Abstract
The station-level ridership during the peak hour is one of the key indicators for the design of station size and relevant facilities. However, with the operation of metro system, it cannot be ignored that, in many cities, the station peak and the city peak may not be simultaneously occurred. As the current ridership forecasting methods use the city peak as the point of reference, stations with wide differences of ridership in between would experience disorders due to serious underestimates of passenger demand during the actual peak. Accordingly, this study fully considers the phenomenon that the metro station peak is not identical to the city peak and focuses on the concept of the peak deviation coefficient (PDC), the ratio of the station peak ridership to the city peak ridership. It investigates how metro ridership determinants affects the PDC using the least square support vector machine (LSSVM) model. A land-use function complementarity index is employed as one of the independent variables, which is newly proposed in this study that describes the relationship of the commute land use around an individual station with that along the whole network. This method can help to resolve the ridership amplification indicator for a fine-grained station-level forecasting. The results for Xi’an metro indicate that the LSSVM is an effective method to scrutinize the nonlinear effects of e.g., land use attributes, on the temporal distribution features of the metro ridership. Compared to the ratio of commute land use measured for individual stations, the land-use function complementarity index can better explain and predict the severity of peak deviation phenomenon, controlling other independent variables in the model.
Funder
Natural Science Foundation of Shaanxi Province
Fundamental Research Funds for the Central Universities, CHD
Youth Projects of Xi'an Jiaotong University City College
Publisher
Public Library of Science (PLoS)
Reference54 articles.
1. Parallel Architecture of Convolutional Bi-Directional LSTM Neural Networks for Network-Wide Metro Ridership Prediction;X. Ma;IEEE Transactions on Intelligent Transportation Systems,2019
2. Modeling and analyzing spatiotemporal factors influencing metro station ridership in Taipei: An approach based on general estimating equation;Y. He;arXiv preprint arXiv:1904.,2019
3. Estimating the impacts of capital bikeshare on metro rail ridership in the Washington Metropolitan Area;T. Ma;Transportation Research Record,2019
4. Time-varying and non-linear associations between metro ridership and the built environment;L. Yang;Tunnelling and Underground Space Technology,2023
5. Study on the in and out passenger flow during peak hours of the rail transit station in Osaka.;L.P. Gu;Compr. Transp,2014