Magnetic miniature swimmers with multiple rigid flagella

Johan E. Quispe, S. Régnier
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引用次数: 4

Abstract

In this paper, we introduce novel miniature swimmers with multiple rigid tails based on spherical helices. The tail distribution of these prototypes enhances its swimming features as well as allowing to carry objects with it. The proposed swimmers are actuated by a rotating magnetic field, generating the robot rotation and thus producing a considerable thrust to start self-propelling. These prototypes achieved propulsion speeds up to 6 mm/s at 3.5 Hz for a 6-mm in size prototypes. We study the efficiency of different tail distribution for a 2-tailed swimmer by varying the angular position between both tails. Moreover, it is demonstrated that these swimmers experience great sensibility when changing their tail height. Besides, these swimmers demonstrate to be effective for cargo carrying tasks since they can displace objects up to 3.5 times their weight. Finally, wall effect is studied with multi-tailed swimmer robots considering 2 containers with 20 and 50-mm in width. Results showed speeds’ increments up to 59% when swimmers are actuated in the smaller container.
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具有多个刚性鞭毛的磁性微型游泳者
本文介绍了一种基于球形螺旋的多刚性尾翼微型游泳器。这些原型的尾部分布增强了它的游泳功能,并允许携带物体。这种游泳者是由一个旋转的磁场驱动的,产生机器人旋转,从而产生相当大的推力来开始自我推进。对于尺寸为6毫米的原型机,这些原型机在3.5 Hz下的推进速度可达6毫米/秒。通过改变两尾之间的角度位置,研究了双尾游泳者不同尾部分布的效率。此外,还证明了这些游泳者对尾巴高度的变化具有很强的敏感性。此外,这些游泳者被证明是有效的货物搬运任务,因为他们可以移动高达3.5倍于自己体重的物体。最后,研究了多尾游泳机器人的壁面效应,考虑了宽度为20和50 mm的两个容器。结果表明,当游泳者在较小的容器中被驱动时,速度的增量高达59%。
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