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首页> 外文期刊>Applied Surface Science >Micro-mechanical investigation of (Al_(50)Ti_(50))N coatings enhanced by ZrN layers in the nanolaminate architecture
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Micro-mechanical investigation of (Al_(50)Ti_(50))N coatings enhanced by ZrN layers in the nanolaminate architecture

机译:ZrN层在纳米占架构中增强的微机械研究(AL_(50)TI_(50))N涂层

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摘要

A series of nanolaminate (Al50Ti50)N/ZrN coatings with different modulation period (lambda) and bias voltage were synthesized by vacuum arc deposition (VA-PVD). The composition, evolution of the microstructure, and mechanical properties were studied during the transition from the basic monolayer (Al50Ti50)N coating to the nanolaminate architecture with a stepwise decrease in the modulation period. XRD and HR-TEM results showed that the binary layer in (Al50Ti50)N/ZrN nanolaminates composed of fcc-(Ti, Al)N phase with the (1 1 1) preferred orientation of crystallite. The isostructurality of fcc-(Ti, Al)N and Bl-ZrN lattices contributed local epitaxial grain growth in multilayer nanolaminate. ZrN layers, as the second component of the bilayer, had a highly textured structure with a predominant texture axis (1 1 1). The maximum values of nanohardness of 26.5 GPa and elastic modulus of 287.3 GPa were obtained for the sample with the lowest modulation period of about 15 nm. According to the results of chemical analysis by XPS, we established the oxidized state of all elements of the metal component of the surface layer, such as ZrO, TiON, ZrNO, and the presence of TiN, TiNx, ZrN nitride compounds.
机译:通过真空电弧沉积(VA-PVD)合成了具有不同调节周期(Lambda)和偏置电压的一系列纳米淀粉酸(AL50TI50)N / ZrN涂层。在从碱性单层(AL50TI50)N涂层到纳米淀粉型架构期间,研究了组合物,微观结构的演化和机械性能,并在调节期间逐步减少。 XRD和HR-TEM结果表明,(AL50TI50)N / ZRN纳米胺中的二元层由FCC-(Ti,Al)N相组成(111)的微晶的优选取向。 FCC-(Ti,Al)N和BL-Zrn格子的Isososturity urality促进了多层纳米淀粉的局部外延晶粒生长。作为双层的第二组分的ZrN层具有高度纹理的结构,具有主要的纹理轴(11 1)。将纳米纳米纳米癌的最大值和287.3GPa的弹性模量的含量为约15nm的最低调节期。根据XPS的化学分析结果,我们建立了表面层的金属组分的所有元件的氧化状态,例如Zro,TiON,ZrNO和锡,锡,ZrN氮化物化合物的存在。

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  • 来源
    《Applied Surface Science》 |2020年第30期|147573.1-147573.11|共11页
  • 作者单位

    Sumy State Univ R Korsakova 2 UA-40007 Sumy Ukraine|Adam Mickiewicz Univ NanoBioMed Ctr Wszechnicy Piastowskiej 3 PL-61614 Poznan Poland;

    Adam Mickiewicz Univ NanoBioMed Ctr Wszechnicy Piastowskiej 3 PL-61614 Poznan Poland;

    Adam Mickiewicz Univ NanoBioMed Ctr Wszechnicy Piastowskiej 3 PL-61614 Poznan Poland;

    Adam Mickiewicz Univ NanoBioMed Ctr Wszechnicy Piastowskiej 3 PL-61614 Poznan Poland;

    Adam Mickiewicz Univ NanoBioMed Ctr Wszechnicy Piastowskiej 3 PL-61614 Poznan Poland;

    Adam Mickiewicz Univ NanoBioMed Ctr Wszechnicy Piastowskiej 3 PL-61614 Poznan Poland|Adam Mickiewicz Univ Fac Phys Uniwersytetu Poznanskiego 2 PL-61614 Poznan Poland;

    Kharkov Natl Univ 4 Svobody Sq UA-61022 Kharkiv Ukraine;

    Adam Mickiewicz Univ NanoBioMed Ctr Wszechnicy Piastowskiej 3 PL-61614 Poznan Poland;

    Sumy State Univ R Korsakova 2 UA-40007 Sumy Ukraine;

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  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

    VA-PVD; Microstructure; Local epitaxy; Nanolaminates; Nanoindentation;

    机译:VA-PVD;微观结构;当地的EPITACHXY;纳米胺;纳米茚;

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