Wenbo Lu

Dr. Wenbo Lu

orcid

Research Focus & Metrics

Academic Career Length

7Years (2020-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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8 July 2023 in Engineering Applications of Artificial Intelligence
Verified
Journal Article
Closed access
WLWenbo Lu
Wenbo Lu
YZYong Zhang
Yong Zhang
Peikun LiPeikun Li
Peikun Li
TWTing Wang
Ting Wang

10 April 2024 in Physica A: Statistical Mechanics and its Applications
Verified
Journal Article
Closed access
JXJinhua Xu
Jinhua Xu
YLYuran Li
Yuran Li
WLWenbo Lu
Wenbo Lu
SWShuai Wu
Shuai Wu
YLYan Li
Yan Li

31 May 2022 in Environmental Science and Pollution Research
Verified
Journal Article
Closed access
PDF file
Peikun LiPeikun Li
Peikun Li
XCXumei Chen
Xumei Chen
CMChaoqun Ma
Chaoqun Ma
CZCaihua Zhu
Caihua Zhu
WLWenbo Lu
Wenbo Lu

24 October 2024 in eTransportation
Verified
Journal Article
Closed access
WLWenbo Lu
Wenbo Lu
ZYZheng Yuan
Zheng Yuan
TWTing Wang
Ting Wang
Peikun LiPeikun Li
Peikun Li
YZYong Zhang
Yong Zhang

3 April 2023 in Transportation Letters
Verified
Journal Article
Closed access
JXJinhua Xu
Jinhua Xu
WLWenbo Lu
Wenbo Lu
YLYuran Li
Yuran Li
CZCaiHua Zhu
CaiHua Zhu
YLYan Li
Yan Li
The Time Space Diagram (TSD) can abstractly represent multiple data sources and the macroscopic state of road traffic. However, the TSDs may be incomplete due to missing data, which seriously affects traffic management. Therefore, this paper proposed a Multi-Directional Recurrent Graph Convolutional Network (MDRGCN) for reconstructing TSDs and estimating missing traffic speeds given sparse data. We designed multi-directional RNN layers for scanning the TSDs from horizontal and vertical directions, which can fully exploit the contextual dependencies of the traffic information. In addition, our model includes graph convolution layers for mining potential spatial correlations in the TSDs. The performance of the model reconstructed from TSDs is validated on the NGSIM dataset. We also provided a comparison with other advanced methods, and the experimental results show that our method can perform well at both low and high missing rates, significantly outperforming the baseline methods.

8 July 2024 in Land
Verified
Journal Article
Open access
PDF file
Peikun LiPeikun Li
Peikun Li
QYQuantao Yang
Quantao Yang
WLWenbo Lu
Wenbo Lu
The operation of the subway system necessitates a comprehensive understanding of passenger flow characteristics at station locations, as well as a keen awareness of the average travel distances at these stations. Moreover, the travel distances at the station level bear a direct relationship with the built environment composed of land use characteristics within the station’s catchment area. To this end, we selected the land use features within an 800 m radius of the station (land use area, distribution of points of interest, and the surrounding living environment) as the influencing factors, with the travel distances at peak hours on the subway network in Xi’an as the research subject. An improved SSA-XGBOOST-SHAP interpretable machine learning framework was established. The research findings demonstrate that the proposed enhanced model outperforms traditional machine learning or linear regression methods in terms of R-squared, MAE, and RMSE. Furthermore, the distance from the city center, road network density, the number of public transit routes, and the land use mix have a pronounced influence on travel distances, reflecting the significant impact that mature built environments can have on passenger attraction. Additionally, the analysis reveals a notable nonlinear relationship and threshold effect between the built environment variables comprising land use and the travel distances during peak hours. The research results provide data-driven support for operational strategy management and line capacity optimization, as well as theoretical underpinnings for enhancing the efficiency and sustainability of the entire subway system.