Enhanced Channel Estimation Using Dilated Convolutional LSTM in CRN‐IoT Systems

ABSTRACT Cognitive Radio Networks (CRN) inside the Internet of Things (IoT) provide dynamic spectrum management, improving communication efficiency through the utilization of underutilized frequency segments. Current deep learning models for channel estimation in cognitive radio networks encounter issues including elevated computing complexity, sluggish adaptability to swiftly changing settings, and limitations in managing the varied characteristics of IoT devices. The Adaptive Skip‐based Convolutional Deep‐Skip Long Short‐Term Memory (AdSk‐based ConvD‐SkipLSTM) model effectively resolves these challenges by delivering expedited and precise spectrum sensing and channel estimation, hence enhancing overall network performance. The identification of unused spectrum bands is conducted by the energy detection method. Subsequently, channel estimation is executed utilizing the proposed AdSk‐based ConvD‐SkipLSTM model. The suggested model improves the precision and efficacy of channel estimation, guaranteeing dependable communication. The proposed channel estimation model is evaluated using metrics such as normalized mean square error (NMSE), outage probability, and bit error rate (BER), demonstrating superior performance compared to traditional channel estimation techniques. The proposed method achieved a minimal BER of 1.62E‐06 in comparison to current channel estimating techniques.

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Publication Details

Journal
International Journal of Communication Systems
Published
2025-03-19
DOI
https://doi.org/10.1002/dac.70068
Citations
3
Primary Topic
Power Line Communications and Noise
Type
article
Field-Weighted Citation Impact
2.19
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article

Enhanced Channel Estimation Using Dilated Convolutional LSTM in CRN‐IoT Systems

R. Dharani, K. Danesh
3 citations
International Journal of Communication Systems
Power Line Communications and Noise
2.19
article

Enhanced Channel Estimation Using Dilated Convolutional LSTM in CRN‐IoT Systems

R. Dharani, K. Danesh
article en
3 citations

Abstract

ABSTRACT Cognitive Radio Networks (CRN) inside the Internet of Things (IoT) provide dynamic spectrum management, improving communication efficiency through the utilization of underutilized frequency segments. Current deep learning models for channel estimation in cognitive radio networks encounter issues including elevated computing complexity, sluggish adaptability to swiftly changing settings, and limitations in managing the varied characteristics of IoT devices. The Adaptive Skip‐based Convolutional Deep‐Skip Long Short‐Term Memory (AdSk‐based ConvD‐SkipLSTM) model effectively resolves these challenges by delivering expedited and precise spectrum sensing and channel estimation, hence enhancing overall network performance. The identification of unused spectrum bands is conducted by the energy detection method. Subsequently, channel estimation is executed utilizing the proposed AdSk‐based ConvD‐SkipLSTM model. The suggested model improves the precision and efficacy of channel estimation, guaranteeing dependable communication. The proposed channel estimation model is evaluated using metrics such as normalized mean square error (NMSE), outage probability, and bit error rate (BER), demonstrating superior performance compared to traditional channel estimation techniques. The proposed method achieved a minimal BER of 1.62E‐06 in comparison to current channel estimating techniques.

International Journal of Communication SystemsVol. 38(7)
SRM Institute of Science and Technology (IN), Saveetha University (IN)
Openalex Percentile: Top 13%
Power Line Communications and Noise
2.19
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