期刊
IEEE TRANSACTIONS ON CIRCUITS AND SYSTEMS I-REGULAR PAPERS
卷 59, 期 9, 页码 2044-2055出版社
IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TCSI.2012.2185290
关键词
Drowsiness; drowsy state monitoring; electroencephalogram (EEG); neural fuzzy system; prediction
资金
- UST-UCSD International Center of Excellence in Advanced Bio-engineering
- Taiwan National Science Council I-RiCE Program [NSC-100-2911-I-009-101]
- Aiming for the Top University Plan of National Chiao Tung University
- Ministry of Education, Taiwan [100W963]
- VGHUST Joint Research Program, Tsou's Foundation, Taiwan [VGHUST100-G5-2-3]
- National Science Council, Taiwan [100-2628-E-009-027-MY3]
- Army Research Laboratory [W911NF-10-2-0022]
A generalized EEG-based Neural Fuzzy system to predict driver's drowsiness was proposed in this study. Driver's drowsy state monitoring system has been implicated as a causal factor for the safety driving issue, especially when the driver fell asleep or distracted in driving. However, the difficulties in developing such a system are lack of significant index for detecting the driver's drowsy state in real-time and the interference of the complicated noise in a realistic and dynamic driving environment. In our past studies, we found that the electroencephalogram (EEG) power spectrum changes were highly correlated with the driver's behavior performance especially the occipital component. Different from presented subject-dependent drowsy state monitor systems, whose system performance may decrease rapidly when different subject applies with the drowsiness detection model constructed by others, in this study, we proposed a generalized EEG-based Self-organizing Neural Fuzzy system to monitor and predict the driver's drowsy state with the occipital area. Two drowsiness prediction models, subject-dependent and generalized cross-subject predictors, were investigated in this study for system performance analysis. Correlation coefficients and root mean square errors are showed as the experimental results and interpreted the performances of the proposed system significantly better than using other traditional Neural Networks (p-value <0.038). Besides, the proposed EEG-based Self-organizing Neural Fuzzy system can be generalized and applied in the subjects' independent sessions. This unique advantage can be widely used in the real-life applications.
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