Organoid bioprinting: from cells to functional tissues

Michelle S. Huang, Fotis Christakopoulos, Julien G. Roth, Sarah C. Heilshorn
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Abstract

The biofabrication of complex human tissues to recapitulate organ-specific architecture and function requires a combination of engineering control and intrinsic self-assembly. Organoid bioprinting encompasses additive manufacturing approaches that can impart spatial control over the placement of organoids or organoid-forming cells to fabricate multicellular, 3D structures. In particular, bioprinting can be leveraged to control the spatial positioning of printed cells or tissues while maintaining the architecture and physiology of the constituent building blocks. In this Review, we discuss the emerging integration of bioprinting methods and tissue engineering. As bioprinting conventionally involves the patterning of a ‘material’ ink, we characterize cells and organoids as a living material and discuss how such a living material can be manipulated through biofabrication techniques. We focus on continuous and pick-and-place bioprinting methods in which spheroids, organoids or organoid-forming cells comprise the bioink. Additionally, we discuss organoid support baths into which inks are printed. Finally, we highlight how the combination of bioprinting approaches and organoid technology has the potential to improve engineered tissue models of development and disease. Integrating bioprinting with organoid technology can enhance tissue engineering by improving complexity, reproducibility and scalability. This Review discusses living materials in bioprinting, current organoid bioprinting methods, support baths and future innovations that could advance complex tissue development and applications.

Abstract Image

类器官生物打印:从细胞到功能组织
复杂人体组织的生物制造,以概括器官特异性的结构和功能,需要工程控制和内在的自组装相结合。类器官生物打印包括增材制造方法,可以对类器官或类器官形成细胞的放置进行空间控制,以制造多细胞3D结构。特别是,生物打印可以用来控制打印细胞或组织的空间定位,同时保持组成构件的结构和生理学。在这篇综述中,我们讨论了生物打印方法和组织工程的新兴结合。由于生物打印通常涉及“材料”墨水的图案,我们将细胞和类器官描述为一种活材料,并讨论如何通过生物制造技术操纵这种活材料。我们专注于连续和采摘和放置的生物打印方法,其中球体,类器官或类器官形成细胞包括生物链接。此外,我们还讨论了打印油墨的类器官支撑浴。最后,我们强调了生物打印方法和类器官技术的结合如何有潜力改善发育和疾病的工程组织模型。将生物打印与类器官技术相结合,可以通过提高复杂性、可重复性和可扩展性来增强组织工程。本文讨论了生物打印中的生物材料,目前的类器官生物打印方法,支持浴和未来的创新,可以促进复杂组织的发展和应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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