Permanent URL to this publication: http://dx.doi.org/10.5167/uzh-34610
Gorr, T A; Wichmann, D; Hu, J; Hermes-Lima, M; Welker, AF; Terwilliger, N B; Wren, J F; Viney, M; Morris, S; Nilsson, G E; Deten , A; Soliz, J; Gassmann, M (2010). Hypoxia tolerance in animals: biology and application. Physiological and Biochemical Zoology, 83(5):733-752.
Abstract Many invertebrates and ectothermic vertebrates successfully cope with a fluctuating supply of ambient oxygen-and consequently, a highly variable tissue oxygenation-through increasing their antioxidant barriers. During chronic deprivation of oxygen, however, the hypometabolic defense mode of the fruit fly Drosophila, the hypoxia-induced behavioral hypothermia of the crayfish Pacifastacus leniusculus, and the production of ethanol during anoxia by the crucian carp Carassius carassius all indicate that these animals are also capable of utilizing a suite of genetic and physiological defenses to survive otherwise lethal reductions in tissue oxygenation. Normally, much of an organism's gene response to hypoxia is orchestrated via the hypoxia-inducible transcription factor HIF. Recent developments expand our view of HIF function even further by highlighting regulatory roles for HIF in the hypometabolism of insects, in the molting and the normoxic immune response of crustaceans, and in the control-via the downstream effector gene erythropoietin-of the hypoxic ventilatory response and pulmonary hypertension in mammals. These and related topics were collectively presented by the authors in a symposium of the 2008 ICA-CBP conference at Mara National Reserve, Kenya, Africa. This synthesis article communicates the essence of the symposium presentations to the wider community.
|Item Type:||Journal Article, refereed, original work|
|Communities & Collections:||05 Vetsuisse Faculty > Institute of Veterinary Physiology|
|DDC:||570 Life sciences; biology|
|Deposited On:||06 Jul 2010 16:07|
|Last Modified:||28 Nov 2013 01:20|
|Publisher:||University of Chicago Press|
|Additional Information:||We dedicate this article to Steve Morris (deceased 2009) in honor of his legacy as an inspiring teacher and scientist, a dedicated lover of wildlife biology, and a great guy. This article was prepared as an overview of a symposium at “Molecules to Migration: Pressures of Life,” the Fourth International Conference in Africa for Comparative Physiology and Biochemistry, Maasai Mara National Reserve, Kenya, 2008 (http://www.natural‐events.com/mara).|
|Citations:||Web of Science®. Times cited: 17|
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