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http://dx.doi.org/10.1016/j.net.2021.11.011

Prediction of fatigue crack initiation life in SA312 Type 304LN austenitic stainless steel straight pipes with notch  

Murthy, A. Ramachandra (CSIR-Structural Engineering Research Centre)
Vishnuvardhan, S. (CSIR-Structural Engineering Research Centre)
Anjusha, K.V. (Vimal Jyothi Engineering College)
Gandhi, P. (CSIR-Structural Engineering Research Centre)
Singh, P.K. (Bhabha Atomic Research Centre)
Publication Information
Nuclear Engineering and Technology / v.54, no.5, 2022 , pp. 1588-1596 More about this Journal
Abstract
In the nuclear power plants, stainless steel is widely used for fabrication of various components such as piping and pipe fittings. These piping components are subjected to cyclic loading due to start up and shut down of the nuclear power plants. The application of cyclic loading may lead to initiation of crack at stress raiser locations such as nozzle to piping connection, crown of piping bends etc. of the piping system. Crack initiation can also take place from the flaws which have gone unnoticed during manufacturing. Therefore, prediction of crack initiation life would help in decision making with respect to plant operational life. The primary objective of the present study is to compile various analytical models to predict the crack initiation life of the pipes with notch. Here notch simulates the stress raisers in the piping system. As a part of the study, Coffin-Manson equations have been benchmarked to predict the crack initiation life of pipe with notch. Analytical models proposed by Zheng et al. [1], Singh et al. [2], Yang Dong et al. [25], Masayuki et al. [33] and Liu et al. [3] were compiled to predict the crack initiation life of SA312 Type 304LN stainless steel pipe with notch under fatigue loading. Tensile and low cycle fatigue properties were evaluated for the same lot of SA312 Type 304LN stainless steel as that of pipe test. The predicted crack initiation lives by different models were compared with the experimental results of three pipes under different frequencies and loading conditions. It was observed that the predicted crack initiation life is in very good agreement with experimental results with maximum difference of ±10.0%.
Keywords
Fatigue; Crack initiation life; Crack initiation models; Piping components; SA312 Type 304LN stainless Steel;
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Times Cited By KSCI : 1  (Citation Analysis)
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1 M. Weick, J. Aktaa, Microcrack propagation and fatigue lifetime under non-proportional multiaxial cyclic loading, Int. J. Fatig. 25 (2003) 1117-1124.   DOI
2 M. Benachour, N. Benachour, M. Benguediab, Fatigue crack initiation and propagation through residual stress field, Int. Scholarly and Scientific Res. Innovation 6 (2012) 2470-2474.
3 P.J. Huffman, A strain energy based damage model for fatigue crack initiation and growth, Int. J. Fatig. 88 (2016) 197-204.   DOI
4 H.U. Yang Dong, H.U. Zhi Zhong, C.A.O. Shu Zhen, Theoretical Study on Manson-Coffin Equation for Physically Short Cracks and Lifetime Prediction, Science China Technological Sciences, 2011, pp. 1-9.
5 ASTM A 312/A 312M - 09, Standard Specification for Seamless, Welded and Heavily Cold Worked Austenitic Stainless Steel Pipes, ASTM International, USA.
6 Bhavana Joy, S. Vishnuvardhan, G. Raghava, P, P. Gandhi, Mathews M. Paul, Low cycle fatigue characteristics of SS 304 LN stainless steel, in: Proceedings of the 2nd International Conference on Materials for the Future, Thrissur, India, February 23-25, 2011.
7 J.-D. Hong, C. Jang, T.S. Kim, Effects of mixed strain rates on low cycle fatigue behaviors of austenitic stainless steels in a simulated PWR environment, Int. J. Fatig. 82 (2016) 292-299.   DOI
8 J. Colin, A. Fatemi, S. Taheri, Fatigue behaviour of stainless steel 304L including strain hardening, prestraining, and mean stress effects, J. Eng. Mater. Technol. 132 (2010) 1-13.
9 U. Zerbst, M. Madia, M. Vormwald, H.T. Beier, Fatigue strength and fracture mechanics - a general perspective, Eng. Fract. Mech. 198 (2018) 2-23.   DOI
10 Masayuki Kamaya, Fatigue crack tolerance design for stainless steel by crack growth analysis, Eng. Fract. Mech. 177 (2017) 14-32.   DOI
11 F.A. Kandil, M.W. Brown, K.J. Miller, Biaxial Low-Cycle Fatigue Fracture of 316 Stainless Steel at Elevated Temperature, 280, Metals Soci, London, 1982, pp. 203-210.
12 M.R. Mitchell, in: M. Meshii (Ed.), Fatigue and Microstructure, ASM, Metals Park, OH, 1978, pp. 385-437.
13 A.S. Cheng, C. Laird, Fatig. Fract. Eng. Mater. Struct. 4 (1981) 343-353.   DOI
14 M.A. Jameel, P. Peralta, C. Laird, Initiation and propagation of stage-I cracks in copper single crystals under load control, Mater. Sci. Eng. A342 (2003) 279-286.
15 ASTM E 606/E 606M - 12, Standard Test Method for Strain-Controlled Fatigue Testing, ASTM International, USA.
16 M.A. Meggiolaro, J.T.P. Castro, Statistical evaluation of strain-life fatigue crack initiation predictions, Int. J. Fatig. 26 (2004) 463-476.   DOI
17 C.K. Mukhopadhyay, T. Jayakumar, T.K. Haneef, S. Suresh Kumar, B.P.C. Rao, Sumit Goyal, Suneel K. Gupta, Vivek Bhasin, S. Vishnuvardhan, G. Raghava, P. Gandhi, Use of acoustic emission and ultrasonic techniques for monitoring, Int. J. Pres. Ves. Pip. 116 (2014) 27-36.   DOI
18 ASTM E 8/E8M - 15, Standard Test Methods for Tension Testing of Metallic Materials [Metric], ASTM International, USA.
19 G. Raghava, P. Gandhi, K.K. Vaze, Cyclic fracture, FCG and ratcheting studies on Type 304LN stainless steel straight pipes and elbows, Procedia Engineering 55 (2013) 693-698.   DOI
20 K. Tanaka, T. Mura, ASME J. Appl. Mech. 48 (1981) 97-103.   DOI
21 L.F. Coffin Jr., Trans. ASME 76 (1954) 931-950.
22 Jaap Schijve, The significance of fatigue crack initiation for predictions of the fatigue limit of specimens and structures, Int. J. Fatig. 61 (2014) 39-45.   DOI
23 Jianhui Liu, Yaobing Wei, Chagfeng Yan, Shanshan Lang, Method for predicting crack initiation life of notched specimen based on damage Mechanics, J. Shanghai Jiaot. Univ. 23 (2018) 286-290.   DOI
24 S. Suresh, R. Ritchie, Propagation of short fatigue cracks, Int. Met. Rev. 29 (1) (1984) 445-475.   DOI
25 A. Ramachandra Murthy, P. Gandhi, S. Vishnuvardhan, G. Sudharshan, Crack growth analysis and remaining life prediction of dissimilar metal pipe weld joint with circumferential crack under cyclic loading, Nuc. Eng. Techn. 52 (2020) 2949-2957.   DOI
26 D. Radaj, C.M. Sonsino, W. Fricke, Fatigue Assessment of Welded Joints by Local Approaches, Woodhead Publishing, 2006.
27 S.S. Manson, M.H. Hirschberg, Fatigue: an Inter-disciplinary Approach, Syracuse University, Syracuse, NY, 1964, pp. 133-178.
28 P. Darcis P, T. Lassen T, N. Recho, Fatigue behavior of welded joints - Part 2: Physical modeling of the fatigue process, Weld. J. 85 (2006) 19.S-26.S.
29 N. Gao, M.W. Brown, K.J. Miller, An effective method to investigate short crack growth behaviour by reverse bending testing, Int. J. Fatig. 29 (2007) 565-574.   DOI
30 M. Zheng, E. Niemi, X. Zheng, An approach to predict fatigue crack initiation life of LY12CZ aluminium and 16 Mn steel, Theor. Appl. Fract. Mech. 26 (1997) 23-28.   DOI
31 Y.J. Xie, X.H. Wang, Crack initiation and direction for circumferential periodic cracks in pipe under tension and torsion, Theor. Appl. Fract. Mech. 40 (2003) 153-159.   DOI
32 P.K. Singh, V. Bhasin, K.K. Vaze, A.K. Ghosh, H.S. Kushwaha, D.S.R. Murthy, P. Gandhi, S. Sivaprasad, Fatigue studies on carbon steel piping materials and components: Indian PHWRs, Nucl. Eng. Des. 238 (2008) 801-813.   DOI
33 P.K. Singh, K.K. Vaze, V. Bhasin, H.S. Kushwaha, P. Gandhi, D.S. Ramachandra Murthy, Crack initiation and growth behaviour of circumferentially cracked pipes under cyclic and monotonic loading, Int. J. Pres. Ves. Pip. 80 (2003) 629-640.   DOI
34 M. Zheng, J.H. Luo, X.W. Zhao, Z.Q. Bai, R. Whang, Effect of pre-deformation on the fatigue crack initiation life of X60 pipeline steel, Int. J. Pres. Ves. Pip. 82 (2005) 546-552.   DOI