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Journal ArticleDOI

The influence function method for fracture mechanics and residual fatigue life analysis of cracked components under complex stress fields

P.M. Besuner
- 01 Aug 1977 - 
- Vol. 43, Iss: 1, pp 115-154
TLDR
In this paper, an influence function method for calculating stress intensity factors and residual fatigue life for two-and three-dimensional structures with complex stress fields and geometries is presented.
About
This article is published in Nuclear Engineering and Design.The article was published on 1977-08-01. It has received 28 citations till now. The article focuses on the topics: Crack closure & Stress concentration.

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Citations
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Weight functions and stress intensity factors for corner quarter-elliptical crack in finite thickness plate subjected to in-plane loading

TL;DR: In this article, the authors derived approximate weight functions for the profile and frontal plane crack front points of a corner quarter-elliptical crack in finite thickness plate, subjected to mode I, in-plane loading, by using the method of universal weight functions by Shen and Glinka.
Journal ArticleDOI

Analytical flaw assessment

TL;DR: In this paper, a review on analytical flaw assessment methods with the focus on fracture under monotonic loading and fatigue crack propagation is provided, including linear elastic as well as elastic-plastic fracture mechanics.
Journal ArticleDOI

Fracture mechanics weight functions in three dimensions - Subtraction of fundamental fields

TL;DR: In this article, a new procedure is presented for the determination of the fracture mechanics weight functions that are required for the evaluation of stress intensity factors in cracked solids, which are proportional to the displacements on the boundary of the solid when the only loading is a pair of self-equilibrated point forces at the crack front.
Journal ArticleDOI

A general solution procedure for fracture mechanics weight function evalution based on the boundary element method

TL;DR: The boundary element method (BEM) has been used for two-dimensional fracture mechanics analysis as discussed by the authors, which can be used to calculate stress intensity factors for a variety of crack loading and boundary conditions.
Journal ArticleDOI

Spatial problems of the theory of cracks (review)

TL;DR: In this article, the authors presented an analysis and synthesis of the basic mechanical concept and mathematical methodes used in solving three-dimensional problems of the theory of cracks, and solved a number of spatial problems.
References
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Book

The stress analysis of cracks handbook

TL;DR: The Stress Analysis of Cracks Handbook as mentioned in this paper provides a comprehensive, easy-to-access collection of elastic stress solutions for crack configurations, along with other relevant information, such as displacements, crack opening areas, basic stress functions source references, accuracy of solutions, and more.
Journal ArticleDOI

Some remarks on elastic crack-tip stress fields

TL;DR: In this paper, it was shown that if the displacement field and stress intensity factor are known as functions of crack length for any symmetrical load system acting on a linear elastic body in plane strain, then the stress intensity factors for any other symmetric load system whatsoever on the same body may be directly determined.
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The distribution of stress in the neighbourhood of a flat elliptical crack in an elastic solid

TL;DR: In this paper, the authors considered the distribution of stress near a flat elliptical crack in a body of infinite extent under a uniform tension at infinity perpendicular to the plane of the crack, where the body at infinity is in a uniform state of stress whose principal axes are parallel to the axes of the cavity.
Journal ArticleDOI

Application of the boundary-integral equation method to three dimensional stress analysis☆☆☆

TL;DR: The boundary integral equation (BE) method as mentioned in this paper is based on a mathematical formulation which reduces the dimensionality of a problem by relating surface tractions to surface displacements and finds the stresses at any point are then found by direct quadrature from the entirety of surface data.
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