Prototype of 3-DOF Pick and Place Arm Robot

Moayed Almobaied, Ahmed Abu Metair, Bashar M. Thabet
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Abstract

What we are witnessing today in terms of acceleration in manufacturing and production processes in factories would not have taken place without relying on robotic arms to accomplish routine work with better accuracy, fewer errors and a higher speed compared to the human element and because conducting experiments and modifying ready-made robots that operate on production lines and testing new software on them is expensive and not available in many cases, the idea stemmed from here in creating a prototype for a robotic arm that enables developers and researchers to test and develop their own software before adopting it, and this robot was characterized by ease of use and low cost compared to what is in the market with the possibility of controlling it in more than one way, as this research shows the method of designing and manufacturing a robotic arm of the type 3- DOF (3-Revolute joints) used to capture Various parts. Electromagnets of end effect or were used to pick up the pieces. This robotic arm was tested in an integrated environment using the MATLAB - Simulink program under different conditions, the first of which depends on the forward kinematics and the second mode of operation depends on the inverse kinematics, while the third mode was using the two types of Trajectory Planning (LSPB –Conic), Practical experiments of this robotic arm have shown high accuracy in performance, quick response in executing orders, and avoiding falling into Singularities due to setting mechanical and software restrictions for the robot.
三自由度捡放臂机器人原型
我们今天所看到的工厂制造和生产过程的加速,如果没有依靠机械臂来完成日常工作,与人为因素相比,就不会有更高的精度、更少的错误和更高的速度,而且因为在生产线上进行实验和修改现成的机器人以及在它们上测试新软件是昂贵的,而且在许多情况下是不可用的。创建一个原型的想法源于一个机械臂,使测试和开发自己的软件开发人员和研究人员在采用它之前,这个机器人的特点是易用性和低成本相比有什么市场的可能性控制方法不止一种,在此项研究中,设计和制造的方法类型3 -自由度的机械臂(3-Revolute关节)用于获取各个部分。末端效应的电磁铁被用来拾取碎片。采用MATLAB - Simulink程序在综合环境下对该机械臂进行了正运动学、逆运动学、两种轨迹规划(LSPB - conic)两种操作模式下的综合测试。实际实验表明,该机械臂的性能精度高、执行命令速度快、运动速度快、运动速度快、运动速度快。通过对机器人设置机械和软件限制,避免陷入奇点。
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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