材料科学
纳米尺度
纳米技术
动力学
3D打印
复合材料
物理
量子力学
作者
David J. Peeler,Rujie Sun,Ceren Kütahya,Patrick Peschke,Kun Zhou,Giulia Brachi,Jonathan Yeow,Omar Rifaie‐Graham,Jonathan P. Wojciechowski,Thomas F. F. Fernandez Debets,Vernon LaLone,Xin Song,Krunal Polra,Paul F. McKay,John S. Tregoning,Robin J. Shattock,Molly M. Stevens
标识
DOI:10.1002/adma.202417290
摘要
Abstract Two‐photon polymerization (2PP) 3D printing enables top–down biomaterial synthesis with nanoscale spatial resolution for de novo design of monodisperse injectable drug delivery systems. Spatiotemporal Controlled Release Inks of Biocompatible polyEsters (SCRIBE) is a novel poly(lactic‐ co ‐glycolic acid)‐triacrylate resin family with sub‐micron resolution and tuneable hydrolysis that addresses the limitations of current 2PP resins. SCRIBE enables the direct printing of hollow microparticles with tuneable chemistry and complex geometries inaccessible to molding techniques, which are used to engineer controlled protein release in vitro and in vivo. SCRIBE microparticles are used to modulate antibody titers and class switching as a function of antigen release rate and extend these findings to enable a single‐injection vaccine formulation with extended antibody induction kinetics. Demonstrating how the chemistry and computer‐aided design of 2PP‐printed microparticles can be used to tune responses to biomacromolecule release in vivo opens significant opportunities for a new generation of drug delivery vehicles.
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