Magnetically-guided manipulation of microfiber for fabrication of porous cell scaffold

Xingfu Li, Qing Shi, Huaping Wang, Tao Sun, Jianing Li, Ning Yu, Qiang Huang, T. Fukuda
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Abstract

As one of the most promising substitutes for regenerative medicine, the pore cell scaffold attracts great attentions in tissue engineering recently. In this study, we apply microfiber to assemble this kind of porous structure based on magnetically-guided manipulation. The microfiber is fabricated by biocompatible and biodegradable alginate solution inside a microfluidic device. To feasibly manipulate the microfiber, homogeneous magnetic nanoparticles are encapsulated into the alginate solution to improve controllability. Simultaneously, an external magnetic force generated by a round permanent magnet is provided to attract the microfibers on a magnetized device composed by pure iron wire arrays and wax. To provide a bionic environment, the magnetized device has been fabricated to allow the generation of optimal pore structure with submillimeter size and high density. As preliminary results, we have achieved to fabricate a one-layer cell scaffold through magnetically-guided micromanipulation.
磁导微纤维制备多孔细胞支架
孔细胞支架作为再生医学最有前途的替代品之一,近年来在组织工程领域受到广泛关注。在这项研究中,我们利用超细纤维来组装这种基于磁引导操作的多孔结构。微流控装置内的海藻酸盐溶液具有生物相容性和可生物降解性。为了切实可行地操纵微纤维,均匀磁性纳米颗粒被封装到海藻酸盐溶液中,以提高可控性。同时,提供由圆形永磁体产生的外磁力来吸引由纯铁丝阵列和蜡组成的磁化装置上的微纤维。为了提供仿生环境,该磁化装置已被制造,以允许产生亚毫米尺寸和高密度的最佳孔隙结构。作为初步结果,我们已经通过磁引导微操作实现了单层细胞支架的制备。
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