Wan Mohd Arif W Ibrahim
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Preferred name
Wan Mohd Arif W Ibrahim
Official Name
Wan Mohd Arif, W Ibrahim
Alternative Name
Arif, W. M.
Arif, W. I.Wan Mohd
Ibrahim, Wan Mohd Arif Wan
Main Affiliation
Scopus Author ID
55543554600
Researcher ID
CDS-3018-2022

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  • Publication
    The effect of cuznfe2o4 on mechanical properties and thermal conductivity of abs manufactured using 3d printer
    ( 2020-01-01)
    Hamzah K.A.
    ;
    Yeoh C.K.
    ;
    Mazlee Mohd Noor
    ;
    Teh Pei Leng
    ;
    Sazali S.A.
    ;
    Wan Mohd Arif W Ibrahim
    The aim of this study is the development of the ABS-CuZnFe2O4 composites using 3D printer. In this study, the effect of filler loading on the mechanical properties and thermal conductivity is examined. The result shows that at highest filler loading (14 wt%) the tensile strength was improved approximately 98% while the Young’s modulus increased about 23% compared to unfilled specimen. Meanwhile, the percentage of elongation decrease approximately about 49% when filled with 14 wt% of filler. The CuZnFe2O4 filler shows a greater effect on hardness value of the composites around 498% at maximum filler content. The thermal conductivity of the ABS increased up to 60% at full capacity of filler.
  • Publication
    Mechanical properties and thermal and electrical conductivity of 3D printed ABS-copper ferrite composites via 3D printing technique
    ( 2022-01-01)
    Hamzah K.A.
    ;
    Yeoh C.K.
    ;
    Mazlee Mohd Noor
    ;
    Teh Pei Leng
    ;
    Aw Y.Y.
    ;
    Sazali S.A.
    ;
    Wan Mohd Arif W Ibrahim
    This study examines the effect of particulate reinforcement on the mechanical properties of 3D printed acrylonitrile–butadiene–styrene (ABS). Copper ferrite (CuFe2O4) as a reinforcer with various loadings was used to print ABS composite specimen, namely, 8, 11 and 14 wt%. Mechanical testing such as tensile test and hardness test was performed on the printed samples. Specimens with 14 wt% of CuFe2O4 showed a 135% increase in tensile strength compared to the pure ABS specimens. Specimens printed with 14 wt% of CuFe2O4 are 14% harder compared to the pure ABS specimens. Thermal conductivity increased 93% for specimen loaded with 14 wt% reinforcer. Electrical conductivity shows a one-order increase for composite specimen compared to control specimen.
  • Publication
    Effect of Sintering Parameters on Microstructural Evolution of Low Sintered Geopolymer Based on Kaolin and Ground-Granulated Blast-Furnace Slag
    ( 2022-11-01)
    Jamil N.H.
    ;
    Mohd. Mustafa Al Bakri Abdullah
    ;
    Wan Mohd Arif W Ibrahim
    ;
    Rahim R.
    ;
    Sandu A.V.
    ;
    Vizureanu P.
    ;
    Castro-Gomes J.
    ;
    Gómez-Soberón J.M.
    The effect of different sintering parameters on the mechanical properties of sintered kaolin-GGBS will influence the variation of mechanical properties of sintered kaolin-GGBS geopolymer. Based on previous research, the samples have major cracking and many large pores due to the sintering temperature and holding time during the sintering process. The first objective is to study the effect of different sintering parameters on the mechanical properties of sintered kaolin-GGBS geopolymer and the second objective is to correlate the strength properties of sintered kaolin-GGBS geopolymer with microstructural analysis. In a solid-to-liquid 2:1 ratio, kaolin and GGBS were combined with an alkali activator. The kaolin-GGBS geopolymer was then cured at room temperature for 24 h. The samples were then cured for 14 days at 60 °C, followed by using double-step sintering at temperatures of 500 °C and 900 °C with varying heating rates and holding durations. The compressive strength and shrinkage of the kaolin-GGBS geopolymer were evaluated, and the morphology was examined using a scanning electron microscope. In comparison to other samples, the sintered kaolin-GGBS geopolymer with a heating rate of 2 °C and a holding duration of 2 h had the optimum compressive strength value: 22.32 MPa. This is due to the contribution of MgO from GGBS that refines the pore and increases the strength. The 13.72% shrinkage with a densified microstructure was also obtained at this parameter due to effective particle rearrangement during sintering.
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