表面倾斜感知与仿生触觉传感器

Zhe Su, S. Schaal, G. Loeb
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引用次数: 8

摘要

众所周知,人类擅长使用工具。在这些任务中,为了应对外部环境的干扰和不确定性,它们必须能够利用指尖无毛皮肤中的机械感受器感知工具方向或倾斜的微小变化。我们假设,人类手指最敏感的部分,远端指骨的平坦表面(称为尖簇)将是感知非常细微倾斜的首选。在本文中,我们使用实验装置来量化仿生触觉传感器(BioTac®)的识别阈值,该传感器包含类似的传感平面。我们发现,对于横摇方向的倾斜,阈值小至0.11°,对于俯仰方向的倾斜,阈值小至0.19°。与BioTac上的其他弯曲位置相比,平坦表面在检测倾斜方面更胜一筹。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Surface tilt perception with a biomimetic tactile sensor
Humans are known to be good at manipulating tools. To cope with disturbances and uncertainties from the external environment during such tasks, they must be able to perceive small changes in orientation or tilt of the tool using mechanoreceptors in the glabrous skin of the fingertips. We hypothesize that the most sensitive part of human fingers, a flat surface on the distal phalanx (called apical tuft) would be preferred for perceiving very fine tilts. In this paper, we used an experimental apparatus to quantify discrimination threshold of a biomimetic tactile sensor (BioTac®) that incorporates a similar, sensorized flat surface. We found the thresholds to be as small as 0.11° for tilts in the roll direction and 0.19° for tilts in the pitch direction. The flat surface was superior in detecting tilts when compared to other, curved locations on the BioTac.
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