Realization of a Soft Microrobot with Multiple Flexible Flagella

Youssef Hamed, M. Tawakol, Loaa El Zahar, A. Klingner, Slim Abdennadher, I. Khalil
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引用次数: 3

Abstract

Ahstract- This work presents an approach to realize soft microrobots with multiple flexible flagella using beaded-fibers driven via a periodic magnetic field. Paramagnetic iron oxide particles are embedded into the polymer matrix of electrospun beaded-fibers and form magnetism upon applying an external magnetic field. We demonstrate that the induced magnetization by an external magnetic field enables self-assembly of multiple adjacent beaded-fibers to form a microrobot with multiple flexible flagella. Frequency response of the assembled microrobot and the individual beaded-fibers is characterized experimentally, and shows that the propulsive force imparted to the fluid by the multiple flexible flagella increases the actuation frequency range of the microrobot and enhances its swimming speed. At relatively high actuation frequency (20 Hz), the average speed of the individual beaded-fiber is 0.11 body-Iength-per-second, whereas the microrobot with multiple flagella swims at an average speed of 0.30 body-Iength-per-second. We also observe a slight difference in the swimming speed between the microrobot with multiple flexible flagella and its constituent beaded-fibers at relatively low actuation frequencies.
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具有多个柔性鞭毛的柔性微型机器人的实现
摘要:本文提出了一种利用周期性磁场驱动的串珠纤维实现具有多个柔性鞭毛的柔性微型机器人的方法。顺磁性氧化铁颗粒嵌入到电纺珠状纤维的聚合物基体中,在外加磁场作用下形成磁性。我们证明了外部磁场的诱导磁化可以使多个相邻的珠状纤维自组装形成具有多个柔性鞭毛的微型机器人。实验表征了装配后的微型机器人和单个纤维珠状纤维的频率响应,结果表明,多个柔性鞭毛对流体的推进力增大了微型机器人的驱动频率范围,提高了其游动速度。在相对较高的驱动频率(20赫兹)下,单个珠状纤维的平均速度为0.11体长/秒,而具有多个鞭毛的微型机器人的平均速度为0.30体长/秒。我们还观察到,在相对较低的驱动频率下,具有多个柔性鞭毛的微型机器人与其组成的珠状纤维之间的游泳速度略有不同。
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