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February 14, 2023Physiological Measurement59 citationsOpen Access

SchizoNET: a robust and accurate Margenau–Hill time-frequency distribution based deep neural network model for schizophrenia detection using EEG signals

SKSmith K. KhareVBVarun BajajUAU. Rajendra Acharya

Key Result

The SchizoNET deep learning model achieved classification accuracies of 97.4%, 99.74%, and 96.35% across three independent public EEG datasets for the detection of schizophrenia.

Structured PICO

Does the SchizoNET model accurately detect schizophrenia using EEG signals?

P
Population
193 subjects, including 108 with schizophrenia and 85 healthy controls, from three public EEG datasets used to evaluate a deep learning diagnostic model.
I
Intervention
SchizoNET model combining Margenau–Hill time-frequency distribution (MH-TFD) and convolutional neural network (CNN) for EEG signal analysis
O
Outcome
Accuracy of schizophrenia detectionsurrogate

The SchizoNET model demonstrates high accuracy in detecting schizophrenia from EEG signals across multiple datasets.

Limitations

  • Deep learning models often have uncertain stability, requiring rigorous cross-validation to verify.

Abstract

Abstract Objective. Schizophrenia (SZ) is a severe chronic illness characterized by delusions, cognitive dysfunctions, and hallucinations that impact feelings, behaviour, and thinking. Timely detection and treatment of SZ are necessary to avoid long-term consequences. Electroencephalogram (EEG) signals are one form of a biomarker that can reveal hidden changes in the brain during SZ. However, the EEG signals are non-stationary in nature with low amplitude. Therefore, extracting the hidden information from the EEG signals is challenging. Approach. The time-frequency domain is crucial for the automatic detection of SZ. Therefore, this paper presents the SchizoNET model combining the Margenau–Hill time-frequency distribution (MH-TFD) and convolutional neural network (CNN). The instantaneous information of EEG signals is captured in the time-frequency domain using MH-TFD. The time-frequency amplitude is converted to two-dimensional plots and fed to the developed CNN model. Results. The SchizoNET model is developed using three different validation techniques, including holdout, five-fold cross-validation, and ten-fold cross-validation techniques using three separate public SZ datasets (Dataset 1, 2, and 3). The proposed model achieved an accuracy of 97.4%, 99.74%, and 96.35% on Dataset 1 (adolescents: 45 SZ and 39 HC subjects), Dataset 2 (adults: 14 SZ and 14 HC subjects), and Dataset 3 (adults: 49 SZ and 32 HC subjects), respectively. We have also evaluated six performance parameters and the area under the curve to evaluate the performance of our developed model. Significance. The SchizoNET is robust, effective, and accurate, as it performed better than the state-of-the-art techniques. To the best of our knowledge, this is the first work to explore three publicly available EEG datasets for the automated detection of SZ. Our SchizoNET model can help neurologists detect the SZ in various scenarios.

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Cite This Study

Khare et al. (2023) studied Schizophrenia (n=193). SchizoNET (Margenau-Hill time-frequency distribution based CNN) vs. Healthy controls was evaluated on Classification accuracy for schizophrenia detection. The SchizoNET deep learning model achieved classification accuracies of 97.4%, 99.74%, and 96.35% across three independent public EEG datasets for the detection of schizophrenia.

synapsesocial.com/papers/6a8ecc0f8cfc62bc787d8c68https://doi.org/10.1088/1361-6579/acbc06
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