A Reliability Based Design Procedure for Mine Dewatering Systems

Canadian Institute of Mining, Metallurgy and Petroleum
Rashid Bashir
Organization:
Canadian Institute of Mining, Metallurgy and Petroleum
Pages:
1
File Size:
33 KB
Publication Date:
Aug 1, 2010

Abstract

The presence of groundwater in the form of large aquifers can have an important influence on investment decisions for underground mines. The design for such mines requires development of special mining methods, and mine dewatering infrastructure to avoid hazards during shaft sinking and underground development. The costs associated with mine drainage control and Mine Dewatering Systems (MDS) are relatively small compared to the huge consequential losses that can occur in case of an uncontrolled inflow and subsequent flooding of the mine. The design of MDS needs consideration of accurate prediction of the maximum uncontrolled inflow rate, availability of the system during an uncontrolled inflow while the inflow is mitigated, and decision on pumping system technology to have capability to operate under water. The research presented in this paper provides a theoretical framework for a reliability based design procedure which takes into account the uncertainty in the estimate of the maximum uncontrolled inflow, performance of the system during the period of an uncontrolled inflow and a methodology to decide on appropriate pumping technology considering the reliability of the system and available underground storage. The reliability based mine design procedure integrates the ideas of Effective Reserve and Hydraulic Reliability Index to come up with a unified methodology for design of Mine Dewatering Systems.
Citation

APA: Rashid Bashir  (2010)  A Reliability Based Design Procedure for Mine Dewatering Systems

MLA: Rashid Bashir A Reliability Based Design Procedure for Mine Dewatering Systems. Canadian Institute of Mining, Metallurgy and Petroleum, 2010.

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