Integration of experimental and intelligent modeling for optimizing iron electrocoagulation-flocculation recovery of aquafarm effluent

The present study integrates experimental and intelligent models in the modeling and optimization of the iron electrode-based electrocoagulation-flocculation (EC-FLC) process for the treatment of aquafarm effluent (AFE). The modeling was done using Response Surface Methodology (RSM), Artificial Neural Networks (ANN), and Adaptive Neuro-Fuzzy Inference Systems (ANFIS), while the optimization was performed with Particle Swarm Optimization (PSO). The physicochemical properties of AFE were determined before and post-treatment to assess the effectiveness of the process. Central composite design (CCD) embedded in RSM was employed for experimental design. ANFIS model utilized the grid partition and ANN employed a multi-layer perceptron-based feed-forward architecture. The statistical analysis revealed superior prediction accuracy in the decreasing order ANFIS (R 2 : 0.9968, AAD: 0.0009, RMSE: 0.2373), ANN (R²: 0.9896, AAD: 0.0023, RMSE: 0.4388), and RSM (R²: 0.9655, AAD: 0.0067, RMSE: 0.7764), demonstrating the superiority of ANFIS model. Models’ reliability were validated by the strong correlation between the actual/predicted values of turbidity removal. The experimentally validated optimization solutions for turbidity were RSM numerical (96.71 %), RSM-PSO (97.46 %), ANN-PSO (98.83 %), and ANFIS-PSO (99.01 %). Post-treatment analysis revealed significant reductions in turbidity, nutrient content, and organic matter. These findings demonstrated the effectiveness of the intelligent tools in the modeling/optimization of EC-FLC recovery of AFE. • Blending experiments and models enhance aquafarm effluent recovery. • RSM, ANN, ANFIS, and PSO ensure accurate predictions, with ANFIS as the best tool. • Examining AFE properties before and after treatment enriches the process of understanding. • RSM, ANN, and ANFIS combined with PSO yield effective reduction strategies. • Significant post-treatment improvements establish successful pollutant reductions.

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Publication Details

Journal
Desalination and Water Treatment
Published
2024-10-01
DOI
https://doi.org/10.1016/j.dwt.2024.100832
Citations
9
Primary Topic
Water Quality Monitoring and Analysis
Type
article
Field-Weighted Citation Impact
2.64
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article

Integration of experimental and intelligent modeling for optimizing iron electrocoagulation-flocculation recovery of aquafarm effluent

Andrzej Białowiec, Christopher Chiedozie Obi, Chinenye Adaobi Igwegbe, Davoud Balarak et al.
9 citations
Desalination and Water Treatment
Water Quality Monitoring and Analysis
2.64
article

Integration of experimental and intelligent modeling for optimizing iron electrocoagulation-flocculation recovery of aquafarm effluent

Andrzej Białowiec, Christopher Chiedozie Obi, Chinenye Adaobi Igwegbe, Davoud Balarak, Chinonso Chukwudi Onyechi, Okechukwu Dominic Onukwuli
article en
9 citations

Abstract

The present study integrates experimental and intelligent models in the modeling and optimization of the iron electrode-based electrocoagulation-flocculation (EC-FLC) process for the treatment of aquafarm effluent (AFE). The modeling was done using Response Surface Methodology (RSM), Artificial Neural Networks (ANN), and Adaptive Neuro-Fuzzy Inference Systems (ANFIS), while the optimization was performed with Particle Swarm Optimization (PSO). The physicochemical properties of AFE were determined before and post-treatment to assess the effectiveness of the process. Central composite design (CCD) embedded in RSM was employed for experimental design. ANFIS model utilized the grid partition and ANN employed a multi-layer perceptron-based feed-forward architecture. The statistical analysis revealed superior prediction accuracy in the decreasing order ANFIS (R 2 : 0.9968, AAD: 0.0009, RMSE: 0.2373), ANN (R²: 0.9896, AAD: 0.0023, RMSE: 0.4388), and RSM (R²: 0.9655, AAD: 0.0067, RMSE: 0.7764), demonstrating the superiority of ANFIS model. Models’ reliability were validated by the strong correlation between the actual/predicted values of turbidity removal. The experimentally validated optimization solutions for turbidity were RSM numerical (96.71 %), RSM-PSO (97.46 %), ANN-PSO (98.83 %), and ANFIS-PSO (99.01 %). Post-treatment analysis revealed significant reductions in turbidity, nutrient content, and organic matter. These findings demonstrated the effectiveness of the intelligent tools in the modeling/optimization of EC-FLC recovery of AFE. • Blending experiments and models enhance aquafarm effluent recovery. • RSM, ANN, ANFIS, and PSO ensure accurate predictions, with ANFIS as the best tool. • Examining AFE properties before and after treatment enriches the process of understanding. • RSM, ANN, and ANFIS combined with PSO yield effective reduction strategies. • Significant post-treatment improvements establish successful pollutant reductions.

Desalination and Water TreatmentVol. 320
North Carolina State University (US), Nnamdi Azikiwe University (NG), Wrocław University of Environmental and Life Sciences (PL), University of Port Harcourt Teaching Hospital (NG), Zahedan University of Medical Sciences (IR)
Clean water and sanitation
Openalex Percentile: Top 11%
Water Quality Monitoring and Analysis
2.64
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