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PMMCT: A Parallel Multimodal CNN-Transformer Model to Detect Slow Eye Movement for Recognizing Driver Sleepiness
Yingying Jiao1, Jiajia Zhang1, Zhuqing Jiao1
1School of Computer Science and Artificial Intelligence, Aliyun School of Big Data, Changzhou University, Changzhou 213159, China.
Sensors (Basel, Switzerland)
|September 27, 2025
Summary
Detecting sleep onset period (SOP) in drivers using slow eye movements (SEM) is crucial for road safety. A novel Parallel Multimodal CNN-Transformer model accurately identifies SEM, significantly reducing accidents.
Area of Science:
- Neuroscience
- Computer Science
- Transportation Safety
Background:
- Sleepiness at the wheel is a significant cause of road traffic accidents.
- Slow eye movement (SEM) is a reliable physiological indicator of the sleep onset period (SOP).
- Accurate detection of SOP is vital for preventing drowsy driving incidents.
Purpose of the Study:
- To propose and evaluate a novel Parallel Multimodal CNN-Transformer (PMMCT) model for detecting SEM and recognizing drivers' SOP.
- To assess the performance of the PMMCT model using bimodal signal combinations.
- To compare the PMMCT model's efficacy against existing deep learning architectures.
Main Methods:
- Development of a PMMCT model with parallel feature extraction modules using convolutional layers and Transformer encoder layers.
- Processing of bimodal signals, specifically HEOG + O2 and HEOG + HSUM (a novel combination capturing EEG-like features).
- Fusion of extracted features and classification using fully connected layers.
Main Results:
- The PMMCT model achieved high performance, with average classification accuracy of 99.89% and F1-score of 99.35%.
- The HEOG + HSUM combination performed comparably to HEOG + O2 and outperformed unimodal HEOG by 2.73% in F1-score.
- The model demonstrated minimal false positives (5.2) and false negatives (0.8), outperforming CNN, CNN-LSTM, and CNN-LSTM-Attention models.
Conclusions:
- The PMMCT model effectively detects SEM for recognizing drivers' SOP, combining CNNs' local feature extraction with Transformers' global temporal modeling.
- The HEOG + HSUM bimodal combination offers a promising alternative for SOP detection, potentially reducing the need for more complex EEG setups.
- The system provides superior performance with enhanced comfort for wearable applications, contributing to improved road safety.
