JavaScript must be enabled in order for you to use the Site in standard view. However, it seems JavaScript is either disabled or not supported by your browser. To use standard view, enable JavaScript by changing your browser options.

  • Bibliography
| Last Updated: :04/04/2024

BIBLIOGRAPHY

Title : BIFUNCTIONAL TECHNOLOGICAL PROCESSES AS AN ALTERNATIVE TO CONVENTIONAL METHODS OF MINERALS PROCESSING
Subject : Underground mining, Mine Processing
Volume No. : xxx
Issue No. : 
Author : Ch. Enkhbold and A. Brodt
Printed Year : 2013
No of Pages  : 7
Description : 

Underground mining of minerals is becoming an increasingly complicated technological and ecological problem. It can be explained both by worsening of geological conditions of mining and by a specific character of mining industry, which, in contrast to processing branches of industry, intrudes into one of principal components of the nature – the Earth's interior.

 

At a traditional organization of mining industry, the entire volume of the produced rock mass is brought to the Earth's surface, where valuable components are extracted. This entails not only power overexpenditure for long-distance transfer (especially in the vertical direction) of the waste rock forming a part of the original mineral, but also the formation of huge volumes of worked-out spaces. The latter leads (nature cannot stand emptiness!) to an irreversible development of geomechanical processes of shifting of overlying rock masses resulting in an irreparable damage of all surface structures located on the territory undermined by deep mining.

 

Owing to their high productivity combined with low power consumption and instrumental compactness, novel bifunctional technological processes of minerals dressing successfully solve the problem of rock mass processing in underground conditions with subsequent operative disposal of final tailings of such underground dressing in the worked-out space. Besides, an integration of two processes into one is achieved, for example, a decrease in the rock mass coarseness with a simultaneous precise separation of valuable and waste components.

 

 

Read The Complete Paper: CLICK HERE