It is demonstrated that the nucleotide ratio in NooQ5 enhances early protein synthesis kinetics and protects cell membrane integrity, showing potential as an alternative for muscle bioenergetics and structural remodeling in C2C12 myotubes.
Abstract
Dietary nucleotides offer metabolic and antioxidant benefits, yet their direct impact on skeletal myogenesis and structural recovery remains to be fully elucidated. This study evaluated the comparative efficacy of the nucleotide formulation NooQ5 against creatine monohydrate in modulating differentiation, cellular stress, and regeneration in C2C12 myoblasts. Initial screening established a dose-dependent response, where 500 mg/L promoted cell proliferation, whereas 100 mg/L improved cell differentiation, without compromising cell viability. In uninjured cells, NooQ5 significantly accelerated early mTOR and S6 ribosomal protein phosphorylation within 1 h relative to creatine, driving downstream desmin accumulation by 72 h. Under H2O2-induced oxidative stress, NooQ5 preserved membrane integrity by reducing lactate dehydrogenase (LDH) release compared to creatine and modulating intracellular glutathione redox balance. Furthermore, following chemical injury with BaCl2, as a muscle injury model, NooQ5 maintained a high fusion index, promoting myotube hypertrophy. Overall, these findings demonstrate that the nucleotide ratio in NooQ5 enhances early protein synthesis kinetics and protects cell membrane integrity, showing potential as an alternative for muscle bioenergetics and structural remodeling in C2C12 myotubes.
Results support a potential role for paeoniflorin in maintaining muscle cell homeostasis under oxidative stress and indicate that paeoniflorin enhances resistance to oxidative stress in myoblasts through Nrf2/HO-1 pathway activation, thereby preserving genomic stability and mitochondrial function.
Cheol Park, E. Bang, Chengrong Jin et al.· Applied Biological Chemistry· 0 citations
Collectively, PDRN attenuated DEX-induced skeletal muscle atrophy by suppressing oxidative stress and regulating muscle protein turnover, suggesting its potential as a therapeutic strategy for glucocorticoid-induced muscle wasting.
Jin-Young Hong, Hyunseong Kim, C. Yeo et al.· Journal of Muscle Research a...· 0 citations
It is demonstrated that BHBA directly induces oxidative damage and mitochondrial dysfunction in myogenic cells, and mitophagy is identified as a potential therapeutic target.
Tao Tang, Jing Zhou, Xianbo Jia et al.· Frontiers in Cell and Develo...· 0 citations
Among the two dietary vitamin K2 isoforms, MK-4 is abundantly found in the brain, and MK-7 is well absorbed and has a longer half-life. Beyond canonical functions, these dietary vitamin K2 vitamers have emerged as bioactive nutrients with potential cytoprotective properties. However, their presence in the brain and the...
S. Shandilya, J. Ruokolainen· Journal of Agricultural and...· 0 citations
During myogenesis or myofiber regeneration, a proliferating muscle cell must leave the cell cycle, commit to differentiate, and fuse to neighboring myoblasts to create multinucleated myotubes, and eventually mature myofibers. These stages can be manipulated by exogenous factors including signaling molecules, mechanical...
M. Caldow, Kristy Swiderski, J. H. Nguyen et al.· Cell Biology International· 0 citations
Introduction Physiological metabolic reprogramming is a cells strategy to resist/counteract stress to preserve homeostasis. Hypoxia is an important stress stimulus that can promote tissue remodeling and fibrosis, in which alterations in sphingolipid metabolism may contribute to fibroblast responses. Here, we investigat...
M. Terlizzi, Emmanuel D'Andria, C. Colarusso et al.· Frontiers in Physiology· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.