Development and experiments of a novel multifunctional underwater microrobot

Liwei Shi, Shuxiang Guo, K. Asaka, Shilian Mao
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引用次数: 8

Abstract

Compact structure, multifunction, and flexibility are normally considered as incompatible characteristics for legged microrobots. Most robots focused on complex structure of multi-joint legs to attain the multifunction and flexibility, while others had poor flexibility for miniaturization. In the field of underwater monitoring for applications such as pollution detection and video mapping in limited space, underwater microrobots are urgently demanded. To realize these purposes, we have developed several types of microrobots with both compact structure and flexible locomotion. However, they just realized walking, rotating, swimming, or floating motions. Without biomimetic fingers, they could not do some simple operations, such as grasping and carrying any objects to desired place. So, in this paper, we designed a novel type of biomimetic locomotion employing ionic polymer metal composite (IPMC) actuator as one-DOF leg. Then we proposed a new type of underwater microrobot using ten ionic polymer metal composite (IPMC) actuators as legs or fingers, which could realize walking, rotating, floating, and grasping motions. Also, we developed a prototype of this underwater microrobot and carried out some experiments to evaluate its walking and floating speeds. In addition, we used six IPMC actuators as fingers to grasp some small objects and float up. To realize the closed-loop control for the microrobot, we used three proximity sensors to detect and avoid the obstacle while walking.
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一种新型多功能水下微型机器人的研制与实验
紧凑的结构、多功能和灵活性通常被认为是腿式微型机器人的不相容特征。大多数机器人以多关节腿的复杂结构来实现多功能性和灵活性,而另一些机器人的小型化灵活性较差。在水下监测领域,如污染检测和有限空间的视频测绘等应用,迫切需要水下微型机器人。为了实现这些目的,我们开发了几种结构紧凑、运动灵活的微型机器人。然而,他们只是实现了行走、旋转、游泳或漂浮的运动。没有仿生手指,他们不能做一些简单的操作,比如抓取和携带任何物体到想要的地方。为此,本文设计了一种以离子聚合物金属复合材料(IPMC)作作单自由度腿的新型仿生机器人。在此基础上,提出了一种以10个离子聚合物金属复合材料(IPMC)作动器作为腿或手指的新型水下微型机器人,该机器人可以实现行走、旋转、漂浮和抓取等运动。此外,我们还开发了这个水下微型机器人的原型,并进行了一些实验来评估它的行走和漂浮速度。此外,我们使用六个IPMC致动器作为手指来抓取一些小物体并浮起来。为了实现微型机器人的闭环控制,我们使用了三个接近传感器来检测和避开行走中的障碍物。
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