Automatic Modulation Recognition algorithm based on phase transformation and ResCNN-BiLSTM

Aiming at the problem that the recognition rate of existing automatic modulation recognition models needs to be improved under high signal-to-noise ratio conditions, a model consisting of phase transformation, residual CNN network and bidirectional LSTM network is proposed. First, the DeepSig RadioML 2018.01A dataset is normalized as the model input; the phase parameter is extracted through the phase recognition module, and then the phase is corrected according to the phase parameter; then the spatial features are extracted through the residual CNN network to avoid gradient vanishing and explosion; then the data is passed to the bidirectional LSTM network to extract the bidirectional time series features of the data; finally, the deep neural network is used for classification and recognition. Experimental results show that under high signal-to-noise ratio conditions, the model improves the recognition rate of modulation modes such as 16PSK, and the highest recognition rate and average recognition rate reach 96.79% and 62.13% respectively. Compared with other existing models, the overall optimization of recognition rate and model efficiency is achieved.

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Publication Details

Journal
Advances in Engineering Innovation
Published
2025-04-30
DOI
https://doi.org/10.54254/2977-3903/2025.22660
Citations
1
Primary Topic
Wireless Signal Modulation Classification
Type
article
Field-Weighted Citation Impact
2.48
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article

Automatic Modulation Recognition algorithm based on phase transformation and ResCNN-BiLSTM

Yixuan Chen
1 citations
Advances in Engineering Innovation
Wireless Signal Modulation Classification
2.48
article

Automatic Modulation Recognition algorithm based on phase transformation and ResCNN-BiLSTM

Yixuan Chen
article en
1 citations

Abstract

Aiming at the problem that the recognition rate of existing automatic modulation recognition models needs to be improved under high signal-to-noise ratio conditions, a model consisting of phase transformation, residual CNN network and bidirectional LSTM network is proposed. First, the DeepSig RadioML 2018.01A dataset is normalized as the model input; the phase parameter is extracted through the phase recognition module, and then the phase is corrected according to the phase parameter; then the spatial features are extracted through the residual CNN network to avoid gradient vanishing and explosion; then the data is passed to the bidirectional LSTM network to extract the bidirectional time series features of the data; finally, the deep neural network is used for classification and recognition. Experimental results show that under high signal-to-noise ratio conditions, the model improves the recognition rate of modulation modes such as 16PSK, and the highest recognition rate and average recognition rate reach 96.79% and 62.13% respectively. Compared with other existing models, the overall optimization of recognition rate and model efficiency is achieved.

Advances in Engineering InnovationVol. 16(4)
Shanghai Jiao Tong University (CN)
Openalex Percentile: Top 11%
Wireless Signal Modulation Classification
2.48
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Automatic Modulation Recognition algorithm based on phase transformation and ResCNN-BiLSTM — Yixuan Chen · Advances in Engineering Innovation (2025) | TGRS Research Map | TGRS