Cu-Fe and Cu-Ni metal blend-infused polystyrene-based electrospun nanofibers for dye degradation

Abstract The mitigation of hazardous effects of chemical dyes on the environment and living organisms, greatly demands an efficient and effective management of dye-laden wastewater. One such solution gaining prominence is the utilization of metal-infused nanofibers-based dye removal techniques, whic...

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Main Authors: Varun Kumar Sharma, Prem Kumar, Sunil Kumar, Mohd Yusuf, Bilal Ahmed
Format: Article
Language:English
Published: Springer 2024-03-01
Series:Discover Chemical Engineering
Subjects:
Online Access:https://doi.org/10.1007/s43938-024-00042-z
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author Varun Kumar Sharma
Prem Kumar
Sunil Kumar
Mohd Yusuf
Bilal Ahmed
author_facet Varun Kumar Sharma
Prem Kumar
Sunil Kumar
Mohd Yusuf
Bilal Ahmed
author_sort Varun Kumar Sharma
collection DOAJ
description Abstract The mitigation of hazardous effects of chemical dyes on the environment and living organisms, greatly demands an efficient and effective management of dye-laden wastewater. One such solution gaining prominence is the utilization of metal-infused nanofibers-based dye removal techniques, which are simple, effective, and environmentally friendly. In this report, we present the fabrication of mechanically stable hydrophobic nanofibers infused with metal blends, fabricated through the utilization of electrospinning techniques. The successful fabrication of these mechanically stable hydrophobic nanofibers is evidenced through contact angle measurements, tensile tests, and FESEM analysis. While polystyrene-based nanofibrous mats were anticipated to be effective, nanofibrous mats infused with Cu-Fe and Cu-Ni metal blends exhibit exceptional efficacy in degrading dyes. The size and morphology of nanofibers depend on polymer concentration, with the average diameter increasing from 13 to 20%. At a 20% polystyrene concentration, only nanometer-scale fibers of polystyrene polymers were fabricated, while both Cu-Fe and Cu-Ni metal blend-infused fibers were synthesized in micrometers. Fibers infused with Cu-Fe and Cu-Ni metal blend at a 17% polymer concentration displayed nano-scale diameters, confirmed by FESEM characterizations. The heat-based technique is identified as an accessible and cost-effective approach for industries reliant on color-based processes.
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spelling doaj.art-7de8de7fe4c94faebe08a08890b94ff02024-03-17T12:27:35ZengSpringerDiscover Chemical Engineering2730-77002024-03-014111110.1007/s43938-024-00042-zCu-Fe and Cu-Ni metal blend-infused polystyrene-based electrospun nanofibers for dye degradationVarun Kumar Sharma0Prem Kumar1Sunil Kumar2Mohd Yusuf3Bilal Ahmed4Department of Natural and Applied Sciences, School of Life and Natural Sciences, The Glocal UniversityDepartment of Electronics and Communication Engineering, School of Science and Technology, The Glocal UniversityDepartment of Nanotechnology and Advanced Materials Engineering and HMC, Sejong UniversityDepartment of Natural and Applied Sciences, School of Life and Natural Sciences, The Glocal UniversityDepartment of Natural and Applied Sciences, School of Life and Natural Sciences, The Glocal UniversityAbstract The mitigation of hazardous effects of chemical dyes on the environment and living organisms, greatly demands an efficient and effective management of dye-laden wastewater. One such solution gaining prominence is the utilization of metal-infused nanofibers-based dye removal techniques, which are simple, effective, and environmentally friendly. In this report, we present the fabrication of mechanically stable hydrophobic nanofibers infused with metal blends, fabricated through the utilization of electrospinning techniques. The successful fabrication of these mechanically stable hydrophobic nanofibers is evidenced through contact angle measurements, tensile tests, and FESEM analysis. While polystyrene-based nanofibrous mats were anticipated to be effective, nanofibrous mats infused with Cu-Fe and Cu-Ni metal blends exhibit exceptional efficacy in degrading dyes. The size and morphology of nanofibers depend on polymer concentration, with the average diameter increasing from 13 to 20%. At a 20% polystyrene concentration, only nanometer-scale fibers of polystyrene polymers were fabricated, while both Cu-Fe and Cu-Ni metal blend-infused fibers were synthesized in micrometers. Fibers infused with Cu-Fe and Cu-Ni metal blend at a 17% polymer concentration displayed nano-scale diameters, confirmed by FESEM characterizations. The heat-based technique is identified as an accessible and cost-effective approach for industries reliant on color-based processes.https://doi.org/10.1007/s43938-024-00042-zNanofibersElectrospinningMetal blendDyesHeat-based techniqueDye degradation
spellingShingle Varun Kumar Sharma
Prem Kumar
Sunil Kumar
Mohd Yusuf
Bilal Ahmed
Cu-Fe and Cu-Ni metal blend-infused polystyrene-based electrospun nanofibers for dye degradation
Discover Chemical Engineering
Nanofibers
Electrospinning
Metal blend
Dyes
Heat-based technique
Dye degradation
title Cu-Fe and Cu-Ni metal blend-infused polystyrene-based electrospun nanofibers for dye degradation
title_full Cu-Fe and Cu-Ni metal blend-infused polystyrene-based electrospun nanofibers for dye degradation
title_fullStr Cu-Fe and Cu-Ni metal blend-infused polystyrene-based electrospun nanofibers for dye degradation
title_full_unstemmed Cu-Fe and Cu-Ni metal blend-infused polystyrene-based electrospun nanofibers for dye degradation
title_short Cu-Fe and Cu-Ni metal blend-infused polystyrene-based electrospun nanofibers for dye degradation
title_sort cu fe and cu ni metal blend infused polystyrene based electrospun nanofibers for dye degradation
topic Nanofibers
Electrospinning
Metal blend
Dyes
Heat-based technique
Dye degradation
url https://doi.org/10.1007/s43938-024-00042-z
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