4.7 Article

MobiCharger: Optimal Scheduling for Cooperative EV-to-EV Dynamic Wireless Charging

期刊

IEEE TRANSACTIONS ON MOBILE COMPUTING
卷 22, 期 12, 页码 6889-6906

出版社

IEEE COMPUTER SOC
DOI: 10.1109/TMC.2022.3200414

关键词

Vehicle wireless charging; mobile charger deployment; mobility data analysis; reinforcement learning

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This paper introduces a mobile wireless charger guidance system, MobiCharger, which determines the number and optimal routes of serving Mobile Energy Disseminators (MEDs). By studying a metropolitan-scale vehicle mobility dataset, the authors discovered patterns of EV's routine and density changes. Through combining EV's current trajectories and routines, and employing multi-objective optimization and reinforcement learning methods, they achieved offline and online deployment adjustment of MEDs. Experimental results show that MobiCharger significantly increases the State-of-Charge and number of charges for all EVs compared to previous methods.
With the advancement of dynamic wireless charging for Electric Vehicles (EVs), Mobile Energy Disseminator (MED), which can charge an EV in motion, becomes available. However, existing wireless charging scheduling methods for wireless sensors, which are the most related works to MED deployment, are not directly applicable for city-scale EV-to-EV dynamic wireless charging. We present MobiCharger: a Mobile wireless Charger guidance system that determines the number of serving MEDs, and their optimal routes. We studied a metropolitan-scale vehicle mobility dataset, and found: most vehicles have routines, and the number of driving EVs changes over time, which means MED deployment should adaptively change as well. We combine EVs' current trajectories and routines to estimate EV density and the cruising graph for MED coverage. Then, we develop an offline MED deployment method that utilizes multi-objective optimization to determine the number of serving MEDs and the driving route of each MED, and an online method that utilizes Reinforcement Learning to adjust the MED deployment when the real-time vehicle traffic changes. Our trace-driven experiments show that compared with previous methods, MobiCharger increases the medium State-of-Charge of all EVs by 50% during all time slots, and the number of charges of EVs by almost 100%.

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