Position control of middle load point of 2-DOF resonant system

Kohei Torikai, S. Katsura
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Abstract

Advanced robotic systems have been developed to realize robot society, a mechanism and a control theory of these systems have been researched for a long time. Due to the advantages of low cost and safety, these systems with flexible mechanism are required in the future. However, the fast response of such a system which is regarded as a resonant system induces a vibration caused by mechanical resonances. Therefore, motion control theories for resonant systems have been extensively researched to improve motion response, most of these control theories are directed to the state of tip mass. This paper focuses on control theory for the position of arbitrary mass of multi-mass resonant model, proposes position control of 2-DOF resonant system. In this paper, a 2-DOF resonant system is modeled as a superposition of two-mass resonant models. The controller design is based on an assumptions; two actuators independently act on the state of middle mass, which is regarded as load. Therefore, the position control of middle mass of a 2-DOF resonant system is realized. Simulations and experiments verify the effectiveness of the proposed control theory.
二自由度谐振系统中负载点的位置控制
为了实现机器人社会,人们开发了先进的机器人系统,对这些系统的机理和控制理论进行了长期的研究。由于低成本和安全的优点,这些具有灵活机构的系统是未来的需求。然而,这种被视为共振系统的系统的快速响应引起了由机械共振引起的振动。因此,人们对共振系统的运动控制理论进行了广泛的研究,以改善运动响应,这些控制理论大多针对尖端质量状态。本文研究了多质量共振模型中任意质量位置的控制理论,提出了二自由度共振系统的位置控制方法。本文将二自由度共振系统建模为双质量共振模型的叠加。控制器的设计是基于一个假设;两个作动器分别作用于中间质量的状态,中间质量被视为负载。从而实现了二自由度谐振系统中质量的位置控制。仿真和实验验证了所提控制理论的有效性。
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