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Counterregulation of insulin by leptin as key component of autonomic regulation of body weight 被引量:2

Counterregulation of insulin by leptin as key component of autonomic regulation of body weight
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摘要 A re-examination of the mechanism controlling eating, locomotion, and metabolism prompts formulation of a new explanatory model containing five features: a coordinating joint role of the(1) autonomic nervous system(ANS);(2) the suprachiasmatic(SCN) master clock in counterbalancing parasympathetic digestive and absorptive functions and feeding with sympathetic locomotor and thermogenic energy expenditure within a circadian framework;(3) interaction of the ANS/SCN command with brain substrates of reward encompassing dopaminergic projections to ventral striatum and limbic and cortical forebrain. These drive the nonhomeostatic feeding and locomotor motivated behaviors in interaction with circulating ghrelin and lateral hypothalamic neurons signaling through melanin concentrating hormone and orexin-hypocretin peptides;(4) counterregulation of insulin by leptin of both gastric and adipose tissue origin through: potentiation by leptin of cholecystokinin-mediated satiation, inhibition of insulin secretion, suppression of insulin lipogenesis by leptin lipolysis, and modulation of peripheral tissue and brain sensitivity to insulin action. Thus weight-loss induced hypoleptimia raises insulin sensitivity and promotes its parasympathetic anabolic actions while obesity-induced hyperleptinemia supresses insulin lipogenic action; and(5) inhibition by leptin of bone mineral accrual suggesting that leptin may contribute to the maintenance of stability of skeletal, lean-body, as well as adipose tissue masses. A re-examination of the mechanism controlling eating, locomotion, and metabolism prompts formulation of a new explanatory model containing five features: a coordinating joint role of the(1) autonomic nervous system(ANS);(2) the suprachiasmatic(SCN) master clock in counterbalancing parasympathetic digestive and absorptive functions and feeding with sympathetic locomotor and thermogenic energy expenditure within a circadian framework;(3) interaction of the ANS/SCN command with brain substrates of reward encompassing dopaminergic projections to ventral striatum and limbic and cortical forebrain. These drive the nonhomeostatic feeding and locomotor motivated behaviors in interaction with circulating ghrelin and lateral hypothalamic neurons signaling through melanin concentrating hormone and orexin-hypocretin peptides;(4) counterregulation of insulin by leptin of both gastric and adipose tissue origin through: potentiation by leptin of cholecystokinin-mediated satiation, inhibition of insulin secretion, suppression of insulin lipogenesis by leptin lipolysis, and modulation of peripheral tissue and brain sensitivity to insulin action. Thus weight-loss induced hypoleptimia raises insulin sensitivity and promotes its parasympathetic anabolic actions while obesity-induced hyperleptinemia supresses insulin lipogenic action; and(5) inhibition by leptin of bone mineral accrual suggesting that leptin may contribute to the maintenance of stability of skeletal, lean-body, as well as adipose tissue masses.
机构地区 School of Kinesiology
出处 《World Journal of Diabetes》 SCIE CAS 2014年第5期606-629,共24页 世界糖尿病杂志(英文版)(电子版)
关键词 INSULIN LEPTIN WEIGHT REGULATION AUTONOMIC CIRCADIAN Insulin Leptin Weight regulation Autonomic Circadian
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  • 1Doug Walker,Laura Smarandescu,Brian Wansink.Half Full or Empty: Cues That Lead Wine Drinkers to Unintentionally Overpour[J]. Substance Use & Misuse . 2014 (3)
  • 2Ashish C. Sinha,Preet Mohinder Singh,Noel W. Williams,Edward Andrew Ochroch,Basavana G. Goudra.Aprepitant’s Prophylactic Efficacy in Decreasing Postoperative Nausea and Vomiting in Morbidly Obese Patients Undergoing Bariatric Surgery[J]. Obesity Surgery . 2014 (2)
  • 3Tara Dutta,Anne Josiah,Carolyn Cronin,George Wittenberg,John Cole.Altered Taste and Stroke: A Case Report and Literature Review[J]. Topics in Stroke Rehabilitation . 2013 (1)
  • 4Stephen J. Kentish,Tracey A. O’Donnell,Nicole J. Isaacs,Richard L. Young,Hui Li,Andrea M. Harrington,Stuart M. Brierley,Gary A. Wittert,L. Ashley Blackshaw,Amanda J. Page.Gastric vagal afferent modulation by leptin is influenced by food intake status[J]. The Journal of Physiology . 2013 (7)
  • 5Cintia B Ueta,Gustavo W Fernandes,Luciane P Capelo,Tatiane L Fonseca,Flávia D’Angelo Maculan,Cecilia H A Gouveia,Patrícia C Brum,Marcelo A Christoffolete,Marcelo S Aoki,Carmen L Lancellotti,Brian Kim,Antonio C Bianco,Miriam O Ribeiro.β1 Adrenergic receptor is key to cold- and diet-induced thermogenesis in mice[J]. Journal of Endocrinology . 2012 (3)
  • 6David A. Levitsky,Sunil Iyer,Carly R. Pacanowski.Number of foods available at a meal determines the amount consumed[J]. Eating Behaviors . 2012 (3)
  • 7Jennifer A. Parker,Stephen R. Bloom.Hypothalamic neuropeptides and the regulation of appetite[J]. Neuropharmacology . 2012 (1)
  • 8M.A. De Luca,M. Solinas,Z. Bimpisidis,S.R. Goldberg,G. Di Chiara.Cannabinoid facilitation of behavioral and biochemical hedonic taste responses[J]. Neuropharmacology . 2011 (1)
  • 9Bernard Cheung,Chao Li.Diabetes and Hypertension: Is There a Common Metabolic Pathway?[J]. Current Atherosclerosis Reports . 2012 (2)
  • 10Varman T. Samuel,Gerald I. Shulman.Mechanisms for Insulin Resistance: Common Threads and Missing Links[J]. Cell . 2012 (5)

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