Literature DB >> 27173459

Hepatic autophagy contributes to the metabolic response to dietary protein restriction.

Tara M Henagan1, Thomas Laeger1, Alexandra M Navard1, Diana Albarado1, Robert C Noland2, Krisztian Stadler3, Carrie M Elks4, David Burk5, Christopher D Morrison6.   

Abstract

Autophagy is an essential cellular response which acts to release stored cellular substrates during nutrient restriction, and particularly plays a key role in the cellular response to amino acid restriction. However, there has been limited work testing whether the induction of autophagy is required for adaptive metabolic responses to dietary protein restriction in the whole animal. Here, we found that moderate dietary protein restriction led to a series of metabolic changes in rats, including increases in food intake and energy expenditure, the downregulation of hepatic fatty acid synthesis gene expression and reduced markers of hepatic mitochondrial number. Importantly, these effects were also associated with an induction of hepatic autophagy. To determine if the induction of autophagy contributes to these metabolic effects, we tested the metabolic response to dietary protein restriction in BCL2-AAA mice, which bear a genetic mutation that impairs autophagy induction. Interestingly, BCL2-AAA mice exhibit exaggerated responses in terms of both food intake and energy expenditure, whereas the effects of protein restriction on hepatic metabolism were significantly blunted. These data demonstrate that restriction of dietary protein is sufficient to trigger hepatic autophagy, and that disruption of autophagy significantly alters both hepatic and whole animal metabolic response to dietary protein restriction.
Copyright © 2016 Elsevier Inc. All rights reserved.

Entities:  

Keywords:  Amino acids; Autophagy; Energy expenditure; Food intake; Metabolism

Mesh:

Year:  2016        PMID: 27173459      PMCID: PMC4867053          DOI: 10.1016/j.metabol.2016.02.015

Source DB:  PubMed          Journal:  Metabolism        ISSN: 0026-0495            Impact factor:   8.694


  42 in total

Review 1.  Obesity: the protein leverage hypothesis.

Authors:  S J Simpson; D Raubenheimer
Journal:  Obes Rev       Date:  2005-05       Impact factor: 9.213

2.  Geometric analysis of macronutrient selection in the rat.

Authors:  S J Simpson; D Raubenheimer
Journal:  Appetite       Date:  1997-06       Impact factor: 3.868

3.  Induction of autophagy by amino-acid deprivation in perfused rat liver.

Authors:  G E Mortimore; C M Schworer
Journal:  Nature       Date:  1977-11-10       Impact factor: 49.962

4.  Influence of carbohydrate and fat intake on diet-induced thermogenesis and brown fat activity in rats fed low protein diets.

Authors:  N J Rothwell; M J Stock
Journal:  J Nutr       Date:  1987-10       Impact factor: 4.798

5.  Mitochondrial dysfunction and type 2 diabetes.

Authors:  Bradford B Lowell; Gerald I Shulman
Journal:  Science       Date:  2005-01-21       Impact factor: 47.728

6.  Increased hypothalamic protein tyrosine phosphatase 1B contributes to leptin resistance with age.

Authors:  Christopher D Morrison; Christy L White; Zhong Wang; Seung-Yub Lee; David S Lawrence; William T Cefalu; Zhong-Yin Zhang; Thomas W Gettys
Journal:  Endocrinology       Date:  2006-10-12       Impact factor: 4.736

7.  Hypothalamic mTOR signaling regulates food intake.

Authors:  Daniela Cota; Karine Proulx; Kathi A Blake Smith; Sara C Kozma; George Thomas; Stephen C Woods; Randy J Seeley
Journal:  Science       Date:  2006-05-12       Impact factor: 47.728

8.  Mechanisms of thermogenesis induced by low protein diets.

Authors:  N J Rothwell; M J Stock; R S Tyzbir
Journal:  Metabolism       Date:  1983-03       Impact factor: 8.694

9.  Compromised responses to dietary methionine restriction in adipose tissue but not liver of ob/ob mice.

Authors:  Kirsten P Stone; Desiree Wanders; Lucie F Calderon; Stephen B Spurgin; Philipp E Scherer; Thomas W Gettys
Journal:  Obesity (Silver Spring)       Date:  2015-08-03       Impact factor: 5.002

10.  The GCN2 eIF2alpha kinase is required for adaptation to amino acid deprivation in mice.

Authors:  Peichuan Zhang; Barbara C McGrath; Jamie Reinert; DeAnne S Olsen; Li Lei; Sangeeta Gill; Sheree A Wek; Krishna M Vattem; Ronald C Wek; Scot R Kimball; Leonard S Jefferson; Douglas R Cavener
Journal:  Mol Cell Biol       Date:  2002-10       Impact factor: 4.272

View more
  11 in total

1.  Role of liver AMPK and GCN2 kinases in the control of postprandial protein metabolism in response to mid-term high or low protein intake in mice.

Authors:  Tristan Chalvon-Demersay; Claire Gaudichon; Joanna Moro; Patrick C Even; Nadezda Khodorova; Julien Piedcoq; Benoit Viollet; Julien Averous; Anne-Catherine Maurin; Daniel Tomé; Marc Foretz; Pierre Fafournoux; Dalila Azzout-Marniche
Journal:  Eur J Nutr       Date:  2022-09-07       Impact factor: 4.865

Review 2.  Homeostatic sensing of dietary protein restriction: A case for FGF21.

Authors:  Cristal M Hill; Hans-Rudolf Berthoud; Heike Münzberg; Christopher D Morrison
Journal:  Front Neuroendocrinol       Date:  2018-06-08       Impact factor: 8.606

Review 3.  Animal Models for the Study of the Relationships between Diet and Obesity: A Focus on Dietary Protein and Estrogen Deficiency.

Authors:  Tristan Chalvon-Demersay; François Blachier; Daniel Tomé; Anne Blais
Journal:  Front Nutr       Date:  2017-03-20

4.  Periodized low protein-high carbohydrate diet confers potent, but transient, metabolic improvements.

Authors:  Zhencheng Li; Mette Line Rasmussen; Jingwen Li; Carlos Henriquez-Olguin; Jonas Roland Knudsen; Agnete Bjerregaard Madsen; Eva Sanchez-Quant; Maximilian Kleinert; Thomas Elbenhardt Jensen
Journal:  Mol Metab       Date:  2018-08-28       Impact factor: 7.422

5.  FGF21 Signals Protein Status to the Brain and Adaptively Regulates Food Choice and Metabolism.

Authors:  Cristal M Hill; Thomas Laeger; Madeleine Dehner; Diana C Albarado; Blaise Clarke; Desiree Wanders; Susan J Burke; J Jason Collier; Emily Qualls-Creekmore; Samantha M Solon-Biet; Stephen J Simpson; Hans-Rudolf Berthoud; Heike Münzberg; Christopher D Morrison
Journal:  Cell Rep       Date:  2019-06-04       Impact factor: 9.423

Review 6.  Maternal malnutrition and anaemia in India: dysregulations leading to the 'thin-fat' phenotype in newborns.

Authors:  Prachi Pandit; Sanjeev Galande; François Iris
Journal:  J Nutr Sci       Date:  2021-10-11

7.  Amino acid starvation-induced LDLR trafficking accelerates lipoprotein endocytosis and LDL clearance.

Authors:  Ye Chen; Xiao Wu; Jing Zhang; Guopin Pan; Xiaoyun Wang; Xiaosun Guo; Jianli Wang; Xiaopei Cui; Haiqing Gao; Mei Cheng; Jingwen Yang; Cheng Zhang; Fan Jiang
Journal:  EMBO Rep       Date:  2022-01-07       Impact factor: 8.807

8.  FGF21 is required for protein restriction to extend lifespan and improve metabolic health in male mice.

Authors:  Cristal M Hill; Diana C Albarado; Lucia G Coco; Redin A Spann; Md Shahjalal Khan; Emily Qualls-Creekmore; David H Burk; Susan J Burke; J Jason Collier; Sangho Yu; David H McDougal; Hans-Rudolf Berthoud; Heike Münzberg; Andrzej Bartke; Christopher D Morrison
Journal:  Nat Commun       Date:  2022-04-07       Impact factor: 17.694

Review 9.  FGF21 and the Physiological Regulation of Macronutrient Preference.

Authors:  Cristal M Hill; Emily Qualls-Creekmore; Hans-Rudolf Berthoud; Paul Soto; Sangho Yu; David H McDougal; Heike Münzberg; Christopher D Morrison
Journal:  Endocrinology       Date:  2020-03-01       Impact factor: 4.736

10.  Immunity-related GTPase induces lipophagy to prevent excess hepatic lipid accumulation.

Authors:  Kristin Schwerbel; Anne Kamitz; Natalie Krahmer; Nicole Hallahan; Markus Jähnert; Pascal Gottmann; Sandra Lebek; Tanja Schallschmidt; Danny Arends; Fabian Schumacher; Burkhard Kleuser; Tom Haltenhof; Florian Heyd; Sofiya Gancheva; Karl W Broman; Michael Roden; Hans-Georg Joost; Alexandra Chadt; Hadi Al-Hasani; Heike Vogel; Wenke Jonas; Annette Schürmann
Journal:  J Hepatol       Date:  2020-05-04       Impact factor: 25.083

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.