Nash bargaining‐based cooperative game for distributed economic scheduling of microgrid with charging‐swapping‐storage integrated station

Summary To stimulate cooperative transaction between different stakeholders and optimize the economic profits of each entity in the microgrid (MG) with charging‐swapping‐storage integrated station (CSSIS), this article establishes a Nash bargaining‐based cooperative game model between MG and CSSIS,...

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Veröffentlicht in:International journal of energy research 2022-12, Vol.46 (15), p.23927-23938
Hauptverfasser: Cheng, Shan, Zuo, Xianwang, Wei, Zhaobin, Ni, Kaixuan, Wang, Can
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container_end_page 23938
container_issue 15
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container_title International journal of energy research
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creator Cheng, Shan
Zuo, Xianwang
Wei, Zhaobin
Ni, Kaixuan
Wang, Can
description Summary To stimulate cooperative transaction between different stakeholders and optimize the economic profits of each entity in the microgrid (MG) with charging‐swapping‐storage integrated station (CSSIS), this article establishes a Nash bargaining‐based cooperative game model between MG and CSSIS, and proposes an alternating direction method of multipliers (ADMM) based distributed computation to reach Nash equilibrium. At first, MG and CSSIS are regarded as two different stakeholders, and their transactions are captured by the Nash bargaining framework, which takes the Stackelberg equilibrium solution as the initial bifurcation point of Nash negotiation, and constructs a bi‐level Nash bargaining game model for the microgrid and CSSIS. Then, theoretical analysis of the existence and uniqueness of Nash equilibrium is developed based on the proposed game property. Following that, with application of augmented Lagrange function and ADMM, the constraints coupled Nash bargaining mathematical problem is divided into two independent subproblems, namely, the economic profit maximization of MG and the economic operation maximization of CSSIS, whose solutions can be determined in a distributed iteration. Numerical simulation results indicate that, compared with Stackelberg equilibrium solution identified by the noncooperative game model, the model can further improve the benefits of both game participants and achieve win‐win results. At the same time, it can more reasonably schedule resources in the system to maximize the economic profit of the overall system. Procedure overview.
doi_str_mv 10.1002/er.8689
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At first, MG and CSSIS are regarded as two different stakeholders, and their transactions are captured by the Nash bargaining framework, which takes the Stackelberg equilibrium solution as the initial bifurcation point of Nash negotiation, and constructs a bi‐level Nash bargaining game model for the microgrid and CSSIS. Then, theoretical analysis of the existence and uniqueness of Nash equilibrium is developed based on the proposed game property. Following that, with application of augmented Lagrange function and ADMM, the constraints coupled Nash bargaining mathematical problem is divided into two independent subproblems, namely, the economic profit maximization of MG and the economic operation maximization of CSSIS, whose solutions can be determined in a distributed iteration. Numerical simulation results indicate that, compared with Stackelberg equilibrium solution identified by the noncooperative game model, the model can further improve the benefits of both game participants and achieve win‐win results. At the same time, it can more reasonably schedule resources in the system to maximize the economic profit of the overall system. 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At first, MG and CSSIS are regarded as two different stakeholders, and their transactions are captured by the Nash bargaining framework, which takes the Stackelberg equilibrium solution as the initial bifurcation point of Nash negotiation, and constructs a bi‐level Nash bargaining game model for the microgrid and CSSIS. Then, theoretical analysis of the existence and uniqueness of Nash equilibrium is developed based on the proposed game property. Following that, with application of augmented Lagrange function and ADMM, the constraints coupled Nash bargaining mathematical problem is divided into two independent subproblems, namely, the economic profit maximization of MG and the economic operation maximization of CSSIS, whose solutions can be determined in a distributed iteration. Numerical simulation results indicate that, compared with Stackelberg equilibrium solution identified by the noncooperative game model, the model can further improve the benefits of both game participants and achieve win‐win results. At the same time, it can more reasonably schedule resources in the system to maximize the economic profit of the overall system. 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subjects alternating direction method of multipliers
Bargaining
Charging
charging‐swapping‐storage integrated station
Computation
cooperative game
Distributed generation
Economics
Equilibrium
Game theory
Iterative methods
Mathematical models
Mathematical problems
Maximization
microgrid
Nash bargaining game
Optimization
Profit
Scheduling
Storage
Theoretical analysis
title Nash bargaining‐based cooperative game for distributed economic scheduling of microgrid with charging‐swapping‐storage integrated station
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