Regional Autonomy Strategy of Multi‐Virtual Power Plant Considering Waste Incineration and Cloud Energy Storage Operator: A Low‐Carbon Mixed Game Method

ABSTRACT Under the background of the low‐carbon strategy and power market reform, multiple virtual power plants (MVPP) will coexist in the distribution network in the future. In order to improve the energy utilisation rate and the autonomy of virtual power plant (VPP) under the high proportion of renewable energy sources, and solve the conflict of interest and information asymmetry among MVPP, a mixed game dual‐layer energy optimisation operation strategy between the distribution network and MVPP with the consideration of environmental benefits under the background of cloud energy storage operator (CSO) is proposed. First, a Stackelberg game dual‐layer energy trading model is constructed to maximise the benefits of the upper layer and minimise the cost of the lower layer. Second, a cooperative game among members of the VPP is introduced to enable peer‐to‐peer trading among MVPP, and a mixed game optimisation model is established. The joint operation of the waste incineration power plant and carbon capture system is introduced into the VPP, which takes into account the economy and low carbon of the system. Then, according to the characteristics of the model, the Stackelberg model is solved by using the genetic algorithm combined with CPLEX, and the cooperative model is solved by using the alternating direction method of multipliers. The dual‐layer models interact with each other, and the balanced optimal operation strategy of the CSO, MVPP and mixed game model within the MVPP is obtained. Finally, the feasibility and effectiveness of the strategy are verified by simulation examples. The low‐carbon mixed game strategy proposed in this paper effectively improves the interest of CSO and MVPP, protects the data privacy of members and improves the autonomy of VPP.

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Publication Details

Journal
IET Energy Systems Integration
Published
2025-01-01
DOI
https://doi.org/10.1049/esi2.70007
Citations
2
Primary Topic
Smart Grid Energy Management
Type
article
Field-Weighted Citation Impact
1.46

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article

Regional Autonomy Strategy of Multi‐Virtual Power Plant Considering Waste Incineration and Cloud Energy Storage Operator: A Low‐Carbon Mixed Game Method

Liangsheng Lan, Rui Wang, Chaoyu Dong, Qiuye Sun et al.
2 citations
IET Energy Systems Integration
Smart Grid Energy Management
1.46
article

Regional Autonomy Strategy of Multi‐Virtual Power Plant Considering Waste Incineration and Cloud Energy Storage Operator: A Low‐Carbon Mixed Game Method

Liangsheng Lan, Rui Wang, Chaoyu Dong, Qiuye Sun, Ming Li, Xinrui Liu, Junbo Feng
article en
2 citations

Abstract

ABSTRACT Under the background of the low‐carbon strategy and power market reform, multiple virtual power plants (MVPP) will coexist in the distribution network in the future. In order to improve the energy utilisation rate and the autonomy of virtual power plant (VPP) under the high proportion of renewable energy sources, and solve the conflict of interest and information asymmetry among MVPP, a mixed game dual‐layer energy optimisation operation strategy between the distribution network and MVPP with the consideration of environmental benefits under the background of cloud energy storage operator (CSO) is proposed. First, a Stackelberg game dual‐layer energy trading model is constructed to maximise the benefits of the upper layer and minimise the cost of the lower layer. Second, a cooperative game among members of the VPP is introduced to enable peer‐to‐peer trading among MVPP, and a mixed game optimisation model is established. The joint operation of the waste incineration power plant and carbon capture system is introduced into the VPP, which takes into account the economy and low carbon of the system. Then, according to the characteristics of the model, the Stackelberg model is solved by using the genetic algorithm combined with CPLEX, and the cooperative model is solved by using the alternating direction method of multipliers. The dual‐layer models interact with each other, and the balanced optimal operation strategy of the CSO, MVPP and mixed game model within the MVPP is obtained. Finally, the feasibility and effectiveness of the strategy are verified by simulation examples. The low‐carbon mixed game strategy proposed in this paper effectively improves the interest of CSO and MVPP, protects the data privacy of members and improves the autonomy of VPP.

IET Energy Systems IntegrationVol. 7(1)
Nanyang Technological University (SG), Hechi University (CN), Northeastern University (CN)
National Natural Science Foundation of China, State Key Laboratory Of Alternate Electrical Power System With Renewable Energy Sources, Fundamental Research Funds for the Central Universities
Openalex Percentile: Top 18%
Smart Grid Energy Management
1.46
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