부산대학교 도서관

The escalating demands of energy consumption and environmental conservation necessitate urgent advancements in energy infrastructures. In this context, Deep Integration of Multi-energy Systems (DIMS), which concentrates on the seamless integration of advanced multi-energy and information technologies, is considered the most promising strategy for resilient energy utilization in future societies. In a setting where multiple entities participate across source-network-load-storage links, achieving a balanced equilibrium that maximizes collective benefits is crucial. It therefore becomes vital to create a Distributed Integrated Energy System (DIES) operation strategy that aligns with an open energy market. To address this, we first introduce an Integrated Energy Management System (IEMS) to coordinate internal energy transactions. We propose a distributed hierarchical game architecture, taking bounded rationality into account. Under this mechanism, the upper IEMS modulates the electricity price strategy, while the lower entities achieve autonomous optimization scheduling through multi-energy collaboration and Synergy. These entities then engage in multi-agent cooperative optimization as prosumers. Furthermore, we employ the game mechanism to leverage load discrepancies, flexible role switching, and demand response, thereby effectively improving the load curve. To validate the effectiveness of our method, we employ a comparative analysis through a simulation on a DIES comprising of an IEEE 33-node network and an optimized 7-node natural gas network. This demonstrates the superiority of our proposed method.