Long-Term Trajectory Prediction Method Based on Highway Vehicle-Following Behavior Patterns

Zhichao An;Yimin Wu;Fan Zhang;Dong Zhang;Bolin Gao;Suying Zhang;Guang Zhou;Aoning Jia
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Abstract

To address existing shortcomings such as short time domains and low interpretability, this study proposes a long-term trajectory prediction model for leading vehicles that considers the impact of traffic flow. Through an analysis of trailing trajectory data from the HighD natural driving dataset, fitting relationships for the following behavior patterns were derived. Building upon the intelligent driver model (IDM), three long-term trajectory prediction models were established: acceleration delta velocity (ADV), space delta velocity intelligent driver model (SDVIDM), and space velocity intelligent driver model (SVIDM). These models were then compared with the IDM model through simulations. The results indicate that when there is one vehicle ahead, under aggressive following conditions, the ADV model outperforms the IDM model, reducing the root mean square errors in acceleration, speed, and position by 79.61%, 91.26%, and 87.82%, respectively. In scenarios with two vehicles ahead and conservative short-distance following, the SDVIDM model exhibits reductions of 83.42%, 92.85%, and 92.25%, while the SVIDM model shows reductions of 82.31%, 92.47%, and 94.02%, respectively, compared to the IDM model.
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基于公路车辆跟随行为模式的长期轨迹预测方法
针对目前存在的时域短、可解释性低等缺点,本文提出了一种考虑交通流影响的领先车辆长期轨迹预测模型。通过分析HighD自然驾驶数据集的尾随轨迹数据,推导出以下行为模式的拟合关系:在智能驾驶员模型(IDM)的基础上,建立了加速度增量速度(ADV)、空间增量速度智能驾驶员模型(SDVIDM)和空间速度智能驾驶员模型(SVIDM)三种长期轨迹预测模型。并与IDM模型进行了仿真比较。结果表明,当前方有一辆车时,在主动跟车条件下,ADV模型优于IDM模型,加速度、速度和位置的均方根误差分别降低了79.61%、91.26%和87.82%。在两车前车和保守短距离跟车的情况下,SDVIDM模型比IDM模型分别减少83.42%、92.85%和92.25%,SVIDM模型比IDM模型分别减少82.31%、92.47%和94.02%。
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Contents Front Cover AdvGLOW: Covert Adversarial Attacks Against Autonomous Driving Perception Autonomous Driving on Mountain Roads via an Adaptive Deep Reinforcement Learning Approach An Efficient Bidirectional Search Hybrid A* Method for Parking Path Planning in Adjacent Vehicle Deviation Scenarios to Enhance Passenger Comfort
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