Special magnesium alloy for magnesium alloy wheel hub and preparation technology of special magnesium alloy
A preparation process and technology of magnesium alloys, applied in the field of alloys, can solve the problems of restricting the large-scale application of magnesium alloy parts, poor heat resistance, creep resistance and high temperature service performance, insufficient strength, etc., to improve strength, improve performance, and reduce impurities. Effect
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[0038] The preparation process of the invention is simple and has industrial application value, so that the high-strength deformed rare earth magnesium alloy can be directly produced under the existing industrial conditions. It can be deformed and processed on ordinary industrial extrusion, rolling, forging and other deformation processing equipment, and has the advantages of simple process, convenient operation and low cost.
[0039] In a preferred embodiment, in the preparation process of the special magnesium alloy used for the magnesium alloy hub, in the first step, the magnesium ingot is melted in an iron container, and the melting process is protected by a mixed gas. The mixed gas can protect the magnesium melt from oxidation.
[0040] In a preferred embodiment, in the preparation process of the special magnesium alloy used for the magnesium alloy wheel hub, in the second step, the alloying process adopts automatic stirring of the alloy melt, thereby promoting the unifor...
Embodiment 1
[0044] Step 1. Selecting raw materials: using the following components by mass percentage to prepare a magnesium alloy: 1.21% zinc; 8.2% aluminum; 0.62% cerium; 0.34% yttrium; the rest is magnesium;
[0045] Step 2. Melting: Put the magnesium ingot in an iron container to melt, and the melting process is protected by mixed gas;
[0046] Step 3, alloying: heat up to 660°C and add aluminum, zinc and yttrium, heat up to 740°C and add cerium, and automatically stir the alloy melt;
[0047] Step 4. Refining: PFD anaerobic refining at 735°C;
[0048] Step 4. Casting: cooling down to 695°C, using medium frequency electromagnetic casting;
[0049] Step 5, solution aging treatment: solution treatment at 420° C. for 2 hours, and then aging treatment at 180° C. for 16 hours.
Embodiment 2
[0051] Step 1. Select raw materials: prepare a magnesium alloy by using the following components by mass percentage: 0.8% zinc; 7.8% aluminum; 0.5% cerium; 0.2% yttrium; the rest is magnesium;
[0052] Step 2. Melting: Put the magnesium ingot in an iron container to melt, and the melting process is protected by mixed gas;
[0053] Step 3, alloying: heat up to 660°C and add aluminum, zinc and yttrium, heat up to 740°C and add cerium, and automatically stir the alloy melt;
[0054] Step 4. Refining: PFD anaerobic refining at 740°C;
[0055] Step 5. Casting: cooling down to 705°C, using intermediate frequency electromagnetic casting;
[0056]Step 6, solution aging treatment: solution treatment at 420° C. for 2 hours, and then aging treatment at 180° C. for 16 hours.
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