Design, Fabrication, and Demonstration of Soft Thin-Film Actuators

Soft actuators present promising properties regarding applications in soft robotics and human-machine interfaces. Especially when directly interfacing with human skin, soft thin actuators can match the mechanical coupling with human tissue. The exploration of improving the performance and robustness of soft actuators is crucial for the development of flexible devices. The demand for robust, flexible devices poses challenges to the performance and manufacturing methods of the actuators. The article illustrates techniques for the design and fabrication of soft thin-film actuators. These soft actuators are robust, and demonstrate potential in versatile scenarios. This protocol shows the potential of the thin-film actuators in three different applications. First, a crawling robot driven by soft thin-film actuators was fabricated. The robot is extremely robust. It can survive continuous hammering and remain functional even with three metal needles punctured through its body. Second, a soft robotic gripper, which can perform fine manipulation such as grasping a piece of paper without damaging it, was fabricated. Third, a haptic feedback device with a thin-film actuator was fabricated, which can provide touching feedback when interacting with human skin. This protocol demonstrates efficient fabrication processes for robust soft thin-film actuators, with various application potential for driving robust soft robotics.

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Publication Details

Journal
Journal of Visualized Experiments
Published
2025-08-29
DOI
https://doi.org/10.3791/68951
Primary Topic
Fluid Dynamics and Thin Films
Type
article
Field-Weighted Citation Impact
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article

Design, Fabrication, and Demonstration of Soft Thin-Film Actuators

Ruiqing Shi, Feifei Pan, Zhibo Wang, Hang Wang et al.
Journal of Visualized Experiments
Fluid Dynamics and Thin Films
article

Design, Fabrication, and Demonstration of Soft Thin-Film Actuators

Ruiqing Shi, Feifei Pan, Zhibo Wang, Hang Wang, Tianhao He, Zhiyu Yan, Xiaobin Ji
article en

Abstract

Soft actuators present promising properties regarding applications in soft robotics and human-machine interfaces. Especially when directly interfacing with human skin, soft thin actuators can match the mechanical coupling with human tissue. The exploration of improving the performance and robustness of soft actuators is crucial for the development of flexible devices. The demand for robust, flexible devices poses challenges to the performance and manufacturing methods of the actuators. The article illustrates techniques for the design and fabrication of soft thin-film actuators. These soft actuators are robust, and demonstrate potential in versatile scenarios. This protocol shows the potential of the thin-film actuators in three different applications. First, a crawling robot driven by soft thin-film actuators was fabricated. The robot is extremely robust. It can survive continuous hammering and remain functional even with three metal needles punctured through its body. Second, a soft robotic gripper, which can perform fine manipulation such as grasping a piece of paper without damaging it, was fabricated. Third, a haptic feedback device with a thin-film actuator was fabricated, which can provide touching feedback when interacting with human skin. This protocol demonstrates efficient fabrication processes for robust soft thin-film actuators, with various application potential for driving robust soft robotics.

Journal of Visualized Experiments(222)
Sun Yat-sen University (CN)
Affordable and clean energy
Openalex Percentile: Top 76%
Fluid Dynamics and Thin Films
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