Abstract
The master curve methodology has been used for an evaluation of strain rate effects on transition behaviour of cast ferritic CrMo steel. The physical aspects of strain rate effect on reference temperature has been analysed as a base for the prediction of this dependence. Statistical aspects of the strain rate effects on the reference temperature and the shift of master curve on temperature axis has been discussed showing capability of the method for the prediction of strain rate susceptibility of steel fracture behaviour
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References
Wallin K., (1993), Macroscopic Nature of Brittle Fracture, J. de Physique, Colloq 7, Suppl J. de Physique II, Vol. 3, pp 575–583.
Wallin, K. (1995) Validity of Small Specimen Fracture Toughness Estimates Neglecting Constraint Correction, Constraint Effect in Fracture, ASTM STP 1244, Eds. M. Kirk, Ad Bakker, pp. 519–537.
ASTM E 1921-97, Standard Test Method for Determination of Reference Temperature, To, for Ferritic Steels in the Transition Range.
Joyce, J.A, Tregoning, R.L. (2001) Development of the TO reference temperature from precracked Charpy specimens, Engineering Fracture Mechanics 68, pp. 861–894.
Wallin K., Planman, T., Valo, M., Rintamaa R. (2001) Applicability of miniature size bend specimens to determine the master curve reference temperature TO, Engineering Fracture Mechanics 68, 1265–1296.
Kirk M. T., Natishan M. E., Wagenhofer M. (2001) Microstructural Limits of Applicability of the Master Curve, ASTM STP 1406, pp. 1–16.
Natishan, M., Rosinski S., Wagenhofer, M. (2001) Implementation of a Physics-based, predictive model for fracture toughness transition behaviour, IAEA Specialists Meeting on Master Curve Testing and Results Application, Prague, Paper No.4..
Holzmann, M., Dlouhý, I., Brumovsky, M. (1999) Measurement of fracture toughness transition behaviour Cr-Ni-Mo-V pressure vessel steel using pre-cracked Charpy specimens, Inter, J. Pressure Vessel and Piping, 1999, 76, pp. 591–598.
Dlouhy, I., Lenkey, G., Holzmann, M.: Master Curve Evaluation at Static and Dynamic Conditions of Loading for Casts Ferritic Steel, SMIRT 16 — 16th International Conference on Structural Mechanics in Reactor Technology, Washington DC, August 12-17, 2001, Paper #G10/3.
Wallin, K. (1993) Irradiation damage effects on the fracture toughness transition curve shape for reactor pressure vessel steels, International Journal of Pressure Vessel and Piping, 55, pp. 61–79.
Kirk, (2001) Shift in toughness transition temperature due to irradiation: TO vs. T41J, a comparison and rationalisation of differences, IAEA Specialists Meeting on Master Curve Testing and Results Application, Prague, Paper No.23.
Wallin, K., Planman, T. (2001) Effect of strain rate on the fracture toughness of ferritic steels, IAEA Specialists meeting on Master Curve Testing and Results Application, Prague, pp.
Viehrig, H.W., Boehmert, J., Dzugan, J. (2001) Use of instrumented Charpy impact tests for master curve determination, IAEA Specialists Meeting on Master Curve Testing and Results Application, Prague, pp.
Joyce J. A., (1998) On the Utilization of High Rate Charpy Test Results and the Master Curve to Obtain Accurate Lower Bound Toughness Predictions, Small specimens test techniques, ASTM STP 1329, W.R. Corwin, S.T: Rosinski, and E. Van Walle eds., pp. 3–14.
I. Dlouhy, G. B. Lenkey, M. Holzmann (2002) Master curve validity for dynamic fracture toughness characteristics, The Transferability of Fracture Mechanical Characteristics, Kluwer, paper in this Volume.
Yoon K.K., Van Der Sluys W.A., Hour K. (2000) Effect of Loading Rate on Fracture Toughness of Pressure Vessel Steels”, J. Pressure Vessel Technology, pp. 125–129.
Roberts W.: (1984) Dynamic changes that occur during hot working and their significance regarding microstructural development and hot workability. In: Krauss G. (ed.): Deforming, Processing, and Structure, Metals Park (Ohio, USA), American Society for Metals.
Kratochvíl P., Lukáč P., SpruSil B.: Introduction to Metal Physics I (in Czech), SNTL/Alfa 1984.
Holzmann M. and Dlouhy I. (2002) The effect of Loading Rate on Reference Temperature and Master Curve, manuscript of paper under preparation for Int. Journal of Pressure Vessel and Piping.
CSN EN ISO 12737 — Metallic Materials — Determination of Plane strain Fracture Toughness, 2001.
ASTM E 1820-99a — Standard Test Method for Measurement of Fracture Toughness, 1999.
Holzmann, M., Jurâšek L, Dlouhý, I., 920020 Master Curve Metodology and Data Transfer from Small on Standard Specimen,, this volume.
Holzmann, M. (1997) Sbornik Cesko-Slovenské mezinârodni konf. “Ocelové konstrukce a mosty ′97”, květen 1997, Eds. J. Melcher, J. Skyva, vyd. CENTA, Ltd, Brno, pp.. 4-21-4.30 (in Czech).
Eurocode 3 (April 1996) Design of Steel Structures, Part 2, Steel Bridges, ENV 1993 — 2Draft.
Barsom, J. M. and Rolfe, T. S. (1999) Fracture and Fracture Control in Structures, ASTM, PA 19428-2959.
Wallin, K., Validity of Small Specimen Fracture Toughness Estimate Neglecting Constrain, ASTM STP 1244.
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Kohout, J., Jurášek, V., Holzmann, M., Dlouhý, I. (2002). Evaluation of Strain Rate Effects on Transition Behaviour Applying the Master Curve Methodology. In: Dlouhý, I. (eds) Transferability of Fracture Mechanical Characteristics. NATO Science Series, vol 78. Springer, Dordrecht. https://doi.org/10.1007/978-94-010-0608-8_18
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DOI: https://doi.org/10.1007/978-94-010-0608-8_18
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