Altunkaynak and Nigussie (2017) |
MLP |
Water demand prediction |
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Predict water demand using MSA-MLP and compare its DWT-MLP |
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CE |
Zubaidi et al. (2018) |
GSA-ANN, BSA-ANN |
Water demand prediction |
Residential |
2018 |
Predict water demand using heuristis algorithms, ANN and weather variables |
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Chen et al. (2020) |
DT, NB, LR, LDA,CRT, KNN, SVM, RF, CRF |
WQP |
HEP plant |
2020 |
Predict water quality using different water paranmetersi.e. pH, DO, CODMn, and NH3–N |
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wF1 |
Shine et al. (2018) |
RF, NNN, SVMCDT |
Water consumption prediction |
Agricultural |
2018 |
Predict water consumption using a backward sequential variable selection and parameter tuning |
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Smolak et al. (2020) |
RF, SVM, ARIMA |
Water consumption prediction |
Residential |
2020 |
Predict water consumption using consumption records and occupancy patterns |
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Antunes et al. (2018) |
ANN, RF, SVM KNN |
Water demand prediction |
Public |
2018 |
Reliable prediction while no significant anomalies of the data used during training are reported |
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Roccetti et al. (2019) |
RNN |
Predicting water meter failures |
- |
2019 |
Predict water meter failures using 15 million of readings |
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AUC, CM |
Nasser et al. (2020) |
LSTM |
Water demand prediction |
Public and residential |
2020 |
Predict energy demand by analyzing data gathered from smart IoT water meters and stored in the cloud |
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Du et al. (2021) |
LSTM-DWT-PCA |
Water demand prediction |
Public and residential |
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The outputs of DWT and PCA are fed into an LSTM network to predict water demand |
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EVS,
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