Typical structures and thermal expansion coefficients of ABO4-type (A=Ga, In, Cr; B=Nb, Ta) oxides as EBC candidates

Guiyu Xue; Lin Chen; Luyang Zhang; Jiankun Wang; Jing Feng

doi:10.1016/j.exm.2024.12.002

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Extreme Materials ›› 2025, Vol. 1 ›› Issue (1) : 1-8. DOI: 10.1016/j.exm.2024.12.002

Research article

Typical structures and thermal expansion coefficients of ABO₄-type (A=Ga, In, Cr; B=Nb, Ta) oxides as EBC candidates

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1.	This work screens ABO₄-type oxides as T/EBCs for different substrates.
2.	Changing the A-site ionic radius is a good way to regulate TECs of ABO4-type oxides.
3.	AlNbO₄, InNbO₄, and GaTaO₄ are chosen as EBCs for C-, SiC-, and Al₂O₃-based substrates, respectively.

Abstract

It is of great significance to search oxide thermal/environmental barrier coatings (T/EBCs) with high working temperatures and thermal expansion coefficients (TECs) matching to different substrates. ABO₄-type oxides have been widely studied due to their high working temperatures, adjustable TECs, and low thermal conductivity. In this work, ABO₄-type (A=Ga, In, Cr; B=Nb, Ta) oxides are studied as EBC candidates based on their relatively low TECs. The influences of crystal structures, distortion degree, types of polyhedrons, as well as the A- and B-site ionic radii and atomic weights on TECs are discussed. It is found out that the TECs of ABO₄-type oxides are not depended on one single factor, and reducing A-site ionic radius may be a good way to decrease their TECs. Based on the TECs, AlNbO₄, InNbO₄, and GaTaO₄ are chosen as EBCs for C-, SiC-, and Al₂O₃-based substrates, respectively. The similar TECs between ABO₄-type oxide EBCs and substrates are beneficial for reducing interfacial thermal stress, which is good for their long-term applications. This work shows that the applications of ABO₄-type oxides can be expanded by effectively regulating TECs.

Key words

Environmental barrier coatings / Thermal expansion coefficients / Distortion degree / Thermal stress

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Guiyu Xue , Lin Chen , Luyang Zhang , et al . Typical structures and thermal expansion coefficients of ABO₄-type (A=Ga, In, Cr; B=Nb, Ta) oxides as EBC candidates[J]. Extreme Materials. 2025, 1(1): 1-8 https://doi.org/10.1016/j.exm.2024.12.002

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