Short Communication - (2025) Volume 15, Issue 4
Received: 01-Jul-2025, Manuscript No. jtese-26-184243;
Editor assigned: 03-Jul-2025, Pre QC No. P-184243;
Reviewed: 17-Jul-2025, QC No. Q-184243;
Revised: 22-Jul-2025, Manuscript No. R-184243;
Published:
29-Jul-2025
, DOI: 10.37421/2165-8064.2025.15.667
Citation: Mueller, Thomas. ”Plasma Treatment: Textile Surface Functionalization For Applications.” J Textile Sci Eng 15 (2025):667.
Copyright: © 2025 Mueller T. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution and reproduction in any medium, provided the original author and source are credited.
Plasma treatment is a transformative technology in the textile industry, enabling significant alterations to fabric surface properties for enhanced performance and new functionalities. This approach offers a versatile pathway to modify textiles at the surface level without impacting their bulk characteristics, leading to advancements in various textile applications. The ability to tailor surface chemistry through different plasma gases and parameters allows for precise modifications, opening up a wide array of possibilities for material design and performance enhancement. For instance, modifications can improve dye uptake, leading to more vibrant and durable coloration, or enhance biocompatibility, making textiles suitable for advanced medical applications. The integration of plasma treatment into textile manufacturing processes represents a significant step towards developing high-performance materials. Plasma treatment significantly alters the surface properties of fabrics, enhancing their wettability, adhesion, and functionality. This modification opens avenues for advanced textile applications, including improved dyeing, printing, and the integration of functional coatings, leading to enhanced performance characteristics like water repellency or antimicrobial activity [1].
Low-temperature plasma techniques offer a sustainable and versatile method for functionalizing textile surfaces without affecting bulk properties. Different plasma gases and treatment parameters allow for tailored surface chemistries, leading to diverse improvements such as increased dye uptake and enhanced biocompatibility for medical textiles [2].
The application of atmospheric pressure plasma jet (APPJ) treatment on polyester fabrics leads to a significant increase in surface energy and wettability. This enhancement is attributed to the introduction of polar functional groups and changes in surface topography, making the fabric more receptive to subsequent finishing processes [3].
Dielectric barrier discharge (DBD) plasma treatment on cotton fabrics can effectively introduce hydroxyl and carboxyl groups, thereby increasing hydrophilicity and improving dyeability with reactive dyes. The process offers a greener alternative to traditional wet chemical treatments [4].
Plasma polymerization using organosilane precursors can create hydrophobic and oleophobic surfaces on various textile materials, imparting excellent water and oil repellency. This modification is crucial for creating self-cleaning and stain-resistant fabrics [5].
The interaction of plasma with natural fibers like wool can lead to improved dye fixation and reduced pilling. Argon plasma treatment, in particular, has been shown to alter the surface morphology and chemical composition, enhancing its performance for textile applications [6].
Cold atmospheric plasma is explored for its potential to create antimicrobial textile surfaces. By generating reactive oxygen and nitrogen species, plasma treatment can effectively kill bacteria and fungi on fabric surfaces, offering a chemical-free method for hygiene applications [7].
The plasma treatment of polyamide fabrics can improve their printability and adhesion characteristics. The introduction of polar functional groups through plasma enhances the interaction with printing inks and adhesives, leading to more durable and vibrant prints [8].
Investigating the effect of nitrogen plasma on silk fibroin films reveals significant changes in surface chemistry, including an increase in amine and amide groups. This functionalization can improve cell adhesion and proliferation, making it beneficial for biomedical applications [9].
The surface modification of technical textiles using plasma technology offers tailored properties for demanding applications. For instance, plasma treatment can enhance flame retardancy, UV resistance, and the adhesion of functional coatings to materials used in protective clothing or outdoor gear [10].
Plasma treatment has emerged as a pivotal technology for modifying the surface of textiles, enabling a spectrum of enhancements that cater to diverse industrial and consumer needs. Its capability to introduce specific chemical functionalities and alter surface topography without compromising the inherent properties of the fabric makes it a highly attractive method for material innovation. This advanced surface engineering allows for the development of textiles with tailored characteristics, ranging from improved aesthetics to advanced functional attributes. Plasma treatment significantly alters the surface properties of fabrics, enhancing their wettability, adhesion, and functionality. This modification opens avenues for advanced textile applications, including improved dyeing, printing, and the integration of functional coatings, leading to enhanced performance characteristics like water repellency or antimicrobial activity [1].
Low-temperature plasma techniques offer a sustainable and versatile method for functionalizing textile surfaces without affecting bulk properties. Different plasma gases and treatment parameters allow for tailored surface chemistries, leading to diverse improvements such as increased dye uptake and enhanced biocompatibility for medical textiles [2].
The application of atmospheric pressure plasma jet (APPJ) treatment on polyester fabrics leads to a significant increase in surface energy and wettability. This enhancement is attributed to the introduction of polar functional groups and changes in surface topography, making the fabric more receptive to subsequent finishing processes [3].
Dielectric barrier discharge (DBD) plasma treatment on cotton fabrics can effectively introduce hydroxyl and carboxyl groups, thereby increasing hydrophilicity and improving dyeability with reactive dyes. The process offers a greener alternative to traditional wet chemical treatments [4].
Plasma polymerization using organosilane precursors can create hydrophobic and oleophobic surfaces on various textile materials, imparting excellent water and oil repellency. This modification is crucial for creating self-cleaning and stain-resistant fabrics [5].
The interaction of plasma with natural fibers like wool can lead to improved dye fixation and reduced pilling. Argon plasma treatment, in particular, has been shown to alter the surface morphology and chemical composition, enhancing its performance for textile applications [6].
Cold atmospheric plasma is explored for its potential to create antimicrobial textile surfaces. By generating reactive oxygen and nitrogen species, plasma treatment can effectively kill bacteria and fungi on fabric surfaces, offering a chemical-free method for hygiene applications [7].
The plasma treatment of polyamide fabrics can improve their printability and adhesion characteristics. The introduction of polar functional groups through plasma enhances the interaction with printing inks and adhesives, leading to more durable and vibrant prints [8].
Investigating the effect of nitrogen plasma on silk fibroin films reveals significant changes in surface chemistry, including an increase in amine and amide groups. This functionalization can improve cell adhesion and proliferation, making it beneficial for biomedical applications [9].
The surface modification of technical textiles using plasma technology offers tailored properties for demanding applications. For instance, plasma treatment can enhance flame retardancy, UV resistance, and the adhesion of functional coatings to materials used in protective clothing or outdoor gear [10].
Plasma treatment significantly enhances textile surface properties like wettability and adhesion, enabling advanced applications such as improved dyeing and the integration of functional coatings. Low-temperature plasma methods provide a sustainable route to functionalize textiles, improving dye uptake and biocompatibility. Atmospheric pressure plasma jets increase fabric surface energy and wettability by introducing polar groups. Dielectric barrier discharge plasma treatment on cotton fabrics enhances hydrophilicity and dyeability, offering an eco-friendly alternative to chemical treatments. Plasma polymerization creates hydrophobic and oleophobic surfaces for stain-resistant fabrics. Plasma interaction with natural fibers like wool improves dye fixation and reduces pilling. Cold atmospheric plasma generates antimicrobial textile surfaces by producing reactive species. Plasma treatment on polyamide fabrics improves printability and adhesion. Nitrogen plasma treatment on silk fibroin films enhances surface chemistry for biomedical uses. Plasma technology tailors properties of technical textiles for demanding applications, including flame retardancy and UV resistance.
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