Environment-friendly type steel billet coating material
An environment-friendly and coating technology, applied in coatings and other directions, can solve the problems of environmental pollution of chromium-containing coatings, and achieve the effects of good spreading performance, compact sintering and good anti-oxidation performance
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Embodiment 1
[0022] Environmental protection type steel billet coating, which is made by mixing base material and suspending agent;
[0023] The base material in this embodiment is made by mixing the following components in parts by weight: sintered magnesia 70, fused magnesia 10, bentonite 1, dextrin 1.0, sodium tripolyphosphate 3, and silicon micropowder 4.
[0024] The base material adopts a particle size classification ratio, based on the total weight of the base material: 150 mesh: 6 wt%, 180 mesh: 80 wt%, 200 mesh: 8 wt%, 320 mesh: 6 wt%.
[0025] The suspending agent is sodium polyacrylate, which accounts for 6wt% of the total weight of the coating. After the sodium polyacrylate and water are mixed in a weight ratio of 1:4, they can be mixed with the aforementioned base material.
[0026] Comparative experiment 1:
[0027] The following is a comparative experiment on the oxidation of the steel billet without coating and the steel billet using the coating of the present invention.
[002...
Embodiment 2
[0033] The weight parts of the components of the base material in this embodiment are: sintered magnesia 74, fused magnesia 10, bentonite 4, dextrin 0.6, sodium tripolyphosphate 3, and silicon micropowder 3.
[0034] The particle size classification ratio of the base material is: 150 mesh: 7 wt%, 180 mesh: 75 wt%, 200 mesh: 9 wt%, and 320 mesh: 9 wt%.
[0035] The suspending agent is sodium polyacrylate, which accounts for 7wt% of the total weight of the coating. After the sodium polyacrylate and water are mixed in a weight ratio of 1:4, they can be mixed with the aforementioned base material.
[0036] Comparative experiment two:
[0037] The following is a comparative experiment on the spreading performance of the coating described in this embodiment and the chromium-containing coating on the surface of a steel billet at 600°C.
[0038] Figure 5 is a photograph of the spreading performance of the coating of the present invention on the surface of a steel billet at 600°C.
[0039]...
Embodiment 3
[0042] The base material in this embodiment is made by mixing the following components in parts by weight: sintered magnesia 80, fused magnesia 5, bentonite 3, dextrin 0.7, sodium tripolyphosphate 7, and silicon micropowder 1.
[0043] The base material adopts a particle size classification ratio, based on the total weight of the base material: 150 mesh: 10wt%, 180 mesh: 70wt%, 200 mesh: 10wt%, 320 mesh: 10wt%.
[0044] The suspending agent is sodium polyacrylate, which accounts for 8wt% of the total weight of the coating. After the sodium polyacrylate and water are mixed in a weight ratio of 1:4, they can be mixed with the aforementioned base material.
[0045] Comparative experiment three:
[0046] The following is a comparison experiment of the slag erosion resistance performance of the coating described in this embodiment and the chromium-containing coating at 1350°C on the surface of the billet.
[0047] Figure 7 is a photograph of the slag corrosion resistance of the surface...
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Abstract
Description
Claims
Application Information
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