ARTICLE
Influence of temperature and hydrogen on fatigue fracture of 10Kh15N27T3V2MR steel
 
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1
Karpenko Physico-Mechanical Institute, National Academy of Sciences of Ukraine
2
Lviv Polytechnic National University
3
Lviv State University of Life Safety
Online publication date: 2020-01-15
Publication date: 2020-01-15
Submission date: 2018-12-20
Acceptance date: 2019-06-02
 
Journal of Theoretical and Applied Mechanics 2020;58(1):3–15
KEYWORDS
ABSTRACT
A theoretical and experimental approach to prognosis of fatigue crack growth behavior and determination of the remaining resource of elements of constructions under the influence of temperature and hydrogen is discussed in the paper. Kinetic fatigue fracture diagrams of austenitic steel of 10Kh15N27T3V2MR were experimentally built and analytically described at different temperatures in a neutral environment and in hydrogen. The threshold and critical values of the stress intensity factor (SIF) were found. The durability of a turbine disk was evaluated. It is found that hydrogen reduced the remaining resource of this structural element almost by 2-3 times.
 
REFERENCES (28)
1.
Balitskii A.I., Ivaskevich L.M., Mochulskyi V.M., 2009a, Temperature dependences of age-hardening austenitic steels mechanical properties in gaseous hydrogen, Proceedings on CD ROM of the 12th International Conference on Fracture, Ottawa, Canada, M. Elboujdaini (Edit.), T19.001, p. 7.
 
2.
Balitskii A.I., Ivaskevich L.M., Mochulskyi V.M., 2010, Crack resistance of age-hardening Fe-Ni alloys in gaseous hydrogen, 18th European Conference on Fracture. Fracture of Materials and Structures from Micro to Macro Scale, Dresden, Germany, Paper No. 80.
 
3.
Balytskyi O.I., Ivaskevych L.M., Mochulskyi V.M., Holiyan O.M., 2009b, Influence of hydrogen on the crack resistance of 10Kh15N27T3V2MP steel, Materials Science, 47, 2, 258-267.
 
4.
Balitskii A.I., Vytvytskyii V., Ivaskevich L., Eliasz J., 2012, The high- and low-cycle fatigue behavior of Ni-contain steels and Ni-alloys in high pressure hydrogen, International Journal of Fatigue, 39, 32-37.
 
5.
Belogurov A.I., Radchuk V.S., Rudis M.A., Sushkov A.M., Kholodnyi V.I., 2004, Strength analysis of structural elements of hydrogen power-generating equipment, Materials Science, 40, 6, 814-821.
 
6.
Brown W.F., Srawley J.E., 1966, Plane strain crack toughness testing of high strength metallic materials, ASTM Publications, 410.
 
7.
COST 25506-85, 1985,Methods for Mechanical Testing of Metals. Determination of the Characteristics of Crack Resistance (Fracture Toughness) under Static Loading (in Russian), Izd. Standartov, Moscow.
 
8.
Fishgoit A.V., Kolachev B.A., 1997, Strengh test in hydrogen in the aerospace industry, Materials Science, 33, 4, 568-573.
 
9.
Gray H.R., 1974, Testing for hydrogen environment embrittlement: experimental variables, [In:] Hydrogen Embrittlement Testing, ASTM STP 543, ASTM Baltimore, 133-151.
 
11.
Jovicic G.R., Grabulov V.K., Maksimovic S.M., Živković M.M., Jovicic N.M., Bošković G.B., Maksimovic K., 2009, Residual life estimation of a thermal power plant component: The high-pressure turbine housing case, Thermal Science, 13, 4, 99-106.
 
12.
Kim H.-J., 1999, Fatigue failure analysis of last stage blade in a low-pressure steam turbine, Engineering Failure Analysis, 6, 2, 93-100.
 
13.
Kosarevych R.Y., Rusyn B.P., Torska R.V., 2016, Modeling of the propagation of pitting by point processes, Materials Science, 51, 5, 673-681.
 
14.
Liu C., Macdonald D.D., 1997, Prediction of failures of low-pressure steam turbine disks, Journal of Pressure Vessel Technology, 119, 4, 393-400, DOI: 10.1115/1.2842321.
 
15.
Liu Y., Mahadevan S., 2007, Threshold stress intensity factor and crack growth rate prediction under mixed- mode loading, Engineering Fracture Mechanics, 74, 332-345, DOI: 10.1016/j.engfracmech.2006.06.003
 
16.
Lu Z., Xiang Y., Liu Y., 2010, Crack growth-based fatigue-life prediction using an equivalent initial flaw model. Part II: Multiaxial loading, International Journal of Fatigue, 32, 376-381, DOI: 10.1016/j.ijfatigue.2009.07.013.
 
17.
Murakami Y., 1987, Stress Intensity Factors Handbook, Elsevier Science Limited, p. 1464.
 
18.
Murakami Y., Matsuoka S., 2010, Effect of hydrogen on fatigue crack growth of metals, Engi neering Fracture Mechanics, 77, 1926-1940. .
 
19.
Nanninga N., Slifka A., Levy Y., White C., 2010, A review of fatigue crack growth for pipeline steels exposed to hydrogen, Journal of Research of the National Institute of Standards and Technology, 115, 437-452.
 
20.
Panasyuk V.V., Andreykiv O.Y., Darchuk O.I., Kuznyak N.V., 1994, Influence of hydrogen-containing environments on fatigue crack extension resistance of metals, [In:] Handbook of Fatigue Crack Propagation in Metallic Structures, A. Carpinteri (Edit.), Amsterdam, Elsevier, 1205-1241.
 
21.
Panasyuk V.V., Andreykiv O.Y., Rithie R.O., Darchuk O.I., 2001, Estimation of the effects of plasticity and resulting crack closure during small fatigue crack growth, International Journal of Fracture, 107, 99-115.
 
22.
Panasyuk V., Ivanytskyi Y, Hembara O., 2012, Assessment of hydrogen effect on fracture resistance under complex-mode loading, Engineering Fracture Mechanics, 83, 54-61.
 
23.
Rozumek D., Lachowicz C.T., Macha E., 2010, Analytical and numerical evaluation of stress intensity factor along crack paths in the cruciform specimens under out-of-phase cyclic loading, Engineering Fracture Mechanics, 77, 1808-1821.
 
24.
Rusyn B.P., Anufrieva N.P., Hrabovska N.R., Ivanyuk V.G., 2014, Nondestructive testing of the state of surfaces damage by corrosion pitting, Materials Science, 49, 4, 516-524.
 
25.
Seifert H.P., Ritter S., 2008, Corrosion fatigue crack growth behaviour of low-alloy reactor pressure vessel steels under boiling water reactor conditions, Corrosion Science, 50, 1884-1899.
 
26.
Tkachev V.I., Ivaskevich L.M., Mochulskyi V.M., 2007, Temperature dependences of mechanical properties of austenitic and martensitic steels in hydrogen, Materials Science, 45, 5, 654-666.
 
27.
Toribio J., Kharin V., 2009, Finite-deformation analysis of the crack-tip fields under cyclic loading, International Journal of Solids and Structures, 46, 1937-1952.
 
28.
Vasovic I., Maksimovic S., Maksimovic K., Stupar S., Bakic G., Maksimovic M., 2014, Determination of stress intensity factors in low pressure turbine rotor discs Mathematical Problems in Engineering, 1-9, DOI: 10.1155/2014/304638.
 
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