Climate impacts on Pacific salmon : bibliography (2024)

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Journal of Environmental Management, 2010

Technical Report

North Pacific Anadromous Fish Commission Bulletin, 2016

Fishery Bulletin- National Oceanic and Atmospheric Administration

Fish stocks and fisheries in the Gulf of Alaska are strongly influenced by climatic and oceanic (C-O) conditions (Francis and Hare, 1994; Hare and Francis, 1995). In the past century C-O conditions in the North Pacific Ocean and Gulf of Alaska (GOA) have shifted from a warm regime and higher salmon (Oncorhynchus spp.) produc-tion (1927–46) to a cool regime and low salmon production (1947–76) and back to a warm regime and higher salmon production (1977–2000) (Francis and Hare, 1994; Hare and Francis, 1995). Changes in C-O conditions, either annually or over longer regime peri-ods, may affect salmon smolt-to-adult survival rates by affecting the growth rate of smolts after they enter the ocean. For example, higher survival rates of Alaska sockeye (O. nerka), pink (O. gorbuscha), and chum (O. keta) salmon have been associated with warmer coastal sea-surface tem-peratures (SST) during the first year that young salmon spend in the ocean (Mueter et al., 2002a). Relationships have been fou...

Deep Sea Research Part II: Topical Studies in Oceanography, 2020

Conservation Biology, 2013

Fisheries

This work resulted from a continuing multidisciplinary analysis of species preservation and global change. The paper explores the economic cost of a potential regional warming as it affects one Pacific Northwest natural resource, the spring chinook salmon (Oncorhynchus ...

North Pacific Anadromous Fish Commission Bulletin

Conservation …, 2006

Climatic Change, 2013

Fisheries Oceanography, 2007

Transactions of the American Fisheries Society, 2005

Seasonal and annual marine growth of chum salmon (Oncorhynchusketa) from Fish Creek, Alaska, during 1972–2004 and from Quilcene River, Washington, during 1973–2004 were examined in relationto abundances of chum salmon and pink salmon (O. gorbuscha) andclimate indices from that period. Pink salmon abundance indices wereincluded in the analysis because of evidence for density-dependent effects on chum salmon growth and survival. In linear regression models,growth was negatively related to abundance of chum salmon or to the combined abundance of pink and chum salmon during the middle juvenile (July–Sept), 1st immature, 2nd immature, and maturing stages for the Fish Creek chum salmon and the 1st immature, 2nd immature, and maturing stages for Quilcene River chum salmon, indicating possibledensity-dependent effects on growth. Mid-juvenile and maturing growthmodels for the Fish Creek chum salmon and the maturing growth model for Quilcene River chum salmon performed well in model validation, when model predictions were tested against 20% of the data that were not used for model specification, and provided insight into theeffects of climate and abundance on growth of chum salmon from 1972 to 2004.

Technical Report 11