Hybrid Quantum Deep Learning Model for Emotion Detection using raw EEG Signal Analysis

TL;DR

This paper introduces a hybrid quantum deep learning model that enhances emotion detection accuracy from raw EEG signals by combining classical deep learning with quantum feature extraction, addressing noise and high-dimensional data challenges.

Contribution

It presents a novel hybrid quantum-classical approach for EEG-based emotion recognition, integrating quantum representations of brain wave patterns with deep learning.

Findings

Model shows promising accuracy in emotion detection

Quantum feature extraction improves pattern recognition

Potential for real-time mental health monitoring

Abstract

Applications in behavioural research, human-computer interaction, and mental health depend on the ability to recognize emotions. In order to improve the accuracy of emotion recognition using electroencephalography (EEG) data, this work presents a hybrid quantum deep learning technique. Conventional EEG-based emotion recognition techniques are limited by noise and high-dimensional data complexity, which make feature extraction difficult. To tackle these issues, our method combines traditional deep learning classification with quantum-enhanced feature extraction. To identify important brain wave patterns, Bandpass filtering and Welch method are used as preprocessing techniques on EEG data. Intricate inter-band interactions that are essential for determining emotional states are captured by mapping frequency band power attributes (delta, theta, alpha, and beta) to quantum representations. Entanglement and rotation gates are used in a hybrid quantum circuit to maximize the model's sensitivity to EEG patterns associated with different emotions. Promising results from evaluation on a test dataset indicate the model's potential for accurate emotion recognition. The model will be extended for real-time applications and multi-class categorization in future study, which could improve EEG-based mental health screening instruments. This method offers a promising tool for applications in adaptive human-computer systems and mental health monitoring by showcasing the possibilities of fusing traditional deep learning with quantum processing for reliable, scalable emotion recognition.