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Starved Water Hydrolysis of Different Precursors and its Influence on the Properties of Precipitated Zirconia

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Abstract

The chemical composition of zirconia gels precipitated from methanol solutions with excess, stoichiometric or deficient amounts of water as well, as the phase composition of fine ZrO2 powders obtained by thermal treatment of gels prepared by this method, were investigated. It was observed that both the stoichiometry and crystalline phase formation during thermal treatment of zirconia gels are strongly influenced by the amount of water added to the initial reaction mixture. Heating the hydrated zirconia gels in an inert oxygen-free atmosphere produced a black nonstoichiometric oxide. The degree of nonstoichiometry of zirconia and its microstructure are influenced by the initial conditions in the reaction mixture. The X-ray patterns of thermally treated samples prepared with a substoichiometric amount of water show power lines of monoclinic and tetragonal zirconia, while after the same thermal treatment to 700°C, those prepared with excess water in the initial methanol solution, show mainly tetragonal diffraction lines.

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Marinšek, M., Maček, J. & Meden, T. Starved Water Hydrolysis of Different Precursors and its Influence on the Properties of Precipitated Zirconia. Journal of Sol-Gel Science and Technology 23, 119–127 (2002). https://doi.org/10.1023/A:1013791216164

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