Corrosion and wear resistance behaviors of electroless Ni–Cu–P–TiN composite coating

Composite coating of Ni–Cu–P alloys containing TiN particles was prepared by electroless technique based on the excellent wear resistance of TiN and better anti-corrosion property of electroless Ni–Cu–P alloys on carbon steel surfaces. Electrochemical method which uses Tafel polarization curves was...

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Veröffentlicht in:Rare metals 2022-09, Vol.41 (9), p.3233-3238
Hauptverfasser: Zhou, Hong-Ming, Jia, Yang, Li, Jian, Yao, Shu-Heng
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creator Zhou, Hong-Ming
Jia, Yang
Li, Jian
Yao, Shu-Heng
description Composite coating of Ni–Cu–P alloys containing TiN particles was prepared by electroless technique based on the excellent wear resistance of TiN and better anti-corrosion property of electroless Ni–Cu–P alloys on carbon steel surfaces. Electrochemical method which uses Tafel polarization curves was carried out to study the corrosion performance of the coating. The results indicate that the anti-corrosion ability of the Ni–Cu–P–TiN composite coating (7.92 μA) is almost doubled compared with that of the as-coated Ni–P (13.60 μA). Furthermore, heat treatment results in first increase and then decrease in anti-corrosion ability. And the Ni–Cu–P–TiN composite coatings heat-treated for 40 min have maximum hardness of HV 960 and a self-corrosion current of 28.20 μA. The friction coefficient of electroless composite coatings was measured by end-facing tribometer. It is found that the friction coefficient of the Ni–Cu–P–TiN composite coating decreases apparently compared with those of Ni–P and Ni–Cu–P electroless coatings.
doi_str_mv 10.1007/s12598-015-0663-6
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Electrochemical method which uses Tafel polarization curves was carried out to study the corrosion performance of the coating. The results indicate that the anti-corrosion ability of the Ni–Cu–P–TiN composite coating (7.92 μA) is almost doubled compared with that of the as-coated Ni–P (13.60 μA). Furthermore, heat treatment results in first increase and then decrease in anti-corrosion ability. And the Ni–Cu–P–TiN composite coatings heat-treated for 40 min have maximum hardness of HV 960 and a self-corrosion current of 28.20 μA. The friction coefficient of electroless composite coatings was measured by end-facing tribometer. 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Electrochemical method which uses Tafel polarization curves was carried out to study the corrosion performance of the coating. The results indicate that the anti-corrosion ability of the Ni–Cu–P–TiN composite coating (7.92 μA) is almost doubled compared with that of the as-coated Ni–P (13.60 μA). Furthermore, heat treatment results in first increase and then decrease in anti-corrosion ability. And the Ni–Cu–P–TiN composite coatings heat-treated for 40 min have maximum hardness of HV 960 and a self-corrosion current of 28.20 μA. The friction coefficient of electroless composite coatings was measured by end-facing tribometer. 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Electrochemical method which uses Tafel polarization curves was carried out to study the corrosion performance of the coating. The results indicate that the anti-corrosion ability of the Ni–Cu–P–TiN composite coating (7.92 μA) is almost doubled compared with that of the as-coated Ni–P (13.60 μA). Furthermore, heat treatment results in first increase and then decrease in anti-corrosion ability. And the Ni–Cu–P–TiN composite coatings heat-treated for 40 min have maximum hardness of HV 960 and a self-corrosion current of 28.20 μA. The friction coefficient of electroless composite coatings was measured by end-facing tribometer. It is found that the friction coefficient of the Ni–Cu–P–TiN composite coating decreases apparently compared with those of Ni–P and Ni–Cu–P electroless coatings.</abstract><cop>Beijing</cop><pub>Nonferrous Metals Society of China</pub><doi>10.1007/s12598-015-0663-6</doi><tpages>6</tpages><orcidid>https://orcid.org/0000-0002-3703-7259</orcidid></addata></record>
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subjects Biomaterials
Carbon steels
Chemistry and Materials Science
Coefficient of friction
Copper
Corrosion currents
Corrosion prevention
Corrosion resistance
Corrosion tests
Corrosive wear
Electroless coatings
Energy
Heat treatment
Materials Engineering
Materials Science
Metallic Materials
Nanoscale Science and Technology
Nickel
Physical Chemistry
Wear resistance
title Corrosion and wear resistance behaviors of electroless Ni–Cu–P–TiN composite coating
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