An investigation into an advanced composites finite element explicit biphase model - part 1: Elastic parameters

被引:1
|
作者
Bayandor, J [1 ]
Thomson, RS
Scott, ML
机构
[1] Royal Melbourne Inst Technol, Sir Lawrence Wackett Ctr Aerosp Design Technol, Sch Aerosp Mech & Mfg Engn, Melbourne, Vic 3001, Australia
[2] Cooperat Res Ctr Adv Composite Struct, Melbourne, Vic 3207, Australia
关键词
impact; damage tolerance; advanced aerospace composite structures; dynamic response; explicit bi-phase model;
D O I
10.1177/0021998304045586
中图分类号
TB33 [复合材料];
学科分类号
摘要
The elastic and damage parameters of the "biphase" composite material and degradation model contained in the explicit finite element code, Pam-Shock, have been investigated in Parts I and II, respectively. The biphase analysis is a relatively new methodology,timing at accurately predicting the complex damage responses of composite structures to dynamic loading conditions. The intricacy of the damage mechanism dealt with hence calls for a broad range of elastic and damage parameters to be defined within the analysis before a solution corresponding to real case scenarios can be achieved. This investigation focuses on the unknown effects of such parameters and has been successful in identifying the significance and sensitivities that the variation of the parameters impose on the predicted outputs. It was established that the variation of some of the parameters, such as Poisson's ratio, can cause a considerable deviation from the reference run, thus making it imperative to concentrate on deriving accurate empirical values to be used against such material properties within the analysis. A brief tabulated summary demonstrates the strengths and limitations of the model in predicting the response of advanced composite structures to impact events.
引用
收藏
页码:2119 / 2132
页数:14
相关论文
共 50 条
  • [41] Investigation of yield surface of monolithic and composite powders by explicit finite element simulation
    Xin, XJ
    Jayaraman, P
    Daehn, GS
    Wagoner, RH
    INTERNATIONAL JOURNAL OF MECHANICAL SCIENCES, 2003, 45 (04) : 707 - 723
  • [42] Characterization & finite element model correlation of wavy composites
    Pratt, WF
    Allen, MS
    ADVANCING AFFORDABLE MATERIALS TECHNOLOGY, 2001, 33 : 1629 - 1643
  • [43] An atomic finite element model for biodegradable polymers. Part 1. Formulation of the finite elements
    Gleadall, Andrew
    Pan, Jingzhe
    Ding, Lifeng
    Kruft, Marc-Anton
    Curco, David
    JOURNAL OF THE MECHANICAL BEHAVIOR OF BIOMEDICAL MATERIALS, 2015, 51 : 409 - 420
  • [44] An explicit finite element discrete crack analysis of open hole tension failure in composites
    Tian, K.
    Zhi, J.
    Tan, V. B. C.
    Tay, T. E.
    COMPOSITE STRUCTURES, 2024, 345
  • [45] Progressive Fatigue Damage Simulation in Laminated Composites Based on Explicit Finite Element Formulation
    Nikishkov, Yuri
    Seon, Guillaume
    Makeev, Andrew
    JOURNAL OF THE AMERICAN HELICOPTER SOCIETY, 2019, 64 (02)
  • [46] Validation Of A Purely Elastic Model And A Finite Element Model For A Screw Press
    Mull, Jean-Francois
    Durand, Camille
    Baudouin, Cyrille
    Bigot, Regis
    Borsenberger, Marc
    PROCEEDINGS OF THE 22ND INTERNATIONAL ESAFORM CONFERENCE ON MATERIAL FORMING (ESAFORM 2019), 2019, 2113
  • [47] Analysis of Finite Element and Finite Volume and Investigation of Effectual Parameters in Direct Extrusion
    Maarefdoust, Mandi
    MANUFACTURING SCIENCE AND TECHNOLOGY, PTS 1-8, 2012, 383-390 : 6722 - 6727
  • [48] Computationally efficient, explicit finite element model for evaluation of patellofemoral mechanics
    Baldwin, Mark A.
    Rulikoetter, Paul J.
    PROCEEDING OF THE ASME SUMMER BIOENGINEERING CONFERENCE - 2007, 2007, : 389 - 390
  • [49] Finite element modelling of advanced composites used in primary structures of automobiles
    Pretsch, A.
    Proceedings of the Annual ASM/ESD Advanced Composites Conference, 1990,
  • [50] Finite element analysis of reinforced concrete beams strengthened with advanced composites
    Hu, B
    Delpak, R
    Andreou, E
    Tann, DB
    COMPUTATIONAL CONCRETE STRUCTURES TECHNOLOGY, 2000, : 125 - 128