Influence of vanadium precursor powder size on microstructures and properties of W–V alloy

To understand the influences of V precursor powder size on the microstructures and properties of W–V alloy, W–5wt.% V have been produced from submicron/micron V precursor powder by mechanical alloying and subsequently consolidated by spark plasma sintering technique. The results indicate that the gr...

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Veröffentlicht in:International journal of refractory metals & hard materials 2015-05, Vol.50, p.59-64
Hauptverfasser: Arshad, Kameel, Guo, Wei, Wang, Jun, Zhao, Ming-Yue, Yuan, Yue, Zhang, Ying, Wang, Bo, Zhou, Zhang-Jian, Lu, Guang-Hong
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container_title International journal of refractory metals & hard materials
container_volume 50
creator Arshad, Kameel
Guo, Wei
Wang, Jun
Zhao, Ming-Yue
Yuan, Yue
Zhang, Ying
Wang, Bo
Zhou, Zhang-Jian
Lu, Guang-Hong
description To understand the influences of V precursor powder size on the microstructures and properties of W–V alloy, W–5wt.% V have been produced from submicron/micron V precursor powder by mechanical alloying and subsequently consolidated by spark plasma sintering technique. The results indicate that the grain growth of W is highly constrained and the porosity is largely suppressed by the addition of V. Compared with micron V powder, the introduction of submicron V powder not only makes the microstructure much finer and more uniform but also improves the densification and mechanical properties of W–V alloy. Significantly, submicron V-containing alloy shows enormous improvement in micro-hardness of about 70% higher than micron V-containing alloy and more than 3 times as high as pure W. •W-5wt.%V have been produced from submicron/micron V precursor powder by mechanical alloying and subsequently consolidated by spark plasma sintering technique.•The standard XRD peaks position of pure W is specified by red line in Fig. 2.•Black clusters of W5Vm are V enriched phases.•China National Funds for Distinguished Young Scientists under grant 51325103
doi_str_mv 10.1016/j.ijrmhm.2014.12.003
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The results indicate that the grain growth of W is highly constrained and the porosity is largely suppressed by the addition of V. Compared with micron V powder, the introduction of submicron V powder not only makes the microstructure much finer and more uniform but also improves the densification and mechanical properties of W–V alloy. 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subjects Alloying additive
Consolidation
Densification
Microstructure
Precursors
Refractory metals
Tungsten base alloys
Vanadium base alloys
title Influence of vanadium precursor powder size on microstructures and properties of W–V alloy
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