journal article·2011-09

Glass ceramics for incinerator ash immobilization

G.A. Malinina, O.I. Stefanovsky, S.V. Stefanovsky

Journal of Nuclear Materials· Volume 416· Issue 1-2
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Abstract

Abstract Calcined solid radioactive waste (incinerator slag) surrogate and either Na2Si2O5 or Na2B4O7 (borax) at various mass ratios were melted in silicon carbide crucibles in a resistive furnace at temperatures of up to 1775 K (slag without additives). Portions of the melts were poured onto a metal plate; the residues were slowly cooled in turned-off furnace. Both quenched and slowly cooled materials were composed of the same phases. At high slag contents in silicate-based materials nepheline and britholite were found to be major phases. Britholite formed at higher slag content (85 wt.%) became major phase in the vitrified slag. In the system with borax at low slag contents (25 and 50 wt.%) material are composed of predominant vitreous and minor calcium silicate larnite type phase Ca2SiO4 where Ca2+ ions are replaced by different cations. The materials containing slag in amount of 75 wt.% and more are chemically durable. The changes in the structure of anionic motif of quenched samples depending on slag loading were studied by IR spectroscopy.
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Research context

OpenAlex topics: Nuclear materials and radiation effects · Recycling and utilization of industrial and municipal waste in materials production · Advanced ceramic materials synthesis

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

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