Aug 2026· Frontiers in Aging· Vol 7· 0 citations· 97 references
Medicine
TL;DR
This review summarizes the molecular mechanisms underlying MSC senescence, its source-specific functional consequences, and emerging rejuvenation strategies, with an emphasis on MSC quality control, potency assessment, and clinical translation.
Abstract
Mesenchymal stem cells (MSCs) are widely investigated for regenerative medicine, tissue repair, immunomodulation, and selected cancer-related applications because of their multilineage differentiation potential, paracrine activity, immunoregulatory properties, and capacity to home to sites of injury. However, the therapeutic potential of MSCs depends not only on their tissue source or surface-marker expression but also on their functional state. MSC senescence is not a single phenotypic alteration; rather, it reflects the combined effects of persistent DNA damage response activation, disruption of mitochondrial and metabolic homeostasis, remodeling of epigenetic and secretory networks, and loss of proteostasis. Collectively, these changes drive MSCs toward reduced proliferative capacity, dysregulated paracrine signaling, impaired immunomodulatory activity, and diminished tissue-repair potential, thereby compromising cell-product potency and batch-to-batch consistency. This review summarizes the molecular mechanisms underlying MSC senescence, its source-specific functional consequences, and emerging rejuvenation strategies, with an emphasis on MSC quality control, potency assessment, and clinical translation.
Cellular prion protein (PrPᶜ), encoded by PRNP, is increasingly recognized as a context-dependent regulator of cellular stress adaptation and intercellular communication beyond its canonical role as the physiological precursor of disease-associated prion conformers. Through its localization in membrane microdomains and...
Sang-Hun Lee, Y. Song· Pharmacological Research· 0 citations
This review provides a comprehensive framework for developing safer, standardized, and clinically transformative therapies based on MSCs, and explores emerging strategies to enhance the activity of MSCs, including pretreatment and activation, lifestyle intervention, and genetic engineering techniques.
Dong-Mei Xue, Yong-Sheng Li, Lei Wu· MedComm· 0 citations
Mesenchymal stromal cells (MSCs) hold considerable promise in tissue regeneration due to their multilineage differentiation, paracrine signaling, and immunomodulatory capabilities, as evidenced by thousands of clinical trials. However, clinical translation is constrained by inconsistent and unpredictable efficacy. This...
Shuang Wu, Sheng-Meng Yuan, Ji-Ting Li et al.· Frontiers in Bioengineering...· 0 citations
The conceptual boundaries and operational criteria for identifying OnF in CRC are discussed, its regulatory mechanisms, plasticity-associated phenotypes, and translational relevance are examined, and the importance of distinguishing direct evidence of OnF from evidence of related plasticity mechanisms is emphasized.
Hao-Yu Wang, Song-Hao Liu, Ming-Xuan Zhang et al.· Frontiers in Oncology· 0 citations
This comprehensive review examines cell therapy strategies for SkM disorders, including age-related sarcopenia, encompassing satellite cells, mesenchymal stromal cells,MSCs, pericytes/mesoangioblasts, and hematopoietic stem cells, and delineates how each population declines with age.
Inseon Kim, Yeajin Song, Seohyun Choo et al.· Ageing Research Reviews· 0 citations
A paradigm shift from conventional cell therapies to MSC-EV-centric, cell-free strategies, which overcome traditional transplantation limitations like low engraftment and immunogenicity are proposed, establishing MSC-EVs as a next-generation therapeutic framework, guiding future clinical translation in regenerative uro...
Peng-Hui Zhong, Jin Chen, Shi-Jie Cai et al.· Stem Cell Reviews and Report...· 0 citations
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