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Title:

Predicting Red-light Running Violations at Signalized Intersections Using Machine Learning Techniques

Accession Number:

01550573

Record Type:

Component

Availability:

Transportation Research Board Business Office

500 Fifth Street, NW
Washington, DC 20001 United States

Abstract:

Statistics demonstrate that a large number of crashes occur at signalized intersections due to traffic violations, specifically red light running (RLR). In order to prevent/mitigate intersection-related crashes, these violations need to be identified before they occur, so appropriate warnings can be issued. Several factors influence the drivers’ behavior when approaching intersections. These include the vehicle speed, Time to Intersection (TTI), Distance to Intersection (DTI), age, gender, etc. However, the driver-related factors (i.e. age, gender) are more difficult to obtain in practice. On the other hand, kinetic factors (e.g. speed, acceleration) can be obtained by monitoring the movement of vehicles through video cameras installed on the infrastructure or through on-board devices installed on the vehicles. Hence, the problem of interest is to develop models to predict red light running (RLR) violations using kinetic information of individual drivers/vehicles. Machine learning techniques, namely Support Vector Machine (SVM) and Random Forest (RF), were adopted to develop prediction models. The minimum Redundancy Maximum Relevance (mRMR) feature selection technique was used to identify the most important factors for model development. To evaluate the performance of the models the 𝐾-fold cross-validation and out-of-bag (OOB) errors were used for the SVM and RF models, which contributed to high prediction accuracies of 96.7 and 94.2 percent, respectively. It was shown that other than the critical instant at which the traffic signal changes to yellow, an appropriate time window with respect to the yellow onset can provide additional useful information ensuring that the driver decision occurs during that time window.

Supplemental Notes:

This paper was sponsored by TRB committee ABJ70 Artificial Intelligence and Advanced Computing Applications.

Monograph Accession #:

01550057

Report/Paper Numbers:

15-2910

Language:

English

Corporate Authors:

Transportation Research Board

500 Fifth Street, NW
Washington, DC 20001 United States

Authors:

Jahangiri, Arash
Rakha, Hesham
Dingus, Thomas A

Pagination:

13p

Publication Date:

2015

Conference:

Transportation Research Board 94th Annual Meeting

Location: Washington DC, United States
Date: 2015-1-11 to 2015-1-15
Sponsors: Transportation Research Board

Media Type:

Digital/other

Features:

Figures; References (49) ; Tables

Uncontrolled Terms:

Subject Areas:

Highways; Safety and Human Factors; I83: Accidents and the Human Factor

Source Data:

Transportation Research Board Annual Meeting 2015 Paper #15-2910

Files:

TRIS, TRB, ATRI

Created Date:

Dec 30 2014 12:58PM