Simulation of Power Supply Systems Operating Modes with Distributed Generation Plants Based on Asynchronized Generators

Yu. N. Bulatov, A. Kryukov, Edward K. Shumansky
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引用次数: 1

Abstract

The application of asynchronized generators (ASG) in distributed generation (DG) plants instead of synchronous generators, is attractive, since they possess the following properties: a wider stability range and larger limits of reactive power adjustment; allow to keep the unit operation in synchronous mode, when excitation winding is damaged, due to the use of several windings; synchronization with network and other machines is simplified due to ability to control frequency and phase of the generated EMF irrespective of the generator rotor rotational frequency. The article provides the description of high- and low-voltage ASG developed computer-based models with automatic system of excitation control based on IGBT transistors ensuring the possibility of voltage amplitude and frequency adjustment. The studies were conducted in the MATLAB system using the Simulink and SimPowerSystems simulation packages. Modeling results indicate that the use of frequency deviation signal in the excitation system on rotor winding to control it, allows to reduce the frequency and voltage deviations occurring in independently operating ASG, in load connection and shedding modes, as well as during ASG energizing by self-synchronizing method. The comparison of synchronous generator with ASG when additional powerful load is connected in the system, indicates a wider stability range in the asynchronized turbogenerator.
基于异步发电机的分布式电站供电系统运行模式仿真
异步发电机(ASG)在分布式发电(DG)电站中代替同步发电机的应用具有以下特点:更宽的稳定范围和更大的无功调节范围;允许机组保持同步运行,当励磁绕组损坏时,由于使用多个绕组;由于能够控制产生的电动势的频率和相位,而不考虑发电机转子的旋转频率,因此简化了与网络和其他机器的同步。本文介绍了基于IGBT晶体管励磁自动控制系统的高、低压ASG计算机模型,该模型保证了电压幅值和频率的可调性。研究在MATLAB系统中使用Simulink和SimPowerSystems仿真包进行。建模结果表明,在转子绕组励磁系统中使用频率偏差信号对其进行控制,可以减少ASG独立运行、负载连接和脱落模式以及ASG自同步上电过程中出现的频率和电压偏差。通过对异步汽轮发电机与ASG在系统中附加大负荷时的比较,可以看出异步汽轮发电机的稳定范围更大。
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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