A device for strong shearing of magnesium metal melt
A metal magnesium and strong shearing technology, applied in the field of magnesium and magnesium alloys, can solve problems such as uneven distribution, failure to fully utilize the potential advantages and characteristics of magnesium alloy materials, and difficulty in meeting high-performance structural materials
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment approach
[0052] According to an embodiment of the present invention, the twist angle of the impeller blade edge 122 of the second impeller blade B is larger than that of the first impeller blade A. As shown in FIG.
[0053] The second impeller blade B is close to the inlet direction of the metal magnesium melt, such as Figure 5 As shown, it is the impeller blade B at the bottom, the two impeller blades rotate coaxially, the twist angle of the impeller blade 122 of the second impeller blade B is greater than the twist angle of the impeller blade 122 of the first impeller blade A, so that the metal The magnesium melt passes through the primary shearing of the second impeller blade B, forms a turbulent flow between the impeller blade and the first housing, and then undergoes secondary shearing of the first impeller blade A. Wherein, the shear density at the second impeller blade B is smaller than the shear density at the first impeller blade A. The shearing effect on the metal magnesium...
Embodiment
[0082] The molten magnesium in the electrolytic cell is extracted and fed into the continuous refining furnace, which has six compartments called "furnace chambers". Two separate liquid phases are operated in the continuous refining furnace, the bottom liquid phase is molten salt, and the upper liquid phase is molten metal magnesium (ie, metal magnesium melt). The bottom of the refining furnace is connected so that the molten salt can flow throughout the refining furnace in order to maintain the temperature of the refining furnace through the AC electrodes and electrolyte resistance. The refined magnesium and magnesium alloy melts are processed by a strong shear process and then transferred to the casting station of the magnesium ingot casting machine, where the casting operation starts at 685°C. The metal magnesium melt is cooled and solidified into solid magnesium and magnesium alloy ingots at 350-450°C, and then the magnesium ingots are cooled to below 60°C by means of wate...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 


