Novel ceramic-metal composites with metal phase from micro to nanosize

被引:5
|
作者
Konopka, K [1 ]
机构
[1] Warsaw Univ Technol, Fac Mat Sci & Engn, PL-02507 Warsaw, Poland
来源
BULK AND GRADED NANOMETALS | 2005年 / 101-102卷
关键词
ceramic-metal composites; microstructure; FRACTURE-TOUGHNESS;
D O I
10.4028/www.scientific.net/SSP.101-102.139
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
The present paper is focused on ceramic-metal composites obtained via different technologies which leads to different microstructures in terms of size and distribution of metal phase. Composites analysed in paper were produced by the following methods:(a) infiltration of porous ceramics by metal. (b) consolidation under high pressure and (c) sintering of ceramic powder coated by metal. Their microstructures were investigated by scanning and transmission electron microscopy methods. The three methods of composite fabrication employed in the present study result in specific spatial distribution and dispersion of metal phase. Presureless infiltration of porous ceramics by liquid metal is driven by capillary force and make it possible to produce microstructure with percolation of metal phase in ceramic matrix. The volume fraction of metal phase in this case depends on the size of pores. The size of pores influence also the kinetics and extent of infiltration. Ceramic preforms with small size of pore are not fully infiltrated. This method is useful for composite with size of metal phase in the range of micrometers. Hot pressing under high pressure produces microstructures of composites with metal phase grain size in the range from nano to micrometers. Moreover, it allows to achieve the nanometric size of ceramic grains. In the case of ceramic powders covered by metal, compression and hot pressing preserves nanometric size of metal. The grain growth of ceramic grains is suppressed.
引用
收藏
页码:139 / 142
页数:4
相关论文
共 50 条
  • [41] WETTING BONDING AND CHEMICAL REACTIONS IN CERAMIC-METAL COMPOSITES
    SUTTON, WH
    AMERICAN CERAMIC SOCIETY BULLETIN, 1968, 47 (08): : 742 - &
  • [42] Fabrication of layered ceramic-metal composites by detonation spraying
    Ulianitsky, V. Yu
    Shtertser, A. A.
    Batraev, I. S.
    Rybin, D. K.
    CERAMICS INTERNATIONAL, 2020, 46 (17) : 27903 - 27908
  • [43] DIPHASIC XEROGELS .1. CERAMIC-METAL COMPOSITES
    ROY, RA
    ROY, R
    MATERIALS RESEARCH BULLETIN, 1984, 19 (02) : 169 - 177
  • [44] CERAMIC-METAL COMPOSITES OBTAINED BY SLIP CASTING METHOD
    Gizowska, Magdalena
    Szafran, Mikolaj
    Bobryk, Ewa
    Wasilewski, Lukasz
    Konopka, Katarzyna
    COMPOSITES THEORY AND PRACTICE, 2008, 8 (01): : 53 - 58
  • [45] Preparation and Characterization of Fe/SiC Ceramic-Metal Composites
    Liu, Zhongsheng
    Shao, Gang
    Chen, Deliang
    Zhang, Rui
    HIGH-PERFORMANCE CERAMICS VI, 2010, 434-435 : 66 - 68
  • [46] WAVE PROPAGATION IN CERAMIC-METAL COMPOSITES WITH INTERPENETRATING MICROSTRUCTURE
    Ivanova, Jordanka
    Valeva, Varbinka
    Pastrone, Franco
    COMPTES RENDUS DE L ACADEMIE BULGARE DES SCIENCES, 2009, 62 (03): : 385 - 392
  • [47] In vivo biocompatibility of a novel ceramic-metal biocomposite
    Ying, DY
    Luo, LX
    Young, B
    Julian, AF
    BIOCERAMICS 17, 2005, 284-286 : 807 - 810
  • [48] Electrical Conductivity Research of Inhomogeneous Ceramic-Metal Composites
    Feng, Lichao
    Yu, Xuemei
    Qiao, Bin
    He, Yiqiang
    FRONTIER OF NANOSCIENCE AND TECHNOLOGY, 2011, 694 : 733 - 737
  • [49] Ceramic-metal interpenetrating network composites formed by electrodeposition
    Wei, X
    Atkinson, A
    JOURNAL OF THE ELECTROCHEMICAL SOCIETY, 2005, 152 (08) : C513 - C519
  • [50] Functionally graded ceramic and ceramic-metal composites shaped by electrophoretic deposition
    Put, S
    Vleugels, J
    Anné, G
    Van der Biest, O
    COLLOIDS AND SURFACES A-PHYSICOCHEMICAL AND ENGINEERING ASPECTS, 2003, 222 (1-3) : 223 - 232