Environment-Induced Cracking of Materials - 1st Edition - ISBN: 9780080446356, 9780080559445

Environment-Induced Cracking of Materials

1st Edition

Editors: Sergei Shipilov Russell Jones Jean-Marc Olive Raul Rebak
Hardcover ISBN: 9780080446356
eBook ISBN: 9780080559445
Imprint: Elsevier Science
Published Date: 16th November 2007
Page Count: 1000


This product is currently not available for sale.

Secure Checkout

Personal information is secured with SSL technology.

Free Shipping

Free global shipping
No minimum order.


Environmental assisted cracking of metals is an important topic related to many industries in lives. Although the problem with this type of corrosion has been known for many years, the debate on the effects and possible remedies available under different environmental conditions is ongoing and topical.
Previous volumes have tended to concentrate on single aspects and causes (e.g. stress corrosion fracture), while ignoring other mechnisms such as hydrogen embrittlement, corrosion fatigue and more modern concerns such as the near neutral SCC pipelines).

Key Features

  • Presents an up-to-date and comprehensive view of this industrially important topic
  • The organisers of this conference have chosen authors who cover a diverse range of topics


Conference attendees, university libraries, research and testing laboratories, companies specialising in corrosion control and prevention, and other corrosion experts and consultants

Table of Contents


Section 1. Modeling Environmental Attack

  1. Science based probability modeling and life cycle engineering and management (R.P. Wei and D.G. Harlow)
  2. A model to predict the evolution of pitting corrosion and the pit-to-crack transition incorporating statistically distributed input parameters (A. Turnbull, L.N. McCartney and S. Zhou)
  3. Revisiting the film-induced cleavage model of SCC (A. Barnes, N. Senior and R.C. Newman)
  4. Crack tip strain rate equation with applications to hydrogen embrittlement and active path dissolution models of stress corrosion cracking (M.M. Hall, Jr.)
  5. Grain boundary engineering for crack bridging: a new model for intergranular stress corrosion crack (IGSCC) propagation (D.L. Engelberg, T.J. Marrow, R.C. Newman and L. Babout)
  6. Crevice scaling laws to investigate local hydrogen uptake in rescaled model occluded sites (J.R. Scully, M.A. Switzer and J.S. Lee)
  7. Modelling of the effect of hydrogen ion reduction on the crevice corrosion of titanium (K.L. Heppner and R.W. Evitts)
  8. Transport effects in environment-induced cracking (A.I. Malkin)
  9. Will finite-element analysis find its way to the design against stress corrosion cracking? (M. Vankeerberghen)
  10. Numerical modelling of hydrogen-assisted cracking (E. Viyanit and Th. Boellinghaus)Section 2. Crack Growth Mechanisms
  11. Critical issues in hydrogen assisted cracking of structural alloys (R.P. Gangloff)
  12. Towards understanding the mechanisms and kinetics of environmentally assisted cracking (S.P. Lynch)
  13. Effects of hydrogen charging on surface slip band morphology of a type 316L stainless steel (M. Ménard, J.M. Olive, A.-M. Brass and I. Aubert)
  14. Hydrogen effects on the plasticity of nickel and binary nickel-chromium alloy (D. Delafosse, G. Girardin and X. Feaugeas)
  15. Hydrogen-assisted cracking of iron-based amorphus alloys: experimental and finite element observations (N. Eliaz, L. Banks-Sills, D. Ashkenazi and R. Eliasi)Section 3. Hydrogen Permeation and Transport
  16. Quantification of hydrogen transport and trapping in ferritic steels with the electrochemical permeation technique (A.-M. Brass)
  17. Hydrogen diffusivity and straining effect at cathodic polarization of A1 in NaOH solution (E. Lunarska and O. Chernyayeva)
  18. Visualization of hydrogen diffusion path by a high sensitivity hydrogen microprint technique (S. Matsuda, K. Ichitani and M. Kanno)
  19. Effect of deformation type on the hydrogen behavior in high-strength low-alloy steel (E. Lunarska and K. Nikiforow)
  20. Strain-assisted transport of hydrogen and related effects on the intergranular stress corrosion cracking of alloy 600 (J. Chêne)
  21. Hydrogen in trapping states harmful and resistant to environmental degradation of high-strength steels (K. Takai)Section 4. Hydrogen-Assisted Cracking and Embrittlement
  22. Ductile crack initiation and growth promoted by hydrogen in steel (Y. Shimomura and M. Nagumo)
  23. Hydrogen assisted stress-cracking behaviour of supermartensitic stainless steel weldments (W. Dietzel, P. Bala Srinivasan and S.W. Sharkawy)
  24. Hydrogen-assisted fracture of inertia welds in 21Cr-6Ni-9Mn stainless steel (B.P. Somerday, S.X. McFadden, D.K. Balch, J.D. Puskar and C.H. Cadden)
  25. Embrittlement of metals in a hydrogen medium (N.M. Vlasov and I.I. Fedik)Section 5. Nonferrous Alloys
  26. Stress corrosion cracking of magnesium alloy with the slow strain-rate technique (H. Uchida, M. Yamashita, S. Hanaki and T. Nozaki)
  27. Measurement and modeling of crack conditions during the environment-assisted cracking of an Al-Zn-Mg-Cu alloy (K.R. Cooper and R.G. Kelly)
  28. Influence of composite materials on the stress corrosion cracking of aluminium alloys (F. Lu, W. Chang, G. Zhu, X. Zhang and Z. Tang)
  29. Study on stress corrosion cracking of aluminium alloys in marine atmosphere (X. Zhang, Z. Sun, Z. Tang, M. Liu and B. Li)
  30. Potential-pH map for environment-assisted cracking of Ti-6Al-4V (T. Haruna, M. Hamasaki and T. Shibata)
  31. On the competitive effects of water vapor and oxygen on fatigue crack propagation at 550oC in a Ti6242 alloy (C. Sarrazin-Baudoux, F. Loubat and S. Potiron)
  32. Effect of supercritical water on fatigue crack propagation in a titanium alloy (F. Loubat and J.M. Olive)
  33. Microstructural sensitivity of stress corrosion cracking in copper alloys due to dynamic recrystallization (L. Lin, Y. Zhao, D. Cui and Y. Meng)Section 6. Iron and Nickel Based Alloys
  34. Susceptibility to and the mechanism of stress corrosion cracking in structural alloys in aqueous solutions (A.N. Kumar)
  35. Corrosion-fatigue properties of surface-treated surgical implant stainless steel X2CrNiMo18-15-3 (G. Mori, H. Wieser and H. Zitter)
  36. Stress corrosion cracking of austenitic stainless steel Type 316 in acid solutions and intergranular SCC mechanism: effects of anion species (Cl- and SO42-) and sensitizing temperature (R. Nishimura, A. Sulaiman and Y. Maeda)
  37. Environmentally assisted cracking of nickel alloys - a review (R.B. Rebak)Section 7. Ceramics and Glasses
  38. Environment induced crack growth of ceramics and glasses (R.H. Jones)
  39. Study of delayed fracture of PZT-5 ferroelectric ceramics (K.W. Gao, Y. Wang, L.J. Qiao and W.Y. Chu)Section 8. Liquid Metal Embrittlement
  40. Liquid metal-induced embrittlement of a Fe9Cr1Mo martensitic steel (J.-B. Vogt, I. Serre, A. Verleene and A. Legris)
  41. Liquid metal embrittlement by lead of high chromium martensitic steel bolts (K. Nakajima, S. Inagaki, T. Taguchi, M. Arimura and O. Watanabe)
  42. Liquid metal embrittlement of superplastic alloys (A.I. Malkin, Z.M. Polukarova, V.M. Zanozin, B.D. Lebedev, I.V. Petrova and E.D. Shchukin)Section 9. History of SCC Research
  43. Stress corrosion cracking and corrosion fatigue: a record of progress, 1873-1973 (S.A. Shipilov) Author Index Subject IndexVOLUME 2. PREDICTION, INDUSTRIAL DEVELOPMENTS AND EVALUATIONS Preface List of Reviewers Section 1. Prediction of Stress Corrosion Cracking
  44. Predicting failures in light water nuclear reactors which have not yet been observed - microprocess sequence approach (MPSA) (R.W. Staehle)
  45. The electrochemistry of stress corrosion cracking - from theory to damage prediction in practical systems (D.D. Macdonald, G.R. Engelhardt and I. Balachov)Section 2. Stress Corrosion Cracking in LWR Environments
  46. Insights into stress corrosion cracking mechanisms from high-resolution measurements of crack-tip structures and compositions (S.M. Bruemmer and L.E. Thomas)
  47. Quantification of the effects of crack tip plasticity on environmentally-assisted crack growth rates in LWR environments (T. Shoji, Z. Lu, H. Xue, K. Yoshimoto, M. Itow, J. Kuniya and K. Watanabe)
  48. The role of hydrogen and creep in intergranular stress corrosion cracking of Alloy 600 and Alloy 690 in PWR primary water environments - a review (F.H. Hua and R.B. Rebak)
  49. Modelling of primary water stress corrosion cracking (PWSCC) at control rod drive mechanism (CRDM) nozzles of pressurized water reactors (PWR) (O.F. Aly, A.H.P. Andrade, M. Mattar Neto, M. Szajnbok and H.J. Toth)
  50. Interdendritic crack introduction before SCC growth tests in high-temperature water for nickel-based weld alloys (M. Ozawa, Y. Yamamoto, M. Itow, N. Tanaka, S. Kasahara and J. Kuniya)
  51. Influence of low-temperature sensitization on stress corrosion cracking of 304LN stainless steels (V. Kain, R. Samantaray, S. Acharya, P.K. De and V.S. Raja)Section 3. Corrosion and Cracking of Waste Package Materials
  52. Overview of corrosion issues for the Yucca Mountain waste container (R.H. Jones)
  53. Stress corrosion cracking evaluation of a target structural material by different techniques (M.K. Hossain and A.K. Roy)Section 4. Crack Growth in Pipeline Steels Under Cyclic Loading
  54. SCC Growth in pipeline steel (A. Plumtree, B.W. Williams, S.B. Lambert and R. Sutherby)
  55. Environmental effects on near-neutral pH stress corrosion cracking in pipelines (W. Chen, R.L. Eadie and R.L. Sutherby)
  56. Environmentally assisted cracking of pipeline steels in near-neutral pH environments (J. Been, F. King and R. Sutherby)Section 5. SCC and Hydrogen Embrittlement of Pipeline Steels
  57. Crack initiation of line pipe steels in near-neutral pH environments (J.A. Colwell, B.N. Leis and P.M. Singh)
  58. A mechanistic study in near-neutral pH stress corrosion cracking of pipeline steel (B.T. Lu and J.L. Luo)
  59. The role of hydrogen in EAC of pipeline steels in near-neutral pH environments (J. Been, H. Lu, F. King, T. Jack and R. Sutherby)
  60. The roles of crack-tip plasticity, anodic dissolution and hydrogen in SCC of mild and C-Mn steels (D. Delafosse, B. Bayle and C. Bosch)
  61. Effect of microstructure on the hydrogen-embrittlement behaviour of HSLA steels under cathodic protection (L. Barsanti, M. Cabrini, T. Pastore and C. Spinelli)
  62. Hydrogen-embrittlement resistance of X100 steels for long-distance high-pressure pipelines (L. Barsanti, F.M. Bolzoni, M. Cabrini, T. Pastore and C. Spinelli)
  63. Influence of strain rate on the stress corrosion cracking of X70 pipeline steel in dilute near-neutral pH solutions (B. Fang, J.Q. Wang, E. Han, Z. Zhu and W. Ke)
  64. Assessment of stress corrosion cracking and hydrogen embrittlement susceptibility of buried pipeline steels (A.H.S. Bueno, B.B. Castro and J.A.C. Ponciano)
  65. Change of physiochemical parameters of soils near stress-corrosion defects on gas pipelines (S.K. Zhigletsova, V.B. Rodin, V.V. Rudavin, G.E. Rasulova, N.A. Alexandrova, G.M. Polomina and V.P. Kholodenko)Section 6. Degradation of Materials Under In-Service Conditions
  66. Stress corrosion cracking of carbon steel in fuel ethanol service (J.G. Maldonado and R.D. Kane)
  67. Hydrogen degradation of steels under long-term in-service conditions (H.M. Nykyforchyn, K.-J. Kurzydlowski and E. Lunarska)
  68. Corrosion and hydrogen absorption of commercial reinforcing steel in concrete after 33 years of service on the Baltic Sea beach (S.M. Beloglazov, K.V. Egorova and N.V. Kolesnikova)
  69. Stress corrosion cracking of aluminium brass induced by marine organism fouling (L. Lin and Y. Zhao)
  70. Modeling of prior exfoliation corrosion in aircraft wing skins (M. Liao, G. Renaud, D. Backman, D.S. Forsyth and N.C. Bellinger)Section 7. Stress Corrosion Cracking Case Studies
  71. Case studies of corrosion and environmentally induced cracking in industry (I. Le May and C. Bagnall)
  72. Stress corrosion cracking: cases in refinery equipment (G.R. Lobley)
  73. Embrittlement cracking of a stabilized stainless steel wire mesh in an ammonia converter (V. Kain, V. Gupta and P.K. De)
  74. Environment-induced transgranular stress corrosion cracking of 304L stainless steel instrument line tubes (M. Clark, O. Yong, A.M. Brennenstuhl and M. Lau)
  75. Stress corrosion cracking of austenitic stainless steel in a nuclear power plant environment (M. Brezine and L. Kupca)Section 8. New Test Methods for SCC Studies
  76. High-resolution, in-situ, tomographic observations of stress corrosion cracking (T.J. Marrow, L. Babout, B.J. Connolly, D. Engelberg, G. Johnson, J.-Y. Buffiere, P.J. Withers and R.C. Newman)
  77. Detection of SCC by the simultaneous use of electrochemical noise and acoustic emission measurements (M. Leban, Z. Bajt, J. Kovac and A. Legat)
  78. Circumferential notch tensile (CNT) tests for determination of KISCC, using small fracture mechanics specimens (R. Rihan, R.K. Singh Raman and R.N. Ibrahim)
  79. Development of spiral notch torsion test: a new fracture mechanics approach to determination of KISCC (R.K. Singh Raman, R. Bayles, S.P. Knight, Jy-An Wang, B.R.W. Hinton and B.C. Muddle)
  80. Issues in stress corrosion testing of welded super martensitic stainless steels for oil and gas pipelines (A. Turnbull and B. Nimmo)
  81. Evaluation of the resistance to hydrogen embrittlement by the slow bending test (M. Cabrini, G.D'Urso and T. Pastore) Author Index Subject Index


No. of pages:
© Elsevier Science 2008
Elsevier Science
Hardcover ISBN:
eBook ISBN:

About the Editor

Sergei Shipilov

Affiliations and Expertise

Metallurgical Consulting Services Limited, Toronto, Canada

Russell Jones

Affiliations and Expertise

Exponent Failure Analysis Associates, U.S.A.

Jean-Marc Olive

Affiliations and Expertise

University of Bordeaux 1, France

Raul Rebak

Raul B. Rebak studied Chemical Engineering at the University of Misiones and then received a national scholarship to work at the Argentine Commission of Atomic Energy. He attended The Ohio State University’s Materials Science program where he received a PhD degree in corrosion and metallurgy. From 1996 to 2000 he worked as a corrosion engineer at Haynes International in Indiana and from 2001 to 2007 at the University of California Lawrence Livermore National Laboratory. Since 2007, Dr. Rebak has served as a corrosion scientists at GE Global Research Center in Schenectady, NY where he provides his experience in corrosion science and corrosion engineering applications in areas such as nuclear, oil and gas, energy storage, aviation, etc. Dr. Rebak has over 30 years’ experience in the corrosion and energy industry and has published over 250 technical articles in corrosion. He is a member of ASTM International, NACE International, ASM International, TMS, etc. He is a Fellow of NACE International and The Corrosion Society.

Affiliations and Expertise

Lawrence Livermore National Laboratory, USA