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Determination of Stress Intensity Factor Value for Chevron-Notched Specimens – Pilot Study

., 1995, Nr. 32, pp. 57–64. [8] WEI, M-D., DAI, F., XU, N-W. & ZHAO T. Stress intensity factors and fracture process zones of ISRM-suggested chevron notched specimens for mode I fracture toughness testing of rocks. Engineering Fracture Mechanics . 2016, Vol. 168, pp. 174–189. [9] YUWEI CUI, F. & VINCI R. P. A chevron-notched bowtie micro-beam bend test for fracture toughness measurement of brittle materials. Scripta Materialia . 2017, Vol. 132, pp. 53–57. [10] ŠIMONOVÁ, H., DANĚK, P., FRANTÍK, P., KERŠNER, Z, & VESELÝ V. Tentative Characterization of

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Stress Intensity Factor Analysis and Fatigue Behavior of A Crack in The Residual Stress Field of Welding

for Testing and Materials STP 776, (pp. 188 - 194). Terada, H. (1976). An Analysis of the Stress Intensity Factor of a Crack Perpendicular to the Welding Bead. Engineering Fracture Mechanics . 8(3), 441 - 444. Tada, H. & Paris, P.C. (1983). The Stress Intensity Factor for a Crack Perpendicular to the Welding Bead. International Journal of Fracture . 21(2), 279 - 284. Kanazawa, T., Oba, H. & Susei, S. (1962). The Effect of Welding Residual Stress Upon Brittle Fracture Propagation (Rept. 2

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Photoelastic Analysis of Cracked Thick Walled Cylinders

References 1. J.M. Etheridge, J.W. Dally, A Critical Review of Methods for Determining Stress-Intensity Factors from Isochromatic Fringes, Experimental Mechanics, Vol. 17, No. 7, pp. 248-254, (1977). 2. G.R. Irwin, Analysis of Stresses and Strains Near the End of a Crack Traversing a Plate, Journal of Applied Mechanics, Vol. 24, pp. 361-364, (1957). 3. W.B. Bradley, A.S. Kobayashi, An Investigation of Propagating Cracks by Dynamic Photoelasticity, Experimental Mechanics, Vol. 10, No. 3, pp. 106-113, (1970

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Impact of the Weld Geometry on the Stress Intensity Factor of the Welded T-Joint Exposed to the Tensile Force and the Bending Moment


In this paper it is analyzed the welded T-joint exposed to the axial tensile force and the bending moment, for determining the impact of the weld geometry on the fracture mechanics parameters. The stress intensity factor was calculated analytically, based on the concept of the linear elastic fracture mechanics (LEFM), by application of the Mathematica® programming routine. The presence of the weld was taken into account through the corresponding correction factors. The results show that increase of the size of the triangular welds leads to decrease of the stress intensity factor, while the SIF increases with increase of the welds’ width. The ratio of the two welded plates’ thicknesses shows that plate thicknesses do not exhibit significant influence on the stress intensity factor behavior.

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Friction Effect in a Plane Problem of Punch Acting on A Half-Space Weakened by Cracks

, Transactions of the ASME, Vol. 112, 382-391. 11. Goshima T., Soda T. (1997), Stress Intensity Factors of a Subsurface Crack in a Semi-Infinite Body Due to Rolling/Sliding Contact and Heat Generation, JSME International Journal Series A 40, 263-270. 12. Guler M.A., Erdogan F. (2007), Frictional Sliding Contact Problems of Rigid Parabolic and Cylindrical Stamps on Graded Coatings, International Journal of Mechanical Sciences , Vol. 49, 161-182, 13. Hasebe N. (1981), An Edge Crack in a Semi-Infinite Plate Welded to a Rigid Stiffener, Proc. Jap. Civ. Eng. , Vol

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Mechanism of Fatigue Crack Growth of Bridge Steel Structures

:457-464, 2015. 4. J. M. L. Reis. “Sisal fiber polymer mortar composites: Introductory fracture mechanics approach”, Construction & Building Materials, 37(37):177-180, 2012. 5. R. Wang, A. Nussbaumer. “Modelling fatigue crack propagation of a cracked metallic member reinforced by composite patches”, Engineering Fracture Mechanics 76(9):1277–1287, 2009. 6. X. Q. Feng, Y. F. Shi, X. Y. Wang, et al. “Dislocation-based semi-analytical method for calculating stress intensity factors of cracks: Two-dimensional cases”, Engineering Fracture Mechanics, 77

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Mathematical Modelling of Stationary Thermoelastic State for a Plate with Periodic System of Inclusions and Cracks

.J. (2014), Thermoelastic interaction of two offset interfacial cracks in bonded dissimilar half-planes with a functionally graded interlayer, Acta Mechanica , 225(7),2111–2131. 5. Elfakhakhre N.R.F., Nik L., Eshkuvatov N.M.A. (2017), Stress intensity factor for multiple cracks in half plane elasticity, AIP Conference , 1795(1). 6. Erdogan F., Gupta B.D., Cook T.S. (1973), The numerical solutions of singular integral equations, Methods of analysis and solutions of crack problems. Leyden: Noordhoff Intern. publ ., 368-425. 7. Havrysh V.I. (2015

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Effects Of Specimen Size And Crack Depth Ratio On Calibration Curves For Modified Compact Tension Specimens

REFERENCES [1] AHMED, M.U., RAHMAN, A., ISLAM, M.R., TAREFDER, R.A. Combined effect of asphalt concrete cross-anisotropy and temperature variation on pavement stress-strain under dynamic loading, Construction and Building Materials. 2015, Volume 93, pp. 685–694. [2] ALDAZABAL, J., MARTÍN-MEIZOSO, A., MARTÍNEZ-ESNAOLA, J.M., Experimental measurement of Mode I & II critical stress intensity factor of stones. Anales de mecanica de la fractura 2015, Volume 32, pp. 154–159, ISSN: 0213-3725. [3] ANDERSON, T.L. Fracture mechanics fundamentals and

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Numerical Analysis of Stress Intensity Factor in Specimens with Different Fillet Geometry Subjected to Bending

. (2012), Assessment of direct method of calculating stress intensity factor, Journal of Science of the gen. Tadeusz Kosciuszko Military Academy of Land Forces , 3 (165), 336-346 (in Polish). 5. Faszynka S., Lewandowski J., Rozumek D. (2016), Numerical analysis of stress and strain in specimens with rectangular cross-section subjected to torsion and bending with torsion, Acta Mechanica et Automatica, 10, 5-11. 6. Ferro P., Berto F., James M.N. (2016), Asymptotic residual stresses in butt-welded joints under fatigue loading, Theoretical and Applied

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Stress Intensity Factor Calculations for the Compressor Blade with Half-Elliptical Surface Crack Using Raju-Newman Solution

References Newman, J.C. Jr. & Raju, I.S. (1981). An empirical stress intensity factor equation for surface cracks. Engineering Fracture Mechanics , Vol. 15, pp. 185-192. Barlow, K.W. & Chandra, R. (2005). Fatigue crack propagation simulation in an aircraft engine fan blade attachment. International Journal of Fatigue 27(10-12), 1661-1668. Poursaeidi, E. & Salavatian, M. (2009). Fatigue crack growth simulation in a generator fan blade. Engineering Failure Analysis . 16

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