Test for Anticorrosive Properties of Packing Paper under the Conditions of Increased Humidity and Presence of Chlorides

Abstract:

During transportation, long-term storage and operation metal products are exposed to atmospheric corrosion that leads to billions of losses every year. The urgency of the problem being investigated is due to the fact that export of metal products is mainly carried out by sea through regions with humid tropical climate. The search for new packaging materials is a significant trend in corrosion control. The research of effective corrosion inhibitors that are capable to protect all kinds of metals, such as steel, zinc, copper, aluminum, is actually carried out, as well as the process of development of getting the packaging materials containing the corrosion inhibitors. The purpose of this paper was a research of anticorrosive properties of experimental packaging papers under increased humidity and in the presence of chloride of sodium. In this paper the test conditions which, correspond to the handling conditions of steel products through the zones with tropical climate, were simulated. The studies research found out that the experimental patented corrosion inhibitors do not take protective effect on galvanized steel. The generated corrosion products are incoherent, weakly coupled with metal and easily fall off (crumble), that results in metal loss.

• Periodical: Solid State Phenomena (Volume 299)
• Pages: 1208-1212
• DOI: https://doi.org/10.4028/www.scientific.net/SSP.299.1208
• Online since: January 2020
• Authors: Lyudmila G. Kolyada*, Elena V. Tarasyuk, N.I. Baryshnikova
• Keywords: Chloride of Sodium, Combined Packaging Materials, Corrosion, Galvanized Steel, Protective Properties, Volatile Corrosion Inhibitors

References

[1] L.G. Kolyada, E.V. Tarasyuk, A.P. Ponomarev, V.R. Vafin, The Analysis of the Modern Packaging Materials for the Metal Products, Iron and Steel Industry. 6 (1410) (2017) 61-73.

[2] I.V. Semenova, Corrosion and Corrosion Protection, Physamatlit, Moscow, (2002).

[3] I.L. Rosenfeld, V.P. Parsiantseva, Atmospheric Corrosion Inhibitors, Nauka, Moscow, (1985).

[4] V.V. Kharionovskiy, Сorrosion protection of gas-main pipelines: modern methods and instruments, Corrosion: Materials, Protection. 5 (2017) 41-48.

[5] R.G. Kelly, J.R. Scully, D.W. Shoesmith, R.G. Buchheit, Electrochemical Techniques in Corrosion Science and Engineering, New York, Marcel Dekker, Inc., (2003).

[6] E.J. Talbot David, D.R. Talbot James, Corrosion Science and Technology, Boca Raton, CRC Press, (2018).

[7] V.L. Steblyanko, A.P. Ponomarev, Improvement of zinc coating service properties on the basis of formation its structure features in plasma-electrolytic surface treatment. Vestnik of Nosov Magnitogorsk State Technical University. 3 (2012) 37–41.

[8] Tiwari A.A Topical review on hybrid quasi-ceramic coatings for corrosion protection // Corrosion Reviews. 36 (2) (2017) 117–125.

DOI: 10.1515/corrrev-2017-0008

[9] A.N. Rogova, A.V. Rasumkov, Modern Methods of Metal Product Protection against Corrosion with Multi-Layer Combined Materials, Transport and Consumer Packaging. 6 (2002) 44-47.

[10] L.G. Kolyada, L.R. Salikhova, O.M. Katyushenko, The study of protective properties of combined packaging materials. Vestnik of Nosov Magnitogorsk State Technical University. 1 (2007) 110–112.

[11] L.G. Kolyada, E.V. Tarasyuk, S.A. Krylova, Modern packaging materials for steel products. Solid State Phenomena. 265 (2017) 1040–1047.

DOI: 10.4028/www.scientific.net/ssp.265.1040

[12] L.S. Pinchuk, A.S. Neverov, Polymer Films Containing Corrosion Inhibitors, М., Chemistry, (1993).

[13] E.V. Malakhov, V.A. Karpov, T.O. Yakubovskaya, Polymer films with LIK for metal product protection during storage. Corrosion: Materials, Protection. 8 (2004) 16–18.

[14] L.G. Kolyada, E.V. Tarasyuk, N.L. Kalugina, Technology of packing materials for metal products, Solid State Phenomena. 870 (2016) 454-459.

DOI: 10.4028/www.scientific.net/msf.870.454

[15] S.R. Filippov, O.R. Kharin, Material for Package with Volatile Corrosion Inhibitor, RU 2287466 (2006).

[16] Х. Zhang, W. He, I.O. Wallinder, J. Pan, C. Leygraf, Determination of instantaneous corrosion rates and run-off rates of copper from naturally patinated copper du-ring continuous rain events, Corrosion Science. 44 (9) (2002) 2131-2151.

DOI: 10.1016/s0010-938x(02)00015-x

[17] L.I. Antropov, E.M. Makushin, V.F. Panasenko, Metal Corrosion Inhibitors, Technika, Kiev, (1981).

[18] S. Keller, G. Reinhard, Packaging Materials Containing Volatile Corrosion Inhibitors. Protection Concept, Corrosion: Materials, Protection. 8 (2015) 24-34.

[19] D.M. Bastidas, E. Cano, E.M. Mora, Volatile corrosion inhibitors: a review, Anti-Corrosion Methods and Materials. 52 (2) (2005) 71-77.

DOI: 10.1108/00035590510584771

[20] А.А. Mikhaylov, P.V. Strekalov, Yu. M. Panchenko and others Atmospheric Metal Corrosion in Regions with Tropical and Subtropical Climate, Corrosion: Materials, Protection. 6 (2006) 2-11.

[21] Yu.I. Panchenko, P.V. Strekalov, Formation, Promotion and Removal of Atmospheric Metal Corrosion Products. Model of Integral Mass of Product Formation, Metal Protection. 41 (4) (2005) 402–416.