Composite infrared radiation paint and preparation method thereof and infrared radiating coating
An infrared radiation coating, infrared radiation coating technology, applied in coatings, alkali metal silicate coatings, sustainable manufacturing/processing and other directions, can solve the problems of poor infrared radiation performance and energy saving effect, low boiler thermal efficiency, etc. The effect of high emissivity and absorption rate, improved thermal efficiency, and extended service life
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Embodiment 1
[0030] Weigh each raw material in the following parts by weight, wherein the particle size of all the powders in component A is ≥320 mesh, and after mixing, the composite infrared radiation coating S1 of this embodiment is obtained:
[0031] Component A: 40 parts by weight of composite infrared powder with spinel structure;
[0032] 5 parts by weight of white corundum,
[0033] Brown corundum 5 parts by weight,
[0034] 10 parts by weight of black corundum,
[0035] Fumed silica 1 part by weight,
[0036] 39 parts by weight of sodium silicate water glass,
[0037] Among them, the composite infrared powder with spinel structure is made of 50%MnO 2 , 30% Fe 2 o 3 , 10%CuO, 5%Co 2 o 3 , 5%Cr 2 o 3 After mixing evenly, press into agglomerates, sinter at 1300°C for 2 hours, cool to room temperature, and pulverize to make a powder with a particle size of D90 ≥ 325 mesh.
[0038] Component B: sodium fluorosilicate coagulant;
[0039] The weight ratio of component A to compo...
Embodiment 2
[0042] Weigh each raw material in the following parts by weight, wherein the particle size of all powders in component A is ≥320 mesh, and after mixing, the composite infrared radiation coating S2 of this embodiment is obtained:
[0043] Component A: 60 parts by weight of composite infrared powder with spinel structure;
[0044] 12 parts by weight of brown corundum;
[0045] Fumed white carbon black 3 parts by weight;
[0046] 25 parts by weight of sodium silicate water glass;
[0047] Among them, the composite infrared powder with spinel structure is made of 60%MnO 2 , 20% Fe 2 o 3 , 10%CuO, 5%Co 2 o 3 , 5% NiO mixed evenly and pressed into blocks, sintered at 1250 ° C for 2 hours, cooled to room temperature and pulverized to make powder with particle size D90 ≥ 400 mesh.
[0048] Component B: potassium fluorosilicate coagulant;
[0049] The weight ratio of component A to component B is 100:6.
[0050] Coating the above-mentioned composite infrared radiation coating ...
Embodiment 3
[0052] Weigh each raw material in the following parts by weight, wherein the particle size of all powders in component A is ≥320 mesh, and after mixing, the composite infrared radiation coating S3 of this embodiment is obtained:
[0053] Component A: 50 parts by weight of composite infrared powder with spinel structure;
[0054] 10 parts by weight of white corundum;
[0055] Fumed white carbon black 2 parts by weight;
[0056] 38 parts by weight of potassium silicate water glass;
[0057] Among them, the composite infrared powder with spinel structure is made of 70%MnO 2 , 20%Fe 2 o 3 , 5%CuO, 5%Co 2 o 3 After mixing evenly, press into agglomerates, sinter at 1280°C for 2 hours, cool to room temperature and pulverize to make powder with particle size D90 ≥ 500 mesh.
[0058] Component B: lithium fluorosilicate coagulant;
[0059] The weight ratio of component A to component B is 100:11.
[0060] The above-mentioned composite infrared radiation coating S3 is coated on ...
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