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Integrating Surrounding Vehicle Information for Vehicle Trajectory Representation and Abnormal Lane-Change Behavior
Da Xu1,2, Mengfei Liu2, Xinpeng Yao2
1Intelligent Transportation Systems Research Center, Wuhan University of Technology, Wuhan 430063, China.
This study enhances abnormal lane-changing detection by integrating surrounding vehicle data into trajectory analysis. This approach significantly improves the accuracy of identifying risky driving behaviors on roads.
Area of Science:
- Traffic Safety
- Artificial Intelligence in Transportation
- Vehicle Dynamics
Background:
- Abnormal lane-changing behavior poses significant risks to road safety, impacting traffic management and law enforcement.
- Existing detection methods often overlook the crucial influence of surrounding vehicles on lane-changing maneuvers.
- A comprehensive approach is needed to accurately identify and mitigate risks associated with abnormal lane changes.
Purpose of the Study:
- To propose a novel framework for detecting abnormal lane-changing behavior in road vehicles.
- To develop a trajectory representation that incorporates data from surrounding vehicles.
- To enhance the accuracy and reliability of abnormal lane-changing detection models.
Main Methods:
- A new method for representing vehicle trajectories, integrating surrounding vehicle information.
- Extraction of feature parameters that capture inter-vehicle interactions and lane-changing phases.
- Development of an abnormal lane-changing behavior detection model using the Light Gradient Boosting Machine (LGBM) algorithm.
Main Results:
- The proposed framework demonstrates high accuracy in detecting abnormal lane-changing behaviors.
- The integration of surrounding vehicle information was found to be a critical factor in improving detection outcomes.
- The LGBM model effectively distinguished between normal and abnormal lane-changing maneuvers.
Conclusions:
- The developed framework offers a more robust and accurate method for abnormal lane-changing detection.
- Considering the dynamics of surrounding vehicles is essential for a comprehensive understanding of lane-changing safety.
- This research contributes to safer traffic management and improved road safety through advanced AI techniques.
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