涂层
材料科学
真空电弧
弧(几何)
等离子体
沉积(地质)
冶金
复合材料
几何学
沉积物
数学
量子力学
生物
物理
古生物学
作者
А. А. Леонов,В. М. Савостиков,В. В. Денисов,Yu. A. Denisova,A. B. Skosyrsky,M. V. Savchuk,M. S. Syrtanov,A. V. Pirozhkov,А. Н. Шмаков
标识
DOI:10.1134/s1027451023070315
摘要
The paper presents the results of comparative study of the mechanical properties and heat resistance of a zirconium nitride mononitride coating and a multicomponent coating obtained by sequential and simultaneous deposition of zirconium and multicomponent cathode (titanium, boron, silicon, and nickel) in a nitrogen-containing medium. Multicomponent cathode was fabricated by self-propagating high-temperature synthesis with simultaneous pressing. The coatings were deposited on the hard alloy VK8 by the vacuum-arc plasma-assisted method. Material science studies of coatings included: measuring the thickness of coatings by calo testing, evaluating the adhesion strength of a coating to a substrate by the Rockwell method and scratch testing, measuring hardness before and after high-temperature annealing in air at a temperature of 700°C for 60 min, X-ray phase analysis of coatings before and after high-temperature annealing. Multicomponent coating (Zr + Ti–B–Si–Ni)N was also investigated for heat resistance in real time by X-ray phase analysis using synchrotron radiation. The adhesive strength of the multicomponent coating (Zr + Ti–B–Si–Ni)N satisfies the generally accepted quality requirements for vacuum-arc coatings. The residual hardness of the multicomponent coating (Zr + Ti–B–Si–Ni)N after high-temperature annealing significantly and noticeably exceeds the hardness of the ZrN coating after annealing. Data of X-ray phase analysis confirm the high heat resistance of the multicomponent coating (Zr + Ti–B–Si–Ni)N, which, together with the results of mechanical tests, allows us to conclude that it is promising for practical purposes.
科研通智能强力驱动
Strongly Powered by AbleSci AI