材料科学
生物加工
自愈水凝胶
乙二醇
PEG比率
组织工程
降冰片烯
间质细胞
纳米技术
微流控
生物物理学
生物医学工程
化学工程
高分子化学
聚合
聚合物
复合材料
工程类
经济
病理
生物
医学
财务
作者
Nicole E. Friend,Irene W. Zhang,Michael M. Hu,Atticus J. McCoy,Robert N. Kent,Samuel J. DePalma,Brendon M. Baker,Sasha Cai Lesher‐Pérez,Jan P. Stegemann,Andrew J. Putnam
摘要
Establishing a robust, functional microvascular network remains a critical challenge for both the revascularization of damaged or diseased tissues and the development of engineered biological materials. Vascularizing microgels may aid in efforts to develop complex, multiphasic tissues by providing discrete, vascularized tissue modules that can be distributed throughout engineered constructs to vascularize large volumes. Here, we fabricated poly(ethylene glycol)-norbornene (PEGNB) microgels containing endothelial and stromal cells via flow-focusing microfluidic droplet generation. When embedded in bulk fibrin hydrogels, these cell-laden microgels initiated the formation and development of robust microvascular networks. Furthermore, extended preculture of cell-laden PEGNB microgels enabled the formation of vessel-like structures supported by basement membrane within the matrix without aggregation. Our findings highlight the suitability of PEG-based matrices for the development of vascularizing microgels capable of forming well-distributed, robust microvascular networks.
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