In Situ Stress Measurement Method Based on X-Ray Diffraction under Biaxial Tensile Loading

Dong Ying Ju; J.G. Wang; Minoru Abe

doi:10.4028/www.scientific.net/MSF.675-677.615

Paper Titles

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Numerical Investigation of Temperature and Forming Rate Effect on AA5086 Warm Formability
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Surface Effects on Bandgaps of Transverse Waves Propagating in Two Dimensional Phononic Crystals with Nanosized Holes
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In Situ Stress Measurement Method Based on X-Ray Diffraction under Biaxial Tensile Loading
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Analysis of Two Ball’s Surface Contact Stress Based on Fractal Theory
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Mechanical Properties of Centrifugal Casting Al-Cu Alloys
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Research on the Self-Thickening Effects in the Process of Fabricating Aluminum Foam Using Semi-Solid Melt by Mechanical Stirring
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Studies on Band Structures and Wave Localization Phenomenon of the Randomly Disordered Two-Dimensional Solid-Fluid Phononic Crystals
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HomeMaterials Science ForumMaterials Science Forum Vols. 675-677In Situ Stress Measurement Method Based on X-Ray...

In Situ Stress Measurement Method Based on X-Ray Diffraction under Biaxial Tensile Loading

Abstract:

The purpose of this investigation is to detect damage from stress distribution in the surface of near pre-crack tip by using X-ray diffraction technique during biaxial tension test. An measurements apparatus to measure stress distribution along pre-crack direction was fabrication by use of a biaxial tensile test device and a stress analyzer based on single exposure technique with one position sensitive proportional counter. Stress distribution with different tensile applied stress ratios were measured during biaxial tension test. As results, the shape of actual stress was keeping increase with increasing tensile applied stress. At maximum applied stress, the residual stress increases with the increasing distance from the crack tip; after reaching a maximum it gradually diminish.