{"title":"某海上风电场与高压直流变流器平台的不使用海上交流集电平台连接","authors":"H. Ahmad, S. Coppens, B. Uzunoğlu","doi":"10.1109/GREENTECH.2013.68","DOIUrl":null,"url":null,"abstract":"Several large scale offshore wind farms are planned to be built far from the shores in the future. High Voltage Direct Current (HVDC) Light by ABB is an effective and reliable way to integrate this large scale wind power production to the grid. An expensive component of offshore wind park HVDC Light technology is offshore AC collector platform. The AC collector platform in the offshore wind farm HVDC link contributes significantly to the cost of the overall project. This paper investigates the comparison between two different AC topologies of an offshore wind farm connection to offshore HVDC converter platforms with and without offshore AC collector platforms. The technical feasibility of the omission of an AC collector platform from offshore wind farms connection to HVDC converter platform is investigated for the first time. In the first topology, the offshore wind farms are connected to an HVDC converter platform through offshore AC collector platforms. An offshore AC collector platform is used to collect energy from the wind farm and step up the voltages for transmission to offshore HVDC converter platform. The offshore AC collector platforms contribute significantly to the total cost and technical complexity of the HVDC connection. In the second topology, the offshore AC collector platform is removed from the circuit and the offshore wind farms are connected directly to offshore HVDC converter platform. The topological alteration of an offshore wind farm HVDC link gives rise to some technical challenges. The short circuit analysis and annual energy loss analysis is performed for these two topologies. The type of wind turbine generators, internal wind farm voltages and the distance between the wind farms and offshore HVDC converter platform are quite important factors that are investigated in this study. The short circuit analysis and loss analysis is performed for two types of wind turbine generators i.e. doubly fed induction generators (DFIG) and full conversion (FC) generators. Two internal wind farm voltage levels i.e. 33 kV and 66 kV, and three different distances i.e. 1 km, 5 km, and 10 km between the wind farms and offshore HVDC converter platform are investigated.","PeriodicalId":311325,"journal":{"name":"2013 IEEE Green Technologies Conference (GreenTech)","volume":"190 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2013-04-04","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"12","resultStr":"{\"title\":\"Connection of an Offshore Wind Park to HVDC Converter Platform without Using Offshore AC Collector Platforms\",\"authors\":\"H. Ahmad, S. Coppens, B. Uzunoğlu\",\"doi\":\"10.1109/GREENTECH.2013.68\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Several large scale offshore wind farms are planned to be built far from the shores in the future. High Voltage Direct Current (HVDC) Light by ABB is an effective and reliable way to integrate this large scale wind power production to the grid. An expensive component of offshore wind park HVDC Light technology is offshore AC collector platform. The AC collector platform in the offshore wind farm HVDC link contributes significantly to the cost of the overall project. This paper investigates the comparison between two different AC topologies of an offshore wind farm connection to offshore HVDC converter platforms with and without offshore AC collector platforms. The technical feasibility of the omission of an AC collector platform from offshore wind farms connection to HVDC converter platform is investigated for the first time. In the first topology, the offshore wind farms are connected to an HVDC converter platform through offshore AC collector platforms. An offshore AC collector platform is used to collect energy from the wind farm and step up the voltages for transmission to offshore HVDC converter platform. The offshore AC collector platforms contribute significantly to the total cost and technical complexity of the HVDC connection. In the second topology, the offshore AC collector platform is removed from the circuit and the offshore wind farms are connected directly to offshore HVDC converter platform. The topological alteration of an offshore wind farm HVDC link gives rise to some technical challenges. The short circuit analysis and annual energy loss analysis is performed for these two topologies. The type of wind turbine generators, internal wind farm voltages and the distance between the wind farms and offshore HVDC converter platform are quite important factors that are investigated in this study. The short circuit analysis and loss analysis is performed for two types of wind turbine generators i.e. doubly fed induction generators (DFIG) and full conversion (FC) generators. 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引用次数: 12
摘要
未来计划在远离海岸的地方建造几个大型海上风力发电场。ABB的高压直流(HVDC)灯是将这种大规模风力发电整合到电网的有效和可靠的方法。海上交流集热器平台是海上风电场高压直流光技术中一个昂贵的组成部分。海上风电场高压直流线路中的交流集热器平台对整个项目的成本贡献很大。本文研究了两种不同的交流拓扑结构的海上风电场连接到海上高压直流变换器平台有和没有海上交流集热器平台。首次探讨了海上风电场连接高压直流变流器平台时省去交流集热器平台的技术可行性。在第一种拓扑结构中,海上风电场通过海上交流集热器平台连接到HVDC变换器平台。海上交流集热器平台用于收集风电场的能量,并升压后传输到海上高压直流变换器平台。海上交流集热器平台对高压直流连接的总成本和技术复杂性做出了重大贡献。在第二种拓扑结构中,将海上交流集热器平台从电路中移除,将海上风电场直接连接到海上高压直流变流器平台。海上风电场高压直流输电线路的拓扑变化带来了一些技术挑战。对这两种拓扑进行了短路分析和年能量损失分析。风力发电机类型、风电场内部电压以及风电场与海上高压直流换流平台之间的距离是本研究中非常重要的研究因素。对双馈感应发电机(DFIG)和全变频发电机(FC)两种类型的风力发电机组进行了短路分析和损耗分析。研究了两个风电场内部电压等级,即33 kV和66 kV,以及风电场与海上高压直流变流器平台之间的3个不同距离,即1 km, 5 km和10 km。
Connection of an Offshore Wind Park to HVDC Converter Platform without Using Offshore AC Collector Platforms
Several large scale offshore wind farms are planned to be built far from the shores in the future. High Voltage Direct Current (HVDC) Light by ABB is an effective and reliable way to integrate this large scale wind power production to the grid. An expensive component of offshore wind park HVDC Light technology is offshore AC collector platform. The AC collector platform in the offshore wind farm HVDC link contributes significantly to the cost of the overall project. This paper investigates the comparison between two different AC topologies of an offshore wind farm connection to offshore HVDC converter platforms with and without offshore AC collector platforms. The technical feasibility of the omission of an AC collector platform from offshore wind farms connection to HVDC converter platform is investigated for the first time. In the first topology, the offshore wind farms are connected to an HVDC converter platform through offshore AC collector platforms. An offshore AC collector platform is used to collect energy from the wind farm and step up the voltages for transmission to offshore HVDC converter platform. The offshore AC collector platforms contribute significantly to the total cost and technical complexity of the HVDC connection. In the second topology, the offshore AC collector platform is removed from the circuit and the offshore wind farms are connected directly to offshore HVDC converter platform. The topological alteration of an offshore wind farm HVDC link gives rise to some technical challenges. The short circuit analysis and annual energy loss analysis is performed for these two topologies. The type of wind turbine generators, internal wind farm voltages and the distance between the wind farms and offshore HVDC converter platform are quite important factors that are investigated in this study. The short circuit analysis and loss analysis is performed for two types of wind turbine generators i.e. doubly fed induction generators (DFIG) and full conversion (FC) generators. Two internal wind farm voltage levels i.e. 33 kV and 66 kV, and three different distances i.e. 1 km, 5 km, and 10 km between the wind farms and offshore HVDC converter platform are investigated.