Ductility coaxing during creep and tensile deformation of high temperature alloys

References

• Monkman FC, Grant NJ. An empirical relationship between rupture life and minimum creep rate in creep-rupture tests. Proc Am Soc Test Mater. 1956;56:593–620.
   Google Scholar
• Skelton RP, Webster GA. Axial and diametral cyclic stress-strain response in plain and circumferentially notched cylindrical bars at 550°C. J Strain Anal. 2006;41(4):265–286.
   Web of Science ®Google Scholar
• NIMS Structural Materials Data Sheets, Creep data Sheet No. 48A. Data sheets on the elevated temperature properties of 9Cr-0.5Mo-1.8W-V-Nb steel tubes for boilers and heat exchangers. NRIM, Japan 2016.
   Google Scholar
• Skelton RP. Deformation, diffusion and ductility during creep – continuous void nucleation and creep-fatigue damage. Mater High Temp. 2017;34(2):121–133.
   Google Scholar
• Ewald J, Kern T-U. The role of the material parameter uniform elongation. 4th International ECCC Conference. September 2017, Düsseldorf, Germany.
   Google Scholar
• Holdsworth SR. Creep-ductility of high temperature steels: a review. Metals. 2019;9(3):342–355.
   Web of Science ®Google Scholar
• Abe F. Creep deformation behaviour and its effect on creep life and rupture ductility of W-Mo balanced 9Cr steels. Mater High Temp. 2020;37(3):165–177.
   Google Scholar
• Abe F. Creep rupture ductility of Gr.91 and Gr.92 at 550°C to 700°C. Mater High Temp. 2020;37(4):243–255.
   Google Scholar
• Abe F. Influence of chemical compositions and creep test conditions on UK R5 creep ductility parameter lambda of W-Mo-balanced 9Cr steel. Mater High Temp. 2020;37(5):309–320.
   Google Scholar
• Parker JD. Creep ductility considerations for high energy components manufactured from creep strength enhanced steels. Mater High Temp. 2017;34(2):109–120.
   Google Scholar
• Ancelet O, Matheron P. Development of a new measurement system for tensile testing. In: Proc ASME pressure vessels and piping division. Vols. PVP2010-25667. 2010. p. 1–9. ASME: Washington.
   Google Scholar
• Lim R, Sauzay M, Dalle F, et al. Modelling of necking during creep of grade 91 steel. Fracture of materials and structures. In: Klingbeil D, Vormwald M, Eulitz KG, eds. Dresden Germany: ECF18 Aug. 2010, (DVM 8 2010–2017. Deutscher Verband für Materialforschung.
   Google Scholar
• Lim R. Numerical and experimental study of creep of Grade 91 steel at high temperature. PhD thesis, École Nationale Supérieure des Mines de Paris. 2011.
   Google Scholar
• Giroux P–F. Experimental study and simulation of cyclic softening of tempered martensite ferritic steels. Materials PhD thesis, École Nationale Supérieure des Mines de Paris, 2011.
   Google Scholar
• ISO. 204 Metallic Materials – uniaxial creep testing in tension – method of test. Geneva: International Organisation for Standardisation; 2018.
   Google Scholar
• ISO. 6892 Metallic materials- Tensile testing Part 2: method of test at elevated temperature. Geneva: International Organisation for Standardisation; 2018.
   Google Scholar
• Conway JB, Stentz RH, Berling JT, et al. Fatigue, tensile and relaxation behaviour of stainless steels. Ohio: US Atomic Energy Commission; 1981. p. 151ff.
   Google Scholar
• Garofalo F, Richmond O, Domis WF. Design of apparatus for constant stress or constant load creep tests. J Basic Eng. 1962;84(2):287–293.
   Google Scholar
• Loveday MS, King BL. Uniaxial testing apparatus and testpieces. In: Loveday MS, Day MF, Dyson BF, editors. Meaurement of high temperature mechanical properties of materials. London: HMSO; 1982. p. 128–157.
   Google Scholar
• Clay BD, Evans HE. The computation of constant-load creep curves. Nucl Eng Design. 1976;39(2–3):289–292.
   Web of Science ®Google Scholar
• Aktaa J, Schinke B. Creep lifetime under constant load and constant stress: theory and experiment. J Test Eval. 1996;24(4):212–222.
   Web of Science ®Google Scholar
• Parker JD, Siefert JA. The creep and fracture behaviour of tempered martensitic steels. Mater High Temp. 2018;35(6):491–503.
   Google Scholar
• Parker JD. Life assessment of power plant components operating in the creep range. In: 3rd International conference on creep fracture of engineering materials and structures. Inst Metals, London, 1987, pp. 915–927.
   Google Scholar
• Bueno LO, Sobrinho JFR. Correlation between creep and hot tensile behaviour for 2.25Cr-1Mo steel from 500°C to 700°C Part 1: an assessment according to usual relations involving stress, temperature, strain rate and rupture time. Revisita Materia. 2012;17(3):1098–1108
   Google Scholar
• Skelton RP. Effect of strain rate on the high strain fatigue properties of a 20%Cr/25%Ni/Nb stabilised stainless steel. Mater Sci Eng. 1973;11(4):195–202.
   Google Scholar
• Hales R, Holdsworth SR, O’Donnell MP, et al. A code of practice for the determination of cyclic stress-strain data. Mater High Temp. 2002;19(4):165–185.
   Google Scholar
• Skelton RP. Bauschinger yield in the range 400-1025°C during cyclic deformation of high temperature alloys. Mater High Temp. 2013;30(4):241–260.
   Google Scholar
• Venard JT, Weir JR. In-reactor stress-rupture properties of a 20Cr-25Ni columbium-stabilized steel. In: Weber CE, editor. Flow and fracture of metals and alloys in nuclear environments. Philadelphia: Amer Soc Test Mater; 1965. p. 269–282.
   Google Scholar
• Roberts AC, Evans HE. Effects of titanium and silicon additions on creep behaviour of TiN-dispersion-strenghthened 20%Cr25%Ni austenitic steel. In: J. Barford, editor. Mechanical behaviour and nuclear applications of stainless steel at elevated temperatures, Book 280. London: The Metals Society; 1982. p. 51–57.
   Google Scholar
• McLaughlin IR. Temperature dependence of steady-state creep in 20%Cr25%Ni/Nb stabilized stainless steel. In: Creep strength in steel and high temperature alloys. London: The Metals Society; 1972. p. 86–90.
   Google Scholar
• Brear JM, Jarvis P. Living with creep damage outside the creep range. VTT Symposium 246/247: Life management and maintenance for power plants. Energy Materials. 2007;2:109–116. Helsinki-Stockholm.
   Google Scholar
• Alexander JM. Strength of materials, Vol. 1: fundamentals. Chichester: Ellis Horwood; 1981. p. 35 ff.
   Google Scholar
• Ramberg W, Osgood WR. Description of stress-strain curves by three parameters. Tech. Note No. 902. NACA; 1943. Washington.
   Google Scholar
• Skelton RP, Wee ST, Webster GA. Cyclic stress-strain behaviour of circumferentially notched cylindrical bars at high temperature. Mater High Temp. 2001;18(3):139–152.
   Google Scholar
• Dean DW, Editor. Assessment procedure for the high temperature response of structures. Issue 3, Revision 002. Barnwood UK: EDF Nuclear Generation Ltd.; 2014.
   Google Scholar
• Takahashi Y. Study on creep-fatigue evaluation procedures for high-chromium steels—Part I: test results and life prediction based on measured stress relaxation. Int J Press Vessels Pip. 2008;85(6):406–422.
   Web of Science ®Google Scholar
• Takahashi Y. Study on creep-fatigue evaluation procedures for high chromium steels—Part II: sensitivity to calculated deformation. Int J Press Vessels Pip. 2008;85(6):423–440.
   Web of Science ®Google Scholar
• Mayer K-H, Kern TU, Scholz A, et al. Influence of melting methods on the creep and ductility behaviour of boiler and turbine steels. 4th Int ECCC Conference, September 2017, Düsseldorf, Germany.
   Google Scholar
• Woodford DA. Creep damage and the remaining life concept. J Eng Mater Technol. 1979;101(4):311–316.
   Web of Science ®Google Scholar
• Bueno L-O. On the equivalence between hot tensile data and creep data. In: Proc. 61st Int. Congress of the ABM. Rio de Janeiro; 2006. 2245–2258. (Researchgate Publication 328968826).
   Google Scholar
• Xue J, Zhou C, Lu X, et al. Plastic limit load of Grade 91 steel pipe containing local wall thinning defect at high temperature. Eng Fail Anal. 2015(57):171–187.
   Google Scholar
• Begum S, Karim ANM, Zamani SM, et al. Wall thinning and creep damage analysis in boiler tube and optimization of operating conditions. J Mechatron. 2013;1:1–6.
   Google Scholar
• Bethmont M. Damage and lifetime of fossil power plant components. Mater High Temp. 1998;15(3–4):231–238.
   Google Scholar
• Webster GA, Holdsworth SR, Loveday MS, et al. A code of practice for conducting notched bar creep tests and for interpreting the data. Fatigue Fract Eng Mater Struct. 2004;27(4):319–342.
   Web of Science ®Google Scholar
• Kerr DC, Nikbin KM, Webster GA, et al. Creep strain determinations across the root of a notch. In: Ziebs J, editors. Local strain and temperature measurements in non-uniform fields at elevated temperatures. Cambridge: Woodhead Publishing Ltd.; 1999. p. 263–273.
   Google Scholar
• Lupinc V. Creep: introduction and phenomenology. In: bressrs J. editor. Creep and fracture in high temperature alloys. London: Applied Science Publishers Ltd.; 1981. p. 7–40.
   Google Scholar
• Osgerby S, Dyson BF. Constant strain-rate testing: prediction of stress-strain curves from constant-load creep data. In: Wilshire B, Evans RW, editors. Proc. 5th Conf. Creep and Fracture of Engineering Materials, and Structures. London: Swansea, Inst Metals; 1993. p. 53–61.
   Google Scholar