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Article 2025 · 0 citations

Modelling and optimization of RSM and ANN techniques in treatment of real textile wastewater using Mn-doped Fe<sub>3</sub>O<sub>4</sub>/zeolite as heterogeneous catalyst

Ozguven, Ayse, Kaya, Zilan, Ozguven, Omerul Faruk, Ozturk, Dilara

Abstract

This study explored the use and effectiveness of Mn-doped Fe3O4/zeolite as a catalyst in removing COD from real textile wastewater through the HF process, using ANN and RSM techniques. The catalyst was characterized by SEM, EDX, BET, XRD, FTIR, and XPS. The catalyst structure was polycrystalline and microporous, with an average pore diameter estimated as 11.24 nm. BET surface area and pore volume of the catalyst were found as 8.9599 m(2)/g and 0.0321 cm(3) /g. Optimum operation conditions are determined as: 1 g/L catalyst dosage, 2 g/L H2O2, 59.9 degrees C temperature, 244.7 rpm shaking speed, pH 2.5, and 99.4 min reaction time. The catalyst showed good performance, achieving 87.6 % and 92.5 % COD and color removal under optimum conditions. center dot OH played a key role and was a dominant oxidative species in removing pollutants. Scavenging of center dot HO2 caused a 17.6 % and 17.5 % decrease in COD and color removal. The removal performances were best described by the BMG kinetic model (R-2 > 0.99). The catalyst can be reused for five cycles, achieving at least 65 % COD removal and 80 % color removal. This study demonstrates that Mn-Fe3O4/zeolite coupled with ANN optimization offers a reliable and sustainable approach for treating real textile effluents.

Keywords
ANN catalyst heterogeneous Fenton process textile wastewater RSM RESPONSE-SURFACE METHODOLOGY LANDFILL LEACHATE TREATMENT NEURAL-NETWORK FENTON PROCESS AZO-DYE GENETIC ALGORITHM BINARY OXIDE HUMIC-ACID ZEOLITE-Y DEGRADATION
WoS Categories
Engineering, Chemical
Sustainable Development Goals
Citation
Journal
CHEMICAL ENGINEERING RESEARCH & DESIGN
Year
2025
Volume
224
Pages
193-208
ISSN
0263-8762
eISSN
1744-3563
DOI
10.1016/j.cherd.2025.11.012
WoS UID
WOS:001625375900001
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