Literature DB >> 33106989

Effects of photobiomodulation and swimming on gene expression in rats with the tibialis anterior muscle injury.

W R Beasi1, L V Toffoli1, G G Pelosi2, M V M Gomes1, L F Verissimo2, M R Stocco1, L C Mantoani1, L P Maia1, R A C Andraus3.   

Abstract

The aim of the present study was to evaluate the effects of photobiomodulation (low-level laser therapy (LLLT)) and aquatic exercise on the expression of genes related to muscle regeneration in rats. Wistar rats were divided into five groups: control group (n = 15), non-treated injury group (n = 15), injury+LLLT group (n = 15), injury+aquatic exercise group (n = 15), and injury+LLLT+aquatic exercise group (n = 15). Cryoinjury was performed on the belly of the tibialis anterior (TA) muscle. LLLT was performed daily with an AlGaAs laser (830 nm; beam spot of 0.0324 cm2, output power of 100 mW, energy density of 180 J/cm2, and 58-s exposure time). Animals were euthanized at 7, 14, and 21 days. The TA muscles were removed for gene expression analysis of TGF-β, Myogenin, and MyoD. The results were statistically analyzed at a significance level of 5%. The cryoinjury increased the expression of genes related to muscle regeneration-MyoD, Myogenin, and TGF-β-compared to the control group (p < 0.05); the photobiomodulation increased the expression of these genes at day 7 (p < 0.05), decreasing until day 21; and the aquatic exercise increases the expression of the three genes over time. When the two treatments were combined, the expression of the analyzed genes also increased over time. In summary, the results of our study suggest that photobiomodulation (LLLT), when applied alone in cryoinjury, is able to increase the gene expression of MyoD, Myogenin, and TGF-β at the acute phase, while when combined with aquatic exercises, there is an increase in expression of these genes specially at the long-term treatment.
© 2020. Springer-Verlag London Ltd., part of Springer Nature.

Entities:  

Keywords:  Exercise; Laser therapy; Molecular biology; Muscle; Regeneration

Year:  2020        PMID: 33106989     DOI: 10.1007/s10103-020-03168-y

Source DB:  PubMed          Journal:  Lasers Med Sci        ISSN: 0268-8921            Impact factor:   3.161


  27 in total

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Authors:  Rodrigo Antonio Carvalho Andraus; Luciana Prado Maia; Anderson Diogo de Souza Lino; Karen Barron Parron Fernandes; Marcos Vinícius de Matos Gomes; Rinaldo Roberto de Jesus Guirro; Cláudio Henrique Barbieri
Journal:  Lasers Med Sci       Date:  2017-03-06       Impact factor: 3.161

2.  GDF11 Increases with Age and Inhibits Skeletal Muscle Regeneration.

Authors:  Marc A Egerman; Samuel M Cadena; Jason A Gilbert; Angelika Meyer; Hallie N Nelson; Susanne E Swalley; Carolyn Mallozzi; Carsten Jacobi; Lori L Jennings; Ieuan Clay; Gaëlle Laurent; Shenglin Ma; Sophie Brachat; Estelle Lach-Trifilieff; Tea Shavlakadze; Anne-Ulrike Trendelenburg; Andrew S Brack; David J Glass
Journal:  Cell Metab       Date:  2015-05-19       Impact factor: 27.287

Review 3.  Skeletal muscle hypertrophy and regeneration: interplay between the myogenic regulatory factors (MRFs) and insulin-like growth factors (IGFs) pathways.

Authors:  Nadège Zanou; Philippe Gailly
Journal:  Cell Mol Life Sci       Date:  2013-04-04       Impact factor: 9.261

4.  Muscle Resting and TGF-β Inhibitor Treatment Prevent Fatty Infiltration Following Skeletal Muscle Injury.

Authors:  Allan F Pagano; Coralie Arc-Chagnaud; Thomas Brioche; Angèle Chopard; Guillaume Py
Journal:  Cell Physiol Biochem       Date:  2019

5.  Low-level laser therapy (808 nm) contributes to muscle regeneration and prevents fibrosis in rat tibialis anterior muscle after cryolesion.

Authors:  Lívia Assis; Ana Iochabel Soares Moretti; Thalita Balsamo Abrahão; Heraldo Possolo de Souza; Michael R Hamblin; Nivaldo Antonio Parizotto
Journal:  Lasers Med Sci       Date:  2012-08-17       Impact factor: 3.161

6.  Strength training prior to muscle injury potentiates low-level laser therapy (LLLT)-induced muscle regeneration.

Authors:  Samuel Rodrigues Lourenço Morais; Alexandre Ginei Goya; Úrsula Urias; Paulo Roberto Jannig; Aline Villa Nova Bacurau; Wagner Garcez Mello; Paula Lazilha Faleiros; Sandra Helena Penha Oliveira; Valdir Gouveia Garcia; Edilson Ervolino; Patricia Chakur Brum; Rita Cássia Menegati Dornelles
Journal:  Lasers Med Sci       Date:  2016-12-01       Impact factor: 3.161

7.  Comparative effects of low-intensity pulsed ultrasound and low-level laser therapy on injured skeletal muscle.

Authors:  Ana Claudia Muniz Rennó; Renata Luri Toma; Suellen Maurin Feitosa; Kelly Fernandes; Paulo S Bossini; Poliani de Oliveira; Nivaldo Parizotto; Daniel Araki Ribeiro
Journal:  Photomed Laser Surg       Date:  2010-12-18       Impact factor: 2.796

Review 8.  The role of TGF-β1 during skeletal muscle regeneration.

Authors:  Kamila Delaney; Paulina Kasprzycka; Maria Anna Ciemerych; Malgorzata Zimowska
Journal:  Cell Biol Int       Date:  2017-01-19       Impact factor: 3.612

9.  Up-regulation of cerebral cytochrome-c-oxidase and hemodynamics by transcranial infrared laser stimulation: A broadband near-infrared spectroscopy study.

Authors:  Xinlong Wang; Fenghua Tian; Divya D Reddy; Sahil S Nalawade; Douglas W Barrett; Francisco Gonzalez-Lima; Hanli Liu
Journal:  J Cereb Blood Flow Metab       Date:  2017-02-09       Impact factor: 6.200

10.  Interplay between up-regulation of cytochrome-c-oxidase and hemoglobin oxygenation induced by near-infrared laser.

Authors:  Xinlong Wang; Fenghua Tian; Sagar S Soni; F Gonzalez-Lima; Hanli Liu
Journal:  Sci Rep       Date:  2016-08-03       Impact factor: 4.379

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