DISPERSION RELATIONS FOR COMPOSITE STRUCTURES. PART II. METHODS OF DETERMINING DISPERSION CURVES

被引:0
|
作者
Barski, Marek [1 ]
Stawiarski, Adam [1 ]
Chwal, Malgorzata [1 ]
机构
[1] Cracow Univ Technol, Inst Machine Design, Al Jana Pawla 2 37, PL-31864 Krakow, Poland
来源
COMPOSITES THEORY AND PRACTICE | 2016年 / 16卷 / 03期
关键词
Lamb waves; composite materials; anisotropic layer; dispersion curves; phase velocity; group velocity;
D O I
暂无
中图分类号
TB33 [复合材料];
学科分类号
摘要
In the first part of the current review, the fundamental assumptions of the theoretical model of elastic waves propagation in multilayered composite material are presented. Next, the equations which describe elastic wave motion in the case of single orthotropic lamina are derived. In the second part of this work, the most commonly used method of determining dispersion curves for multilayered composite material are discussed, namely: the transfer matrix method (TMM), global matrix method (GMM), stiffness matrix method (SMM) and finally the semi-analytical finite element method (SAFE). The first three methods are based on the relationships which are derived in the first part of this review. Moreover, TMM and GMM should be considered numerically unstable in the case of a relatively large product value of wave frequency and the total thickness of the composite plate. However, SMM seems to be unconditionally stable. The last method is based on the finite element approach and it can be used in order to confirm the results obtained using the analytical method. Finally, exemplary dispersion curves are presented. The dispersion curves are determined for the 8-th layer of the composite material, which is made of carbon fiber and epoxy resin. It is assumed that the wave front travels in an arbitrary direction.
引用
收藏
页码:147 / 153
页数:7
相关论文
共 50 条
  • [1] DISPERSION RELATIONS FOR COMPOSITE STRUCTURES. PART I. BASIC ASSUMPTIONS AND REALTIONSHIPS FOR MONOCLINIC LAMINA
    Barski, Marek
    Stawiarski, Adam
    Chwal, Malgorzata
    COMPOSITES THEORY AND PRACTICE, 2016, 16 (03): : 125 - 131
  • [2] Dispersion of a filler in the rubber blend. Part II. Methods of dispersion degree assessment
    Bieliński, Dariusz M.
    Dobrowolski, Otmar
    Ślusarski, Ludomir
    Polimery/Polymers, 2007, 52 (09): : 640 - 647
  • [3] Dispersion of a filler in the rubber blend. Part II. Methods of dispersion degree assessment
    Bielinski, Dariusz M.
    Dobrowolski, Otmar
    Slusarski, Ludomir
    POLIMERY, 2007, 52 (09) : 640 - 647
  • [4] Dislocation structures. Part II. Slip system dependence
    Winther, G.
    Huang, X.
    PHILOSOPHICAL MAGAZINE, 2007, 87 (33) : 5215 - 5235
  • [5] Thermal regimes of space composite structures. Part II
    Reznik, Sergey
    HEAT AND MASS TRANSFER IN THE THERMAL CONTROL SYSTEM OF TECHNICAL AND TECHNOLOGICAL ENERGY EQUIPMENT (HMTTSC-2018), 2018, 194
  • [6] On the stiffness characteristics of nonmonolithic elastic structures. Part II. Applications and examples
    Miettinen, A
    Parland, H
    INTERNATIONAL JOURNAL OF SOLIDS AND STRUCTURES, 2002, 39 (06) : 1701 - 1728
  • [7] A formalism for scattering of complex composite structures. II. Distributed reference points
    Svaneborg, Carsten
    Pedersen, Jan Skov
    JOURNAL OF CHEMICAL PHYSICS, 2012, 136 (15):
  • [8] Magnetic rotary dispersion in relation to the electron theory. Part II. The number of electrons and additive relations.
    Richardson, S. S.
    PHILOSOPHICAL MAGAZINE, 1916, 31 (181-86) : 454 - 478
  • [9] Development of a Livestock Odor Dispersion Model: Part II. Evaluation and Validation
    Yu, Zimu
    Guo, Huiqing
    Lague, Claude
    JOURNAL OF THE AIR & WASTE MANAGEMENT ASSOCIATION, 2011, 61 (03): : 277 - 284
  • [10] METHODS OF DETERMINING THE STATE OF PIGMENT DISPERSION
    SCHRODER, J
    PROGRESS IN ORGANIC COATINGS, 1988, 15 (04) : 337 - 353