微结构软磁牙人工细菌鞭毛的建模与表征

Zejie Yu, Chaojian Hou, Shuideng Wang, Kun Wang, Donglei Chen, Wenqi Zhang, Zhi Qu, Zhiyong Sun, Bo Song, Chao Zhou, Lixin Dong
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引用次数: 1

摘要

利用人工细菌鞭毛(ABF)制备微结构磁齿,可实现更多的运动模式、更高的精度和更好的可控性。为了实现这些目标,建立了一个更精确的模型,考虑了非圆形横截面特征,而不像以前的研究那样将结构简化为具有圆形横截面的螺旋细丝,从而可以将子结构的影响包括在运动方程中。分析和实验验证了该方法的正确性。除了几何效应外,我们的实验观察还发现在ABF中出现了异常的阶跃频率。这种异步运动是由于磁带的几何形状和软磁材料导致磁化相对于外部旋转磁场的滞后,这与单纯由低雷诺数流体引起的常规异步运动不同。虽然磁化滞后可以进一步归因于所采用的软磁材料,但安排易轴的可行性将使许多新的可能性成为可能,这对于产生更多的模式特别感兴趣,例如具有相同标称总体尺寸的abf级联步进,以及使用步进运动进行更精确的定位。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Modeling and Characterization of Artificial Bacteria Flagella with Micro-structured Soft-magnetic Teeth
Sub-structures such as micro-structured magnetic teeth fabricated with an artificial bacteria flagellum (ABF) are designed for achieving more motion modes, higher precision, and better controllability. To achieve these, a more precise model considering the non-circular cross-sectional features is setup without simplifying the structure as a helical filament with a circular cross-section as having been used in previous investigations, making it possible to include the effects of the substructures into the motion equation. Analyses and experiments verified the correctness. Besides of the geometric effects, our experimental observation also shows an anomalous step-out frequency appeared in an ABF. This asynchronous motion is attributed to the lag of magnetization with respect to the external rotating magnetic field due to the geometries and the soft-magnetic materials of the ribbons, which is different from the regular asynchronous motion solely caused by low Reynolds number of fluid to microscopic swimmers. While the lag of magnetization can be further attributed initiatively to the soft magnetic materials adopted, the feasibility to arrange the easy axis will enable many new possibilities, which is of particular interest in generating more modes for swarms such as cascade stepping out of ABFs with the same nominal overall sizes and for more precise positioning using stepping motion.
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