Properties and Structure Electrodeposition Alloys and Composite Electrochemical Coatings of Nickel-Based

Abstract:

The physicomechanical properties and morphology of composite electrochemical coatings (CEC) nickel-cobalt-nanodiamond from a chloride electrolyte-colloid of optimal composition have been investigated. For this CEC, microhardness (21-25 GPa) and internal compressive stresses (150-210 GPa) were determined. The study of wear and the Corrodcoot-test of the CEC showed a higher wear resistance (1,5 times) and the protective ability (2-3 times) of the CEC in comparison with chrome coatings. Studies of the CEC morphology and the nickel-cobalt alloy showed that the roughness of the resulting deposits, in comparison with nickel coatings, is 10 times less, and the fractal dimension of the coating surface is of the greatest importance. The cubic type of the nickel-cobalt-nanodiamond CEC lattice is established. The leveling effect on the structure of galvanic deposits of nanodiamond introduced from outside, as well as of microheterogeneous nickel and cobalt compounds formed in the electrolyte-colloid, has been determined.

• Periodical: Materials Science Forum (Volume 1083)
• Pages: 159-164
• DOI: https://doi.org/10.4028/p-3e2m5t
• Online since: April 2023
• Authors: K.V. Ovchinnikova, I.Y. Zhukova, L.A. Degtyar*
• Keywords: Corrosion Resistance, Electrochemical Coatings, Internal Stress, Microhardness, Morphology of Coatings, Wear Resistance

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