去细胞化
组织工程
脚手架
生物医学工程
间充质干细胞
诱导多能干细胞
材料科学
干细胞
细胞生物学
化学
胚胎干细胞
生物
医学
生物化学
基因
作者
Joshua R. Gershlak,Sarah Hernandez,Gianluca Fontana,Luke R. Perreault,Katrina J. Hansen,Sara A. Larson,Bernard Y.K. Binder,David Dolivo,Tianhong Yang,Tanja Dominko,Marsha W. Rolle,Pamela J. Weathers,Fabricio Medina‐Bolivar,Carole L. Cramer,William L. Murphy,Glenn R. Gaudette
出处
期刊:Biomaterials
[Elsevier]
日期:2017-05-01
卷期号:125: 13-22
被引量:295
标识
DOI:10.1016/j.biomaterials.2017.02.011
摘要
Despite significant advances in the fabrication of bioengineered scaffolds for tissue engineering, delivery of nutrients in complex engineered human tissues remains a challenge. By taking advantage of the similarities in the vascular structure of plant and animal tissues, we developed decellularized plant tissue as a prevascularized scaffold for tissue engineering applications. Perfusion-based decellularization was modified for different plant species, providing different geometries of scaffolding. After decellularization, plant scaffolds remained patent and able to transport microparticles. Plant scaffolds were recellularized with human endothelial cells that colonized the inner surfaces of plant vasculature. Human mesenchymal stem cells and human pluripotent stem cell derived cardiomyocytes adhered to the outer surfaces of plant scaffolds. Cardiomyocytes demonstrated contractile function and calcium handling capabilities over the course of 21 days. These data demonstrate the potential of decellularized plants as scaffolds for tissue engineering, which could ultimately provide a cost-efficient, “green” technology for regenerating large volume vascularized tissue mass.
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