生物陶瓷
再生(生物学)
3d打印
脚手架
生物医学工程
化学
材料科学
纳米技术
工程类
细胞生物学
生物
作者
Tao Zhang,Lifei Huang,Xiaonan Zhang,Jiali Guo,Yunming Shen,Yongxiang Luo
摘要
evaluations revealed that the interconnected channel system significantly enhanced mass transport efficiency and cellular infiltration, leading to superior bone tissue ingrowth and vascularization compared to both non-channeled scaffolds and those with non-interconnected channels fabricated by coaxial 3D printing. This work establishes the following advances: integration of macropores with fully interconnected channel networks in bioceramic scaffolds using extrusion-based additive manufacturing, and demonstration of enhanced vascularized osteogenesis through optimized structural design. The findings provide insights into the rational design of advanced bioceramic scaffolds for functional bone regeneration.
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