A method of producing titanium alloy
A titanium alloy and alloy technology, applied in the field of titanium alloy production, can solve the problems of incomplete deoxidation in the center of the block, difficulty in realizing continuous production, low current efficiency, etc., and achieve the effects of avoiding pollution, low cost, and improving efficiency
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Embodiment 1
[0042] This example is used to illustrate the method for producing titanium alloy provided by the present invention.
[0043] will contain 80% by weight LiCl and 20% by weight MgCl 2 The electrolyte is added as figure 1 In the electrolyte molten pool 4 of the device shown, the temperature is raised to 680°C to melt the electrolyte, the electrolysis power supply is turned on, the current intensity is 3kA, and the current density of the cathode 1 is: 0.5A·cm -2 , the current density of the anode 3 is: 0.6A·cm -2 , electrolyze to the bottom of the electrolyte molten pool 1 to produce a magnesium liquid layer, and feed 356.3g TiCl through the alloy raw material mixture feeding part 6 4 , 29.6gAlCl 3 and 15.1g VCl 4 The gaseous mixture (temperature 200°C) is passed into the magnesium liquid layer, and the feeding rate is controlled at 8g / min. Metal magnesium production rate is 12g / min under current electrolysis condition, reduction reaction consumption metal magnesium is 10g / m...
Embodiment 2
[0045] This example is used to illustrate the method for producing titanium alloy provided by the present invention.
[0046] will contain 80% by weight LiCl and 20% by weight MgCl 2 The electrolyte is added as figure 1 In the electrolyte molten pool 4 of the device shown, the temperature is raised to 750°C to melt the electrolyte, and the electrolysis power supply is turned on. The current intensity is 3kA, and the current density of the cathode 1 is: 0.5A. cm -2 , Anode 3 current density: 0.5A. cm -2 , electrolyze to the bottom of the electrolyte molten pool 4 to produce a magnesium liquid layer, and feed 336.5gTiCl through the alloy raw material mixture feeding part 6 4 and 42.7gMoCl 5 The gaseous mixture (temperature 300°C) is passed into the magnesium liquid layer, the feeding rate is controlled at 8g / min, the production rate of metal magnesium is 12g / min under the current electrolysis conditions, and the reduction reaction consumption of metal magnesium is 9.5g / min ...
Embodiment 3
[0048] This example is used to illustrate the method for producing titanium alloy provided by the present invention.
[0049] will contain 85% by weight LiCl and 15% by weight MgCl 2 The electrolyte is added as figure 1 In the electrolyte molten pool 1 of the device shown, the temperature is raised to 680°C to melt the electrolyte, and the electrolysis power supply is turned on. The current intensity is 2kA, and the cathode current density is 0.4A. cm -2 , The anode current density is: 0.3A. cm -2 , electrolyze to the bottom of the electrolyte molten pool 4 to produce a magnesium liquid layer, and feed 362.2g TiCl through the alloy raw material mixture feeding part 6 4 , 19.8gAlCl 3 , 15.1gVCl 4 and 3.8gZrCl 4 The gaseous mixture (temperature 200°C) is passed into the magnesium liquid layer, the feeding rate is controlled at 5g / min, the production rate of metal magnesium is 8.5g / min under the current electrolysis conditions, and the reduction reaction consumption of met...
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Abstract
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