基于人工神经网络的通用动态负荷模型

E. O. Kontis, Ioannis S. Skondrianos, T. Papadopoulos, A. Chrysochos, G. Papagiannis
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引用次数: 9

摘要

由于智能电网的出现和相量测量单元的安装,现代电力系统中测量的可用性增加,有利于使用在线记录响应的动态负载模型的发展。然而,荷载模型参数受到荷载条件的显著影响,并且由于荷载的时变和天气相关组成而发生很大变化。因此,从现场测量中获得的负荷模型参数仅对一个狭窄的工作条件范围有效。本文的范围是提出一个系统的识别程序来开发通用的动态负荷模型,适用于广泛的离散运行条件。为此,考虑了两种不同的通用建模方法。第一种方法基于统计分析,而第二种方法采用人工神经网络(ann)。使用NEPLAN软件进行了几个模拟场景,以研究在不同负载条件下推导模型的准确性,同时使用交叉验证技术评估其泛化能力。
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Generic dynamic load models using artificial neural networks
The increased availability of measurements in modern power systems, due to the advent of smart grids and the installation of phasor measurement units, has favored the development of dynamic load models using online recorded responses. However, load model parameters are significantly affected by loading conditions and change considerably due to the time-varying and weather-dependent composition of load. Therefore, load model parameters obtained from in-situ measurements are valid only for a narrow range of operating conditions. Scope of this paper is to propose a systematic identification procedure to develop generic dynamic load models, valid for a wide range of discrete operating conditions. For this purpose, two different generic modeling approaches are considered. The first approach is based on statistical analysis, while the second employs Artificial Neural Networks (ANNs). Several simulation scenarios are performed using the NEPLAN software to investigate the accuracy of the derived models over a wide range of different loading conditions, while their generalization capabilities are evaluated using the cross-validation technique.
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