深部区域采矿时序的地压调控卸荷效应研究

doi:10.11872/j.issn.1005-2518.2020.03.026

黄金科学技术 ›› 2020, Vol. 28 ›› Issue (3): 345-352.doi: 10.11872/j.issn.1005-2518.2020.03.026

深部区域采矿时序的地压调控卸荷效应研究

于世波^1,^2,³(),杨小聪^1,^2,³(),原野^1,³,王志修^1,³

^1.矿冶科技集团有限公司，北京 102628
^2.北京科技大学土木与资源工程学院，北京 100083
^3.国家金属矿绿色开采国际联合研究中心，北京 102628

收稿日期:2019-12-31 修回日期:2020-03-10 出版日期:2020-06-30 发布日期:2020-07-01
通讯作者: 杨小聪 E-mail:yushibo@bgrimm.com;yxcong@bgrimm.com
作者简介:于世波（1985-），男，山东诸城人，博士研究生，从事深部采矿岩石力学与工程灾害控制方面的研究工作。yushibo@bgrimm.com
基金资助:
国家重点研发计划项目“深部金属矿协同开采理论与技术”(2016YFC0600709);“深部大矿段采动环境监测及地压动态调控技术”(2017YFC0602904)

Research on Destress Effect of Ground Pressure Control for the Time-space Mining Sequence at Depths

Shibo YU^1,^2,³(),Xiaocong YANG^1,^2,³(),Ye YUAN^1,³,Zhixiu WANG^1,³

^1.BGRIMM Technology Group，Beijing 102628，China
^2.School of Civil and Resource Engineering，University of Science and Technology Beijing，Beijing 100083，China
^3.National Centre for International Research on Green Metal Mining，Beijing 102628，China

Received:2019-12-31 Revised:2020-03-10 Online:2020-06-30 Published:2020-07-01
Contact: Xiaocong YANG E-mail:yushibo@bgrimm.com;yxcong@bgrimm.com

摘要/Abstract

摘要：

深部区域采矿时序是深部地压管控的重要战略方法之一，其卸荷力学效应与回采时序密切相关。针对构建的深部由中心向四周回采的立体式大区域开采力学模型，基于应力转移过程和岩爆应力风险特征，研究从单个采场到多个采场回采过程中的应力演化规律和岩爆应力风险变化规律。研究结果表明：深部从中心到四周的立体式回采顺序能够实现采矿作业区高应力的逐步转移和应力风险的渐进推移，深部区域采矿时序的地压调控卸荷效应是通过回采时序的合理设置实现期望的卸荷应力环境再造和深部采矿应力风险的渐进转移过程行为。基于数值模拟与微震监测相结合的互馈分析技术，实现大区域数值模拟与微震监测大数据的高度融合、实时动态分析与跟踪评价，是深部区域采矿时序的地压调控卸荷效果评价的有效方法。深部开采区域时序调控卸荷效应的本质是主动创造高应力环境中低值应力卸荷区思想，这一思想已在加拿大Nickel Rim South矿得到了实践应用，取得良好的卸荷效果并实现了地压的合理管控，对于我国深部、超深部开采具有重要的指导意义。

关键词: 深部区域, 应力转移, 采矿时序, 数值模拟, 岩爆应力风险, 卸荷

Abstract:

The regional time-space mining sequence is one of the important strategic methods for underground pressure management at depths and destress mechanical effect is closely related to the time-space mining sequence itself. Aiming at the large-area mining mechanical model of three-dimensional mining sequence from the centre to the periphery at depths， based on the stress transfer process and characteristics of rockburst stress hazard， the stress evolution laws and changes of rockburst stress hazard were studied during the mining process from a single stop to multiple stopes.The research results show that the three-dimensional mining sequence from the center to the periphery at depths can gradually realize the gradual transfer of high stress and the gradual transition of stress hazard around the mining operation area.The destress effect of ground pressure control for the time-space mining sequence at depths is to achieve the desired destress environment reconstruction and the progressive transfer of the stress hazard through the reasonable setting of the three-dimensional mining sequence.The mutual feedback analysis technology based on the combination of numerical simulation and microseismic monitoring could realize high integration of large area numerical simulation and big data of microseismic monitoring， real-time dynamic analysis and tracking evaluation， and it is an effective method to evaluate the destress effect of ground pressure control for the time-space mining sequence at depths.The essence of the destress effect of ground pressure control for the time-space mining sequence at depths is the idea to actively create low stress destress zone in the high-stress environment.This idea had been applied at Nickel Rim South mine in Canada， which had achieved a good destress effect and realized reasonable management for ground control. It is believed that this idea has important guiding significance for deep and ultra-deep mining in China.

Key words: deep region, stress migration, time-space mining sequence, numerical simulation, rockburst stress hazard, destress

中图分类号:

TD853

于世波, 杨小聪, 原野, 王志修. 深部区域采矿时序的地压调控卸荷效应研究[J]. 黄金科学技术, 2020, 28(3): 345-352.

Shibo YU, Xiaocong YANG, Ye YUAN, Zhixiu WANG. Research on Destress Effect of Ground Pressure Control for the Time-space Mining Sequence at Depths[J]. Gold Science and Technology, 2020, 28(3): 345-352.

图/表 1

参考文献 20

1	Hedley D G F. Rockburst Handbook for Ontario Hardrock Mines[R].Ottawa：Minister of Supply and Services Canada，1992.
2	谢和平，高峰，鞠杨. 深部岩体力学研究与探索[J]. 岩石力学与工程学报，2015，34（11）：2162-2178.
	Xie Heping，Gao Feng，Ju Yang.Research and development of rock mechanics in deep ground engineering[J]. Chinese Journal of Rock Mechanics and Engineering，2015，34（11）：2162-2178.
3	谢和平. “深部岩体力学与开采理论”研究构想与预期成果展望[J]. 工程科学与技术，2017，49（2）：1-16.
	Xie Heping. Research framework and anticipated results of deep rock mechanics and mining theory[J]. Advanced Engineering Sciences，2017，49（2）：1-16.
4	何满潮，谢和平，彭苏萍，等. 深部开采岩体力学研究[J]. 岩石力学与工程学报，2005，24（16）：2803-2813.
	He Manchao，Xie Heping，Peng Suping，et al.Study on rock mechanics in deep mining engineering[J].Chinese Journal of Rock Mechanics and Engineering，2005，24（16）：2803-2813.
5	于世波，吴春平，王志修，等. 深井复杂地质条件下综合采掘技术研究与应用[R]. 北京：北京矿冶科技集团有限公司，2018.
	Yu Shibo，Wu Chunping，Wang Zhixiu，et al.Research and application of comprehensive mining technology under complex geological conditions at depths[R]. Beijing：BGRIMM Technology Group，2018.
6	胡建华，雷涛，周科平，等. 基于采矿环境再造的开采顺序时变优化研究[J]. 岩土力学，2011，32（8）：2517-2522.
	Hu Jianhua，Lei Tao，Zhou Keping，et al.Time-varying optimization study of mining sequence based on reconstructed mining environment[J]. Rock and Soil Mechanics，2011，32（8）：2517-2522.
7	刘晓明，杨承祥，罗周全. 深井开采回采顺序数值模拟优化研究[J]. 南华大学学报（自然科学版），2008，22（4）：15-21.
	Liu Xiaoming，Yang Chengxiang，Luo Zhouquan.Numerical simulation optmization of mining sequence in deep mining[J].Journal of University of South China （Science and Technology），2008，22（4）：15-21.
8	卢萍. 深部采场结构参数及回采顺序优化研究[D]. 重庆：重庆大学，2008.
	Lu Ping.Optimization of Deep Stope Structure Parameters and Mining Sequence[D]. Chongqing：Chongqing University，2008.
9	戴兴国，唐凌，陈增剑，等. 基于λ模糊测度和Choquet积分的回采方案动态优选[J]. 黄金科学技术，2016，24（2）：1-7.
	Dai Xingguo，Tang Ling，Chen Zengjian，et al.Dynamic optimization of stoping scheme based on λ fuzzy measure and Choquet integral[J].Gold Science and Technology，2016，24（2）：1-7.
10	邓红卫，杨懿全，邓畯仁，等. 采空区下方高应力环境下深部矿体回采时序研究[J]. 黄金科学技术，2017，25（2）：62-69.
	Deng Hongwei，Yang Yiquan，Deng Junren，et al. Study on mining sequence of deep orebody under high stress environment below goaf[J]. Gold Science and Technology，2017，25（2）：62-69.
11	Morissette P，Hadjigeorgiou J，Punkkinen A.Characterisation of burst-prone grounds at Vale’s Creighton Mine[J]. Mining Technology，2017，126（3）：123-138.
12	Stacey T R，Page C H.Practical Handbook for Underground Rock Mechanics[M].Clausthal-Zellerfeld：Trans Tech Publications，1986.
13	Wiles T. Loading system stiffness—A parameter to evaluate rockburst potential[C]//Hudyma M，Potvin Y. Proceedings of the First International Seminar on Deep and High Stress Mining.Perth：Australian Centre for Geomechanics，2002.
14	Cotesta L，O’connor C P，Brummer R K，et al. Numerical modelling and scientific visualisation—Integration of geomechanics into modern mine designs[C]//Hudyma M，Potvin Y.Proceedings of the Seventh International Seminar on Deep and High Stress Mining.Perth：Australian Centre for Geomechanics，2014.
15	Ryder J A. Excess shear stress in the assessment of geologically hazardous situations[J]. Journal of the South African Institute of Mining and Metallurgy，1988，88（1）：27-39.
16	Itasca Consulting Group Inc.. FLAC3D，version 6.0[CP/DK]. Itasca Consulting Group，Inc.，2017.
17	MAP3D International Ltd.MAP3D，version 65[CP/DK]. MAP3D International Ltd.，2017.
18	Woodward K R，Tierney S R. Seismic hazard estimation using databases with bimodal frequency-magnitute beha-viour[C]// Hudyma M，Potvin Y. Proceedings of the First International Conference on Underground Mining Technology.Perth：Australian Centre for Geomechanics，2017.
19	Dineva S，Boskovic M. Evolution of seismicity at Kiruna Mine[C]//Wesseloo J. Proceedings of the Eighth International Seminar on Deep and High Stress Mining.Perth：Australian Centre for Geomechanics，2017.
20	Carusone O T S. Interpretation of Rock Mass Yield Using Apparent Stress of Microseismic Events—Examples from Glencore’s Nickel Rim South Mine，Sudbury，Ontario[D].Ontario：Laurentian University，2018.

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深部区域采矿时序的地压调控卸荷效应研究

Research on Destress Effect of Ground Pressure Control for the Time-space Mining Sequence at Depths

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