Why the study?
Deep learning for EEG analysis faces challenges from scarce and noisy data and limited generality of existing data augmentation techniques.
The proposed EEG augmentation framework and NeuroBrain architecture significantly improve auditory EEG decoding performance compared to existing models.
May enhance EEG deep learning models; leaves open validation before cardiovascular use.
Deep learning holds considerable promise for electroencephalography (EEG) analysis but faces challenges due to scarce and noisy EEG data, and the limited generality of existing data augmentation techniques. To address these issues, we propose an end-to-end EEG augmentation framework with an adaptive mechanism. This approach utilizes contrastive learning to mitigate representational distortions caused by augmentation, thereby strengthening the encoder's feature learning. A selective augmentation strategy is further incorporated to dynamically determine optimal augmentation combinations based on performance. We also introduce NeuroBrain, a novel neural architecture specifically designed for auditory EEG decoding. It effectively captures both local and global dependencies within EEG signals. Comprehensive evaluations on the SparrKULee and WithMe datasets confirm the superiority of our proposed framework and architecture, demonstrating a 29.42% performance gain over HappyQuokka and a 5.45% accuracy improvement compared to EEGNet. These results validate our method's efficacy in tackling key challenges in EEG analysis and advancing the state of the art.
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Ye et al. (2026) studied this question.
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