Short-term Traffic Flow Prediction at Urban Intersections Based on Quantile Regression and Bayesian Networks

Main Article Content

Yuanzhuo Xie

Keywords

traffic flow forecasting, quantile regression, Bayesian networks, abnormal fluctuations, peak traffic

Abstract

With the advancement of urbanization, intersections—key nodes in road networks—frequently become hotspots for traffic congestion and accidents. Their multi-phase signal control, lane turning diversion, and upstream-downstream interaction lead to traffic flow with complex spatiotemporal correlations and nonlinear fluctuations. This study proposes a hybrid model integrating quantile regression and Bayesian networks to enhance prediction accuracy and robustness under complex conditions. Raw data from Wuchang District’s traffic monitoring system undergo cleaning, missing-value imputation, and normalization. Quantile regression models fit 0.1, 0.5, and 0.9 quantiles to capture low, medium, and high traffic states, reflecting predictive distributions. Simultaneously, a Bayesian network analyzes causal relationships between external factors (weather, holidays, accidents) and traffic flow, quantifying influences via conditional probabilities. The two components are integrated into a framework accounting for both flow distribution and external disturbances. Methodologically, quantile regression provides preliminary estimates, which are dynamically adjusted by the Bayesian network’s conditional probabilities to address anomalous fluctuations. Experimental results show the hybrid model outperforms traditional linear regression and time-series models in handling fluctuations, especially during peak periods, improving forecasting precision and robustness while supporting traffic management decisions in complex scenarios.

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