Determining the arm's motion angle using inverse kinematics models and adaptive neuro-fuzzy interface system

E. Palupi, R. Umam, R. Junaidi, Y. S. Perkasa, W. S. M. Sanjaya
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引用次数: 2

Abstract

Robotics technology is known as a great technology demand to be developed continuesly. One of the important things that need to be considered is the control of the motion of the robot. Movement predictions can be modeled in mathematical equations. Prediction based on learning logic is also very supportive of motion control systems, especially arm motion. In this study, the authors combined the two methods as the main study. The working principle of the arm is to take colored objects detected by the camera. In this study, we made arm four DOFs (Degree of Freedom), but only one DOF is controlled by ANFIS because the other three DOFs only move at two fixed angles. Two methods of determining the arm angle of motion used are inverse kinematics and ANFIS methods. The angle of motion and the position of the red object can be observed in real-time on the monitor with the interface in the MATLAB GUI. The angular output that appears in the MATLAB GUI is sent to Arduino in the form of characters, then, Arduino translates it into servo motion to the coordinates of the object detected by the camera. The results showed that the ANFIS method was more effective than the inverse kinematics model.
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利用逆运动学模型和自适应神经模糊界面系统确定手臂的运动角度
机器人技术是一项需要不断发展的巨大技术需求。需要考虑的重要问题之一是机器人的运动控制。运动预测可以用数学方程式来模拟。基于学习逻辑的预测也非常支持运动控制系统,特别是手臂运动。在本研究中,作者将这两种方法结合起来作为主要研究。手臂的工作原理是将相机检测到的彩色物体取下。在本研究中,我们为手臂设置了四个自由度,但由于其他三个自由度只以两个固定角度运动,因此只有一个自由度由ANFIS控制。确定手臂运动角的两种方法是逆运动学法和ANFIS法。通过MATLAB图形用户界面,可以在监视器上实时观察到红色物体的运动角度和位置。在MATLAB GUI中出现的角度输出以字符的形式发送给Arduino,然后Arduino将其转换为伺服运动到摄像机检测到的物体的坐标。结果表明,ANFIS方法比反运动学模型更有效。
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