Abstract
No matter how good and reliable the techniques and methods are for defining, recognizing and detection of MIC, all will become pointless if the problem can not be cured. Treatment programs can be divided in two, either to mitigate an existing problem or to prevent the initiation of a problem, right from the beginning. In reality, most of the time what is required is mitigation. There are very innovative ways to deal with a biocorrosion problem. In addition, in nature there are mechanisms from which many industrial biocidal treatments have been imitated. All the above examples can serve to show that the treatment of microbiologically-influenced corrosion cases may not always be taken as expensive or environmentally unfriendly practices. With lateral thinking and multidimensional planning based on understanding of the mechanisms of microbial corrosion, it is possible to make a change, when necessary. Treatment of MIC can be done, with the present knowledge, in four categories, physical-mechanical, chemical, electrochemical and biological. While all of these tech-niques have been refined and advanced with respect to just a couple of years ago, some of them are quite new. An important part of this chapter focuses on cathodic protection and its effect(s) on MIC, helping the reader acknowledge that in the field of MIC there is hardly anything that has not been, or is not currently, under challenge. This will once again justify the vital need for more research and more communication among different disciplines of science and engineering with each other and with the industry.
This is a preview of subscription content, log in via an institution.
Preview
Unable to display preview. Download preview PDF.
References
Javaherdashti, R., Corrosion Knowledge Management: How to deal with Corrosion as a Manager?, to be published.
Davies M, Scott PJB (1996) Remedial treatment of an occupied building affected by microbiologically influenced corrosion Mater Perform 35(6)54–57
Scott PJB, Davies M (1992) Microbiologically induced corrosion Civil Engineering 58–59
Guiamet PS, Gomez de saravia SG, Videla HA (1991) An innovative method for preventing biocorrosion through microbial adhesion inhibition. J Intl Biodeterioration & Biodegradation (43):31–35
McCoy WF (1998) Imitating natural microbial fouling control. Mater Perform 37(4):45–48
Source: http://en.wikipedia.org/wiki/Pigging#Images
Schmidt R (2004) Unpiggable pipelines – What a challenge for in-line inspection. Pigging Products and Services Association (PPSA) www.ppsa-online.com/papers.php
Verleun T (2004) Cleaning of oil & gas pipelines. Pigging Products and Services Association (PPSA) www.ppsa-online.com/papers.php
Jack TR (2002) Biological corrosion failures. ASM International
Archer ED, Brook R, Edyvean RG, Videla HA (2001) Selection of steels for use in SRB environments. Paper No. 01261. CORROSION 2001, NACE International
Javaherdashti R, Raman Singh RK, Panter C, Pereloma EV (2004) Stress corrosion cracking of duplex stainless steel in mixed marine cultures containing sulphate reducing bacteria. Proceedings of Corrosion and Prevention 2004 (CAP04), 21–24 November 2004, Perth, Australia
King RA (2007) Trends and developments in microbiologically induced corrosion in the oil and gas industry. MIC – An International Perspective Symposium. Extrin Corrosion Consultants, Curtin University, Perth, Australia, 14–15 February 2007
Scott PJB (2004) Expert consensus on MIC: Prevention and monitoring. Part 1. Mater Perform 43(3):50–54
Al-Majnouni AD, Jaffer AE (2003) Monitoring microbiological activity in a wastewater system using ultraviolet radiation as an alternative to chlorine gas. Paper No. 03067, CORROSION 2003, NACE International
Saiz-Jimenez C (2001) The biodeterioration of building materials. In: A practical manual on microbiologically influenced corrosion (Stoecket II JG, ed) 2nd edn, NACE International 2001
Mittelman MW (1990) Bacterial growth and biofouling control in purified water systems in biofouling and biodeterioration in industrial water systems. Proceedings of the International Workshop on Industrial Biofouling and Biocorrosion. Stuttgart, September 13–14 1990 (Flemming H-C, Geesey GG, eds) Springer-Verlag Berlin, Heidelberg 1991
Flemming H-C, Schaule G (1996) Measures against biofouling In: Microbially influenced corrosion of materials – scientific and engineering aspects (Heitz E, Flemming H-C, Sand W, eds) Springer-Verlag Berlin, Heidelberg
Pound BG, Gorfu Y, Schattner P, Mortelmans KE (2005) Ultrasonic mitigation of microbiologically influenced corrosion CORROSION 61(5)452–463
Flemming H-C (1990) Biofouling in water treatment in biofouling and biodeterioration in industrial water systems. Proceedings of the International Workshop on Industrial Biofouling and Biocorrosion. Stuttgart, September 13–14 1990 (Flemming H-C, Geesey GG, eds) Springer-Verlag Berlin, Heidelberg 1991
Grondin E, Lefebvre Y, Perreault N, Given K (1996) Strategies for the effective application of microbiological control to aluminum casting cooling systems. Presented at ET 96, Chicago, Illinois USA; 14–17 May 1996
Lutey RW (1995) Process cooling water. Section 3.3.6. In: Handbook of biocide and preservative use. Rossmore HW (ed) Blackie Academic & Professional (Chapman & Hall) Glasgow UK
Lutey RW (1995) Process cooling water. Section 3.2.4. In: Handbook of biocide and preservative use. Rossmore HW (ed) Blackie Academic & Professional (Chapman & Hall) Glasgow UK
Lutey RW (1995) Process cooling water. Section 3.4. In: Handbook of biocide and preservative use. Rossmore HW (ed) Blackie Academic & Professional (Chapman & Hall) Glasgow UK
Boivin J (1995) Oil industry biocides. Mater Perform 34(2):65–68
Videla HA,Viera MR, Guiamet PS, Staibano Alais JC (1995) Using ozone to control biofilms. Mater Perform (7):40–44
Cochran M, Extending ClO2’s Reach in Anti-microbial Applications, Special Chemicals Magazine, October 2004, www.speccheonline.com
Scott PJB (2000) Microbiologically influenced corrosion monitoring: Real world failures and how to avoid them. Mater Perform 39(1):54–59
Cantor AF, Bushman JB, Glodoski MS, Kiefer E, Bersch R, Wallenkamp H (2006) Copper Pipe Failure by Microbiologically Influenced Corrosion, Materials Performance (MP), vol. 46, no. 6, pp. 38–41
Videla, H.A. (1995) Biofilms and Corrosion Interactions on Stainless Steel in Seawater, International Biodeterioration & Biodegradation, pp. 245–257
Williams TM (2006) The mechanism of Action of isothiazolone Biocides, Paper No. 06090, CORROSION 2006, NACE International, USA
Williams TM (2004) Isothiazolone Biocides in water Treatment Applications, Paper No. 04083, CORROSION 2004, NACE International, USA
Jacobson A, Williams TM (2000) The Environmental Fate of Isothiazolone Biocides, Chimica Oggi, Vol. 18, No. 10, pp. 105–108
King RA (2007) Microbiologically Induced Corrosion and biofilm Interactions, MIC – An International Perspective Symposium, Extrin Corrosion Consultants-Curtin University, Perth, Australia, 14–15 February 2007
Al-Hashem AH, Carew J, Al-Borno A (2004) Screening test for six dual biocide regimes against planktonic and sessile populations of bacteria. Paper No. 04748. CORROSION 2004, NACE International, USA
Ludensky ML, Himpler FJ, Sweeny PG (1998) Control of biofilms with cooling water biocides. Mater Perform 37(10):50–55
Kajiyama F, Okamura K (1999) Evaluating cathodic protection reliability on steel pipes in microbially active soils. CORROSION 55(1):74–80
Tiller AK (1986) Review of the European Research Effort on Microbial Corrosion between 1950 and 1984. In: Biologically induced corrosion. Dexter DC (ed) NACE–8, NACE Houston, Texas USA
Fischer KP (1981) Cathodic protection criteria for saline mud containing SRB at ambient and higher temperatures. Paper No. 110. CORROSION/81, NACE International, USA
de Romero MF, Parra J, Ruiz R, Ocando L, Bracho M, de Ricón OT, Romero G, Quintero A (2006) Cathodic polarisation effects on sessile SRB growth and iron protection. Paper No. 06526. CORROSION 2006, NACE International, USA
de Gonzalez CB, Videla HA (1998) Prevention and control. In: CYTED Ibero-American Programme of Science and Technology for Development, Practical Manual of Biocorrosin and Biofouling for the Industry, Subprogramme XV, Research Network XV.c. BIOCORR (Ferrari MD, de Mele MFL, Videla HA, eds) Poch&Industria Grafica SA, La Plata Bs.As., Argentina 1st edn
Geesey GG (1993) Biofilm formation. In: A practical manual on microbiologically-influenced corrosion Kobrin G (ed) NACE Houston Texas USA
Pedersen K (1999) Subterranean micro-organisms and radioactive waste disposal in Sweden. Engineering Geology (52):163–176
Stein AA (1993) MIC treatment and prevention. In: A practical manual on microbiologically-influenced corrosion Kobrin G (ed) NACE Houston Texas USA
Lee J (1998) Bacterial biofilms less likely on electropolished steel Agricultural Res p. 10
Percival SL, Knapp JS, Wales DS, Edyvean RGJ (2000) Metal and inorganic ion accumulation in biofilms exposed to flowing and stagnant water. Brit Corrosion J 36(2):105–110
Sreekumari KR, Nandakumar K, Kikuchi Y (2004) Effect of metal microstructure on bacterial attachment: A contributing factor for preferential mic attack of welds. Paper No. 04597. CORROSION 2004, NACE International
Geesey GG, Wigglesworth-Cooksey B, Cooksey KE (2000) Influence of calcium and other cations on surface adhesion of bacteria and diatomes: A review. Biofouling 15(1–3):195–205
Javaherdashti R (unpublished work) Mathematical justification of applying over-voltage in cathodic protection systems to avoid MIC
Mains AD, Evans LV, Edyvean RGJ (1991) Interactions between marine microbiological fouling and cathodic protection scale. In: Microbial Corrosion Proceedings of the 2nd EFC Workshop, Portugal 1991 (Sequeira CAC, Tillere AK, eds) European Federation of Corrosion Publications, Number 8, The Institute of Materials 1992
Habash M, Reid G (1999) Microbial biofilms: Their development and significance for medical devices-related infections. J Clin Pharmacol (39):887–898
Maxwell S, Devine C, Rooney F, Spark I (2004) Monitoring and Control of Bacterial Biofilms in Oilfield Water Handling Systems, Paper No.04752, CORROSION 2004, NACE International, USA
Li SY, Kim YG, Kho YT (2003) Corrosion behavior of carbon steel influenced by sulfate-reducing bacteria in soil environments. Paper No. 03549. CORROSION 2003, NACE International
Javaherdashti R, Vimpani P (2003) Corrosion of steel piles in soils containing SRB: a review. Proceedings of Corrosion Control and NDT, 23–26 November 2003, Melbourne, Australia
Wiebe D, Connor J, Dolderer G, Riha R, Dyas B (1997) Protection of concrete structures in immersion service from biological fouling with silicone-based coatings. Mater Perform 36(5):26–31
Metosh-Dickey CA, Portier RJ, Xie X (2004) A novel surface coating incorporating copper attachment. Mater Perform 43(10):30–34
Filip Z, Pommer E-H (contributors) (1992) Microbiologically influenced deterioration of materials. In: Microbiological degradation of materials and methods of protection. European Federation of Corrosion Publications, Number 9, The Institute of Materials
Javaherdashti R (1997) Magnetic bacteria against MIC, Paper No. 419, Corrosion 97, NACE International, USA
Dzierzewicz Z, Cwalina B, Chodurek E, Bulas L (1997) Differences in hydrogenese and APS-reductase activity between Desulfovibrio desulfuricans strains growing on sulphate or nitrate. Acta Biologica Cracoviensia Series Botanica (39:)9–15
Dunsmore BC, Whitfield TB, Lawson PA, Collins MD (2004) Corrosion by sulfate-reducing bacteria that utilize nitrate. Paper No. 04763. CORROSION 2004, NACE International, USA
Little B, Lee J, Ray R (2007) New development in mitigation of microbiologically influenced corrosion MIC – An International Perspective Symposium. Extrin Corrosion Consultants, Curtin University, Perth, Australia, 14–15 February 2007
Hubert C, Voordouw G, Arensdorf J, Jenneman GE (2006) Control of souring through a novel class of bacteria that oxidize sulfide as well as oil organics with nitrate. Paper No. 06669. CORROSION 2006, NACE International, USA
Bouchez T, Patureau D, Dabert, Juretschko S, Delgenes J, Molette R (2006) Ecological study of a bioaugmentation failure. As reported in [60]
Zhu XY, Modi H, Kilbane II JJ (2006) Efficacy and risks of nitrate application for the mitigation of SRB-induced corrosion Paper No. 06524. CORROSION 2006, NACE International, USA
Rights and permissions
Copyright information
© 2008 Springer London
About this chapter
Cite this chapter
(2008). How Is MIC Treated?. In: Microbiologically Influenced Corrosion. Engineering Materials and Processes. Springer, London. https://doi.org/10.1007/978-1-84800-074-2_9
Download citation
DOI: https://doi.org/10.1007/978-1-84800-074-2_9
Publisher Name: Springer, London
Print ISBN: 978-1-84800-073-5
Online ISBN: 978-1-84800-074-2
eBook Packages: Chemistry and Materials ScienceChemistry and Material Science (R0)