ERA Banner
Download Add to Cart Share
More Like This
  • http://hdl.handle.net/10402/era.29422
  • Graphene Reinforced Adhesives for Improved Joint Characteristics in Large Diameter Composite Piping
  • Parashar, Avinash
  • English
  • Adhesive bonding
    Multiscale Modeling
    Composite Piping
    Finite Element Analysis
    Atomistic Modeling
  • Nov 26, 2012 3:45 PM
  • Thesis
  • English
  • Adobe PDF
  • 3374201 bytes
  • Higher specific properties and corrosion resistance of fibre reinforced polymer (FRP) pipes make them a potential candidate for replacing metallic piping structures. This research project is concerned with adhesively bonded FRP pipe sections. The project can broadly be classified into three phases. In the first phase the effects of dimensional scaling as well as fibre architecture on adhesive bonding strength were studied. A macro analysis of adhesively bonded FRP pipe sections was conducted employing a finite element approach in conjunction with strength of materials and fracture mechanics damage criteria. Through this phase of the project the most damage-prone components within adhesively bonded FRP pipe sections were identified. The second phase of the research project was designed to investigate a suitable nanofiller material for the reinforcement of the weakest joint component, i.e. the adhesive bondline. Due to its superior mechanical properties and relatively low cost, graphene was considered as the nanofiller. Phase two of the project was further extended to include a novel modelling technique for characterizing graphene at the atomistic level. The third and final phase of the project dealt with the overall impact of graphene nanofiller on the adhesive material. A multiscale model was developed to investigate fracture toughening and stability effects with the aim of producing a nanocomposite with improved mechanical properties.
  • Avinash Parashar, Pierre Mertiny. (2012) ,Multiscale model to study fracture toughening in graphene/polymer nanocomposites, International Journal of Fracture, 10.1007/s10704-012-9779-y.
    Avinash Parashar, Pierre Mertiny. (2012), Failure mechanism in adhesively bonded FRP pipe sections with different fibre architecture, Composite Part B,10.1016/j.compositesb.2012.10.041.
    Avinash Parashar, Pierre Mertiny. (2012), Multiscale model to investigate the effect of graphene on the fracture characteristics of graphene/polymer nanocomposite, Nanoscale research letters. 7, 595.
    Avinash Parashar, Pierre Mertiny. (2012), Representative volume element to estimate buckling behavior of graphene/polymer nanocomposite. Nanoscale research letters.7, 515.
    Avinash Parashar, Pierre Mertiny. (2012), Effect of FRP pipe scaling on its adhesive bonding strength. Journal of Adhesion. 88,866-880.
    Avinash Parashar, Pierre Mertiny. (2012), Study of mode I fracture of graphene sheets using atomistic based finite element modeling and virtual crack closure technique. International Journal of Fracture. 176,119-126.
    Avinash Parashar, Pierre Mertiny.(2012), Adhesively bondedcomposite tubular joints: Review. International Journal of Adhesion and Adhesives. 38, 58-68.
  • Doctoral
  • Doctor of Philosophy
  • Department of Mechanical Engineering
  • Spring 2013
  • Dr Pierre Mertiny, Department of Mechanical Engineering
  • Dr. Pierre Mertiny (Mechanical Engineering)
    Dr. Zihui Xia (Mechanical Engineering)
    Dr. Marwan El Rich (Civil and Environmental Engineering)
    Dr. Weixing Chen (Chemical and Materials Engineering)
    Dr. Pascal Hubert (Mechanical Engineering, Mcgill University)
    Dr. John Doucette (Mechanical Engineering)