Experimental Investigation on Weather Changes Influences on Wireless Localization System

Dhouha El Houssaini, Amira Guesmi, Sabrine Khriji, T. Keutel, K. Besbes, O. Kanoun
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引用次数: 5

Abstract

Wireless Sensor Networks (WSNs) are widely explored because of their low cost, increasing capability of nodes, energy efficiency, accuracy and real time. A major issue is localization because it is based on the use of a number of sensor nodes deployed at unknown positions. Moreover, the need for more accurate and reliable localization system is increasing especially for certain applications, such as object tracking, surveillance, and disasters prediction. The reliability of the localization process should be investigated and external factors need to be considered in order to increase the accuracy of the localization. In this work, a localization system based on ultra-wide band technology is presented. The ranging system employs the two-way ranging method, which is based on the time of Arrival (ToA) technique. The DecaWave ranging system is, therefore, chosen for its high accuracy, which is about ±10 cm. To evaluate the proposed localization system, outdoor experiments were carried out, where the weather changes are considered. In this paper, the influences of weather changes on distance measurement are highlighted and a polynomial regression model for distance measurement prediction is provided with R-squared value of 78%. The regression model is designed to characterize the distance measurement variation in relevance to weather changes to enhance the localization system accuracy.
天气变化对无线定位系统影响的实验研究
无线传感器网络(WSNs)以其成本低、节点容量大、能效高、精度高、实时性好等优点得到了广泛的应用。一个主要问题是定位,因为它是基于部署在未知位置的许多传感器节点的使用。此外,对更精确和可靠的定位系统的需求正在增加,特别是在某些应用中,如目标跟踪、监视和灾害预测。为了提高定位的准确性,需要研究定位过程的可靠性,并考虑外部因素。本文提出了一种基于超宽带技术的定位系统。该测距系统采用基于到达时间(ToA)技术的双向测距方法。因此,选择decwave测距系统是因为它的高精度,大约是±10厘米。为了评估所提出的定位系统,进行了室外实验,其中考虑了天气变化。本文着重分析了天气变化对距离测量的影响,给出了一个r平方值为78%的多项式回归模型。设计回归模型来描述与天气变化相关的距离测量变化,以提高定位系统的精度。
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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