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Hormonal control of osmoregulation in basal vertebrates, including sea lamprey and Atlantic sturgeon

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Chinook salmon after exposure to elevated temperature in streamside tanks on the Yukon River, Alaska. Shown in photo: USGS researchers Dan Donnelly, Sarah Laske, and Shannon Waters. Photo credit: Stephen McCormick.

Effects of temperature and energy use on fish passage and spawning success of American shad

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Localization of NKAα1a (green), NKAα1b (red), and co-labeled NKAα1a and NKAα1b (yellow–orange) immunoreactive ionocytes in gill tissue of Atlantic salmon freshwater smolts (6 May). Photo credit: McCormick et al. (2013) J of Exp Biol., 216.

Comparison of salinity tolerance and feeding in landlocked and anadromous sea lamprey

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Larval river herring observed through a dissecting microscope. Photo credit: Lian Guo

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A pair of downstream-migrating, juvenile sea lampreys (Petromyzon marinus L.) and abundant gill Na+/K+-ATPase (red staining) is associated with seawater osmoregulation cells. Photo credit: Jonathan Wilson. Cover image of Journal of Experimental Biology, Vol 211 (6), March 2008.

Thermal physiology of salmonids, including brook trout, Atlantic salmon and Alaskan sockeye salmon

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Adult American shad being measured for fat content after being exposed to elevated stream temperatures during the upstream migration. Photo credit: Shannon Bayse

Identification, localization and endocrine regulation of gill ion transport proteins that secrete salts as anadromous fish move from freshwater to seawater

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Juvenile sea lamprey from Lake Champlain. Photo credit: Jessica Norstog

 Temperature effects on the physiology and ecology of freshwater early life stages of river herring

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