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Mechanical intermixing of components in (CoMoNi)-based systems and the formation of (CoMoNi)/WC nanocomposite layers on Ti sheets under ball collisions

机译:球碰撞下基于(CoMoNi)的系统中组分的机械混合以及在Ti板上形成(CoMoNi)/ WC纳米复合层

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Cobalt (Co), molybdenum (Mo), and nickel (Ni) components were simultaneously introduced onto titanium (Ti) surfaces from a composed target using ball collisions. Tungsten carbide ( WC) balls were selected for processing as the source of a cemented carbide reinforcement phase. During processing, ball collisions continuously introduced components from the target and the grinding media onto the Ti surface and induced mechanical intermixing of the elements, resulting in formation of a complex nanocomposite structure onto the Ti surface. The as-fabricated microstructure consisted of uniformly dispersed WC particles embedded within an integrated metallic matrix composed of an amorphous phase with nanocrystalline grains. The phase composition of the alloyed layers, atomic reactions, and the matrix grain sizes depended on the combination of components introduced onto the Ti surface during milling. The as-fabricated layer exhibited a very high hardness compared to industrial metallic alloys and tool steel materials. This approach could be used for the manufacture of both cemented carbides and amorphous matrix composite layers. (C) 2017 Elsevier B.V. All rights reserved.
机译:钴(Co),钼(Mo)和镍(Ni)成分通过球碰撞从合成靶同时引入到钛(Ti)表面。选择碳化钨(WC)球作为硬质合金增强相的来源进行加工。在加工过程中,球的碰撞不断地将目标物和研磨介质中的成分引入Ti表面,并引起元素的机械混合,从而在Ti表面形成复杂的纳米复合结构。制成的微结构由均匀分散的WC颗粒组成,这些颗粒嵌入嵌入由非晶相和纳米晶粒组成的集成金属基体中。合金层的相组成,原子反应和基体晶粒尺寸取决于铣削过程中引入到Ti表面的组分的组合。与工业金属合金和工具钢材料相比,加工后的层具有很高的硬度。该方法可用于制造硬质合金和非晶基复合材料层。 (C)2017 Elsevier B.V.保留所有权利。

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