4.7 Article

Peer-to-Peer Energy Trading Under Network Constraints Based on Generalized Fast Dual Ascent

期刊

IEEE TRANSACTIONS ON SMART GRID
卷 14, 期 2, 页码 1441-1453

出版社

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TSG.2022.3162876

关键词

Distribution networks; Peer-to-peer computing; Costs; Privacy; Games; Convergence; Resource management; Peer-to-peer (P2P) energy trading; event-driven; market clearing; generalized fast dual ascent

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The wide deployment of renewable energy resources and the more proactive demand-side management have led to a new paradigm in power system operation and electricity market trading, which has boosted the emergence of the peer-to-peer market. This paper proposes a new P2P electricity trading framework with distribution network security constraints considered using the generalized fast dual ascent method. The framework includes an event-driven local P2P market and sensitivity analysis to evaluate the impacts of P2P transactions on the distribution network, ensuring secure operation.
The wide deployment of renewable energy resources, combined with a more proactive demand-side management, is inducing a new paradigm in both power system operation and electricity market trading, which especially boosts the emergence of the peer-to-peer (P2P) market. A more flexible local market mechanism is highly desirable in response to fast changes in renewable power generation at the distribution network level. Moreover, large-scale implementation of P2P energy trading inevitably affects the secure and economic operation of the distribution network. This paper presents a new P2P electricity trading framework with distribution network security constraints considered using the generalized fast dual ascent method. First, an event-driven local P2P market framework is presented to facilitate short-term or immediate local energy transactions. Then, the sensitivity analysis of nodal voltage and network loss with respect to nodal power injections is used to evaluate the impacts of P2P transactions on the distribution network, which ensures the secure operation of the distribution system. Thereby, the external operational constraints are internalized, and the cost of P2P energy trading can be appropriately allocated in an endogenous way. Moreover, a generalized fast dual ascent method is employed to implement distributed market-clearing efficiently. Finally, numerical results indicate that the proposed model could guarantee secure operation of the distribution system with P2P energy trading, and the solution method enjoys good convergence performance.

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