Literature DB >> 33284086

Gut-to-brain signals in feeding control.

Alexandre Moura-Assis1,2, Jeffrey M Friedman2,3, Licio A Velloso1.   

Abstract

Interoceptive signals from gut and adipose tissue and sensory cues from the environment are integrated by hubs in the brain to regulate feeding behavior and maintain homeostatic control of body weight. In vivo neural recordings have revealed that these signals control the activity of multiple layers of hunger neurons and eating is not only the result of feedback correction to a set point, but can also be under the influence of anticipatory regulations. A series of recent technical developments have revealed how peripheral and sensory signals, in particular, from the gut are conveyed to the brain to integrate neural circuits. Here, we describe the mechanisms involved in gastrointestinal stimulation by nutrients and how these signals act on the hindbrain to generate motivated behaviors. We also consider the organization of multidirectional intra- and extrahypothalamic circuits and how this has created a framework for understanding neural control of feeding.

Entities:  

Keywords:  feeding; gut-to-brain; hypothalamus

Mesh:

Year:  2020        PMID: 33284086      PMCID: PMC8260365          DOI: 10.1152/ajpendo.00388.2020

Source DB:  PubMed          Journal:  Am J Physiol Endocrinol Metab        ISSN: 0193-1849            Impact factor:   4.310


  58 in total

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Authors:  H R Berthoud; L A Blackshaw; S J H Brookes; D Grundy
Journal:  Neurogastroenterol Motil       Date:  2004-04       Impact factor: 3.598

2.  A gut-brain neural circuit for nutrient sensory transduction.

Authors:  Melanie Maya Kaelberer; Kelly L Buchanan; Marguerita E Klein; Bradley B Barth; Marcia M Montoya; Xiling Shen; Diego V Bohórquez
Journal:  Science       Date:  2018-09-21       Impact factor: 47.728

3.  A Vagal-NTS Neural Pathway that Stimulates Feeding.

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Journal:  Curr Biol       Date:  2020-08-20       Impact factor: 10.834

4.  Sensory Neurons that Detect Stretch and Nutrients in the Digestive System.

Authors:  Erika K Williams; Rui B Chang; David E Strochlic; Benjamin D Umans; Bradford B Lowell; Stephen D Liberles
Journal:  Cell       Date:  2016-05-26       Impact factor: 41.582

5.  Nutritive, Post-ingestive Signals Are the Primary Regulators of AgRP Neuron Activity.

Authors:  Zhenwei Su; Amber L Alhadeff; J Nicholas Betley
Journal:  Cell Rep       Date:  2017-12-05       Impact factor: 9.423

6.  Leptin receptor-expressing nucleus tractus solitarius neurons suppress food intake independently of GLP1 in mice.

Authors:  Wenwen Cheng; Ermelinda Ndoka; Chelsea Hutch; Karen Roelofs; Andrew MacKinnon; Basma Khoury; Jack Magrisso; Ki Suk Kim; Christopher J Rhodes; David P Olson; Randy J Seeley; Darleen Sandoval; Martin G Myers
Journal:  JCI Insight       Date:  2020-04-09

7.  GABA neurons in the nucleus tractus solitarius express GLP-1 receptors and mediate anorectic effects of liraglutide in rats.

Authors:  Samantha M Fortin; Rachele K Lipsky; Rinzin Lhamo; Jack Chen; Eun Kim; Tito Borner; Heath D Schmidt; Matthew R Hayes
Journal:  Sci Transl Med       Date:  2020-03-04       Impact factor: 17.956

8.  POMC neurons expressing leptin receptors coordinate metabolic responses to fasting via suppression of leptin levels.

Authors:  Alexandre Caron; Heather M Dungan Lemko; Carlos M Castorena; Teppei Fujikawa; Syann Lee; Caleb C Lord; Newaz Ahmed; Charlotte E Lee; William L Holland; Chen Liu; Joel K Elmquist
Journal:  Elife       Date:  2018-03-12       Impact factor: 8.140

9.  Genetic identification of leptin neural circuits in energy and glucose homeostases.

Authors:  Jie Xu; Christopher L Bartolome; Cho Shing Low; Xinchi Yi; Cheng-Hao Chien; Peng Wang; Dong Kong
Journal:  Nature       Date:  2018-04-18       Impact factor: 49.962

10.  Calcitonin Receptor Neurons in the Mouse Nucleus Tractus Solitarius Control Energy Balance via the Non-aversive Suppression of Feeding.

Authors:  Wenwen Cheng; Ian Gonzalez; Warren Pan; Anthony H Tsang; Jessica Adams; Ermelinda Ndoka; Desiree Gordian; Basma Khoury; Karen Roelofs; Simon S Evers; Andrew MacKinnon; Shuangcheng Wu; Henriette Frikke-Schmidt; Jonathan N Flak; James L Trevaskis; Christopher J Rhodes; So-Ichiro Fukada; Randy J Seeley; Darleen A Sandoval; David P Olson; Clemence Blouet; Martin G Myers
Journal:  Cell Metab       Date:  2020-01-16       Impact factor: 27.287

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  4 in total

Review 1.  Roles for the gut microbiota in regulating neuronal feeding circuits.

Authors:  Kristie B Yu; Elaine Y Hsiao
Journal:  J Clin Invest       Date:  2021-05-17       Impact factor: 14.808

2.  Evidence that resistin acts on the mechanical responses of the mouse gastric fundus.

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Journal:  Front Physiol       Date:  2022-07-15       Impact factor: 4.755

3.  Relationship between Anthropometric Parameters and Sensory Processing in Typically Developing Brazilian Children with a Pediatric Feeding Disorder.

Authors:  Patrícia Junqueira; Dyandra Loureiro Caron Dos Santos; Mariana Célia Guerra Lebl; Maria Fernanda Cestari de Cesar; Carolina Antunes Dos Santos Amaral; Thais Coelho Alves
Journal:  Nutrients       Date:  2021-06-30       Impact factor: 5.717

Review 4.  Shedding light on biological sex differences and microbiota-gut-brain axis: a comprehensive review of its roles in neuropsychiatric disorders.

Authors:  Parnian Shobeiri; Amirali Kalantari; Antônio L Teixeira; Nima Rezaei
Journal:  Biol Sex Differ       Date:  2022-03-25       Impact factor: 5.027

  4 in total

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