Creep-fatigue life prediction and interaction diagram in nickel-based GH4169 superalloy at 650 °C based on cycle-by-cycle concept
Source abstract
Abstract
Abstract The purposes of the present work are to extend the previous energy-based model on the basis of strain energy density exhaustion and to estimate creep-fatigue endurance and accumulated damage using cycle-by-cycle concept in tension-hold-only tests. The nickel-based GH4169 superalloy at 650 °C is employed to fit material constants and to verify the prediction capacity of the present model under various loading conditions. The present model exhibits a higher accuracy than some existing models, especially for certain loading waveforms, where the half-life cycle cannot be considered as a representative one. In addition, the trajectory for time-dependent accumulated damage during the operating period can be monitored in the creep-fatigue interaction diagram.
Source: openaire · Quality: candidate unverified · Source record ↗
Research context
OpenAlex topics: High Temperature Alloys and Creep · Fatigue and fracture mechanics · Probabilistic and Robust Engineering Design
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
References (46)
Show source-provided references
1. A unified criterion for fatigue-creep life prediction of high temperature components
2. Creep–fatigue interaction in two gas turbine Ni based superalloys subjected to service-like conditions10.1179/0960340914Z.00000000052 ↗
3. Creep – fatigue damage accumulation and interaction diagram based on metallographic interpretation of mechanisms10.3184/096034007X300494 ↗
4. Quantification of creep cavitation damage around a crack in a stainless steel pressure vessel10.1016/j.actamat.2003.08.022 ↗
5. Manson · 2009
6. Low cycle fatigue—dwell effects and damage mechanisms10.1016/S0142-1123(98)00056-5 ↗
7. A quantitative metallographic assessment of structural degradation of type 316 stainless steel during creep-fatigue10.1111/j.1460-2695.1980.tb01383.x ↗
8. François · 2012
9. Manson SS, Halford GR, Hirschberg MH. Creep-fatigue analysis by strain-range partitioning; 1971.
10. Coffin · 1969
11. A damage function and associated failure equations for predicting hold time and frequency effects in elevated temperature, low cycle fatigue10.1520/JTE10520J ↗
12. Effect of temperature variation on the long-time rupture strength of steels
13. A combined deformation map-ductility exhaustion approach to creep-fatigue analysis10.1016/0025-5416(81)90128-2 ↗
14. Study on creep-fatigue evaluation procedures for high-chromium steels-part I: test results and life prediction based on measured stress relaxation10.1016/j.ijpvp.2007.11.008 ↗
15. Study on creep-fatigue evaluation procedures for high chromium steels-part II: sensitivity to calculated deformation10.1016/j.ijpvp.2007.11.006 ↗
16. The prediction of creep damage in type 347 weld metal. Part I: the determination of material properties from creep and tensile tests10.1016/j.ijpvp.2004.09.003 ↗
17. The prediction of creep damage in Type 347 weld metal: part II creep fatigue tests10.1016/j.ijpvp.2004.09.004 ↗
18. Systematic evaluation of creep-fatigue life prediction methods for various alloys
19. Effect of cyclic loading on subsequent creep behaviour and its implications in creep-fatigue life assessment10.1179/0960340915Z.000000000120 ↗
20. The energy density exhaustion method for assessing the creep-fatigue lives of specimens and components10.3184/096034013X13757890932442 ↗
21. A strain energy density method for the prediction of creep-fatigue damage in high temperature components10.1016/j.msea.2009.11.028 ↗
22. Shah · 2003
23. Creep fatigue models of solder joints: a critical review10.1016/j.microrel.2016.01.013 ↗
24. Comparative assessment of dissipated energy and other fatigue criteria10.1016/j.ijfatigue.2007.01.007 ↗
25. A generalized energy-based fatigue–creep damage parameter for life prediction of turbine disk alloys10.1016/j.engfracmech.2012.04.021 ↗
26. Effect of different processing technologies and heat treatments on the microstructure and creep behavior of GH4169 superalloy10.1016/j.msea.2013.06.021 ↗
27. Small fatigue crack initiation and growth mechanisms of nickel-based superalloy GH4169 at 650°C in air10.1016/j.engfracmech.2015.12.014 ↗
28. Shahani V, Popp HG. Evaluation of cyclic behavior of aircraft turbine disk alloys; 1978.
29. High-temperature time-dependent fatigue behaviour of several engineering structural alloys
30. A modified strain energy density exhaustion model for creep–fatigue life prediction10.1016/j.ijfatigue.2016.03.005 ↗
31. ASME E 2714-13. Standard test method for creep-fatigue testing. American Society of Testing and Materials; 2013.
32. ASME and Boiler Pressure Vessel Code Section XI, Division 1, Code Case N-47; 1996.
33. Afcen. Design and construction rules for mechanical components of FBR nuclear islands. RCC-MR, Appendix A; 2002. p. 16.
34. R5 procedures for assessing structural integrity of components under creep and creep-fatigue conditions10.1179/174328006X79463 ↗
35. Manson SS. Behavior of materials under conditions of thermal stress; 1954.
36. Coffin · 1953
37. Stress relaxation in copper and alpha-brasses at low temperatures
38. Normalized creep-fatigue life prediction model based on the energy dissipation during hold time10.1016/j.msea.2007.01.019 ↗
39. A Model of nonlinear fatigue-creep (dwell) interactions10.1115/1.2982152 ↗
40. Næss · 1985
41. Energy criterion for high temperature low cycle fatigue failure10.1179/mst.1991.7.5.427 ↗
42. Effects of prior stress relaxation on the prediction of creep life using time and strain based methods10.1115/1.4023726 ↗
43. Fatigue crack propagation behavior of Ni-based superalloys after overloading at elevated temperatures10.1016/j.pnsc.2016.03.007 ↗
44. Creep-fatigue interactions (crack initiation)10.1016/B0-08-043749-4/05112-0 ↗
45. Constitutive equations for cyclic plasticity and cyclic viscoplasticity10.1016/0749-6419(89)90015-6 ↗
46. Mean stress effect correction in strain energy-based fatigue life prediction of metals