Dan Wang, Deyu Huang, Qing'e Hu, et al. Electricity-Heat-Based Integrated Demand Response Considering Double Auction Energy Market with Multi-Energy Storage for Interconnected Areas[J]. CSEE Journal of Power and Energy Systems, 2024, 10(4): 1688-1700.
DOI:
Dan Wang, Deyu Huang, Qing'e Hu, et al. Electricity-Heat-Based Integrated Demand Response Considering Double Auction Energy Market with Multi-Energy Storage for Interconnected Areas[J]. CSEE Journal of Power and Energy Systems, 2024, 10(4): 1688-1700.DOI: 10.17775/CSEEJPES.2022.02140.
Electricity-Heat-Based Integrated Demand Response Considering Double Auction Energy Market with Multi-Energy Storage for Interconnected Areas
摘要
Abstract
With development of integrated energy systems and energy markets
transactive energy has received increasing attention from society and academia
and realization of energy distribution and integrated demand response through market transactions has become a current research hotspot. Research on optimized operation of a distributed energy station as a regional energy supply center is of great significance for improving flexibility and reliability of the system. Based on retail-side energy trading market
this study first establishes a framework of combined electric and heating energy markets and analyses a double auction market mechanism model of interconnected distributed energy stations. This study establishes a mechanism model of energy market participants
and establishes the electric heating combined market-clearing model to maximize global surplus considering multi-energy storage. Finally
in the case study
a typical user energy consumption scenario in winter is selected
showing market-clearing results and demand response effects on a typical day. Impact of transmission line constraints
energy supply equipment capacity
and other factors on clearing results and global surplus are compared and analyzed
verifying the effects of the proposed method on improving global surplus
enhancing interests of market participants and realizing coordination and optimal allocation of both supply and demand resources through energy complementarity between regions.