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Bibliographic Details
Main Authors: Boukhvalov, D. W., Zatsepin, D. A., Biryukov, D. Yu., Shchapova, Yu. V., Gavrilov, N. V., Zatsepin, A. F.
Format: Preprint
Published: 2024
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Online Access:https://arxiv.org/abs/2401.08459
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author Boukhvalov, D. W.
Zatsepin, D. A.
Biryukov, D. Yu.
Shchapova, Yu. V.
Gavrilov, N. V.
Zatsepin, A. F.
author_facet Boukhvalov, D. W.
Zatsepin, D. A.
Biryukov, D. Yu.
Shchapova, Yu. V.
Gavrilov, N. V.
Zatsepin, A. F.
contents In the current paper, we report the results of surface modification of cubic Y2O3 films employing carbon-ion implantation. The characterization results demonstrate the formation of a stable yttrium oxalate-based structure with cavities filled with carbon clusters. Theoretical simulations demonstrate that the incorporation of eighteen-atom carbon clusters into the cavities of Y2(C2O4)3 does not lead to valuable changes in the crystal structure of yttrium oxalate. X-ray diffraction and optical measurements demonstrate that the subsurface bulk area of cubic yttrium oxide remains unperturbed. The oxalate "skin" thickness with embedded carbon clusters is estimated to be approximately 10 nm. The prospective employing the method to manage optical properties and increase the biocompatibility of yttria and lanthanide oxides are discussed.
format Preprint
id arxiv_https___arxiv_org_abs_2401_08459
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Formation of yttrium oxalate phase filled by carbon clusters on the surface of yttrium oxide films
Boukhvalov, D. W.
Zatsepin, D. A.
Biryukov, D. Yu.
Shchapova, Yu. V.
Gavrilov, N. V.
Zatsepin, A. F.
Materials Science
Chemical Physics
Computational Physics
In the current paper, we report the results of surface modification of cubic Y2O3 films employing carbon-ion implantation. The characterization results demonstrate the formation of a stable yttrium oxalate-based structure with cavities filled with carbon clusters. Theoretical simulations demonstrate that the incorporation of eighteen-atom carbon clusters into the cavities of Y2(C2O4)3 does not lead to valuable changes in the crystal structure of yttrium oxalate. X-ray diffraction and optical measurements demonstrate that the subsurface bulk area of cubic yttrium oxide remains unperturbed. The oxalate "skin" thickness with embedded carbon clusters is estimated to be approximately 10 nm. The prospective employing the method to manage optical properties and increase the biocompatibility of yttria and lanthanide oxides are discussed.
title Formation of yttrium oxalate phase filled by carbon clusters on the surface of yttrium oxide films
topic Materials Science
Chemical Physics
Computational Physics
url https://arxiv.org/abs/2401.08459