Factors influencing creep model equation selection

Proceedings - ECCC Creep Conference: Creep and Fracture in High Temperature Components - Design and Life Assessment Issues

Volumn 2005, Issue , 2005, Pages 380-393

  Holdsworth, S R ^a   Askins, M ^b   Baker, A ^c   Gariboldi, E ^d   Holmstrom S ^e   Klenk, A ^f   Ringel, M ^f   Merckling, G ^g   Sandstrom, R ^h   Schwienheer, M ⁱ   Spigarelli, S ^j  

^a Alstom UK   (United Kingdom)

^b RWE POWER AG   (Germany)

^c BRITISH ENERGY GENERATION LTD   (United Kingdom)

^d POLITECNICO DI MILANO   (Italy)

^e VTT TECHNICAL RESEARCH CENTRE OF FINLAND   (Finland)

^f UNIVERSITY OF STUTTGART   (Germany)

^g ISB   (Italy)

^h SWEREA KIMAB   (Sweden)

ⁱ IfW   (Germany)

^j UNIVERSITÀ POLITECNICA DELLE MARCHE   (Italy)

more..

Author keywords

[No Author keywords available]

Indexed keywords

CREEP TESTING; DEFORMATION; MATHEMATICAL MODELS; STRAIN MEASUREMENT;

CAST COLLATIONS; CREEP CURVES; CREEP MODEL EQUATION; CREEP STRAIN;

STEEL;

EID: 33749318325     PISSN: None     EISSN: None     Source Type: Conference Proceeding    
DOI: None     Document Type: Conference Paper

References (34)

1. ECCC Recommendations. Creep data validation and assessment procedures, eds. Holdsworth S R et. al., ECCC. publ, a) Vol.1: Overview.
2. Creep Data Validation and Assessment Procedures, b) Vol.2: Terms and terminology
3. Creep Data Validation and Assessment Procedures, c) Vol.3: Data acceptability criteria, Data generation
4. Creep Data Validation and Assessment Procedures, d) Vol. 4: Data exchange and collation
5. Creep Data Validation and Assessment Procedures, e) Vol.5: Data assessment
6. Creep Data Validation and Assessment Procedures, f) Vol.6: Characterisation of microstructure and physical damage for remaining life assessment
7. Creep Data Validation and Assessment Procedures, g) Vol.7: Data assessment - creep crack initiation
8. Creep Data Validation and Assessment Procedures, h) Vol.8: Data assessment - multiaxial
9. Creep Data Validation and Assessment Procedures, i) Vol.9: Component assessment
10. Holdsworth S R & Merckling G. ECCC developments in the assessment of creep-rupture data. Proc. 6th Intern. Charles Parsons Conf. on Engineering Issues in Turbine Machinery, Power Plant & Renewables, Trinity College, Dublin, 16-18 Sept, 2003.
11. Holdsworth S R. Developments in the assessment of creep strain and ductility data. Materials at High Temperatures 2004;21(1):125-132.
12. Evans R W & Wilshire B. Creep of Metals and Alloys. Inst. Metals, 1985
13. Jones D I G & Bagley D L. A renewal theory of high temperature creep and inelasticity. Proc. I.Mech.E conf. on Creep & Fracture: Design & Life Assessment at High Temperature, 15-17/4/96, MEP, 1996:81-90.
14. Granacher J, Möhlig H, Schwienheer M & Berger C. Creep equation for high temperature material. Proc. 7th Intern. Conf. on Creep & Fatigue at Elevated Temperatures (Creep 7), 3-8/6/01, NRIM, Tsukuba, 2001:609-616.
15. Li J C M. A dislocation mechanism for transient creep. Acta Metall. 1963:11;1269.
16. Akulov N S. On dislocation kinetics. Acta Metall. 1964:(12);1195.
17. Baker A J & O'Donnell M P. R5 high temperature structural integrity assessment of a cracked dissimilar metal weld vessel test. Proc. 2nd Intern. Conf. on Integrity of High Temperature Welds, 10-12/11/03, London, 2003.
18. Bolton J L. Design considerations for high temperature bolting. Proc. Conf. on Performance of Bolting Materials in High Temperature Plant Applications, York, 16-17/6/94, Strang A. ed., 1994:1-14.
19. Grounes M. A reaction rate treatment of the extrapolation methods in creep testing. J. Basic Eng., Series D, Trans ASME 1969.
20. Manson S S & Haferd A M. A linear time-temperature relation for extrapolation of creep and stress rupture data. NASA TN 2890 1953.
21. Holmström S & Auerkari, P. Prediction of creep strain and creep strength of ferritic steels for power plant applications. Proc. Baltica conf. on Life Management and Maintenance for Power Plants, VTT Symposium 234, 8-10/6/2004, Espoo.
22. Prager M. Development of the MPC Omega method for life assessment in the creep range. ASME J. Pressure Vessel Technology, 1995:(May);95-103.
23. Merckling, G., 2002, 'Metodi di calcolo a confronto per la previsione dellulteriore esercibilità in regime di scorrimento viscoso', Proc. Conf. on Fitness for Service, Giornata di Studio CESI-CONCERT, Milan, 28/11/02.
24. Sandström, R. Extrapolation of creep strain data for pure copper. J.Test. & Eval. 1999:27;31-35
25. Graham A & Walles K F A. Relations between long and short time properties of commercial alloys. JISI 1955:193; 105.
26. Phillips F. The slow stretch in india rubber, glass and metal wire when subjected to a constant pull. Phil. Mag. 1905:9;513.
27. McVetty P G. Factors affecting the choice of working stresses for high temperature service. Trans ASME 1933:55;99.
28. Conway J B & Mullikin M J. An evaluation of various first stage creep equations. Proc. AIME conf., Detroit, Michegan 1962.
29. Norton F N. The Creep of Steel at High Temperature. McGraw-Hill, 1929.
30. Nadai A. The influence of time upon creep, The hyperbolic sine creep law. Stephen Timoshenko Anniversary Volume, New York: Macmillan, 1938.
31. McHenry D. A new aspect of creep in concrete and its application to design. Proc. ASTM, 1943:43;1069.
32. Kachanov L M. Izv. Akad. Navk. SSR, 1958:8;26.
33. Rabotnov Y N. Creep Problems in Structural Members. Amsterdam: North-Holland, 1969.
34. Sandström R & Kondyr A. A model for tertiary creep in Mo- and CrMo-steels. Proc. 3rd Int. conf. on Mechanical Behaviour of Materials, Cambridge, 1979.