• Compression properties of individual micron-sized acrylic particles 

      He, Jianying; Zhang, Zhiliang; Kristiansen, H (Journal article; Peer reviewed, 2009)
      Compression behaviours of individual micron-sized acrylic particles have been studied by using a nanoindentation-based method with a flat-end tip, instead of a commonly used sharp tip. The effect of loading rate on the ...
    • Fracture of micrometre-sized Ni/Au coated polymer particles 

      He, Jianying; Helland, Tore; Zhang, Zhiliang; Kristiansen, H (Journal article; Peer reviewed, 2009)
      Deformation and fracture of individual micrometre-sized Ni/Au coated polymer particles have been studied by a nanoindentation-based flat punch method. A wide range of test conditions has been applied to deform the coated ...
    • Mechanical properties of nanostructured polymer particles for anisotropic conductive adhesives 

      He, Jianying; Zhang, Zhiliang; Kristiansen, H (Journal article; Peer reviewed, 2007)
      Metal-coated polymer particles are used as a critical component in anisotropic conductive adhesives. The mechanical properties of polymer particles are of crucial importance to both application and design. In this study, ...
    • Nanomechanical Characterization of Single Micron-Sized Polymer Particles 

      He, Jianying; Zhang, Zhiliang; Kristiansen, H (Journal article; Peer reviewed, 2009)
      The mechanical characterization of single micron‐sized polymer particles is very important for understanding the anisotropic conductive adhesives interconnection. In this article, a nanoindentation‐based flat punch method ...
    • Size effect on mechanical properties of micron-sized PS-DVB polymer particles 

      He, Jianying; Zhang, Zhiliang; Midttun, M; Fonnum, Geir; Modahl, GI; Kristiansen, H; Redford, Keith (Journal article; Peer reviewed, 2008)
      A nanoindentation based flat punch method has been developed to determine the stress-strain behaviour of single micron-sized Ugelstad polystyrene-co-divinylbenzene (PS-DVB) particles in compression. Five groups of particles ...