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Application of a routine moment tensor inversion capability in the development of a new design consideration for the stability of foundations of stabilising pillars in deep level gold mines and pillars in intermediate depth hard rock mines

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dc.contributor.author Linzer, LM
dc.contributor.author Watson, BP
dc.contributor.author Kuijpers, JS
dc.contributor.author Acheampong, E
dc.date.accessioned 2007-12-05T13:39:17Z
dc.date.available 2007-12-05T13:39:17Z
dc.date.issued 2002-03
dc.identifier.citation Linzer, LM, et al. 2002. Application of a routine moment tensor inversion capability in the development of a new design consideration for the stability of foundations of stabilising pillars in deep level gold mines and pillars in intermediate depth hard rock mines. Safety in Mines Research advisory committee, GAP 604, March, 2002, pp 1-23 en
dc.identifier.uri http://hdl.handle.net/10204/1769
dc.description.abstract Results of SIMRAC project GAP 223 showed that stabilizing pillar-related back area seismicity was not related to the width of the pillar, nor to the dip spans of the stopes supported by the pillar. Pillar associated seismicity initiated in the back area at Western Deep Levels when the APS was, on average, 1.2 times the UCS of the footwall rock. Earlier work showed that pillar foundation (footwall and hangingwall) associated seismicity occurred in the range 65m – 95m behind the face. In both of these cases, the APS was not the full load that the pillar would receive. It was hypothesized that these histories of “foundation failure”, are, rather, symptoms of the yielding of the pillar foundation system. Thus the point of interest for design purposes could lie in the yield point of the pillar foundation. The aim of this project therefore was to use a moment tensor inversion technique to establish design criteria for the prediction of the yield point of stabilizing pillar/foundation system in deep level gold mines en
dc.language.iso en en
dc.subject SIMRAC en
dc.subject GAP 604 en
dc.subject Seismicity en
dc.subject Gold mines en
dc.subject Mines en
dc.title Application of a routine moment tensor inversion capability in the development of a new design consideration for the stability of foundations of stabilising pillars in deep level gold mines and pillars in intermediate depth hard rock mines en
dc.type Conference Presentation en
dc.identifier.apacitation Linzer, L., Watson, B., Kuijpers, J., & Acheampong, E. (2002). Application of a routine moment tensor inversion capability in the development of a new design consideration for the stability of foundations of stabilising pillars in deep level gold mines and pillars in intermediate depth hard rock mines. http://hdl.handle.net/10204/1769 en_ZA
dc.identifier.chicagocitation Linzer, LM, BP Watson, JS Kuijpers, and E Acheampong. "Application of a routine moment tensor inversion capability in the development of a new design consideration for the stability of foundations of stabilising pillars in deep level gold mines and pillars in intermediate depth hard rock mines." (2002): http://hdl.handle.net/10204/1769 en_ZA
dc.identifier.vancouvercitation Linzer L, Watson B, Kuijpers J, Acheampong E, Application of a routine moment tensor inversion capability in the development of a new design consideration for the stability of foundations of stabilising pillars in deep level gold mines and pillars in intermediate depth hard rock mines; 2002. http://hdl.handle.net/10204/1769 . en_ZA
dc.identifier.ris TY - Conference Presentation AU - Linzer, LM AU - Watson, BP AU - Kuijpers, JS AU - Acheampong, E AB - Results of SIMRAC project GAP 223 showed that stabilizing pillar-related back area seismicity was not related to the width of the pillar, nor to the dip spans of the stopes supported by the pillar. Pillar associated seismicity initiated in the back area at Western Deep Levels when the APS was, on average, 1.2 times the UCS of the footwall rock. Earlier work showed that pillar foundation (footwall and hangingwall) associated seismicity occurred in the range 65m – 95m behind the face. In both of these cases, the APS was not the full load that the pillar would receive. It was hypothesized that these histories of “foundation failure”, are, rather, symptoms of the yielding of the pillar foundation system. Thus the point of interest for design purposes could lie in the yield point of the pillar foundation. The aim of this project therefore was to use a moment tensor inversion technique to establish design criteria for the prediction of the yield point of stabilizing pillar/foundation system in deep level gold mines DA - 2002-03 DB - ResearchSpace DP - CSIR KW - SIMRAC KW - GAP 604 KW - Seismicity KW - Gold mines KW - Mines LK - https://researchspace.csir.co.za PY - 2002 T1 - Application of a routine moment tensor inversion capability in the development of a new design consideration for the stability of foundations of stabilising pillars in deep level gold mines and pillars in intermediate depth hard rock mines TI - Application of a routine moment tensor inversion capability in the development of a new design consideration for the stability of foundations of stabilising pillars in deep level gold mines and pillars in intermediate depth hard rock mines UR - http://hdl.handle.net/10204/1769 ER - en_ZA


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