基于功能与结构融合的高机动伸缩机器人

T. Abrar, F. Putzu, A. Ataka, Hareesh Godaba, K. Althoefer
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引用次数: 11

摘要

尽管软体机器人具有柔软和柔顺的身体,但当今大多数软体机器人在其主要结构的延伸或延伸方面都存在局限性。与此相反,一种新型的软体机器人被称为伸缩机器人,它可以纵向生长,利用了伸缩的原理。Eversion机器人可以挤过狭窄的开口,从而有可能进入传统机器人无法进入的地方。这些类型的机器人的主要缺点是它们有限的弯曲能力,由于倾向于沿直线移动。在本文中,我们提出了一种将弯曲驱动与机器人结构融合的新方法。我们设计了一种外倾机器人,它的身体既构成了作为骨干的中心腔,也构成了引起弯曲和操纵机械手的致动器。与外部附加致动器相比,该技术显着提高了弯曲能力,弯曲角度提高了133%。由于增加了机动性,提出的解决方案是在远程和难以进入的环境中使用版本机器人的一步。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Highly Manoeuvrable Eversion Robot Based on Fusion of Function with Structure
Despite their soft and compliant bodies, most of today’s soft robots have limitations when it comes to elongation or extension of their main structure. In contrast to this, a new type of soft robot called the eversion robot can grow longitudinally, exploiting the principle of eversion. Eversion robots can squeeze through narrow openings, giving the possibility to access places that are inaccessible by conventional robots. The main drawback of these types of robots is their limited bending capability due to the tendency to move along a straight line. In this paper, we propose a novel way to fuse bending actuation with the robot’s structure. We devise an eversion robot whose body forms both the central chamber that acts as the backbone as well as the actuators that cause bending and manoeuvre the manipulator. The proposed technique shows a significantly improved bending capability compared to externally attaching actuators to an eversion robot showing a 133% improvement in bending angle. Due to the increased manoeuvrability, the proposed solution is a step towards the employment of eversion robots in remote and difficult-to-access environments.
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