Creep resistance magnesium alloy and manufacture method thereof
A magnesium alloy and anti-creep technology, which is applied in the fields of magnesium alloy and its preparation, creep-resistant magnesium alloy and its preparation, can solve the problem of high-temperature creep resistance performance description of alloys, inability to give full play to aging strengthening, and unfavorable high-temperature performance of magnesium alloys etc. to achieve the effects of light weight, excellent high temperature strength and creep resistance, and acceptable cost
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Embodiment 1
[0026] Alloy composition (percentage by weight): 1% Sm, 0.2% Zn, 0.2% Y, 0.3% Zr, impurity elements are less than 0.02%, and the rest is Mg.
[0027] The specific steps of the melting process of the alloy are as follows: (1) configure the alloy according to the above components, add pure magnesium into the resistance crucible furnace, and use SF 6 and CO 2 Mixed gas for protection; (2) After the magnesium is completely melted, add industrial pure zinc at 680°C; (3) When the temperature of the magnesium liquid reaches 700°C, directly add the Mg-Sm master alloy into the magnesium liquid, Mg-Sm After melting, when the temperature of the molten magnesium rises to 720°C, add the Mg-Y master alloy; (4) After the temperature of the magnesium liquid rises to 760°C, add the Mg-Zr master alloy, and stir for 2 minutes to promote its full melting; (5) The temperature of the molten magnesium is 780°C, keep it warm for 20 minutes, then cool it down to 750°C, refine it continuously for 6 mi...
Embodiment 2
[0032] Alloy composition (percentage by weight): 6% Sm, 3% Zn, 1% Y, impurity elements are less than 0.02%, and the rest is Mg.
[0033] The specific steps of the melting process of the alloy are as follows: (1) configure the alloy according to the above components, add pure magnesium into the resistance crucible furnace, and use SF 6 and CO 2 Mixed gas for protection; (2) After the magnesium is completely melted, add industrial pure zinc at 700°C; (3) When the temperature of the magnesium liquid reaches 720°C, directly add the Mg-Sm master alloy into the magnesium liquid, Mg-Sm After melting, when the temperature of the molten magnesium rises to 740°C, add the Mg-Y master alloy; (4) Raise the temperature of the molten magnesium to 800°C, keep it warm for 20 minutes, then cool it down to 740°C, and refine it continuously for 10 minutes, and control the standing time after refining Between 40 minutes, after the molten magnesium is cooled to 720°C, skim off the surface scum and...
Embodiment 3
[0038] Alloy composition (percentage by weight): 6% Sm, 3% Zn, 1% Y, 0.5Zr, impurity elements are less than 0.02%, and the rest is Mg.
[0039] The specific steps of the melting process of the alloy are as follows: (1) configure the alloy according to the above components, add pure magnesium into the resistance crucible furnace, and use SF 6 and CO 2 Mixed gas for protection; (2) After the magnesium is completely melted, add industrial pure zinc at 700°C; (3) When the temperature of the magnesium liquid reaches 720°C, directly add the Mg-Sm master alloy into the magnesium liquid, Mg-Sm After melting, when the temperature of the molten magnesium rises to 740°C, add the Mg-Y master alloy; (4) After the temperature of the magnesium liquid rises to 780°C, add the Mg-Zr master alloy, and stir for 5 minutes to promote its full melting; (5) The temperature of the molten magnesium is 800°C, keep it warm for 20 minutes, then cool it down to 740°C, refine it continuously for 10 minutes...
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Abstract
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