journal article·2008-11

Estimation of the accumulated fatigue damage by saturation and fractal dimension of the deformation relief

M. V. Karuskevich, E. Yu. Korchuk, A. S. Yakushenko, T. P. Maslak

Strength of Materials· Volume 40· Issue 6
Publisher page

Abstract

We present the results of our study aimed at development of a computerized optical method of evaluation of the accumulated fatigue damage. We show a possibility of predicting the residual resource of aircraft components made from clad aluminum alloys by the deformation relief of their surface near stress concentrators. For the quantitative estimation of deformation relief we use the parameters which characterize its saturation and fractal dimension.
Source: openaire · Quality: candidate unverified · Source record ↗

Research context

OpenAlex topics: Engineering Diagnostics and Reliability · Engineering Technology and Methodologies · Material Properties and Failure Mechanisms

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References (12)

Show source-provided references
1. E. É. Zasimchuk, M. V. Karuskevich, and A. I. Radchenko, “A method and sensor for independent nondestructive measurement of the load and exhaustion of the supporting capacity of parts and structures,” Strength Mater., 22, No. 12, 1855–1857 (1990).10.1007/BF00769138 ↗
2. S. R. Ignatovich, M. V. Karuskevich, and O. M. Karuskevich, Method of Residual Resource Assessment for Structural Components by the State of the Deformation Relief of Cladding Layer Surface [in Ukrainian], Declarative Patent on Useful Model No. 3470, Intoduced 15.11.2004, Bulletin No. 11.
3. O. M. Karuskevich, S. R. Ignatovich, M. V. Karuskevich, and V. M. Panteleev, “Diagnostics of the fatigue of the clad aluminum alloys,” Vestn. NTTU KPI. Mashinostroenie, No. 43, 53–55 (2002).
4. O. M. Karuskevich, S. R. Ignatovich, M. V. Karuskevich, et al., “Fatigue monitoring for structural aluminum alloys,” Visn. NAU, No. 1 (19), 88–91 (2004).
5. O. M. Karuskevich, S. R. Ignatovich, and M. V. Karuskevich, “Evolution of the damage of D-16AT alloy near stress concentrator at the stage before propagation of fatigue crack,” Aviats.-Kosm. Tekhn. Tekhnol., No. 4 (12), 29–32 (2004).
6. O. M. Karuskevich, “Influence of the stress level on the development of the deformation relief,” Vestn. Dvigatelestr., No. 2, 79–83 (2005).
7. V. S. Ivanova, A. S. Balankin, I. Zh. Bunin, et al., Synergetics and Fractals in the Material Science [in Russian], Nauka, Moscow (1994).
8. I. N. Sevast'yanova and S. N. Kul'kov, “Fractal characteristics of the surface of plastically deformed tungsten carbide/iron-manganese steel composite,” Zh. Tekhn. Fiz., 73, Issue 2, 81–86 (2003).
9. S. N. Kul'kov and Yu. P. Mironov, “Fractal dimension of the surface during deformation-based martensite transformation in titanium nickelide,” Zh. Tekhn. Fiz., 74, Issue 4, 129–132 (2004).
10. V. M. Goritskii and V. F. Terent'ev, Structure and Fatigue Failure of Metals [in Russian], Moscow (1986).
11. E. Feder, Fractals [Russian translation], Mir, Moscow (1991).
12. S. Lovejoy, “Area-perimeter relation for rain and cloud areas,” Science, 216, 185–187 (1982).10.1126/science.216.4542.185 ↗