Signal Propagation Analysis and Optimization of 5G Communication Network Based on Complex Function Theory

While 5G networks have revolutionized daily life and industrial applications, their signal propagation mechanisms face persistent challenges that limit performance. This paper systematically investigates the application of complex function theory to address these challenges and enhance 5G signal propagation. With cases, it analyzes the theory, demonstrating its benefits in enhancing signal processing precision, optimizing network coverage, and ensuring system stability. However, practical implementation challenges are identified, including: ideal models dont match real hardware, analytical methods are too complex for real-time tasks, and theres a gap between math and algorithms. To solve these, solutions like model correction (to address hardware non-idealities), the adoption of high-precision hardware and robust algorithms (to reduce computational complexity), and machine learning techniques (to bridge the math-algorithm gap) are proposed. This research provides a comprehensive framework for leveraging complex function theory to optimize 5G signal propagation, while also highlighting the necessity for future studies to validate these findings with real-world data and testing under extreme conditions.

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Publication Details

Journal
Theoretical and Natural Science
Published
2025-10-02
DOI
https://doi.org/10.54254/2753-8818/2026.hz27868
Primary Topic
Telecommunications and Broadcasting Technologies
Type
article
Field-Weighted Citation Impact
0.00
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article

Signal Propagation Analysis and Optimization of 5G Communication Network Based on Complex Function Theory

Ming‐Yang He, Tianyi Zhao
Theoretical and Natural Science
Telecommunications and Broadcasting Technologies
article

Signal Propagation Analysis and Optimization of 5G Communication Network Based on Complex Function Theory

Ming‐Yang He, Tianyi Zhao
article en

Abstract

While 5G networks have revolutionized daily life and industrial applications, their signal propagation mechanisms face persistent challenges that limit performance. This paper systematically investigates the application of complex function theory to address these challenges and enhance 5G signal propagation. With cases, it analyzes the theory, demonstrating its benefits in enhancing signal processing precision, optimizing network coverage, and ensuring system stability. However, practical implementation challenges are identified, including: ideal models dont match real hardware, analytical methods are too complex for real-time tasks, and theres a gap between math and algorithms. To solve these, solutions like model correction (to address hardware non-idealities), the adoption of high-precision hardware and robust algorithms (to reduce computational complexity), and machine learning techniques (to bridge the math-algorithm gap) are proposed. This research provides a comprehensive framework for leveraging complex function theory to optimize 5G signal propagation, while also highlighting the necessity for future studies to validate these findings with real-world data and testing under extreme conditions.

Theoretical and Natural ScienceVol. 143(1)
Building Bridges (US), Beijing International Studies University (CN)
Openalex Percentile: Top 58%
Telecommunications and Broadcasting Technologies
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