江岳文, 杨国铭, 朱振山. 考虑交通流量捕获的风-氢-电耦合网络规划[J]. 电力系统自动化, 2021, 45(22): 19-28.
引用本文: 江岳文, 杨国铭, 朱振山. 考虑交通流量捕获的风-氢-电耦合网络规划[J]. 电力系统自动化, 2021, 45(22): 19-28.
JIANG Yuewen, YANG Guoming, ZHU Zhenshan. Wind-Hydrogen-Electricity Coupled Network Planning Considering Traffic Flow Capture[J]. Automation of Electric Power Systems, 2021, 45(22): 19-28.
Citation: JIANG Yuewen, YANG Guoming, ZHU Zhenshan. Wind-Hydrogen-Electricity Coupled Network Planning Considering Traffic Flow Capture[J]. Automation of Electric Power Systems, 2021, 45(22): 19-28.

考虑交通流量捕获的风-氢-电耦合网络规划

Wind-Hydrogen-Electricity Coupled Network Planning Considering Traffic Flow Capture

  • 摘要: 研究在风-氢-电耦合网络下的制氢加氢站(HPRS)与风电场的选址定容问题,以期实现HPRS与风电场的科学布局。首先,建立了包含氢气生产、压缩和储存并被注入氢燃料汽车的HPRS全流程模型,模拟现场电解水HPRS的氢气生产和消耗;其次,提出交通网的加氢逻辑规则及网络扩展技术;最后,同时考虑交通网络约束、电力网络约束和设备运行约束,构建考虑交通流量捕获的风-氢-电耦合网络规划模型。以IEEE 33节点电力网络和25节点交通网络作为算例测试系统,研究结果验证了所提模型的有效性。

     

    Abstract: The siting and sizing for the hydrogen producing and refueling station(HPRS) and wind farms in the wind-hydrogen-electricity coupled network are studied with the intent of realizing the scientific layout of HPRS and wind farms. Firstly, a full-process model for HPRS including hydrogen production, compression, storage and injection into hydrogen fuel vehicles is proposed to simulate the hydrogen production and consumption of HPRS with on-site water electrolysis. Secondly, the hydrogen refueling logic rules and network expansion technique in the traffic network are introduced. Finally, a wind-hydrogen-electricity coupled network planning model considering traffic flow capture is developed by simultaneously taking into account the traffic network constraints, power network constraints and equipment operation constraints. Taking the IEEE 33-bus electricity network and 25-bus traffic network as case systems, the research results verify the effectiveness of the proposed model.

     

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