• Title of article

    Influence of ethylene glycol pretreatment on effectiveness of atmospheric pressure plasma treatment of polyethylene fibers

  • Author/Authors

    Ying Wen، نويسنده , , Ranxing Li، نويسنده , , Fang Cai، نويسنده , , Kun Fu، نويسنده , , Shujing Peng، نويسنده , , Qiuran Jiang، نويسنده , , Lan Yao، نويسنده , , Yiping Qiu، نويسنده ,

  • Issue Information
    روزنامه با شماره پیاپی سال 2010
  • Pages
    6
  • From page
    3253
  • To page
    3258
  • Abstract
    For atmospheric pressure plasma treatments, the results of plasma treatments may be influenced by liquids adsorbed into the substrate. This paper studies the influence of ethylene glycol (EG) pretreatment on the effectiveness of atmospheric plasma jet (APPJ) treatment of ultrahigh molecular weight polyethylene (UHMWPE) fibers with 0.31% and 0.42% weight gain after soaked in EG/water solution with concentration of 0.15 and 0.3 mol/l for 24 h, respectively. Scanning electron microscopy (SEM) shows that the surface of fibers pretreated with EG/water solution does not have observable difference from that of the control group. The X-ray photoelectron spectroscopy (XPS) results show that the oxygen concentration on the surface of EG-pretreated fibers is increased less than the plasma directly treated fibers. The interfacial shear strength (IFSS) of plasma directly treated fibers to epoxy is increased almost 3 times compared with the control group while that of EG-pretreated fibers to epoxy does not change except for the fibers pretreated with lower EG concentration and longer plasma treatment time. EG pretreatment reduces the water contact angle of UHMWPE fibers. In conclusion, EG pretreatment can hamper the effect of plasma treatment of UHMWPE fibers and therefore longer plasma treatment duration is required for fibers pretreated with EG.
  • Keywords
    Ethylene glycol , UHMWPE fiber , XPS , Atmospheric pressure plasma treatment , Interfacial shear strength
  • Journal title
    Applied Surface Science
  • Serial Year
    2010
  • Journal title
    Applied Surface Science
  • Record number

    1011959