BASISMAP: sequence-based similarity search for geomagnetic positioning

Tevfik Kadioglu, B. Erkmen
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引用次数: 1

Abstract

Indoor localization has become a popular topic with the development of location-based services (LBS) and indoor navigation systems. Beside these circumstances indoor positioning has been the focus of attention for researchers as the most important component of these applications. Many signals are used as distinguishable features for indoor positioning. RF-based Wi-Fi and BLE systems are the most popular ones and these have been preferred because of their high distinguishable feature. The use of geomagnetism, a natural signal found all over the world, has also been of interest to many researchers. Geomagnetic signals being distorted in the indoor area due to the effect of the structure by using that information takes opportunity to determine the relevant location. In this study, a new method is proposed to convert these unknown signals into location data using a magnetic fingerprint database. The sequential data collected using a dynamic comparison buffer in motion is evaluated with the help of the similarity search method called matrix profile, and position is obtained. The study was compared with other methods in the literature and its prominent and weak points were shared. The performance of the study was evaluated using site-survey by collecting data in an office environment. It has been concluded that the cumulative error is below 2.2 m in the normal operating phase of the system on a 100-m-long path. Compared to the literature, a low complexity and efficient solution is proposed. Furthermore, matrix-profile-based path matching method was used for the first time in magnetic sequence-based localization.
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BASISMAP:基于序列的地磁定位相似度搜索
随着基于位置服务(LBS)和室内导航系统的发展,室内定位已成为一个热门话题。除此之外,室内定位作为这些应用中最重要的组成部分,一直是研究人员关注的焦点。许多信号被用作室内定位的可区分特征。基于射频的Wi-Fi和BLE系统是最受欢迎的系统,这些系统因其高度可识别的特性而受到青睐。地磁是一种遍布世界各地的自然信号,它的使用也引起了许多研究人员的兴趣。由于建筑物的影响,地磁信号在室内区域被扭曲,利用这些信息有机会确定相关位置。本文提出了一种利用磁指纹数据库将这些未知信号转换为位置数据的新方法。利用运动中的动态比较缓冲器收集的序列数据,利用矩阵轮廓的相似度搜索方法对数据进行评估,得到相应的位置。并与文献中其他方法进行了比较,指出了其优缺点。通过在办公环境中收集数据的现场调查来评估研究的效果。在100 m长的路径上,系统正常运行阶段的累积误差小于2.2 m。与文献相比,本文提出了一种低复杂度、高效的解决方案。此外,在基于磁序列的定位中首次采用了基于矩阵-剖面的路径匹配方法。
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