Fracture Mechanics of Ceramics: Fatigue, Composites, and High-Temperature Behavior

Fracture Mechanics of Fatigue of Structural Ceramics; I.W. Chen, etal. Fatigue Behavior of Sintered Al2O3 under Rotary Bending and Static Fatigue; H.N. Ko. Fatigue of Notched Alumina Specimens; D. Hertel, et al. Static and Cyclic Fatigue of Zirconia Materials Measured by Double Torsion; J. Chevalier, et al. The Fatigue Behavior of MgPSZ and ZTA Ceramics; M.M. Nagl, et al. The Influence of Processing Techniques on the Fatigue Properties of Yttria Stabilized Zirconia with Different Grain Sizes; R. Matt, G. Grathwohl. Fatigue Crack Initiation and Propagation in Ceramics; A. Ueno, H. Kishimoto. On Fatigue and Facture Behavior of SiAlloyed Pyrolytic Carbon; L. Ma,et al. An Analysis of Cyclic Fatigue Effects in Ceramic Matrix Composites; D. Koch, G. Grathwohl. Fatigue Life Predications of PZT Using Continuum Damage Mechanics and Finite Element Methods; T.J.Chuang, et al. Crack Growth in Ferroelectric Ceramics and Actuators under Mechanical and Electrical Loading; G.A. Schneider, et al. Effects of Residual Stress on Fracture Toughness and Subcritical Crack Growth of Indented Cracks in Various Glasses; M. Yoda, et al. Determination of Threshold Stress Intensity Factor for Subcritical Crack Growth in Ceramic Materials by Interrupted Static Fatigue Test; V.M. Sglavo, et al. 31 additional articles. Index.