Magnesia-alumina-ferroalloy preparation method
A ferroalloy, magnesium-aluminum technology, applied in the direction of improving process efficiency, can solve the problem of low metal yield, achieve the effect of large melting point, low cost, and convenient use
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Embodiment 1
[0012] Alloy composition (the following are all mass fractions): Magnesium: 3%; Aluminum: 35%; Iron: 62% Cloth order: put about a quarter of the aluminum in the furnace first, then add all the magnesium, and then add the rest aluminum, and finally add all the metallic iron or scrap.
[0013] Smelting method: first heat rapidly at 30-50°C / min, add to about 700°C, reduce the heating rate by 10-30°C / min and increase the heating rate to 900°C, and measure the temperature of the watch case with an infrared thermometer to measure approximately higher than that in the furnace The lowest temperature is about 50 degrees to 100 degrees, and it changes with the heating rate. After the surface temperature reaches 900 degrees, the heating rate is reduced again, and the heating rate is 1-10 °C / min. This stage is basically in the process of heat preservation, so that all the solid substances in the furnace are melted. Pouring is performed after all of them become liquid and intermelted.
Embodiment 2
[0015] Alloy composition: Magnesium: 5%; Aluminum: 35%; Iron: 60%
[0016] The fabric order and smelting method are the same as Example 1.
Embodiment 3
[0018] Alloy composition: Magnesium: 8%; Aluminum: 37%; Iron 55% The distribution sequence and smelting method are the same as Example 1.
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Abstract
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