Coded environments: data-driven indoor localisation with reconfigurable intelligent surfaces

Syed Tariq Shah, Mahmoud A. Shawky, Jalil ur Rehman Kazim, Ahmad Taha, Shuja Ansari, Syed Faraz Hasan, Muhammad Ali Imran, Qammer H. Abbasi
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Abstract

Reconfigurable Intelligent Surfaces have recently emerged as a revolutionary next-generation wireless networks paradigm that harnesses engineered electromagnetic environments to reshape radio wave propagation. Pioneering research presented in this article establishes the viability of Reconfigurable Intelligent Surfaces-enhanced indoor localisation and charts a roadmap for its integration into next-generation wireless network architectures. Here, we present a comprehensive experimental analysis of a Reconfigurable Intelligent Surfaces-enabled indoor localisation scheme that evaluates the localisation accuracy of different machine learning algorithms under varying Reconfigurable Intelligent Surfaces states, antenna types, and communication setups. The results indicate that incorporating Reconfigurable Intelligent Surfaces can significantly enhance indoor localisation accuracy, achieving an impressive 82.4% success rate. Moreover, this study delves into system performance across varied communication modes and subcarrier configurations. This research is poised to lay the groundwork for implementing Reconfigurable Intelligent Surfaces-empowered joint sensing and communications in future next-generation wireless networks. Syed Tariq Shah and colleagues use multi-antenna reconfigurable surfaces to maximise the accuracy of wireless indoor localisation. They study the achievable performance improvement using pre-trained machine learning techniques.

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编码环境:利用可重构智能表面进行数据驱动的室内定位
可重构智能表面(Reconfigurable Intelligent Surfaces)是最近出现的一种革命性的下一代无线网络范例,它利用工程电磁环境重塑无线电波传播。本文介绍的开创性研究确立了可重构智能表面增强室内定位功能的可行性,并为将其集成到下一代无线网络架构中描绘了路线图。在此,我们对可重构智能表面支持的室内定位方案进行了全面的实验分析,评估了不同机器学习算法在不同的可重构智能表面状态、天线类型和通信设置下的定位精度。结果表明,采用可重构智能表面可显著提高室内定位精度,成功率高达 82.4%。此外,这项研究还深入探讨了不同通信模式和子载波配置下的系统性能。这项研究为在未来下一代无线网络中实现可重构智能表面驱动的联合传感和通信奠定了基础。Syed Tariq Shah 及其同事利用多天线可重构表面最大限度地提高了无线室内定位的准确性。他们研究了使用预训练机器学习技术可实现的性能改进。
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