Artificial Neural Network and Non-Linear Regression-Based Optimization of the Degradation of Acid Black 52 Using Atmospheric Plasma Process

While plasma technology shows promise for wastewater treatment, its large-scale application is hindered by the challenge of defining universal treatment conditions for complex industrial effluents. This research investigates the degradation of Acid Black 52 (AB52) to overcome this barrier. We treated 250 mL of a 0.5 mM AB52 solution with atmospheric plasma, systematically varying the pH, applied voltage, and treatment time. The process was monitored by using UV-vis absorption spectroscopy, pH, and electrical conductivity measurements. Our findings reveal that plasma treatment can achieve over 80% dye removal under conditions optimized by both the Response Surface Methodology (voltage: 2.57 kV, discharge exposure time: 107.67 min, initial pH: 4.4) and a Genetic Algorithm (voltage: 2.6 kV, discharge exposure time: 107.84 min, initial pH: 4.95). Furthermore, statistical analysis confirmed that the applied voltage and treatment duration are the most influential factors. This work highlights the efficacy of atmospheric plasma and provides a framework for optimizing its use against specific organic contaminants.

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Publication Details

Journal
ACS Omega
Published
2025-11-25
DOI
https://doi.org/10.1021/acsomega.5c08829
Primary Topic
Plasma Applications and Diagnostics
Type
article
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article

Artificial Neural Network and Non-Linear Regression-Based Optimization of the Degradation of Acid Black 52 Using Atmospheric Plasma Process

P. G. Reyes, César Torres Segundo, Alejandro Regalado-Méndez, H. Martı́nez et al.
ACS Omega
Plasma Applications and Diagnostics
article

Artificial Neural Network and Non-Linear Regression-Based Optimization of the Degradation of Acid Black 52 Using Atmospheric Plasma Process

P. G. Reyes, César Torres Segundo, Alejandro Regalado-Méndez, H. Martı́nez, Josefina Vergara-Sánchez, Reyna Natividad, Aarón Gómez Díaz
article en

Abstract

While plasma technology shows promise for wastewater treatment, its large-scale application is hindered by the challenge of defining universal treatment conditions for complex industrial effluents. This research investigates the degradation of Acid Black 52 (AB52) to overcome this barrier. We treated 250 mL of a 0.5 mM AB52 solution with atmospheric plasma, systematically varying the pH, applied voltage, and treatment time. The process was monitored by using UV-vis absorption spectroscopy, pH, and electrical conductivity measurements. Our findings reveal that plasma treatment can achieve over 80% dye removal under conditions optimized by both the Response Surface Methodology (voltage: 2.57 kV, discharge exposure time: 107.67 min, initial pH: 4.4) and a Genetic Algorithm (voltage: 2.6 kV, discharge exposure time: 107.84 min, initial pH: 4.95). Furthermore, statistical analysis confirmed that the applied voltage and treatment duration are the most influential factors. This work highlights the efficacy of atmospheric plasma and provides a framework for optimizing its use against specific organic contaminants.

ACS OmegaVol. 10(48)
Universidad Autónoma del Estado de México (MX), Universidad del Mar (CL), Escuela de Estudios Árabes (ES), Instituto de Física de Cantabria (ES), Universidad de Comunicación Avanzada (MX), National University of Engineering (PE), Universidad Autónoma del Estado de Morelos (MX), Universidad Nacional Autónoma de México (MX)
Openalex Percentile: Top 49%
Plasma Applications and Diagnostics
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