Literature DB >> 20186550

Metabolic adaptation of mice in a cool environment.

Kunitoshi Uchida1, Tetsuya Shiuchi, Hitoshi Inada, Yasuhiko Minokoshi, Makoto Tominaga.   

Abstract

Homeothermic animals, including humans, live by adapting to changes in ambient temperature. Numerous studies have demonstrated cold exposure (at approximately 5 degrees C) improves glucose tolerance despite reducing insulin secretion and increasing energy expenditure. To determine the effects of a small reduction in ambient temperature on energy metabolism, we compared two groups of mice; one exposed to a cool environment (20 degrees C) and the other maintained in a near-thermoneutral environment (25 degrees C) for 10 days. Both glucose-induced insulin secretion and glucose response were significantly impaired in mice exposed to a cool environment. In the cool temperature-exposed mice, skin temperatures were reduced, and plasma norepinephrine levels were increased, suggesting that impairment of insulin secretion was facilitated by induction of sympathetic nervous activity due to skin cooling. In addition, expression of GLUT4 mRNA was increased significantly in inguinal subcutaneous adipose tissue (IWAT) but not in epididymal or brown adipose tissue or skeletal muscle in these mice. Moreover, expression of Dok1, a molecule linked to activation of insulin receptors in adipocyte hypertrophy, and Cd36, a molecule related to NEFA uptake, were also increased at mRNA and/or protein levels only in IWAT of the cool temperature-exposed mice. Fatty acid synthesis was also facilitated, and fat weights were increased only in IWAT from mice kept at 20 degrees C. These results suggest that a small reduction in ambient temperature can affect glucose homeostasis through regulation of insulin secretion and preferentially enhances fat storage in IWAT. These adaptations can be interpreted as preparation for a further reduction in ambient temperature.

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Year:  2010        PMID: 20186550     DOI: 10.1007/s00424-010-0795-3

Source DB:  PubMed          Journal:  Pflugers Arch        ISSN: 0031-6768            Impact factor:   3.657


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Authors:  P Puigserver; Z Wu; C W Park; R Graves; M Wright; B M Spiegelman
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3.  Plasma glucose and insulin responses to oral and intravenous glucose in cold-exposed humans.

Authors:  A L Vallerand; J Frim; M F Kavanagh
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4.  Central efferent pathways mediating skin cooling-evoked sympathetic thermogenesis in brown adipose tissue.

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Authors:  Y Shimizu; H Nikami; K Tsukazaki; U F Machado; H Yano; Y Seino; M Saito
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Authors:  C Lévy-Marchal; C Patterson; A Green
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Authors:  O L Smith; S B Davidson
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