Freeway Traffic Modeling by Physics-Regularized Gaussian Processes

IF 5.3 Q2 COMPUTER SCIENCE, ARTIFICIAL INTELLIGENCE IEEE Open Journal of Intelligent Transportation Systems Pub Date : 2025-01-31 DOI:10.1109/OJITS.2025.3532796
Kleona Binjaku;C. Pasquale;E. K. Meçe;S. Sacone
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Abstract

Effective traffic management and control are essential for mitigating congestion and minimizing environmental impacts on road transportation systems. In this paper, we propose a novel approach for traffic modeling that integrates physics-based dynamics with machine learning techniques. Our method leverages Gaussian Processes (GPs) and a multi-class second-order discrete traffic model known as METANET to develop a Physics-Regularized Machine Learning framework. Furthermore, the proposed approach includes for the first time multi-class on/off ramps within the modeling framework, enhancing the realism of the predictive model. We systematically evaluate the performance of the hybrid model across varying dataset sizes to determine optimal data requirements for accurate traffic predictions. Experimental results indicate the improved predictive performance of the proposed approach compared to traditional machine learning and physics-based models. Our findings underscore the potential of Physics-Regularized Machine Learning for enhancing traffic management and control strategies in real-world scenarios.
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高速公路交通建模的物理-正则化高斯过程
有效的交通管理和控制对于缓解拥堵和尽量减少对道路运输系统的环境影响至关重要。在本文中,我们提出了一种新的交通建模方法,该方法将基于物理的动力学与机器学习技术相结合。我们的方法利用高斯过程(GPs)和称为METANET的多类二阶离散流量模型来开发物理正则化机器学习框架。此外,该方法首次在建模框架中包含了多类别的开/关匝道,增强了预测模型的真实感。我们系统地评估了混合模型在不同数据集大小上的性能,以确定准确交通预测的最佳数据需求。实验结果表明,与传统的机器学习和基于物理的模型相比,该方法的预测性能有所提高。我们的研究结果强调了物理正则化机器学习在现实世界中增强交通管理和控制策略的潜力。
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