Scientific and practical approaches to creating ceramic refractory materials and technology

被引：0
|
作者：
O. V. Roman
F. I. Panteleenko
O. P. Reut
V. T. Shmuradko
N. V. Kirshina
A. V. Zhilevich
机构：
[1] National Academy of Sciences of Belarus,
[2] Belarus National technical University,undefined
[3] Higher Qualification Institute of the Belarus National technical University,undefined
[4] Autonomous Self-Supporting Structural Sub-Division of the Institute of Pulsed Processes of the State Scientific establishment of the Institute of Powder Metallurgy,undefined
[5] GU 348 Stomatological Centre of the Armed Forces of the Belarus Republic,undefined
来源：
Refractories and Industrial Ceramics | 2011年 / 51卷
关键词：
ceramic refractory material; corrosion-erosion resistance; fragmentary structure; temporary production binder (TPB); “floating” (“rigid”) skeleton; sol-gel process; highly concentrated binder suspension (HCBS); melting and casting crucibles (technology);
D O I：
暂无
中图分类号：
学科分类号：
摘要：
A comprehensive methodological approach is proposed for resolving metallurgical problems within the scope of a multistage problem formula “composition – structure – properties” – “technology” – “thermal shock-corrosion-erosion-resistant material” followed by development of material technology and objects conforming to refractory conditions and operating regimes in heating units. Practical scientific approaches are considered for forming heat and corrosion resistant refractory materials. A general structural model is proposed for ceramic refractory technology making it possible by computer modelling to perform systematic analysis, prediction and calculation of specific technological parameters in the main production stages.
引用
收藏
页码：334 / 342
页数：8
相关论文
共 50 条
  • [31] INVESTIGATIONS ON CERAMIC MATERIALS FOR FUSION TECHNOLOGY
    DIENST, W
    FETT, T
    HEIDINGER, R
    ROHRIG, HD
    SCHULZ, B
    JOURNAL OF NUCLEAR MATERIALS, 1990, 174 (01) : 102 - 109
  • [32] NEW CERAMIC MATERIALS TECHNOLOGY DEVELOPED
    HAGGIN, J
    CHEMICAL & ENGINEERING NEWS, 1990, 68 (37) : 23 - 23
  • [33] ISOSTATIC PRESSING TECHNOLOGY FOR REFRACTORY MATERIALS
    DEGTYAREVA, EV
    GRINBERG, YM
    REFRACTORIES, 1982, 23 (7-8): : 395 - 401
  • [34] Synergistic and Quasichemical Approaches in Ceramic Technology (A Review)
    A. V. Belyakov
    Glass and Ceramics, 2003, 60 : 274 - 279
  • [35] Synergistic and quasichemical approaches in ceramic technology (a review)
    Belyakov, AV
    GLASS AND CERAMICS, 2003, 60 (9-10) : 274 - 279
  • [36] Recovery of Raw Materials from Ceramic Waste Materials for the Refractory Industry
    Seifert, Severin
    Dittrich, Sebastian
    Bach, Juergen
    PROCESSES, 2021, 9 (02)
  • [37] Sustainable Approaches for the Additive Manufacturing of Ceramic Materials
    Villa, Alice
    Gianchandani, Pardeep Kumar
    Baino, Francesco
    CERAMICS-SWITZERLAND, 2024, 7 (01): : 291 - 309
  • [38] Archaeometric approaches on iron age ceramic materials
    Garcia-Heras, M
    BOLETIN DE LA SOCIEDAD ESPANOLA DE CERAMICA Y VIDRIO, 1999, 38 (04): : 289 - 295
  • [39] Directed synthesis of multilayer structures in ceramic and refractory technology
    V. T. Shmuradko
    O. R. Roman
    A. F. Il’yushchenko
    I. V. Fomikhina
    Refractories and Industrial Ceramics, 2007, 48 : 189 - 196
  • [40] Directed synthesis of multilayer structures in ceramic and refractory technology
    Shmuradko, V. T.
    Roman, O. R.
    Il'yushchenko, A. F.
    Fomikhina, I. V.
    REFRACTORIES AND INDUSTRIAL CERAMICS, 2007, 48 (03) : 189 - 196
12345