ω-Al2O3“ a microcrystalline ordered form of transition spinel alumina metastable up to 1200 ​°C

A new variety of alumina with micron-sized crystallization was obtained in mixture with other phases (a Si-doped transition alumina, α-Al2O3 and small amounts of mullite) by firing an Al2O3:SiO2 (12:1) gel at 1200 ​°C, beyond the domain of existence of the heretofore known transition aluminas. The s...

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Published in:Journal of solid state chemistry Vol. 312; p. 123303
Main Author: Wallez, Gilles
Format: Journal Article
Language:English
Published: Elsevier Inc 01.08.2022
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ISSN:0022-4596, 1095-726X
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Abstract A new variety of alumina with micron-sized crystallization was obtained in mixture with other phases (a Si-doped transition alumina, α-Al2O3 and small amounts of mullite) by firing an Al2O3:SiO2 (12:1) gel at 1200 ​°C, beyond the domain of existence of the heretofore known transition aluminas. The so-called ω-Al2O3 transforms very slowly into α-Al2O3, even at such temperatures. According to X-ray diffraction /Rietveld analysis, the ordered orthorhombic (space group P21212) crystal structure corresponds to a 1 ​× ​1.5 ​× ​1 superstructure of the cubic spinel cell, with a 50 % deficiency in the occupancy of the octahedral sites in 1/3rd of the (010) layers. Though many arguments are in favor of a pure - or almost pure - form of alumina, no evidence can be given of the absence of silicon. The 3-layer sequence of new ω-Al2O3 results from the insertion of a cation-deficient octahedra layer into the usual spinel array. [Display omitted] •A new variety of micron-sized alumina.•Long-time metastability up to 1200 ​°C.•A novel form of fully ordered cation-deficient spinel structure.
AbstractList A new variety of alumina with micron-sized crystallization was obtained in mixture with other phases (a Si-doped transition alumina, α-Al2O3 and small amounts of mullite) by firing an Al2O3:SiO2 (12:1) gel at 1200 ​°C, beyond the domain of existence of the heretofore known transition aluminas. The so-called ω-Al2O3 transforms very slowly into α-Al2O3, even at such temperatures. According to X-ray diffraction /Rietveld analysis, the ordered orthorhombic (space group P21212) crystal structure corresponds to a 1 ​× ​1.5 ​× ​1 superstructure of the cubic spinel cell, with a 50 % deficiency in the occupancy of the octahedral sites in 1/3rd of the (010) layers. Though many arguments are in favor of a pure - or almost pure - form of alumina, no evidence can be given of the absence of silicon. The 3-layer sequence of new ω-Al2O3 results from the insertion of a cation-deficient octahedra layer into the usual spinel array. [Display omitted] •A new variety of micron-sized alumina.•Long-time metastability up to 1200 ​°C.•A novel form of fully ordered cation-deficient spinel structure.
ArticleNumber 123303
Author Wallez, Gilles
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  organization: Chimie ParisTech, PSL University, CNRS, Institut de Recherche de Chimie Paris, 75005, Paris, France
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Keywords Crystal structures
Rietveld analysis
Transition alumina
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Snippet A new variety of alumina with micron-sized crystallization was obtained in mixture with other phases (a Si-doped transition alumina, α-Al2O3 and small amounts...
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SubjectTerms Crystal structures
Rietveld analysis
Transition alumina
Title ω-Al2O3“ a microcrystalline ordered form of transition spinel alumina metastable up to 1200 ​°C
URI https://dx.doi.org/10.1016/j.jssc.2022.123303
Volume 312
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