利用各向异性细胞片构建具有设计细胞取向的基于细胞片的三维组织

Hironobu Takahashi, Tatsuya Shimizu, Masamichi Nakayama, M. Yamato, T. Okano
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引用次数: 0

摘要

在这项研究中,基于细胞片的技术能够控制三维工程组织结构中的细胞取向。使用微图案热响应表面,将成纤维细胞和成肌细胞等人类细胞排列在表面,并通过降低培养温度至20℃作为单个细胞片进行操作。因此,它们的各向异性细胞片可以使用明胶凝胶分层,以产生具有所需各向异性的3D组织结构。例如,垂直分层的两个成纤维细胞片显示出设计的三维不同的细胞取向。通过诱导形成各向异性细胞片的成肌细胞分化为肌管,可以形成具有单一取向的肌管结构。由于各向异性细胞片和细胞片操作技术的结合使用使我们能够创建需要对其各向异性进行三维控制的复杂组织,我们相信它有潜力成为下一代组织工程技术之一。
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Construction of cell sheet-based 3D tissues with designed cell orientation using anisotropic cell sheets
In this study, the cell sheet-based technology was able to control cell orientation in 3D engineered tissue construct. Using a micropatterned thermoresponsive surface, human cells such as fibroblasts and myoblasts were aligned on the surface, and manipulated as a single cell sheet by reducing the culture temperature to 20°C. Consequently, their anisotropic cell sheets can be layered using gelatin gel to produce 3D tissue constructs with the desired anisotropy. For example, two fibroblast sheets layered perpendicularly showed three-dimensionally different cell orientation as designed. By induce differentiation of myoblasts forming an anisotropic cell sheet into myotubes, a myotube construct with a single orientation was possible to be created. Since the combined use of the anisotropic cell sheet and cell sheet manipulation technique allows us to create complex tissue that requires the three-dimensional control of their anisotropies, we believe that it has a potential to be one of the next-generation tissue engineering technology.
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