Performance Analysis of OWMR Directional Wheels Robot Arm based on (ANFIS+PID) controller

Zeinab mahmoud Omer, Osman Ibrahim Al-Agha, Aatif osman altahir bakr, K. Bilal
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引用次数: 1

Abstract

The main objective of this study is to design an Adaptive Neuro Fuzzy Inference System (ANFIS) algorithm to solve the problem of finding the inverse kinematics to control the movement of the modified PUMA 560 arm in robotic system.Accuracy and stability are two major issues that face designers when control system design is intended. Tuning the system to coup with the variations and changes in the environment where the system is expected to work. In this paper the mechanical design of modified PUMA 560 robotic arm with 6 DoF was revisited and implemented with new powerful features and the experimental results were tracked. The main problem is the dynamic equations which are nonlinear and time-varying in the extreme. The challenge was how to manipulate these equations in such a way leading to a better performance regarding accuracy and stability of the system. The method used to control the base of robot arm which consists of 3-wheels with 120 degrees apart was designed and implemented. After that accurate trajectory control methods which use Adaptive Neuro Fuzzy Inference System of 3-wheels omni-directional mobile robot were implemented. Thus the design of full new robot system structure was used in the validation and testing the performance of proposed methods. This included modification of the PUMA 560 arm by the addition of an omini-directinal wheeled mobile robot (OWMR) base structure to the robotic arm. This base consisted of three motors for 3-wheels which are positioned 120 degrees apart. The resulting robot was a modified PUMA 560 robotic arm with 6 axes. The results obtained showed a significant improvement in both accuracy and stability of the system proposed. Hence, objectives were met to a great extent.
基于(ANFIS+PID)控制器的OWMR定向轮式机械臂性能分析
本研究的主要目的是设计一种自适应神经模糊推理系统(ANFIS)算法,以解决改进PUMA 560机械臂运动控制的逆运动学问题。精度和稳定性是设计人员在进行控制系统设计时面临的两个主要问题。对系统进行调优,以适应期望系统工作的环境中的变化和变化。本文对改进后的PUMA 560 6自由度机械臂进行了重新设计,实现了具有新的强大功能的机械臂,并对实验结果进行了跟踪。主要问题是动态方程的非线性和时变极值。挑战在于如何以这样一种方式操纵这些方程,从而在系统的准确性和稳定性方面获得更好的性能。设计并实现了由3个相距120度的轮子组成的机械臂基座的控制方法。在此基础上,实现了基于自适应神经模糊推理系统的三轮全向移动机器人精确轨迹控制方法。因此,采用全新的机器人系统结构设计来验证和测试所提出方法的性能。这包括对PUMA 560机械臂的修改,在机械臂上增加了一个全向轮式移动机器人(OWMR)基础结构。这个基础由三个电机组成,三个轮子相隔120度。由此产生的机器人是一个改进的PUMA 560机械臂,具有6轴。结果表明,所提出的系统在精度和稳定性方面都有显著提高。因此,目标在很大程度上得到了满足。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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