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Research paper

MIXED-MODE STRESS INTENSITY FACTOR EVALUATION BY INTERACTION INTEGRAL METHOD UNDER THERMAL AND MECHANICAL LOADS

By
Ait Ferhat Yazid ,
Ait Ferhat Yazid
Blaoui Mohamed Mossaab ,
Blaoui Mohamed Mossaab
Chorfi Hichem ,
Chorfi Hichem
Abacha Ilyes ,
Abacha Ilyes
Benchikh Lilia ,
Benchikh Lilia
Kebaili Maya ,
Kebaili Maya
Boulenouar Abdelkader
Boulenouar Abdelkader

Abstract

The objective of this study is to present numerical aspects related to the implementation of the interaction integral method for the purpose of determining the stress intensity factors in mode I and mixed-mode crack problems of functionally graded materials (FGM) and homogenous materials for a different form of cracking. This numerical development is based on the use of the finite element method (FEM), by the coupling of the Ansys-Matlab calculation codes. To validate the accuracy and reliability of the approach, the results obtained will be compared with other numerical results in the literature. The interaction integral method is one of the methods most compatible with the formulation of the finite element method. Therefore, we are interested in this study, in terms of the presentation of necessary steps which allow the resolution of a problem by finite elements for the mechanical problems. It is very important to note that the principle of the implementation of the “Integral M” technique is using scripts based on the coupling of two commercial software.

References

1.
Ammendolea D, Greco F, Lonetti P, Luciano R, Pascuzzo A. Crack propagation modeling in functionally graded materials using Moving Mesh technique and interaction integral approach. *Composite Structures*. 2021;269:114005.
2.
Ait Ferhat Y, Boulenouar A. Computation of SIFs for cracks in FGMs and TBC under mechanical and thermal loadings. *International Journal on Interactive Design and Manufacturing (IJIDeM)*. 2020;14(4):1347–56.
3.
Benmessaoud A. Contribution à la modélisation dynamique des structures fissurées soumises à des sollicitations sismiques par la méthode des éléments finis étendue. 2012.
4.
Blackburn WS. Calculation of stress intensity factors at crack tips using special finite elements. In: *The Mathematics of Finite Elements and Applications*. 1973. p. 327–36.
5.
Blandford GE, Ingraffea AR, Liggett JA. Two‐dimensional stress intensity factor computations using the boundary element method. *International Journal for Numerical Methods in Engineering*. 1981;17(3):387–404.
6.
Duflot M. Application des méthodes sans maillage en mécanique de la rupture. 2004.
7.
Feng WZ, Gao LF, Dai YW, Qian W. DBEM computation of T-stress and mixed-mode SIFs using interaction integral technique. *Theoretical and Applied Fracture Mechanics*. 2020;110:102795.
8.
Gdoutos EE. *Fracture Mechanics: An Introduction*. Solid Mechanics and Its Application. 2005;
9.
Gosz M, Moran B. An interaction energy integral method for computation of mixed-mode stress intensity factors along non-planar crack fronts in three dimensions. *Engineering Fracture Mechanics*. 2002;69(3):299–319.
10.
Hon Y, Wu L, Guo L, He Q, Du S. Interaction integral method for the interfacial fracture problems of two nonhomogeneous materials. *Mechanics of Materials*. 2010;42(4):435–50.
11.
Kablia A, Tamine T, Hadj-Meliani M, Azari Z. Determination of stress intensity factors for a bi-material ring specimen with curved cracks under compressive loading. *A- Sciences Fondamentales et Engineering*. 2017;16:56–62.
12.
Kim JH, Paulino GH. T-stress, mixed-mode stress intensity factors, and crack initiation angles in functionally graded materials: a unified approach using the interaction integral method. *Computer Methods in Applied Mechanics and Engineering*. 2003;192(11–12):1463–94.
13.
Mohammed O, Kareem AK, Jamian S, Nemah MN. Distribution of mode I stress intensity factors for single circumferential semi-elliptical crack in thick cylinder. *International Journal of Integrated Engineering*. 2019;11(7):102–11.
14.
Réthoré J, Gravouil A, Morestin F, Combescure A. Estimation of mixed-mode stress intensity factors using digital image correlation and an interaction integral. *International Journal of Fracture*. 2005;132(1):65–79.
15.
Rice J. A path independent integral and the approximate analysis of strain concentration by notches and cracks. *Journal of Applied Mechanics*. 1968;35(2):379.
16.
Yau JF, Wang SS, Corten HT. A mixed-mode crack analysis of isotropic solids using conservation laws of elasticity. *Journal of Applied Mechanics*. 1980;47:335–41.
17.
Yu H, Wu L, Guo L, Du S, He Q. Investigation of mixed-mode stress intensity factors for nonhomogeneous materials using an interaction integral method. *International Journal of Solids and Structures*. 2009;46(20):3710–24.

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