Abstract
Soft limbs with anisotropic stiffness are common in nature and enable animals to solve a variety of tasks, including locomotion and manipulation. This mixture of hardness and softness enables animals to efficiently control the unpredictable contact forces that occur while performing such tasks. A challenge for soft robotics is to create artificial limbs that mimic natural mixtures of hardness and softness for use as a building block for soft, adaptable robots. This article presents the design of a novel pneumatic limb module with adjustable length and anisotropic stiffness. The artificial limb is designed with a rigid telescopic endoskeleton inside a rubber bellow, which we show is able to resist buckling, while remaining externally soft. Finally, we present the design of a hexapod walker based on the limb units.
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Fishman, A., Garrad, M. S., Hinitt, A., Zanini, P., Barker, T., & Rossiter, J. (2017). A compliant telescopic limb with anisotropic stiffness. Frontiers Robotics AI, 4(FEB). https://doi.org/10.3389/frobt.2016.00080
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