Adaptive Individual-Level Cognitive Driving Anomaly Detection Model Exclusively Using BSMs

Detecting drivers’ cognitive states poses a substantial challenge. In this context, cognitive driving anomalies have generally been regarded as stochastic disturbances. To the best of the author’s knowledge, existing safety studies in the realm of human Driving Anomaly Detection (DAD) utilizing vehi...

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Main Authors: Di Wu, Shuang Z. Tu, Robert W. Whalin, Li Zhang
Format: Article
Language:English
Published: MDPI AG 2023-09-01
Series:Vehicles
Subjects:
Online Access:https://www.mdpi.com/2624-8921/5/4/70
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author Di Wu
Shuang Z. Tu
Robert W. Whalin
Li Zhang
author_facet Di Wu
Shuang Z. Tu
Robert W. Whalin
Li Zhang
author_sort Di Wu
collection DOAJ
description Detecting drivers’ cognitive states poses a substantial challenge. In this context, cognitive driving anomalies have generally been regarded as stochastic disturbances. To the best of the author’s knowledge, existing safety studies in the realm of human Driving Anomaly Detection (DAD) utilizing vehicle trajectories have predominantly been conducted at an aggregate level, relying on data aggregated from multiple drivers or vehicles. However, to gain a more nuanced understanding of driving behavior at the individual level, a more detailed and granular approach is essential. To bridge this gap, we developed a Data Anomaly Detection (DAD) model designed to assess a driver’s cognitive abnormal driving status at the individual level, relying solely on Basic Safety Message (BSM) data. Our DAD model comprises both online and offline components, each of which analyzes historical and real-time Basic Safety Messages (BSMs) sourced from connected vehicles (CVs). The training data for the DAD model consist of historical BSMs collected from a specific CV over the course of a month, while the testing data comprise real-time BSMs collected at the scene. By shifting our focus from aggregate-level analysis to individual-level analysis, we believe that the DAD model can significantly contribute to a more comprehensive comprehension of driving behavior. Furthermore, when combined with a Conflict Identification (CIM) model, the DAD model has the potential to enhance the effectiveness of Advanced Driver Assistance Systems (ADAS), particularly in terms of crash avoidance capabilities. It is important to note that this paper is part of our broader research initiative titled “Automatic Safety Diagnosis in the Connected Vehicle Environment”, which has received funding from the Southeastern Transportation Research, Innovation, Development, and Education Center.
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spelling doaj.art-1c7f29cb2c7147adb795399ebb52e80e2023-12-22T14:47:43ZengMDPI AGVehicles2624-89212023-09-01541275129310.3390/vehicles5040070Adaptive Individual-Level Cognitive Driving Anomaly Detection Model Exclusively Using BSMsDi Wu0Shuang Z. Tu1Robert W. Whalin2Li Zhang3Computational and Data Enabled Science and Engineering Program, Jackson State University, Jackson, MS 39217, USADepartment of Electrical and Computer Engineering and Computer Science, Jackson State University, Jackson, MS 39217, USADepartment of Civil and Environmental Engineering and Industrial Systems and Technology, Jackson State University, Jackson, MS 39217, USARichard A. Rula School of Civil and Environmental Engineering, Mississippi State University, Mississippi State, MS 39762, USADetecting drivers’ cognitive states poses a substantial challenge. In this context, cognitive driving anomalies have generally been regarded as stochastic disturbances. To the best of the author’s knowledge, existing safety studies in the realm of human Driving Anomaly Detection (DAD) utilizing vehicle trajectories have predominantly been conducted at an aggregate level, relying on data aggregated from multiple drivers or vehicles. However, to gain a more nuanced understanding of driving behavior at the individual level, a more detailed and granular approach is essential. To bridge this gap, we developed a Data Anomaly Detection (DAD) model designed to assess a driver’s cognitive abnormal driving status at the individual level, relying solely on Basic Safety Message (BSM) data. Our DAD model comprises both online and offline components, each of which analyzes historical and real-time Basic Safety Messages (BSMs) sourced from connected vehicles (CVs). The training data for the DAD model consist of historical BSMs collected from a specific CV over the course of a month, while the testing data comprise real-time BSMs collected at the scene. By shifting our focus from aggregate-level analysis to individual-level analysis, we believe that the DAD model can significantly contribute to a more comprehensive comprehension of driving behavior. Furthermore, when combined with a Conflict Identification (CIM) model, the DAD model has the potential to enhance the effectiveness of Advanced Driver Assistance Systems (ADAS), particularly in terms of crash avoidance capabilities. It is important to note that this paper is part of our broader research initiative titled “Automatic Safety Diagnosis in the Connected Vehicle Environment”, which has received funding from the Southeastern Transportation Research, Innovation, Development, and Education Center.https://www.mdpi.com/2624-8921/5/4/70driving statusanomalyoutlier detectionBSMcrashCV
spellingShingle Di Wu
Shuang Z. Tu
Robert W. Whalin
Li Zhang
Adaptive Individual-Level Cognitive Driving Anomaly Detection Model Exclusively Using BSMs
Vehicles
driving status
anomaly
outlier detection
BSM
crash
CV
title Adaptive Individual-Level Cognitive Driving Anomaly Detection Model Exclusively Using BSMs
title_full Adaptive Individual-Level Cognitive Driving Anomaly Detection Model Exclusively Using BSMs
title_fullStr Adaptive Individual-Level Cognitive Driving Anomaly Detection Model Exclusively Using BSMs
title_full_unstemmed Adaptive Individual-Level Cognitive Driving Anomaly Detection Model Exclusively Using BSMs
title_short Adaptive Individual-Level Cognitive Driving Anomaly Detection Model Exclusively Using BSMs
title_sort adaptive individual level cognitive driving anomaly detection model exclusively using bsms
topic driving status
anomaly
outlier detection
BSM
crash
CV
url https://www.mdpi.com/2624-8921/5/4/70
work_keys_str_mv AT diwu adaptiveindividuallevelcognitivedrivinganomalydetectionmodelexclusivelyusingbsms
AT shuangztu adaptiveindividuallevelcognitivedrivinganomalydetectionmodelexclusivelyusingbsms
AT robertwwhalin adaptiveindividuallevelcognitivedrivinganomalydetectionmodelexclusivelyusingbsms
AT lizhang adaptiveindividuallevelcognitivedrivinganomalydetectionmodelexclusivelyusingbsms