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The invention discloses a pressure resistant anti-fracture sliding plate fireproof material. The pressure resistant anti-fracture sliding plate fireproof material comprises raw materials including, by weight, 2-3 parts of calcium hydrophosphate, 40-50 parts of emery powder, 30-51 parts of alumina-magnesia spinel with the particle size being 1-2 mm, 2-3 parts of aluminium dihydrogen phosphate, 5-10 parts of expansible graphite, 0.3-0.5 part of silicone acrylic emulsion, 1-2 parts of triethanolamine oleic soap, 6-8 parts of phenolic resin, 10-12 parts of sisal fiber, 26-30 parts of tetraethoxysilane, 3-4 parts of a 10-13 mol/l saltpeter solution, 2-3 parts of glacial acetic acid, 0.2-0.3 part of polyisobutene and 1-2 parts of hydroxyl silicone oil. The ethyl orthosilicate is hydrolyzed into a silanol solution on the condition that the catalyst glacial acetic acid is added, the silanol solution and a fiber emulsion are mixed, a heterocomplex containing carbon and silicon is obtained by evaporating the solvent, and finally the fiber emulsion provides a carbon source through high temperature carbonization to obtain a carbon-silicon compound additive. The carbon-silicon compound additive is stable in chemical performance, high in heat conductivity coefficient, small in thermal expansion coefficient, resistant to thermal shock, low in weight and high in strength.
The invention discloses a pressure resistant anti-fracture sliding plate fireproof material. The pressure resistant anti-fracture sliding plate fireproof material comprises raw materials including, by weight, 2-3 parts of calcium hydrophosphate, 40-50 parts of emery powder, 30-51 parts of alumina-magnesia spinel with the particle size being 1-2 mm, 2-3 parts of aluminium dihydrogen phosphate, 5-10 parts of expansible graphite, 0.3-0.5 part of silicone acrylic emulsion, 1-2 parts of triethanolamine oleic soap, 6-8 parts of phenolic resin, 10-12 parts of sisal fiber, 26-30 parts of tetraethoxysilane, 3-4 parts of a 10-13 mol/l saltpeter solution, 2-3 parts of glacial acetic acid, 0.2-0.3 part of polyisobutene and 1-2 parts of hydroxyl silicone oil. The ethyl orthosilicate is hydrolyzed into a silanol solution on the condition that the catalyst glacial acetic acid is added, the silanol solution and a fiber emulsion are mixed, a heterocomplex containing carbon and silicon is obtained by evaporating the solvent, and finally the fiber emulsion provides a carbon source through high temperature carbonization to obtain a carbon-silicon compound additive. The carbon-silicon compound additive is stable in chemical performance, high in heat conductivity coefficient, small in thermal expansion coefficient, resistant to thermal shock, low in weight and high in strength.
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