Evaluation of an Antioxidant and Anti-inflammatory Cocktail Against Human Hypoactivity-Induced Skeletal Muscle Deconditioning

Understanding the molecular pathways involved in the loss of skeletal muscle mass and function induced by muscle disuse is a crucial issue in the context of spaceflight as well as in the clinical field, and development of efficient countermeasures is needed. Recent studies have reported the importan...

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Veröffentlicht in:Frontiers in physiology Jg. 11; S. 71
Hauptverfasser: Arc-Chagnaud, Coralie, Py, Guillaume, Fovet, Théo, Roumanille, Rémi, Demangel, Rémi, Pagano, Allan F., Delobel, Pierre, Blanc, Stéphane, Jasmin, Bernard J., Blottner, Dieter, Salanova, Michele, Gomez-Cabrera, Mari-Carmen, Viña, José, Brioche, Thomas, Chopard, Angèle
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Veröffentlicht: Switzerland Frontiers 12.02.2020
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ISSN:1664-042X, 1664-042X
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Abstract Understanding the molecular pathways involved in the loss of skeletal muscle mass and function induced by muscle disuse is a crucial issue in the context of spaceflight as well as in the clinical field, and development of efficient countermeasures is needed. Recent studies have reported the importance of redox balance dysregulation as a major mechanism leading to muscle wasting. Our study aimed to evaluate the effects of an antioxidant/anti-inflammatory cocktail (741 mg of polyphenols, 138 mg of vitamin E, 80 μg of selenium, and 2.1 g of omega-3) in the prevention of muscle deconditioning induced by long-term inactivity. The study consisted of 60 days of hypoactivity using the head-down bed rest (HDBR) model. Twenty healthy men were recruited; half of them received a daily antioxidant/anti-inflammatory supplementation, whereas the other half received a placebo. Muscle biopsies were collected from the vastus lateralis muscles before and after bedrest and 10 days after remobilization. After 2 months of HDBR, all subjects presented muscle deconditioning characterized by a loss of muscle strength and an atrophy of muscle fibers, which was not prevented by cocktail supplementation. Our results regarding muscle oxidative damage, mitochondrial content, and protein balance actors refuted the potential protection of the cocktail during long-term inactivity and showed a disturbance of essential signaling pathways (protein balance and mitochondriogenesis) during the remobilization period. This study demonstrated the ineffectiveness of our cocktail supplementation and underlines the complexity of redox balance mechanisms. It raises interrogations regarding the appropriate nutritional intervention to fight against muscle deconditioning.
AbstractList Understanding the molecular pathways involved in the loss of skeletal muscle mass and function induced by muscle disuse is a crucial issue in the context of spaceflight as well as in the clinical field, and development of efficient countermeasures is needed. Recent studies have reported the importance of redox balance dysregulation as a major mechanism leading to muscle wasting. Our study aimed to evaluate the effects of an antioxidant/anti-inflammatory cocktail (741 mg of polyphenols, 138 mg of vitamin E, 80 μg of selenium, and 2.1 g of omega-3) in the prevention of muscle deconditioning induced by long-term inactivity. The study consisted of 60 days of hypoactivity using the head-down bed rest (HDBR) model. Twenty healthy men were recruited; half of them received a daily antioxidant/anti-inflammatory supplementation, whereas the other half received a placebo. Muscle biopsies were collected from the vastus lateralis muscles before and after bedrest and 10 days after remobilization. After 2 months of HDBR, all subjects presented muscle deconditioning characterized by a loss of muscle strength and an atrophy of muscle fibers, which was not prevented by cocktail supplementation. Our results regarding muscle oxidative damage, mitochondrial content, and protein balance actors refuted the potential protection of the cocktail during long-term inactivity and showed a disturbance of essential signaling pathways (protein balance and mitochondriogenesis) during the remobilization period. This study demonstrated the ineffectiveness of our cocktail supplementation and underlines the complexity of redox balance mechanisms. It raises interrogations regarding the appropriate nutritional intervention to fight against muscle deconditioning.
Understanding the molecular pathways involved in the loss of skeletal muscle mass and function induced by muscle disuse is a crucial issue in the context of spaceflight as well as in the clinical field, and development of efficient countermeasures is needed. Recent studies have reported the importance of redox balance dysregulation as a major mechanism leading to muscle wasting. Our study aimed to evaluate the effects of an antioxidant/anti-inflammatory cocktail (741 mg of polyphenols, 138 mg of vitamin E, 80 μg of selenium, and 2.1 g of omega-3) in the prevention of muscle deconditioning induced by long-term inactivity. The study consisted of 60 days of hypoactivity using the head-down bed rest (HDBR) model. Twenty healthy men were recruited; half of them received a daily antioxidant/anti-inflammatory supplementation, whereas the other half received a placebo. Muscle biopsies were collected from the vastus lateralis muscles before and after bedrest and 10 days after remobilization. After 2 months of HDBR, all subjects presented muscle deconditioning characterized by a loss of muscle strength and an atrophy of muscle fibers, which was not prevented by cocktail supplementation. Our results regarding muscle oxidative damage, mitochondrial content, and protein balance actors refuted the potential protection of the cocktail during long-term inactivity and showed a disturbance of essential signaling pathways (protein balance and mitochondriogenesis) during the remobilization period. This study demonstrated the ineffectiveness of our cocktail supplementation and underlines the complexity of redox balance mechanisms. It raises interrogations regarding the appropriate nutritional intervention to fight against muscle deconditioning.Understanding the molecular pathways involved in the loss of skeletal muscle mass and function induced by muscle disuse is a crucial issue in the context of spaceflight as well as in the clinical field, and development of efficient countermeasures is needed. Recent studies have reported the importance of redox balance dysregulation as a major mechanism leading to muscle wasting. Our study aimed to evaluate the effects of an antioxidant/anti-inflammatory cocktail (741 mg of polyphenols, 138 mg of vitamin E, 80 μg of selenium, and 2.1 g of omega-3) in the prevention of muscle deconditioning induced by long-term inactivity. The study consisted of 60 days of hypoactivity using the head-down bed rest (HDBR) model. Twenty healthy men were recruited; half of them received a daily antioxidant/anti-inflammatory supplementation, whereas the other half received a placebo. Muscle biopsies were collected from the vastus lateralis muscles before and after bedrest and 10 days after remobilization. After 2 months of HDBR, all subjects presented muscle deconditioning characterized by a loss of muscle strength and an atrophy of muscle fibers, which was not prevented by cocktail supplementation. Our results regarding muscle oxidative damage, mitochondrial content, and protein balance actors refuted the potential protection of the cocktail during long-term inactivity and showed a disturbance of essential signaling pathways (protein balance and mitochondriogenesis) during the remobilization period. This study demonstrated the ineffectiveness of our cocktail supplementation and underlines the complexity of redox balance mechanisms. It raises interrogations regarding the appropriate nutritional intervention to fight against muscle deconditioning.
Understanding the molecular pathways involved in the loss of skeletal muscle mass and function induced by muscle disuse is a crucial issue in the context of spaceflight as well as in the clinical field, and development of efficient countermeasures is needed. Recent studies have reported the importance of redox balance dysregulation as a major mechanism leading to muscle wasting. Our study aimed to evaluate the effects of an antioxidant/anti-inflammatory cocktail (741 mg of polyphenols, 138 mg of vitamin E, 80 mu g of selenium, and 2.1 g of omega-3) in the prevention of muscle deconditioning induced by long-term inactivity. The study consisted of 60 days of hypoactivity using the head-down bed rest (HDBR) model. Twenty healthy men were recruited; half of them received a daily antioxidant/anti-inflammatory supplementation, whereas the other half received a placebo. Muscle biopsies were collected from the vastus lateralis muscles before and after bedrest and 10 days after remobilization. After 2 months of HDBR, all subjects presented muscle deconditioning characterized by a loss of muscle strength and an atrophy of muscle fibers, which was not prevented by cocktail supplementation. Our results regarding muscle oxidative damage, mitochondrial content, and protein balance actors refuted the potential protection of the cocktail during long-term inactivity and showed a disturbance of essential signaling pathways (protein balance and mitochondriogenesis) during the remobilization period. This study demonstrated the ineffectiveness of our cocktail supplementation and underlines the complexity of redox balance mechanisms. It raises interrogations regarding the appropriate nutritional intervention to fight against muscle deconditioning.
Author Jasmin, Bernard J.
Viña, José
Brioche, Thomas
Delobel, Pierre
Blottner, Dieter
Chopard, Angèle
Salanova, Michele
Py, Guillaume
Demangel, Rémi
Roumanille, Rémi
Arc-Chagnaud, Coralie
Pagano, Allan F.
Gomez-Cabrera, Mari-Carmen
Blanc, Stéphane
Fovet, Théo
AuthorAffiliation 6 Berlin Center for Space Medicine, Integrative Neuroanatomy, Charité Universitätsmedizin Berlin , Berlin , Germany
5 IPHC, CNRS, Université de Strasbourg , Strasbourg , France
1 DMEM, Université Montpellier, INRAE , Montpellier , France
4 Department of Cellular and Molecular Medicine and Centre for Neuromuscular Disease, Faculty of Medicine, University of Ottawa , Ottawa, ON , Canada
3 Faculté des Sciences du Sport, Mitochondries, Stress Oxydant et Protection Musculaire, Université de Strasbourg , Strasbourg , France
2 Freshage Research Group, Department of Physiology, Faculty of Medicine, CIBERFES, Fundación Investigación Hospital Clínico Universitario/INCLIVA, University of Valencia , Valencia , Spain
AuthorAffiliation_xml – name: 2 Freshage Research Group, Department of Physiology, Faculty of Medicine, CIBERFES, Fundación Investigación Hospital Clínico Universitario/INCLIVA, University of Valencia , Valencia , Spain
– name: 6 Berlin Center for Space Medicine, Integrative Neuroanatomy, Charité Universitätsmedizin Berlin , Berlin , Germany
– name: 3 Faculté des Sciences du Sport, Mitochondries, Stress Oxydant et Protection Musculaire, Université de Strasbourg , Strasbourg , France
– name: 5 IPHC, CNRS, Université de Strasbourg , Strasbourg , France
– name: 1 DMEM, Université Montpellier, INRAE , Montpellier , France
– name: 4 Department of Cellular and Molecular Medicine and Centre for Neuromuscular Disease, Faculty of Medicine, University of Ottawa , Ottawa, ON , Canada
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Copyright Copyright © 2020 Arc-Chagnaud, Py, Fovet, Roumanille, Demangel, Pagano, Delobel, Blanc, Jasmin, Blottner, Salanova, Gomez-Cabrera, Viña, Brioche and Chopard.
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Copyright © 2020 Arc-Chagnaud, Py, Fovet, Roumanille, Demangel, Pagano, Delobel, Blanc, Jasmin, Blottner, Salanova, Gomez-Cabrera, Viña, Brioche and Chopard. 2020 Arc-Chagnaud, Py, Fovet, Roumanille, Demangel, Pagano, Delobel, Blanc, Jasmin, Blottner, Salanova, Gomez-Cabrera, Viña, Brioche and Chopard
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Keywords antioxidants
muscle wasting
oxidative stress
cell signaling
inactivity
Language English
License Copyright © 2020 Arc-Chagnaud, Py, Fovet, Roumanille, Demangel, Pagano, Delobel, Blanc, Jasmin, Blottner, Salanova, Gomez-Cabrera, Viña, Brioche and Chopard.
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This article was submitted to Environmental, Aviation and Space Physiology, a section of the journal Frontiers in Physiology
Reviewed by: Satoshi Iwase, Aichi Medical University, Japan; Laurence Stevens, Lille University of Science and Technology, France
Edited by: Marc-Antoine Custaud, Université d’Angers, France
These authors have contributed equally to this work
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Snippet Understanding the molecular pathways involved in the loss of skeletal muscle mass and function induced by muscle disuse is a crucial issue in the context of...
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StartPage 71
SubjectTerms antioxidants
cell signaling
Human health and pathology
inactivity
Life Sciences
muscle wasting
oxidative stress
Physiology
Title Evaluation of an Antioxidant and Anti-inflammatory Cocktail Against Human Hypoactivity-Induced Skeletal Muscle Deconditioning
URI https://www.ncbi.nlm.nih.gov/pubmed/32116779
https://www.proquest.com/docview/2369886725
https://hal.inrae.fr/hal-02640794
https://pubmed.ncbi.nlm.nih.gov/PMC7028694
https://doaj.org/article/169a25d5eb1c4ea5995972c01900836e
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