医学应用中基于链接的触觉界面的运动学设计:综述

IF 5 Q1 ENGINEERING, BIOMEDICAL
Ali Reza Torabi, A. Nazari, Everly Conrad-Baldwin, Kourosh Zareinia, M. Tavakoli
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引用次数: 2

摘要

触觉界面可以再现来自虚拟环境或触觉远程操作系统的触觉反馈,从而调动用户的触觉。高保真触觉反馈对于任何与人类互动的安全和成功至关重要。这种相互作用可以在医疗领域使用的触觉系统中看到,例如外科训练,机器人远程手术和远程康复,这些都需要适当的触觉界面设计和控制。为了在预期的应用中为用户重现高保真的软硬接触体验,不同的设计在界面的理想特性之间进行了不同的权衡,例如反向驱动性,低表观惯性和低摩擦,以获得最佳的小反射力感知,大固有刚度和力反馈能力,以获得最佳的大反射力感知。一个足够大的工作空间,用于探索远程或虚拟环境,触觉反馈的均匀性及其在工作空间上的足够灵敏度。同时满足所有需求是不可能的,需要做出不同的应用程序驱动的妥协。本文回顾了各种运动设计是如何帮助解决这些期望规格的权衡的。首先,我们研究了基于链接的触觉界面所需的特性以及它们之间不可避免的权衡。然后,我们研究了目前触觉界面运动设计的现状,以及它们的优点和局限性。在所有章节中,我们考虑了预期的触觉界面在医疗场景中的应用。非基于链接的触觉界面也将很快讨论,以展示该领域广泛的触觉技术。介绍了运动冗余在解决设计权衡方面的潜力。本文简要讨论了当前触觉界面设计在医疗应用中的挑战和未来发展方向,最后给出结论。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Kinematic design of linkage-based haptic interfaces for medical applications: a review
A haptic interface recreates haptic feedback from virtual environments or haptic teleoperation systems that engages the user’s sense of touch. High-fidelity haptic feedback is critical to the safety and success of any interaction with human beings. Such interactions can be seen in haptic systems utilized in medical fields, such as for surgical training, robotic tele-surgery, and tele-rehabilitation, which require appropriate haptic interface design and control. In order to recreate high-fidelity soft and stiff contact experiences for the user in the intended application, different designs strike different trade-offs between the desirable characteristics of an interface, such as back-drivability, low apparent inertia and low friction for the best perception of small reflected forces, large intrinsic stiffness and force feedback capability for the best perception of large reflected forces, a large-enough workspace for exploring the remote or virtual environment, and the uniformity of haptic feedback and its adequate sensitivity over the workspace. Meeting all of the requirements simultaneously is impossible, and different application-driven compromises need to be made. This paper reviews how various kinematic designs have helped address these trade-offs in desired specifications. First, we investigate the required characteristics of linkage-based haptic interfaces and inevitable trade-offs between them. Then, we study the state of the art in the kinematic design of haptic interfaces and their advantages and limitations. In all sections, we consider the applications of the intended haptic interfaces in medical scenarios. Non-linkage-based haptic interfaces are also shortly discussed to show the broad range of haptic technologies in the area. The potentials of kinematic redundancy to address the design trade-offs are introduced. Current challenges and future directions of haptic interface designs for medical applications are shortly discussed, which is finally followed by the conclusion.
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CiteScore
9.40
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