: Sergey Kozinov, Volodymyr Loboda
: Fracture Mechanics of Electrically Passive and Active Composites with Periodic Cracking along the Interface
: Springer-Verlag
: 9783030431389
: 1
: CHF 85.90
:
: Maschinenbau, Fertigungstechnik
: English
: 135
: Wasserzeichen/DRM
: PC/MAC/eReader/Tablet
: PDF
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This book offers a comprehensive and timely review of the fracture behavior of bimaterial composites consisting of periodically connected components, i.e. of bimaterial composites possessing periodical cracks along the interface. It first presents an overview of the literature, and then analyzes the isotropic, anisotropic and piezoelectric/dielectric properties of bimaterial components, gradually increasing the difficulty of the solutions discussed up to the coupled electromechanical problems. While in the case of isotropic and anisotropic materials it covers the problems generated by an arbitrary set of cracks, for the piezoelectric materials it focuses on studying the influence of the electric permittivity of the crack's filler, using not only a simple, fully electrically permeable model, but also a physically realistic, semi-permeable model. Throughout the analyses, the effects of the contact of the crack faces are taken into account so as to exclude the physically unrealistic interpenetration of the composite components that are typical of the classical open model. Further, the book derives and examines the mechanical and electromechanical fields, stress and electric intensity factors in detail. Providing extensive information on the fracture processes taking place in composite materials, the book helps readers become familiar with mathematical methods of complex function theory for obtaining exact analytical solutions. 

Preface6
Contents8
Acronyms10
Geometry10
Material Properties10
Electromechanical Fields11
Applied Loading11
Mathematical Symbols12
Functions of Complex Variable12
Abbreviations12
1 Literature Review on Cracks Located at the Interface of Dissimilar Materials (Interface Cracks)13
1.1 Classic Model of the Crack Between Two Materials14
1.2 Contact Model of the Crack Between Two Materials15
1.3 Cracks in Piezoelectric Materials16
1.4 Modeling of Cracks with Friction in the Contact Zone and Other Ways of Modeling of Pre-fracture Zones Near the Crack Tips18
1.5 Periodic Sets of Cracks18
References19
2 Set of Cracks with Contact Zones Located at the Interface of Two Isotropic Materials24
2.1 Periodic Set of Interface Cracks24
2.1.1 Statement of the Problem and Its Reduction to the Periodic Dirichlet-Riemann Boundary Value Problem24
2.1.2 Solution of the Problem for a Periodic Set of Cracks with Contact Zones28
2.1.3 Derivation of the Classical ``Oscillating'' Solution as a Particular Case of the ``Contact'' Model Solution37
2.1.4 Determination of the Contact Zone Length and the Stress Intensity Factors38
2.1.5 Numerical Results39
2.2 Interaction of an Arbitrary Set of Interface Cracks43
2.2.1 Statement and Solution of the Dirichlet-Riemann BVP for a Set of Interface Cracks with Contact Zones43
2.2.2 Investigation of the Interaction of Two Cracks with Contact Zones52
2.3 Analysis of Results and Conclusions56
References56
3 Set of Cracks with Contact Zones Located at the Interface of Two Anisotropic Materials57
3.1 Periodic Set of Interface Cracks57
3.1.1 Statement and Solution of the Problem for a Periodic Set of Cracks with Contact Zones57
3.1.2 Derivation of the Classical ``Oscillating'' Solution as a Particular Case of the ``Contact'' Model Solution64
3.1.3 Determination of the Contact Zone Length and Basic Fracture Parameters65
3.1.4 Assessment of the Obtained Solution and Analysis of the Results67
3.2 Interaction of an Arbitrary Set of Interface Cracks71
3.2.1 Statement and Solution of the Dirichlet-Riemann BVP for a Set of Interface Cracks with Contact Zones71
3.2.2 Investigation of the Interaction of Two Cracks with Contact Zones76
3.3 Analysis of Results and Conclusions79
References80
4 Periodic Set of Cracks Located at the Interface of Piezoelectric Materials81
4.1 Basic Information About Piezoelectric Materials81
4.2 Fundamental Equations for Electromechanical Fields in Piezoelectric Materials83
4.3 Fully Electrically Permeable Cracks85
4.3.1 Solution to the Problem Within the Classical Model85
4.3.2 Solution to the Problem Within the Contact Model92
4.3.3 Fracture Behavior of Periodically Bonded Piezoelectric Interface Under Compressive-Shear Loading101
4.4 Cracks with Finite Electric Permittivity105
4.4.1 Solution for a Homogeneous Piezoelectric Material105
4.4.2 Solution to the Problem Within the Classical Model115
4.4.3 Solution to the Problem Within the Contact Model122
4.5 Conclusions133
References133
Appendix Conclusions134