串联电容器应用的次同步谐振研究和缓解方法

D. H. Baker, G. Boukarim, R. D'aquila, R. Piwko
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引用次数: 58

摘要

汽轮发电机由于其长多单元轴的物理特性而具有扭转固有频率。交流输电网络中串联电容补偿有减小附近汽轮发电机扭振阻尼的趋势。这种现象被称为次同步共振(SSR),它影响着涡轮发电机的次同步频率,这是特定于单个机组扭转振荡模式的。串联电容器也有在主要网络暂态事件中放大轴应力的倾向。次同步共振的机理已被很好地理解。自1970年和1971年Mohave机组头两次井筒故障以来,已经制定并成功实施了许多缓解方案,安装和运行了许多串联电容器,没有发生事故。本文首先介绍了次同步谐振的研究概况,以及串联补偿对次同步谐振的影响。然后描述了次同步谐振(SSR)研究,应该为每个系列电容器应用程序进行。介绍了SSR风险评估的分析方法,包括SSR稳定性分析和瞬态转矩分析。本文还描述了减轻SSR问题的技术方法。解决方法范围从避免SSR的简单技术到涉及复杂的缓解设备组合的复杂解决方案。最后,阐述了扭振保护方案的原理,并介绍了SSR保护和监测的方法。为每种类型的研究、缓解方法和保护方案提供了技术说明和实现示例
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Subsynchronous resonance studies and mitigation methods for series capacitor applications
Turbine-generators have torsional natural frequencies due to physical properties of their long multi-element shafts. Series capacitor compensation in ac transmission networks has a tendency to reduce damping of torsional vibrations of nearby turbine generators. The phenomenon is called subsynchronous resonance (SSR), and it affects turbine-generators at subsynchronous frequencies that are specific to torsional oscillation modes of individual units. Series capacitors also have a tendency to amplify the shaft stress during major network transient events. The mechanism of the subsynchronous resonance is well understood. Numerous mitigation schemes have been developed and successfully implemented, and many series capacitors have been installed and operated without incidents since the first two shaft failures of the Mohave unit in 1970 and 1971. This paper first provides an overview of subsynchronous resonance (SSR) and the impact of series compensation on SSR. It then describes subsynchronous resonance (SSR) studies that should be performed for each series capacitor application. Analysis methods to evaluate SSR risk are described, including SSR stability analysis and transient torque analysis. The paper also provides descriptions of technical methods for mitigating SSR problems. The solution methods range from simple techniques to avoid SSR to complex solutions involving sophisticated combinations of mitigation equipment. Lastly, the paper explains a philosophy for torsional protection schemes, and describes methods for SSR protection and monitoring. Technical descriptions and implementation examples are provided for each type of study, mitigation method, and protection scheme
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