This review summarized the mainstream approaches for engineering EVs and elaborated on recent applications of functionalized EVs in relevant biomedical fields, and discussed current challenges and future perspectives regarding the large‐scale production, standardized characterization, and safety evaluation of engineered EVs.
Abstract
Extracellular vesicles (EVs), as endogenous nanoscale delivery platforms, have garnered significant attention due to their high biocompatibility, low immunogenicity, and intrinsic ability to cross physiological barriers. However, the clinical translation of natural EVs is hindered by inherent limitations, including poor targeting specificity, low drug‐loading capacity, high heterogeneity, and challenges in achieving standardized manufacturing. Engineering EVs through physical, chemical, and biological modification strategies can significantly enhance their targeting precision, drug‐loading efficiency, and pharmacokinetic profiles. This review summarized the mainstream approaches for engineering EVs and elaborated on recent applications of functionalized EVs in relevant biomedical fields. Furthermore, it discussed current challenges and future perspectives regarding the large‐scale production, standardized characterization, and safety evaluation of engineered EVs.
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...
Naturally secreted extracellular vesicles (EVs) have attracted considerable interest as next-generation theranostic platforms because of their intrinsic biocompatibility, membrane complexity, and intercellular communication capabilities. However, their broader biomedical and translational applications remain limited by...
The growing applicability of EVs as next-generation platforms for precision medicine, targeted drug delivery, and regenerative therapies is summarized while identifying the major obstacles that must be addressed to facilitate their successful clinical translation.
Shery Jacob, Namitha Raichel Varkey, S. Boddu et al.· Pharmaceutics· 0 citations
Nanomedicine represents one of the pivotal technologies that further bridges critical gaps in precision theranostics through targeted delivery, integrated diagnostics and therapeutics, and personalized treatment. Among various nanocarriers, extracellular vesicles (EVs) have attracted substantial interest owing to their...
The application of engineered EVs in the treatment of several pathological conditions, including cardiovascular, neurological, autoimmune, and cancer diseases, are summarized, and the major challenges in clinical translation and future perspectives for EV-based targeted therapies are discussed.
Giulia Duca, Vincenza Tinnirello, N. Ganji et al.· Molecular Biomedicine· 1 citation
Practical guidelines for the rational design and standardization of EV-INP hybrids toward intelligent nanomedicine are provided, with particular emphasis on comparable metrics and quality assurance.
Xia-Qing Lin, Yue-Ying Cao, Cao Hoang Long Ngo et al.· ACS Applied Materials and In...· 0 citations
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