DEGRADATION FEATURES OF ION-PLASMA NITRIDE COATINGS UNDER SLIDING FRICTION

The paper studies nitride coatings of the TiAlN and CrAlSiN systems with a thickness of 0.8…4.0 μm deposited by the vacuum ion-plasma technology. Specimens of nitrided 38Cr2MoAlN steel and carburized 12Cr2Ni4N steel were used as substrates for coating deposition. Experimental data are derived on the physical and mechanical properties of the coatings by various indentation methods, including scratch tests, as well as on their tribological properties in sliding friction tests. The results of microstructural (SEM) and energy-dispersive X-ray (EDX) analysis of the coatings are also presented, including electron microscopic data on coating wear in tribological tests. It is shown that none of the physical and mechanical characteristics (hardness H , elastic modulus E , and their ratios H / E , H 3/ E 2) determined by continuous or dynamic (for example, critical load for coating spallation in scratch tests) indentation can separately describe the wear resistance of a coating under the test conditions. This is the methodological problem that does not allow an accurate prediction of the coating wear. The problem is solved by the joint use of the calculated specific work of coating delamination from the substrate G and the coating resistance to plastic deformation H 3/ E 2, which together determine not only the coating degradation process, but also the loss of stability of the entire coating-substrate system.

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Publication Details

Journal
Fizicheskaya Mezomekhanika
Published
2025-01-01
DOI
https://doi.org/10.55652/1683-805x_2025_28_3_22-34
Primary Topic
Metal and Thin Film Mechanics
Type
article
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article

DEGRADATION FEATURES OF ION-PLASMA NITRIDE COATINGS UNDER SLIDING FRICTION

D. S. Manturov, I.V. Kolesnikov, Oleg V. Kudryakov, В. И. Колесников
1 links
Fizicheskaya Mezomekhanika
Metal and Thin Film Mechanics
article

DEGRADATION FEATURES OF ION-PLASMA NITRIDE COATINGS UNDER SLIDING FRICTION

D. S. Manturov, I.V. Kolesnikov, Oleg V. Kudryakov, В. И. Колесников
article en

Abstract

The paper studies nitride coatings of the TiAlN and CrAlSiN systems with a thickness of 0.8…4.0 μm deposited by the vacuum ion-plasma technology. Specimens of nitrided 38Cr2MoAlN steel and carburized 12Cr2Ni4N steel were used as substrates for coating deposition. Experimental data are derived on the physical and mechanical properties of the coatings by various indentation methods, including scratch tests, as well as on their tribological properties in sliding friction tests. The results of microstructural (SEM) and energy-dispersive X-ray (EDX) analysis of the coatings are also presented, including electron microscopic data on coating wear in tribological tests. It is shown that none of the physical and mechanical characteristics (hardness H , elastic modulus E , and their ratios H / E , H 3/ E 2) determined by continuous or dynamic (for example, critical load for coating spallation in scratch tests) indentation can separately describe the wear resistance of a coating under the test conditions. This is the methodological problem that does not allow an accurate prediction of the coating wear. The problem is solved by the joint use of the calculated specific work of coating delamination from the substrate G and the coating resistance to plastic deformation H 3/ E 2, which together determine not only the coating degradation process, but also the loss of stability of the entire coating-substrate system.

Fizicheskaya MezomekhanikaVol. 3
Openalex Percentile: Top 80%
Metal and Thin Film Mechanics
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