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Masoud Dashtdar


In this study, fault location is implemented on an IEEE-15bus sample network using artificial neural network. The basis of this work is such that initially, in order to train the neural network, a series of specific characteristic are extracted by the relay from the observed fault signal. These characteristics are obtained by wavelet transform which properly extracts high and low frequency coefficients of the signal. Hence, since high frequencies are generated during the occurrence of the fault, signal information could be extracted using wavelet transform. After wavelet transform, the entropies of the minor components of the sequences could be obtained using statistics to extract the hidden features inside them and present them to train the neural network. Also, since the obtained inputs for the training of the neural network depend on the fault angle, resistance and location, the training data should be selected such that these differences be properly presented so the neural network does not face any issues in its identification. Therefore, selecting the signal processing function, data spectrum and subsequently, statistical parameters and their combinations are important. The simulation results show the good performance of neural network for the faults in different angles, locations, and resistances.

Article Details


Fault location, Wavelet transform, ANN, WEE, EPU, Artificial Neural Network

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Electrical Engineering
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How to Cite

Dashtdar, M. (2018). Fault Location in Distribution Network Based on Fault Current Analysis Using Artificial Neural Network. Mapta Journal of Electrical and Computer Engineering (MJECE), 1(2), 18-32.