Water Environment Research, Год журнала: 2025, Номер 97(5)
Опубликована: Май 1, 2025
Abstract Efficient prediction of pollutant concentrations in constructed wetlands is critical for optimizing treatment performance, yet existing methodologies often fail to account the influence meteorological conditions and flow rate variations real‐world scenarios. This study addresses this gap by developing predictive models Total Phosphorus (TP) removal hybrid (HCWs)—combining vertical subsurface free water surface flow—treating rice mill wastewater. Four modeling techniques: Multiple Linear Regression (MLR), Artificial Neural Networks (ANN), Support Vector Machines (SVM), Random Forest (RF), were used predict best‐fit model TP based on specific conditions. The evaluates impact key parameters such as temperature (TEMP), hydraulic loading (HLR), initial chemical oxygen demand (CODin), total nitrogen (TNin), phosphorus (TPin), turbidity (TBin) efficiency. results revealed that SVM_rbf achieved highest accuracy with an R 2 value 0.735763, followed ANN (R : 0.73), RF 0.721298), MLR 0.689199). research highlights potential machine learning enhancing quantification reduction HCWs, offering a robust framework improving wastewater performance under varying environmental operational Practitioner Points Machine (SVM, ANN, RF, MLR) applied hybrid‐constructed treating demonstrated = 0.7358), outperforming prediction. analyzed temperature, rate, CODin, TNin, TPin, TBin integration ML wetland engineering principles enhances HCW design efficiency sustainable treatment. fills providing standardized experimental setup ML‐based prediction, reliability applicability.
Язык: Английский