A Stackelberg Game Approach to Find Optimal Location and Pricing for Network of Charging Stations

This article proposes a Stackelberg game model for determining the optimal pricing and placement of electric vehicle charging stations. The model is based on a bi-level optimization technique that considers a follower problem for optimizing the profit of each charging station (CS) and a leader probl...

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Published in2023 IEEE IAS Global Conference on Emerging Technologies (GlobConET) pp. 1 - 6
Main Authors Adil, Muhammad, Parvez Mahmud, M A, Kouzani, Abbas Z, Yang Khoo, Sui
Format Conference Proceeding
LanguageEnglish
Published IEEE 19.05.2023
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DOI10.1109/GlobConET56651.2023.10150100

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Abstract This article proposes a Stackelberg game model for determining the optimal pricing and placement of electric vehicle charging stations. The model is based on a bi-level optimization technique that considers a follower problem for optimizing the profit of each charging station (CS) and a leader problem for optimizing the overall profit for a network of charging stations. The follower problem considers the pricing, energy sold, energy demand, energy cost, and station cost, subject to a constraint on the maximum distance from the station. The leader problem aims to maximize the overall profit of all stations, subject to charging allocation and distance constraints. The proposed approach uses Bender's decomposition algorithm to solve the profit maximization problem, where the pricing determines the charging allocation and resulting profit. The simulation results demonstrate the effectiveness of the proposed approach in maximizing the gain for the charging station network.
AbstractList This article proposes a Stackelberg game model for determining the optimal pricing and placement of electric vehicle charging stations. The model is based on a bi-level optimization technique that considers a follower problem for optimizing the profit of each charging station (CS) and a leader problem for optimizing the overall profit for a network of charging stations. The follower problem considers the pricing, energy sold, energy demand, energy cost, and station cost, subject to a constraint on the maximum distance from the station. The leader problem aims to maximize the overall profit of all stations, subject to charging allocation and distance constraints. The proposed approach uses Bender's decomposition algorithm to solve the profit maximization problem, where the pricing determines the charging allocation and resulting profit. The simulation results demonstrate the effectiveness of the proposed approach in maximizing the gain for the charging station network.
Author Yang Khoo, Sui
Parvez Mahmud, M A
Kouzani, Abbas Z
Adil, Muhammad
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Snippet This article proposes a Stackelberg game model for determining the optimal pricing and placement of electric vehicle charging stations. The model is based on a...
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SubjectTerms Bender's Decomposition
Bi-level Optimization
Charging Station
Distance Constraints
Electric Vehicles
Price
Profit Maximization
Stackelberg Game
Title A Stackelberg Game Approach to Find Optimal Location and Pricing for Network of Charging Stations
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