PI controlled solar energy supported static excitation system desing and simulation for synchronous generators

E. Irmak, Naki Güler, Mustafa Ersan
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引用次数: 2

Abstract

In this study, an automatic excitation control system design and simulation has been realized. Especially on the energy generation power plants, generator terminal voltage is increased by the step-up transformers and equalized for the parallel connection to the grid. Terminal voltage of the synchronous generators is adjusted according to the field current and the rotor speed, therefore these two variable has to be controlled at simultaneously. So in this study generator voltage and the speed are controlled at the same time. Mechanical control is realized by PI for the constant frequency. Thyristor Controlled rectifier is connected to the output of the transformer that is connected to the generator terminal voltage and controlled closed loop. On static excitation an external DC voltage source is required. In this work as external DC source solar energy has preferred. For the field flashing DC voltage has taken from solar panels. When generator has excited enough for the TCR, field flashing has stopped. Firing angle of the TCR is controlled by PI. Hence, generator terminal voltage is equalized reference voltage that is determined before. For block the over excitation failure a software has been realized. Excitation system will be operated between two determined frequencies that are lower and upper limits. Excitation and frequency system control has been realized with MATLAB/Simulink.
同步发电机PI控制太阳能支撑静态励磁系统的设计与仿真
本研究实现了自动励磁控制系统的设计与仿真。特别是在发电电站上,通过升压变压器将发电机端电压提高并均衡并网。同步发电机的端电压是根据励磁电流和转子转速来调节的,因此这两个变量必须同时控制。因此在本研究中,发电机电压和转速是同时控制的。机械控制采用PI实现恒频控制。可控硅控制整流器的输出端连接变压器,变压器的输出端连接发电机端电压并控制闭环。在静态激励时,需要外部直流电压源。在本工作中作为外部直流电源的太阳能是首选。为现场闪动直流电压取自太阳能电池板。当发电机励磁足够进行TCR时,场闪停止。TCR的发射角由PI控制。因此,发电机端电压等于之前确定的均衡参考电压。为防止过激励故障,实现了一个软件。励磁系统将在两个确定的频率之间运行,即下限和上限。利用MATLAB/Simulink实现了励磁和频率系统的控制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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