Microsilica as a Modifying Component in Fired Ceramics

V.F. Torosyan; D.S. Gorlov

doi:10.4028/www.scientific.net/AMM.770.3

Paper Titles

Preface and Committees

Microsilica as a Modifying Component in Fired Ceramics
p.3

Modern Approaches to Efficient Use of Mn-Containing Raw Material in Steel Production
p.8

Nitrogen Alloying of Steel by Blowing in the Ladle through Bottom and Submersible Tuyeres
p.14

Influence of High-Concentrated Heat Sources on Alloying Elements Transition into the Weld Metal
p.19

Preparation of Copper Electroerosion Nanopowders from Waste of Aquatic Medium and its Validation by Physicochemical Methods
p.23

Methods for Defining the Concentration of Nanostructured Powders in Protective Gas and its Effect on the Microstructure of Deposit Metal
p.28

Increasing Machining Efficiency of Components Made from Hard-Processing Materials
p.34

New Multilayer Corrosion Resistant Materials for Nuclear Power Engineering
p.40

HomeApplied Mechanics and MaterialsApplied Mechanics and Materials Vol. 770Microsilica as a Modifying Component in Fired...

Microsilica as a Modifying Component in Fired Ceramics

Abstract:

The principal directions in the development of construction material industry include expansion of raw material sources, quality improvement of raw materials subjected to preliminary treatment, application of modifying components, constructive and technological modernization of manufacturing process. Manufacturing of ceramic bricks is one that dominates this industry. We know that there isn’t enough conditional clay suitable for ceramics production in most East regions of Russia and West Siberia. However, in many regions there are powerful heat power plants and highly-developed metallurgical enterprises, which produce sideline products alongside with basic output. The issue of complex utilization of wastes produced by power engineering and metallurgy has not been successfully resolved yet. Slag and other silica-containing sideline products of main production have not practically been used to the full. Nevertheless, it’s necessary to note, that disperse condition of silica-containing wastes as well as their physical and chemical characteristics predetermine prospective application of silica-containing materials in ceramics.

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Periodical:

Applied Mechanics and Materials (Volume 770)

Pages:

3-7

DOI:

https://doi.org/10.4028/www.scientific.net/AMM.770.3

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Online since:

June 2015

Authors:

V.F. Torosyan*, D.S. Gorlov

Keywords:

Burning, Ceramic Material, Chemical Composition, Clay, Compression Resistance, Micro-Silica, Modifying Component, Phase Building, Plastic Molding, Plasticity, Water Adsorption

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