Transmission Design and Analysis for Large-Scale Offshore Wind Energy Development

Elpiniki Apostolaki-Iosifidou, R. McCormack, W. Kempton, P. Mccoy, Deniz Ozkan
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引用次数: 34

Abstract

The offshore wind resource is very large in many coastal regions, over 80,000 MW capacity in the region studied here. However, the resource cannot be utilized unless distant offshore wind generation can be effectively collected and brought to shore. Based on extensive oceanographic, environmental, and shipping data, a realistic wind energy deployment layout is designed with 160 wind power plants each 500 MW. The power collection and transmission infrastructure required to bring this power to shore and connect it to the electricity grid is designed and analyzed. Three types of connection to shore are compared; high voltage AC to the nearest onshore point of interconnection (POI), high voltage DC with voltage-source converter (HVDC-VSC) to the nearest onshore POI, and connecting to an offshore HVDC backbone running parallel to shore that interconnects multiple wind power plants and multiple POIs ashore. The electrical transmission losses are estimated step by step from the wind turbines to the POI. The results show that such a large system can be built with existing technology in near-load resources, and that losses in the HVDC-VSC systems are approximately 1%–2% lower than that in the AC system for a distance about 120 km from shore.
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大型海上风电开发的传动设计与分析
许多沿海地区的海上风电资源非常大,本研究地区的海上风电容量超过8万兆瓦。然而,除非能够有效地收集遥远的海上风力发电并将其带到岸上,否则无法利用该资源。基于广泛的海洋学、环境和航运数据,设计了一个现实的风能部署布局,其中有160个风力发电厂,每个500兆瓦。设计和分析了将这些电力带到岸上并连接到电网所需的电力收集和传输基础设施。对三种接岸方式进行了比较;高压交流电连接到最近的陆上互连点(POI),高压直流电压源转换器(HVDC- vsc)连接到最近的陆上互连点(POI),并连接到与海岸平行的海上HVDC主干,该主干将多个风力发电厂和陆上多个POI互连起来。从风力涡轮机到POI的电力传输损耗逐步估算。结果表明,在近负荷资源范围内,利用现有技术可以建成这样的大型系统,在距离海岸约120 km的范围内,HVDC-VSC系统的损耗比交流系统低约1%-2%。
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