Robotic gripper driven by flexible microactuator based on an innovative technique

G. Udupa, Pramod Sreedharan, K. Aditya
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引用次数: 30

Abstract

In the area of Robotics, the gripper plays a very important role as it is required to hold and place the object at the desired location. The requirements of gripper in terms of load capacity, and flexibility to adapt to the form of the object with tactile sensing capability which suit the strength of the object are necessary. Extensive research work is under way in the design of soft gripper or dexterous hand. An exhaustive survey of all such grippers conveys the idea of higher and higher sophistication with innumerable components and elaborate controls with programmable ability has been the outcome of research. Flexible micro actuators (FMA) proposed by earlier researchers are having two or more internal chambers and the internal pressure of each are controlled independently through flexible tubes which are connected to pressure control valves. The proposed actuator has a single internal chamber and is simple, compact and easy to manufacture. In this paper, a flexible microactuator (FMA) driven by a pneumatic/ hydraulic system with single internal chamber has been developed for robotic soft gripper. By proper selection and manufacturing of the asymmetric tube flexible actuator with reinforcement, a versatile dexterous hand can be fabricated which is suited for dynamic application closely approximating to the human hand. The present work has paved the way for extensive research on this innovative technique as it holds out the true potential for innumerable and very interesting application in various areas such as micro robots, pipeline inspection robots, underwater robots and walking robots‥
基于创新技术的柔性微驱动器驱动机器人夹持器
在机器人领域,抓手扮演着非常重要的角色,因为它需要将物体放在所需的位置。夹持器在承载能力、适应物体形态的灵活性等方面的要求,必须具有与物体强度相适应的触觉感知能力。软爪或灵巧手的设计正在进行广泛的研究工作。对所有这类抓取器的详尽调查表明,研究的结果是,具有无数组件和具有可编程能力的精心控制的越来越复杂的想法。早期研究人员提出的柔性微执行器(FMA)具有两个或多个内部腔室,每个腔室的内部压力通过连接压力控制阀的柔性管独立控制。所提出的执行器有一个单一的内部腔室,是简单,紧凑,易于制造。研制了一种单腔气动/液压系统驱动的柔性机械手软夹持器(FMA)。通过合理选择和制造带有增强的非对称管柔性执行机构,可以制造出近似于人手的适合动态应用的多功能灵巧手。目前的工作为对这种创新技术的广泛研究铺平了道路,因为它在微型机器人,管道检查机器人,水下机器人和步行机器人等各个领域的无数非常有趣的应用展现了真正的潜力
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