Literature DB >> 22444612

Ontogenesis of muscle and adipose tissues and their interactions in ruminants and other species.

M Bonnet1, I Cassar-Malek, Y Chilliard, B Picard.   

Abstract

The lean-to-fat ratio, that is, the relative masses of muscle and adipose tissue, is a criterion for the yield and quality of bovine carcasses and meat. This review describes the interactions between muscle and adipose tissue (AT) that may regulate the dynamic balance between the number and size of muscle v. adipose cells. Muscle and adipose tissue in cattle grow by an increase in the number of cells (hyperplasia), mainly during foetal life. The total number of muscle fibres is set by the end of the second trimester of gestation. By contrast, the number of adipocytes is never set. Number of adipocytes increases mainly before birth until 1 year of age, depending on the anatomical location of the adipose tissue. Hyperplasia concerns brown pre-adipocytes during foetal life and white pre-adipocytes from a few weeks after birth. A decrease in the number of secondary myofibres and an increase in adiposity in lambs born from mothers severely underfed during early pregnancy suggest a balance in the commitment of a common progenitor into the myogenic or adipogenic lineages, or a reciprocal regulation of the commitment of two distinct progenitors. The developmental origin of white adipocytes is a subject of debate. Molecular and histological data suggested a possible transdifferentiation of brown into white adipocytes, but this hypothesis has now been challenged by the characterization of distinct precursor cells for brown and white adipocytes in mice. Increased nutrient storage in fully differentiated muscle fibres and adipocytes, resulting in cell enlargement (hypertrophy), is thought to be the main mechanism, whereby muscle and fat masses increase in growing cattle. Competition or prioritization between adipose and muscle cells for the uptake and metabolism of nutrients is suggested, besides the successive waves of growth of muscle v. adipose tissue, by the inhibited or delayed adipose tissue growth in bovine genotypes exhibiting strong muscular development. This competition or prioritization occurs through cellular signalling pathways and the secretion of proteins by adipose tissue (adipokines) and muscle (myokines), putatively regulating their hypertrophy in a reciprocal manner. Further work on the mechanisms underlying cross-talk between brown or white adipocytes and muscle fibres will help to achieve better understanding as a prerequisite to improving the control of body growth and composition in cattle.

Entities:  

Year:  2010        PMID: 22444612     DOI: 10.1017/S1751731110000601

Source DB:  PubMed          Journal:  Animal        ISSN: 1751-7311            Impact factor:   3.240


  24 in total

Review 1.  Nutrigenomic regulation of adipose tissue development - role of retinoic acid: A review.

Authors:  Bo Wang; Qiyuan Yang; Corrine L Harris; Mark L Nelson; Jan R Busboom; Mei-Jun Zhu; Min Du
Journal:  Meat Sci       Date:  2016-04-08       Impact factor: 5.209

2.  Effects of leptin and adiponectin on proliferation and protein metabolism of porcine myoblasts.

Authors:  Katja Will; Claudia Kalbe; Judith Kuzinski; Dorothea Lösel; Torsten Viergutz; Marie-France Palin; Charlotte Rehfeldt
Journal:  Histochem Cell Biol       Date:  2012-04-20       Impact factor: 4.304

Review 3.  TRIENNIAL GROWTH SYMPOSIUM: THE NUTRITION OF MUSCLE GROWTH: Impacts of nutrition on the proliferation and differentiation of satellite cells in livestock species1,2.

Authors:  Kara J Thornton
Journal:  J Anim Sci       Date:  2019-04-29       Impact factor: 3.159

4.  Effect of plane of nutrition in early life on the transcriptome of visceral adipose tissue in Angus heifer calves.

Authors:  Kate Keogh; Alan K Kelly; David A Kenny
Journal:  Sci Rep       Date:  2021-05-06       Impact factor: 4.379

5.  ProteINSIDE to Easily Investigate Proteomics Data from Ruminants: Application to Mine Proteome of Adipose and Muscle Tissues in Bovine Foetuses.

Authors:  Nicolas Kaspric; Brigitte Picard; Matthieu Reichstadt; Jérémy Tournayre; Muriel Bonnet
Journal:  PLoS One       Date:  2015-05-22       Impact factor: 3.240

6.  The influence of high glucose and high insulin on mechanisms controlling cell cycle progression and arrest in mouse C2C12 myoblasts: the comparison with IGF-I effect.

Authors:  K Grabiec; M Gajewska; M Milewska; M Błaszczyk; K Grzelkowska-Kowalczyk
Journal:  J Endocrinol Invest       Date:  2014-01-09       Impact factor: 4.256

7.  Genomic architecture of histone 3 lysine 27 trimethylation during late ovine skeletal muscle development.

Authors:  K Byrne; S McWilliam; T Vuocolo; C Gondro; N E Cockett; R L Tellam
Journal:  Anim Genet       Date:  2014-03-27       Impact factor: 3.169

Review 8.  Adipose-Derived Stromal/Stem Cells from Large Animal Models: from Basic to Applied Science.

Authors:  Joanna Bukowska; Anna Zuzanna Szóstek-Mioduchowska; Marta Kopcewicz; Katarzyna Walendzik; Sylwia Machcińska; Barbara Gawrońska-Kozak
Journal:  Stem Cell Rev Rep       Date:  2020-10-06       Impact factor: 5.739

9.  The effect of palmitate supplementation on gene expression profile in proliferating myoblasts.

Authors:  K Grabiec; A Majewska; Z Wicik; M Milewska; M Błaszczyk; K Grzelkowska-Kowalczyk
Journal:  Cell Biol Toxicol       Date:  2016-04-25       Impact factor: 6.691

Review 10.  How Muscle Structure and Composition Influence Meat and Flesh Quality.

Authors:  Anne Listrat; Bénédicte Lebret; Isabelle Louveau; Thierry Astruc; Muriel Bonnet; Louis Lefaucheur; Brigitte Picard; Jérôme Bugeon
Journal:  ScientificWorldJournal       Date:  2016-02-28
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