Copper-tin-zirconium intermediate alloy and manufacture method thereof
A master alloy and copper-tin technology, which is applied in the field of copper-tin-zirconium master alloy and its preparation, can solve the problems of copper oxidation of copper-tin-zirconium master alloy, large burning loss of alloy elements Zr and Sn, and difficult control of the ratio, and achieve copper oxidation The effect of less degree, less burning loss and volatilization, and less burning loss
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Embodiment 1
[0014] 1. First weigh 5 kg of raw material tin, 1 kg of zirconium, and 94 kg of copper;
[0015] 2. Heat and melt the weighed copper raw material in a vacuum melting furnace, and raise the temperature to 1100°C until the copper is completely melted, then adjust the vacuum to 0.5-0.8Pa, then add Zr, and quickly rush into argon to raise the pressure to 0.1~0.12MPa;
[0016] 3. After quickly adding Sn, stir it evenly with a stone mill;
[0017] 4. The reactant is directly cast into an ingot with a water-cooled copper mold to obtain a copper-tin-zirconium master alloy;
[0018] The copper and master alloy prepared according to the above-mentioned proportion and process have the following chemical composition weight percentages: Sn: 4.4%, Zr: 0.8%, Cu: 94.8%.
Embodiment 2
[0020] 1. First weigh 7.5 kg of raw material tin, 3 kg of zirconium, and 89.5 kg of copper;
[0021] 2. Heat and melt the weighed copper raw material in a vacuum melting furnace, and raise the temperature to 1150°C until the copper is completely melted, then adjust the vacuum to 0.5-0.8Pa, then add Zr, and quickly rush into argon to raise the pressure to 0.1~0.12MPa;
[0022] 3. After quickly adding Sn, stir it evenly with a stone mill;
[0023] 4. The reactant is directly cast into an ingot with a water-cooled copper mold to obtain a copper-tin-zirconium master alloy.
[0024] The copper and master alloy prepared according to the above-mentioned proportion and process have the following chemical composition weight percentages: Sn: 7.2%, Zr: 2.8%, Cu: 90%.
Embodiment 3
[0026] 1. First weigh 10 kg of raw material tin, 5 kg of zirconium, and 85 kg of copper;
[0027] 2. Heat and melt the weighed copper raw material in a vacuum melting furnace, and raise the temperature to 1100°C until the copper is completely melted, then adjust the vacuum to 0.5-0.8Pa, then add Zr, and quickly rush into argon to raise the pressure to 0.1~0.12MPa;
[0028] 3. After quickly adding Sn, stir it evenly with a stone mill;
[0029] 4. The reactant is directly cast into an ingot with a water-cooled copper mold to obtain a copper-tin-zirconium master alloy;
[0030] The copper and master alloy prepared according to the above-mentioned proportion and process have the following chemical composition weight percentages: Sn: 9.5%, Zr: 4.6%, Cu: 85.9%.
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