aiqbench analysis
This research introduces MotoTimePressure, a lightweight deep learning model designed to predict rider cognitive stress and risky behaviors in powered two-wheeler scenarios. By leveraging temporal attention mechanisms, the system significantly enhances collision prediction accuracy for existing forecasting models when integrated into intelligent transportation systems. The study provides a practical pathway for deploying proactive safety interventions, such as adaptive alerts and haptic feedback, to mitigate crashes caused by time pressure-induced maneuvers.
Predicting Time Pressure of Powered Two-Wheeler Riders for Proactive Safety Interventions
arXiv:2601.03173v4 Announce Type: replace Abstract: Time pressure critically influences risky maneuvers and crash proneness among powered two-wheeler riders, yet its prediction remains underexplored in intelligent transportation systems. To address this gap, we propose MotoTimePressure (MTPS), a deep learning model combining convolutional preprocessing, dual-stage temporal attention, and Squeeze-and-Excitation feature recalibration, achieving 91.53% accuracy and 98.93% ROC AUC, outperforming six baselines, with only 172K parameters, 0.66 MB model size, and 0.21 ms inference on CPU. To validate and benchmark MTPS, we present a dataset of 129,209 feature windows from 153 simulator sessions by 51 experienced male PTW riders under No, Low, and High Time Pressure conditions. Each sequence captures 63 features spanning vehicle kinematics, control inputs, behavioral violations, and environmental context. Our empirical analysis shows High Time Pressure induces 48% higher speeds, 36.4% greater speed variability, 58% more risky turns at intersections, 36% more sudden braking, and 50% higher rear brake forces versus No Time Pressure. Since time pressure cannot be directly measured in real time, we demonstrate its utility in collision prediction and threshold determination. Using MTPS-predicted time pressure as a feature improves collision risk accuracy for both Informer (91.25% to 93.51%) and TimesNet (92.10% to 93.90%), approaching oracle performance (93.72% and 94.06%, respectively). Thresholded time pressure states capture rider cognitive stress and enable proactive ITS interventions, including adaptive alerts, haptic feedback, V2I signaling, and speed guidance, supporting safer two-wheeler mobility under the Safe System Approach.
Abstract:Time pressure critically influences risky maneuvers and crash proneness among powered two-wheeler riders, yet its prediction remains underexplored in intelligent transportation systems. To address this gap, we propose MotoTimePressure (MTPS), a deep learning model combining convolutional preprocessing, dual-stage temporal attention, and Squeeze-and-Excitation feature recalibration, achieving 91.53% accuracy and 98.93% ROC AUC, outperforming six baselines, with only 172K parameters, 0.66 MB model size, and 0.21 ms inference on CPU. To validate and benchmark MTPS, we present a dataset of 129,209 feature windows from 153 simulator sessions by 51 experienced male PTW riders under No, Low, and High Time Pressure conditions. Each sequence captures 63 features spanning vehicle kinematics, control inputs, behavioral violations, and environmental context. Our empirical analysis shows High Time Pressure induces 48% higher speeds, 36.4% greater speed variability, 58% more risky turns at intersections, 36% more sudden braking, and 50% higher rear brake forces versus No Time Pressure. Since time pressure cannot be directly measured in real time, we demonstrate its utility in collision prediction and threshold determination. Using MTPS-predicted time pressure as a feature improves collision risk accuracy for both Informer (91.25% to 93.51%) and TimesNet (92.10% to 93.90%), approaching oracle performance (93.72% and 94.06%, respectively). Thresholded time pressure states capture rider cognitive stress and enable proactive ITS interventions, including adaptive alerts, haptic feedback, V2I signaling, and speed guidance, supporting safer two-wheeler mobility under the Safe System Approach.
Machine Learning (cs.LG); Human-Computer Interaction (cs.HC)
I.2.6; I.2.1; G.3
arXiv:2601.03173 [cs.LG]
(or arXiv:2601.03173v4 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2601.03173 Focus to learn more arXiv-issued DOI via DataCite
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Full text under the publisher's open licence · 328 words
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