(Universiti Putra Malaysia, Malaysia)(2) Norwati Mustapha
(Universiti Putra Malaysia, Malaysia)(3) Teh Noranis Mohd Aris
(Universiti Putra Malaysia, Malaysia)(4) Maslina Zolkepli
(Universiti Putra Malaysia, Malaysia)*corresponding author
AbstractThe advancement of machine learning model has widely been adopted to provide flood forecast. However, the model must deal with the challenges to determine the most important features to be used in in flood forecast with high-dimensional non-linear time series when involving data from various stations. Decomposition of time-series data such as empirical mode decomposition, ensemble empirical mode decomposition and discrete wavelet transform are widely used for optimization of input; however, they have been done for single dimension time-series data which are unable to determine relationships between data in high dimensional time series. In this study, hybrid machine learning models are developed based on this feature decomposition to forecast the monthly water level using monthly rainfall data. Rainfall data from eight stations in Kelantan River Basin are used in the hybrid model. To effectively select the best rainfall data from the multi-stations that provide higher accuracy, these rainfall data are analyzed with entropy called Mutual Information that measure the uncertainty of random variables from various stations. Mutual Information act as optimization method helps the researcher to select the appropriate features to score higher accuracy of the model. The experimental evaluations proved that the hybrid machine learning model based on the feature decomposition and ranked by Mutual Information can increase the accuracy of water level forecasting. This outcome will help the authorities in managing the risk of flood and helping people in the evacuation process as an early warning can be assigned and disseminate to the citizen.
KeywordsDiscrete wavelet transform; Empirical mode decomposition; Ensemble EMD; Entropy; Mutual information
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DOIhttps://doi.org/10.26555/ijain.v10i1.1130 |
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