Improvement of Accuracy of Inverse Analysis for Stress Separation in Thermoelastic Stress Analysis

This paper considers determination of individual stress components from the sum of the principal stresses obtained experimentally by the thermoelastic stress analysis. The stress separation problem is divided into two parts : (1) an inverse problem to estimate the unknown boundary values from the kn...

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Veröffentlicht in:JSME International Journal Series A Solid Mechanics and Material Engineering 2000/10/15, Vol.43(4), pp.305-313
Hauptverfasser: Hayabusa, Keisuke, Inoue, Hirotsugu, Kishimoto, Kikuo, Shibuya, Toshikazu
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container_issue 4
container_start_page 305
container_title JSME International Journal Series A Solid Mechanics and Material Engineering
container_volume 43
creator Hayabusa, Keisuke
Inoue, Hirotsugu
Kishimoto, Kikuo
Shibuya, Toshikazu
description This paper considers determination of individual stress components from the sum of the principal stresses obtained experimentally by the thermoelastic stress analysis. The stress separation problem is divided into two parts : (1) an inverse problem to estimate the unknown boundary values from the knowledge of the sum of the principal atresses inside the analysis region, snd (2) a forward problem to compute the stress components inside the analysis region based on the estimated boundary values. These two problems can be formulated and solved by the BEM. As the inverse problem is often ill-posed, two techniques are adopted so as to attain an accurate result. One is pre-processing of experimental data, that is filtering based on the compatibility equation. The other is regularization of the inverse problem by Tikhonov's method with Hansen's L-curve method. The effectiveness of developed method is verified by applying it to an experimental data. The effect of configuration of the analysis region on the accuracy of stress separation is also discussed.
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The stress separation problem is divided into two parts : (1) an inverse problem to estimate the unknown boundary values from the knowledge of the sum of the principal atresses inside the analysis region, snd (2) a forward problem to compute the stress components inside the analysis region based on the estimated boundary values. These two problems can be formulated and solved by the BEM. As the inverse problem is often ill-posed, two techniques are adopted so as to attain an accurate result. One is pre-processing of experimental data, that is filtering based on the compatibility equation. The other is regularization of the inverse problem by Tikhonov's method with Hansen's L-curve method. The effectiveness of developed method is verified by applying it to an experimental data. 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subjects Boundary Element Method
Boundary-integral methods
Computational techniques
Exact sciences and technology
Fundamental areas of phenomenology (including applications)
Inverse Problem
L-Curve Method
Mathematical methods in physics
Measurement and testing methods
Measurement methods and techniques in continuum mechanics of solids
Numerical approximation and analysis
Ordinary and partial differential equations, boundary value problems
Physics
Solid mechanics
Stress Separation
Structural and continuum mechanics
Thermoelastic Stress Analysis
Tikhonov Regularization
title Improvement of Accuracy of Inverse Analysis for Stress Separation in Thermoelastic Stress Analysis
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