Model Predictive Control Design of a 3-DOF Robot Arm Based on Recognition of Spatial Coordinates
Zhangxi Zhou, Yuyao Zhang, Yezhang Li

TL;DR
This paper presents a model predictive control approach for a 3-DOF robotic arm that uses visual recognition to accurately reach and grasp objects by calculating optimal servo torques.
Contribution
It integrates visual recognition with MPC for precise robotic arm control, including coordinate transformation and dynamic modeling.
Findings
Successful implementation of MPC for 3-DOF arm control
Accurate object recognition and coordinate calculation
Optimized servo input torques for precise grasping
Abstract
This paper uses Model Predictive Control (MPC) to optimise the input torques of a Three-Degrees-of-Freedom (DOF) robotic arm, enabling it to operate to the target position and grasp the object accurately. A monocular camera is firstly used to recognise the colour and depth of the object. Then, the inverse kinematics calculation and the spatial coordinates of the object through coordinate transformation are combined to get the required rotating angle of each servo. Finally, the dynamic model of the robotic arm structure is derived and the model predictive control is applied to simulate the optimal input torques of servos to minimize the cost function.
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Taxonomy
TopicsRobotic Mechanisms and Dynamics · Advanced Control Systems Optimization
