Formation mechanism of texture in α-alumina coatings produced by aerosol deposition

To investigate the texture formation mechanism in aerosol deposition (AD), coatings were deposited under various conditions using pure α-Al2O3 powder particles. The deposition rate increased with increasing gas flow rate when the gas flow rate was in the range from 6 to 30 L/min. Furthermore, the de...

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Veröffentlicht in:Journal of the Ceramic Society of Japan 2021/01/01, Vol.129(1), pp.7-16
Hauptverfasser: HASEGAWA, Makoto, KOMURO, Masahiro, KIMURA, Kyonosuke, HASHIMOTO, Soma, TANAKA, Makoto, KITAOKA, Satoshi, KAGAWA, Yutaka
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container_end_page 16
container_issue 1
container_start_page 7
container_title Journal of the Ceramic Society of Japan
container_volume 129
creator HASEGAWA, Makoto
KOMURO, Masahiro
KIMURA, Kyonosuke
HASHIMOTO, Soma
TANAKA, Makoto
KITAOKA, Satoshi
KAGAWA, Yutaka
description To investigate the texture formation mechanism in aerosol deposition (AD), coatings were deposited under various conditions using pure α-Al2O3 powder particles. The deposition rate increased with increasing gas flow rate when the gas flow rate was in the range from 6 to 30 L/min. Furthermore, the deposition rate increased with increasing substrate heating temperature. No large difference in the microstructure of the α-Al2O3 coating was observed. The formed α-Al2O3 coatings was fully dense and crystalline. X-ray diffraction analysis of the coating surfaces revealed specific textures. A texture with (0001) planes tilted approximately 15° from the coating plane was detected in the as-deposited specimen at a nozzle angle of 90°. Whether the nozzle angle was 90 and 60°, almost the same texture was formed indicating that the shear force does not contribute to texture formation. Texture formation was due to plastic deformation of the α-Al2O3 powder during collisions with the substrate. This is thought to be due to activation of basal and pyramidal slip systems. When the substrate was heated during AD, the texture changed to a (0001) fiber texture where the (0001) planes were parallel to the coating surface. The change in texture during substrate heating can be explained by a change in the critical resolved shear stress for the slip systems. The authors have previously reported that (0001) fiber texture has formed when the specimen was heat treated after the coating was deposited at room temperature. However, the mechanism of (0001) fiber texture formation by heat treatment is different form this research. During heat treatment, the texture is formed by the preferential growth of grains having (0001) plane at the surface of the coating.
doi_str_mv 10.2109/jcersj2.20135
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When the substrate was heated during AD, the texture changed to a (0001) fiber texture where the (0001) planes were parallel to the coating surface. The change in texture during substrate heating can be explained by a change in the critical resolved shear stress for the slip systems. The authors have previously reported that (0001) fiber texture has formed when the specimen was heat treated after the coating was deposited at room temperature. However, the mechanism of (0001) fiber texture formation by heat treatment is different form this research. 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Ceram. Soc. Japan</addtitle><description>To investigate the texture formation mechanism in aerosol deposition (AD), coatings were deposited under various conditions using pure α-Al2O3 powder particles. The deposition rate increased with increasing gas flow rate when the gas flow rate was in the range from 6 to 30 L/min. Furthermore, the deposition rate increased with increasing substrate heating temperature. No large difference in the microstructure of the α-Al2O3 coating was observed. The formed α-Al2O3 coatings was fully dense and crystalline. X-ray diffraction analysis of the coating surfaces revealed specific textures. A texture with (0001) planes tilted approximately 15° from the coating plane was detected in the as-deposited specimen at a nozzle angle of 90°. Whether the nozzle angle was 90 and 60°, almost the same texture was formed indicating that the shear force does not contribute to texture formation. 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Ceram. Soc. Japan</addtitle><date>2021-01-01</date><risdate>2021</risdate><volume>129</volume><issue>1</issue><spage>7</spage><epage>16</epage><pages>7-16</pages><issn>1882-0743</issn><eissn>1348-6535</eissn><abstract>To investigate the texture formation mechanism in aerosol deposition (AD), coatings were deposited under various conditions using pure α-Al2O3 powder particles. The deposition rate increased with increasing gas flow rate when the gas flow rate was in the range from 6 to 30 L/min. Furthermore, the deposition rate increased with increasing substrate heating temperature. No large difference in the microstructure of the α-Al2O3 coating was observed. The formed α-Al2O3 coatings was fully dense and crystalline. X-ray diffraction analysis of the coating surfaces revealed specific textures. A texture with (0001) planes tilted approximately 15° from the coating plane was detected in the as-deposited specimen at a nozzle angle of 90°. Whether the nozzle angle was 90 and 60°, almost the same texture was formed indicating that the shear force does not contribute to texture formation. Texture formation was due to plastic deformation of the α-Al2O3 powder during collisions with the substrate. This is thought to be due to activation of basal and pyramidal slip systems. When the substrate was heated during AD, the texture changed to a (0001) fiber texture where the (0001) planes were parallel to the coating surface. The change in texture during substrate heating can be explained by a change in the critical resolved shear stress for the slip systems. The authors have previously reported that (0001) fiber texture has formed when the specimen was heat treated after the coating was deposited at room temperature. However, the mechanism of (0001) fiber texture formation by heat treatment is different form this research. 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identifier ISSN: 1882-0743
ispartof Journal of the Ceramic Society of Japan, 2021/01/01, Vol.129(1), pp.7-16
issn 1882-0743
1348-6535
language eng
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source J-STAGE
subjects Aerosol deposition
Coating
Critical resolved shear stress (CRSS)
Lattice rotation
Preferential orientation
Schmid factor
Texture
X-ray diffraction (XRD)
α-Al2O3
title Formation mechanism of texture in α-alumina coatings produced by aerosol deposition
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