Prototyping and Characterization of Gripper Technologies for Stiff Fabric Material

This study explores robotic gripper technologies to automate the handling of rigid, porous, and fibrous polymer fabric pads, used in automotive acoustic applications. Currently handled manually, these materials present challenges due to their rough texture and structural rigidity. Various grippers were designed and tested, including vacuum suction, high-airflow systems, Bernoulli ejectors, needle penetration, Velcro, adhesives, cryogenics, mechanical friction, and electro-adhesion. The grip strength in the normal and shear directions was evaluated using a custom measurement system and an industrial robot to simulate detachment. Key metrics included maximum grip force and material integrity after testing. The comparative results highlight the trade-offs between grip security and potential material damage across different technologies. This comprehensive evaluation provides engineers and system designers valuable insights for selecting and optimizing gripper systems tailored to non-woven polymer fabric materials. The findings contribute to advancing automated handling solutions, promoting efficiency, consistency, and reduced manual labor in manufacturing environments.

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Publication Details

Journal
IEEE Access
Published
2025-01-01
DOI
https://doi.org/10.1109/access.2025.3580351
Primary Topic
Advanced Manufacturing and Logistics Optimization
Type
article
Field-Weighted Citation Impact
0.00

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article

Prototyping and Characterization of Gripper Technologies for Stiff Fabric Material

Paulo Jorge Coelho, Carlos Neves, Vivek Kumar, Mihail Fontul
IEEE Access
Advanced Manufacturing and Logistics Optimization
article

Prototyping and Characterization of Gripper Technologies for Stiff Fabric Material

Paulo Jorge Coelho, Carlos Neves, Vivek Kumar, Mihail Fontul
article en

Abstract

This study explores robotic gripper technologies to automate the handling of rigid, porous, and fibrous polymer fabric pads, used in automotive acoustic applications. Currently handled manually, these materials present challenges due to their rough texture and structural rigidity. Various grippers were designed and tested, including vacuum suction, high-airflow systems, Bernoulli ejectors, needle penetration, Velcro, adhesives, cryogenics, mechanical friction, and electro-adhesion. The grip strength in the normal and shear directions was evaluated using a custom measurement system and an industrial robot to simulate detachment. Key metrics included maximum grip force and material integrity after testing. The comparative results highlight the trade-offs between grip security and potential material damage across different technologies. This comprehensive evaluation provides engineers and system designers valuable insights for selecting and optimizing gripper systems tailored to non-woven polymer fabric materials. The findings contribute to advancing automated handling solutions, promoting efficiency, consistency, and reduced manual labor in manufacturing environments.

IEEE AccessVol. 13
Instituto Politécnico de Leiria (PT), X-Fab (Germany) (DE), Institute for Systems Engineering and Computers (PT)
Fundação para a Ciência e a Tecnologia
Openalex Percentile: Top 81%
Advanced Manufacturing and Logistics Optimization
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