Ginger-Derived Extracellular Vesicles: A Natural Solution for Alopecia

细胞外小泡 细胞外 自然(考古学) 小泡 化学 医学 生物化学 细胞生物学 生物 古生物学
作者
Yixin Hao,Qiujun Yang,Han Zhang,Chunyu Bai,Бо Лю,Yuhua Gao
出处
期刊:Current Drug Delivery [Bentham Science]
卷期号:22
标识
DOI:10.2174/0115672018321133240829074400
摘要

Background: Ginger (Zingiber officinale (L.) Rosc), as an edible plant-derived nanoparticle, offers several advantages, such as a high return rate, low budget, no ethical barriers, and good for health. Ginger-Derived Extracellular Vesicles (GDEVs) are nanoscale vesicles isolated from ginger. Methods: In this study, GDEVs were used to treat the alopecia mouse model, and its main active components and potential mechanism of action were investigated. The LC-MS/MS analysis of GDEVs revealed the presence of 1299 chemical compounds, among which auxiliary components were identified. Interestingly, the crux of the analysis lies in the discovery of 13 specific ingredients that play a pivotal role in hair proliferation. The aim of this study was to investigate the protective effect of GDEVs on hair loss. These advantages make ginger-derived nanoparticles a promising solution to overcome technical limitations associated with mammalian nanoparticles. This study elucidates the mechanism of action of GDEVs in the treatment of alopecia. However, the active ingredients and mechanism of action of GDEVs in the treatment of hair loss are unknown. Results: GDEVs were isolated from ginger using the differential centrifugal method. Network pharmacological analysis of the GDEVs revealed that the anti-hair loss effect of GDEVs on alopecia was closely linked to its ability to reduce inflammation and promote the proliferation of hair follicle stem cells. Subsequently, it was applied to the balding areas of hair-loss mice using a brush. The results demonstrated that the application of GDEVs led to a rapid recovery of the balding areas and promoted the growth of healthier hair. Conclusion: This experiment reported that GDEVs can effectively suppress the inflammatory activity in the alopecia model mice.
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