15 citations
,
December 2020 in “International journal of molecular sciences” This review explores how epidermal stem cells contribute to the development and maintenance of various skin structures, and highlights specific markers and proteins associated with these cells, but reports no new clinical results.
7 citations
,
May 2022 in “Frontiers in Cell and Developmental Biology” This review discusses the molecular mechanisms driving hair follicle degeneration in skin aging and emphasizes the role of the tissue microenvironment on stem cell function, but reports no new research findings.
February 2025 in “Biochemistry” This review summarizes the potential therapeutic applications of stem cells in dermatology, emphasizing their role in restorative and regenerative treatments through injections, topical applications, and scaffolds, supported by advancements in laboratory processes and quality control.
September 2024 in “Genes” This study found that overexpressing CRABP1 in dermal papilla cells promotes their proliferation and influences key genes in the Wnt/β-catenin signaling pathway, which may offer insights into mechanisms controlling hair follicle development.
387 citations
,
May 2019 in “International Journal of Molecular Sciences” This review discusses the therapeutic potential of adipose-derived stem cells compared to other mesenchymal stem cells, emphasizing their promise in treating neurodegenerative, cardiovascular, and autoimmune diseases, but reports no new clinical results.
212 citations
,
January 2017 in “Mediators of Inflammation” This review examines current treatments and the potential role of stem cells in cutaneous wound healing, but it presents no new clinical results and calls for more research on mechanisms.
44 citations
,
September 2016 in “American Journal Of Pathology” This study identified a subpopulation of neural crest-derived progenitor cells in human corneal endothelial tissue from normal and Fuchs endothelial corneal dystrophy donors, which may have potential for future cell therapy development.
41 citations
,
April 2019 in “PLOS genetics” This study found that CD34- melanocyte stem cells regenerated pigmentation more efficiently, while CD34+ cells showed potential for neuron myelination, suggesting different therapeutic applications for each population.
22 citations
,
May 2011 in “Molecular Biology of the Cell” In this study, gene inactivation in mouse hair follicle stem cells lacking ILK impaired wound healing by reducing their progeny’s contribution to the regenerating epidermis, but did not affect hair follicle regeneration.
11 citations
,
February 2019 in “Stem cells international” In this study, researchers found that while both hair follicles and skin dermis-derived neural crest stem cells are suitable for large-scale manufacturing, skin dermis cells grow faster and are easier to obtain.
3 citations
,
August 2018 in “Stem cells international” This study found that cultured hair follicle dermal cells support maintenance and potentially aid in the clinical application of pluripotent and haematopoietic stem cells.
2 citations
,
January 2017 in “AIMS cell and tissue engineering” This review discusses the potential of mesenchymal stem cell therapies for treating various skin diseases, including vitiligo, alopecia, and epidermolysis bullosa, but reports no new results.
209 citations
,
October 2008 in “The Journal of Pathology” This review discusses the niches supporting adult stem cells in various organisms, including well-studied germline niches and the less understood mammalian niches, but it reports no new research findings.
3 citations
,
February 2022 in “Frontiers in Genetics” This study found that overexpression of the lncRNA AC010789.1 in hair follicle stem cells may suppress androgen alopecia progression by modulating several molecular pathways, suggesting a potential new treatment strategy.
1 citations
,
March 2022 in “IntechOpen eBooks” This article reviews the functions and locations of skin stem cells and their role in regeneration and differentiation, relating age-associated skin changes to decreased stem cell functionality; it reports no new experimental findings.
105 citations
,
December 2017 in “Journal of Biological Engineering” This review discusses the challenges of skin graft acceptance and examines current strategies and alternatives for full-thickness skin replacement and repair, noting that immunological rejection remains a significant hurdle.
15 citations
,
July 2014 in “The journal of investigative dermatology/Journal of investigative dermatology” This article discusses the potential of induced pluripotent stem cells (iPSCs) for generating skin components, particularly for genetic skin disorder modeling and gene-corrected regenerative therapies, but reports no new clinical results.
32 citations
,
February 2019 in “eLife” This study identified key cells and pathways needed for the development of touch receptor patterns in mouse skin, notably that certain keratinocytes are crucial for innervation patterns, while Merkel cells and BMP signaling have distinct roles.
31 citations
,
August 2021 in “Stem Cell Research & Therapy” This review examines the life cycle, biomarkers, and functions of hair follicle stem cells, emphasizing their role in hair loss therapy and other skin and hair disorders, but reports no new clinical results.
4 citations
,
January 2014 in “Stem Cell Discovery” This review discusses the various types of stem cells, including their potential applications in therapy, and reports the challenges associated with safe stem cell treatment, with no new clinical results presented.
1 citations
,
July 2019 in “Journal of Dermatology and Dermatologic Surgery” This review discusses the potential of stem cell therapies for regenerating hair in nonautoimmune hair loss and calls for more studies to evaluate their efficacy.
3 citations
,
January 2012 in “Journal of Investigative Dermatology” Inhibiting PGD2 and using dermal papilla cells may improve skin and hair regeneration.
606 citations
,
January 2016 in “International Journal of Cell Biology” This review outlines recent advances in stem cell and tissue engineering technologies in regenerative medicine and wildlife conservation, reporting no new clinical results.
22 citations
,
December 2013 in “Stem cells and development” This study found that treating skin wounds with a combination of epidermis-derived epithelial-like stem/progenitor cells and platelet-rich plasma improved tissue repair and increased vascularization and elastin content compared to platelet-rich plasma alone.
8 citations
,
January 2014 in “PubMed” This study demonstrated that dermal papilla cells were more efficiently reprogrammed into induced pluripotent stem cells than dermal fibroblasts, suggesting their potential as a source for iPS cells.
5 citations
,
July 2022 in “Orphanet journal of rare diseases” This study found that RSPO1 mutations in patients with a 46XX disorder of sexual development contribute to impaired skin integrity and increased risk of squamous cell carcinoma in areas subject to friction.
45 citations
,
August 2018 in “Stem Cells International” This article reviews the potential of adipose-derived and Wharton’s jelly stem cells in alopecia treatment but presents no new clinical findings, highlighting their potential benefits and limitations in regenerative medicine.
44 citations
,
January 2015 in “Development” This study reports that human epidermal neural crest stem cells from hair follicles can be quickly differentiated into highly pure human Schwann cells without genetic manipulation, suggesting their potential for therapeutic applications.
12 citations
,
May 2024 in “International Journal of Nanomedicine” This review discusses the potential of stem cell-derived extracellular vesicles for improving diabetic wound healing and highlights their mechanisms, limitations, and challenges, but provides no new clinical findings.
9 citations
,
September 2022 in “Journal of Clinical Investigation” In this study, mouse models of 22q11.2 deletion syndrome showed that growth issues in small embryonic thymuses were linked to mesenchymal cells, which could be corrected by substituting with normal mesenchyme.