Manufacturing of advanced ceramic components via electrophoretic deposition

被引:5
|
作者
Tabellion, J [1 ]
Clasen, R [1 ]
机构
[1] Univ Saarland, Dept Powder Technol, D-66123 Saarbrucken, Germany
来源
EURO CERAMICS VII, PT 1-3 | 2002年 / 206-2卷
关键词
electrophoretic deposition; ceramics; graded composites; aqueous systems; electrophoretic impregnation; adjustable green density; silica; zirconia; alumina; ceria; nanosized fumed silica;
D O I
10.4028/www.scientific.net/KEM.206-213.397
中图分类号
TQ174 [陶瓷工业]; TB3 [工程材料学];
学科分类号
0805 ; 080502 ;
摘要
By means of electrophoretic deposition (EPD) ceramic or glass components and composites can be shaped fast with low energy input (electric field strengths in the range of 0.5 to 20 V/cm). High green densities up to 83 % of the theoretical value could be achieved using suspensions with comparably low solid matter content (less than 75 wt.%) with optimised particle size distribution. The low viscosity of these suspension (approximate to 4 to 500 mPa-s) enables to deagglomerate effectively the suspended powders. Furthermore, the deposition rate is independent of the particle size. This enables the fast manufacture of ceramic of advanced glass and ceramic components from nanosized powders. Via electrophoretic deposition of nanosized particles within the pores of a green body a homogeneous densification can be achieved. Furthermore, components with functionally graded density, pore size or/and graded chemical composition were manufactured by means of electrophoretic impregnation (EPI). Another possible application of the EPI is the incorporation of secondary phases, that are difficult to incorporated from the fluid phase, into ceramic and glass-matrices.
引用
收藏
页码:397 / 400
页数:4
相关论文
共 50 条
  • [21] Forming of a gradient ceramic material by electrophoretic deposition
    Börner, A.
    Herbig, R.
    Mangler, M.
    Tomandl, G.
    Materials Science Forum, 1999, 308-311 : 89 - 94
  • [22] Usability of electrophoretic deposition for additive manufacturing of ceramics
    Vogt, L.
    Schaefer, M.
    Kurth, D.
    Raether, F.
    CERAMICS INTERNATIONAL, 2019, 45 (11) : 14214 - 14222
  • [23] ADVANCED CERAMIC ENGINE COMPONENTS
    BART, RK
    AMERICAN CERAMIC SOCIETY BULLETIN, 1973, 52 (04): : 337 - 338
  • [24] Advanced Design and Manufacturing of Microwave Components Based on Shape Optimization and Ceramic Stereolithography Process
    Khalil, H.
    Delhote, N.
    Baillargeat, D.
    Bila, S.
    Aubourg, M.
    Verdeyme, S.
    Puech, J.
    Chaput, C.
    Delage, C.
    2008 IEEE MIT-S INTERNATIONAL MICROWAVE WORKSHOP SERIES ON ART OF MINIATURIZING RF AND MICROWAVE PASSIVE COMPONENTS, 2008, : 15 - +
  • [25] STABILIZATION OF ETHANOL BASED CERAMIC SUSPENSIONS FOR ELECTROPHORETIC DEPOSITION
    Menon, Mohan
    Decourcelle, Sophie
    Attia, Nizar
    Ramousse, Severine
    Larsen, Peter Halvor
    ADVANCES IN CERAMIC COATINGS AND CERAMIC-METAL SYSTEMS, 2005, 26 (03): : 239 - 246
  • [26] FORMING OF BETA-ALUMINA CERAMIC BY ELECTROPHORETIC DEPOSITION
    POWERS, RW
    AMERICAN CERAMIC SOCIETY BULLETIN, 1974, 53 (08): : 619 - 619
  • [27] Electrophoretic deposition of carbon nanotube-ceramic nanocomposites
    Boccaccini, A. R.
    Cho, J.
    Subhani, T.
    Kaya, C.
    Kaya, F.
    JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 2010, 30 (05) : 1115 - 1129
  • [28] Electrophoretic deposition applied to ceramic dental crowns and bridges
    Moritz, T.
    Eiselt, W.
    Moritz, K.
    JOURNAL OF MATERIALS SCIENCE, 2006, 41 (24) : 8123 - 8129
  • [29] Electrophoretic and electrolytic deposition of ceramic coatings on carbon fibers
    Zhitomirsky, I
    JOURNAL OF THE EUROPEAN CERAMIC SOCIETY, 1998, 18 (07) : 849 - 856
  • [30] Structural and functional thick ceramic coatings by electrophoretic deposition
    Kaya, C
    Kaya, F
    Su, B
    Thomas, B
    Boccaccini, AR
    SURFACE & COATINGS TECHNOLOGY, 2005, 191 (2-3): : 303 - 310