This review investigates the combined use of engineered Exos with delivery systems such as microneedles and gels to enhance therapeutic efficacy and aims to drive revolutionary breakthroughs in regenerative medicine.
Abstract
Skin aging is an intricate and multidimensional biological process driven by both endogenous and exogenous factors. It manifests as impaired skin structure and function, morphological alterations, and an elevated risk of associated disorders. Current skin antiaging therapies have made considerable advancements. However, notable challenges persist regarding safety, long‐term efficacy, and delivery efficiency. These challenges have prompted the field of regenerative medicine to pursue more effective therapeutic strategies. Engineered exosomes (Exos) are nanoscale vesicles optimized through bioengineered strategies. They exhibit excellent biocompatibility, low immunogenicity, and a strong capability to deliver diverse bioactive molecules. Stem cell‐derived exosomes (SC‐Exos) represent ideal sources for engineered Exos. However, natural Exos are limited by low yield, insufficient drug‐loading capacity, and poor targeting efficiency. To address these limitations, engineered strategies have been developed to enhance yield, enrich functional components, and achieve targeted delivery. Furthermore, this review investigates the combined use of engineered Exos with delivery systems such as microneedles and gels to enhance therapeutic efficacy. Ongoing technological advancements have enabled engineered Exos to emerge as a safe, efficient, precise, and promising frontier in precision skin antiaging. They are poised to drive revolutionary breakthroughs in regenerative medicine.
Given the complex pathogenesis of skin diseases, current treatments are not always adequate or suitable for all patients. This highlights the necessity for a multi-target therapeutic nanoplatform. Owing to their intrinsic biological functions, exosomes have emerged as a promising transdermal drug delivery system. Howev...
Jia-Yi Wang, Jun-Kun Qu, Don Green et al.· Journal of Dermatopharmacy· 0 citations
Extracellular vesicles (EVs), particularly stem cell-derived exosomes, serve as vital natural nanocarriers in regenerative medicine, immune modulation, and targeted drug delivery due to their innate ability to transport bioactive cargo across complex biological barriers. Despite this potential, the therapeutic efficacy...
Exosomes have the potential to become next-generation delivery systems that revolutionize cancer therapy and regenerative medicine treatment approaches with further development.
Pratik Rajale, N. Meshram, Shreya Kalbandhe et al.· Pharmaceutical Nanotechnolog...· 0 citations
This review critically examines exosome sources, isolation and characterization methodologies, cargo-loading strategies, biodistribution, pharmacokinetics, and engineering approaches together with their applications in delivering small-molecule drugs and nucleic acid-based therapeutics to overcome multidrug resistance...
Yaseera Arif, D. N. Moholkar, Raghuram Kandimalla et al.· Journal of Controlled Releas...· 0 citations
This review presents a comprehensive analysis of strategies for engineering MSC-Exos as delivery vehicles for CRISPR-Cas9, with emphasis on cargo-loading methodologies and surface modifications that enable targeting specific immune cell populations.
Dan-Dan Guo, Wei Zhang, Wen-Bo Dou et al.· Frontiers in Bioengineering...· 0 citations
Abstract The integrity of the skin barrier is paramount for human physiological homeostasis. Recently, plant-derived exosome-like nanovesicles (PENs) lipid bilayer nanostructures inherently enriched with diverse natural bioactive cargos have emerged as transformative nanotherapeutic platforms. Compared to conventional...
Xiao-Meng Ma, Jia-Yu Shi, Rui-Fang Li et al.· International Journal of Nan...· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.