Abstract

Bus passenger flow prediction is a critical component of advanced transportation information system for public traffic management, control, and dispatch. With the development of artificial intelligence, many previous studies attempted to apply machine learning models to extract comprehensive correlations from transit networks to improve passenger flow prediction accuracy, given that the variety and volume of traffic data have been easily obtained. The passenger flow on a station is highly affected by various factors such as the previous time step, peak hours or nonpeak hours, and extracting the key features from the data is essential for a passenger flow prediction model. Although the neural networks, k -nearest neighbor, and some deep learning models have been adopted to mine the temporal correlations of the passenger flow data, the lack of interpretability of the influenced variables is still a big problem. Classical tree-based models can mine the correlations between variables and rank the importance of each variable. In this study, we presented a method to extract passenger flow of different routes on the station and implemented a XGBoost model to find the contributions of variables to the prediction of passenger flow. Comparing to benchmark models, the proposed model can reach state-of-the-art prediction accuracy and computational efficiency on the real-world dataset. Moreover, the XGBoost model can interpret the predicted results. It can be seen that period is the most important variable for the passenger flow prediction, and so the management of buses during peak hours should be improved.

Highlights

  • Passenger flow prediction is important for advanced transportation information system (ATIS) and the planning for multimodal traffic management

  • Since the passenger flow of a station is highly influenced by the competition and complementation of other routes and buses of the same route, we take the number of routes and the number of buses during the predicted interval into the model to improve the accuracy

  • Comparing to the model, which does not consider the above two factors, the Mean absolute percentage error (MAPE), root mean square error (RMSE), and mean absolute error (MAE) can be improved by 30.21%, 14.71%, and 15.58%, respectively

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Summary

Introduction

Passenger flow prediction is important for advanced transportation information system (ATIS) and the planning for multimodal traffic management. A comprehensive classification of historical changing patterns of passenger flow for public bus stations is capable of finding the hot spots of public transportation of multimodal traffic network and able to improve the accuracy of future passenger flow prediction. Before the breakthrough of artificial intelligence, passenger flow prediction models have been gradually changing from traditional statistical models to machine learning models. With the exponential growing of computational capability and the volume of traffic data, a large number of deep learning models, such as conventional neural network, recurrent neural network, and their extensions, have been adopted for short-term passenger flow prediction during recent years

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