Stability, validity, and sensitivity to input parameters of the slip-dissolution model for stress-corrosion cracking

Corrosion Science

Volumn 49, Issue 10, 2007, Pages 4040-4050

  Newman, Roger C ^a   Healey, Christopher ^a  

^a UNIVERSITY OF TORONTO   (Canada)

Author keywords

A. Stainless steel; B. Modelling studies; C. Stress corrosion

Indexed keywords

DISSOLUTION; MATHEMATICAL MODELS; SENSITIVITY ANALYSIS; STAINLESS STEEL; STRAIN HARDENING; STRESS ANALYSIS;

MECHANICAL PARAMETERS; STRAIN DISTRIBUTION;

STRESS CORROSION CRACKING;

DISSOLUTION; MATHEMATICAL MODELS; SENSITIVITY ANALYSIS; STAINLESS STEEL; STRAIN HARDENING; STRESS ANALYSIS; STRESS CORROSION CRACKING;

EID: 34548477659     PISSN: 0010938X     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.corsci.2007.05.001     Document Type: Article

References (14)

1. Staehle R.W. Predictions and experimental verification of the slip dissolution model for stress corrosion cracking of low strength alloys. In: Staehle R.W., Hochmann J., McCright R.D., and Slater J.E. (Eds). Stress-Corrosion Cracking and Hydrogen Embrittlement of Iron-Base Alloys (1977), NACE, Houston 180-205
2. Vermilyea D.A. A film rupture model for stress corrosion cracking. In: Staehle R.W., Hochmann J., McCright R.D., and Slater J.E. (Eds). Stress-Corrosion Cracking and Hydrogen Embrittlement of Iron-Base Alloys (1977), NACE, Houston 208-217
3. Scully J.C. Stress corrosion crack propagation - a constant charge criterion. Corros. Sci. 15 (1975) 207-224
4. Ford F.P., and Andresen P. Corrosion in nuclear systems: environmentally assisted cracking in light water reactors. In: Marcus P. (Ed). Corrosion Mechanisms in Theory and Practice (2002), Marcel Dekker, New York 605-642
5. Lu Z., and Shoji T. Unified interpretation of crack growth rates of Ni-base alloys in LWR environments. J. Press. Vess. Technol. (Trans. ASME) 128 (2006) 318-327
6. Sieradzki K. Atomistic and micromechanical modeling aspects of environment-induced cracking of metals. In: Gangloff R.P., and Ives M.B. (Eds). Environment-Induced Cracking of Metals (1990), NACE, Houston 125-137
7. M.M. Hall Jr., Crack tip strain rate equation with applications to hydrogen embrittlement and active path dissolution models of stress corrosion cracking, in: S. Shipilov, R.H. Jones, J. Olive, R. Rebak (Eds.), Environment-Induced Cracking of Materials, Elsevier, in press.
8. Hoar T.P., and West J.M. Mechano-chemical anodic dissolution of austenitic stainless steel in hot chloride solution. Proc. R. Soc. Lond. A 268 (1962) 304-315
9. Y.C. Gao and K.C. Kwang, Elastic-plastic fields in steady crack growth in a strain-hardening material, in: Proc. Fifth International Conference on Fracture, Cannes, March-April 1981, vol. 2, pp. 669-682 (1981).
10. Drugan W.J., Rice J.R., and Sham T.-L. Asymptotic analysis of growing plane-strain tensile cracks in elastic-ideally plastic solids. J. Mech. Phys. Solids 30 (1982) 447-473 and references therein
11. Jivkov A.P., C Stevens N.P., and Marrow T.J. A 3 dimensional computational model for intergranular cracking. Comp. Mater. Sci. 38 (2006) 442-453
12. Gerberich W.W., Davidson D.L., and Kaczorowski M. Experimental and theoretical strain distributions for stationary and growing cracks. J. Mech. Phys. Solids 38 (1990) 87-113
13. Bruemmer S.M., and Thomas L.E. High-resolution analytical electron microscopy characterization of corrosion and cracking at buried interfaces. Surf. Interface Anal. 31 (2001) 571-581
14. Xia Z.C., and Hutchinson J.W. Crack tip fields in strain gradient plasticity. J. Mech. Phys. Solids 44 (1996) 1621-1648