Impurity distribution in metallic dysprosium during distillation purification

The distribution rules of impurities contents in distilled metallic dysprosium were researched, and a theoretical analysis was carried out. The research results indicated that, the content of impurity in distilled metal, such as Al and Fe, was lower in the ini-tial stage, increased slowly in the mid...

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Published inJournal of rare earths Vol. 34; no. 9; pp. 924 - 930
Main Author 张小伟 苗睿瑛 李传军 吴道高 闫缓 王志强 陈德宏 颜世宏 李宗安
Format Journal Article
LanguageEnglish
Published Elsevier B.V 01.09.2016
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ISSN1002-0721
2509-4963
DOI10.1016/S1002-0721(16)60116-3

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Abstract The distribution rules of impurities contents in distilled metallic dysprosium were researched, and a theoretical analysis was carried out. The research results indicated that, the content of impurity in distilled metal, such as Al and Fe, was lower in the ini-tial stage, increased slowly in the middle stage, and increased rapidly in the last stage during the process of distillation purification. The calculated method of separation coefficient of impurity in crude metal by content of impurity in distilled metal was not suitable for high pure metals, and the modified separation coefficient was proposed, and it equaled 1/6.1 and 1/16.9 for impurity Al and Fe. The physical process of distillation was coincident with that of solidification essentially, and solute re-distribution theory in solidify-ing front could be used to describe the impurity distribution near evaporating surface. In the former stage of distillation purification, the diffusion of impurity in liquid metal could reach a quasi-equilibrium state, the calculated result of impurity content in distilled metal agreed well with experiments. In the latter stage of distillation process, the diffusion rate of impurity in liquid metal decreased, and the content in distilled metal was larger than the calculated result.
AbstractList The distribution rules of impurities contents in distilled metallic dysprosium were researched, and a theoretical analysis was carried out. The research results indicated that, the content of impurity in distilled metal, such as Al and Fe, was lower in the ini-tial stage, increased slowly in the middle stage, and increased rapidly in the last stage during the process of distillation purification. The calculated method of separation coefficient of impurity in crude metal by content of impurity in distilled metal was not suitable for high pure metals, and the modified separation coefficient was proposed, and it equaled 1/6.1 and 1/16.9 for impurity Al and Fe. The physical process of distillation was coincident with that of solidification essentially, and solute re-distribution theory in solidify-ing front could be used to describe the impurity distribution near evaporating surface. In the former stage of distillation purification, the diffusion of impurity in liquid metal could reach a quasi-equilibrium state, the calculated result of impurity content in distilled metal agreed well with experiments. In the latter stage of distillation process, the diffusion rate of impurity in liquid metal decreased, and the content in distilled metal was larger than the calculated result.
The distribution rules of impurities contents in distilled metallic dysprosium were researched, and a theoretical analysis was carried out. The research results indicated that, the content of impurity in distilled metal, such as Al and Fe, was lower in the initial stage, increased slowly in the middle stage, and increased rapidly in the last stage during the process of distillation purification. The calculated method of separation coefficient of impurity in crude metal by content of impurity in distilled metal was not suitable for high pure metals, and the modified separation coefficient was proposed, and it equaled 1/6.1 and 1/16.9 for impurity Al and Fe. The physical process of distillation was coincident with that of solidification essentially, and solute re-distribution theory in solidifying front could be used to describe the impurity distribution near evaporating surface. In the former stage of distillation purification, the diffusion of impurity in liquid metal could reach a quasi-equilibrium state, the calculated result of impurity content in distilled metal agreed well with experiments. In the latter stage of distillation process, the diffusion rate of impurity in liquid metal decreased, and the content in distilled metal was larger than the calculated result. Comparison of dimensionless content of impurities Al (a) and Fe (b) between experiment and calculated
Author 张小伟 苗睿瑛 李传军 吴道高 闫缓 王志强 陈德宏 颜世宏 李宗安
AuthorAffiliation National Engineering Research Center for Rare Earth Materials, General Research Institute for Nonferrous Metals, and Grirem Advanced Materials Co. Ltd., Beifing 100088, China Otto Schott Institute of Materials Research, Friedrich Schiller University Jena, Lgibdergraben 32, D-07743 Jena, Germany
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Issue 9
Keywords impurity distribution
distilled dysprosium
modified separation coefficient
vacuum distillation purification
rare earths
Language English
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Notes 11-2788/TF
The distribution rules of impurities contents in distilled metallic dysprosium were researched, and a theoretical analysis was carried out. The research results indicated that, the content of impurity in distilled metal, such as Al and Fe, was lower in the ini-tial stage, increased slowly in the middle stage, and increased rapidly in the last stage during the process of distillation purification. The calculated method of separation coefficient of impurity in crude metal by content of impurity in distilled metal was not suitable for high pure metals, and the modified separation coefficient was proposed, and it equaled 1/6.1 and 1/16.9 for impurity Al and Fe. The physical process of distillation was coincident with that of solidification essentially, and solute re-distribution theory in solidify-ing front could be used to describe the impurity distribution near evaporating surface. In the former stage of distillation purification, the diffusion of impurity in liquid metal could reach a quasi-equilibrium state, the calculated result of impurity content in distilled metal agreed well with experiments. In the latter stage of distillation process, the diffusion rate of impurity in liquid metal decreased, and the content in distilled metal was larger than the calculated result.
ZHANG Xiaowei , MIAO Ruiying , LI Chuanjun , WU Daogao , YAN Huan , WANG Zhiqiang CHEN Dehong , YAN Shihong LI Zongan (1. National Engineering Research Center for Rare Earth Materials, General Research Institute for Nonferrous Metals, and Grirem Advanced Materials Co. Ltd., Beifing 100088, China;2. Otto Schott Institute of Materials Research, Friedrich Schiller University Jena, Lgibdergraben 32, D-07743 Jena, Germany)
vacuum distillation purification; distilled dysprosium; impurity distribution; modified separation coefficient; rare earths
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Snippet The distribution rules of impurities contents in distilled metallic dysprosium were researched, and a theoretical analysis was carried out. The research...
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SubjectTerms distilled dysprosium
impurity distribution
modified separation coefficient
rare earths
vacuum distillation purification
凝固过程
分离系数
杂质分布
杂质含量
蒸馏提纯
计算结果
金属杂质
金属镝
Title Impurity distribution in metallic dysprosium during distillation purification
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