SR-200铍片结构失效预测新方法

P.P. Papados , P.N. Roschke
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引用次数: 0

摘要

当前的破坏准则应用通常采用二维或简化的三维方法来预测破坏应力。开发新的多维破坏准则的动机主要是由于缺乏足够精确的数学工具来解释具有各向异性特性的脆性材料的行为。这样的标准应该能够提供一个可靠的最大载荷估计,这样结构的设计就不会因为过重的重量要求而受到惩罚。所建立的破坏准则用六维应力空间中的断裂面来表示。该准则应用于SR-200铍片结构的失效预测。SR-200铍片结构是一种广泛应用于航天领域的非均质正交各向异性材料。用两个实验对判据进行了验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A new method for failure prediction of SR-200 beryllium sheet structures

Contemporary applications of failure criteria frequently incorporate two-dimensional or simplified three-dimensional methodologies for prediction of failure stresses. Motivation behind the development of a new multi-dimensional failure criterion is due mainly to the lack of a sufficiently accurate mathematical tool that accounts for the behavior of brittle material with anisotropic properties. Such a criterion should be able to provide a reliable maximum load estimate so that design of the structure is not penalized in terms of excessive weight requirements. The failure criterion developed is represented by a fracture surface in a six-dimensional stress space. The criterion is applied for failure prediction of SR-200 beryllium sheet structures, a non-homogeneous orthotropic material used widely in space applications. Two experiments are used to verify the criterion.

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