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209:2010: Alumínio e suas ligas – composição química. Rio de Janeiro, 2010.

ASSOCIAÇÃO BRASILEIRA DO ALUMÍNIO. 2ª. Ed. Laminação. São Paulo. (Guia Técnico do Alumínio, vol. 1), 2004, 176p.

Industrial and Engineering Chemistry. V. 44, n. 8, p. 1791-1795, 1952.

BADAWY, W.A., KHARAFI-AL, F.M., AZAB-EL, A.S. Electrochemical behaviour and corrosion inhibition of Al, 6061 an Al-Cu in neutral aqueous Solutions. Corrosion Science. V. 41, p. 709-727, 1999.

BAUMGÄRTNER, M., KAESCHE, H. Aluminum pitting in chloride solutions: morphology and pit growth kinetics. Corrosion Science. V. 31, p. 231- 236, 1990. BESSONE, J.B., SALINAS, D.R., MAYER, C.E., EBERT, M., LORENZ, W.J. An EIS study of aluminium barrier-type oxide films formed in different media.

Electrochimica Acta. Vol. 37, n12, p. 2283-2290, 1992

BETHENCOURT, M., BOTANA, F.J., CALVINO, J.J., MARCOS, M., PÉREZ J., RODRÍGUEZ M. A., The influence of the surface distribution of Al6(MnFe) intermetallic on the electrochemical response of AA5083 aluminum alloy in NaCl solutions. Materials Science Forum.Vol. 289-292, p. 567-574, 1998.

BETHENCOURT, M., BOTANA, F.J., MARCOS, M., AMAYA-SÁNCHES, ROVIRA-GNZÁLES. Behaviour of the alloy AA2017 in aqueous solutions of NaCl: part I: corrosion mechanisms. Corrosion Science, 51, p.518-524, 2009. BINGER, W. W., HOLLINGSWORTH, E. H., SPROWLS, D. O., In: K.R. Van Horn (Ed.), Aluminum, vol. 1: Properties Physical Metallurgy and Phase

Diagrams, ASM, Ohio, 1967.

BIRBILIS, N. BUCHHEIT, R.G. Electrochemical characteristics of intermetallic phases in aluminum alloys. Journal of the Electrochemical Society. 152 (4), p. B140-B151, 2005.

BIRBILIS, N., CAVANAUGH, M.K., BUCHHEIT, R.G. Electrochemical behavior and localized corrosion associated with Al7Cu2Fe particles in aluminum alloy 7075- T651. Corrosion Science, 48, p.4202-4215, 2006

BLANC, CH., MANKOWSKI, G. Pit propagation rate on the 2024 and 6056 aluminium alloys. Corrosion Science. Vol. 40, nº 2/3, p. 411-429, 1998

BRANDT, J.L. Properties of pure aluminum. In: HATCH, J.E. (Ed.). Aluminum:

properties and physical metallurgy. Metals Park, Ohio: ASM, 1990. ch.1, p. 1-24.

BROWN, O.R, WHITLEY, J.S. Electrochemical behaviour of aluminium in aqueous caustic solutions. Electrochimica Acta. Vol. 32, nº 4, 1987, p. 545-556. BUCHHEIT, R.G. A compilation of corrosion potentials reported for intermetallic

phases in aluminum alloys. Journal of the Electrochemical Society. Pennington, v. 142, n. 11, p. 3994 – 3996, 1995.

BUCHHEIT, R.G., MARTINEZ, M.A., MONTES, L.P., Evidence for Cu ion formation by dissolution and dealloying of the Al2CuMg intermetallic compound in rotating ring-dish collection experiments. Journal of the Electrochemical Society. V. 147, n 1, p. 119, 2000.

BUCHHEIT, R.G.; MONTES, L.P.; MARTINEZ, M.A.; MICHAEL, J.; HLAVA, P.F. The electrochemical characteristics of bulk-syntherized Al2CuMg. Journal of

the Electrochemical Society. V.146, n12, p.4424-4428, 1999.

BÜCHLER, M., WATARI, T., SMYRL, W.H. Investigation of the initiation of localized corrosion on aluminum alloys by using fluorescence microscopy.

Corrosion Science. V. 42, n 9, p. 1661- 1668, 2000.

BUZZA, D.W, ALKIRE, R.C. Growth of corrosion pits on pure aluminum in 1M NaCl. Journal of the Electrochemical Society. V.142, n 4, p. 1104 -1111, 1995. CODARO, E.N., NAKAZATO, R.Z., HOROVISTIZ, A.L, RIBEIRO, L.M.F., RIBEIRO, R.B., HEIN, L.R.O. An image analysis study of pit formation on Ti- 6Al-4V. Materials Science & Engineering. A341, p.202-210, 2003.

CODARO, E.N., NAKAZATO, R.Z., HOROVISTIZ, A.L., RIBEIRO, L.M.F., RIBEIRO, R.B., HEIN, L.R.O. An image processing method for morphology characterization and pitting corrosion evaluation. Materials Science &

Engineering. A334, p.298-306, 2002.

COUTINHO, T. A. Metalografia de não-ferrosos: análise e prática. São Paulo: Editora Edgard Blücher Ltda, 1980.

DAGUENET, M., FROMENT, M., EPELBOIN, I. Sur letude avec electrode a disque tournant de la diffusion convective au cours du polissage electrolytique de laluminium. Comptes Rendus Hebdomadaires des Seances de L Academie des

Sciences. V. 258, n14, p. 3694-&, 1964.

DATTA, M., LANDOLT, D. Electrochemical machining under pulsed current conditions. Journal of the Electrochemical Acta. V. 26, n 7, p.899-907, 1981. DATTA, M., LANDOLT, D. Surface brightening during high rate nickel dissolution in nitrate electrolytes. Journal of the Electrochemical Society. V. 122, nº 11, 1446-1472, 1975.

corrosion in a high purity aluminum-zinc-magnesium alloy in unstressed condition.

NACE-3, National Association of Corrosion Engineers, Localized Corrosion,

R.W. STAEHIA, and B.F. BROWN. Eds., Houston, Texas, USA, 1974, p.608-613, 1974.

DAVIS, J.R. (Ed.). Properties of aluminum and aluminum alloys. In:_. ASM

specialty handbook: Aluminum and aluminum alloys. Metals Park, Ohio: ASM

International, 2002, p. 577-731.

EDWARDS, J. Processes preceding the establishment of polishing conditions.

Journal of the Electrochemical Society. V. 100, nº 7, p. C189-C194, 1953 a).

EDWARDS, J. The mechanism of electropolishing of copper in phosphoric acid solutions. Journal of the Electrochemical Society. V. 100, nº 8, p. C223-C230, 1953 b).

ENGELHARDT, G., MACDONALD-U, M., MACDONALD, D.D. A simplified method for estimating corrosion cavity growth rates. Corrosion Science. V. 38, n 9, p.1631-1635, 1996.

EPELBOIN, I. Uber den mechanismus des elektropolierens. Zeitschrift Fur

Elektrochemie. V. 62, n 6-7, p. 813-818, 1958.

ERNEST, P., N.J., LAYCOCK, M.H. MOAYED, NEWMAN, R.C. The mechanism of lacy cover formation in pitting. Corrosion Science. V. 39, 1133- 1136p, 1997.

FIGOUR, H., JACQUET, P.A, French Patent Nº 707526, 1930.

FOLEY, R., NGUYEN, N. The chemical nature of aluminum corrosion. Journal

of the Electrochemical Society. V. 129, n 3, p. 464-467, 1982.

FOLEY, R.T. Localized corrosion of aluminum alloy – A Review, Corrosion. V. 42, n 5, p. 277-288, 1986.

FRANKEL, G.S. In: Proceedings of the second international conference on

localized corrosion, Advances in localized corrosion, NACE 9, ed. H. Isaacs U.

Bertocci, J. Kruger and S. Smialowska. Orlando, Florida, p. 137-140, 1987.

FRANKEL, G.S., STOCKERT, L., HUMKELER, F., BOHNI, H. Metastable pitting of stainless steel. Corrosion. V. 43, p.429-436, 1987.

n 5, p.415-421, 1972.

GALVELE, J.R. Transport processes and the mechanism of pitting of metals.

Journal of the Electrochemical Society. V. 123, n 4, p. 464-474, 1976.

GALVELE, J.R., DE MICHELI, S.M. DE., MULLER, I.L., WEXLER, S.B., ALANIS, I.L. Critical potentials for localized corrosion of aluminum alloys.

NACE-3, National Association of Corrosion Engineers, Localized Corrosion,

R.W. STAEHIA, and B.F. BROWN. Eds., Houston, Texas, USA, p.580-599, 1974. GAO, M.; FENG, C.R.; WEI, R.P. An analytical electron microscopy study of constituent particles in commercial 7075-T6 and 2024-T3 alloys. Metallurgical

and Materials Transactions A. V. 29, n 4, p.1145-1151, 1998.

GEMELLI, E. Corrosão de materiais metálicos e sua caracterização. Rio de Janeiro: LTC Editora, 2000. 183p.

GENTIL, V. Corrosão. Rio de Janeiro: 3ª ed., LTC - Livros Técnicos e Científicos Editora S. A., 1996. 345 p.

GODARD, H.P. The corrosion behavior of aluminum in natural waters. Can. J.

Chem. Eng. 21, 167, 1960: 104.

GOTO, K., SHIMIZU, Y., ITO, G. Effect of metallurgical factors on the initiation of pitting corrosion of aluminum in fresh-water. Transactions of National

Research Institute for Metals. V. 22, n 4, p.270-276, 1980.

GUILLAUMIN, C., GUERIAU, J. Quantitative measurement and shape characterization of pits with an image analyzer, Proceedings of the International

Metallography Conference – MC95, ASM, Colmar, France, p. 59-64, 1995.

GUILLAUMIN, V., MANKOWSKI, G. Localized corrosion of 2024 T351 aluminum alloy in chloride media. Corrosion Science. Vol. 41, p.421-438, 1999. HATCH, J.E. Aluminum: Properties and physical metallurgy. Ohio: American Society for Metals (ASM), Metals Park, 1984. 424p.

HOAR, T.P, FARTHING, T.W. Solids films on electropolishing anodes. Nature. V. 169, n 4295, p. 324-325, 1952.

HOAR, T.P. Bright pitting. NACE-3, National Association of Corrosion Engineers, Localized Corrosion, R.W. STAEHIA, and B.F. BROWN. Eds.,

HOAR, T.P., MEARS, D.C. Corrosion-resistant alloys in chloride solutions: materials for surgical implants. Proceedings of the Royal Society of London.

Series A, Mathematical and Physical Sciences. V. 294, n 1439, Oct. 18, p. 486-

510, 1966.

HOAR, T.P., MEARS, D.C., ROTHWELL, G.P. The relationships between anodic passivity, brightening and pitting. Corrosion Science. V. 5, n 4, p. 279-289, 1965. HOAR, T.P., MOWAT, J.A.S. Mechanism of electro-polishing. Nature. V. 165, nº 4185, p. 64-65, 1950.

HUANG, T-S., FRANKEL, G.S. Influence of grain structure on anisotropic localized corrosion kinetics of AA7xxx-T6 alloys. Corrosion Engineering,

Science and Technology. V. 42, n 3, p 192-199, 2006.

ILEVBARE, G.O., SCHNEIDER, O., KELLY, R.G., SCULLY, J.R. In situ confocal laser scanning microscopy of AA 2024-T3 Corrosion Metrology. Journal

of the Electrochemical Society. 151 (8), p. B453-B464, 2004.

ILEVBARE, G.O., SCULLY, J.R. Mass transport limited oxygen reduction reaction rates on AA 2024-T3 and selected intermetallic compounds in chromate- containing solutions. Corrosion J., 57, p.134-152, 2001.

ISO 11463: International Standard: Corrosion of metals and alloy - Evaluation of

pitting corrosion, 1995, 1-10 p.

JACQUET, P.A. Electrolytic method for obtaining bright copper surfaces. Nature. V. 135, p. 1076-1076, 1935.

KAESCHE, H. Lecturer’s thesis. Berlin, 1962.

KAESCHE, H. Pitting corrosion of aluminum, and intergranular corrosion of aluminum alloys. NACE-3, National Association of Corrosion Engineers, Localized Corrosion, R.W. STAEHIA, and B.F. BROWN. Eds., Houston, Texas,

USA, p.516-525, 1974.

KOROLEVA, E.V., THOMPSON, G.E., HOLLRIGL G., BLOECK, M. Surface morphological changes of aluminum alloys in alkaline solution: effect of second phase material. Corrosion Science. 41, p. 1475-1495, 1999.

LANDOLF, D. Fundamental aspects of electropolishing. Journal of the

LEBLANC, P., FRANKEL, G.S. A study of corrosion and pitting initiation of AA2024-T3 using atomic force microscopy. Journal of the Electrochemical

Society. V.19, n 6, p. B239-B247, 2002.

LECLÈRE, T.J.R., NEWMAN, R.C. Self-regulation of the cathodic reaction kinetics during corrosion of AlCu alloys. Journal of the Electrochemical Society. V. 149, n 2, pp. B52-B56, 2002.

LIAO, C.M., OLIVE, J.M., GAO, M., WEI, R.P. In-situ monitoring of pitting corrosion in aluminum alloy 2024. Corrosion (Houston). V. 54, n 6, p. 451-458, 1988.

LYMAN, T. (ED.). Pure metals. In:_. Metals handbook: properties and selection

of metals. 8th ed. Metals Park, Ohio: ASM, 1961. Vol.1., p. 1197-1231.

MCTEGART, W. J. The electrolytic and chemical polishing of metals. Pergamon Press, London, 1956.

MENG, Q., FRANKEL, G.S. Effect of Cu content on corrosion behavior of 7xxx series aluminum alloys. Journal of the Electrochemical Society. V, 151, n 5, p.B271-B283, 2004.

MUÑOZ, A.G., BESSONE, J.B. Pitting of aluminum in non-aqueous chloride media. Corrosion Science. V. 41, n 7, p. 1447-1463, 1999.

MURR, L.E.; ANNAMALAI, V. Electron-microscopic study of nucleation and growth in electrochemical displacement-reactions-comparison of the Cu-Fe and Cu- Al cementation systems. Metallurgical Transaction B. V. 9, n 14, p.515-525, 1978.

MURRAY, G.A.W, LAMB, H.J., GODARD, H.P. H. P. Role of Iron in Aluminum on the Initiation of Pitting in Water. Br. Corrosion J. V. 2, p. 216, 1967.

NAKAZATO, R.Z., CODARO, E.N., RIBEIRO, L.M.F., HEIN, L.R. O. Qualitative and quantitative characterization of aluminum alloys after corrosion testing. Praktishe Metallographie – Practical Metallography, Munich. V. 38, n 6, 2001 b), p. 301-313, 2001 b).

NAKAZATO, R.Z., CODARO, E.N., RIBEIRO, L.M.F., HEIN, L.R.O. A Metallurgical study of aluminum alloys used as aircraft components. Praktishe

Metallographie – Practical Metallography, Munich.V. 38, n 2, p. 73-87, 2001 a).

containing iron. Journal of the Electrochemical Society.V.137, n 1, p.69-77,1990. OBISPO, H.M.; MURR, L.E.; ARROWOOD, R.M.; TRILLO, E. A . Copper deposition during the corrosion of aluminum alloy 2024 in sodium chloride solutions. Journal of Materials Science. V. 35, n.14, p.3479-3495, 2000.

PADILHA, A . F. Encruamento, recuperação, recristalização e textura do alumínio e suas ligas. In: SEMINÁRIO DE METAIS NÃO FERROSOS, 10º., 2002, São Paulo Anais ... São Paulo: 2002. p.493-521.

PARK, J.O., PAIK, C.H., ALKIRE, R.C. In: Natishan, P.M., Kelly, R.G., Frankel, G. S., Newman, R. C. (Eds.), Critical factors in localized corrosion II. The

Electrochemical Soc., Pennington, NJ, 1996.

PEREIRA, M.C. Efeito do tratamento térmico na resistência à corrosão das

ligas de alumínio 7010, 7050 e 7475 utilizadas na indústria aeronáutica, 2002,

101p. Dissertação (Mestrado em Engenharia Mecânica – Projetos e Materiais) – Faculdade de Engenharia do Campus de Guaratinguetá. Universidade Estadual Paulista Júlio de Mesquita Filho.

PISTORIUS, P.C., BURSTEIN, G. Aspects of the effects of electrolyte composition on the occurrence of metastable pitting on stainless steel. Corrosion Science. V. 36, n. 3, p.525-538, 1994.

PISTORIUS, P.C., BURSTEIN, G., Growth of corrosion pits on stainless steel in chloride solution containing dilute sulphate. Corrosion Science. V. 33, n 12, p.1885- 1897, 1992.

POLMEAR, I. J. Light alloys. London: 3ª ed., Arnold, 1995.

RAMANATHAN, L.V. Corrosão e seu controle. São Paulo: Hermus, 1988, 339 p. RIBEIRO, R.B. Análise morfológica de pites em aços inoxidáveis austeníticos

ABNT 304 e 310S submetidos à névoa salina. 2004. Tese (Doutorado em

Engenharia Mecânica – Projetos e Materiais) – Faculdade de Engenharia do Campus de Guaratinguetá. Universidade Estadual Paulista Júlio de Mesquita Filho. RICHARDSON, J.A., WOOD, G.C. A study of the pitting corrosion of Al by scanning electron microscopy. Corrosion Science. V. 10, n 5, p.313-323, 1970. ROSENFELD, J.L., MARSHAKOV, J.K. Mechanism of Crevice Corrosion.

Corrosion. V. 20, n 4, p. 115t-125t, 1964.

1985.

RYNDERS, M.R., PAIK, C.H., KE, R., ALKIRE, R.C.. Use of in situ atomic force microscopy to image corrosion at inclusions. Journal of the Electrochemical

Society. V. 141, n 6, p. 1439-1445, 1994.

SAUTEBIN, R., FROIDEVAUX, H., LANDOLT, D. Theoretical and experimental modeling of surface leveling in ECM under primary current distribution conditions.

Journal of the Electrochemical Society. V. 127, n 5, 1096-1100, 1980.

SAUTEBIN, R., LANDOLT, D. Anodic leveling under secondary and tertiary current distribution conditions. Journal of the Electrochemical Society. V. 129, nº 5, p. 946-953, 1982.

SCHNEIDER, O., ILEVBARE, G.O., KELLY, R.G., SCULLY, J.R. J. In situ confocal laser scanning microscopy of AA 2024-T3 corrosion metrology. Journal

of the Electrochemical Society. V. 151, n 8, p. B465-B472, 2004.

SCULLY, J.R., KNIGHT, T.O., BUCHHEIT, R.G., PEEBLES, D. E. Electrochemical characteristics of the Al2Cu, Al3Ta and Al3Zr intermetallic phases and their relevancy to the localized corrosion of Al alloys. Corrosion Science. V. 35, n 1-4, p. 185-195, 1993.

SEARLES, J.L., GOUMA, P.I., BUCHHEIT, R.C. Stress corrosion cracking of sensitized AA5083. Metall. Mater. Trans. A 32 A, p.2859, 2001.

SEDRILKS, A.J., GREEN, J.A.S., NOVAK, D.L. On the chemistry of the solution at tips of stress corrosion cracks in Al alloys. Corrosion. V. 27, n 5, p.198-202, 1971.

SERI, O; MASUKO, N. Anodic dissolution of intermetallic compounds in Al-Fe alloys. Journal of Japan Institute of Light Metals. V. 32, n 6, p. 303, 1982.

SHREIR, L.L. Corrosion: Metal - environment reactions. London, UK: Newnes- Butterwords, 1978. V. 1, p. 1-151.

SILVA J.W.J., . BUSTAMANTE A.G, CODARO E.N., NAKAZATO R.Z., HEIN L.R.O. Morphological analysis of pits formed on Al 2024-T3 in chloride aqueous solution. Applied Surface Science, New York, vol. 236, 2004, p. 356-365.

SILVA, J.W.J., E.N. CODARO, R.Z. NAKAZATO, L.R.O. HEI. Influence of chromate, molybdate and tungstate on pit formation in chloride medium. Applied

SMIALOWSKA, Z. S. Pitting Corrosion of Aluminum. Corrosion Science. V. 41, n 9, p.1743-1767, 1999.

SMIALOWSKA, Z. S. Pitting Corrosion of Metals, NACE: National Association of Corrosion Engineers, Houston, Texas, p.347, 1986.

Standard Guide for Examination and Evaluation of Pitting Corrosion, ASTM G46-

94, 1999, p. 169-175.

STARKE, E. A. Jr; STALEY, J.T. Application of modern aluminum alloys to aircraft. Progress Aerospace Sciences. V. 32, p. 132-172. 1996.

TOUSEK, J. Electropolishing of metals in alcoholic solution of sulphuric acid.

Electrochimica Acta. V. 22, n 1, p. 47-50, 1977.

TRIOLA, M. F. Introdução à estatística. 10ª Ed. Rio de Janeiro: LTC – Livros Técnicos e Científicos - Editora S.A., 2008.

TURNBULL, A., ZHOU, S. Pit to crack transition in stress corrosion cracking of a steam turbine disc steel. Corrosion Science. V. 46, p.1239-1264, 2004.

VERMILYCA, D.A. Concerning the critical pitting potential. Journal of the

Electrochemical Society. V. 118, n 4, p.529-531, 1971.

VIJH, A.K. The pitting potentials of metals: The case of titanium. Corrosion

Science. V. 13, n10, p. 805-806, 1973.

WEI, R. P., LIAO, C. M., GAO, M. A transmission electron microscopy study of constituent-particle-induced corrosion in 7075-T6 and 2024-T3 aluminum alloys.

Metallurgical and Materials Transactions A. V. 29, n.4, p. 1153-1160, 1988.

WILSON, J.F. Practice and theoty of electrochemical machining. Wiley, N.Y, 1971.

WOJNAR, J. Image Analysis: Application in materials engineering. New York: CRC Press LLC, 1999, p.245.

WONG, K.P., ALKIRE, R.C. Local chemistry and growth of single corrosion pits in aluminum. Journal of the Electrochemical Society. V. 137, n 10, p. 3010-3015, 1990.

WOOD, G.C., SUTTON, W.H, RICHARDSON, J.A, RILEY, T.N.K., MAHLERBE, A.G. The mechanism of pitting of aluminum and its alloys. NACE-

STAEHIA, and B.F. BROWN. Eds., Houston, Texas, USA, p.526-539, 1974.

YOUNG, R.D., TEAGUE, E.C. Properties of electrodeposits (Edited by R. Sard, H. Leidheiser and F. Ogburn), p. 22. The Electrochemical Soc., Princeton, N.J. 1975.

ZANGRANDI, A. Alumínio e suas ligas: fundamentos metalúrgicos e