[1] Daloz, D., Steinmets, P., Corrosion Behavior of Rapidly Solidified Magnesium Aluminum-Zinc Alloys, Corrosion, 53, p. 944 (1997).
[2] Aragon, E., Cazenave-Vergez, L., Sebaound, A., Electrochemical Behaviour of Binary Al-Ga and Ternary Al-Zn-Ga Alloys as Function of Thermo-dynamic, British Corrosion Journal, 32, p. 121 (1997).
[3] Kulkarni, A. G., Gurrappa, I., Effect of Magnesium Addition on Surface Free Energy and Anode Capacity of Indium Activated Aluminium Alloys, British Corrosion Journal, 28, p. 67 (1993).
[4] Carroll, W. M., Breslin, C. B., Activation of Alu-minum in Cloride Solutions Contining Activator Ions, Corrosion Science, 33 (7), p. 1161 (1992).
[5] El Shayeb, H. A., Abd El Wahab, F. M., Zein El Abedin, S., Electrochemical Behaviour of Al, Al-Sn, Al-Zn and Al-Zn-Sn Alloys in Chloride Solutions Containing Stannous Ions, Corrosion Science, 43, p. 655 (2001).
[6] Munoz, A. G., Bessone, J. B., Effect of Different Anions on the Electrochemical Behavior of In, Electrochim. Acta, 43 (9), p. 1067 (1998).
[7] Munoz, A. G., Saidman, S. B., Bessone, J. B., Corrosion of an Al-Zn-In Alloy in Chloride Media, Corrosion Science, 44, p. 2171 (2002).
[8] Venugopal, A., Raja, V. S., Ac Impedance Study of the Activation Mechanism of Aluminum by Indium and Zinc in 3.5% NaCl Medium, Corrosion Science, 39, p. 2053 (1997).
[9] Munoz, A. G., Bessone, J. B., Cathodic Behavior of In in Aqueous Sodium Cloride Solutions, Electro-chim. Acta, 43 (14), p. 2033 (1998).
[10] Bresiln, C.B., Friery, L.P., The Synergistic Interaction between Indium and Zinc in the Activation of Aluminum in Aqueous Electrolytes, Corrosion Science, 36 (2), p.231 (1994).
[11] Srivastava, S. C., Ives, M. B., Dissolution of Inclu-sions in Low-Alloy Steel Exposed to Chloride-Containing Environments, Corrosion, 43, p. 687 (1987).
[12] Reboul, M. C., Gimenez, P. H., Rameau, J. J., Proposed Activation Mechanism for Al Anodes, Corrosion, 40, p. 366 (1984).
[13] Venugopal, A., Raja, V. S., Evidence of Dissolution Redeposition Mechanism in Activation of Aluminum by Indium, British Corr. Journal, 31 (4), p. 318 (1996).
[14] Venogupal, A., Sram, V., Evidence of Dissolution-Redeposition Mechanism in Activation of Alu-minium by Indium, British Corrosion Journal, 31, p. 46 (1996).
[15] Bresslin, C. B., Carrol, W. M., The Effect of Indium Precipitation on the Electrochemical Divalution of Al-In Alloys, Corrosion Science, 34 (7), p. 1099 (1993).
[16] Faghalyi, K., Scartleburg, D., Adverse Effect of Temperature on the Operating-Potential Behavior of Al-Zn-In alloys, Journal of Applied Electro-chemistry, 32, p. 410 (2002).
[17] Barbucci, A., Cerisola, G., Bruzzone, G., Saccone, A., Activation of Aluminium Anodes by the Presence of Intermetallic Compounds, Electrochemical Acta, 42, p. 2369 (1997).
[18] Salinas, D. R., Bessone, J. B., Munoz, A.G., Electro-chemical Behaviour of Al-5%Zn-0.1%Sn Sacrificial Anode in Aggressive Media: Influence of Its Alloying Elements and the Solidification Structure, Corrosion Science, 32, p. 665 (1991).
[19] Lin, J., Shih, H., Improvement of the Current Efficiency of Al-Zn-In Heat Anode by Treatment, Electrochemical Science and Technology, 134, p. 817 (1987).
[20] NACE Standard, TM0190-98, “Standard Test Method Impressed Current Laboratory Testing of Aluminum Alloy Anodes”, pp. 3-8 (1998).
[21] Bresslin, C. B., Carrol, W. M., The Effect of Indium Precipitation on the Electrochemical Divalution of Al-In Alloys, Corrosion Science, 34 (7), p. 1099 (1993).
[22] Bessone, J. B., Suarez Baldo, R. A., Sea Water Testing of Al-Zn-Sn and Al-Zn-In Sacrificial Anodes, Corrosion Science, , 88, p. 453 (1981).
[23] Morgan, J. H., “Cathodic Protection”, 2nd ed., Texas, National Association of Corrosion Engineers (NACE), pp. 113-144 (1993).
[24] Shreir, L. L., Corrosion Control of Steel, Corrosion, 2, p. 11 (1978).