Literature DB >> 32165434

Skeletal muscle thermogenesis induction by exposure to predator odor.

Erin Gorrell1, Ashley Shemery1, Jesse Kowalski2, Miranda Bodziony2, Nhlalala Mavundza1, Amber R Titus2, Mark Yoder2, Sarah Mull2, Lydia A Heemstra2, Jacob G Wagner2, Megan Gibson2, Olivia Carey2, Diamond Daniel2, Nicholas Harvey2, Meredith Zendlo2, Megan Rich2, Scott Everett1, Chaitanya K Gavini1,3, Tariq I Almundarij2,4, Diane Lorton1, Colleen M Novak5,2.   

Abstract

Non-shivering thermogenesis can promote negative energy balance and weight loss. In this study, we identified a contextual stimulus that induces rapid and robust thermogenesis in skeletal muscle. Rats exposed to the odor of a natural predator (ferret) showed elevated skeletal muscle temperatures detectable as quickly as 2 min after exposure, reaching maximum thermogenesis of >1.5°C at 10-15 min. Mice exhibited a similar thermogenic response to the same odor. Ferret odor induced a significantly larger and qualitatively different response from that of novel or aversive odors, fox odor or moderate restraint stress. Exposure to predator odor increased energy expenditure, and both the thermogenic and energetic effects persisted when physical activity levels were controlled. Predator odor-induced muscle thermogenesis is subject to associative learning as exposure to a conditioned stimulus provoked a rise in muscle temperature in the absence of the odor. The ability of predator odor to induce thermogenesis is predominantly controlled by sympathetic nervous system activation of β-adrenergic receptors, as unilateral sympathetic lumbar denervation and a peripherally acting β-adrenergic antagonist significantly inhibited predator odor-induced muscle thermogenesis. The potential survival value of predator odor-induced changes in muscle physiology is reflected in an enhanced resistance to running fatigue. Lastly, predator odor-induced muscle thermogenesis imparts a meaningful impact on energy expenditure as daily predator odor exposure significantly enhanced weight loss with mild calorie restriction. This evidence signifies contextually provoked, centrally mediated muscle thermogenesis that meaningfully impacts energy balance.
© 2020. Published by The Company of Biologists Ltd.

Entities:  

Keywords:  Energy balance; Energy expenditure; Sympathetic nervous system; Weight loss

Year:  2020        PMID: 32165434      PMCID: PMC7174837          DOI: 10.1242/jeb.218479

Source DB:  PubMed          Journal:  J Exp Biol        ISSN: 0022-0949            Impact factor:   3.312


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