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Impact of Oxide Material Ratio on V-Ti-Fe Alloy Preparation by Metallothermic Reduction AITranslate

School of Materials and Metallurgical of Northeast University;School of Materials and Metallurgical of Northeast University;School of Materials and Metallurgical of Northeast University;School of Materials and Metallurgical of Northeast University
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Publisher: Editorial Office of Rare Metals and Cemented Carbides
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Abstract AITranslate

V-Ti-Fe alloy was prepared by metallothermic reduction, and impacts of the material mass ratio of V20s to TiO2 (denoted as R) on liquidus temperature of the slag and composition of the alloy were investi- gated. The results show that with R decreasing, liquidus temperature of the slag obviously increases, the content of Ti,A1,O also increases in the resultant alloy,but the content of Si is almost unchanged. The re- suits from XRD,SEM and EDS show that the resultant alloys have vanadium-based solid solution structure. There is a certain Ti segregation in alloy,for titanium-rich phase is detected. When the value of R is 0.6,obvious A1-O inclusion can be detected in the alloy.

KeyWords AITranslate

vanadium-based solid solution V-Ti-Fe hydrogen storage alloy metallothermic reduction meth-od oxide material ratio

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Basic Information:

DOI:

Chinese Library Classification Number:TF803.131[冶金工程—有色金属冶金]

Citation Information:

V-Ti-Fe alloy was prepared by metallothermic reduction, and impacts of the material mass ratio of V20s to TiO2 (denoted as R) on liquidus temperature of the slag and composition of the alloy were investi- gated. The results show that with R decreasing, liquidus temperature of the slag obviously increases, the content of Ti,A1,O also increases in the resultant alloy,but the content of Si is almost unchanged. The re- suits from XRD,SEM and EDS show that the resultant alloys have vanadium-based solid solution structure. There is a certain Ti segregation in alloy,for titanium-rich phase is detected. When the value of R is 0.6,obvious A1-O inclusion can be detected in the alloy.

quote

GB/T 7714-2015 [1] WANG Bin, LIU Kui-ren, GAO Teng-yue, et al. Impact of Oxide Material Ratio on V-Ti-Fe Alloy Preparation by Metallothermic Reduction[J]. Rare Metals and Cemented Carbides, 2012(3): 23-27.
MLA [1] WANG Bin, et al., "Impact of Oxide Material Ratio on V-Ti-Fe Alloy Preparation by Metallothermic Reduction." Rare Metals and Cemented Carbides, no. 3, 2012, pp. 23-27.
APA [1] WANG Bin, LIU Kui-ren, GAO Teng-yue, & HE Ji-lin. (2012). Impact of Oxide Material Ratio on V-Ti-Fe Alloy Preparation by Metallothermic Reduction. Rare Metals and Cemented Carbides(3), 23-27.
IEEE [1] WANG Bin, LIU Kui-ren, GAO Teng-yue, and HE Ji-lin, "Impact of Oxide Material Ratio on V-Ti-Fe Alloy Preparation by Metallothermic Reduction," Rare Metals and Cemented Carbides, no. 3, pp. 23-27, 2012. keywords: {vanadium-based solid solution;V-Ti-Fe;hydrogen storage alloy;metallothermic reduction meth-od;oxide material ratio}