Magnetic Manipulation of a Magnetotactic Bacteria-based Biomicrorobot

Yiming Ji, Junjie Xu, Luyao Wang, Wei Zhang, Lin Feng
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Abstract

Microrobots has the potential to be remotely manipulated in complex biological fluids and organ tissues. Magnetotactic bacteria are seen as a possible avenue for targeted therapies because of their magnetic and motile abilities. In this study, an electromagnetic coil control system was built, which contains three sets of coils, a data acquisition card, a driver board, and a power supply. It generates a uniform magnetic field of 7 mT at the center of the system with up to 98% magnetic field uniformity in the central operating area. The magnetizing bacteria used are about 3-5um in length and move at a speed of about 23. 73um/s. Since the bacteria themselves have a magnetic moment, the magnetic field generated by the regulated current can apply a steering moment to the magnetizing bacteria to achieve directional guidance. The motion of the complex path of magnetotactic bacteria can be achieved by controlling the program. This provides a new pathway for targeted therapy and targeted drug delivery for diseases.
一种基于趋磁细菌的生物微型机器人的磁操纵
微型机器人有可能在复杂的生物流体和器官组织中被远程操纵。趋磁细菌由于其磁性和运动性,被视为一种可能的靶向治疗途径。本研究搭建了一个电磁线圈控制系统,该系统由三组线圈、数据采集卡、驱动板和电源组成。在系统中心产生7 mT的均匀磁场,在中心操作区域磁场均匀性可达98%。所用的磁化细菌长度约为3-5um,移动速度约为23。73 / s。由于细菌本身具有磁矩,调节电流产生的磁场可以对磁化细菌施加转向力矩,实现定向引导。通过对程序的控制,可以实现趋磁细菌复杂路径的运动。这为疾病的靶向治疗和靶向给药提供了新的途径。
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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