high, low (but non-zero) straying rates have important evolutionary consequences through both founding new runs which may involve ‘favoured-founders effect’ (Quinn et al. 2001), and increasing gene flow among populations (McDowall 2001).”
• Population genetics, conservation and evolution in salmonids and other widely cultured fishes: some perspectives over six decades (2004, background): “The successful readaptations and radiations from cultured populations of New Zealand Chinook salmon (Quinn et al., 2001) and pink salmon in the Great Lakes (Gharrett and 136”
• Fisheries-induced evolutionary changes in maturation reaction norms in North Sea sole Solea solea (2007, background): “…history changes following introduction to novel environments are also well established in several species in the wild (D. N. Reznick et al. 1997, Quinn et al. 2001), and hence, the hypothesis of a rapid 196 Mollet et al.: Maturation reaction norms in Solea solea fisheries-induced evolution in…”
• Synthesis, part of a Special Feature on Pathways to Resilient Salmon Ecosystems Evolutionary History, Habitat Disturbance Regimes, and Anthropogenic Changes: What Do These Mean for Resilience of Pacific Salmon Populations? (2009, background): “Each species of Pacific salmon comprises a number of evolutionarily significant units (ESUs; Waples 1991, 1995), which are groups of populations that share life history/genetic/ecological traits to a substantially greater degree than do populations from different ESUs.”
• THE PACIFIC SALMON WARS: What Science Brings to the Challenge of Recovering Species (2002, background): “Reconstructing recent divergence: evaluating nonequilibrium population structure in New Zealand Chinook salmon.”
• Eco-evolutionary conservation biology: contemporary evolution and the dynamics of persistence (2007, background): “Whereas founder effects are usually treated as random processes in models of colonisation, Quinn, Kinnison & Unwin (2001) suggested instead that adaptive evolution may arise due to selective processes that positively bias the features of founders.”