Method and device for non-vacuum horizontal continuous casting of easily oxidized alloy element containing copper alloy
An alloy element and horizontal continuous casting technology is applied to the non-vacuum horizontal continuous casting of copper alloys, the non-vacuum horizontal continuous casting method and the device field of copper alloys containing easily oxidized alloy elements, and can solve the problems of low production efficiency and investment in vacuum melting equipment. Problems such as large, equipment and methods are rarely mentioned
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Embodiment 1
[0022] Embodiment 1: Non-vacuum preparation of CuCrZr alloy
[0023] First put the electrolytic copper into the intermediate frequency coreless induction melting furnace 1 to heat, cover with charcoal, add Cr or CuCr intermediate alloy when the electrolytic copper is partially melted, continue heating until the metal is completely melted, and raise the temperature to 1200 ° C ~ 1400 ° C to remove oxygen and form slag , sampling analysis, after the Cr element content reaches the standard, the melt is transferred to the intermediate frequency induction holding furnace 2 through the launder 8;
[0024] While the melt is transferred from the launder 8 into the intermediate frequency induction holding furnace 2, the easy-to-oxidize alloy elements (such as Zr, Mg, Si, Ti, etc.) Induction holding furnace 2, protective gas is also passed into the refractory protective cover 4 on the outer layer of the graphite tube to prolong its service life, heat preservation and heating to make the...
Embodiment 2
[0026] Embodiment 2: Non-vacuum preparation of CuTi alloy
[0027] Put the electrolytic copper into the intermediate frequency coreless induction melting furnace 1 to heat, cover with charcoal, wait until the electrolytic copper is completely melted, raise the temperature to 1200℃~1400℃, and transfer the melt to the intermediate frequency induction holding furnace through launder 8 after deoxidizing and slagging 2 in.
[0028] While the melt is transferred from the launder 8 into the intermediate frequency induction holding furnace 2, the easily oxidizable alloy element Ti or CuTi alloy with a good ratio is continuously sent into the intermediate frequency induction holding furnace 2 through the graphite tube 3 filled with a protective atmosphere. Protective gas is also passed into the refractory material protective cover 4 of the outer layer to prolong its service life, and heat preservation and heating make the melt temperature between 1100°C and 1300°C;
[0029] Sampling a...
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