A Novel Crowdsourcing-Assisted 5G Wireless Signal Ranging Technique in MEC Architecture

In complex indoor and outdoor scenarios, traditional GPS-based ranging technology faces limitations in availability due to signal occlusion and user privacy issues. Wireless signal ranging technology based on 5G base stations has emerged as a potential alternative. However, existing methods are limited by low efficiency in constructing static signal databases, poor environmental adaptability, and high resource overhead, restricting their practical application. This paper proposes a 5G wireless signal ranging framework that integrates mobile edge computing (MEC) and crowdsourced intelligence to systematically address the aforementioned issues. This study designs a progressive solution by (1) building a crowdsourced data collection network, using mobile terminals equipped with GPS technology to automatically collect device signal features, replacing inefficient manual drive tests; (2) developing a progressive signal update algorithm that integrates real-time crowdsourced data and historical signals to optimize the signal fingerprint database in dynamic environments; (3) establishing an edge service architecture to offload signal matching and trajectory estimation tasks to MEC nodes, using lightweight computing engines to reduce the load on the core network. Experimental results demonstrate a mean positioning error of 5 m, with 95% of devices achieving errors within 10 m, as well as building and floor prediction error rates of 0.5% and 1%, respectively. The proposed framework outperforms traditional static methods by 3× in ranging accuracy while maintaining computational efficiency, achieving significant improvements in environmental adaptability and service scalability.

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Publication Details

Journal
Future Internet
Published
2025-05-14
DOI
https://doi.org/10.3390/fi17050220
Primary Topic
PAPR reduction in OFDM
Type
article
Field-Weighted Citation Impact
0.00
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article

A Novel Crowdsourcing-Assisted 5G Wireless Signal Ranging Technique in MEC Architecture

Lei Shi, Yinlong Liu, Zhongkai Dang, Rui Lu
Future Internet
PAPR reduction in OFDM
article

A Novel Crowdsourcing-Assisted 5G Wireless Signal Ranging Technique in MEC Architecture

Lei Shi, Yinlong Liu, Zhongkai Dang, Rui Lu
article en

Abstract

In complex indoor and outdoor scenarios, traditional GPS-based ranging technology faces limitations in availability due to signal occlusion and user privacy issues. Wireless signal ranging technology based on 5G base stations has emerged as a potential alternative. However, existing methods are limited by low efficiency in constructing static signal databases, poor environmental adaptability, and high resource overhead, restricting their practical application. This paper proposes a 5G wireless signal ranging framework that integrates mobile edge computing (MEC) and crowdsourced intelligence to systematically address the aforementioned issues. This study designs a progressive solution by (1) building a crowdsourced data collection network, using mobile terminals equipped with GPS technology to automatically collect device signal features, replacing inefficient manual drive tests; (2) developing a progressive signal update algorithm that integrates real-time crowdsourced data and historical signals to optimize the signal fingerprint database in dynamic environments; (3) establishing an edge service architecture to offload signal matching and trajectory estimation tasks to MEC nodes, using lightweight computing engines to reduce the load on the core network. Experimental results demonstrate a mean positioning error of 5 m, with 95% of devices achieving errors within 10 m, as well as building and floor prediction error rates of 0.5% and 1%, respectively. The proposed framework outperforms traditional static methods by 3× in ranging accuracy while maintaining computational efficiency, achieving significant improvements in environmental adaptability and service scalability.

Future InternetVol. 17(5)
Chinese Academy of Sciences (CN), National Computer Network Emergency Response Technical Team/Coordination Center of Chinar (CN), Institute of Information Engineering (CN), University of Chinese Academy of Sciences (CN)
Openalex Percentile: Top 91%
PAPR reduction in OFDM
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