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ENHANCEMENT OF PIPELINE CATHODIC PROTECTION DESIGN PROCEDURE

В. А. Гриневич

First published: 2019-06-20https://doi.org/10.5593/sgem2019/5.2/s20.041View metrics

Abstract

Underground pipeline corrosion protection is an urgent task to be addressed by the companies that operate gathering and transmission pipeline systems. The key component of pipeline protection procedure is a feasibility study of the planned cathodic protection program, which, in its turn, poses a number of requirements for calculating basic parameters of the entire system. The regulatory calculation procedures do not allow resolving all tasks. The same can be stated about modern software which is based on the same regulatory procedures or the universal finite-volume method for modeling and calculation. As a result, the accuracy of this software significantly depends on the validity of the initial data. The present article examines the simple analytical method for calculating potential distribution along the transmission pipeline with regard to the impact of the voltage cone around the anode bed. The voltage cone occurs due to current discharge from the anode. According to the simple analysis, the potential distribution along the pipeline is governed by the exponential law in the absence of shielded electrical grounding, while the decrease in potential is registered in the vicinity of the anode ground bed. Thus, specific electrical resistivity of soil within the field of cathodic protection currents covering the same area as the so-called anode voltage cone around the anode ground bed is regarded as a key factor that significantly decreases the length of the protected zone. In addition, resistivity-to-soil along the entire length of pipeline can be neglected without prejudice to design quality as compared with the transient resistivity of pipeline coating. In order to enhance the quality of design calculation, it is proposed to improve the credibility of resistivity-to-soil calculation within the field of cathodic protection currents, while the number of soil resistivity measurements along the pipeline route can be decreased by confining the area of measurements to the radius defined by the multi-factor numerical analysis.

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Publication details

Title
ENHANCEMENT OF PIPELINE CATHODIC PROTECTION DESIGN PROCEDURE
Authors
В. А. Гриневич
Proceedings
SGEM International Multidisciplinary Scientific GeoConference EXPO Proceedings; 19th International Multidisciplinary Scientific GeoConference SGEM2019, Ecology, Economics, Education and Legislation
Publisher
STEF92 Technology
Year
2019
Pages
331-338
SWS Citekey
Grinevich201920331338
ISSN
1314-2704
ISBN
978-619-7408-85-0
Language
en
Publication type
Conference Paper
Keywords
References14
  1. Pritula, V.V. Sovremennye problemy zashchity ot podzemnoi korrozii [Modern issues of underground corrosion protection]. Korroziya territorii neftegaz. 2012. pp. 18–21.

  2. T.J. Barlo, Field testing the criteria for cathodic protection of buried pipelines. 1995. osti.gov

  3. M. YJ Tan, Y. Huo, F. Mahdavi and M. Forsyth, Quantifying the effects of major factors affecting the effectiveness of cathodic protection of pipelines, (In) Proc. Australasian Corrosion Association Corrosion Conference 2015, Paper 30, Adelaide, Australia

  4. U. Angst M. Büchler B. Martin H.-G. Schöneich G. Haynes S. Leeds F. Kajiyama Cathodic protection of soil buried steel pipelines – a critical discussion of protection criteria and threshold values - Materials and Corrosion, 09 May 2016 - Wiley Online Library/ -URL: DOI: 10.1002/maco.201608862

  5. UM Angst, M Büchler Impact of IR Drops on the 850 mVCSE Cathodic Protection Criterion for Coated Steel Pipes in Soil. Journal of Pipeline Systems Engineering and Practice. Vol. 9. Issue 1. February 2018

  6. Yabluchanskii, A.I. Optimizatsiya parametrov katodnoi zashchity v sisteme korrozionnogo monitoringa kak neobkhodimoe uslovie povysheniya nadezhnosti gazotransportnoi sistemy [Optimization of cathodicn protection parameters in corrosion monitoring system as a key condition for increasing gas pipeline system safety]. Korroziya territorii neftegaz. 2016. No 1(33) . pp. 74–77.

  7. Meng Ni, Lin Li, Jun Ni Research on Optimization of Cathodic Protection System for Long Distance Pipeline Based on Numerical Simulation. 2018 3rd Joint International Information Technology Mechanical and Electronic Engineering Conference (JIMEC 2018), pp. 324–328, DOI: 10.2991/jimec-18.2018.69

  8. Zedin N.K., Mahdi M.A., RAAK Salman, Optimization Corrosion Protection Parameters of Steel Pipeline by Using Taguchi Experimental Design. Engineering and Technology Journal, 2016, Vol.: 34 Issue: 4 Part (A) Engineering. pp. 754-761

  9. Tan, M. Y. J., Varela, F., Huo, Y., Mahdavi, F., Forsyth, M. and Hinton, B. New electrochemical methods for visualizing dynamic corrosion and coating disbondment processes on simulated pipeline conditions, Corrosion and materials, 2017, vol. 42, no. 1, pp. 70-74.

  10. Lasseigne, A. N., Koenig, K., Olson, D. L., Jackson, J. E., Mishra, B. and McColskey J. D., Real-time low frequency impedance measurements for determination of hydrogen content in pipeline steel. AIP Conference Proceedings 1096, 1283 (2009); DOI: 10.1063/1.3114103

  11. Gadala, I. M., Abdel Wahab, M., & Alfantazi, A. Numerical simulations of soil physicochemistry and aeration influences on the external corrosion and cathodic protection design of buried pipeline steels. Materials & Design, 2016, 97, pp. 287–299.DOI: 10.1016/j.matdes.2016.02.089

  12. Marcassoli, P., Bonetti, A., Lazzari, L., Ormellese, M. Modeling of potential distribution of subsea pipeline under cathodic protection by finite element method. Materials and Corrosion: Vol. 66, Issue7, July 2015, pp. 619-626.

  13. Riemer, D. P., & Orazem, M. E. (2005). A mathematical model for the cathodic protection of tank bottoms. Corrosion Science, 47(3), pp. 849–868.DOI: 10.1016/j.corsci.2004.07.018

  14. Yabluchanskii, A.I. Opyt proektirovaniya sistemy protivokorrozionnoi zashchity magistral'nogo gazoprovoda Rossiya – Turtsiya. [Experience in designing corrosion protection system of Russia – Turkey gas transmission pipeline]. Opyt primeneniya sovremennykh otechestvennykh priborov i tekhnologii dlya obespecheniya effektivnoi zashchity ot korrozii ob"ektov otrasli: materialy otraslevogo soveshchaniya OAO «Gazprom» [Experience in applying modern Russian devices and technologies for ensuring effective corrosion protection of industry-related objects: industrial meeting “Gazprom”]. Moscow, 2001. Part. 1. pp. 45–54.

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