Table 7.
Comparison between the proposed algorithm and existing works for driver stress prediction.
Work | Nature of Dataset | Dataset | Features | Methodology | Time of In-Advance Prediction (s) | Cross-Validation | Results |
---|---|---|---|---|---|---|---|
[19] | Simulated | 27 participants; 20,160 samples | Contextual data; vehicle data; ECG | CNN; LSTM | 5 | No | Accuracy = 92.8% |
[20] | Simulated | 27 participants; 20,160 samples | Environmental data; vehicle dynamics; eye data | CNN; LSTM; self-attention mechanism | 5 | 10-fold | Accuracy = 95.5% |
[21] | Simulated | 3 participants; 150 normal samples and 150 stressed samples | HRV; speed and intensity of turning of vehicle | DBN | 60 | 10-fold | Specificity = 62.7–83.6%; Sensitivity = 61.7–82.3% |
[22] | Simulated | 5 participants; unspecified samples | HRV; weather | NB | 30 | 10-fold | Accuracy = 78.3% |
[23] | Real-world | 1 participant; 64 low stress samples and 75 high stress samples | Accelerometer; EDA; PPG | LR | 60 | 10-fold | Specificity = 86.7%; Sensitivity = 60.9% |
Proposed | Real-world | 18 participants; 40,000 LSL samples, 38,000 MSL samples, 16,000 HSL samples | ECG | NSGA-III optimized RNN-GRU-LSTM algorithm | 1–60 | 10-fold | Accuracy = 71.2–93.1% |
Convolutional neural network (CNN); deep belief network (DBN); electrocardiogram (ECG); electrodermal activity (EDA); heart rate variability (HRV); high stress level (HSL); logistic regression (LR); low stress level (LSL); long short-term memory (LSTM); medium stress level (MSL); Naive Bayes (NB); photoplethysmography (PPG).