Differentiating pilot distress and eustress via multimodal physiology: towards enhanced human-system integration in intelligent cockpits

Ensuring safety in next-generation intelligent cockpits demands accurate assessment of pilot states, particularly distinguishing between eustress and distress. Traditional stress monitoring lacks this nuance and struggles across varying flight tasks. This study proposes a multimodal neuro-cardiac framework combining functional near-infrared spectroscopy (fNIRS) and electrocardiography (ECG) to differentiate eustress and distress across tasks. Physiological data were collected from 35 participants under simulated flight missions inducing both stress types. Eleven features showing significant differentiation were identified and used to train classification models with machine learning algorithms. The model achieved 83.04% accuracy across tasks, and up to 90.83% within single tasks. These findings demonstrate the robustness of fNIRS-ECG-based monitoring in pilot stress classification. The proposed method offers objective biomarkers critical for adaptive intelligent cockpit systems, contributing directly to flight safety and human-machine interaction optimisation.

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Publication Details

Journal
Ergonomics
Published
2025-08-29
DOI
https://doi.org/10.1080/00140139.2025.2553131
Primary Topic
Human-Automation Interaction and Safety
Type
article
Field-Weighted Citation Impact
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article

Differentiating pilot distress and eustress via multimodal physiology: towards enhanced human-system integration in intelligent cockpits

Hui Xu, Keyong Zhu, Jiaying Zou, Runhao Li et al.
Ergonomics
Human-Automation Interaction and Safety
article

Differentiating pilot distress and eustress via multimodal physiology: towards enhanced human-system integration in intelligent cockpits

Hui Xu, Keyong Zhu, Jiaying Zou, Runhao Li, Lijing Wang, Wei Guo, Jun Zhang, Yanzeng Zhao
article en

Abstract

Ensuring safety in next-generation intelligent cockpits demands accurate assessment of pilot states, particularly distinguishing between eustress and distress. Traditional stress monitoring lacks this nuance and struggles across varying flight tasks. This study proposes a multimodal neuro-cardiac framework combining functional near-infrared spectroscopy (fNIRS) and electrocardiography (ECG) to differentiate eustress and distress across tasks. Physiological data were collected from 35 participants under simulated flight missions inducing both stress types. Eleven features showing significant differentiation were identified and used to train classification models with machine learning algorithms. The model achieved 83.04% accuracy across tasks, and up to 90.83% within single tasks. These findings demonstrate the robustness of fNIRS-ECG-based monitoring in pilot stress classification. The proposed method offers objective biomarkers critical for adaptive intelligent cockpit systems, contributing directly to flight safety and human-machine interaction optimisation.

Ergonomics
Zhejiang International Studies University (CN), Commercial Aircraft Corporation of China (China) (CN), Beihang University (CN)
Openalex Percentile: Top 74%
Human-Automation Interaction and Safety
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Differentiating pilot distress and eustress via multimodal physiology: towards enhanced human-system integration in intelligent cockpits — Hui Xu, Keyong Zhu, et al. · Ergonomics (2025) | TGRS Research Map | TGRS