Method for separating and recovering nickel and cobalt in waste nickel-based superalloy by melt extraction
A nickel-based superalloy, separation and recovery technology, applied in the direction of reducing gas emissions, improving process efficiency, etc., can solve the problems of low added value, no competitiveness, low product purity, etc., to achieve simple equipment, wide use, nickel-cobalt The effect of high recovery rate
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Embodiment 1
[0046] The nickel-based superalloy waste to be recovered and separated in this embodiment includes Ni, Co, Fe, Mo, and Ta elements, wherein the mass percentage of Ni is 52.6%, and the mass percentage of Co is 9.5%.
[0047] combine figure 1 In this embodiment, the method for separating and recovering nickel and cobalt from nickel-based superalloy waste materials includes the following steps.
[0048] (1) The surface of the nickel-based superalloy waste is treated to remove the refractory material on the surface of the nickel-based superalloy waste, and then the waste nickel-based superalloy is cleaned and dried to obtain clean raw materials.
[0049] (2) Take 1000g of clean nickel-based superalloy material, extract 5000.0g of Mg-Bi binary alloy, and the mole percentages of Mg and Bi in the Mg-Bi binary alloy are 90% and 10% respectively. The clean nickel-based superalloy is placed in a porous and hoistable titanium mesh, the extraction medium is placed in a graphite crucible,...
Embodiment 2
[0052] The nickel-based superalloy waste to be recovered and separated in this embodiment includes Ni, Co, Fe, Mo, and Ta elements, wherein the mass percentage of Ni is 54.6%, and the mass percentage of Co is 9.3%.
[0053] combine figure 1 In this embodiment, the method for separating and recovering nickel and cobalt from nickel-based superalloy waste materials includes the following steps.
[0054] (1) The surface of the nickel-based superalloy waste is treated to remove the refractory material on the surface of the nickel-based superalloy waste, and then the waste nickel-based superalloy is cleaned and dried to obtain clean raw materials.
[0055] (2) Take 900 g of clean nickel-based superalloy material, 7200.0 g of Mg-Sn binary alloy as the extraction medium, and the mole percentages of Mg and Sn in the Mg-Sn binary alloy are 70% and 30%, respectively. The clean nickel-based superalloy is placed in a porous and hoistable titanium mesh, the extraction medium is placed in a...
Embodiment 3
[0058] The nickel-based superalloy waste to be recovered and separated in this embodiment includes Ni, Co, Fe, Mo, and Ta elements, wherein the mass percentage of Ni is 58.7%, and the mass percentage of Co is 10.4%.
[0059] combine figure 1 In this embodiment, the method for separating and recovering nickel and cobalt from nickel-based superalloy waste materials includes the following steps.
[0060] (1) The surface of the nickel-based superalloy waste is treated to remove the refractory material on the surface of the nickel-based superalloy waste, and then the waste nickel-based superalloy is cleaned and dried to obtain clean raw materials.
[0061] (2) Take 800 g of clean nickel-based superalloy material, 2400.0 g of Mg-Pb binary alloy as the extraction medium, and the mole percentages of Mg and Pb in the Mg-Pb binary alloy are 80% and 20%, respectively. The clean nickel-based superalloy is placed in a porous and liftable titanium mesh, the extraction medium is placed in a...
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Abstract
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