Multimodal Phenotyping Dataset of Driving Fatigue

Driving fatigue analysis using multimodal physiological signals has become a growing focus in human factor engineering research. We introduce the Multimodal Phenotyping Dataset of Driving Fatigue (MPD-DF), a public resource comprising data from 50 participants (35 females and 15 males) during a standardized 2-hour simulated driving task. The dataset includes multidimensional subjective and objective metrics for fatigue assessment, comprising multimodal physiological recordings (32-channel electroencephalogram, single-lead electrocardiogram, dual-channel electrooculogram, and thoracic respiratory effort signals), fatigue-associated questionnaire results, and expert physician annotations of fatigue levels. To the best of our knowledge, it contains the largest number of signal modalities and provides the first physician-annotated, EEG-based fatigue labels among existing public datasets. The dataset validity was evaluated across multiple dimensions, including fatigue induction efficacy, statistical analysis of questionnaire outcomes, physiological signal quality, and correlations between physiological signals and annotated fatigue levels. This extensively characterized and validated dataset provides a benchmark resource for developing fatigue detection algorithms, facilitating cross-dataset validation, and advancing mechanistic studies of driving fatigue to enhance transportation safety.

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Publication Details

Journal
Scientific Data
Published
2026-01-22
DOI
https://doi.org/10.1038/s41597-026-06634-4
Primary Topic
Sleep and Work-Related Fatigue
Type
article
Field-Weighted Citation Impact
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article

Multimodal Phenotyping Dataset of Driving Fatigue

Jingchun Luo, Jinbu Tang, Cong Fu, Chen Chen et al.
Scientific Data
Sleep and Work-Related Fatigue
article

Multimodal Phenotyping Dataset of Driving Fatigue

Jingchun Luo, Jinbu Tang, Cong Fu, Chen Chen, Hao Chen, Jiayi Li, Ligang Zhou, Wei Zhou
article en

Abstract

Driving fatigue analysis using multimodal physiological signals has become a growing focus in human factor engineering research. We introduce the Multimodal Phenotyping Dataset of Driving Fatigue (MPD-DF), a public resource comprising data from 50 participants (35 females and 15 males) during a standardized 2-hour simulated driving task. The dataset includes multidimensional subjective and objective metrics for fatigue assessment, comprising multimodal physiological recordings (32-channel electroencephalogram, single-lead electrocardiogram, dual-channel electrooculogram, and thoracic respiratory effort signals), fatigue-associated questionnaire results, and expert physician annotations of fatigue levels. To the best of our knowledge, it contains the largest number of signal modalities and provides the first physician-annotated, EEG-based fatigue labels among existing public datasets. The dataset validity was evaluated across multiple dimensions, including fatigue induction efficacy, statistical analysis of questionnaire outcomes, physiological signal quality, and correlations between physiological signals and annotated fatigue levels. This extensively characterized and validated dataset provides a benchmark resource for developing fatigue detection algorithms, facilitating cross-dataset validation, and advancing mechanistic studies of driving fatigue to enhance transportation safety.

Scientific DataVol. 13(1)
Fudan University (CN), Nanjing University of Science and Technology (CN), Pudong Medical Center (CN), Huashan Hospital (CN)
Industry, innovation and infrastructure
Openalex Percentile: Top 84%
Sleep and Work-Related Fatigue
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