Preparation method of flame retardant coating casting material for guide rod
A castable and refractory layer technology is applied in the field of slag blocking plugs, which can solve the problems of long demoulding and curing time, high production cost, shortening the demoulding and curing time of production guide rods, etc., so as to shorten the demoulding curing time and reduce the production cost. Effect
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Embodiment 1
[0023] A refractory layer castable for guide rods in this embodiment has the following components in parts by mass: 52 parts of bauxite, 27 parts of magnesia, 13 parts of waste high alumina bricks, 9 parts of white corundum, and blast furnace gas ash 12 parts, 6 parts of fly ash, 14 parts of bentonite, 11 parts of phenolic resin, 5 parts of silicone resin. Wherein: the waste high-alumina bricks are composed of powders with a particle size of ≤1mm, 3-1mm, 5-3mm, and 8-5mm, wherein powders with a particle size of ≤1mm account for 28% of the total mass of waste high-alumina bricks, The powder with a particle size of 3-1mm accounts for 45% of the total mass of waste high-alumina bricks, the powder with a particle size of 5-3mm accounts for 22% of the total mass of waste high-alumina bricks, and the powder with a particle size of 8-5mm accounts for 45% of the total mass of waste high-alumina bricks. 5% of the total mass of the brick; the average particle size of the bauxite, magnes...
Embodiment 2
[0031] A refractory layer castable for guide rods in this embodiment has the following components in parts by mass: 50 parts of bauxite, 25 parts of magnesia, 12 parts of waste high alumina bricks, 8 parts of white corundum, and blast furnace gas ash 11 parts, 4 parts of fly ash, 12 parts of bentonite, 9 parts of phenolic resin and 4 parts of silicone resin. Wherein: the waste high-alumina bricks are composed of powders with a particle size of ≤1mm, 3-1mm, 5-3mm, and 8-5mm, wherein powders with a particle size of ≤1mm account for 28% of the total mass of waste high-alumina bricks, The powder with a particle size of 3-1mm accounts for 45% of the total mass of waste high-alumina bricks, the powder with a particle size of 5-3mm accounts for 22% of the total mass of waste high-alumina bricks, and the powder with a particle size of 8-5mm accounts for 45% of the total mass of waste high-alumina bricks. 5% of the total mass of the brick; the average particle size of the bauxite, magn...
Embodiment 3
[0039] A refractory layer castable for guide rods in this embodiment has the following components in parts by mass: 54 parts of bauxite, 28 parts of magnesia, 14 parts of waste high alumina bricks, 10 parts of white corundum, blast furnace gas ash 13 parts, 8 parts of fly ash, 15 parts of bentonite, 14 parts of phenolic resin and 6 parts of silicone resin. Wherein: the waste high-alumina bricks are composed of powders with a particle size of ≤1mm, 3-1mm, 5-3mm, and 8-5mm, wherein powders with a particle size of ≤1mm account for 28% of the total mass of waste high-alumina bricks, The powder with a particle size of 3-1mm accounts for 45% of the total mass of waste high-alumina bricks, the powder with a particle size of 5-3mm accounts for 22% of the total mass of waste high-alumina bricks, and the powder with a particle size of 8-5mm accounts for 45% of the total mass of waste high-alumina bricks. 5% of the total mass of the brick; the average particle size of the bauxite, magnes...
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