• Title of article

    Grafting densely-packed poly(n-butyl methacrylate) chains from an iron substrate by aryl diazonium surface-initiated ATRP: XPS monitoring

  • Author/Authors

    Tarik Matrab، نويسنده , , Tarik and Save، نويسنده , , Maud and Charleux، نويسنده , , Bernadette and Pinson، نويسنده , , Jean and Cabet-deliry، نويسنده , , Eva and Adenier، نويسنده , , Alain and Chehimi، نويسنده , , Mohamed M. and Delamar، نويسنده , , Michel، نويسنده ,

  • Issue Information
    هفته نامه با شماره پیاپی سال 2007
  • Pages
    10
  • From page
    2357
  • To page
    2366
  • Abstract
    Poly(n-butyl methacrylate), PBMA, chains were grafted by atom transfer radical polymerization (ATRP) from the surface of iron plates using electrochemically attached initiators based on diazonium salts providing an iron/polyphenylene/PBMA structure. This surface-initiated ATRP procedure was controlled by the addition of a small proportion of Cu++ deactivator, but in the absence of any sacrificial initiator. Combined XPS, IR and AFM experiments provide a powerful means for the characterization of the obtained complex iron/polyphenylene/PBMA layered structure. It is possible to measure the thickness of the brominated aryl structure covalently attached to iron. Concerning the PBMA brushes, their presence on the surface was confirmed by IRRAS. The brominated chain end could be traced by XPS testifying for the ATRP character of the polymerization and the thickness of the polymer brushes was determined. The controlled living ATRP character of the polymerization is confirmed through a linear correlation between the thickness of the layer and the degree of polymerization. Measurement of the grafting density of PBMA chains indicates that they are compactly packed and that, approximately, one brominated aryl chain out of two efficiently initiates ATRP.
  • Keywords
    diazonium salts , Thickness , ATRP , XPS , Poly(n-butyl methacrylate) , grafting density
  • Journal title
    Surface Science
  • Serial Year
    2007
  • Journal title
    Surface Science
  • Record number

    1700827