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Probabilistic-Based Stope Design Methodology for Complex Ore Body with Rock Mass Property Variability

This paper presents a probabilistic approach for optimizing stope design methodology while taking into consideration the variability in the rock mass properties. For this study, a complex orebody in a Canadian mine was used. Because of the variability in the rock mass properties of the orebody, it w...

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Published in:Journal of mining science 2019-09, Vol.55 (5), p.743-750
Main Authors: Idris, M. A., Nordlund, E.
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Language:English
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description This paper presents a probabilistic approach for optimizing stope design methodology while taking into consideration the variability in the rock mass properties. For this study, a complex orebody in a Canadian mine was used. Because of the variability in the rock mass properties of the orebody, it was not possible to determine precisely, the values of geotechnical design input parameters and hence the need to utilize a probabilistic approach. Point Estimate Method (PEM), a probabilistic tool, was incorporated into numerical analysis using FLAC 3D to study the deformation magnitudes of various stope geometries to determine the optimal stope geometry with a minimum ground control problem. Results obtained for the distribution of the wall deformations and the floor heaves for each option of the stope geometry were compared to select the best geometry to achieve the optimum stability condition. The methodology presented in this study can be helpful in the process of underground mine planning and optimization in complex orebody.
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A.</creatorcontrib><creatorcontrib>Nordlund, E.</creatorcontrib><title>Probabilistic-Based Stope Design Methodology for Complex Ore Body with Rock Mass Property Variability</title><title>Journal of mining science</title><addtitle>J Min Sci</addtitle><description>This paper presents a probabilistic approach for optimizing stope design methodology while taking into consideration the variability in the rock mass properties. For this study, a complex orebody in a Canadian mine was used. Because of the variability in the rock mass properties of the orebody, it was not possible to determine precisely, the values of geotechnical design input parameters and hence the need to utilize a probabilistic approach. Point Estimate Method (PEM), a probabilistic tool, was incorporated into numerical analysis using FLAC 3D to study the deformation magnitudes of various stope geometries to determine the optimal stope geometry with a minimum ground control problem. 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1573-8736
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source Springer Nature
subjects Analysis
Complex orebody
Deformation
Design
Design engineering
Design optimization
Design parameters
Earth and Environmental Science
Earth Sciences
Geomechanics
Geometry
Geophysics/Geodesy
Geotechnical Engineering & Applied Earth Sciences
Gruv- och berganläggningsteknik
Methods
Mineral Resources
Mining and Rock Engineering
Numerical analysis
point estimate method
probabilistic approach
Probabilistic methods
Properties
rock mass variability
Rock masses
Rocks
Stability
stope geometry
Underground mines
Variability
title Probabilistic-Based Stope Design Methodology for Complex Ore Body with Rock Mass Property Variability
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