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In this study, co-administering adipose-derived stem cells with platelet-rich plasma reduced radiation therapy-induced skin and hair follicle damage in mice, suggesting potential for clinical application.

This paper reviews the potential of stem cells, especially adipose-derived ones, in cosmetic dermatology, particularly for androgenetic alopecia and skin rejuvenation, highlighting their promise but noting the need for more rigorous trials to confirm their effectiveness and standardize treatments.

This review discusses the various roles of skin-resident dermal white adipose tissue in hair growth inhibition, antibacterial responses, and wound healing, reporting no new empirical findings.

Different stem cells have benefits and challenges for tissue repair, and more research is needed to find the best types for each use.

This review highlights the potential of regenerative medicine therapies, such as biologics and emerging technologies, to significantly impact aesthetic and reconstructive procedures in plastic surgery and dermatology.

This study found that bee venom accelerated the transition from the telogen to anagen phase in mice, increasing hair growth by day 14, and suggested that bee venom may enhance adipose-derived stem cell activity by upregulating growth factor secretion.

This review summarizes recent research on the therapeutic uses of adipose-derived stem cells for wound healing and treating skin diseases but does not provide new experimental results.

The researchers reported that adipose-derived stem cells from type 2 diabetic mice showed comparable therapeutic effects in wound healing to control cells, despite slightly reduced growth factor secretion and healing promotion.

This review discusses the regenerative potential of hair follicle stem cell populations and current approaches to reconstructing folliculogenesis for alopecia therapy, but reports no new clinical results.

This review discusses the potential of adipose-derived stem cells for regenerative medicine, highlighting their ability to differentiate, secrete factors, and modulate the immune response, but reports no new findings.

Fat-derived stem cell therapies can potentially increase hair growth and thickness in people with hair loss.

Fat-derived stem cell therapies can potentially increase hair growth and thickness in people with hair loss.

This study found that administering adipose-derived stem cells with ATP improved hair regrowth in male mice with androgenetic alopecia, while the combination was less effective in female mice.

This study found that conditioned medium from photobiomodulation-irradiated adipose-derived stromal cells enhanced hair growth in a mouse model of hair loss more effectively than non-irradiated medium, suggesting potential for treating alopecia by boosting growth factor secretion.

This study found that human dermal stem/progenitor cells demonstrated greater proliferation and differentiation potential than hair follicle dermal papilla cells, which showed increased expression of hair regeneration markers.

This review outlines the principles of regenerative medicine as applied to cosmetic dermatology, highlighting the need for more data and in vivo trials to standardize methods in this emerging field, while also suggesting future research directions.

This study found that adipose-derived stem cells with DKK1 knocked out using CRISPR/Cas9 promoted hair growth in an alopecia areata model more effectively than untreated stem cells, suggesting DKK1 is a potential therapeutic target for this condition.

This study suggests that early-stage dermal papilla cell-derived exosomes may enhance adipose stem cells' hair inductive abilities through specific miRNAs.

This study found that a 3D co-culture of adipose-derived stem cells and endothelial colony forming cells restored stem cell properties and enhanced wound healing in a mouse model.

This study found that adipose-derived mesenchymal stem cells from type 2 diabetes mice are slightly less effective than controls but offer similar therapeutic benefits for wound healing.

The study suggests that culturing adipose-derived mesenchymal stem cells into spheroids with Wnt exposure can result in cell clusters resembling hair follicle dermal papilla cells, potentially aiding hair follicle generation.

This study found that dermal papilla-like tissues derived from canine adipose stem cells promoted new hair follicle formation and increased vascularization in athymic nude mice.

This review suggests that allogenic adipose stem cell and extracellular matrix transplants may be safe and effective for various medical conditions, based on available studies.

This study found that PDGFA is critical for the proliferation and maintenance of adipocyte stem cells in skin but not other white adipose tissues, highlighting unique regulatory mechanisms in different tissue depots.

This study suggests that AT-ASCs significantly improve terminal and intermediate hair counts and hair caliber in androgenetic alopecia more than PRP, though with more side effects like headache and erythema.

This study found that non-balding dermal papilla cells emphasized extracellular matrix organization and reduced inflammation when cultured in 3D or with adipose-derived stem cells, unlike balding cells which maintained inflammatory pathways.

This review discusses the characteristics, biomaterials, and tissue engineering methods for adipose-derived stem cells in a 3D environment, highlighting their potential in regenerative medicine without presenting new clinical results.

This study suggests that Nox4 is a key factor in the hypoxia-induced enhancement of adipose-derived stem cell functions through reactive oxygen species generation.

Adipose-derived stem cells can be transformed into hair-forming cells using specific extracellular vesicles, offering potential for hair regeneration therapies.

This study found that the Hy-Tissue Nanofat product isolates a significant number of proliferative nucleated cells and shows potential for regenerative medicine due to its rich content of adipose-derived stem cells and pluripotent MUSE cells.