2001
DOI: 10.1002/pola.10056
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Chemical‐surface modification of polymers using atmospheric pressure nonequilibrium plasmas and comparisons with vacuum plasmas

Abstract: We demonstrate that stable microwave‐coupled atmospheric pressure nonequilibrium plasmas (APNEPs) can be formed under a wide variety of gas and flow‐rate conditions. Furthermore, these plasmas can be effectively used to remove surface contamination and chemically modify polymer surfaces. These chemical changes, generally oxidation and crosslinking, enhance the surface properties of the materials such as surface energy. Comparisons between vacuum plasma and atmospheric plasma treatment strongly indicate that mu… Show more

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Cited by 50 publications
(56 citation statements)
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“…The reader is referred to a technical review [17] of the ambient air plasma jets based on arc and glidarc discharges. Ambient air plasma jets can be fed also, for example, by microwave discharges [19] and APGDs [16]. However, such plasma sources generate flowing relatively cold uniform air plasmas with the energy density up to some 10 W/cm 3 only.…”
Section: Plasma Sources For Ambient Air Appstmentioning
confidence: 99%
“…The reader is referred to a technical review [17] of the ambient air plasma jets based on arc and glidarc discharges. Ambient air plasma jets can be fed also, for example, by microwave discharges [19] and APGDs [16]. However, such plasma sources generate flowing relatively cold uniform air plasmas with the energy density up to some 10 W/cm 3 only.…”
Section: Plasma Sources For Ambient Air Appstmentioning
confidence: 99%
“…Wakida et al treated wool and polyethylene terephthalate (PET) fabrics with low-temperature plasma of helium/argon under atmospheric pressure to improve the samples wettability [4]. Shenton et al made comparisons of treating effect between atmospheric plasma and vacuum [5]. McCord et al modified nylon and polypropylene fabrics with atmospheric pressure plasmas [6].…”
Section: Introductionmentioning
confidence: 98%
“…Capital cost savings for both equipment and footprint, and relative ease of integration are further benefits in comparison with low pressure plasma technology approaches. [4] Under appropriate conditions, atmospheric plasma can be applied to the material at relatively low temperatures while preserving the integrity of polymer-based instruments. Among the various atmospheric pressure plasma processing techniques, dielectric barrier discharge (DBD) has certain advantages such as its ability to work well at atmospheric pressure, without vacuum restrictions; its simple and flexible configurations with respect to the geometrical shape of electrodes and the gap; and its ability to treat surfaces of various sizes and shapes.…”
Section: Introductionmentioning
confidence: 99%