Contact
    Start Publications Influence of layering pattern of modified kenaf fiber on ...
    ←  Publication Finder
    Attension

    Influence of layering pattern of modified kenaf fiber on thermomechanical properties of epoxy composites

    Year: 2020

    Journal: Prog. Rubber Plast. Recycl. Technol., Volume 36, FEB, page 47–62

    Authors: Mohammed, A. R.; Atiqah, M. S. Nurul; Gopakumar, Deepu A.; Fazita, M. R.; Rizal, Samsul; Hermawan, D.; Thomas, Sabu; Khalil, H. P. S. Abdul

    Organizations: Universiti Sains Malaysia, Penang, MalaysiaUniversiti Sains Malaysia [RUI-1001/PTEKIND/8014119]

    Keywords: Kenaf fiber; chemical modification; fiber-matrix interface; mechanical properties; epoxy composites

    Natural fiber-reinforced composites gained considerable interest in the scientific community due to their eco-friendly nature, cost-effective, and excellent mechanical properties. Here, we reported a chemical modification of kenaf fiber using propionic anhydride to enhance the compatibility with the epoxy matrix. The incorporation of the modified woven and nonwoven kenaf fibers into the epoxy matrix resulted in the improvement of the thermal and mechanical properties of the composite. The thermal stability of the epoxy composites was enhanced from 403 degrees C to 677 degrees C by incorporating modified woven kenaf fibers into the epoxy matrix. The modified and unmodified woven kenaf fiber-reinforced epoxy composites had a tensile strength of 64.11 and 58.82 MPa, respectively. The modified woven composites had highest flexural strength, which was 89.4 MPa, whereas, for unmodified composites, it was 86.8 MPa. The modified woven fiberreinforced epoxy composites showed the highest value of flexural modulus, which was 6.0 GPa compared to unmodified woven composites (5.51 GPa). The impact strength of the epoxy composites was enhanced to 9.43 kJ m(-2) by the incarnation of modified woven kenaf fibers into epoxy matrix. This study will be an effective platform to design the chemical modification strategy on natural fibers for enhancing the compatibility toward the hydrophobic polymer matrices.
    View publication