Towards teleoperation-based interactive learning of robot kinematics using a mobile augmented reality interface on a tablet

J. Frank, V. Kapila
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引用次数: 10

Abstract

The integration of augmented reality (AR) techniques in user interface design has enhanced interactive experiences in teleoperation of robots, hands-on learning in classrooms, laboratory, and special education, and user training in an array of fields, e.g., aerospace, automotive, construction, manufacturing, medical, etc. However, AR-based user interfaces that command machines and tools have not been fully explored for their potential to enhance interactive learning of engineering concepts in the laboratory. This paper outlines the development of a mobile application executing on a tablet device, which renders an immersive AR-based graphical user interface to enable users to monitor, interact with, and control a four-link underactuated planar robot. Computer vision routines are used to extract real-time, vision-based measurements of the robot's joint angles and end effector location from the live video captured by the rear-facing camera on the tablet. The obtained measurements are used to render AR content to offer users with additional visual feedback. Touch gesture recognition is implemented to allow users to naturally and intuitively command the robot by tapping and dragging their fingers at desired locations on the tablet screen. Experimental results show the performance and efficacy of the proposed system as it is operated in two different modes: one in which the user has direct control over the angles of the actuated links of the robot and one in which the user has direct control over the end effector location.
利用平板电脑上的移动增强现实界面实现基于远程操作的机器人运动学交互学习
增强现实(AR)技术在用户界面设计中的集成增强了机器人远程操作的交互体验,课堂、实验室和特殊教育中的动手学习,以及航空航天、汽车、建筑、制造、医疗等一系列领域的用户培训。然而,命令机器和工具的基于ar的用户界面尚未充分探索其在实验室中增强工程概念交互式学习的潜力。本文概述了在平板设备上执行的移动应用程序的开发,该应用程序呈现了一个身临其境的基于ar的图形用户界面,使用户能够监控、交互和控制四连杆欠驱动平面机器人。计算机视觉程序用于从平板电脑上的后置摄像头捕获的实时视频中提取机器人关节角度和末端执行器位置的实时、基于视觉的测量数据。获得的测量值用于呈现AR内容,为用户提供额外的视觉反馈。触摸手势识别的实现是为了让用户通过在平板电脑屏幕上的所需位置轻敲和拖动手指来自然直观地指挥机器人。实验结果显示了所提出的系统的性能和有效性,因为它在两种不同的模式下运行:一种是用户直接控制机器人的驱动链接的角度,另一种是用户直接控制末端执行器的位置。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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