HOU Hui, XIE Yingbiao, YAN Yulin, et al. Collaborative Scheduling of Multi-port Integrated Energy Systems Based on Shared Berths and P2P Trading[J]. 2025, 45(20): 8040-8052.
DOI:
HOU Hui, XIE Yingbiao, YAN Yulin, et al. Collaborative Scheduling of Multi-port Integrated Energy Systems Based on Shared Berths and P2P Trading[J]. 2025, 45(20): 8040-8052. DOI: 10.13334/j.0258-8013.pcsee.240919.
Collaborative Scheduling of Multi-port Integrated Energy Systems Based on Shared Berths and P2P Trading
为充分发挥港口作为能源转换枢纽与交通集散中心的优势,实现能源-交通之间的深度耦合与高效互动,提出一种基于共享泊位及点对点(peer-to-peer,P2P)交易的多港口综合能源系统(multi-port integrated energy systems,MPIES)协同调度策略。首先,基于泊位与岸桥联合分配特性刻画氢能船舶的停泊特征,并结合氢能船舶的能量属性,建立其能源-交通耦合模型,实现交通负荷在时间尺度上的响应;其次,构建MPIES能源-交通共享模型。在交通共享方面,通过共享泊位均衡多港交通作业需求及能流空间分布,实现交通负荷在空间尺度上的响应;在能源共享方面,采用基于中间市场利率(mid-market rate,MMR)定价方式的P2P交易促进多港能源盈缺互补;再次,提出基于合作博弈的MPIES协同调度策略,并采用广义纳什议价进行利益分配,以保证利益最大化和公平分配;最后,以天津3个典型港口为例,验证所提模型可有效提升MPIES的经济性与灵活性,并通过灵敏度分析探究影响“船随源动”、“源随船动”的关键因素。
Abstract
To fully leverage the advantages of ports as energy conversion hubs and transportation hubs
and to achieve deep coupling and efficient interaction between energy and transportation
a collaborative scheduling strategy of multi-port integrated energy systems (MPIES) based on the shared berths and peer-to-peer (P2P) trading is proposed. Firstly
the berthing features of hydrogen ships are characterized based on the joint allocation of berths and quay cranes. The energy-transportation coupling model is established considering the energy attributes of hydrogen ships
enabling the transportation load to respond on the temporal scale. Secondly
the MPIES energy- transportation sharing model is established. In terms of transportation sharing
the logistics demands and the spatial distribution of energy flow across multi-port are balanced through shared berths
enabling the transportation load to respond on the spatial scale. In terms of energy sharing
the P2P trading based on the mid-market rate (MMR) pricing mechanism is utilized to promote mutual complementarity of energy surplus and deficit across multi-port. Thirdly
the collaborative scheduling strategy of MPIES is proposed based on the cooperative game theory
and the generalized Nash bargaining is utilized for revenue allocation to ensure benefit maximization and fair distribution. Finally
the simulation is conducted based on three typical ports in Tianjin
China
to validate the effectiveness of the proposed model in enhancing the economic viability and flexibility of MPIES. Sensitivity analysis is performed to explore the key factors influencing the ecosystem featuring “ships following source” and “source following ships”.