An Unknown Payload Mass Prediction Method Using Fuzzy Logic Compensation and Pre-Acquired Volume Information

In this article, a fuzzy payload compensation algorithm is proposed. In the context of simulating a machine vision model reconstruction, the target object is regarded as a cylinder to obtain the corresponding geometric size data. The first fuzzy mass prediction system is then used to predict the mass of the target object. During operation, real-time processing and calculation of the robotic arm’s joint motor current data are performed. Based on the mathematical relationship between the identified basic parameter set from the dynamic parameters and the end-effector payload, the second fuzzy compensation system was used to calculate the root mean square error (RMSE) of the predicted versus collected current data of the 6-th joint motor, thereby predicting and compensating for the payload mass. The final prediction is generated upon completion of the operation. The overall experiment is conducted on the HSR-CR607 robot. The experimental results indicated that the proposed prediction algorithm consistently operates within the acceptable error range (15%) in most test cases.

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Publication Details

Journal
Machines
Published
2026-06-18
DOI
https://doi.org/10.3390/machines14060700
Primary Topic
Robotic Mechanisms and Dynamics
Type
article
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article

An Unknown Payload Mass Prediction Method Using Fuzzy Logic Compensation and Pre-Acquired Volume Information

Guohuai Lin, Xinze Hu, Haoyi Wu, Xin Chen et al.
Machines
Robotic Mechanisms and Dynamics
article

An Unknown Payload Mass Prediction Method Using Fuzzy Logic Compensation and Pre-Acquired Volume Information

Guohuai Lin, Xinze Hu, Haoyi Wu, Xin Chen, Chunlin Pang, Xun Chen
article en

Abstract

In this article, a fuzzy payload compensation algorithm is proposed. In the context of simulating a machine vision model reconstruction, the target object is regarded as a cylinder to obtain the corresponding geometric size data. The first fuzzy mass prediction system is then used to predict the mass of the target object. During operation, real-time processing and calculation of the robotic arm’s joint motor current data are performed. Based on the mathematical relationship between the identified basic parameter set from the dynamic parameters and the end-effector payload, the second fuzzy compensation system was used to calculate the root mean square error (RMSE) of the predicted versus collected current data of the 6-th joint motor, thereby predicting and compensating for the payload mass. The final prediction is generated upon completion of the operation. The overall experiment is conducted on the HSR-CR607 robot. The experimental results indicated that the proposed prediction algorithm consistently operates within the acceptable error range (15%) in most test cases.

MachinesVol. 14(6)
Guangdong University of Technology (CN)
Openalex Percentile: Top 7%
Robotic Mechanisms and Dynamics
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