Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide

Using high-angle X-ray diffraction and X-ray fluorescence spectral analysis, the effects of the sputtered material composition and deposition temperature on the phase and elemental composition, structure, substructure features, and stress state in the ion-plasma quasi-binary WC—TiC coatings. The inc...

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Опубліковано в: :Functional Materials
Дата:2007
Автор: Sobol`, O.V.
Формат: Стаття
Мова:English
Опубліковано: НТК «Інститут монокристалів» НАН України 2007
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Онлайн доступ:https://nasplib.isofts.kiev.ua/handle/123456789/136915
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Назва журналу:Digital Library of Periodicals of National Academy of Sciences of Ukraine
Цитувати:Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide / O.V. Sobol` // Functional Materials. — 2007. — Т. 14, № 4. — С. 436-445. — Бібліогр.: 17 назв. — англ.

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Digital Library of Periodicals of National Academy of Sciences of Ukraine
id nasplib_isofts_kiev_ua-123456789-136915
record_format dspace
spelling Sobol`, O.V.
2018-06-16T17:46:23Z
2018-06-16T17:46:23Z
2007
Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide / O.V. Sobol` // Functional Materials. — 2007. — Т. 14, № 4. — С. 436-445. — Бібліогр.: 17 назв. — англ.
1027-5495
https://nasplib.isofts.kiev.ua/handle/123456789/136915
Using high-angle X-ray diffraction and X-ray fluorescence spectral analysis, the effects of the sputtered material composition and deposition temperature on the phase and elemental composition, structure, substructure features, and stress state in the ion-plasma quasi-binary WC—TiC coatings. The increase in relative titanium atomic content has been established to result in increasing thermal stability of the single-phase state of the ((W,Ti)C solid solution) condensate up to the temperatures exceeding 950°C at the atomic ratio Ti/W≥0.35. At atomic ratios Ti/W≤0.25 and deposition temperatures exceeding 800°C, a multi-phase condensate is formed containing the lower carbide W₂C, the essentially pure α—W phase with the BCC lattice, along with WC and TiC phases formed through (W,Ti)C solid solution decomposition. In the range of the single-phase solid solution formation, the crystallite sizes rise and the micro-strain extent drops as the condensation temperature rises. The transition into the temperature range of the multi-phase coating is followed by the micro-strain increase and the average crystallite size diminution. The carbon content in the (W,Ti)C solid solution has been estimated and the critical deposition temperature established to be 700°C; at higher temperatures, intensive vacancy formation occurs in carbon sublattice of the carbide. Physical reasons for the effects observed and the regularities revealed have been discussed.
en
НТК «Інститут монокристалів» НАН України
Functional Materials
Characterization and properties
Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide
Вплив термічного фактора на процес фазоутворення, структуру, субструктурні характеристики та напружений стан нанокристалічних іонно-плазмових конденсатів квазібінароної системи WC-TiC
Article
published earlier
institution Digital Library of Periodicals of National Academy of Sciences of Ukraine
collection DSpace DC
title Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide
spellingShingle Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide
Sobol`, O.V.
Characterization and properties
title_short Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide
title_full Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide
title_fullStr Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide
title_full_unstemmed Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide
title_sort thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary wc-tic carbide
author Sobol`, O.V.
author_facet Sobol`, O.V.
topic Characterization and properties
topic_facet Characterization and properties
publishDate 2007
language English
container_title Functional Materials
publisher НТК «Інститут монокристалів» НАН України
format Article
title_alt Вплив термічного фактора на процес фазоутворення, структуру, субструктурні характеристики та напружений стан нанокристалічних іонно-плазмових конденсатів квазібінароної системи WC-TiC
description Using high-angle X-ray diffraction and X-ray fluorescence spectral analysis, the effects of the sputtered material composition and deposition temperature on the phase and elemental composition, structure, substructure features, and stress state in the ion-plasma quasi-binary WC—TiC coatings. The increase in relative titanium atomic content has been established to result in increasing thermal stability of the single-phase state of the ((W,Ti)C solid solution) condensate up to the temperatures exceeding 950°C at the atomic ratio Ti/W≥0.35. At atomic ratios Ti/W≤0.25 and deposition temperatures exceeding 800°C, a multi-phase condensate is formed containing the lower carbide W₂C, the essentially pure α—W phase with the BCC lattice, along with WC and TiC phases formed through (W,Ti)C solid solution decomposition. In the range of the single-phase solid solution formation, the crystallite sizes rise and the micro-strain extent drops as the condensation temperature rises. The transition into the temperature range of the multi-phase coating is followed by the micro-strain increase and the average crystallite size diminution. The carbon content in the (W,Ti)C solid solution has been estimated and the critical deposition temperature established to be 700°C; at higher temperatures, intensive vacancy formation occurs in carbon sublattice of the carbide. Physical reasons for the effects observed and the regularities revealed have been discussed.
issn 1027-5495
url https://nasplib.isofts.kiev.ua/handle/123456789/136915
citation_txt Thermal factor effect on phase formation, structure, substructure features, and stress state in ion-plasma nano-crystalline condensates of quasi-binary WC-TiC carbide / O.V. Sobol` // Functional Materials. — 2007. — Т. 14, № 4. — С. 436-445. — Бібліогр.: 17 назв. — англ.
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last_indexed 2025-12-07T16:25:37Z
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