Physiological and molecular mechanisms of cold-induced improvements in glucose homeostasis in humans beyond brown adipose tissue

S. van Beek, D. Hashim, T. Bengtsson, J. Hoeks*

*Corresponding author for this work

Research output: Contribution to journal(Systematic) Review article peer-review

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Abstract

Exposure to low ambient temperatures has previously been demonstrated to markedly improve glucose homeostasis in both rodents and humans. Although the brown adipose tissue is key in mediating these beneficial effects in rodents, its contribution appears more limited in humans. Hence, the exact tissues and underlying mechanisms that mediate cold-induced improvements in glucose homeostasis in humans remain to be fully established. In this review, we evaluated the response of the main organs involved in glucose metabolism (i.e. pancreas, liver, (white) adipose tissue, and skeletal muscle) to cold exposure and discuss their potential contribution to cold-induced improvements in glucose homeostasis in humans. We here show that cold exposure has widespread effects on metabolic organs involved in glucose regulation. Nevertheless, cold-induced improvements in glucose homeostasis appear primarily mediated via adaptations within the skeletal muscle and (presumably) white adipose tissue. Since the underlying mechanisms remain elusive, future studies should be aimed at pinpointing the exact physiological and molecular mechanisms involved in humans. Nonetheless, cold exposure holds great promise as a novel, additive lifestyle approach to improve glucose homeostasis in insulin resistant individuals.
Original languageEnglish
Pages (from-to)338-347
Number of pages10
JournalInternational Journal of Obesity
Volume47
Issue number5
Early online date1 Feb 2023
DOIs
Publication statusPublished - May 2023

Keywords

  • BETA-ADRENOCEPTOR AGONIST
  • ENHANCES ENERGY-EXPENDITURE
  • MUSCLE-BASED THERMOGENESIS
  • BASAL METABOLIC-RATE
  • INSULIN SENSITIVITY
  • SKELETAL-MUSCLE
  • FATTY-ACID
  • PLASMA-GLUCOSE
  • BETA(3)-ADRENERGIC AGONIST
  • NONSHIVERING THERMOGENESIS

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