Preview

Theory and Practice of Corrosion Protection

Advanced search

The series of measures for improvement of safety in oil and gas facilities producing, processing and transporting materials containing hydrogen sulfide Part 1. Corrosion-mechanical attack of hydrogen sulfide-containing media on steel equipment. The choice of construction steels and noncorrosive alloys for the oil and gas equipment

https://doi.org/0.31615/j.corros.prot.2021.100.2-3

Abstract

The necessity of the complex approach is defined for increase of reliability of the oil and gas equipment operated under pressure of hydrogen sulfide-containing medium, including:
- control at the stages of design, manufacturing, commissioning , operation, repair and reconstruction;
- organization of corrosion service;
- rational choice of materials for equipment manufacturing and its repair;
- use of different methods to protect equipment against corrosi on:
- diagnostics of equipment and evaluation of corrosion protecti on efficiency;
- conducting corrosion tests of materials and corrosion control .
The trend of increasing corrosive activity of the products of a number of hydrogen sulfide-bearing oil and gas fields is described. This is associated with their watering and contamination by sulfate-reducing bacteria. All types of corrosion-mechanical damage of steels in accordance with GOST R 53679-2009 (ISO 15156- 1:2001) are considered. Comments are given on each of these types of damage and the types of steels that are prone to these defects are shown.
The recommendations of GOST R 53679-2009 (ISO 15156-1:2001) are given for the selection of steel equipment operated under pressure of hydrogen sulfide-containing media depending on the type of their corrosionmechanical failure, with comments.
Requirements for the use of steels modified with rare-earth metals (REM) and alkaline-earth elements (ALE) intended for operation in hydrogen sulfide-containing media are given

About the Authors

L. S. Moiseeva
Moscow Aviation Institute (National Research University)
Russian Federation

Lyudmila S. Moiseeva, Doctor of Technical Sciences,
Professor

4 G, Volokolamskoe sh., Moscow



A. P. Makarov
Central Research Institute for Corrosion and Certification
Russian Federation

Alexander P. Makarov, Ph.D. in Technical Sciences

build. 2, 29, Leninsky Av., Moscow



References

1. Gafarov, N. A., Goncharov, A. A., & Kushnarenko, V. M. (1998). Corrosion and protection of equipment of hydrogen sulfidebearing oil and gas fields. Moscow: Nedra.

2. Vigdorovich, V. I., Moiseeva, L. N., & Makarov, A. P. (2018). Application of hydrogen probes for estimation of corrosion rate, hydrogenation of steels and protective effect of coatings in hydrogen sulfide-containing media. Theory and Practice of Corrosion Protection, 1(87), 6-16.

3. Zavyalov, V. V. (2005). Problems of operational reliability of pipelines at the late stage of field development. Moscow: VNIIOENG.

4. Rozanova, E. P., Nazina, T. N. (1989). Sulfate-reducing bacteria (systematics and metabolism). Advances in Microbiology, 23, 191.

5. Garifullin, F. S. (2001). Study of causes of high corrosion rates of pipelines.Oil Khozevo. 6. Maximum allowable concentrations of pollutants in the atmospheric air of settlements. GN 2.1.6.1338-03.

6. Gafarov, N. A., Goncharov, A. A., & Kushnarenko, V. M. (2001). Definition of reliability characteristics and technical condition of the equipment of hydrogen sulfidecontaining oil and gas fields. Moscow: Nedra- Business Center.

7. Haustov, A .P., Redina, M. M., Silaeva, P. Y., Mikhina, T. V., & Korobova, O. S. (2009). Emergencies and occupational safety in the oil and gas complex. Moscow: GEOS.

8. Makarov, A. P. (2011, 18-20 May). Analysis of Stress-Corrosion Failures of Steel Products and Protective Equipment. In Fundamental Aspects of Corrosion Material Science and Protection of Metals from Corrosion. International conference dedicated to the 110th anniversary of the birth of Corresponding Member USSR Academy of Sciences G.V. Akimov. Moscow.

9. Kushnarenko, V. M., Repyakh, V. S., Chirkov, E. Yu., & Kushnarenko, E. B, (2011). Defects and Damages of Parts and Constructions. Orenburg: Orenburg State University.

10. Gafarov, N. A., Mitrofanov, A. V., Goncharov, A. A., Tretiak, A. Ya., & Kichenko, B. V. (2000). Analysis of Equipment and Pipeline Damages at Production, Processing and Transportation Facilities of Orenburg OGCF. Equipment and Pipeline Diagnostics. Moscow: IRC Gazprom.

11. Kushnarenko, V. M., Fot, A. P. (2007). Assessment and prediction of serviceability of metal and alloys of equipment operating under the influence of corrosive media. Bulletin of the Orenburg State University, (1), 134-140.

12. Kostitsyna, I. V. (2014). Corrosion resistance of pipe steels in aggressive environments of oil and gas fields. Abstract of PhD dissertation. Chelyabinsk: Chelyabinsk State University.

13. Симаков М.В., Конищев К.Б., Чабан А.14. Simakov, M. V., Konischev, K. B., & Chaban, A. S. (2018). Features of stress corrosion cracking in hydrogen sulfidecontaining environments of pipe products for fields containing hydrogen sulfide. IV Scientific and Practical Seminar Improving the reliability of main gas pipelines susceptible to stress corrosion cracking. Moscow: Gazprom VNIIGAZ LLC.

14. Oil and Gas Industry. Materials for use in environments containing hydrogen sulfide in oil and gas production. Part 2. Carbon and lowalloy steels resistant to cracking and the use of cast irons .(2009). GOST R 53678-2009 (ISO 15156-2:2003).

15. Petroleum and gas industries. Materials for use in environments containing hydrogen sulfide in oil and gas extraction. Part 1. General principles for the selection of materials resistant to cracking. (2009). GOST R 53679-2009 (ISO 15156-1:2001).

16. Organization and conduct of international standardization in the Russian Federation. (2017). GOST R 57564-2017.

17. Popov, G. G., Bolobov, V. I. (2017). Possible causes of «stream» corrosion of field oil pipelines. In «Pipeline transport-2017»: of the XII International educational-scientificpractical conference. Russia, Ufa, 160-162.

18. Pyshimtsev, I. Y., Veselov, I. N., Shiryaev, A. G., Erekhinsky, B. A., & Arabei, A. B. (2016). Development of corrosion-resistant pipes for environments containing hydrogen sulfide. Territory of oil-gas, (7-8), 62-71.

19. Makarov, A. V., Skorynina, P. A., Yurovskikh, A. S., & Osintseva, A. L. (2013, 26-30 November). Increase of strength and tribological characteristics of surface layers of austenitic stainless steel by friction treatment. In Innovative technologies in metallurgy and mechanical engineering: 7th international youth scientific and practical conference. Russia, Yekaterinburg, 134-137.

20. Forgings of high-alloy steels and alloys. TU 14-1-2902-80.

21. High-alloy steels and alloys corrosionresistant, heat-resistant and heat-resistant. Grades (as amended N 1, 2, 3, 4, 5). GOST 5632-72.

22. Khomenko, A. (2020). Titanium for the oil and gas industry. Gas / storage / production. Source: Neftegaz.RU. URL: https://neftegaz.ru/search/.

23. Drill pipes made of aluminum alloys for oil and gas industry. ISO 15546-2011E.


Review

For citations:


Moiseeva L.S., Makarov A.P. The series of measures for improvement of safety in oil and gas facilities producing, processing and transporting materials containing hydrogen sulfide Part 1. Corrosion-mechanical attack of hydrogen sulfide-containing media on steel equipment. The choice of construction steels and noncorrosive alloys for the oil and gas equipment. Theory and Practice of Corrosion Protection. 2021;26(2):32-53. (In Russ.) https://doi.org/0.31615/j.corros.prot.2021.100.2-3

Views: 131


Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.


ISSN 1998-5738 (Print)
ISSN 2658-6797 (Online)