Side localization to increase localization accuracy

Walid M. Ibrahim, N. Abuali, A. Taha, H. Hassanein
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引用次数: 1

Abstract

Estimating the location of sensor nodes in wireless sensor networks is a fundamental requirement in a variety of sensing applications. In large scale dense deployments where the area covered by sensor nodes is very large, it is impossible to localize all sensor nodes using single-hop localization techniques. A solution to this problem is to use a multi-hop localization technique to estimate sensor node positions. In some deployments it is required to maintain the anchor nodes at the edge of the simulated area. In previous work, we introduced a new localization scheme that uses distance measurements to localize sensor nodes using a collinear and non-collinear mobile anchor nodes placed at the edge of the sensed area. A Kalman Filter was then used to improve the location accuracy for each node. In this scheme each SN estimated its location from two independent directions then use such information to improve localization accuracy. In this paper, we extend the work to use side localization using hop measurements and fixed anchor node. We also compare the performance of using side localization for both hop and distance measurement. Through simulation we show that side localization using distance and hop measurements outperform DV-Hop and DV-Distance, which are mainstream localization protocols. The weighted mean hop measurement gives higher localization accuracy than using using distance measurement. However, if Kalman Filter is used distance measurement gives better localization accuracy.
侧定位,提高定位精度
估计无线传感器网络中传感器节点的位置是各种传感应用的基本要求。在传感器节点覆盖区域非常大的大规模密集部署中,使用单跳定位技术无法定位所有传感器节点。解决这一问题的一种方法是使用多跳定位技术来估计传感器节点的位置。在某些部署中,需要在模拟区域的边缘维护锚节点。在之前的工作中,我们引入了一种新的定位方案,该方案使用距离测量来定位传感器节点,并使用放置在感测区域边缘的共线和非共线移动锚节点。然后使用卡尔曼滤波来提高每个节点的定位精度。在该方案中,每个SN从两个独立的方向估计自己的位置,然后利用这些信息来提高定位精度。在本文中,我们将工作扩展到使用跳跃测量和固定锚节点的侧定位。我们还比较了在跳数和距离测量中使用侧定位的性能。仿真结果表明,基于距离和跳数测量的侧定位优于主流定位协议DV-Hop和DV-Distance。加权平均跳数测量比使用距离测量具有更高的定位精度。然而,如果使用卡尔曼滤波,距离测量可以提供更好的定位精度。
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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