Author
Listed:
- Amaury Hayat
(Ecole des Ponts Paristech)
- Xiaoqian Gong
(Arizona State University)
- Jonathan Lee
(University of California at Berkeley)
- Sydney Truong
(Rutgers University Camden)
- Sean McQuade
(Rutgers University Camden)
- Nicolas Kardous
(University of California at Berkeley)
- Alexander Keimer
(University of California at Berkeley)
- Yiling You
(University of California at Berkeley)
- Saleh Albeaik
(University of California at Berkeley)
- Eugene Vinistky
(University of California at Berkeley)
- Paige Arnold
(Rutgers University Camden)
- Maria Laura Delle Monache
(INRIA Grenoble—Rhône Alpes)
- Alexandre Bayen
(University of California at Berkeley)
- Benjamin Seibold
(Temple University)
- Jonathan Sprinkle
(University of Arizona)
- Dan Work
(Vanderbilt University)
- Benedetto Piccoli
(Rutgers University Camden)
Abstract
The technological advancements in terms of vehicle on-board sensors and actuators, as well as for infrastructures, open an unprecedented scenario for the management of vehicular traffic. We focus on the problem of smoothing traffic by controlling a small number of autonomous vehicles immersed in the bulk traffic stream. Specifically, we aim at dissipating stop-and-go waves, which are ubiquitous and proven to increase fuel consumption tremendously and reduce. Our approach is holistic, as it is based on a large collaborative effort, which ranges from mathematical models for traffic and control all the way to building infrastructures capable of measuring energy efficiency and providing real-time data. Such an approach allows to clearly set and measure a metric for success in the form of a reduction of at least 10% of fuel consumption using 5% of autonomous vehicles immersed in bulk traffic. The chapter illustrates the overall approach and provides simulation results on a tuned microsimulator for the California I-210.
Suggested Citation
Amaury Hayat & Xiaoqian Gong & Jonathan Lee & Sydney Truong & Sean McQuade & Nicolas Kardous & Alexander Keimer & Yiling You & Saleh Albeaik & Eugene Vinistky & Paige Arnold & Maria Laura Delle Monach, 2022.
"A Holistic Approach to the Energy-Efficient Smoothing of Traffic via Autonomous Vehicles,"
Springer Optimization and Its Applications, in: Maude Josée Blondin & João Pedro Fernandes Trovão & Hicham Chaoui & Panos M. Pardalos (ed.), Intelligent Control and Smart Energy Management, pages 285-316,
Springer.
Handle:
RePEc:spr:spochp:978-3-030-84474-5_10
DOI: 10.1007/978-3-030-84474-5_10
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