NeuroSpectrum Deep Learning Architecture for Automated Spectrum Analysis Resource Optimization

Reducing the availability of spectrum, as well as the nature of allocating channels in the present wireless telecommunication networks, is one of the critical issues facing modern wireless technology. Such spectrum sensing methods may not be highly flexible or efficient in environments where the radio spectrum undergoes frequent changes. This work proposes an improved deep learning spectrum sensing model based on CNN with reinforcement learning. The proposed system design calls for a pioneering dual mechanism, incorporating both spectrum analysis and a resource allocation learning model. The framework achieved remarkable performance metrics: 96 The spectrum sensing method achieved a 3% occurrence rate, a 94.8% precision rate for resource allocation, and a 92.7% efficiency in dynamic spectrum use. In the present investigation, we have employed it for different topologies and got 45% improvement in spectrum efficiency and 87% less interference than the conventional techniques. The work challenges deep learning-based spectrum sensing as well as management and indicates that they are prepared for the following generation of the wireless communication network.

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Publication Details

Published
2025-02-21
DOI
https://doi.org/10.1109/icicacs65178.2025.10968971
Primary Topic
Sparse and Compressive Sensing Techniques
Type
article
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NeuroSpectrum Deep Learning Architecture for Automated Spectrum Analysis Resource Optimization

B. Buvaneswari, S. Santhiya, K. Tamilselvan, Mukesh Soni et al.
Sparse and Compressive Sensing Techniques
article

NeuroSpectrum Deep Learning Architecture for Automated Spectrum Analysis Resource Optimization

B. Buvaneswari, S. Santhiya, K. Tamilselvan, Mukesh Soni, T. Senthil
article en

Abstract

Reducing the availability of spectrum, as well as the nature of allocating channels in the present wireless telecommunication networks, is one of the critical issues facing modern wireless technology. Such spectrum sensing methods may not be highly flexible or efficient in environments where the radio spectrum undergoes frequent changes. This work proposes an improved deep learning spectrum sensing model based on CNN with reinforcement learning. The proposed system design calls for a pioneering dual mechanism, incorporating both spectrum analysis and a resource allocation learning model. The framework achieved remarkable performance metrics: 96 The spectrum sensing method achieved a 3% occurrence rate, a 94.8% precision rate for resource allocation, and a 92.7% efficiency in dynamic spectrum use. In the present investigation, we have employed it for different topologies and got 45% improvement in spectrum efficiency and 87% less interference than the conventional techniques. The work challenges deep learning-based spectrum sensing as well as management and indicates that they are prepared for the following generation of the wireless communication network.

Lovely Professional University (IN), Vel Tech Rangarajan Dr. Sagunthala R&D Institute of Science and Technology (IN), Excel Life Sciences (India) (IN)
Openalex Percentile: Top 91%
Sparse and Compressive Sensing Techniques
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NeuroSpectrum Deep Learning Architecture for Automated Spectrum Analysis Resource Optimization — B. Buvaneswari, S. Santhiya, et al. · (2025) | TGRS Research Map | TGRS