Carboxilic acids in the atmosphere and their effect on the degradation of metals

Corrosion Reviews

Volumn 21, Issue 5, 2003, Pages 395-414

  Ecliavarria A V ^a   Echeverria F E ^a   Arroyave, C ^a   Cano, E ^b   Bastidas, J M ^b  

^a University of Anlioquia ^*  (Colombia)

^b DEPARTMENT OF PHYSICAL METALLURGY   (Spain)

Author keywords

[No Author keywords available]

Indexed keywords

ACETIC ACID; ACID RESISTANCE; CARBOXYLIC ACIDS; DEGRADATION; MOLECULAR WEIGHT; OXIDATION; POLLUTION INDUCED CORROSION; VOLATILE ORGANIC COMPOUNDS;

ANTHROPOGENIC EMISSIONS; BIOGENIC EMISSIONS; POLLUTANTS;

ATMOSPHERIC CORROSION;

EID: 0346009325     PISSN: 03346005     EISSN: None     Source Type: Journal    
DOI: 10.1515/CORRREV.2003.21.5-6.395     Document Type: Article

References (51)

1. Chebbi, A. and Carlier, P. “Carboxylic acids in the troposphere, occurrence, sources, and sinks; a review”. Atmospheric Environment. 30(24), p. 4233-4249 (1996).
2. Cano, E. et al. “Study of the effect of acetic acid vapor on copper corrosion at 40 and 80% relative humidity”. Journal of the Electrochemical Society. 148 (11) B431-B437 (2001)
3. Souza, S., Vasconcellos, P. and Carvalho, L. Low molecular weight carboxylic acids in an urban atmosphere: Winter measurements in Sao Paulo City, Brazil. Atmospheric Environment, 33, 2563-2574. (1999)
4. Khwaja, A. “Atmospheric concentration of carboxylic acids and related compounds of a semiurban site”. Atmospheric Environment. 29, 127, 139 (1995)
5. Kumar, N. et al. “Effect of anthropogenic activity on formate and acetate levels in precipitation in four sites in Agra, India”. Atmospheric Environment. 27B, 87-91 (1993)
6. Khare, P., Satsangi, G., Kumar, N., Kumari, M. and Srivastava, S. HCHO, HCOOH and CH3COOH in air and rain water at a rural tropical site in North Central India. Atmospheric Environment. 31, 23, 3867- 3875 (1997)
7. Hoffman, U., Weller, D., Amman, Ch., Jork, E. and Kesselmeier, J. Cryogenic trapping of atmospheric organic acids under laboratory and field conditions. Atmospheric Environment. 31, 9, 1275-1284 (1997)
8. Nolte, C. et al. “Gas phase C2-C10 organic acids concentrations in the Los Angeles atmosphere”. Environmental Science Technology. 33, 4, 540-545 (1999)
9. Graedel, T. et al. “Copper patinas formed in the atmosphere - II. A qualitative assessment of mechanism”. Corrosion Science. 27 (7). 1987. p. 721-740.
10. Graedel, T. et al. “Copper patinas formed in the atmosphere - III. A semi-quantitative assessment of rates and constraints in the greater New York metropolitan area”. Corrosion Science. 27 (7). 1987. p. 741-769.
11. Puxbaum, H. et al. “Atmospheric concentrations of formic and acetic acid and related compounds in Eastern and Northern Austria” Atmospheric Environment. 22(12): 2841-2850, (1988).
12. Graedel, T. “Corrosion-related aspects of the chemistry and frequency of occurrence of precipitation”. Journal of the Electrochemical Society. Dec,. 2476 (1986).
13. Lopez-Delgado, A. et al. “Influence of the acetic and formic vapours on patinated artistic bronze” Journal of Materials Science Letters. 16, 776- 779 (1997).
14. Lopez-Delgado, A. et al. “A laboratory study of the effect of acetic Acid vapor on atmospheric copper corrosion”. Journal of the Electrochemical Society. 145 (12), 4140-4147(1998).
15. Lopez-Delgado, A. et al. “A comparative study on copper corrosion originated by formic and acetic vapours”. Journal of Materials Science. 36, 5203-5211 (2001).
16. Kirk-Othmer. Enciclopedia tematica de Qulmica. Editorial Ciencia y Tecnica. México. 1998.
17. Talbot, R., Andreae, M., Berresheim, H., Jacob, D. and Beecher, K. Sources and sinks of formic, acetic and pyruvic acids over central Amazonia: 2. Wet season. Journal of geophysical Review, 95, 16799-16812 (1990).
18. Servant, J. et al “Carboxylic monoacids in the air of Mayombe Forest (Congo): Role of the forest as source or sink”. Journal Atmospheric Chem. 12, 367-380 (1991)
19. Condon, S. and Cogan, T.M. “Stimulation of propionic acid bacteria by lactic acid bacteria in cheese manufacture”. Project Report, 2000, DPRC-32.
20. Galdner, M., Mingot, N., Emond, J. Ph. and Dublanchet, A. “Influence of fermentative products formed by bacteroides fragilis at different levels of redox”. Anaerobe Society of the Americas. Congress on Anaerobic Bacteria and Anaerobic Infections, Chicago, 1996
21. Kuchta, R.D., and Abeles, R.H. “Lactate reduction in Clostridium propionicum”. Journal of Biological Chemistry. 260, 24, 13181-13189 (1985).
22. Himmi, E.H., Bories, A., Barssaid, A. and Hassani, L. “Propionic acid fermentation of glycerol and glucose by Propionibacterium acids propionici and Propionibacterium freudenreichii ssp. Shemanii”. Applied Microbiology and Biotechnology, 53, 4, 435-440 (2000).
23. Koch, S. et-al. “Formation of new particles in the gas-phase ozonolysis of monoterpenes”. Atmospheric Environment. 34, 4031-4042 (2000)
24. Notoya, T. Materials Science Letters, 10, 389 (1991)
25. Zervas, E., Montagne, X. and Lahaye, J. “The influence of the gasoline formulation on specific pollutant emissions”. Journal of Air and Waste Magnagement Association. 49, 1304-1314 (1999).
26. Zervas, E. and Tazerout, M. “Organic acid emissions from natural-gasfed engines”. Atmospheric Environment, 34, 3921-3929 (2000)
27. Zervas, E., Montagne, X. and Lahaye, J. “Collection and analysis of organic acids in exhaust gas. Comparison of different methods”. Atmospheric Environment. 33, 4953-4962 (1999).
28. Lopez, B., Maclet, P., Person A., and Degobert, P. “Emissions diesel: analyse des pollutants non reglementes”. Pollution Atmosphere 29 (No special), 113-123 (1987)
29. Kawamura, K. et al “Determination of organic acids (C1-C10) in atmosphere, motor exhaust and engine oils”. Atmospheric Environment. 19, 1082-1086 (1985).
30. Knotková-Cermákova, D. and Vlĕková, J. “Corrosive effects of plastics, rubber and wood on metals in confined spaces”. British Corrosion Journal, 6, 17-22(1971).
31. Vilca-Melendez, H. and Aoki, I. Proc. of Corrosion in Electro-Electronic Equipment. Campinas, Brazil (2000).
32. Vilca-Melendez, H. Ensayos acelerados de Corrosão atmosferica do cobre por gas suljhidrico e acido acetico em camara de fluxo continuo de mixtura de gases com baixos teores de poluentes. Tese de doutorado. Escola Politecnica de Universidade de São Paulo. 2000.
33. Vilca-Melendez, H. and Aoki, I. “Development and construction of an atmospheric corrosion testing system that uses low pollutant concentrations”. Proceedings of NACE Brazil, Corrosion 99. Sao Paulo, September 22-24, 1999.
34. Vilca-Melendez, H. and Aoki, I. “Coulometric reduction potential of species grown on copper surfaces exposed to controlled atmospheres”. Proceedings of 15th International Corrosion Congress, Granada, Spain, September 22-27, 2002.
35. Aoki, I. et al. Coulometric reduction in the study of copper behaviour in atmospheres with low H2S and low relative humidity. Materials Science Forum. 289-292, 449-458 (1998).
36. Clarke, S. and Longhurst, E. “The corrosion of metals by acid vapours from wood”, Journal of Applied Chemistry. 11, November, 1961.
37. Peerson, D. and Leygraf, Ch. “Metal carboxylate formation during indoor atmospheric corrosion of Cu, Zn and Ni”. Journal of the Electrochemical Society. 142, (5), 1468-1477(1995).
38. Johannson, E., Leygraf, C. and Rendall, B. Characterization of corrosivity in indoor atmospheres with different metals and evaluation techniques”. British Corrosion Journal. 33, 1, 59-66 (1998)
39. Johansson, E. and Leygraf, C. “Corrosion measurements of silver and copper in indoor atmospheres using different evaluation techniques”. British Corrosion Journal, 34, 1, 27-33 (1999).
40. Black, L. and Allen, G. “Nature of lead patination”. British Corrosion Journal. 99, 34, No. 3, 192-197.(1999).
41. Forshaw, P. “A simulation study of underside lead corrosion”. Ph. D. thesis, University of Bristol, UK, 1995.
42. Wegner, D. “Lead corrosion in exhibition ship models” Nautical Research Journal, 43, 1, 32-41 (1998)
43. Bastidas, J. and Mora, E. “A laboratory study of mild steel vapour phase corrosion and its inhibition by dicyclohexylamine nitrite”. Canadian Metallurgy Quarterly. 37 (1), 57-65 (1998).
44. Vernon, W. J. Chem. Soc. 1934, 1853.
45. Graedel. T., McCrory-Joy, C. and Franey, J.P. “Potential corrosion of metals by atmospheric organic acids”. Journal of the Electrochemical Society. 133, 452-453 (1986).
46. Fukuda, et al. “Indoor corrosion of copper and silver exposed in Japan and ASEAN Countries”. Journal of the Electrochemical Society. 138(5), 1238-1243 (1991).
47. Notoya, T. “Effect of different types of alkylaldehide and crystal grain size on the morpholgy of a localized corrosion in copper tubes”. Journal of Materials Science Forum, 16, 1406-1409(1997)
48. Echavarria, A. Rueda, A., Echeverria, F., Arroyave, C., Bastidas, J and Cano, E. “Corrosion of copper in propionic acid vapor with high humidity content”. Proc. of the 15th International Corrosion Congress, Sept 2002, Grenada, Spain.
49. Nassau, K., Gallagher, P., Miller, A. and Graedel, T. “The characterization of patina components by x-ray diffraction and evolved gas analysis”. Corrosion Science. 27 (7), 669-684 (1987)
50. Muller, A. and McCroy, C. “Chromatographic analysis of copper patinas formed in the atmosphere”. Corrosion Science. 27(7), 695-701 (1987)
51. Graedel, T., Nassau, K. and Franey, J. “Copper patinas formed in the atmosphere -I. Introduction”. Corrosion Science. 27 (7), 639-657 (1987).