Calculation of stress relaxation properties for Type 422 stainless steel

American Society of Mechanical Engineers, Pressure Vessels and Piping Division (Publication) PVP

Volumn 388, Issue , 1999, Pages 395-403

  Ellis, F V ^a   Tordonato, Sebastian ^b  

^a Tordonato Energy Consultants Incorporated   (United States)

^b Tordonato Energy Consultants Inc   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

BOLTED JOINTS; CORRELATION METHODS; CREEP; MATHEMATICAL MODELS; SERVICE LIFE; STAINLESS STEEL; STRAIN HARDENING; STRESS RELAXATION; STUDS (FASTENERS); THERMAL EFFECTS;

POWER LAW; STAINLESS STEEL 422; TIME-TEMPERATURE PARAMETER METHODS; UNIAXIAL STRESS RELAXATION;

PRESSURE VESSELS;

EID: 0033356209     PISSN: 0277027X     EISSN: None     Source Type: Conference Proceeding    
DOI: None     Document Type: Conference Paper

References (20)

1. Aoto, K., Koakutsu, T., Wada, Y. and Hirano, M., 1986, "The Prediction of The Stress Relaxation Behavior of The High-Temperature Structural Materials by Creep-Strain Equations," Proceedings, International Conference on Creep, Tokyo, pp 495-500.
2. Aplin, P. F. and Brear, J. M., 1995, "A Mechanistic Basis for Long-Term Creep Life Prediction of High Temperature Bolting Steel," Performance of Bolting Materials in High Temperature Plant Applications, The Institute of Materials, London, pp. 356-361.
3. Bolton, J., 1995, "Design Considerations for High Temperature Bolting," Performance of Bolting Materials in High Temperature Plant Applications, The Institute of Materials, London, pp. 1-14.
4. Branch, G. D., Draper, J. H. M., Hodges, N. W., Marriott, J. B., Murphy, M. C., Smith, A. I., and Toft, L. H., 1973, "High Temperature Bolts for Steam Power Plant," International Conference on Creep and Fatigue in Elevated Temperature Applications, Institute of Mechanical Engineers, London, UK, pp 192.1-192.9.
5. De Witte, M. and Stubbe, J., 1985, "Failure Mechanisms and Practical Approach for the Following Up of High Temperature Turbine Bolts," Proceedings of International Conference on Remanent Life: Assessment and Extension, EUROTEST, Brussels.
6. De Witte, M., 1989, "Power Plant Life Estimation and Extension: The Belgian Experience From the Users' Point of View," International Journal of Pressure Vessels and Piping, Vol. 89, pp. 41-55.
7. Ellis, F. V., Tordonato, S. and Viswanathan, R., 1998, "Prediction of Cyclic Stress Relaxation for 1CrMoVTiB," Fatigue, Fracture, and High Temperature Design Methods in Pressure Vessels and Piping, ASME, NY, NY, pp. 175-182.
8. Ellis, F. V., Sielski, D. R. and Viswanathan, R., 1998, "Guidelines for Life Assessment of High Temperature Bolting," Fitness-for-Service Evaluations in Petroleum and Fossil Power Plants, ASME, NY, NY, pp. 119-127.
9. Ellis, F. V., Roberts, B. W., Steakley, M. F. and Hilton, S. O., 1992, "Application of Creep Swelling Data In Life Assessment of High Temperature Piping," Creep: Characterization, Damage and Life Assessment, ASM International, Materials Park, OH, pp. 481-489.
10. Holdsworth, S. R. and Strang, A., 1995, "The Performance of High Purity 1CrMoVTiB Steel in Full Size Bolt Tests," Performance of Bolting Materials in High Temperature Plant Applications, The Institute of Materials, London, pp. 84-96.
11. Kitade, S., Setoguchi, K., Yamauchi, M. and Igari, T., 1989, "Cyclic Stress-Strain Behavior of Modified 9Cr-1Mo Steel Under Creep-Fatigue Interaction," Collection and Uses for Relaxation Data in Design, ASME, NY, NY, pp. 35-41.
12. Konig, H. and Mayer, K. H., 1995, "Testing of the Relaxation Strength of Bolted Joints," Performance of Bolting Materials in High Temperature Plant Applications, The Institute of Materials, London, pp. 54-69.
13. Laflen, J. H. and Jaske, C. E., 1979, "Cyclic Relaxation Response Under Creep-Fatigue Conditions," Stress Relaxation Testing, ASTM STP 676, ASTM, Philadelphia, PA, pp. 182-206.
14. Mayer, K. H. and Keienburg, K. H., 1980, "Operating Experience and Life Span of Heat Resistant Bolted Joints in Steam Turbines of Fossil Fired Power Stations," International Conference on Engineering Aspects of Creep, Sheffield, UK, Paper C 221/80.
15. NRIM, 1997, "Data Sheets on The Elevated-Temperature Stress Relaxation Properties of 1Cr-0.5Mo-0.25V Steel and 12Cr-1Mo-1W-0.25V Steel Bolting Materials for High Temperature Service," NRIM Creep Data Sheet No. 44, National Research Institute for Metals, Tokyo, Japan.
16. NRIM, 1979, "Data Sheets on The Elevated-Temperature Properties of 12Cr-1Mo-1W-0.3V Stainless Steel Bars for Turbine Blades (SUH 616-B)," NRIM Creep Data Sheet No. 10A, National Research Institute for Metals, Tokyo, Japan.
17. Smith, G. V., 1980, Evaluations of the Elevated Temperature Tensile and Creep Rupture Properties of 12 to 27 Percent Chromium Steels, ASTM DS 59, ASTM, Philadelphia, PA.
18. Othman, A. M. and Hayhurst, D. R., 1990, "Multi-axial Creep Rupture of a Model Structure Using a Two Parameter Material Model," International Journal of Mechanical Science, Vol. 1, pp. 35-48.
19. Tanaka, C. and Ohba, T., 1984, "Analysis of Reloading Stress Relaxation Behavior with Specified Reloading Time Intervals for High Temperature Bolting Steels," Transactions of National Research Institute for Metals, Vol. 26, No. 1, Tokyo, Japan, pp. 1-20.
20. Yamashita, M and Wada, Y., 1989, "The Stress Relaxation Behavior of SUS 304 Stainless Steel," Collection and Uses for Relaxation Data in Design, ASME, NY, NY, pp. 15-19.