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首页> 外文期刊>Advanced Functional Materials >Human-Palm-Inspired Artificial Skin Material Enhances Operational Functionality of Hand Manipulation
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Human-Palm-Inspired Artificial Skin Material Enhances Operational Functionality of Hand Manipulation

机译:人掌上启发的人造皮肤材料增强了手工操作的操作功能

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摘要

Human skin plays an important role in hand manipulation by making a stable grasp with an enlarging contact area while providing a firm hold on the object. However, satisfying these two functions is contradictory in conventional single-layer artificial skin. Softer skin material would increase the contact area, which is advantageous in maintaining the stability, but it decreases the manipulability since the object tends to make uncontrollable movement within the softer skin, and vice versa for harder skin material. This paper presents a biomimetic three-layer skin structure inspired by human palm skin and shows that both stability and manipulability can be enhanced with the three-layer structure. To achieve the unique stiffness characteristics of the human palm skin, a porous latex structure, which is highly compressible but tough in tensile direction, is chosen as the subcutaneous fat layer. Through the novel experimental setup and the finite element method simulations, it is found that the porous latex structure is the key structure contributing to both stability and manipulability. Furthermore, it is demonstrated that a robotic hand with the proposed skin material shows enhanced robustness in grasping tasks. With the proposed skin material, the robotic hands would be more advantageous for challenging manipulation tasks.
机译:人类皮肤在手动操作中发挥着重要作用,通过扩大接触面积,同时在物体上提供坚定的握持。然而,满足这两个功能在传统的单层人造皮肤中是矛盾的。软质皮层将增加接触面积,这是有利于保持稳定性,但它降低了可操纵性,因为该物体倾向于在更柔软的皮肤内产生无法控制的运动,并且对更硬的皮肤材料反之亦然。本文提出了一种受人棕光皮肤的仿生三层皮肤结构,并表明可以通过三层结构增强稳定性和可操纵性。为了实现人棕榈皮肤的独特刚度特性,选择多孔胶乳结构,其在拉伸方向上具有高度可压缩但坚韧,作为皮下脂肪层。通过新颖的实验设置和有限元方法模拟,发现多孔胶乳结构是有助于稳定性和可操纵性的关键结构。此外,证明了具有所提出的皮肤材料的机器人手显示了抓握任务的增强的鲁棒性。利用所提出的皮肤材料,机器人双手对挑战操纵任务更有利。

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