Impacts of transportation infrastructure on the stopping behavior of heavy commercial vehicles

Restricting heavy commercial vehicles (HCV) stopping behavior is essential for traffic management and efficient logistics organization. However, insights into HCV stopping behavior conditional on infrastructure remain limited. We utilize large GPS HCV trajectory data to investigate the spatial variability of stopping duration and its associated influential factors. Results show HCV stopping duration and pre-stop trip distance exhibit marked weekday-weekend heterogeneity, with longer stops and longer preceding trips being more likely to occur on weekdays. We further propose a spatial random forest model to predict HCV stopping duration. In addition to the superiority of the proposed model, we found parking distribution and land use collectively contribute to 76.76% of the predictive power, with trip distance identified as the most influential factor, followed by distance to the nearest freight rail station and to the nearest port, respectively. Furthermore, the analyses also exhibit complex non-linear associations between influential factors and stopping duration, and significant threshold effects. These findings offer valuable insights that can serve as a nuanced guide for planning HCV parking management.

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Publication Details

Journal
Transportation Research Part A Policy and Practice
Published
2026-05-23
DOI
https://doi.org/10.1016/j.tra.2026.105069
Primary Topic
Traffic control and management
Type
article
Field-Weighted Citation Impact
0.00

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article

Impacts of transportation infrastructure on the stopping behavior of heavy commercial vehicles

Jishi Wu, Gen Li, Tao Feng, Peng Jia et al.
Transportation Research Part A Policy and Practice
Traffic control and management
article

Impacts of transportation infrastructure on the stopping behavior of heavy commercial vehicles

Jishi Wu, Gen Li, Tao Feng, Peng Jia, Junyi Zhang
article en

Abstract

Restricting heavy commercial vehicles (HCV) stopping behavior is essential for traffic management and efficient logistics organization. However, insights into HCV stopping behavior conditional on infrastructure remain limited. We utilize large GPS HCV trajectory data to investigate the spatial variability of stopping duration and its associated influential factors. Results show HCV stopping duration and pre-stop trip distance exhibit marked weekday-weekend heterogeneity, with longer stops and longer preceding trips being more likely to occur on weekdays. We further propose a spatial random forest model to predict HCV stopping duration. In addition to the superiority of the proposed model, we found parking distribution and land use collectively contribute to 76.76% of the predictive power, with trip distance identified as the most influential factor, followed by distance to the nearest freight rail station and to the nearest port, respectively. Furthermore, the analyses also exhibit complex non-linear associations between influential factors and stopping duration, and significant threshold effects. These findings offer valuable insights that can serve as a nuanced guide for planning HCV parking management.

Transportation Research Part A Policy and PracticeVol. 211
Hiroshima University (JP), East China Jiaotong University (CN), National University of Singapore (SG), Dalian Maritime University (CN), Southeast University (CN)
Japan Science and Technology Agency
Industry, innovation and infrastructure
Openalex Percentile: Top 5%
Traffic control and management
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