基于可再生能源的混合微电网系统设计

E. Kabalci, Hilal Irgan, Y. Kabalci
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引用次数: 10

摘要

本文提出了一种可再生能源混合微电网系统的设计及其控制方法和分析结果。这种可再生能源(RES)由33千瓦的光伏、100千瓦的燃料电池堆和一个50千瓦的永磁同步发电机(PMSG)风力涡轮机组成。光伏电站包括光伏阵列和DC-DC升压变换器。燃料电池装置包括燃料电池堆和DC-DC升压转换器。风力发电厂包括风力涡轮机、PMSG、无控整流器和DC-DC升压变换器。采用增量电导最大功率点跟踪算法(IC-MPPT A)对与光伏电站连接的升压变换器进行控制,风能系统和燃料电池系统的升压变换器均采用PI控制器进行控制。所有升压变换器的开关元件均为M OSFE t,风能系统和燃料电池系统的升压变换器的开关频率为30 kHz,升压变换器连接光伏阵列的开关频率为50 kHz。混合微电网已耦合在1000V直流母线上。采用400V/ 120kv变压器和120kv, 50hz交流电源建立电网模型。为了实现直流到交流的转换,拓扑结构采用全桥逆变电路,开关元件选用IGBT。锁相环(PLL)算法用于控制逆变器输出端产生的交流电压与电网相同的相位、频率和幅值。该系统已在风速、太阳辐照等多种工况下运行。尽管存在这些变量,系统还是得到了预期的结果。
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Hybrid Microgrid System Design with Renewable Energy Sources
This study presents both a hybrid microgrid system design with renewable energy and their control methods, analysis result. This renewable energy resources (RES) consist of 33kW PVs, 100kW fuel cell stack and a 50kW wind turbine with permanent magnet synchronous generator (PMSG). PV plant includes the PV arrays and DC-DC boost converter. Fuel cell plant includes the fuel cell stacks and DC-DC boost converter. The wind energy plant contains the wind turbine, PMSG, uncontrolled rectifier and DC-DC boost converter. The boost converter connected to PV plant has been controlled by using incremental conductance maximum power point tracking algorithm (IC-MPPT A). Both the boost converters of the wind energy system and fuel cell system have been operated with PI controllers. The switching element of all boost converters is M OSFE T. The switching frequency for boost converters of the wind energy system and fuel cell system is 30 kHz and 50 kHz for boost converter connected PV array. The hybrid microgrid has been coupled on 1000V DC-bus bar. 400V/120 kV transformer and 120 kV, 50 Hz AC supply have been used to create the grid model. To convert from DC to AC, as the topology, full bridge inverter circuit has been used and IGBT has selected as the switching element. Phase locked loop (PLL) algorithm has been used as a control for the AC voltage generated at the inverter output to be the same phase, frequency and amplitude with the grid. The system has been operated under the various operating conditions such as wind speed and solar irradiation. And despite these variables, the desired results have been obtained from the system.
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