Cyclic loading is not as damaging as static loading of ceramics at high temperatures. Microcrack growth retardation has been established as a mechanism for increasing the durability of ceramics at high temperatures. A combined experimental and theoretical approach provides a mechanistic understanding of the deformation and failure processes in ceramic materials at high temperatures. Results demonstrate that the high temperature behavior of some ceramic material systems are controlled by the behavior of the grain boundary phase whose response is considerably different under static and cyclic loading.
High Temperature Cyclic Fatigue Damage Modeling of Alumina
Sae Technical Papers
International Congress & Exposition ; 1994
1994-03-01
Conference paper
English
High temperature cyclic fatigue damage modeling of alumina
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