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Three-dimensional analysis of elastic stress distribution of indented ceramic surface by finite element method 被引量:1

Three-dimensional analysis of elastic stress distribution of indented ceramic surface by finite element method
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摘要 The three-dimensional stress distributions in the area surrounding indentation pattern for three different materials, Al2O3, Si3N4 and SiC were analyzed by finite element method(FEM). Those theoretical results were also compared with the experimental ones by Rockwell hardness test. The effect of loading stress on the plastic deformation in specimens, surface was investigated on the assumption of shear strain energy theory by Huber-Mises when the materials were indented. The distributions of nomal stress, shear stress, and Mises stress were analysed with variations of loading conditions. It is clear that the analytical results for the stress distributions, the crack length and its density of probability are in good agreement with the experimental results. The three-dimensional stress distributions in the area surrounding indentation pattern for three different materials, Al2O3, Si3N4 and SiC were analyzed by finite element method(FEM). Those theoretical results were also compared with the experimental ones by Rockwell hardness test. The effect of loading stress on the plastic deformation in specimens, surface was investigated on the assumption of shear strain energy theory by Huber-Mises when the materials were indented. The distributions of nomal stress, shear stress, and Mises stress were analysed with variations of loading conditions. It is clear that the analytical results for the stress distributions, the crack length and its density of probability are in good agreement with the experimental results.
出处 《中国有色金属学会会刊:英文版》 CSCD 2006年第B02期551-557,共7页 Transactions of Nonferrous Metals Society of China
关键词 锯齿状陶瓷表面 弹性应力分布 有限元法 三维分析 ceramics stress distribution three-dimensional finite element method
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