Wear and thermal fatigue properties of Ni60A/Cr3C2 coating prepared by PTA welding on H13 steel

doi:10.13251/j.issn.0254-6051.2020.10.034

Abstract

Abstract: Ni60A/Cr₃C₂ surfacing coating was prepared on the surface of H13 steel by plasma transferred arc welding (PTA) technology, and its wear behavior and thermal fatigue properties were investigated. The results of pin-on-disk wear tests at 600 ℃ show that the wear resistance of the Ni-based Cr₃C₂-reinforced coating, is 2.8 times of that non-reinforced, and 11.6 times of that of the H13 steel. The nickel-based coating can significantly reduce the friction coefficient of H13 steel, and the addition of Cr₃C₂ will weaken the friction performance of the coating. The main wear mechanism evolves from oxidative wear to abrasive wear and adhesive wear as the wear progresses. The results of thermal fatigue test at 800 ℃ to room temperature show that the fatigue crack reaches 200 μm after 48 thermal cycles for the Ni-based Cr₃C₂-reinforced coating, earlier than after 62 cycles for the non-reinforced Ni-based coating. High temperature oxidation promotes the initiation of thermal fatigue cracks. The Cr₃C₂ reinforcing phase is peeled off from the Ni-based substrate, resulting in a decrease in thermal fatigue properties.

Key words: chromium carbide, powder plasma transferred arc welding, wear, thermal fatigue

CLC Number:

TG115.5

Liu Qingyang, Wang Huajun, Hong Feng, Zhu Chundong, Wang Zhehan. Wear and thermal fatigue properties of Ni60A/Cr₃C₂ coating prepared by PTA welding on H13 steel[J]. Heat Treatment of Metals, 2020, 45(10): 175-179.

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Wear and thermal fatigue properties of Ni60A/Cr₃C₂ coating prepared by PTA welding on H13 steel

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