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Short-Term Prediction of Level of Service in Highways Based on Bluetooth Identification | IEEE Journals & Magazine | IEEE Xplore

Short-Term Prediction of Level of Service in Highways Based on Bluetooth Identification


Abstract:

A precise knowledge about future traffic will eventually open a new era in traffic management. Research has focused on the still unresolved problem of predicting travel t...Show More

Abstract:

A precise knowledge about future traffic will eventually open a new era in traffic management. Research has focused on the still unresolved problem of predicting travel time (TT). However, practitioners favor the level of service (LOS) as a meaningful metric that avoids the continuous fluctuations and link-specificity of TT. Evolving from TT to LOS opens a new research line in the field, moving the underlying mathematical problem from regression to classification. This study proposes a short-term LOS classifier to fulfill this requirement. Given that traffic conditions are mostly free-flow throughout the day, LOS classes are unbalanced. Therefore, we based our predictor on a Random Undersampling Boost algorithm (RUSBoost), especially suited to overcome this issue. We trained and validated this LOS predictor with 12 months of arrival travel time data, captured by a Bluetooth network with 6 links, in real operation on the SE-30 highway (Seville, Spain). This classifier achieved an average recall of 82.8% for prediction horizons up to 15 minutes, reaching 92.5% predicting congestion. We reached this performance by exploiting two facts that we empirically demonstrated: (i) information from every link (even those in the opposite direction) contributes to increase the accuracy of the prediction; and (ii) traffic presents different behavior depending on the day of the week, which we used to segment the data and construct specific classifiers. These promising results show the potential of the proposed LOS predictor, providing a new perspective into traffic forecast and the subsequent traffic management that yields with what practitioners demand.
Published in: IEEE Transactions on Intelligent Transportation Systems ( Volume: 23, Issue: 1, January 2022)
Page(s): 142 - 151
Date of Publication: 22 July 2020

ISSN Information:

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I. Introduction

Knowledge about future traffic states is of an enormous value. It allows drivers to choose the route that minimizes the time invested in the journey and road managers to trigger actuations that would maximize the performance of their transport networks. Both perspectives share the same objective: reducing congestion.

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References

References is not available for this document.