ISSN 0430-6252. Physicochemical Mechanics of Materials. 2022.
Volume 58, Issue 4

Comparative study of corrosion activity of bright and matte nickel platting in solutions and vapour of acetic acid

Keywords

acetic acid, nickel, corrosion, nickel sulfides, oxygen depolarization.

Cite as

Uschapovskyi D. Y., Linyucheva O. V., Kushmyruk A. I., Red’ko R. M., and Pidvashetskyi G. Y. Comparative study of corrosion activity of bright and matte nickel platting in solutions and vapour of acetic acid. Physico­chemical Mechanics of Materials. 2022. 58(4), 105-112.

Abstract

Corrosion behavior of matte and bright galvanic nickel coatings in solutions and vapors of acetic acid has been studied. It has been shown that corrosion of the corresponding mate­rials in the studied media occurs with oxygen depolarization. The rate of anodic dissolu­tion of bright nickel deposits in acetic acid solutions is higher than that of matte, due to the effect of sulfur on the continuity of the passive film on bright nickel deposits and their passivation ability. Based on EDX and XRD studies, the formation of corrosion products on the surface of bright nickel deposits in the form of nickel acetate and a film of nickel sulfides of variable stoichiometric composition during the exposition to acetic acid solu­tions and vapour has been shown. It is found that the stoichiometric composition of sulfide corrosion products changes in the direction of increasing sulfur content from Ni3S2 to Ni3S4 with prolonged exposure of the studied bright nickel deposits to vapour or solutions of acetic acid.

References

  1. J. Oudar, and P. Marcus, “Role of adsorbed sulphur in the dissolution and passivation of nickel and nickel-sulphur alloys,” Applications of Surf. Sci.3, Is. 48–67 (1979).
  2. M. Kouncheva, G. Raichevski, S. Vitkova, and M. Prazak, “The effect of sulphur and carbon inclusions on the corrosion resistance of electrodeposited Ni-Fe alloy coatings,” Surf. and Coat. Techn.31, Is. 2, 137–142 (1987).
  3. P. Marcus, and H. Talah, “The sulphur-induced breakdown of the passive film and pitting studied on nickel and nickel alloys,” Corr. Sci.29, Is. 4, 455–463 (1989).
  4. P. Marcus, A. Teissier, and J. Oudar, “The influence of sulphur on the dissolution and the passivation of a nickel-iron alloy-I. electrochemical and radiotracer measurements,” Corr. Sci.24, Is. 4, 259–268 (1984).
  5. P. Marcus, I. Olefjord, and J. Oudar, “The influence of sulphur on the dissolution and the passivation of a nickel-iron alloy-II. surface analysis by ESCA,” Corr. Sci.24, Is. 4. 269–278 (1984).
  6. T. Osaka, T. Sawaguchi, F. Mizutani, T. Yokoshima, M. Takai, and Y. Okinakab, “Effects of saccharin and thiourea on sulfur inclusion and coercivity of electroplated soft magnetic CoNiFe film,” J. of the Electrochem. Soc.146, Is. 9, 3295–3299 (1999).
  7. I. Tabakovic, S. Riemer, K. Tabakovic, M. Sun, and M. Kief, “Mechanism of saccharin transformation to metal sulfides and effect of inclusions on corrosion susceptibility of electroplated CoFe magnetic films,” J. of the Electrochem. Soc.153, Is. 8, C586–C593 (2006).
  8. O. V. Liniucheva, M. I. Donchenko, D. Yu. Ushchapovskiy, R. M. Redko, and M. V. Byk, “Protection of steel parts from corrosion with Ni–W alloy galvanic coatings. Modern problems of Electrochemistry: Education, Science, Production” in: Collection of Sci. Papers, Publishing House of Kharkiv Politechical Institute, Kharkiv (2015).
  9. D. Y. Ushchapovskiy, S. V. Frolenkova, M. V. Byk, O. V. Linyucheva, T. I. Motronyuk, and V. V. Klus, “Effect of saccharin on corrosion resistance of bright Ni coatings under conditions simulating a wet tropical climate,” Materials today: Proceedings6, 171–177 (2019).
  10. D. Y. Ushchapovskiy, M. V. Byk, O. V. Linyucheva, S. V. Frolenkova, R. M. Red’ko, and V. V. Yakubenko, “Corrosion resistance of bright nickel coatings in the vapor of acetic acid,” Mater. Sci.55, No. 5, 656–663 (2020).
  11. Search RRUFF Sample Data, https://rruff.info/d/R061074
  12. G. E. Badea, and T. Badea, “Electrochemical behavior of nickel in aqueous acetic acid solutions”, Revue Roumaine de Chimie53, Is. 4, 291–295 (2008).
  13. J. Lozar, B. Bachelot, G. Falgayrac, and A. Savall, “Diffusivity and solubility measurement of oxygen in water-acetic acid-sodium acetate solutions on a rotating ring disc electrode,” Electrochimica Acta43, Is. 21–22, 3293–3296 (1998).
  14. P. Marcus, Corrosion Mechanisms in Theory and Practice, CRC Press, Taylor & Francis Group (2012).
  15. P. Marcus, and E. Protopopoff, “Potential pH diagrams for sulfur and oxygen adsorbed on nickel in water at 25 and 300°C”, J. Electrochem. Soc.140, Is. 6, 1571–1575 (1993).
  16. F. Zaza, C. Paoletti, R. LoPresti, E. Simonetti, and M. Pasquali, “Studies on sulfur poisoning and development of advanced anodic materials for waste-to-energy fuel cells applications,” J. of Power Sources195, Is. 13, 4043–4050 (2010).
  17. B. Yan, D. Krishnamurthy, C. H. Hendon, S. Deshpande, Y. Surendranath, and V. Viswanathan, “Surface restructuring of nickel sulfide generates optimally coordinated active sites for oxygen reduction catalysis,” Joule1, Is. 3, 600–612 (2017).
  18. W. Iwaya, S. Takase, and Y. Shimizu, “Wet-chemical preparation and oxygen reduction properties of nickel-based sulfide electrocatalysts for polymer electrolyte fuel cell”, Electrochemistry79, Is. 5, 364–366 (2011).
  19. J. M. Falkowski, N. M. Concannon, B. Yan, and Y. Surendranath, “Heazlewoodite, Ni3S2: A potent catalyst for oxygen reduction to water under benign conditions,” J. Am. Chem. Soc.137, Is. 25, 7978–7981 (2015).
  20. B. Yan, N. M. Concannon, J. D. Milshtein, F. R. Brushett, and Y. Surendranath, “A membrane-free neutral pH formate fuel cell enabled by a selective nickel sulfide oxygen reduction catalyst,” Angewandte Chemie – International Edition56, Is. 26 496–7499 (2017)