GarmentFolding:Learning Efficient Garment Folding Based on Lift&Drag Dynamic Action

In robotic arm manipulation, folding clothes is highly challenging due to the garments' inherent infinite degrees of freedom. Our designed system can unfold garments from any configuration and automatically center them in the workspace during folding, thereby minimizing constraints on the robotic arm's motion range. High-quality garment unfolding significantly enhances folding efficiency. Therefore, this study introduces a novel action strategy, “Lift&Drag,” which involves high-speed dynamic actions to adjust garments from any state to a prede-fined configuration, ensuring superior unfolding. To bridge the simulation-reality gap and improve fabric keypoint detection ac-curacy, we collected extensive real-world fabric images, creating a dataset of approximately 2,000 images. This dataset notably enhances the performance of fabric folding keypoint detection. Experimental results show that the method reliably performs in real-world settings, achieving 91.3 % unfolding coverage and a 92.8 % folding success rate, particularly with heavily wrinkled t-shirts.

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Publication Details

Published
2024-10-25
DOI
https://doi.org/10.1109/ispce-asia64773.2024.10756222
Primary Topic
Architecture and Computational Design
Type
article
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article

GarmentFolding:Learning Efficient Garment Folding Based on Lift&Drag Dynamic Action

Ruhan He, Jie Lu, Lianqing Yu
Architecture and Computational Design
article

GarmentFolding:Learning Efficient Garment Folding Based on Lift&Drag Dynamic Action

Ruhan He, Jie Lu, Lianqing Yu
article en

Abstract

In robotic arm manipulation, folding clothes is highly challenging due to the garments' inherent infinite degrees of freedom. Our designed system can unfold garments from any configuration and automatically center them in the workspace during folding, thereby minimizing constraints on the robotic arm's motion range. High-quality garment unfolding significantly enhances folding efficiency. Therefore, this study introduces a novel action strategy, “Lift&Drag,” which involves high-speed dynamic actions to adjust garments from any state to a prede-fined configuration, ensuring superior unfolding. To bridge the simulation-reality gap and improve fabric keypoint detection ac-curacy, we collected extensive real-world fabric images, creating a dataset of approximately 2,000 images. This dataset notably enhances the performance of fabric folding keypoint detection. Experimental results show that the method reliably performs in real-world settings, achieving 91.3 % unfolding coverage and a 92.8 % folding success rate, particularly with heavily wrinkled t-shirts.

Wuhan Textile University (CN)
Openalex Percentile: Top 76%
Architecture and Computational Design
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