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用于机械触觉反馈的流体触觉接口

Fluidic Haptic Interface for Mechano-Tactile Feedback.

作者信息

Shi Ge, Palombi Andrea, Lim Zara, Astolfi Anna, Burani Andrea, Campagnini Silvia, Loizzo Federica G C, Preti Matteo Lo, Vargas Alessandro Marin, Peperoni Emanuele, Oddo Calogero Maria, Li M, Hardwicke Joseph, Venus Matthew, Homer-Vanniasinkam Shervanthi, Wurdemann Helge Arne

出版信息

IEEE Trans Haptics. 2020 Jan-Mar;13(1):204-210. doi: 10.1109/TOH.2020.2970056. Epub 2020 Jan 31.

Abstract

Notable advancements have been achieved in providing amputees with sensation through invasive and non-invasive haptic feedback systems such as mechano-, vibro-, electro-tactile and hybrid systems. Purely mechanical-driven feedback approaches, however, have been little explored. In this paper, we now created a haptic feedback system that does not require any external power source (such as batteries) or other electronic components (see Fig. 1 ). The system is low-cost, lightweight, adaptable and robust against external impact (such as water). Hence, it will be sustainable in many aspects. We have made use of latest multi-material 3D printing technology (Stratasys Objet500 Connex3) being able to fabricate a soft sensor and a mechano-tactile feedback actuator made of a rubber (TangoBlack Plus) and plastic (VeroClear) material. When forces are applied to the fingertip sensor, fluidic pressure inside the system acts on the membrane of the feedback actuator resulting in mechano-tactile sensation. Our [Formula: see text] feedback actuator is able to transmit a force range between 0.2 N (the median touch threshold) and 2.1 N (the maximum force transmitted by the feedback actuator at a 3 mm indentation) corresponding to force range exerted to the fingertip sensor of 1.2-18.49 N.

摘要

通过机械、振动、电触觉和混合系统等侵入性和非侵入性触觉反馈系统,在为截肢者提供感觉方面已经取得了显著进展。然而,纯粹机械驱动的反馈方法却很少被探索。在本文中,我们创建了一种无需任何外部电源(如电池)或其他电子元件的触觉反馈系统(见图1)。该系统成本低、重量轻、适应性强且能抵抗外部冲击(如水)。因此,它在许多方面都将是可持续的。我们利用了最新的多材料3D打印技术(Stratasys Objet500 Connex3),能够制造出由橡胶(TangoBlack Plus)和塑料(VeroClear)材料制成的软传感器和机械触觉反馈致动器。当力施加到指尖传感器时,系统内部的流体压力作用于反馈致动器的膜片,从而产生机械触觉感觉。我们的反馈致动器能够传递0.2 N(中位触摸阈值)至2.1 N(在3 mm压痕时反馈致动器传递的最大力)之间的力范围,对应于施加到指尖传感器的1.2 - 18.49 N的力范围。

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