Boundary Guided Liquid‐Bridge Adhesion for Robotic Pick‐and‐Release

Liquid-bridge-mediated adhesion provides conformal contact with rough surfaces and gentle interaction with fragile microstructures, making it attractive for object manipulation. However, controlling liquid-bridge formation and retraction under non-ideal interfacial conditions remains challenging. Here, we report a switchable liquid-bridge adhesion strategy using a two-tiered stamp with spatially patterned wettability. Boundary-guided pinning confines liquid spreading to form a stable bridge for pickup and guides liquid retraction toward bridge breakup for controlled release. This design converts liquid-bridge adhesion from an uncontrolled capillary phenomenon into a controllable interfacial mechanism. The strategy enables preload-free adhesion switching, tunable adhesion forces, robust manipulation across surfaces with diverse roughness and wettability, and damage-free contact with fragile microstructures. Integrated with a robotic platform, the stamp functions as a liquid-bridge-based robotic end effector for pick-and-place manipulation and robotic placement, providing a route toward ultra-gentle manufacturing and microelectronic assembly.

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Publication Details

Journal
Advanced Materials
Published
2026-10-15
DOI
https://doi.org/10.1002/adma.75399
Primary Topic
Adhesion, Friction, and Surface Interactions
Type
article
Field-Weighted Citation Impact
0.00
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article

Boundary Guided Liquid‐Bridge Adhesion for Robotic Pick‐and‐Release

Lidong Yang, Muyang Li, Yu Chai, Aoji Zhu et al.
Advanced Materials
Adhesion, Friction, and Surface Interactions
article

Boundary Guided Liquid‐Bridge Adhesion for Robotic Pick‐and‐Release

Lidong Yang, Muyang Li, Yu Chai, Aoji Zhu, Xiangyu Li, Jinsheng Zhao, Yu Tan, Jiangang Zhang, Mingxing Shi, Yun Wang, Zhixiao Hou, Jianchao Chen, Wei Chen
article en

Abstract

Liquid-bridge-mediated adhesion provides conformal contact with rough surfaces and gentle interaction with fragile microstructures, making it attractive for object manipulation. However, controlling liquid-bridge formation and retraction under non-ideal interfacial conditions remains challenging. Here, we report a switchable liquid-bridge adhesion strategy using a two-tiered stamp with spatially patterned wettability. Boundary-guided pinning confines liquid spreading to form a stable bridge for pickup and guides liquid retraction toward bridge breakup for controlled release. This design converts liquid-bridge adhesion from an uncontrolled capillary phenomenon into a controllable interfacial mechanism. The strategy enables preload-free adhesion switching, tunable adhesion forces, robust manipulation across surfaces with diverse roughness and wettability, and damage-free contact with fragile microstructures. Integrated with a robotic platform, the stamp functions as a liquid-bridge-based robotic end effector for pick-and-place manipulation and robotic placement, providing a route toward ultra-gentle manufacturing and microelectronic assembly.

Advanced Materials
Hong Kong Polytechnic University (HK), City University of Hong Kong (HK), Chengdu University of Technology (CN), Southwest Jiaotong University (CN)
Openalex Percentile: Top 22%
Adhesion, Friction, and Surface Interactions
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