感知移动远程机器人的最佳连接未来路径:无线电源位置无关性方法

Madhurima Ganguly, Suraj Kumar Mahato, A. Sau, Abhijan Bhattacharyya
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引用次数: 0

摘要

在移动远程机器人的轨迹上保持良好的最后一英里连接,对于确保多媒体服务质量以及机器人与远程操作员之间交换运动指令和感官反馈至关重要。因此,远程操作员需要了解未来不同方向可能的无线电覆盖质量。现有系统声称可以通过尝试预测信道模型来实现这一目标。所提出的方法需要严格的学习阶段,或者需要事先了解无线电信号源的位置,或者需要从无线电信号源附近开始,或者需要环境中的额外传感器进行定位。考虑到无线电环境的时变性和企业中的典型设置,现有解决方案实际上不适合现场部署。我们提出了一种基于现场无线电传感的实际可部署解决方案,该方案对无线电源位置进行零知识预测,并对视场外围的未来连接性进行无监督预测,无需任何训练阶段。与传统的信道建模方法不同,我们引入了基于 "虚拟信号源 "的预测误差最小化新概念。它部署在典型企业的双机器人上。通过对现有数据集和真实企业地面的客观测量,以及典型操作场景中的主观测量,证明了其有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Sensing Best-Connected Future Path for Mobile Telerobot: A Radio-Source Location Agnostic Approach
Maintaining good last-mile connectivity across the trajectory of a mobile telerobot is critical for ensuring quality of service for multimedia, as well as kinematic commands and sensory feedbacks exchanged between the robot and the remote operator. Hence, the remote operator needs to know the possible radio coverage quality in different future directions. Existing systems claim to achieve this by trying to predict the channel model. The proposed methods require rigorous learning phases and either require prior knowledge of the radio-source location or need to start from the vicinity of the radio-source or need additional sensors in the environment for localization. Given the time-varying nature of the radio-environment and the typical set up in an enterprise, the existing solutions are practically infeasible for live deployment. We propose an in-situ radio-sensing based practically deployable solution with zero-knowledge prediction of the radio-source location and unsupervised prediction of the future connectivity across the periphery of the field of view which does not require any training phase. Deviating from the conventional channel modelling approach, we introduce a novel concept of ‘virtual source’ based prediction error minimization. It is deployed on Double robot in a typical enterprise. The efficacy is proven through objective measures on available data sets and on real enterprise floor and, also, through subjective measures in a typical operational scenario.
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