Design of a wireless hybrid in-pipe microrobot with 3 DOFs

T. Okada, Shuxiang Guo, Y. Yamauchi
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引用次数: 10

Abstract

In recent years, microrobot in medical and industrial fields is developed. In this paper, we developed a wireless in-pipe microrobot with 3 DOFs to implement the locomotion and mechanism of the microrobot in small area such as organ of digestion or small plumbing for medical and industrial applications. Firstly, we developed a novel type hybrid in-pipe microrobot which could swim wirelessly in the liquid by using outside magnetic field. We proposed a hybrid motion composed of spiral motion and fin motion to take advantage of strong point each motion. Secondly, we proposed the 3D magnetic field system to enable multi DOFs locomotion to the microrobot. Therefore, we developed 3 axes helmholtz coil system to implement stability and multi directivity of the magnetic field. Based on the experimental results, we also confirmed the same amount of regular magnetic field even 3 axes coil. Thirdly, we evaluated the mechanism of this microrobot to realize its characteristics. In spiral motion, we evaluated the relationship between limit of rotating speed and operating voltage based on equation of rotating motion. In fin motion, we evaluated the resonance frequency of the fin to confirm the characteristic of frequency. Fourthly, we evaluated swimming speeds for spiral motion, fin motion, and hybrid motion in a pipe filled with water. The results indicated when the microrobot drove at low frequencies in horizontal direction, the fin motion was superior to the spiral motion and when the microrobot drove at high frequencies in the horizontal direction, the spiral motion was superior to the fin motion. Also, we confirmed this hybrid microrobot can move even vertical direction. We need more research to realize the microrobot flourishing medical and industrial fields.
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三自由度无线混合式管道微型机器人的设计
近年来,微型机器人在医疗和工业领域得到了发展。本文研制了一种3自由度的无线管道内微型机器人,实现了微型机器人在消化器官或小型管道等小区域的运动和机构设计,用于医疗和工业应用。首先,我们研制了一种新型混合式管道内微型机器人,它可以利用外部磁场在液体中无线游动。我们提出了一种由螺旋运动和鳍状运动组成的混合运动,以利用每个运动的长处。其次,提出了三维磁场系统,实现了微型机器人的多自由度运动。因此,我们开发了三轴亥姆霍兹线圈系统来实现磁场的稳定性和多指向性。在实验结果的基础上,我们也证实了同样数量的规则磁场甚至3轴线圈。再次,我们对该微型机器人的机构进行了评估,以了解其特点。在螺旋运动中,我们根据旋转运动方程,评估了转速极限与工作电压的关系。在翅片运动中,我们对翅片的共振频率进行了评估,以确定频率的特性。第四,我们评估了在充满水的管道中螺旋运动、鳍状运动和混合运动的游泳速度。结果表明:在低频率水平方向上,微机器人的鳍运动优于螺旋运动;在高频率水平方向上,微机器人的螺旋运动优于鳍运动。同时,我们证实了这种混合微型机器人甚至可以在垂直方向上移动。要实现微型机器人在医疗和工业领域的蓬勃发展,还需要更多的研究。
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