Research on Accompanying Vehicle Recognition Based on Big Data Technology

Authors

  • Jinsong Li

DOI:

https://doi.org/10.54691/drkj1183

Keywords:

Accompanying Vehicle Recognition; Big Data; Graph Neural Network.

Abstract

With the acceleration of urbanization, the transportation system is facing increasingly complex governance challenges, among which the identification and analysis of accompanying vehicle behavior has become a key issue. Traditional methods have some defects, such as low efficiency and limited coverage, and it is difficult to deal with massive data. In this study, an accompanying vehicle identification framework based on big data technology is constructed. By efficiently processing massive trajectory data at city level, fusing multi-source heterogeneous information and designing extensible algorithms, real-time accurate identification of accompanying behavior is realized. A hybrid model combining spatio-temporal feature engineering and graph neural network (GNN) is proposed to effectively describe the spatio-temporal similarity between vehicles and capture the complex dynamic adjoint relationship. The experimental results show that the framework has excellent performance in the accompanying vehicle identification task, which can provide technical support for public safety applications such as deck car tracking and gang crime warning, and also provide theoretical and practical reference for intelligent transportation system optimization and spatio-temporal data mining.

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References

[1] Xin Li,Guochen Liu,Kang Song & Yanlong Zhao.(2025).A Bilinear Parameter Identification Algorithm for Vehicle Mass Estimation.Journal of Systems Science and Complexity,38(5),1833-1852.

[2] Qian Pan,Hongwei Han & Dong Qiao.(2025).Rapid identification of time-varying aerodynamic parameters for aeroassisted vehicle via asynchronous iterative filtering.Advances in Space Research,76(4),2207-2220.

[3] Xiaobin Fan,Mingxin Chen,Shuaiwei Zhu & Shuwen He.(2025).Design of ABS sliding mode control system for in-wheel motor vehicle based on road identification.Proceedings of the Institution of Mechanical Engineers, Part D: Journal of Automobile Engineering,239(7),2741-2752.

[4] Sadaqat Hussain,Syed M. Hussain,Yu Xin & Zuo Cai Wang.(2025).Vehicle load identification based on bridge response using deep convolutional neural network.Journal of Asian Architecture and Building Engineering,24(3),1235-1252.

[5] Jianliang Zhang,Yuyao Cheng,Jian Zhang & Zhishen Wu.(2025).A spatiotemporal distribution identification method of vehicle weights on bridges by integrating traffic video and toll station data.Journal of Intelligent Transportation Systems,29(3),287-304.

[6] Quan Yuan,Rujun Yan,Ashton Yu Xuan Tan,Qing Xu & Jianqiang Wang.(2025).Technology roadmap of risk identification and collision avoidance decision-making in autonomous vehicles for domestic animals.International Journal of Crashworthiness,30(3),294-305.

[7] Su Hyun Park,Jeong Hyun Sohn,Hyeong Gi Min & Yong Jae Kim.(2024).Identification of operational limitations of an autonomous vehicle based on dynamic simulation.Journal of Mechanical Science and Technology,38(12),6519-6528.

[8] Xuesong Wang, Shikun Liu, Junyi Zhang & Daiheng Ni.(2024).Real-Time Risk Identification and Prediction for the Target Lane’s Following Vehicle during Lane Change.Transportation Research Record, 2678(12), 1785-1798.

[9] WanyuWei, XinshaFu, SiqiMa, YaqiaoZhu & NingLu. (2024). Reducing overfitting in vehicle recognition by decorrelated sparse representation regularisation.IET Computer Vision, 18(8), 1351-1361.

[10] Soumyajit Gayen,Sourajit Maity,Pawan Kumar Singh & Ram Sarkar.(2024).SimSANet: a simple sequential attention-aided deep neural network for vehicle make and model recognition.Neural Computing and Applications, 37(1),1-21.

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Published

2025-09-16

Issue

Section

Articles

How to Cite

Li, Jinsong. 2025. “Research on Accompanying Vehicle Recognition Based on Big Data Technology”. Scientific Journal Of Humanities and Social Sciences 7 (10): 1-7. https://doi.org/10.54691/drkj1183.