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植物带来的启示:高速软机器人致动器

A Lesson from Plants: High-Speed Soft Robotic Actuators.

作者信息

Baumgartner Richard, Kogler Alexander, Stadlbauer Josef M, Foo Choon Chiang, Kaltseis Rainer, Baumgartner Melanie, Mao Guoyong, Keplinger Christoph, Koh Soo Jin Adrian, Arnold Nikita, Suo Zhigang, Kaltenbrunner Martin, Bauer Siegfried

机构信息

Soft Matter Physics Institute of Experimental Physics Johannes Kepler University Linz Altenberger Straße 69 Linz 4040 Austria.

Soft Materials Lab Linz Institute of Technology LIT Johannes Kepler University Linz Altenberger Straße 69 Linz 4040 Austria.

出版信息

Adv Sci (Weinh). 2020 Jan 21;7(5):1903391. doi: 10.1002/advs.201903391. eCollection 2020 Mar.

DOI:10.1002/advs.201903391
PMID:32154089
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC7055565/
Abstract

Rapid energy-efficient movements are one of nature's greatest developments. Mechanisms like snap-buckling allow plants like the Venus flytrap to close the terminal lobes of their leaves at barely perceptible speed. Here, a soft balloon actuator is presented, which is inspired by such mechanical instabilities and creates safe, giant, and fast deformations. The basic design comprises two inflated elastomer membranes pneumatically coupled by a pressurized chamber of suitable volume. The high-speed actuation of a rubber balloon in a state close to the verge of mechanical instability is remotely triggered by a voltage-controlled dielectric elastomer membrane. This method spatially separates electrically active and passive parts, and thereby averts electrical breakdown resulting from the drastic thinning of an electroactive membrane during large expansion. Bistable operation with small and large volumes of the rubber balloon is demonstrated, achieving large volume changes of 1398% and a high-speed area change rate of 2600 cm s. The presented combination of fast response time with large deformation and safe handling are central aspects for a new generation of soft bio-inspired robots and can help pave the way for applications ranging from haptic displays to soft grippers and high-speed sorting machines.

摘要

快速节能运动是自然界最伟大的发展之一。像快速屈曲这样的机制使捕蝇草等植物能够以几乎难以察觉的速度闭合其叶片的末端叶瓣。在此,提出了一种软气球致动器,它受此类机械不稳定性的启发,可产生安全、巨大且快速的变形。基本设计包括两个通过合适体积的加压腔室气动耦合的充气弹性体膜。处于接近机械不稳定边缘状态的橡胶气球的高速致动由电压控制的介电弹性体膜远程触发。这种方法在空间上分离了电活性部分和无源部分,从而避免了在大幅膨胀过程中电活性膜急剧变薄导致的电击穿。展示了橡胶气球在小体积和大体积下的双稳态操作,实现了1398%的大体积变化和2600厘米/秒的高速面积变化率。所呈现的快速响应时间与大变形以及安全操作的结合是新一代受生物启发的软机器人的核心方面,可为从触觉显示器到软夹具和高速分拣机等应用铺平道路。

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