精确近距离定位的磁特征传感器模型

Steffen Kastner, Markus Ebner, Markus Bullmann, Toni Fetzer, F. Deinzer, M. Grzegorzek
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引用次数: 0

摘要

在室内定位领域,基于蓝牙和Wi-Fi信号强度的测距方法已经建立。此外,还使用基于信号传播时间的一些方法来确定接入点和设备之间的距离。这些方法在中远距离和视线范围内工作良好,但提供的几米精度对于两米以下的短距离来说太不准确了。为了在受有色材料影响极小的短距离定位中引入一种更好的定位方法,提出了一种新的磁特征传感器方法。该系统的静态部分由至少两个交流线圈组成,以激发交变磁场。动态部分利用大多数智能手机中的磁力计硬件来测量以固定频率采样的线圈磁场。此外,描述了系统的自动设置方法,其中测量装置只需要在线圈之间移动。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Magnetic Signature Sensor Model for Accurate Short-Distance Localization
In the realm of indoor localization Bluetooth and Wi-Fi signal strength based ranging approaches are well established. Also, some methods based on signal propagation time are used to determine the distance between an access point and a device. These methods work well at medium to long distances and in line-of-sight, but the provided accuracy of a few meters is too inaccurate for short distances below two meters. In order to introduce a better localization method for short distances, that is only infinitesimally affected by non-ferrous materials, a novel magnetic signature sensor approach is presented. The static part of the system consists of at least two alternating current coils to excite an alternating magnetic field. The dynamic part leverages the magnetometer hardware, found in most smartphones, to measure the coil's magnetic field sampled at a fixed frequency. Further, an automatic set-up method of the system is described, where the measuring device only needs to be moved in between the coils.
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