Virtual reality visualization of distributed tele-experiments

Armin Hopp, D. Schulz, Wolfram Burgard, A. Cremers, D. Fellner
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引用次数: 9

Abstract

The increased costs of laboratory environments such as mobile robots and the specialization of research groups increase the demand for collaboration between different research groups. Although the Internet can be regarded as the most important medium for cooperation over large distances, it does not provide the necessary bandwidth for the transmission of video-streams required, for example, during a tele-experiment wish a mobile robot. In this paper, the authors present a combination of a tele-experimentation environment for autonomous mobile robots (RTL) with a minimal rendering tool-kit for virtual reality (MRT-VR). The RTL-system includes means for bridging transmission gaps by using simulation techniques to predict the robots actions and supports automatic viewpoint selection for virtual cameras in the MRT-VR system. The MRT-VR allows the online visualization of experiments in a virtual environment. MRT-VR additionally supports natural navigation of the user through the 3D virtual environment in various aspects. It includes a collision detection to avoid users getting inside of objects such as walls or cupboards and supports climbing of stairs. Additionally users can select different viewpoints or even automatically follow the robot during its operation. Finally it supports the synchronization of the viewpoints for distributed observers. This paper demonstrates that, by combining both techniques, an improved visualization quality with respect to the precision of the simulation and the ease of operation of tele-operated systems is obtained.
分布式远程实验的虚拟现实可视化
移动机器人等实验室环境成本的增加和研究小组的专业化增加了对不同研究小组之间合作的需求。尽管互联网可以被视为远距离合作的最重要媒介,但它并不能提供传输视频流所需的必要带宽,例如,在移动机器人进行远程实验期间。在本文中,作者提出了自主移动机器人(RTL)的远程实验环境与虚拟现实(MRT-VR)的最小渲染工具包的组合。rtl系统包括通过使用模拟技术来预测机器人动作来弥合传输差距的方法,并支持MRT-VR系统中虚拟摄像机的自动视点选择。MRT-VR允许在虚拟环境中对实验进行在线可视化。MRT-VR还在各个方面通过3D虚拟环境支持用户的自然导航。它包括碰撞检测,以避免用户进入物体内部,如墙壁或橱柜,并支持爬楼梯。此外,用户可以选择不同的视角,甚至在机器人运行过程中自动跟随。最后,它支持分布式观察者的视点同步。本文表明,将这两种技术结合起来,在仿真精度和远程操作系统的易操作性方面,获得了更高的可视化质量。
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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