Development of biocompatible magnetic microrobot transporter using 3D laser lithography

Junyang Li, Weicheng Ma, Fuzhou Niu, Y. Chow, Shuxun Chen, Bo Ouyang, H. Ji, Jie Yang, Dong Sun
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引用次数: 3

Abstract

This paper presents the design and fabrication of a magnetic microrobot transcporter with porous spherical structure produced by 3D laser lithography. The microrobots are coated with nickel (Ni) and titanium (Ti) for magnetic actuation and biocompatibility, respectively. A series of characterization experiments is conducted to show that Ni coating enables the microrobot to possess ideal ferromagnetic properties. Cell viability experiments are also performed to demonstrate that the Ti-coated microrobot exhibit excellent biocompatibility. A micro probe operation platform is further designed to detach the fabricated microrobots from the glass surface. The developed microrobot can be controlled to track complex trajectories automatically, driven by a home-made electromagnetic manipulation system. Experimental results show that the developed magnetic microrobots can be precisely controlled in all directions by changing the induced current loaded to each electromagnetic coil. Such porous spherical microrobot can be used to transport target cells to the desired regions with better tissue fusion and vascularization.
利用三维激光光刻技术研制生物相容性磁性微型机器人传输体
介绍了一种基于三维激光光刻技术的多孔球形磁性微机器人的设计与制造。微型机器人分别涂有镍(Ni)和钛(Ti),用于磁驱动和生物相容性。一系列表征实验表明,Ni涂层使微机器人具有理想的铁磁性能。细胞活力实验也证明了钛包覆的微型机器人具有良好的生物相容性。进一步设计了微探针操作平台,实现了微机器人与玻璃表面的分离。该微型机器人由自制的电磁操纵系统驱动,可以自动控制跟踪复杂的运动轨迹。实验结果表明,通过改变加载到每个电磁线圈上的感应电流,所研制的磁性微型机器人可以在各个方向上进行精确控制。这种多孔球形微型机器人可以将靶细胞运送到所需的区域,并具有更好的组织融合和血管化。
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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