Journal of the Textile Institute · 2006 · 36 citations · 9 references
EngineeringMaterials EngineeringMaterials SciencePolymer EngineeringPolymer MaterialsSurface EngineeringFiber PropertiesPlasma Surface TreatmentPlasma-surface InteractionsTextile FinishingTextile MaterialsTextile PrintingDisperse Dye PrintingDyeing ProcessesExposure Time DependenceLow-pressure Plasma TreatmentLow-pressure PlasmasPlasma TreatmentPlasma Treatment Of PolymersTextile Surface Engineering
Abstract Polyester fibers are hydrophobic in nature; most of the successful preparations such as dyeing, printing, and finishing are based on wet treatments. The plasma treatments for polyester textile surfaces using low-pressure pseudo-discharge in nitrogen as a working gas are discussed in this work. Different plasma parameters, e.g., pressures of 0.06, 0.1, and 0.2 torr; different times (15—600 s); and different currents (1—6 mA), are applied on textile samples in nitrogen plasma. The wetability of the treated specimens was increased by increasing either the electric current or the time at the treatment pressure. The plasma treatment of the polyester fabrics improved for their hygroscopicity and in turn their performances during the dyeing with disperse dye. The optimum exposuring conditions for high water absorbance and best color (expressed as the lightness (L), red-green (a), and yellow-blue (b) coordinates with the CIE Lab color measuring system) were exposure time (15 s), pressure (0.1 torr), and electric current (5 mA). Meanwhile the exposed samples showed no significant deterioration for their mechanical properties expressed as tensile strength and elongation percent, and the results were proved by the examination of the treated samples using a scanning electron microscope. Keywords: DC pseudo plasma dischargepolyestersurface treatmenthygroscopicdisperse dyeing
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Industrial processing of polymers by low-pressure plasmas: the role of VUV radiation
M. R. Wertheimer, A. C. Fozza, Andreas Holländer · Nuclear Instruments and Methods in Physics Research Section B Beam Interactions with Materials and Atoms · 1999 · 229 citations
Natural Sciences, Materials Engineering, Materials Science +16