Adaptive, Rapid, and Stable Trident Robotic Gripper: A Bistable Tensegrity Structure Implementation

Grasping and manipulating objects represents crucial functionalities for modern robotic grippers. Nonetheless, an enduring challenge persists in engineering a gripper capable of achieving adaptive, rapid, and stable grasping behavior simultaneously. Here, we proposed a bistable mechanism derived from compliant tensegrity structures that performs a rapid shape change within 200 ms, based on which a Trident robotic gripper is developed without the need for additional actuation sources. This universal and unactuated paradigm showcases robust grasping abilities with adaptability and rapidity analogous to natural flytrap leaves. The tunable bistable properties, achieved by varying geometrical parameters, endow the gripper with extensive design flexibility. The morphing configuration of the gripper retains residual energy after transitioning between stable states, ensuring stable grasping without requiring a continuous energy supply. The benefits of the gripper empower the creation of a robotic system capable of handling objects with diverse profiles across various fields and an unactuated mechanism proficient in gently grasping and swiftly moving insects.

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Publication Details

Journal
IEEE/ASME Transactions on Mechatronics
Published
2024-12-31
DOI
https://doi.org/10.1109/tmech.2024.3516948
Citations
8
Primary Topic
Structural Analysis and Optimization
Type
article
Field-Weighted Citation Impact
2.09

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article

Adaptive, Rapid, and Stable Trident Robotic Gripper: A Bistable Tensegrity Structure Implementation

Haijun Peng, Hamed Rajabi, Yasemin Ozkan-Aydin, Jianing Wu et al.
8 citations
IEEE/ASME Transactions on Mechatronics
Structural Analysis and Optimization
2.09
article

Adaptive, Rapid, and Stable Trident Robotic Gripper: A Bistable Tensegrity Structure Implementation

Haijun Peng, Hamed Rajabi, Yasemin Ozkan-Aydin, Jianing Wu, Shengkai Li, Jinzhao Yang, Hao Yang, Jie Zhang, Yuwen Zhao
article en
8 citations

Abstract

Grasping and manipulating objects represents crucial functionalities for modern robotic grippers. Nonetheless, an enduring challenge persists in engineering a gripper capable of achieving adaptive, rapid, and stable grasping behavior simultaneously. Here, we proposed a bistable mechanism derived from compliant tensegrity structures that performs a rapid shape change within 200 ms, based on which a Trident robotic gripper is developed without the need for additional actuation sources. This universal and unactuated paradigm showcases robust grasping abilities with adaptability and rapidity analogous to natural flytrap leaves. The tunable bistable properties, achieved by varying geometrical parameters, endow the gripper with extensive design flexibility. The morphing configuration of the gripper retains residual energy after transitioning between stable states, ensuring stable grasping without requiring a continuous energy supply. The benefits of the gripper empower the creation of a robotic system capable of handling objects with diverse profiles across various fields and an unactuated mechanism proficient in gently grasping and swiftly moving insects.

IEEE/ASME Transactions on MechatronicsVol. 30(6)
University of Notre Dame (US), Sun Yat-sen University (CN), Princeton University (US), Dalian University of Technology (CN), London South Bank University (GB)
National Natural Science Foundation of China
Openalex Percentile: Top 14%
Structural Analysis and Optimization
2.09
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