交通信息工程及控制系

汪勤政-副教授

日期:2025-08-20 点击数: 来源:


 

姓名

汪勤政

证件照

性别

出生日期

1993.03

政治面貌

中共党员

学历

博士

毕业院校

美国犹他大学

专业

交通工程

职务职称

副教授

/博导

硕士生导师

办公电话

1881155589

E-mail

wqzheng@jlu.edu.cn

通信地址

吉林省长春市人民大街5988号吉林大学交通学院

学习经历

[1] 2018.08~2022.05 美国犹他大学,获博士学位

[2] 2015.09~2018.06 北京交通大学,获硕士学位

[3] 2010.09~2014.06 福建农林大学,获学士学位

工作经历

[1] 2025.08~至今 吉林大学交通学院,副教授

[2] 2022.12~2025.01 美国交通部联邦公路局Saxton实验室,交通研究工程师

[3] 2022.05~2022.12 美国犹他大学,助理研究员

研究方向

[1] 智能网联交通系统

[2] 自动驾驶行为建模与决策控制

[3] 人工智能大模型与世界模型

[4] 车路协同与群体智能

主讲课程

[1] 本科生:《交通工程学》、《交通管理与控制》、《人工智能大模型与交通应用》等

承担课题

[1] 长春市都市圈智慧交通系统集成与协同路径研究,横向课题,2026.07-2026.10,主持

[2] 多模式交通运营计划智能调整数据模型,横向课题,2025.09-2026.07,主持

[3] 面向虚拟电厂的动态可聚合资源协同响应技术研究,横向课题,2026.7-2027.03,参与

[4] 车路协同环境下自动驾驶车辆与非自动驾驶车辆驾驶行为分析,美国交通部联邦公路局,2023.01-2025.01,项目骨干

[5] 车路协同环境下自动驾驶卡车分析、建模与仿真框架开发,美国交通部联邦公路局,2023.06-2025.01,项目骨干

[6] 用于交通模型校准的新兴数据清洗与融合方法研究,美国交通部联邦公路局,2024.02-2025.01,项目骨干

[7] 全闭环车网互联平台下多场景仿真研究,美国交通部联邦公路局,2024.02-2025.01,项目参与人

[8] 基于物理信息的机器学习理论:面向智能交通系统的随机交通流建模,美国国家科学基金会,2021.03-2022.11,项目参与人

[9] 犹他州高速公路匝道信号协调控制算法设计与评价,犹他州交通厅,2020.10-2022.11,项目骨干

[10] 犹他州网联与自动驾驶交通规划与评估,犹他州交通厅,2019.01-2021.01,项目骨干

[11] 车路协同环境环境下公交优先算法设计与评价,犹他州交通厅,2018.10-2020.10,项目骨干

期刊论文

*表示通讯作者:

[1] Wang Q, Bie Y*, Jing D, Li X, Zhou Q.   Leader-type-conditioned memory kernels for interpretable car-following   response in mixed traffic[J]. Physica A: Statistical Mechanics and its   Applications, 2026: 131942. (中科院二区,SCI检索)

[2] Li X., Noh H, Cottam A, Wang Q* . Leveraging connected-vehicle   data to identify and analyze park service areas[J]. Cities, 2026, 170:   106665.

[3] Ma K, Shi H, Ma C, Huang Z, Wang Q, Li X*. Development, Calibration,   and validation of a Novel nonlinear Car-Following Model: Multivariate   piecewise linear approach for adaptive cruise control vehicles [J].   Transportation Research Part E: Logistics and Transportation Review 2025,   199: 104031. (中科院一区TOP期刊,SCI检索)

[4] Wang Q, Yuan Y, Zhang Q, Yang X T*.   Signalized arterial origin-destination flow estimation using flawed vehicle   trajectories: A self-supervised learning approach without ground truth[J].   Transportation Research Part C: Emerging Technologies, 2022, 145: 103917. (中科院一区TOP期刊,SCI检索)

[5] Wang Q, Gong Y, Yang X T*. Connected   automated vehicle trajectory optimization along signalized arterial: A   decentralized approach under mixed traffic environment[J]. Transportation   research part C: emerging technologies, 2022, 145: 103918. (中科院一区TOP期刊,SCI检索)

[6] Wang Q, Yuan Y, Yang X T*, Huang Z.   Adaptive and multi-path progression signal control under connected vehicle   environment[J]. Transportation Research Part C: Emerging Technologies,   2021,124:102965. (中科院一区TOP期刊,SCI检索)

[7] Wang Q, Yang X T*, Leonard B D, Mackey J   . Field evaluation of connected vehicle-based transit signal priority control   under two different signal plans[J]. Transportation research record, 2020,   2674(7): 172-180. (中科院四区,SCI检索)

[8] Wang Q, Yang X T*, Huang Z, Yuan Y.   Multi-vehicle trajectory design during cooperative adaptive cruise control   platoon formation[J]. Transportation research record, 2020, 2674(4): 30-41. (中科院四区,SCI检索)

[9] Wang Q, Yang X T*, Yuan Y. Dynamic   multipath signal progression control based on connected vehicle   technology[J]. Journal of Transportation Engineering, Part A: Systems, 2021,   147(10): 04021054. (中科院四区,SCI检索)

[10] Yuan Y, Wang Q, Yang X T*. Traffic flow modeling   with gradual physics regularized learning[J]. IEEE Transactions on   Intelligent Transportation Systems, 2021, 23(9): 14649-14660. (中科院一区,SCI检索)

[11] Lin Y, Yang X T*, Wang Q. New transit signal priority   scheme for intersections with nearby bus rapid transit median stations[J].   IET Intelligent Transport Systems, 2020, 14(12): 1606-1614. (中科院四区,SCI检索)

[12] 赵芳, 四兵锋*, 汪勤政,   . 考虑多目标的城市停车换乘选址优化模型及算法[J]. 中国公路学报,

2022, 35(10): 268-279. (EI检索)

会议论文

[1] Xiaofeng Li, Hyunsoo Noh, Adrian   Cottam, Qinzheng   Wang* (2025), Leveraging   Connected-Vehicle Data to Identify and Analyze Park Service Area for   Driving-Only Visitors, 104nd Transportation Research   Board Annual Meeting, Washington D. C.

[2] Yaobang Gong, Qinzheng Wang, Xianfeng Yang* (2024), Signalized   Arterial Origin-Destination Flow Estimation with Fairness-Aware Artificial   Intelligence, 103nd Transportation Research   Board Annual Meeting, Washington D. C.

[3] Qinzheng Wang, Yaobang Gong, & Xianfeng   Yang* (2023), Connected Automated Vehicle   Trajectory Optimization Along Signalized Arterial: A Decentralized Approach,   102nd Transportation Research Board Annual Meeting, Washington D. C.   #23-01554.

[4] Zhao Zhang, Qinzheng Wang, Hao Yang, & Xianfeng Yang*,   (2023), Freeway Traffic Flow Forecasting   Using Physics-Guided LSTM with Flawed Data, 102nd Transportation Research   Board Annual Meeting, Washington D. C. #23-01575.

[5] Qinzheng Wang, Xianfeng Yang*, & Yun Yuan,   (2022), Signalized Arterial   Origin-destination (OD) Flow Estimation Using Connected Vehicle (CV)   Trajectories: A Deep Learning without Ground-Truth Approach,   101st Transportation Research Board Annual Meeting, Washington D. C.   #22-01828.

[6] Qinzheng Wang, Xianfeng Yang, (2022), Design   and Evaluate Coordinated Ramp Metering Strategies for Utah Freeways,   Mountain-Plains Consortium, US Department of Transportation University   Center.

[7] Yun Yuan, Qinzheng Wang, & Xianfeng Yang*, (2022), Traffic   Flow Modeling with Gradual Physics Regularized Learning,   101st Transportation Research Board Annual Meeting, Washington D. C. #22-03807.

[8] Yun Yuan, Qinzheng Wang & Xianfeng Yang*, (2022), Physics   Regularized Streaming Learning for Freeway Traffic State Estimation,   101st Transportation Research Board Annual Meeting, Washington D. C.   #22-03416.

[9] Yun Yuan, Qinzheng Wang, & Xianfeng Yang*, (2022), Freeway   Vehicle Trajectory Reconstructing Using Physics Regularized Gaussian Process,   101st Transportation Research Board Annual Meeting, Washington D. C.   #22-03520.

[10] Qinzheng Wang, Xianfeng Yang*, Zhitong Huang,   & Yun Yuan, (2021), Adaptive and Multipath Progression   Signal Control under Connected Vehicle Environment,   100th Transportation Research Board Annual Meeting, Washington D. C.   #21-00844.

[11] Qinzheng Wang, Xianfeng Yang*, Zhitong Huang,   & Yun Yuan, (2020), Multi-vehicle Trajectory Optimization   for Cooperative Adaptive Cruise Control (CACC) Platoon Formation,   99th Transportation Research Board Annual Meeting, Washington D. C.   #20-04227.

[12] Qinzheng Wang, Xianfeng Yang*, (2020), Dynamic   Multi-path Signal Progression Control based on Connected Vehicle Technology,   99th Transportation Research Board Annual Meeting, Washington D. C.   #20-05011.

[13] Qinzheng Wang, Xianfeng Yang*, Blaine D.   Leonard, & Jamie Mackey, (2020), Field Evaluation of Connected   Vehicle-based Transit Signal Priority System under Two Different Signal Base   Plans, 99th Transportation Research Board Annual Meeting,   Washington D. C. #02-04044.

[14] Qinzheng Wang, Xianfeng Yang*, Zhitong Huang,   & Yun Yuan, (2019), Multi-vehicle Trajectories Design   During Cooperative Adaptive Cruise Control (CACC) Platoon Formation,   2019 Automated Vehicle Symposium, Orlando, FL.

专利专著

[1] 汪勤政, 别一鸣. 一种面向复杂动态交通场景的多车轨迹预测方法[P]. 中国:CN121148174B, 2025-01-30.(发明专利,授权)

获奖情况

[1]    2021年美国土木工程学会最佳审稿人

社会兼职

IEEE Transactions on   Intelligent Transportation SystemTransportation Research Part E: Logistics and Transportation ReviewJournal of Transportation EngineeringTransportation Research Board/ Transportation Research   RecordIET Intelligent Transport   SystemsTransportmetrica A:   Transport ScienceTransportmetrica B: Transport DynamicsJournal of Urban Planning and Developing等期刊审稿专家