Research on collision detection method and response strategy for Delta robots

Purpose The safety performance of Delta robots is particularly important. Hence, this paper aims to improve the existing method to achieve efficient and safe robots. Design/methodology/approach This paper designs a generalized momentum extended state observer method to estimate external torque. Mean...

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Published inIndustrial robot Vol. 52; no. 3; pp. 433 - 441
Main Authors Mei, Jiangping, Ning, Puxuan, Duan, Yunrui, Wei, Tianlin, Su, Xiaochen
Format Journal Article
LanguageEnglish
Published Bedford Emerald Publishing Limited 30.04.2025
Emerald Group Publishing Limited
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Online AccessGet full text
ISSN0143-991X
1758-5791
1758-5791
DOI10.1108/IR-09-2024-0428

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Abstract Purpose The safety performance of Delta robots is particularly important. Hence, this paper aims to improve the existing method to achieve efficient and safe robots. Design/methodology/approach This paper designs a generalized momentum extended state observer method to estimate external torque. Meanwhile, a dynamic threshold method for current torque is designed. In addition, a segmented safety response strategy based on task space position feedforward is introduced. Findings Simulation and experimental results verify the effectiveness of the proposed method. Originality/value This paper designs a dynamic threshold collision detection method that does not require external sensors. Compared with static threshold collision detection methods, this method can avoid false alarm problems. This paper also proposes a segmented safety response strategy, which can improve the efficiency and safety of Delta robots.
AbstractList Purpose The safety performance of Delta robots is particularly important. Hence, this paper aims to improve the existing method to achieve efficient and safe robots. Design/methodology/approach This paper designs a generalized momentum extended state observer method to estimate external torque. Meanwhile, a dynamic threshold method for current torque is designed. In addition, a segmented safety response strategy based on task space position feedforward is introduced. Findings Simulation and experimental results verify the effectiveness of the proposed method. Originality/value This paper designs a dynamic threshold collision detection method that does not require external sensors. Compared with static threshold collision detection methods, this method can avoid false alarm problems. This paper also proposes a segmented safety response strategy, which can improve the efficiency and safety of Delta robots.
Purpose The safety performance of Delta robots is particularly important. Hence, this paper aims to improve the existing method to achieve efficient and safe robots. Design/methodology/approach This paper designs a generalized momentum extended state observer method to estimate external torque. Meanwhile, a dynamic threshold method for current torque is designed. In addition, a segmented safety response strategy based on task space position feedforward is introduced. Findings Simulation and experimental results verify the effectiveness of the proposed method. Originality/value This paper designs a dynamic threshold collision detection method that does not require external sensors. Compared with static threshold collision detection methods, this method can avoid false alarm problems. This paper also proposes a segmented safety response strategy, which can improve the efficiency and safety of Delta robots.
Author Su, Xiaochen
Ning, Puxuan
Wei, Tianlin
Mei, Jiangping
Duan, Yunrui
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Collision detection
Man−machine safety
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Purpose The safety performance of Delta robots is particularly important. Hence, this paper aims to improve the existing method to achieve efficient and safe...
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SubjectTerms Design
False alarms
Friction
Machine learning
Neural networks
Robot learning
Robots
State observers
Task space
Torque
Title Research on collision detection method and response strategy for Delta robots
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