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図書

東工大
目次DB
図書
東工大
目次DB
1. Developments in fracture mechanics for the new century : JSMS 50th Aniversary
edited by K. Kishimoto ... [et al.]
出版情報: Kyoto : Society of Materials Science, Japan, c2001  ii, 174 p. ; 31 cm
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Top Down Approaches to Fracture J.W. Hutchinson (Harvard Univ., USA) 1
Crack Analogue Models: Applications to Thin Films, Contact Problems, Interfacial Adhesion and Graded Materials S. Suresh (Massachusetts Inst. of Tech., USA) 8
Brittle Fracture and the Breaking of Atomic Bonds P. Gumbsch (Max-Planck-Institut fur Metallforschung, Germany) 14
Simulations of Crack Propagation in Inhomogeneous Materials T. Nakamura and Z. Wang (State Univ. of New York, Stony Brook, USA) 23
Physics and Chemistry of Fracture and Role of Fracture Mechanics in Failure Prevention T. Shoji, Q.J. Peng, Y. Takeda, J. Kwon and M. Takegoshi (Tohoku Univ., Japan) 33
Fretting Fatigue of Ti-6A1-4V Subjected to Blade/Disk Contact Loading H. Murthy, T.N. Farris (Purdue Univ., USA) and D.C. Slavik (GE Aircraft Engines) 41
Coalescence of Multiple Cracks under Biaxial Loading A. Saimoto, Y. Imai and F. Motomura (Nagasaki Univ., Japan) 49
Stress Intensity Factors for Small Subsurface Circular Cracks under Moving Contact Load and Evaluation of Allowable Defect Size C. Sakae, Y. Murakami (Kyushu Univ., Japan) and Y. Ohkomori (Japan Casting ＆ Forging Corp., Japan) 55
Distribution of Stress Intensity Factors along the Crack Front of Three-Dimensional Cracks N. Noda and T. Kihara (Kyushu Inst. Of Tech., Japan) 61
Fracture of Railroad Products and Design Codes H. Sakamoto (Kochi Univ. of Tech., Japan) 67
Analysis of Magneto-Elastic Problem for Infinite Plate Containing Cracked Hole N. Hasebe, X-F. Wang and H. Nakanishi (Nagoya Inst. of Tech., Japan) 73
Fracture Path Prediction Simulations of Dynamic Fracture Phenomena T. Nishioka, S. Tchouikov, J. Furutsuka and T. Fujimoto (Kobe Univ. of Mercantile Marine, Japan) 79
An Experimental Study on Dynamic Crack Propagation by the Method of Caustics K. Arakawa, T. Mada and K. Takahashi (Kyushu Univ., Japan) 87
Non-Linear Crack Mechanics and Its Application to the Evaluation of Effective Range of Linear Fracture Mechanics H. Nisitani and T. Kawamura (Kyushu Sangyo Univ., Japan) 93
Critical Frontal Process Zone Size Estimation on Alumina Using SEVNB Technique S-M. Choi, M. Ebisudani and H. Awaji (Nagoya Inst. Of Tech., Japan) 99
Welding Eigenstrain Analysis for Improvement of the Bead Flush Method (Characteristics of Eigenstrain Distribution) H. Lee, H. Nakamura and H. Kobayashi (Tokyo Inst. of Tech., Japan) 104
Fretting Fatigue Life Simulation using Stress Singularity Parameters and Fracture Mechanics T. Hattori, M. Nakamura and T. Watanabe (Hitachi, Japan) 110
Cavitating Jet Peening for the Improvement of Fatigue Strength H. Soyama, K. Sakaki, H. Kumano and M. Saka (Tohoku Univ., Japan) 118
Molecular Dynamic Study on the Effect of Crystallographic Orientation on Near-Threshold Fatigue Crack Propagation in Iron S .Kubo, M. Misaki and A. Furukawa (Osaka Univ., Japan) 122
Theoretical and Numerical Investigations on the Elastoplastic Stress Singularity at an Interface Edge J-Q. Xu and Y. Mutoh (Nagaoka Univ. of Tech., Japan) 129
Dependence of Elastic-Plastic Stress Singularity Field on Material Combination of Butt-Jointed Plates Subjected Uniform Tension Y. Arai and E. Tsuchida (Saitama Univ., Japan) 135
Finite Element Analysis on Fracture Behavior of the Interface Crack with Plastic Deformation M. Omiya, K. Kishimoto and T. Shibuya (Tokyo Inst. of Tech., Japan) 140
Shape Design of Bonded Dissimilar Materials Using the Condition of No-Singularity Under Mechanical Loading S. Ioka and S. Kubo (Osaka Univ., Japan) 146
Delamination of Plasma Sprayed Hydroxyapatite Coating Used for Orthopedic Implants Yuki Sugimura (Harvard Univ., USA) 152
Fracture Mechanics Analysis of Edge-Indent Method for Evaluation of Delamination Strength of Coating D. Zhang, M. Kato and K. Nakasa (Hiroshima Univ., Japan) 157
Propagation of Naturally-Initiated Small Interface Debonding Crack in Ni-Based Superalloy Coatings M. Okazaki, K. Tsuchiya and Y. Harada (Univ. of Tokyo, Japan) 163
Relationship between Defect Distribution and Fatigue Crack Propagation Behavior of Rotor Material T. Kurimura, H. Yoshida and M. Sugawara (Mitsubishi Heavy Industries, Japan) 170
Top Down Approaches to Fracture J.W. Hutchinson (Harvard Univ., USA) 1
Crack Analogue Models: Applications to Thin Films, Contact Problems, Interfacial Adhesion and Graded Materials S. Suresh (Massachusetts Inst. of Tech., USA) 8
Brittle Fracture and the Breaking of Atomic Bonds P. Gumbsch (Max-Planck-Institut fur Metallforschung, Germany) 14
2.

図書
図書
2. Fracture : core research from TWI
出版情報: Cambridge : Abington Publishing, 2000  200 p. ; 30 cm
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3.

図書
図書
3. Handbook of materials behavior models (: set - v. 3)
editor, Jean Lemaître
出版情報: San Diego : Academic Press, c2001  3 v. (xxvii, 1200 p.) ; 24 cm
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目次情報: 続きを見る
Background on mechanics of materials / Volume 1：
Elasticity, viscoelasticity / Chapter 2：
Yield limit / Chapter 3：
Plasticity / Chapter 4：
Viscoplasticity / Chapter 5：
Continuous damage / Chapter 6：
Cracking and fracture / Chapter 7：
Friction and wear / Chapter 8：
Multiphysics coupled behavior / Chapter 9：
Composite media, biomaterials / Chapter 10：
Geomaterials / Chapter 11：
Index
Background on mechanics of materials / Volume 1：
Elasticity, viscoelasticity / Chapter 2：
Yield limit / Chapter 3：
4.

図書
図書
4. Damage tolerance and durability of material systems
Kenneth L. Reifsnider, Scott W. Case
出版情報: New York ; [Great Britain] : Wiley Interscience, c2002  xxiv, 435 p. ; 25 cm
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目次情報: 続きを見る
Preface
Introduction: Basic Thesis
Elements of the Approach / I.1：
Basic Concepts / I.2：
Nonuniform Stress States: Characteristic Material Dimensions / I.3：
Strength Evolution / I.4：
Outline of the Methodology / I.5：
Virtual Design / I.6：
References
Physical Behavior / 1：
Continuous-Fiber Composite Materials / 1.1：
Damage Tolerance and Durability / 1.2：
Damage Modes and Failure Modes / 1.3：
Summary of Concepts / 1.4：
Engineering Concepts of Strength / 2：
Factors That Determine Composite Material Strength / 2.1：
Strength under Multiaxial Loading / 2.2：
Failure Functions for Damage Accumulation / 2.3：
Exercises
Nature of the Problem / 3：
Progressive Failure / 3.2：
Failure Modes / 3.3：
Remaining Strength under Long-Term Loading / 3.4：
Features of Strength Evolution Integral / 3.5：
Summary of Approach / 3.6：
Micromechanical Models of Composite Stiffness and Strength / 4：
Axial Tensile Strength of Unidirectional Composites / 4.1：
Compression Strength / 4.2：
Transverse Strength and Shear Strength / 4.3：
Stiffness Evolution / 5：
Problem Definition / 5.1：
Stiffness Change Due to Matrix Cracking / 5.2：
Time-Dependent Stiffness Change / 5.3：
Temperature-Dependent Stiffness Change / 5.4：
Summary / 5.5：
Strength Evolution During Damage Accumulation / 6：
Factors That Influence Strength / 6.1：
Models of Strength Evolution / 6.3：
Application Example / 6.4：
Nonuniform Stress States / 7：
Laminate Edge-Related Stresses / 7.1：
Undamaged Notched Strength / 7.3：
Notched Strength After Damage / 7.4：
Fracture Mechanics and Energy Methods / 7.5：
Example Applications and Case Studies / 8：
Example: Unnotched Failure of Polymer Composite / 8.1：
Case Study 1: Fatigue Behavior of APC-2 Laminates / 8.2：
Case Study 2: Elevated-Temperature Fatigue Behavior of Graphite Fiber-PPS Laminates / 8.3：
Case Study 3: Elevated-Temperature Fatigue Behavior of Nextel 610/Alumina-Yttria Composites / 8.4：
Case Study 4: Elevated-Temperature Fatigue Behavior of Nicalon-Enhanced SiC Composites / 8.5：
Case Study 5: Fatigue Failure of a Structural Composite Shape / 8.6：
Appendix to Chapter 1 / 8.7：
Index
Preface
Introduction: Basic Thesis
Elements of the Approach / I.1：
5.

図書
図書
5. Advanced mechanics of composite materials. 2. ed
Valery V. Vasiliev, Evgeny V. Morozov
出版情報: Oxford : Elsevier, 2007  xii, 491 p. ; 25 cm
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6.

図書
図書
6. Fracture mechanics : with an introduction to micromechanics
Dietmar Gross, Thomas Seelig
出版情報: New York : Springer, c2006  xii, 319 p. ; 24 cm
シリーズ名: Mechanical engineering series
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目次情報: 続きを見る
Introduction
Elements of solid mechanics / 1：
Stress / 1.1：
Stress vector / 1.1.1：
Stress tensor / 1.1.2：
Equilibrium conditions / 1.1.3：
Deformation and strain / 1.2：
Strain tensor / 1.2.1：
Strain rate / 1.2.2：
Constitutive laws / 1.3：
Elasticity / 1.3.1：
Viscoelasticity / 1.3.2：
Plasticity / 1.3.3：
Energy principles / 1.4：
Energy balance / 1.4.1：
Principle of virtual work / 1.4.2：
Theorems of Clapeyron and Betti / 1.4.3：
Plane problems / 1.5：
Plane stress, plane strain, longitudinal shear / 1.5.1：
Linear elasticity, complex method / 1.5.2：
Perfectly plastic material, slip line fields / 1.5.3：
Further reading / 1.6：
Classical fracture and failure hypotheses / 2：
Basic concepts / 2.1：
Failure hypotheses / 2.2：
Principal stress hypothesis / 2.2.1：
Principal strain hypothesis / 2.2.2：
Strain energy hypothesis / 2.2.3：
Coulomb-Mohr hypothesis / 2.2.4：
Drucker-Prager hypothesis / 2.2.5：
Deformation behavior during failure / 2.3：
Micro and macro phenomena of fracture / 2.4：
Microscopic aspects / 3.1：
Surface energy, theoretical strength / 3.1.1：
Microstructure and defects / 3.1.2：
Crack formation / 3.1.3：
Macroscopic aspects / 3.2：
Crack growth / 3.2.1：
Types of fracture / 3.2.2：
Linear fracture mechanics / 3.3：
General remarks / 4.1：
Crack-tip field / 4.2：
Two-dimensional crack-tip fields / 4.2.1：
Mode-I crack-tip field / 4.2.2：
Three-dimensional crack-tip field / 4.2.3：
K-concept / 4.3：
K-factors / 4.4：
Examples / 4.4.1：
Integral equation formulation / 4.4.2：
Method of weight functions / 4.4.3：
Crack interaction / 4.4.4：
Fracture toughness K[subscript Ic] / 4.5：
Energy release during crack propagation / 4.6：
Energy release rate / 4.6.2：
Compliance, energy release rate, and K-factors / 4.6.3：
Energy balance, Griffith's fracture criterion / 4.6.4：
J-integral / 4.6.5：
Small-scale yielding / 4.7：
Plastic zone size, Irwin's crack length correction / 4.7.1：
Qualitative remarks on the plastic zone / 4.7.2：
Stable crack growth / 4.8：
Mixed-mode loading / 4.9：
Fatigue crack growth / 4.10：
Interface cracks / 4.11：
Piezoelectric materials / 4.12：
Basic principles / 4.12.1：
The crack in a ferroelectric material / 4.12.2：
Elastic-plastic fracture mechanics / 4.13：
Dudgale model / 5.1：
Perfectly plastic material / 5.3：
Total strain theory, HRR-field / 5.3.2：
Fracture criterion / 5.4：
Determination of J / 5.5：
Determination of J[subscript c] / 5.6：
Crack propagation / 5.7：
J-controlled crack growth / 5.7.1：
Steady-state crack growth / 5.7.2：
Essential work of fracture / 5.8：
Creep fracture / 5.9：
Fracture of linear viscoelastic materials / 6.1：
Crack-tip field, elastic-viscoelastic analogy / 6.2.1：
Fracture concept / 6.2.2：
Creep fracture of nonlinear materials / 6.2.3：
Secondary creep, constitutive law / 6.3.1：
Stationary crack, crack-tip field, loading parameters / 6.3.2：
Creep crack growth / 6.3.3：
Dynamic fracture mechanics / 6.4：
Some foundations of elastodynamics / 7.1：
Dynamic loading of a stationary crack / 7.3：
Crack-tip field, K-concept / 7.3.1：
Energy release rate, energetic fracture criterion / 7.3.2：
Fracture concept, crack-tip speed, crack branching, crack arrest / 7.3.3：
Micromechanics and homogenization / 7.4.4：
Selected defects and fundamental solutions / 8.1：
Eigenstrain, Eshelby's result, defect energies / 8.2.1：
Inhomogeneities, the concept of equivalent eigenstrain / 8.2.2：
Effective elastic properties / 8.3：
Foundations; RVE concept, averaging / 8.3.1：
Analytical approximations / 8.3.2：
Energy methods and bounds / 8.3.3：
Homogenization of elastic-plastic materials / 8.4：
Foundations; macroscopic plastic strain, dissipation, macroscopic yield condition / 8.4.1：
Approximations / 8.4.2：
Thermoelastic material / 8.5：
Damage mechanics / 8.6：
Foundations / 9.1：
Brittle damage / 9.3：
Ductile damage / 9.4：
Void growth / 9.4.1：
Damage models / 9.4.2：
Probabilistic fracture mechanics / 9.4.3：
Statistical fracture concept of Weibull / 10.1：
Fracture probability / 10.3.1：
Fracture stress / 10.3.2：
Generalizations / 10.3.3：
Probabilistic fracture mechanical analysis / 10.4：
Index / 10.5：
Introduction
Elements of solid mechanics / 1：
Stress / 1.1：
7.

電子ブック
ＥＢ
7. Handbook of mechanics of materials (: electronic bk)
Chun-Hway Hsueh, editor-in-chief ; Siegfried Schmauder ... [et al.], editors
出版情報: [Berlin] : SpringerLink, [20--]  1 online resource (xxxiii, 2431 p.)
シリーズ名: Springer reference
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