Phase transformations kinetics in barium titanate synthesis by mechanochemical processing

This article presents the research results on a dry mechanochemical synthesis of barium titanate at a low temperature in which the reaction model and kinetics were determined during the activation of a powder mixture of titanium dioxide and barium oxide. The solid-state reaction achieved high degree of conversion (0.99). Successive analyses were conducted throughout the reaction, revealing the presence of both the starting powders and newly formed intermediate compounds. Phase transformations were monitored via X-ray diffraction, allowing the dynamics of the synthesis to be characterized. It was established that, for the given system, 440 min of mechanical activation in a high-energy vibration mill was required to complete the neutralization reaction and produce barium titanate. The reaction mixture composition was tracked by sampling at five intervals, confirming the presence of intermediate compounds and mapping the reaction pathway from the initial barium and titanium oxides to the final BaTiO3 product.

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Publication Details

Journal
Hemijska industrija
Published
2025-01-01
DOI
https://doi.org/10.2298/hemind241022014d
Primary Topic
Ferroelectric and Piezoelectric Materials
Type
article
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article

Phase transformations kinetics in barium titanate synthesis by mechanochemical processing

Slavica Mihajlović, Milica Vlahović, Nataša Djordjević, Srdjan Matijasevic et al.
Hemijska industrija
Ferroelectric and Piezoelectric Materials
article

Phase transformations kinetics in barium titanate synthesis by mechanochemical processing

Slavica Mihajlović, Milica Vlahović, Nataša Djordjević, Srdjan Matijasevic, Nenad Vušović
article en

Abstract

This article presents the research results on a dry mechanochemical synthesis of barium titanate at a low temperature in which the reaction model and kinetics were determined during the activation of a powder mixture of titanium dioxide and barium oxide. The solid-state reaction achieved high degree of conversion (0.99). Successive analyses were conducted throughout the reaction, revealing the presence of both the starting powders and newly formed intermediate compounds. Phase transformations were monitored via X-ray diffraction, allowing the dynamics of the synthesis to be characterized. It was established that, for the given system, 440 min of mechanical activation in a high-energy vibration mill was required to complete the neutralization reaction and produce barium titanate. The reaction mixture composition was tracked by sampling at five intervals, confirming the presence of intermediate compounds and mapping the reaction pathway from the initial barium and titanium oxides to the final BaTiO3 product.

Hemijska industrijaVol. 79(4)
University of Belgrade (RS), Mining and Metallurgy Institute Bor (RS), Institute for Technology of Nuclear and other Mineral Raw Materials (RS), Institute of Chemistry, Technology and Metallurgy
Openalex Percentile: Top 80%
Ferroelectric and Piezoelectric Materials
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Phase transformations kinetics in barium titanate synthesis by mechanochemical processing — Slavica Mihajlović, Milica Vlahović, et al. · Hemijska industrija (2025) | TGRS Research Map | TGRS