基于 T-RL 分区路径模型的 WSN 室内定位技术研究

Wei Wang;Xinlin Wang;Yutong Liu;Yulin Ren;Maozhen Li;Asoke K. Nandi
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引用次数: 0

摘要

为了解决墙壁和障碍物造成的接收信号强度指标(RSSI)不稳定和室内定位精度低等问题,无线通信系统的传播条件被分为两种不同的环境:视距(LOS)和非视距(NLOS)。在 LOS 环境中,采用传统的对数路径损耗模型。在 NLOS 环境中,考虑到墙壁对信号传输的影响,基于 T-RL 方法开发了多墙路径损耗模型,并对关键参数菲涅尔系数 R 进行了改进。实验结果表明,与传统的对数路径损耗模型相比,基于 T-RL 的多墙模型可将 NLOS 环境下的定位精度提高 47%。使用 T-RL 分区路径损耗模型的平均定位误差为 0.702 1 m,比对数路径损耗模型提高了 55.9%,比 T-RL 衰减多墙模型提高了 16.8%,从而提供了更好的环境适应性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Research on Indoor Positioning Technology of WSN based on T-RL Partition Path Model
To address the issues of unstable received signal strength indicator (RSSI) and low indoor positioning accuracy caused by walls and obstacles, the propagation conditions of the wireless communication system are categorized into two distinct environments: line-of-sight (LOS) and non-line-of-sight (NLOS). In the LOS environment, the traditional logarithmic path loss model is applied. For the NLOS environment, the impact of walls on signal transmission is considered, leading to the development of a multi-wall path loss model based on the T-RL method, with improvements made to the key parameter, the Fresnel coefficient R. The breakpoint value d = 2.3m in the partitioned model is determined, and the positional coordinates of the unknown nodes are calculated using the trilateration algorithm. Experimental results indicate that the T-RL based multi-wall model improves localization accuracy by 47% in NLOS environments compared to the traditional logarithmic path loss model. The average localization error using the T-RL partitioned path loss model is 0.702 1 m, representing a 55.9% improvement over the logarithmic path loss model and a 16.8% enhancement over the T-RL attenuation multi-wall model, thereby providing better environmental adaptability.
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