XU Chuanbo, ZHANG Wenzuo, LIU Jiyuan, et al. Multi-spatial and Temporal Planning of Electric-hydrogen Coupling for New-type Power Systems: China-MSTPEHC Planning Model[J]. 2026, 46(14): 5720-5733.
XU Chuanbo, ZHANG Wenzuo, LIU Jiyuan, et al. Multi-spatial and Temporal Planning of Electric-hydrogen Coupling for New-type Power Systems: China-MSTPEHC Planning Model[J]. 2026, 46(14): 5720-5733.DOI: 10.13334/j.0258-8013.pcsee.250685.
为量化电氢耦合在促进可再生能源消纳、助力低碳转型等方面对新型电力系统的长期影响,该文自主开发了一个涵盖情景设置、规划运行和效益评估多模块的中国电氢耦合多时空尺度规划模型(China multi-spatial and temporal planning model of electricity-hydrogen coupling,China- MSTPEHC)。在空间方面,考虑了7大电网区域的电、氢多能交互;在时间方面,开展了年度容量规划与小时级运行模拟。研究发现:1)2060年中国电解制氢将形成“三北”地区陆上风光制氢、西南水电制氢、华东海上风电制氢的空间格局;2)2030年将规划跨区域氢能运输管道,2060年出现“华北-华东”、“华北-华中”、“西北-西南”3条主要跨区域氢能运输管道,呈现“西氢东送,北氢南送”的空间格局;3)电氢耦合有助于提升可再生能源装机,降低火电装机,节省系统总成本。
Abstract
To quantify the long-term impact of electric-hydrogen coupling on new-type power systems in promoting renewable energy consumption and low-carbon transition
this paper proposes a China multi-spatial and temporal planning model of electric-hydrogen coupling (China-MSTPEHC) model with scenario setting
configuration and operation optimization
and benefit evaluation. It integrates seven major power grid regions and combines the annual capacity configuration with hourly operation simulation. The key findings are as follows: 1) By 2060
China’s electrolysis capacity will form a spatial pattern of hydrogen production from onshore wind and solar in northern grid regions
hydropower in southwestern grid regions
and offshore wind in eastern grid regions. 2) Inter-regional hydrogen pipelines will be planned by 2030. By 2060,three main pipelines (“North China-East China”
“North China-Central China”
and “Northwest China-Southwest China”) will emerge
forming a spatial pattern of “west-to-east and north-to-south hydrogen transport”. 3) Electric-hydrogen coupling can increase renewable energy capacity