The purification and crystal growth of rare earth metals using solid state electrotransport
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Single crystal study of the layered heavy fermion compounds Ce <inf>2</inf>PdIn<inf>8</inf>, Ce<inf>3</inf>PdIn<inf>11</inf>, Ce <inf>2</inf>PtIn<inf>8</inf> and Ce<inf>3</inf>PtIn<inf>11</inf>
2014, Journal of Crystal GrowthCitation Excerpt :Single crystalline samples were grown by the self-flux method [14]. Appropriate starting compositions of high purity elements (Ce 99.9% further purified by solid state electrotransport [17], Pd 99.995%, Pt 99.995%, In 99.999%) with total weight of 5 g were placed in alumina crucibles. Another crucible, filled with quartz wool was placed on top of it.
Preparation of high purity metals for advanced devices
2011, Thin Solid FilmsCitation Excerpt :It must be pointed out, however, that deoxidation of reactive metals such as rare earth metals is difficult by this method. For the deoxidation of rare earth metals, the solid state electrotransport [23] and the electrochemical deoxidation [24] methods have been proposed. One of the notable compound semiconductors is β-FeSi2, which is a promising material for optoelectronic devices working in the infrared region [25].
Thermodynamics of rare earth alloys: Systematics and experimental
1998, Thermochimica ActaElectrochemical deoxidation of yttrium-oxygen solid solutions
1996, Journal of Alloys and CompoundsSolid state electrotransport purification of dysprosium
1995, Journal of Alloys and Compounds