TY - JOUR
T1 - Multilane spatiotemporal trajectory optimization method (MSTTOM) for connected vehicles
AU - Wang, Pangwei
AU - Wang, Yunfeng
AU - Deng, Hui
AU - Zhang, Mingfang
AU - Zhang, Juan
N1 - Funding information: 0is work was supported by National Key R&D Program of China (Grant no. 2018YFB1600500) and Beijing Nova Program (Grant no. Z181100006218076).
PY - 2020/12/15
Y1 - 2020/12/15
N2 - It is agreed that connected vehicle technologies have broad implications to traffic management systems. In order to alleviate urban congestion and improve road capacity, this paper proposes a multilane spatiotemporal trajectory optimization method (MSTTOM) to reach full potential of connected vehicles by considering vehicular safety, traffic capacity, fuel efficiency, and driver comfort. In this MSTTOM, the dynamic characteristics of connected vehicles, the vehicular state vector, the optimized objective function, and the constraints are formulated. The method for solving the trajectory problem is optimized based on Pontryagin’s maximum principle and reinforcement learning (RL). A typical scenario of intersection with a one-way 4-lane section is measured, and the data within 24 hours are collected for tests. The results demonstrate that the proposed method can optimize the traffic flow by enhancing vehicle fuel efficiency by 32% and reducing pollutants emissions by 17% compared with the advanced glidepath prototype application (GPPA) scheme.
AB - It is agreed that connected vehicle technologies have broad implications to traffic management systems. In order to alleviate urban congestion and improve road capacity, this paper proposes a multilane spatiotemporal trajectory optimization method (MSTTOM) to reach full potential of connected vehicles by considering vehicular safety, traffic capacity, fuel efficiency, and driver comfort. In this MSTTOM, the dynamic characteristics of connected vehicles, the vehicular state vector, the optimized objective function, and the constraints are formulated. The method for solving the trajectory problem is optimized based on Pontryagin’s maximum principle and reinforcement learning (RL). A typical scenario of intersection with a one-way 4-lane section is measured, and the data within 24 hours are collected for tests. The results demonstrate that the proposed method can optimize the traffic flow by enhancing vehicle fuel efficiency by 32% and reducing pollutants emissions by 17% compared with the advanced glidepath prototype application (GPPA) scheme.
U2 - 10.1155/2020/8819911
DO - 10.1155/2020/8819911
M3 - Article
SN - 0197-6729
VL - 2020
JO - Journal of Advanced Transportation
JF - Journal of Advanced Transportation
M1 - 8819911
ER -