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Artificial Neural Network Approach for Solving Power Flow Problem: A Case Study of Ayede 132 kV Power System, Nigeria

机译:求电力流动问题的人工神经网络方法:尼日利亚Ayede 132 kV电力系统的案例研究

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The main objective of this research work was to use Artificial Neural Network (ANN) based method for solving Power Flow Problem for a power system in Nigeria. This was achieved using the Backpropagation (multilayered feed-forward) Neural Network model. Two Backpropagation neural networks were designed and trained; one for computing voltage magnitudes on all buses and the other for computing voltage phase angles on all PV and PQ buses for different load and generation conditions for a 7-bus 132 kV power system in South-West Nigeria (Ayede). Due to unavailability of historical field records, data representing different scenarios of loading and/or generation conditions had to be generated using Newton-Raphson nonlinear iterative method. A total of 250 scenarios were generated out of which 50% were used to train the ANNs, 25% were used for validation and the remaining 25% were used as test data for the ANNs. The test data results showed very high accuracy for the ANN used for computing voltage magnitudes for all test data with a Mean Square Error (MSE) of less than 10~(-6). Also, the ANN used for computing voltage phase angles showed very high accuracy in about 80% of the test data and acceptable results in about 97% of the test data. The MSE for all the test data results for the ANN computing voltage phase angles was less than 10~(-2).
机译:本研究工作的主要目的是利用基于人工神经网络(ANN)解决尼日利亚电力系统电力流量问题的方法。这是使用BackProjagation(多层前馈)神经网络模型实现的。设计和培训了两种背部化神经网络;一个用于计算所有总线上的电压幅度,另一个用于计算所有PV和PQ总线上的电压相位,在西南尼日利亚(AYEDE)的7总线132 kV电力系统的不同负载和发电条件。由于历史场记录的不可用,必须使用Newton-Raphson非线性迭代方法生成代表加载和/或发电条件不同场景的数据。共产生250个方案,其中50%用于培训ANN,25%用于验证,其余25%被用作ANN的测试数据。测试数据结果表明,用于计算所有测试数据的电压幅度的ANN非常高精度,其平均方误差(MSE)小于10〜(-6)。此外,用于计算电压相位角的ANN在约80%的测试数据中显示出非常高的精度,并且在约97%的测试数据中可接受的结果。对于ANN计算电压相位角的所有测试数据的MSE小于10〜(-2)。

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