Preparation of Antistatic Ceramics Employing Fe-infiltration in Sintered Zirconia Body

Antistatic ceramic with good mechanical performance has wide application in fields of aerospace, petrochemical engineering, electronics and textile. Antistatic ceramic ZrO sub(2) was fabricated via an innovative surface modification method based on embedding Fe-infiltration into the 3Y-TZP ceramic a...

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Veröffentlicht in:Wu ji cai liao xue bao 2014-10, Vol.29 (10), p.1099-1104
Hauptverfasser: Yong, LI, Xie-Wen, XU, Xian-Feng, YANG, Zhi-Peng, XIE
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container_end_page 1104
container_issue 10
container_start_page 1099
container_title Wu ji cai liao xue bao
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creator Yong, LI
Xie-Wen, XU
Xian-Feng, YANG
Zhi-Peng, XIE
description Antistatic ceramic with good mechanical performance has wide application in fields of aerospace, petrochemical engineering, electronics and textile. Antistatic ceramic ZrO sub(2) was fabricated via an innovative surface modification method based on embedding Fe-infiltration into the 3Y-TZP ceramic at high temperature, which showed good antistatic and mechanical properties. In addition, microstructure and morphology of as-prepared samples were characterized by XRD, SEM and XPS. Furthermore, the antistatic mechanism of ZrO sub(2) ceramics was investigated. The effects of infiltration temperature and infiltration time on vickers hardness and surface resistivity of specimen were evaluated. Experimental results showed that the surface resistivity and hardness decreased with the increase of infiltration temperature and infiltration time, in which the surface resistivity decreased from more than 10 super(14)[Omega]/ to 8.3x10 super(7)[Omega]/, and the hardness of ZrO sub(2) ceramics decreased from 12.7 GPa to 11.23 GPa after infiltration at 1000[degrees]C for 4 h. Analysis results indicated that there was a phase transformation of ZrO sub(2) from t-ZrO sub(2) to m-ZrO sub(2) in the infiltration process. It was also found that Fe, Fe sub(3)O sub(4) and FeO located in the interface of infiltration layer, which were attributed to the antistatic property of ZrO sub(2) ceramics.
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Antistatic ceramic ZrO sub(2) was fabricated via an innovative surface modification method based on embedding Fe-infiltration into the 3Y-TZP ceramic at high temperature, which showed good antistatic and mechanical properties. In addition, microstructure and morphology of as-prepared samples were characterized by XRD, SEM and XPS. Furthermore, the antistatic mechanism of ZrO sub(2) ceramics was investigated. The effects of infiltration temperature and infiltration time on vickers hardness and surface resistivity of specimen were evaluated. Experimental results showed that the surface resistivity and hardness decreased with the increase of infiltration temperature and infiltration time, in which the surface resistivity decreased from more than 10 super(14)[Omega]/ to 8.3x10 super(7)[Omega]/, and the hardness of ZrO sub(2) ceramics decreased from 12.7 GPa to 11.23 GPa after infiltration at 1000[degrees]C for 4 h. Analysis results indicated that there was a phase transformation of ZrO sub(2) from t-ZrO sub(2) to m-ZrO sub(2) in the infiltration process. 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Analysis results indicated that there was a phase transformation of ZrO sub(2) from t-ZrO sub(2) to m-ZrO sub(2) in the infiltration process. 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Antistatic ceramic ZrO sub(2) was fabricated via an innovative surface modification method based on embedding Fe-infiltration into the 3Y-TZP ceramic at high temperature, which showed good antistatic and mechanical properties. In addition, microstructure and morphology of as-prepared samples were characterized by XRD, SEM and XPS. Furthermore, the antistatic mechanism of ZrO sub(2) ceramics was investigated. The effects of infiltration temperature and infiltration time on vickers hardness and surface resistivity of specimen were evaluated. Experimental results showed that the surface resistivity and hardness decreased with the increase of infiltration temperature and infiltration time, in which the surface resistivity decreased from more than 10 super(14)[Omega]/ to 8.3x10 super(7)[Omega]/, and the hardness of ZrO sub(2) ceramics decreased from 12.7 GPa to 11.23 GPa after infiltration at 1000[degrees]C for 4 h. Analysis results indicated that there was a phase transformation of ZrO sub(2) from t-ZrO sub(2) to m-ZrO sub(2) in the infiltration process. It was also found that Fe, Fe sub(3)O sub(4) and FeO located in the interface of infiltration layer, which were attributed to the antistatic property of ZrO sub(2) ceramics.</abstract><doi>10.15541/jim20130690</doi><tpages>6</tpages></addata></record>
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subjects Antistatics
Ceramics
Infiltration
Iron
Surface resistivity
Tetragonal zirconia polycrystals
Yttria stabilized zirconia
Zirconium dioxide
title Preparation of Antistatic Ceramics Employing Fe-infiltration in Sintered Zirconia Body
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