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用于攀爬机器人的欠驱动软粘附致动器设计

Design of Under-Actuated Soft Adhesion Actuators for Climbing Robots.

作者信息

Liu Zhipeng, Xu Linsen, Liang Xingcan, Liu Jinfu

机构信息

Hefei Institutes of Physical Science, Chinese Academy of Sciences, Hefei 230031, China.

University of Science and Technology of China, Hefei 230026, China.

出版信息

Sensors (Basel). 2022 Jul 28;22(15):5639. doi: 10.3390/s22155639.

Abstract

Since climbing robots mainly rely on adhesion actuators to achieve adhesion, robust adhesion actuators have always been the challenge of climbing robot design. A novel under-actuated soft adhesion actuator (USAA) proposed in this paper for climbing robots can generate adhesion through robot's load applied to the actuator. The actuator is composed of a soft film/substrate structure with an annular groove on the substrate and a cavity on the soft film. To fabricate the actuator, we first study the influence of the geometric parameters of the USAA on the maximum adhesion of the actuator by analysis and experiments, and then combine these parameters and the boundary conditions of the static meniscus in the mold to design the mold. Moreover, we fabricate a climbing robot equipped with USAAs and evaluate its performance on horizontal and inclined surfaces with a wide range of characteristics. The USAA can generate strong and controllable adhesion to various smooth and semi-smooth surfaces. Furthermore, the fabricated robot performs well on various surfaces under a certain load (at least 500 g) and speed (369 mm/min) through experiments. It's adaptability to a variety of surfaces enables a wide range of applications and pushes the boundaries of soft adhesion actuators.

摘要

由于攀爬机器人主要依靠粘附驱动器来实现粘附,因此强大的粘附驱动器一直是攀爬机器人设计面临的挑战。本文提出的一种用于攀爬机器人的新型欠驱动软粘附驱动器(USAA)可以通过机器人施加在驱动器上的负载产生粘附力。该驱动器由一个软膜/基底结构组成,基底上有环形凹槽,软膜上有腔体。为了制造该驱动器,我们首先通过分析和实验研究了USAA的几何参数对驱动器最大粘附力的影响,然后结合这些参数和模具中静态弯月面的边界条件来设计模具。此外,我们制造了一个配备USAA的攀爬机器人,并在具有广泛特性的水平和倾斜表面上评估其性能。USAA可以对各种光滑和半光滑表面产生强大且可控的粘附力。此外,通过实验,制造的机器人在一定负载(至少500克)和速度(369毫米/分钟)下在各种表面上表现良好。它对各种表面的适应性使其具有广泛的应用,并推动了软粘附驱动器的边界。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/8fee/9371047/e743d535acf9/sensors-22-05639-g001.jpg

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