Characterization of adsorption properties inherent to zirconia dioxide for different positions of yttrium in the ZrO2–Y2O3 lattice

S.I. Lyubchykк, S.B. Lyubchykк, A.I. Lyubchykк
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Abstract

Presented in this paper is theoretical studying redistribution of electric charges in the layer of a tetragonal plate of yttrium-stabilized zirconia based on the position of yttrium atom in the crystal lattice for both dry and humid ambient atmosphere. The density functional theory with local density approximation (DFT-LDA) has been employed for this modelling. Calculations have been performed for layer-by-layer electron density distribution over the thickness of an infinite plate 001 of yttrium-stabilized tetragonal zirconium dioxide, which show that a change in the position of stabilizing yttrium atom and its symmetry in the layer leads to changing the total energy of zirconium dioxide both for the dry 001 surface and for the hydrated one. It has been ascertained that the surface charge density for the 001-surface of an infinite tetragonal zirconia plate increases in proportion to the degree of hydration.
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二氧化锆对钇在ZrO2-Y2O3晶格中不同位置的吸附特性表征
本文从理论上研究了在干燥和潮湿环境下,基于钇原子在晶格中的位置,钇稳定氧化锆四边形板层中电荷的重新分布。该模型采用局部密度近似密度泛函理论(DFT-LDA)。计算了钇稳定四边形二氧化锆在无限大板001厚度上的逐层电子密度分布,结果表明,改变稳定钇原子的位置及其在层中的对称性,会导致二氧化锆在干燥表面和水合表面的总能量发生变化。确定了无限大四边形氧化锆板的表面电荷密度随水化程度成比例地增加。
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