Intelligent Management and Control of Massive Terminal Access Based on 5G Power Virtual Private Network

This paper proposes an innovative intelligent management scheme, which optimizes terminal access and network resource allocation through slice allocation algorithm to improve the efficiency and stability of 5G power virtual private network. In this scheme, firstly, a slice allocation algorithm that adapts to the characteristics of the power system is designed to meet the massive terminal access needs in the power system. The algorithm efficiently accomplishes the decentralized management of terminals via dynamic distribution of network resources and diminishes the risk of network congestion. Additionally., the performance of the algorithm in various terminal load and bandwidth requirement scenarios is verified through the construction of a mathematical model simulation. The simulation outcomes indicate that the proposed algorithm is better than the traditional algorithm in terminal access control and resource distribution. Particularly when the number of terminals exceeds 5.,000., the system response time is noticeably shortened., the network utilization ratio is increased by approximately 15%., and the congestion rate is decreased to 60% of the original. This method reduces the consumption of network resources while ensuring the efficient access and stable operation of power system terminals. This study not only provides an effective solution for the intelligent management of 5G power virtual private network., but also lays a technical foundation for the widespread application of smart grids in the future.

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Publication Details

Published
2024-11-22
DOI
https://doi.org/10.1109/icdsca63855.2024.10860110
Primary Topic
Power Systems and Technologies
Type
article
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article

Intelligent Management and Control of Massive Terminal Access Based on 5G Power Virtual Private Network

Guoyi Zhang, Tianyu Chen, Jiaqi Hu, Yu Huang et al.
Power Systems and Technologies
article

Intelligent Management and Control of Massive Terminal Access Based on 5G Power Virtual Private Network

Guoyi Zhang, Tianyu Chen, Jiaqi Hu, Yu Huang, Hailong Zhu, Junyi Xie
article en

Abstract

This paper proposes an innovative intelligent management scheme, which optimizes terminal access and network resource allocation through slice allocation algorithm to improve the efficiency and stability of 5G power virtual private network. In this scheme, firstly, a slice allocation algorithm that adapts to the characteristics of the power system is designed to meet the massive terminal access needs in the power system. The algorithm efficiently accomplishes the decentralized management of terminals via dynamic distribution of network resources and diminishes the risk of network congestion. Additionally., the performance of the algorithm in various terminal load and bandwidth requirement scenarios is verified through the construction of a mathematical model simulation. The simulation outcomes indicate that the proposed algorithm is better than the traditional algorithm in terminal access control and resource distribution. Particularly when the number of terminals exceeds 5.,000., the system response time is noticeably shortened., the network utilization ratio is increased by approximately 15%., and the congestion rate is decreased to 60% of the original. This method reduces the consumption of network resources while ensuring the efficient access and stable operation of power system terminals. This study not only provides an effective solution for the intelligent management of 5G power virtual private network., but also lays a technical foundation for the widespread application of smart grids in the future.

City University of Hong Kong (HK), China Southern Power Grid (China) (CN)
Openalex Percentile: Top 75%
Power Systems and Technologies
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