Uniaxial and Coaxial Vertical Embedded Extrusion Bioprinting

生物加工 3D生物打印 组织工程 材料科学 生物医学工程 挤压 纳米技术 同轴 再生医学 计算机科学 工程类 干细胞 细胞生物学 生物 复合材料
作者
Liming Lian,Chixing Zhou,Guosheng Tang,Maobin Xie,Zixuan Wang,Zeyu Luo,Julia Olga Japo,Di Wang,Jianhua Zhou,Mian Wang,Wanlu Li,Sushila Maharjan,Marina Ruelas,Jie Guo,Xunwei Wu,Yu Shrike Zhang
出处
期刊:Advanced Healthcare Materials [Wiley]
卷期号:11 (9) 被引量:14
标识
DOI:10.1002/adhm.202102411
摘要

The 3D bioprinting technologies have attracted increasing attention due to their flexibility in producing architecturally relevant tissue constructs. Here, a vertical embedded extrusion bioprinting strategy using uniaxial or coaxial nozzles is presented, which allows formation of vertical structures of homogeneous or heterogeneous properties. By adjusting the bioprinting parameters, the characteristics of the bioprinted vertical patterns can be precisely controlled. Using this strategy, two proof-of-concept applications in tissue biofabrication are demonstrated. Specifically, intestinal villi and hair follicles, two liner-shaped tissues in the human body, are successfully generated with the vertical embedded bioprinting method, reconstructing some of their key structures as well as restoring partial functions in vitro. Caco-2 cells in the bioprinted intestinal villus constructs proliferated and aggregated properly, also showing functional biomarker expressions such as ZO-1 and villin. Moreover, preliminary hair follicle structures featuring keratinized human keratinocytes and spheroid-shaped human dermal papilla cells are formed after vertical bioprinting and culturing. In summary, this vertical embedded extrusion bioprinting technique harnessing a uniaxial or coaxial format will likely bring further improvements in the reconstruction of certain human tissues and organs, especially those with a linear structure, potentially leading to wide utilities in tissue engineering, tissue model engineering, and drug discovery.
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