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      Anchoring like octopus: biologically inspired soft artificial sucker

      , , , , , , ,
      Journal of The Royal Society Interface
      The Royal Society

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          Abstract

          <p class="first" id="d4328002e246">This paper presents a robotic anchoring module, a sensorized mechanism for attachment to the environment that can be integrated into robots to enable or enhance various functions such as robot mobility, remaining on location or its ability to manipulate objects. The body of the anchoring module consists of two portions with a mechanical stiffness transition from hard to soft. The hard portion is capable of containing vacuum pressure used for actuation while the soft portion is highly conformable to create a seal to contact surfaces. The module is integrated with a single sensory unit which exploits a fibre-optic sensing principle to seamlessly measure proximity and tactile information for use in robot motion planning as well as measuring the state of firmness of its anchor. In an experiment, a variable set of physical loads representing the weights of potential robot bodies were attached to the module and its ability to maintain the anchor was quantified under constant and variable vacuum pressure signals. The experiment shows the effectiveness of the module in quantifying the state of firmness of the anchor and discriminating between different amounts of physical loads attached to it. The proposed anchoring module can enable many industrial and medical applications where attachment to environment is of crucial importance for robot control. </p>

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          Most cited references32

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          SOFT ROBOTICS. A 3D-printed, functionally graded soft robot powered by combustion.

          Roboticists have begun to design biologically inspired robots with soft or partially soft bodies, which have the potential to be more robust and adaptable, and safer for human interaction, than traditional rigid robots. However, key challenges in the design and manufacture of soft robots include the complex fabrication processes and the interfacing of soft and rigid components. We used multimaterial three-dimensional (3D) printing to manufacture a combustion-powered robot whose body transitions from a rigid core to a soft exterior. This stiffness gradient, spanning three orders of magnitude in modulus, enables reliable interfacing between rigid driving components (controller, battery, etc.) and the primarily soft body, and also enhances performance. Powered by the combustion of butane and oxygen, this robot is able to perform untethered jumping.
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            Some Forms of the Strain Energy Function for Rubber

            O H Yeoh (1993)
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              State-of-the-Art in Force and Tactile Sensing for Minimally Invasive Surgery

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                Author and article information

                Journal
                Journal of The Royal Society Interface
                J. R. Soc. Interface
                The Royal Society
                1742-5689
                1742-5662
                October 25 2017
                October 2017
                October 25 2017
                October 2017
                : 14
                : 135
                : 20170395
                Article
                10.1098/rsif.2017.0395
                5665824
                29070591
                d46ab1ec-5c22-4f6a-8b37-b265e4a95503
                © 2017

                http://royalsocietypublishing.org/licence

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