Method and device for preparing high-purity low-oxygen titanium powder by metal vapor reduction
A technology for metal vapor and titanium powder, which is applied in the field of metal vapor reduction to prepare high-purity and low-oxygen titanium powder, can solve the problems such as the difficulty of achieving the ideal degree of purity and particle size of titanium powder, restricting the development of powder metallurgy titanium industry, and failing to meet industrial requirements. , to achieve the effect of fine particle size, simple structure and low cost
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0030] Select high-purity molten salt electrolytic titanium as raw material, and use hydrogenation dehydrogenation method to process molten salt electrolysis titanium to obtain titanium powder; put 50g of titanium powder obtained by hydrogenation dehydrogenation into the screen of the material frame in the vacuum-sealed heating furnace, select Ca As a reduced metal, add 50g Ca at the bottom of the vacuum-sealed heating furnace material frame, and draw a vacuum until the vacuum degree in the vacuum-sealed heating furnace reaches 8.2×10 -3 Seal after Pa, and then heat up to 1278K in a vacuum environment and keep it warm for 2 hours. After the reaction is completed, high-purity titanium powder is obtained. CaO on titanium powder to obtain high-purity low-oxygen titanium powder.
Embodiment 2
[0032] Select high-purity molten salt electrolytic titanium as the raw material, and use the atomization method to process the molten salt electrolytic titanium to obtain titanium powder; put 60g of titanium powder obtained by the inert gas atomization method into the screen of the inner material frame of the vacuum-sealed heating furnace, and select Na is used as a reducing metal, and 60gNa is added to the bottom of the vacuum-sealed heating furnace material frame, and the vacuum is drawn until the vacuum degree in the vacuum-sealed heating furnace reaches 8.2×10 -3 Seal after Pa, then heat up to 1285K in a vacuum environment and keep it warm for 3 hours. After the reaction is completed, high-purity titanium powder is obtained. After cooling to room temperature, the high-purity titanium powder is washed, pickled and dried to remove the high-purity titanium powder. Na on titanium powder 2 O, to obtain high-purity low-oxygen titanium powder.
Embodiment 3
[0034] Select high-purity molten salt electrolytic titanium as the raw material, and use the atomization method to process the molten salt electrolytic titanium to obtain titanium powder; put 60g of titanium powder obtained by the rotating electrode atomization method into the screen of the inner material frame of the vacuum-sealed heating furnace, and select K is used as a reducing metal, and 60g K is added to the bottom of the vacuum-sealed heating furnace material frame, and the vacuum is drawn until the vacuum degree in the vacuum-sealed heating furnace reaches 8.2×10 -3 Seal after Pa, then heat up to 1273K in a vacuum environment and keep it warm for 2 hours. After the reaction is completed, high-purity titanium powder is obtained. After cooling to room temperature, the high-purity titanium powder is washed with water, pickled and dried to remove the high-purity titanium K on powder 2 O, to obtain high-purity low-oxygen titanium powder.
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 
