Jointly dampening traffic oscillations and improving energy consumption with electric, connected and automated vehicles: A reinforcement learning based approach
Journal article, 2020

It has been well recognized that human driver's limits, heterogeneity, and selfishness substantially compromise the performance of our urban transport systems. In recent years, in order to deal with these deficiencies, our urban transport systems have been transforming with the blossom of key vehicle technology innovations, most notably, connected and automated vehicles. In this paper, we develop a car following model for electric, connected and automated vehicles based on reinforcement learning with the aim to dampen traffic oscillations (stop-and-go traffic waves) caused by human drivers and improve electric energy consumption. Compared to classical modelling approaches, the proposed reinforcement learning based model significantly reduces the modelling constraints and has the capability of self-learning and self-correction. Experiment results demonstrate that the proposed model is able to improve travel efficiency by reducing the negative impact of traffic oscillations, and it can also reduce the average electric energy consumption.

Traffic oscillations

Connected and automated vehicles

Electric vehicles

Machine learning

Energy consumption

Deep Deterministic Policy Gradient

Reinforcement learning

Car following

Author

[Person 20121b8a-3f65-46db-b392-690d760542cd not found]

Chalmers, Architecture and Civil Engineering, Geology and Geotechnics

[Person c97ba5cd-2601-4b01-89ff-d861daf8ce97 not found]

Chalmers, Architecture and Civil Engineering, Geology and Geotechnics

University of Technology Sydney

[Person d38d5a52-8dab-4c3c-be4c-604419b243e7 not found]

Tencent

[Person a26802f8-8c54-4b72-aa0f-8823e9ce4caf not found]

University of Technology Sydney

[Person 699e337b-1385-48ce-98f9-328a30a09e58 not found]

East China Jiaotong University

Curtin University

Kyung Hee University

Applied Energy

0306-2619 (ISSN) 18729118 (eISSN)

Vol. 257 114030

Subject Categories (SSIF 2011)

Transport Systems and Logistics

Other Engineering and Technologies not elsewhere specified

Vehicle Engineering

DOI

10.1016/j.apenergy.2019.114030

More information

Latest update

3/24/2021