High-Temperature Bending Tests of Reaction-Sintered Silicon Carbide-Based Ceramic Materials
М. А. Марков, С. В. Вихман, Andrey N. Belyakov, Daria A. Dyuskina, А. Д. Каштанов, Sergei N. Perevislov, Andrey G. Chekuryaev, Alina D. Bykova
Abstract
М. А. Марков, С. В. Вихман, Andrey N. Belyakov, Daria A. Dyuskina, А. Д. Каштанов, Sergei N. Perevislov, Andrey G. Chekuryaev, Alina D. Bykova
Abstract
Abstract The high-temperature strength properties of silicon carbide-based ceramic materials reaction-sintered in air and vacuum are proved by experimental data. The ultimate bending strength of pressed and cast ceramic material samples at temperatures up to 1400°C was measured as a criterion. High-temperature tests demonstrate the guaranteed strength of ceramics above 100 MPa. An example of the manufacture of a complex shaped ceramic product using the hot slip casting processing under pressure into additive water-soluble forms is given. An approval of the combined technology makes it possible to manufacture bladed ceramic elements with a thickness of about 1 mm.
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Abstract The high-temperature strength properties of silicon carbide-based ceramic materials reaction-sintered in air and vacuum are proved by experimental data. The ultimate bending strength of pressed and cast ceramic material samples at temperatures up to 1400°C was measured as a criterion. High-temperature tests demonstrate the guaranteed strength of ceramics above 100 MPa. An example of the manufacture of a complex shaped ceramic product using the hot slip casting processing under pressure into additive water-soluble forms is given. An approval of the combined technology makes it possible to manufacture bladed ceramic elements with a thickness of about 1 mm.
Key concepts: Ceramic, Silicon carbide, Composite material, Slip (aerodynamics), Flexural strength, Bending, Materials science, Silicon