Phase formation, stability and heat capacity of ternary TiO2–CeO2–ZrO2 solid solutions

Tetragonal zirconia based solid solutions are important materials for thermal barrier coatings (TBCs). The introduction of the third component to binary zirconia systems is regarded as a promising way to design novel high performance TBCs. The work reports the investigation of solid solution formati...

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Veröffentlicht in:Materials chemistry and physics 2020-02, Vol.242, p.122547, Article 122547
Hauptverfasser: Kurapova, Olga Yu, Glukharev, Artem G., Borisova, Anna S., Golubev, Sergey N., Konakov, Vladimir G.
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container_start_page 122547
container_title Materials chemistry and physics
container_volume 242
creator Kurapova, Olga Yu
Glukharev, Artem G.
Borisova, Anna S.
Golubev, Sergey N.
Konakov, Vladimir G.
description Tetragonal zirconia based solid solutions are important materials for thermal barrier coatings (TBCs). The introduction of the third component to binary zirconia systems is regarded as a promising way to design novel high performance TBCs. The work reports the investigation of solid solution formation in ternary TiO2–CeO2–ZrO2 system in the range 600–1100 °C obtained by using co-precipitation from mixed aqueous solution and freeze-drying. Phase evolution and stability of solid solutions were investigated using DSC, qualitative and quantitative XRD analysis with Rietveld refinement technique. The factors affecting the kinetics of phase formation i.e. powders dispersity, agglomerate strength, crystallite size, Ce3+/Ce4+ ratio were studied using PSD, XRD and ESCA techniques. The heat capacity dependence on temperature was measured experimentally for the first time for 5TiO2–9CeO2–86ZrO2 composition via calorimetry technique using DSC. The obtained data significantly contributes to the schematic phase diagram suggested in the literature and allows to choose the optimal synthesis and processing conditions of ternary system compositions for their use for novel TBCs fabrication. •Stable tetragonal solid solution was obtained using co-precipitation.•Competitive phase formation takes place up on crystallization of solid solutions.•Heat capacity dependence on temperature has been obtained experimentally.
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subjects Aqueous solutions
Cerium oxides
Chemical precipitation
Composition
Crystallites
Freeze-drying
Heat capacity
Phase diagrams
Phase transitions
Qualitative analysis
Solid solutions
Specific heat
Stability
Temperature dependence
Ternary system
Ternary systems
Tetragonal zirconia
Thermal barrier coatings
Titanium dioxide
Zirconium dioxide
title Phase formation, stability and heat capacity of ternary TiO2–CeO2–ZrO2 solid solutions
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