TY - JOUR
T1 - Prediction of drowsiness using EEG signals in young Indonesian drivers
AU - Puspasari, Maya Arlini
AU - Syaifullah, Danu Hadi
AU - Iqbal, Billy Muhamad
AU - Afranovka, Valda Aqila
AU - Madani, Safa Talitha
AU - Susetyo, Armand Khalif
AU - Arista, Salsabila Annisa
N1 - Funding Information:
The research is supported by PUTI Q2 Grant in 2022 and is funded by the Directorate of Research and Community Service (DRPM) Universitas Indonesia, No. NKB-697/UN2.RST/HKP.05.00/2022. This research is also approved by The Research and Community Engagement Ethical Committee Faculty of Public Health Universitas Indonesia as a local ethical committee (ethical approval number Ket-548/UN2.F10.D11/PPM.00.02/2022).
Funding Information:
The research is supported by PUTI Q2 Grant in 2022 and is funded by the Directorate of Research and Community Service ( DRPM ) Universitas Indonesia , No. NKB-697/UN2.RST/HKP.05.00/2022. This research is also approved by The Research and Community Engagement Ethical Committee Faculty of Public Health Universitas Indonesia as a local ethical committee (ethical approval number Ket-548/UN2.F10.D11/PPM.00.02/2022).
Publisher Copyright:
© 2023 The Authors
PY - 2023/9
Y1 - 2023/9
N2 - Indonesia is among the countries with the highest accident rates in the world. Fatigue and drowsiness are among the main causes of the increased risks of accidents in the road transport sector. Sleep-related factors (quality and quantity, time of day) and work-related factors significantly affect the development of fatigue. The EEG signal indicator is often referred to as the gold standard for measuring fatigue and drowsiness. However, previous studies focused primarily on the trends of EEG signals under certain conditions but overlooking the development of drowsiness indicators based on EEG signals. Furthermore, existing studies still do not agree on what parameters in the EEG signal indicator are best at detecting drowsiness. Thus, this study aims to design an EEG signal-based drowsiness indicator under simulated driving conditions. Drowsy drivers were monitored through EEG signal indicators and subjective assessments. The methods used in this study include statistical significance tests, logistic regression, and support vector machine. The results showed that sleep deprivation had a significant effect on increasing alpha, beta, and theta waves. In addition, driving duration significantly increased the theta power and all EEG ratios and decreased the beta power in the alert group. The ratio of (θ + α)/β and θ/β in the SD group also showed a considerable increase in the end of driving. Furthermore, sleep status and driving duration both influenced subjective sleepiness. EEG signals combined with sleep status and driving duration factors generated acceptable model accuracies (77.1% and 90.2% in training and testing, respectively), with 90.5% sensitivity and 90% specificity in data test. Support vector machine showed better classification than that of logistics regression, with the linear kernel as the best classifier. Theta power had the highest effect in the model compared with other EEG signals.
AB - Indonesia is among the countries with the highest accident rates in the world. Fatigue and drowsiness are among the main causes of the increased risks of accidents in the road transport sector. Sleep-related factors (quality and quantity, time of day) and work-related factors significantly affect the development of fatigue. The EEG signal indicator is often referred to as the gold standard for measuring fatigue and drowsiness. However, previous studies focused primarily on the trends of EEG signals under certain conditions but overlooking the development of drowsiness indicators based on EEG signals. Furthermore, existing studies still do not agree on what parameters in the EEG signal indicator are best at detecting drowsiness. Thus, this study aims to design an EEG signal-based drowsiness indicator under simulated driving conditions. Drowsy drivers were monitored through EEG signal indicators and subjective assessments. The methods used in this study include statistical significance tests, logistic regression, and support vector machine. The results showed that sleep deprivation had a significant effect on increasing alpha, beta, and theta waves. In addition, driving duration significantly increased the theta power and all EEG ratios and decreased the beta power in the alert group. The ratio of (θ + α)/β and θ/β in the SD group also showed a considerable increase in the end of driving. Furthermore, sleep status and driving duration both influenced subjective sleepiness. EEG signals combined with sleep status and driving duration factors generated acceptable model accuracies (77.1% and 90.2% in training and testing, respectively), with 90.5% sensitivity and 90% specificity in data test. Support vector machine showed better classification than that of logistics regression, with the linear kernel as the best classifier. Theta power had the highest effect in the model compared with other EEG signals.
KW - Drowsiness detection
KW - EEG signals
KW - Simulated driving
KW - Sleep deprivation
KW - Support vector machine
UR - http://www.scopus.com/inward/record.url?scp=85169507917&partnerID=8YFLogxK
U2 - 10.1016/j.heliyon.2023.e19499
DO - 10.1016/j.heliyon.2023.e19499
M3 - Article
AN - SCOPUS:85169507917
SN - 2405-8440
VL - 9
JO - Heliyon
JF - Heliyon
IS - 9
M1 - e19499
ER -