Recent advances in 3D printing sacrificial templates for fabricating engineered vasculature

Shuai Li, Hangyu Li, Xiushuai Shang, Jiayan He, Yihe Hu
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Abstract

Fabricating engineered vasculature within biological scaffolds is one of the most common strategies to maintain high cell viability before implantation. Many studies have been conducted from the aspects of the manufacturing process, materials science, and cell biology to fabricate engineered vasculature with the aim of enhancing the integration between scaffold and host. Among them, the method of combining three-dimensional (3D) printing and sacrifice-based technique has attracted extensive attention. Taking advantage of 3D printing, the method of separating the printed sacrificial template from the biological scaffold to form a 3D channel has become a widely used approach to advance the engineered vasculature. With the development of 3D printing techniques and material science, numerous sacrificial materials have shown their potential in fabricating engineered vasculature. However, several issues remain in this multimethod design, including, but not limited to, the printing process, removal method of sacrificial material, and cell seeding method. This review aims to summarize recent strategies for 3D printing sacrificial templates for fabricating engineered vasculature. The pros and cons of sacrificial materials used in these studies are analyzed. Future perspectives are proposed to fabricate biomimetic-engineered vasculature. Flexible fabrication processes and materials should be advanced to support the 3D printing of sacrificial templates.

Abstract Image

3D打印用于制造工程血管系统的牺牲模板的最新进展
在生物支架内构建工程血管系统是在植入前保持高细胞活力的最常见策略之一。从制造工艺、材料科学和细胞生物学方面进行了许多研究,以制造工程血管系统,目的是增强支架和宿主之间的整合。其中,将三维(3D)打印与基于牺牲的技术相结合的方法引起了广泛关注。利用3D打印,将打印的牺牲模板与生物支架分离以形成3D通道的方法已成为推进工程血管系统的广泛使用的方法。随着3D打印技术和材料科学的发展,许多牺牲材料在制造工程血管系统方面显示出了其潜力。然而,在这种多方法设计中仍然存在一些问题,包括但不限于印刷工艺、牺牲材料的去除方法和细胞接种方法。这篇综述旨在总结用于制造工程血管系统的3D打印牺牲模板的最新策略。分析了这些研究中使用的牺牲材料的优缺点。提出了构建仿生工程血管系统的未来前景。应先进灵活的制造工艺和材料,以支持牺牲模板的3D打印。
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