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Official PDF TranslationSCIENCE CHINA Materials

Nanovesicle-hybridized hydrogels: construction, functionalization, and biomedical applications

Authors: LI Qiwen; PAN Boyue; CHANG Haimo; XU Ziqiang; WU Feng; PANG Yan

DOI: 10.1007/s40843-026-4384-9Status: Verified Translated Edition
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Key Findings in This Report

• • Physical entrapment of nanovesicles in hydrogels results in burst release profiles, with >60% cargo lost within 24 hours, whereas chemical crosslinking (covalent or supramolecular) reduces release rate to <20% over 7 days, enabling sustained delivery for chronic diseases. • • Covalent conjugation of vesicles to polymer networks increases compressive modulus from 0.05 MPa (physical blend) to 1.2 MPa (crosslinked), a 24-fold enhancement that meets load-bearing requirements for cartilage tissue engineering. • • Supramolecular crosslinking via host-guest interactions yields shear-thinning and self-healing hydrogels with recovery efficiency >90% after 5 cycles, critical for injectable formulations that withstand physiological shear forces (10–100 s⁻¹). • • Hybrid hydrogels functionalized with cell-derived nanovesicles achieve >80% cell viability in vitro and reduce inflammatory cytokine TNF-α by 70% in vivo compared to bare hydrogels, demonstrating immunomodulatory potential for wound healing.