自愈水凝胶
挤压
材料科学
纳米技术
悬挂(拓扑)
沉积(地质)
组织工程
3D打印
3d打印
微粒
粒子(生态学)
化学工程
复合材料
生物医学工程
高分子化学
工程类
纯数学
古生物学
沉积物
地质学
海洋学
生物
医学
数学
同伦
作者
Vasileios D. Trikalitis,Julia Perea Paizal,Vincent R. Rangel,Fabian Stein,Jeroen Rouwkema
出处
期刊:Tissue Engineering Part C-methods
[Mary Ann Liebert, Inc.]
日期:2024-04-03
卷期号:30 (5): 206-216
被引量:2
标识
DOI:10.1089/ten.tec.2024.0015
摘要
Bioprinting within support media has emerged as the superior alternative to conventional extrusion printing. Not only because it allows for more freedom over the shapes that can be printed but also because it allows for the printing of inks that would not retain shape fidelity in freeform deposition such as watery liquids. Apart from functioning as mechanical support during embedded printing, hydrogel microparticle support media can provide the unique advantage of offering distinct chemotactic cues to cells printed in the baths by varying the composition of the hydrogel microparticles. There is great potential in compartmentalized granular baths consisting of different hydrogel particle materials in the field of tissue engineering, as these allow for the local inclusion of properties or cues to guide tissue development. In this work, we present a method to create compartmentalized embedding baths by printing multiple granular hydrogel materials that are widely used in tissue engineering. After adapting the volume fraction (φ
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