Rendering friction and viscosity using a wearable 4 degrees of freedom force feedback device with magnetorheological fluid clutches and pneumatic artificial muscles

Yuki Onozuka, Minoru Oba, M. Okui, Taro Nakamura
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引用次数: 2

Abstract

Using a head-mounted display, users can immerse themselves in virtual reality space and users can via the visual recognition of virtual objects. However, users do not experience the same haptic perception when they interact with these objects, that they do with actual objects. Force feedback devices can render haptic perception. They are classified into desktop and wearable types. A wearable 1 degree of freedom force feedback device using magnetorheological fluid brake, magnetorheological clutches, and pneumatic artificial muscles has been previously developed and it was confirmed that the device can render elasticity, friction, and viscosity. In addition, a wearable 4 degrees of freedom force feedback device using magnetorheological fluid clutches and pneumatic artificial muscles that can render elasticity was also previously developed. However, it was not established that the device could render friction, and viscosity using magnetorheological fluid clutches and pneumatic artificial muscles. In this report, it is confirmed that such a device can render friction and viscosity using magnetorheological fluid clutches and pneumatic artificial muscles without the need for magnetorheological fluid brake.
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使用可穿戴的4自由度力反馈装置与磁流变液离合器和气动人造肌肉来渲染摩擦和粘度
使用头戴式显示器,用户可以沉浸在虚拟现实空间中,用户可以通过视觉识别虚拟物体。然而,当用户与这些物体互动时,他们不会体验到与实际物体相同的触觉感知。力反馈装置可以提供触觉感知。它们分为桌面型和可穿戴型。利用磁流变液制动器、磁流变离合器和气动人造肌肉,已研制出一种可穿戴的1自由度力反馈装置,并证实该装置能呈现弹性、摩擦力和粘度。此外,先前还开发了一种可穿戴的4自由度力反馈装置,该装置采用磁流变液离合器和可呈现弹性的气动人造肌肉。然而,还没有确定该装置可以使用磁流变液离合器和气动人造肌肉来产生摩擦和粘度。在本报告中,证实了该装置可以在不需要磁流变液制动的情况下,使用磁流变液离合器和气动人造肌肉来产生摩擦和粘度。
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