Robust Controller Design for Robot Joint Motor Modules Based on Dynamical Model

The joint motor module, being a pivotal component of collaborative robots, exerts a direct and substantial influence on the overall performance of the robot. This research endeavors to develop an innovative model-based robust controller aimed at enhancing control accuracy and the dynamic response of joint motor modules. Commencing with the dynamic model of the joint motor modules, we devised the controller and verified its stability through theoretical analysis. A MATLAB simulation of position step response and sinusoidal signal tracking is used to compare how well the new rubber controller, the model-based proportion controller, and the standard PID controller work. The simulations clearly show that the newly designed robust controller is better than others in terms of dynamic response and steady-state error reduction. This makes it a clever way to control joint motor modules with high precision and keep the system stable.

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Publication Details

Journal
IEEE Transactions on Applied Superconductivity
Published
2024-09-20
DOI
https://doi.org/10.1109/tasc.2024.3465448
Citations
1
Primary Topic
Industrial Technology and Control Systems
Type
article
Field-Weighted Citation Impact
0.33
Controls
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article

Robust Controller Design for Robot Joint Motor Modules Based on Dynamical Model

Junhui Cheng, Han Zhao, Xiaofei Chen
1 citations
IEEE Transactions on Applied Superconductivity
Industrial Technology and Control Systems
0.33
article

Robust Controller Design for Robot Joint Motor Modules Based on Dynamical Model

Junhui Cheng, Han Zhao, Xiaofei Chen
article en
1 citations

Abstract

The joint motor module, being a pivotal component of collaborative robots, exerts a direct and substantial influence on the overall performance of the robot. This research endeavors to develop an innovative model-based robust controller aimed at enhancing control accuracy and the dynamic response of joint motor modules. Commencing with the dynamic model of the joint motor modules, we devised the controller and verified its stability through theoretical analysis. A MATLAB simulation of position step response and sinusoidal signal tracking is used to compare how well the new rubber controller, the model-based proportion controller, and the standard PID controller work. The simulations clearly show that the newly designed robust controller is better than others in terms of dynamic response and steady-state error reduction. This makes it a clever way to control joint motor modules with high precision and keep the system stable.

IEEE Transactions on Applied SuperconductivityVol. 34(8)
Hefei University of Technology (CN), West Anhui University (CN)
Affordable and clean energy
Openalex Percentile: Top 42%
Industrial Technology and Control Systems
0.33
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