Hydrogen Gas Helps Prevent Stem Cell Aging and Boosts Muscle Growth
- Authors
- Pei Zhang, Yanmin Hu, Wenkang Liu, Jingcheng Wang, Yuan Liang, Wenyong Fei
- Journal
- Human & Experimental Toxicology
- Year
- 2025
- Study Type
- Cell Culture
- Outcome
- Positive
- Peer Reviewed
- Yes
- Country
- China
- Health Condition
- Cellular Senescence
- Body System
- Musculoskeletal
TL;DR
Hydrogen gas helps keep fat-derived stem cells youthful and improves their ability to develop into muscle cells by reducing aging and boosting cell energy pathways.
Key Finding
Hydrogen gas reduced signs of aging in fat-derived stem cells and enhanced their capacity to transform into muscle cells by activating a specific molecular pathway (PRDX6/SIRT1/PGC-1α).
Summary
This laboratory study examined how hydrogen gas affects stem cells taken from fat tissue (adipose-derived stem cells), which are being explored for regenerative medicine. Researchers found that hydrogen treatment slowed down cellular aging in these stem cells and improved their ability to develop into muscle cells by activating specific proteins involved in cell health and energy production.
Practical Takeaway
This is early laboratory research in cultured cells only, not human studies, so it cannot yet inform consumer decisions about hydrogen water. While the findings suggest hydrogen may have potential benefits for stem cell therapies in regenerative medicine, much more research—including human trials—would be needed before any practical applications could be considered.
Abstract
IntroductionAdipose-derived mesenchymal stem cells (ADSCs) are promising candidates for regenerative therapies, but their clinical application is limited by cellular aging. This study investigated the effects of hydrogen on ADSC senescence and myogenic differentiation, along with the underlying molecular mechanisms.MethodsADSCs were treated with hydrogen gas. Senescence was assessed using β-galactosidase staining, proliferation assays, measurements of mitochondrial oxidative stress, and protein expression analysis. Differentiation capacity was evaluated through MyHC immunofluorescence, MYOD expression profiling, and quantification of myogenic regulatory factors. Additionally, the key molecular pathway of hydrogen's action was investigated by pharmacologically inhibiting PRDX6.ResultsThe findings showed that hydrogen treatment reduced senescence and increased differentiation capacity, as evidenced by higher proportions of MyHC-positive cells, increased myogenin levels, and decreased Muscle RING finger protein1 (MuRF1) expression. Molecular investigations revealed activation of the PRDX6/SIRT1/PGC-1α axis, accompanied by elevated NQO-1 expression. Importantly, pharmacological inhibition of PRDX6 largely eliminated the protective effects of hydrogen on cellular aging, disrupted differentiation, and caused mitochondrial dysfunction.DiscussionThese results suggest that hydrogen can regulate ADSC behavior via PRDX6-driven activation of SIRT1/PGC-1α signaling, offering potential approaches to improve stem cell quality for regenerative medicine.