|
| Study on the floatability law of copper-zinc sulfide ore inhibited by sodium thioglycolate |
|
Received:February 09, 2024
Revised:March 18, 2024
Accepted:April 08, 2024
Published Online:March 24, 2025
|
| View Full Text View/Add Comment Download reader |
| DOI： |
| KeyWord:sodium thioglycolate ; sulfide ore ; floatability ; flotation |
| Author | Institution |
| DAI WANG |
Zijin College of Geology and Mining, Fuzhou University |
| DENG RONGDONG |
Zijin College of Geology and Mining, Fuzhou University |
| XIAO SHIJIE |
Zijin College of Geology and Mining, Fuzhou University |
| ZHAO RUIQI |
Zijin College of Geology and Mining, Fuzhou University |
| LI XIN |
The Second Geological Exploration Institute, China Metallurgical Geology Bureau |
|
| Hits: 1445 |
| Download times: 527 |
| Abstract: |
| Aiming at the problem that it is difficult to separate and recover copper-zinc sulfide ores after inhibition by sodium thioglycolate, this paper explores the floatability and related mechanism of butyl xanthate, copper sulfate and hydrogen peroxide on these sulfide ores after inhibition by sodium thioglycolate through pure mineral experiments. The results show that for the inhibited chalcopyrite, only the use of butyl xanthate can better restore its floatability, and the recovery rate can reach 91.01 %, while copper sulfate activation and hydrogen peroxide oxidation have little effect on further improving its floatability. The inhibited pyrite is more difficult to recover its floatability than chalcopyrite. It needs to be oxidized by hydrogen peroxide, and then butyl xanthate is added to effectively improve its floatability. The recovery rate can reach 90.22 %. The floatability of the inhibited sphalerite is the most difficult to recover, and it is difficult to recover its floatability regardless of hydrogen peroxide oxidation or copper sulfate activation, and its recovery rate is only less than 10 %. |
| Close |
|
|
|