Why the study?
Automated epilepsy screening algorithms are typically biased toward either signal processing or deep learning, presenting subjective advantages and disadvantages.
Does a deep transformer model with Fourier transform feature extraction improve epileptic seizure prediction on EEG?
Does a deep transformer model with Fourier transform feature extraction improve epileptic seizure prediction on EEG?
A novel deep learning transformer model with Fourier transform feature extraction demonstrates high sensitivity and low false-positive rates for automated epileptic seizure prediction using EEG signals.
May aid automated epilepsy screening; leaves open large-scale prospective validation before clinical use.
The electroencephalogram (EEG) is the most promising and efficient technique to study epilepsy and record all the electrical activity going in our brain. Automated screening of epilepsy through data-driven algorithms reduces the manual workload of doctors to diagnose epilepsy. New algorithms are biased either towards signal processing or deep learning, which holds subjective advantages and disadvantages. The proposed pipeline is an end-to-end automated seizure prediction framework with a Fourier transform feature extraction and deep learning-based transformer model, a blend of signal processing and deep learning - this imbibes the potential features to automatically identify the attentive regions in EEG signals for effective screening. The proposed pipeline has demonstrated superior performance on the benchmark dataset with average sensitivity and false-positive rate per hour (FPR/h) as 98.46%, 94.83% and 0.12439, 0, respectively. The proposed work shows great results on the benchmark datasets and a big potential for clinics as a support system with medical experts monitoring the patients.
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A 2021 study studied this question.
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