DEVELOPMENT OF REPRESENTATIVE VOLUME ELEMENT FOR ELECTROMAGNETIC CHARACTERIZATION OF A HETEROGENOUS GEOMATERIAL

被引:0
|
作者
Camacho, Patrick S. [1 ]
Betts, J. Logan [1 ]
Priddy, Matthew W. [1 ,2 ]
机构
[1] Mississippi State Univ, Dept Mech Engn, Mississippi State, MS 39762 USA
[2] Mississippi State Univ, Ctr Adv Vehicular Syst, Starkville, MS 39759 USA
关键词
Composite Material; Wave Propagation; Nondestructive Evaluation; CONCRETE;
D O I
暂无
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
Electromagnetic (EM) analysis applied to structural geomaterials is a growing field of investigation for its significant potential in the field of non-destructive testing and characterization of the materials. Previous studies have simplified the multi-phase composition of geomaterials as layered structures, where each constituent material formed its own distinctive layer. While conclusions from such experimental studies were effective in detecting changes in EM responses, the methods of modeling heterogeneous, multi-phase structures were not be as representative of geomaterial composition like an aggregate-matrix model. A study was conducted to reveal discrepancies in EM responses of laminar and aggregate-matrix models. The laminar and heterogenous matrix models were compositionally equivalent with respect to the constituents present. Scattering parameter responses were recorded as a function of frequency for two-port systems; the frequency range of investigation was 0 to 25 GHz. Significant discrepancies in the responses were evident with no immediately apparent relationships between the responses. This conclusion prompted the need to further investigate the influences of a model's geometric parameters on its EM response. The geometric parameters investigated here were the centroid positioning of the aggregates and the size of the material element simulated. The goal was to evaluate the extent of the parameters' influences to identify criteria for an EM Representative Volume Element in their respect.
引用
收藏
页数:8
相关论文
共 50 条
  • [31] Representative volume element size for elastic composites: A numerical study
    ETH Zentrum, Zurich, Switzerland
    J Mech Phys Solids, 9 (1449-1459):
  • [32] Approaching representative volume element size in interpenetrating phase composites
    Heggli, M
    Etter, T
    Wyss, P
    Uggowitzer, PJ
    Gusev, AA
    ADVANCED ENGINEERING MATERIALS, 2005, 7 (04) : 225 - 229
  • [33] Microstructure and Transport Properties of Cellular Materials: Representative Volume Element
    Brun, Emmanuel
    Vicente, Jerome
    Topin, Frederic
    Occelli, Rene
    Clifton, Michael J.
    ADVANCED ENGINEERING MATERIALS, 2009, 11 (10) : 805 - 810
  • [34] Determination of representative volume element in concrete under tensile deformation
    Skarzynski, L.
    Tejchman, J.
    COMPUTERS AND CONCRETE, 2012, 9 (01): : 35 - 50
  • [35] DEM modeling and identification of representative element volume of soil skeleton
    Sadaghiani, M. R. Salehi
    Jentsch, H.
    Faulstich, K.
    Winkler, P.
    Witt, K. J.
    NUMERICAL METHODS IN GEOTECHNICAL ENGINEERING, VOL 1, 2014, : 403 - 408
  • [36] Representative volume element: Existence and extent in cracked heterogeneous medium
    Sankar, R. Hari
    Singh, Harpreet
    MECHANICS OF MATERIALS, 2023, 184
  • [37] Elastic properties and representative volume element of polycrystalline silicon for MEMS
    Cho, S. W.
    Chasiotis, I.
    EXPERIMENTAL MECHANICS, 2007, 47 (01) : 37 - 49
  • [38] Generating a statistically equivalent representative volume element with discrete defects
    Tal, David
    Fish, Jacob
    COMPOSITE STRUCTURES, 2016, 153 : 791 - 803
  • [39] On the size of the representative volume element for isotropic elastic polycrystalline copper
    El Houdaigui, F.
    Forest, S.
    Gourgues, A. -F.
    Jeulin, D.
    IUTAM SYMPOSIUM ON MECHANICAL BEHAVIOR AND MICRO-MECHANICS OF NANOSTRUCTURED MATERIALS, 2007, 144 : 171 - +
  • [40] Representative volume element for microscale analysis of additively manufactured composites
    Gljuscic, M.
    Franulovic, M.
    Lanc, D.
    Zerovnik, A.
    ADDITIVE MANUFACTURING, 2022, 56