Exploring Seafarers’ Workload Recognition Model with EEG, ECG and Task Scenarios’ Complexity: A Bridge Simulation Study

Seafarers are prone to reduce behavioral reliability under high workloads, resulting in human errors and accidents. To explore the changes in seafarers’ workload and physiological activities under complex task conditions, a bridge simulator experiment was conducted to collect the EEG and ECG data of...

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Main Authors: Yue Ma, Qing Liu, Liu Yang
Format: Article
Language:English
Published: MDPI AG 2022-10-01
Series:Journal of Marine Science and Engineering
Subjects:
Online Access:https://www.mdpi.com/2077-1312/10/10/1438
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author Yue Ma
Qing Liu
Liu Yang
author_facet Yue Ma
Qing Liu
Liu Yang
author_sort Yue Ma
collection DOAJ
description Seafarers are prone to reduce behavioral reliability under high workloads, resulting in human errors and accidents. To explore the changes in seafarers’ workload and physiological activities under complex task conditions, a bridge simulator experiment was conducted to collect the EEG and ECG data of 23 seafarers. The power in different EEG sub-bands was extracted from a one-channel EEG acquisition headset employed by Welch’s method and ratio processing. The features such as root mean square of RR interval difference (RMSSD) were extracted from ECG. Then, an improved seafarer workload recognition method based on EEG combined with ECG and complex task scenarios was proposed, and the performance of the machine learning algorithm was evaluated by cross-validation. Compared with the recognition model that only uses the task scenarios as the workload calibration, the EEG recognition model based on the workload level calibrated by the ECG and the task scenarios is more effective, with an accuracy rate of 92.5%, an increase of 25.9%. The results show that the improved workload recognition model can effectively identify seafarers’ workload, and the model trained with the bagging algorithm has the best performance. Furthermore, time domain features of EEG and ECG fluctuate regularly with the task scenarios’ complexity. The research results can develop online intelligent monitoring, and human–computer interaction active early warning technology and equipment.
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spelling doaj.art-afa632fd92584e5b873d2084e62c99a92023-11-24T00:44:14ZengMDPI AGJournal of Marine Science and Engineering2077-13122022-10-011010143810.3390/jmse10101438Exploring Seafarers’ Workload Recognition Model with EEG, ECG and Task Scenarios’ Complexity: A Bridge Simulation StudyYue Ma0Qing Liu1Liu Yang2School of Transportation and Logistics Engineering, Wuhan University of Technology, Wuhan 430063, ChinaSchool of Transportation and Logistics Engineering, Wuhan University of Technology, Wuhan 430063, ChinaSchool of Transportation and Logistics Engineering, Wuhan University of Technology, Wuhan 430063, ChinaSeafarers are prone to reduce behavioral reliability under high workloads, resulting in human errors and accidents. To explore the changes in seafarers’ workload and physiological activities under complex task conditions, a bridge simulator experiment was conducted to collect the EEG and ECG data of 23 seafarers. The power in different EEG sub-bands was extracted from a one-channel EEG acquisition headset employed by Welch’s method and ratio processing. The features such as root mean square of RR interval difference (RMSSD) were extracted from ECG. Then, an improved seafarer workload recognition method based on EEG combined with ECG and complex task scenarios was proposed, and the performance of the machine learning algorithm was evaluated by cross-validation. Compared with the recognition model that only uses the task scenarios as the workload calibration, the EEG recognition model based on the workload level calibrated by the ECG and the task scenarios is more effective, with an accuracy rate of 92.5%, an increase of 25.9%. The results show that the improved workload recognition model can effectively identify seafarers’ workload, and the model trained with the bagging algorithm has the best performance. Furthermore, time domain features of EEG and ECG fluctuate regularly with the task scenarios’ complexity. The research results can develop online intelligent monitoring, and human–computer interaction active early warning technology and equipment.https://www.mdpi.com/2077-1312/10/10/1438seafarerworkloadEEGECGmachine learningbridge simulation
spellingShingle Yue Ma
Qing Liu
Liu Yang
Exploring Seafarers’ Workload Recognition Model with EEG, ECG and Task Scenarios’ Complexity: A Bridge Simulation Study
Journal of Marine Science and Engineering
seafarer
workload
EEG
ECG
machine learning
bridge simulation
title Exploring Seafarers’ Workload Recognition Model with EEG, ECG and Task Scenarios’ Complexity: A Bridge Simulation Study
title_full Exploring Seafarers’ Workload Recognition Model with EEG, ECG and Task Scenarios’ Complexity: A Bridge Simulation Study
title_fullStr Exploring Seafarers’ Workload Recognition Model with EEG, ECG and Task Scenarios’ Complexity: A Bridge Simulation Study
title_full_unstemmed Exploring Seafarers’ Workload Recognition Model with EEG, ECG and Task Scenarios’ Complexity: A Bridge Simulation Study
title_short Exploring Seafarers’ Workload Recognition Model with EEG, ECG and Task Scenarios’ Complexity: A Bridge Simulation Study
title_sort exploring seafarers workload recognition model with eeg ecg and task scenarios complexity a bridge simulation study
topic seafarer
workload
EEG
ECG
machine learning
bridge simulation
url https://www.mdpi.com/2077-1312/10/10/1438
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AT liuyang exploringseafarersworkloadrecognitionmodelwitheegecgandtaskscenarioscomplexityabridgesimulationstudy