外磁场定向自动驾驶三足爬行胶囊机器人原型

A. Mousa, Lin Feng, Yuguo Dai, Oksana Tovmachenko
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引用次数: 7

摘要

本文提出了一种新型的内窥镜胶囊机器人控制方法,将两个创新的控制系统相结合,为胶囊机器人提供运动和方向控制,通过在爬行循环中使用三个对称的磁性腿,胶囊将能够通过消化系统的方式行进,而不是传统的依赖消化运动和速度的旅程。原型机采用了一种创新的开关机制,将驱动电机的数量减少到一个电机,并降低了设计的复杂性,无需任何齿轮系统,胶囊腿能够扩展到200%,这将有助于在执行诸如捕捉急需的清晰镜头等任务时将胶囊固定在适当的位置。传统的内镜胶囊在胃肠道中不断运动,会对获取的镜头质量产生负面影响,与此相反,测试的原型实现了每10.2秒24毫米的平移周期,相当于每分钟141毫米。胶囊集成了一个磁控制系统来重新定位胶囊,该系统通过在胶囊机器人内部实施钕磁铁来工作,使其容易受到预先产生的外部磁场的影响,利用四个外部磁铁和一个内部磁铁设计了一个磁性模型,两组磁铁之间的距离超过10厘米。由于驱动磁体,内部磁体表面的应力已经达到35千帕斯卡的量级,这对于重新定向胶囊非常有效。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Self-Driving 3-legged Crawling Prototype Capsule Robot with Orientation Controlled by External Magnetic Field
this paper presents a novel method to control endoscopy capsule robots by combining two innovated control system aiming to provide locomotion and orientation control to the capsule robot, by using three symmetric magnetic legs in a crawling cycle, the capsule will be able to journey its way through the digestive system in opposite to the traditional journey that depends on the digestive movement and speed, a prototype was made with an innovated switching mechanism which reduces the number of driving motors into one motors as well as reducing the complexity of the design removing the need for any gear systems, the capsule legs are able to expand allowing for 200% reach which will help hold the capsule in place while performing a task such as capturing a much needed clear footage, in opposite to traditional endoscopic capsules which the constant motion in the gastrointestinal tract negatively affects the quality of the footage retrieved, the tested prototype have achieved a translation cycle of 24 millimeter every 10.2 seconds which is equal to 141 millimeter per minute. The capsule integrates a magnetic control system to reorient the capsule, the system works by implementing a neodymium magnet inside the capsule robot, making it susceptible to a pre-generated external magnetic field, a magnetic model was designed utilizing four external magnets and an inner magnet, with more than 10 centimeters distance between the two sets of magnets, the stress on the inner magnet surface due to the driving magnets has reached a magnitude of 35 kilo pascals which is very efficient to reorient the capsule.
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