Uniaxial Tensile Simulation of 3D Orthogonal Woven Fabric

  • Authors

    • Yahya M.F
    • Ghani S.A
    • Zahid B
    2018-08-13
    https://doi.org/10.14419/ijet.v7i3.15.17529
  • finite element analysis, orthogonal woven, three dimensional (3D), uniaxial tensile, weave unit cell

  • Abstract

    Mesoscale modelling approach has shown close simulation approximations of woven fabric tensile performance. The main purpose of the work is to develop understanding of geometrical model development, finite element analysis procedure and to compare the differences of 2D and 3D woven fabric uniaxial tensile stress-strain. 3D woven fabric structures selected for the work is three-layer orthogonal woven fabrics. The woven structure will have 2 through-thickness warps, 4 non-crimps warp and 6 wefts. Through-thickness warp yarn will apply plain 1/1 weave structure for stitching all weft layers and non-crimps weft yarn together. Woven geometric models were developed with pre-processor program at detail yarn configurations. Simulation results showed that 3D orthogonal woven fabric had a better tensile response than its 2D woven fabric structures. 

     

  • References

    1. [1] Mouritz AP, Bannister MK, Falzon PJ, Leong KH (1999), Review of Applications for Advanced Three-Dimensional Fibre Textile Composites. Compos Part A Appl Sci Manuf. 30, 1445–61.

      [2] Yang C, Kim YK, Qidwai UA, Wilson AR (2004), Related Strength Properties of 3D Fabric. Text Res J. 74(7), 634–9.

      [3] Callus PJ, Mouritz AP, Bannister MK, Leong KH (1999) Tensile Properties and Failure Mechanisms of 3D Woven GRP Composites. Compos Part A Appl Sci Manuf. 30, 1277–87.

      [4] Brown D, Morgan M, McIIhagger R. A (2003), System for the Automatic Generation of Solid Models of Woven Structures. Compos Part A Appl Sci Manuf. 34, 511–5.

      [5] Sheng SZ, Hoa S V (2003), Modeling of 3D angle interlock woven fabric composites. J Thermoplast Compos Mater. 16, 45–58.

      [6] Cox BN, Dadkhah MS, Morris WL, Flintoff JG (1994), Failure Mechanisms of 3D Woven Composites in Tension, Compression and Bending. Acta Matel Mater. 42(12), 3967–84.

      [7] Thomson RS, Falzon PJ, Nicolaidis A, Leong KH, Ishikawa T (1999), The bending properties of integrally woven and unidirectional prepeg T-sections. Compos Struct. 47, 761–787

      [8] Chen X, Wang H (2006), Modelling and Computer-Aided Design of 3D Hollow Woven Reinforcement for Composites. J Text Inst. 97(1), 79–87.

      [9] Li Z, Sun B, Gu B (2010), FEM simulation of 3D angle-interlock woven composite under ballistic impact from unit cell approach. Comput Mater Sci. 49, 171-183

      [10] Shahkarami A, Vaziri R (2006), Acontinuum shell finite element model for impact simulation of woven fabric. Int J Impact Eng. 2006;1–16.

      [11] Tan P, Tong L, Steven GP (1998), Micromechanics models for mechanical and thermomechanical properties of 3D through the thickness angle interlock woven composites. Compos Part A Appl Sci Manuf. 30, 637–48.

      [12] Tsai KH, Chiu CH, Wu TH (2000), Fatigue behaviour of 3D multilayer-angle interlock woven composites plates. Compos Sci Technol. 60, 241–8.

      [13] Whitcomb J, Tang X (2001), Effective moduli of woven composites. J Compos Mater. 35(23), 2127–44.

      [14] Gu H, Gili Z (2002), Tensile Behaviour of 3D Woven Composites by Using Different Fabric Structures . Mater Des. 23, 671–4.

      [15] Adanur S, Liao T (1998), 3D Modeling of Textile Composite Preforms. Compos Part B. 29B, 787–93.

      [16] Hufenbach W, Hornig A, Gude M, Böhm R, Zahneisen F (2013), Influence of interface waviness on delamination characteristics and correlation of through-thickness tensile failure with mode I energy release rates in carbon fibre textile composites. Mater Des 50(0), 839–45.

      [17] Nasrun FMZ, Yahya MF, Ghani SA, Ahmad MR, Effect of weft density and yarn crimps towards tensile strength of 3D angle interlock woven fabric, AIP Conference Proceedings 1774, 020003(1-6), (2016), page, https://doi.org/10.1063/1.4965051

      [18] Dominy J, Rudd C (2002), Manufacturing with Thermosets. In: Long AC, editor. Design and manufacture of textile composites. Cambridge: Woodhead Publishing Limited, 181–96.

      [19] Chen X (2002), Mouldability of Angle Interlock for Technical Application. Text Res J. 72(3), 195–200.

      [20] Clark SR, Mouritz AP, Bannister MK (2003), Fibre Damage in the Manufacture of Advanced Three-Dimensional Woven Composites. Compos Part A Appl Sci Manuf. 34, 963–70.

      [21] Rudov-Clark S, Mouritz AP (2008), Tensile fatigue properties of a 3D orthogonal woven composite. Compos Part A Appl Sci Manuf. 39, 1018-1024

      [22] Talebi H, Wong S V, Hamouda AMS (2009), Finite element evaluation of projectile nose angle effects in ballistic perforation of high strength fabric. Compos Struct. 87, 314–20.

      [23] Tung PS, Jayaraman S (1991), Three-dimensional multilayer woven preforms for composites. In: Vigo TL, Turbak AF, editors. School of Textile and Fiber Engineering. Atlanta: Georgia Institute of Technology, 53–80.

      [24] Saleh MN, Yudhanto A, Potluri P, Lubineau G, Soutis C (2016), Characterising the loading direction sensitivity of 3D woven composites: Effect of z-binder architecture. Compos Part A Appl Sci Manuf. 90, 577–88.

      [25] Hamada H, Ramakrishna S, Huang ZM (1999), 3D Textile Reinfrocement for Composites. First. Miravete A, editor. Knitted fabric composites, 181–91.

  • Downloads

  • How to Cite

    M.F, Y., S.A, G., & B, Z. (2018). Uniaxial Tensile Simulation of 3D Orthogonal Woven Fabric. International Journal of Engineering & Technology, 7(3.15), 197-200. https://doi.org/10.14419/ijet.v7i3.15.17529

    Received date: 2018-08-14

    Accepted date: 2018-08-14

    Published date: 2018-08-13