A hybrid CNN+MC-Dropout+BiLSTM system recognizes 14 RF modulation types with 92.6% accuracy by routing high-uncertainty samples to a temporal model.
AI/ML-Based Automatic Modulation Recognition: Recent Trends and Future Possibilities
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abstract
We present a review of high-performance automatic modulation recognition (AMR) models proposed in the literature to classify various Radio Frequency (RF) modulation schemes. We replicated these models and compared their performance in terms of accuracy across a range of signal-to-noise ratios. To ensure a fair comparison, we used the same dataset (RadioML-2016A), the same hardware, and a consistent definition of test accuracy as the evaluation metric, thereby providing a benchmark for future AMR studies. The hyperparameters were selected based on the authors' suggestions in the associated references to achieve results as close as possible to the originals. The replicated models are publicly accessible for further analysis of AMR models. We also present the test accuracies of the selected models versus their number of parameters, indicating their complexities. Building on this comparative analysis, we identify strategies to enhance these models' performance. Finally, we present potential opportunities for improvement, whether through novel architectures, data processing techniques, or training strategies, to further advance the capabilities of AMR models.
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An Uncertainty-Driven Hybrid Deep Learning Approach for Broad-Coverage RF Modulation Recognition
A hybrid CNN+MC-Dropout+BiLSTM system recognizes 14 RF modulation types with 92.6% accuracy by routing high-uncertainty samples to a temporal model.