驾驶疲劳EEG检测中二分类与三分类的对比研究
Comparative Study of Binary and Ternary Classification in EEG-Based Driving Fatigue Detection
DOI: 10.12677/csa.2026.169292, PDF,   
作者: 林靖涵:应急管理大学,应急通信与控制工程学院,河北 廊坊
关键词: 驾驶疲劳脑电信号疲劳检测分类策略深度学习Driving Fatigue Electroencephalogram Fatigue Detection Classification Strategy Deep Learning
摘要: 针对驾驶疲劳检测中分类策略选择不明确的问题,基于公开的多模态驾驶疲劳表型数据集MPD-DF,采用EEGConformer模型对比二分类(清醒vs.疲劳)与三分类(清醒vs.轻度疲劳vs.中重度疲劳)策略。实验采用样本级分层划分,经数据清洗、标签映射与被试内归一化后,二分类纳入33名有效被试,三分类纳入14名有效被试。结果表明,三分类任务测试集准确率达92.41%,精确率89.82%,召回率93.62%,F1分数91.55%,各项核心指标均优于二分类(准确率90.54%,F1 85.13%);其中三分类对中重度疲劳的召回率高达97.88%,临床预警价值突出。三分类策略通过保留疲劳程度的层级划分,有效降低了误报率并实现了对疲劳渐进过程的分级刻画,可为驾驶疲劳的分级预警与差异化干预提供可靠的识别依据。
Abstract: To address the ambiguity in classification strategy selection for driving fatigue detection, this study compares binary classification (wakefulness vs. fatigue) and ternary classification (wakefulness vs. light fatigue vs. moderate-severe fatigue) using the EEGConformer model on the public MPD-DF dataset. After data cleaning, label mapping, and subject-wise normalization, the binary task included 33 valid subjects and the ternary task included 14 valid subjects under stratified sample-level partitioning. Results show that the ternary task achieves a test accuracy of 92.41%, precision of 89.82%, recall of 93.62%, and F1-score of 91.55%, all superior to the binary task (accuracy 90.54%, F1 85.13%). Notably, the recall for moderate-severe fatigue in the ternary task reaches 97.88%, demonstrating prominent clinical early-warning value. By preserving the hierarchical division of fatigue levels, the ternary strategy effectively reduces false alarms and enables graded characterization of the fatigue progression process, providing a reliable basis for graded early warning and differentiated intervention in driving fatigue monitoring.
文章引用:林靖涵. 驾驶疲劳EEG检测中二分类与三分类的对比研究[J]. 计算机科学与应用, 2026, 16(9): 100-109. https://doi.org/10.12677/csa.2026.169292

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