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Enhancing the Forecasting of Monthly Streamflow in the Main Key Stations of the River Nile Basin

  • Water Resources and the Regime of Water Bodies
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Abstract

Predicting the streamflow of rivers can have a significant economic impact, as this can help in agricultural water management and in providing protection from water shortages and possible flood damage. In this study, two statistical models have been used; Deseasonalized Autoregressive moving average model (DARMA) and Artificial Neural Network (ANN) to predict monthly streamflow which important for reservoir operation policy using different time scale, monthly and 1/3 monthly (ten-days) flow data for River Nile basin at five key stations. The streamflow series is deseasonalized at different time scale and then an appropriate nonseasonal stochastic DARMA (p, q) models are built by using the plots of Partial Auto Correlation Function (PACF) to determine the order (p) of DARMA model. Then the deseasonalized data for key stations are used as input to ANN models with lags equals to the order (p) of DARMA model. The performance of ANN and DARMA models are compared using statistical methods. The results show that the developed model (using 1/3 monthly (ten-days) and ANN) has the best performance to predict monthly streamflow at all key stations. The results also show that the relative error in the developed model result did not exceed 9% while in the traditional models reach to 68% in the flood months in the testing period. The result also indicates that ANN has considerable potential for river flow forecasting.

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  1. Irrigation Eng. and Hydraulics Dept., Faculty of Eng., Alexandria University, Alexandria, Egypt

    Mohammed A. Elganiny & Alaa Esmail Eldwer

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Elganiny, M.A., Eldwer, A.E. Enhancing the Forecasting of Monthly Streamflow in the Main Key Stations of the River Nile Basin. Water Resour 45, 660–671 (2018). https://doi.org/10.1134/S0097807818050135

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