Abstract
The negative effect of aggressive hydrogen sulfide-containing wet media in transported gas and oil causes disruption of continuity and failure of pipes by the mechanisms of hydrogen-induced cracking (HIC) and sulfide stress cracking (SSC) and is determined by a number of external and internal factors. The external factors include the corrosive environment characteristics such as the concentration of hydrogen sulfide, carbon dioxide, and other impurities, acidity (pH) in the aqueous medium, H2S partial pressure, temperature, duration of the corrosive medium action on the material, and external stresses.
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References
Barykov A. B. (Ed.). (2016). Development of steel manufacturing technology for steel rolled product and pipe in the Vyksa production area: Coll. Works. Metallurgizdat, Moscow.
Denisova, T. V., Vyboishchik, M. A., Tetyueva, T. V., & Ioffe, A. V. (2013). Changes in the structure and properties of low-carbon low-alloy pipe steels upon inoculation with REM. Metal Science and Heat Treatment, 54(10), 530–534.
Kholodnyi, A. A., Sosin, S. V., Matrosov, Yu I, & Karmazin, A. V. (2016). Development of the production technology at the ISW “Azovstal” of sheets for hydrogen sulfide-resistant pipes of large diameter of the X52-X65 strength classes. Problems of Ferrous Metallurgy and Materials Science, 4, 26–34.
Kholodnyy, A. A., Matrosov, Y., Shabalov, I. P., et al. (2017). Factors influencing on resistance of pipe steels to cracking in H2S-containing media. Problems of Ferrous Metallurgy and Materials Science, 4, 70–81.
Lachmund, H., Bruckhaus, R. (2006). Steelmaking process—basic requirement for sophisticated linepipe application. In: Proceedings of the International Seminar on “Pipe Seminar Modern Steels for Gas and Oil Transmission Pipelines, Problems and Prospects”, Moscow (pp. 155–164). March 15–16, 2006.
Niobium Information. No. 18/01. (2001). Sour gas resistant pipe steel, CBMM/NPC, Düsseldorf (Germany)
Park, G. T., Koh, S. U., et al. (2008). Effect of microstructure on the hydrogen trapping efficiency and hydrogen induced cracking of linepipe steel. Corrosion Science Journal, 50, 1865–1871.
Rykhlevskaya, M. S., Platonov, S Yu., & Maslyanitsyn, V. A. (2006). Effect of special features of distribution of Non-metallic inclusions in the metal of electric-welded oil conducting tubes on resistance to hydrogen-stress cracking. Metal Science and Heat Treatment, 48(5), 448–451.
Shabalov, I. P., Matrosov, Yu I, Kholodnyi, A. A., et al. (2017). Steel for gas and oil pipelines resistant to fracture in hydrogen sulphide-containing media. Moscow: Metallurgizdat.
Shabalov, I. P., Morozov, Yu D, & Efron, L. I. (2003). Steels for pipes and building structures with improved operating properties. Moscow: Metallurgizdat.
USINOR ACIERS. (1987). Steel grades for the manufacture of welded pipes, resistant to cracking under the influence of hydrogen sulphide. Document of the working group on the metallurgical industry of Franco-Soviet cooperation (p. 51).
Yamada, K. et al. (1983). Influence of metallurgical factors on HIC of high strength ERW line pipe for sour gas service. In: International Conference on Technology and Applications of HSLA Steels, Philadelphia, Pensylvania (pp. 835–842). October 3–6, 1983..
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Shabalov, I., Matrosov, Y., Kholodnyi, A., Matrosov, M., Velikodnev, V. (2019). Factors Affecting the Cracking Resistance of Pipe Steels in H2S-Containing Media. In: Pipeline Steels for Sour Service. Topics in Mining, Metallurgy and Materials Engineering. Springer, Cham. https://doi.org/10.1007/978-3-030-00647-1_2
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DOI: https://doi.org/10.1007/978-3-030-00647-1_2
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