Pneumatically Assisted Automatic Spinning Yarn Piecing Robot With Tension Control Method

ABSTRACT Ring spinning is a critical process in yarn manufacturing, during which yarn breakage frequently occurs in actual production. To achieve yarn piecing after breakage, an automatic spinning yarn piecing robot which can complete the piecing operation precisely within 30 s is proposed. This article innovatively employs the asymmetric conical tubes to achieve yarn motion control and utilizes pneumatic differential nozzles for the positioning of the steel traveler. The structural parameters of the above two types of nozzles are optimized by refining the operating conditions. Meanwhile, the tension acting on the yarn is analyzed, and a tension control model is established for the drafting process. An online tuning method for the admittance control parameters based on tension prediction is proposed to achieve precise tension control of the yarn. Finally, a prototype of the robot is developed and the functions of the robot are thoroughly tested. The coordinated actions of the pneumatic nozzles and the robotic arm enable precise yarn leading and threading processes. During the drafting process, the proposed tension control method effectively reduces the tension fluctuations on the yarn. The robot can complete the piecing operation, achieving a success rate of 98% and exhibiting excellent automation and operational stability.

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Publication Details

Journal
Journal of Field Robotics
Published
2025-11-26
DOI
https://doi.org/10.1002/rob.70118
Primary Topic
Textile materials and evaluations
Type
article
Field-Weighted Citation Impact
0.00
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article

Pneumatically Assisted Automatic Spinning Yarn Piecing Robot With Tension Control Method

Tianbo Liu, Qitao Huang, Tianyi Wang, Hongguang Xu et al.
Journal of Field Robotics
Textile materials and evaluations
article

Pneumatically Assisted Automatic Spinning Yarn Piecing Robot With Tension Control Method

Tianbo Liu, Qitao Huang, Tianyi Wang, Hongguang Xu, Yu-Liang Yan
article en

Abstract

ABSTRACT Ring spinning is a critical process in yarn manufacturing, during which yarn breakage frequently occurs in actual production. To achieve yarn piecing after breakage, an automatic spinning yarn piecing robot which can complete the piecing operation precisely within 30 s is proposed. This article innovatively employs the asymmetric conical tubes to achieve yarn motion control and utilizes pneumatic differential nozzles for the positioning of the steel traveler. The structural parameters of the above two types of nozzles are optimized by refining the operating conditions. Meanwhile, the tension acting on the yarn is analyzed, and a tension control model is established for the drafting process. An online tuning method for the admittance control parameters based on tension prediction is proposed to achieve precise tension control of the yarn. Finally, a prototype of the robot is developed and the functions of the robot are thoroughly tested. The coordinated actions of the pneumatic nozzles and the robotic arm enable precise yarn leading and threading processes. During the drafting process, the proposed tension control method effectively reduces the tension fluctuations on the yarn. The robot can complete the piecing operation, achieving a success rate of 98% and exhibiting excellent automation and operational stability.

Journal of Field Robotics
Harbin Institute of Technology (CN)
Openalex Percentile: Top 67%
Textile materials and evaluations
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