A kind of infrared radiation coating and its preparation method and a kind of infrared radiation coating
An infrared radiation coating and infrared radiation coating technology, applied in the field of metallurgy and coatings, can solve the problems of high cost and poor thermal shock resistance of the coating, and achieve the goal of reducing raw material costs, improving heat storage capacity and thermal shock resistance stability Effect
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Embodiment 1
[0025] Weigh each raw material according to the following mass fractions, and obtain the infrared radiation coating S1 of the present embodiment after mixing:
[0026] From 60wt%MnO 2 , 20wt%Fe 2 o 3 , 10wt%CuO, 5wt%Co 2 o 3 , 5wt%NiO powder is sintered and crushed at 1300°C to prepare 60 parts by mass of spinel structure ceramic powder with D90≥325 mesh;
[0027] 40 parts by mass of mullite;
[0028] 20 parts by mass of aluminum phosphate;
[0029] 20 parts by mass of chromium phosphate;
[0030] 20 parts by mass of aluminum chromium phosphate;
[0031] 8wt% polyvinyl formal aqueous solution 40 mass parts.
[0032] Coating the above-mentioned infrared radiation coating S1 on the high-alumina brick regenerator, the emissivity of the formed infrared radiation coating is 0.92, and the heat storage capacity is increased by 30% at 1200°C.
Embodiment 2
[0034] Each raw material is weighed according to the following mass fractions, and the infrared radiation coating S2 of the present embodiment is obtained after mixing:
[0035] From 50wt%MnO 2 , 40wt%Fe 2 o 3 , 10wt%Co 2 o 3 Prepare 40 parts by mass of spinel structure ceramic powder with D90≥600 mesh through sintering and crushing at 1320°C;
[0036] 60 parts by mass of cordierite;
[0037] 10 parts by mass of chromium phosphate;
[0038] 40 parts by mass of aluminum chromium phosphate;
[0039] 50 mass parts of 6wt% polyvinyl formal aqueous solution.
[0040] Coating the above-mentioned infrared radiation coating S2 on the silica brick regenerator, the emissivity of the formed infrared radiation coating is 0.88, and the heat storage capacity at 600°C is increased by 5%.
Embodiment 3
[0042] Each raw material is weighed according to the following mass fractions, and the infrared radiation coating S3 of the present embodiment is obtained after mixing:
[0043] From 30wt%MnO 2 , 20wt%Fe 2 o 3 , 10wt%CuO, 30wt%Cr 2 o 3 , 10wt%NiO was sintered at 1360°C and pulverized to prepare 40 parts by mass of spinel structure ceramic powder with D90≥500 mesh;
[0044] 30 parts by mass of cordierite;
[0045] 30 parts by mass of mullite;
[0046] 80 parts by mass of aluminum chromium phosphate;
[0047] 120 parts by mass of 5wt% polyvinyl formal aqueous solution.
[0048] The above-mentioned infrared radiation coating S3 is coated on the high-alumina brick regenerator, and the radiation ratio of the formed infrared radiation coating is 0.89, and the heat storage capacity is increased by 18% at 1200°C.
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Abstract
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