Internal Corrosion Rate Of Api 5l X-42 Steel In Crude Oil Production Installation Pipe
DOI:
https://doi.org/10.62872/fzbzzg35Keywords:
Corrosion Rate, Corrosive Environment., Crude Oil, Steel PipeAbstract
Steel pipes remain the preferred choice for distribution and crude oil installation pipes in the oil and gas industry due to their strength, surface hardness, and cost-effectiveness. However, their susceptibility to corrosion in harsh environments poses significant challenges. This research focuses on analyzing the corrosion rate of API 5L X-42 steel in a crude oil environment at a temperature of 40°C. The corrosion rate was determined using the weight loss method, revealing that the rate varies over time. The findings of this study provide crucial insights for the industry, particularly in preventing leaks in crude oil installation pipes caused by corrosion. By understanding the corrosion behavior of steel pipes under specific conditions, the oil and gas industry can implement more effective maintenance strategies and material selection, ultimately enhancing the safety and longevity of pipeline infrastructure. The study highlights the importance of regular monitoring and the adoption of preventive measures to mitigate corrosion-related issues, thereby ensuring the continuous and safe operation of oil and gas installations
Downloads
References
Afandi. Y.K, Arief. I.S, dan Amiadji. 2015. Analisa Laju Korosi pada Pelat Baja Karbon dengan Variasi Ketebalan Coating. Jurnal Teknik ITS. 4(1): 1-5
Asmara. Y.P, 2018. The Roles of H2S Gas in Behavior of Carbon Steel Corrosion in Oil and Gas Environment: A Review. Jurnal Teknik Mesin 7(1):37-43
Calderon, J.P , Canto. J , L. M. De-la-Escalera. M, and Neri. A., 2022. Sweet Corrosion Inhibition by CO2 Capture, Molecules, 27, 5209: 1-18.
Groysman, A. 2017. Corrosion Problems and Solutions in Oil, Gas, Refining and Petrochemical Industry. Koroze A Ochrana Materialu, 61(3), 100-117.
Hamied, R. S., Alhassan, M. A., and Al-Bidry, M. A. 2018. Study the Effect of Corrosion on the Pipes of Oil Well Production. Journal of Petroleum Research and Studies, 8(2), 155-165.
Hou. Y, Lei. D, Li. S, Yang. W, and Li. C.Q. 2016. Experimental Investigation on Corrosion Effect on Mechanical Properties of Buried Metal Pipes. International Journal of Corrosion. 1-13
Malaret. F. 2022. Exact Calculation of Corrosion Rates by The Weight-Loss Method. Experimental Results. Cambridge University Press. 3(13): 1–12.
Perez. T.E. 2013. Corrosion in the Oil and Gas Industry: An Increasing Challenge for Materials. JOM, 65(8): 1033-1042.
Popoola. L. T., Grema.A. S., Latinwo.G. K., B.Gutti and, Balogun.A. S., 2013. Corrosion Problems During Oil and Gas Production and Its Mitigation”, International Journal of Industrial Chemistry, 4(35), 1-15.
Prabha. S.S, Rathish. R.J, R. Dorothy, Brindha. G., M. Pandiarajan, Al-Hashem. A. and Rajendran. S. 2014. Corrossion Problems in Petroleum Industry and Their Solution, European Chemical Bulletin, 3(3), 300-307.
ZHANG. X, CHEN. Z, LUO. H, ZHOU. T, ZHAO. Y, and LING. Z. 2022. Corrosion Resistances of Metallic Materials in Environments Containing Chloride Ions: A Riview. Transactions of Nonferrous Metals. Society of China 32: 377-410.
Downloads
Published
Issue
Section
License
Copyright (c) 2024 Edi Septe.S (Author)
This work is licensed under a Creative Commons Attribution-ShareAlike 4.0 International License.
This work is licensed under a Creative Commons Attribution-ShareAlike 4.0 International License.