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A Comparative Study on Optofluidic Fenton Microreactors Integrated with Fe-Based Materials for Water Treatment

The catalysts employed in catalytic reactors greatly affect the reaction efficiency of the reaction system and the reactor’s performance. This work presents a rapid comparative study on three kinds of Fe-based materials integrated into an optofluidic Fenton reactor for water treatment. The Fe-based...

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Autores principales: Liu, Lijun, Wang, Ning, Wan, Liang, Zhao, Chao, Niu, Kunpeng, Lyu, Dajuan, Liao, Zhaolong, Shui, Biao
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9317202/
https://www.ncbi.nlm.nih.gov/pubmed/35888942
http://dx.doi.org/10.3390/mi13071125
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author Liu, Lijun
Wang, Ning
Wan, Liang
Zhao, Chao
Niu, Kunpeng
Lyu, Dajuan
Liao, Zhaolong
Shui, Biao
author_facet Liu, Lijun
Wang, Ning
Wan, Liang
Zhao, Chao
Niu, Kunpeng
Lyu, Dajuan
Liao, Zhaolong
Shui, Biao
author_sort Liu, Lijun
collection PubMed
description The catalysts employed in catalytic reactors greatly affect the reaction efficiency of the reaction system and the reactor’s performance. This work presents a rapid comparative study on three kinds of Fe-based materials integrated into an optofluidic Fenton reactor for water treatment. The Fe-based sheets (FeSiB, FeNbCuSiB, and FeNi) were respectively implanted into the reaction chamber to degrade the organic dyes with the assistance of H(2)O(2). In the experiment, by adjusting the hydrogen peroxide concentration, flow rate, and light irradiation, the applicable conditions of the Fe-based materials for the dye degradation could be evaluated quickly to explore the optimal design of the Fenton reaction system. The results indicated that FeNi (1j85) exhibits excellent degradability in the microreactor, the reaction rate can reach 23.4%/s at the flow rate of 330 μL/min, but its weak corrosion resistance was definitely demonstrated. Although the initial degradability of the microreactor by using FeNbCuSiB (1k107) was not as good as that of 1j85, it increased after being reused several times instead, and the degradation efficiency reached >98% after being reused five times. However, the FeSiB (1k101) material shows the worst degradability and recycling. Therefore, in contrast, 1k107 has the greatest potential to be used in Fenton reactors for practical water treatment.
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spelling pubmed-93172022022-07-27 A Comparative Study on Optofluidic Fenton Microreactors Integrated with Fe-Based Materials for Water Treatment Liu, Lijun Wang, Ning Wan, Liang Zhao, Chao Niu, Kunpeng Lyu, Dajuan Liao, Zhaolong Shui, Biao Micromachines (Basel) Article The catalysts employed in catalytic reactors greatly affect the reaction efficiency of the reaction system and the reactor’s performance. This work presents a rapid comparative study on three kinds of Fe-based materials integrated into an optofluidic Fenton reactor for water treatment. The Fe-based sheets (FeSiB, FeNbCuSiB, and FeNi) were respectively implanted into the reaction chamber to degrade the organic dyes with the assistance of H(2)O(2). In the experiment, by adjusting the hydrogen peroxide concentration, flow rate, and light irradiation, the applicable conditions of the Fe-based materials for the dye degradation could be evaluated quickly to explore the optimal design of the Fenton reaction system. The results indicated that FeNi (1j85) exhibits excellent degradability in the microreactor, the reaction rate can reach 23.4%/s at the flow rate of 330 μL/min, but its weak corrosion resistance was definitely demonstrated. Although the initial degradability of the microreactor by using FeNbCuSiB (1k107) was not as good as that of 1j85, it increased after being reused several times instead, and the degradation efficiency reached >98% after being reused five times. However, the FeSiB (1k101) material shows the worst degradability and recycling. Therefore, in contrast, 1k107 has the greatest potential to be used in Fenton reactors for practical water treatment. MDPI 2022-07-16 /pmc/articles/PMC9317202/ /pubmed/35888942 http://dx.doi.org/10.3390/mi13071125 Text en © 2022 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Liu, Lijun
Wang, Ning
Wan, Liang
Zhao, Chao
Niu, Kunpeng
Lyu, Dajuan
Liao, Zhaolong
Shui, Biao
A Comparative Study on Optofluidic Fenton Microreactors Integrated with Fe-Based Materials for Water Treatment
title A Comparative Study on Optofluidic Fenton Microreactors Integrated with Fe-Based Materials for Water Treatment
title_full A Comparative Study on Optofluidic Fenton Microreactors Integrated with Fe-Based Materials for Water Treatment
title_fullStr A Comparative Study on Optofluidic Fenton Microreactors Integrated with Fe-Based Materials for Water Treatment
title_full_unstemmed A Comparative Study on Optofluidic Fenton Microreactors Integrated with Fe-Based Materials for Water Treatment
title_short A Comparative Study on Optofluidic Fenton Microreactors Integrated with Fe-Based Materials for Water Treatment
title_sort comparative study on optofluidic fenton microreactors integrated with fe-based materials for water treatment
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9317202/
https://www.ncbi.nlm.nih.gov/pubmed/35888942
http://dx.doi.org/10.3390/mi13071125
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