Effects of Residual Stress on Fatigue Crack Propagation Rate of Directed Energy Deposited Stainless Steel Parts

Chenghong Duan; Dazhi Shang; Xiangpeng Luo; Hanlin Chi; Xiankun Cao; Xiaojie Hao

doi:10.3788/CJL230601

[1] Cao T F. Research on pulsed eddy current testing technology for austenitic stainless steel pressure equipment[D], 36-40(2019).

[2] Jiang H Z, Fang J H Y, Chen Q S et al. Research status of process, microstructure and mechanical properties of laser selective melting forming 316L stainless steel: process, microstructure, and mechanical properties[J]. Chinese Journal of Lasers, 49, 1402804(2022).

[3] Li H, Zhao W J, Li R D et al. Progress on additive manufacturing of maraging steel[J]. Chinese Journal of Lasers, 49, 1402102(2022).

[4] Yu M J, Wu C M, Feng A X et al. Microstructure and mechanical properties of 316L-IN625 gradient material prepared via laser deposition[J]. Chinese Journal of Lasers, 49, 0802007(2022).

[5] Smudde C M, San Marchi C W, Hill M R et al. Effects of residual stress on orientation dependent fatigue crack growth rates in additively manufactured stainless steel[J]. International Journal of Fatigue, 169, 107489(2023).

[6] Smudde C M, D'Elia C R, San Marchi C W et al. The influence of residual stress on fatigue crack growth rates of additively manufactured Type 304L stainless steel[J]. International Journal of Fatigue, 162, 106954(2022).

[7] Keller S, Klusemann B. Application of stress intensity factor superposition in residual stress fields considering crack closure[J]. Engineering Fracture Mechanics, 243, 107415(2021).

[8] Nong X D. Investigation of microstructure and mechanical properties of 15-5PH stainless steel produced by additive manufacturing[D], 68-78(2021).

[9] Syed A K, Ahmad B, Guo H et al. An experimental study of residual stress and direction-dependence of fatigue crack growth behaviour in as-built and stress-relieved selective-laser-melted Ti6Al4V[J]. Materials Science and Engineering: A, 755, 246-257(2019).

[10] Pegues J W, Roach M D, Shamsaei N. Effects of postprocess thermal treatments on static and cyclic deformation behavior of additively manufactured austenitic stainless steel[J]. JOM, 72, 1355-1365(2020).

[11] Shubert M, Pandheeradi M. An Abaqus extension for 3-D welding simulations[J]. Materials Science Forum, 768/769, 690-696(2013).

[12] Cao X K, Luo X P, Duan C H. Research on fast distortion prediction of industrial-scale parts fabricated by additive manufacturing[J]. Applied Laser, 41, 575-582(2021).

[13] Chen H, Xue H, Sun J W et al. SCC crack propagation characteristics under residual stress field based on XFEM[J]. Hot Working Technology, 46, 162-166(2017).

[14] Zhang H, Dai D H, Shi X Y et al. Thermal behavior of 316L/Inconel 718 multi-material molten pool deposited by laser direct energy[J]. Chinese Journal of Lasers, 49, 1402208(2022).

[15] Jacob A, Mehmanparast A, D’Urzo R et al. Experimental and numerical investigation of residual stress effects on fatigue crack growth behaviour of S355 steel weldments[J]. International Journal of Fatigue, 128, 105196(2019).

[16] Mishurova T, Artzt K, Haubrich J et al. New aspects about the search for the most relevant parameters optimizing SLM materials[J]. Additive Manufacturing, 25, 325-334(2019).

[17] Fan P, Pan J T, Ge Y M et al. Finite element analysis of residual stress in TC4/TC11 titanium alloy gradient material produced by laser additive manufacturing[J]. Chinese Journal of Lasers, 48, 1802012(2021).

[18] Sun L Y, Liu C C, Jiang M S et al. Fatigue crack prediction method for aluminum alloy based on fiber Bragg grating array[J]. Chinese Journal of Lasers, 48, 1306003(2021).

[19] Oh G. Effective stress and fatigue life prediction with mean stress correction models on a ferritic stainless steel sheet[J]. International Journal of Fatigue, 157, 106707(2022).