顶板隐伏老窑水直流电法探测与钻孔疏放水研究

doi:10.19286/j.cnki.cci.2025.11.001

Abstract
Figure/Table
References (20)
Related Citation (10)

Download: PDF (0 KB) HTML (1 KB)
Export: BibTeX | EndNote (RIS)

Abstract

Roof water disaster seriously restricts the safe and green mining of coal mine. In this study, based on the direct current method, the three-dimensional exploration of the roof 0 ~ 80 m layer of No.11050 Face in Tiemai Coal Mine was carried out. According to the resistivity anomaly, the roof water was divided into four levels of high, medium, low and no. The results of geophysical prospecting showed that the water abundance abnormal areas of 16 m, 30 m and 50 m on the roof accounted for 49.74 %, 61.86 % and 41.25 % respectively. It was speculated that the 30 m range was the main water abundance area and there was old mining-out area water. According to the statistics of borehole drainage volume, the drainage volume of 16-30 m, 30-50 m and 50-80 m layers was 1 308 m3, 14 154 m3 and 2 563 m3, respectively. Further combined with geological data and geophysical exploration results, it was determined that 0-30 m and 50-80 m were mainly fissure water, and 30-50 m was mainly old mining-out area water, of which old mining-out area water accounted for 78.52 % and fissure water accounted for 21.48 %. The research results provided a reference for mine water prevention and control and the application of direct current method.

Key words： old mining-out area water direct current method division of abnormal areas water filling coefficient water content prediction borehole drainage

	Service

	E-mail this article
	Add to my bookshelf
	Add to citation manager
	E-mail Alert
	RSS
	Articles by authors
	Sun Peng1
	Jin Yufeng1
	Sun Changsheng1
	Liu Yongjun1
	Li Baoping1
	Lan Hao2

Cite this article:

Sun Peng1,Jin Yufeng1,Sun Changsheng1等. Study on direct current method detection and borehole drainage of hidden old mining-out area water in roof[J]. CCI, 2025, 48(11): 1-7.

URL:

http://www.mtyhg.com.cn/EN/10.19286/j.cnki.cci.2025.11.001 OR http://www.mtyhg.com.cn/EN/Y2025/V48/I11/1

[ 1 ]       何绪文，王绍州，张学伟，等. 煤矿矿井水资源化利用技术创新[ J ]. 煤炭科学技术，2023，51（ 1 ）：523 - 530.
[ 2 ]       尹尚先，王玉国，李文生. 矿井水灾害:原因·对策·出路[ J ]. 煤田地质与勘探，2023，51（ 1 ）：214 - 221.
[ 3 ]       王    皓，董书宁，姬亚东，等. 煤矿水害智能化防控平台架构及关键技术[ J ]. 煤炭学报，2022，47（ 2 ）：883 - 892.
[ 4 ]       张海涛，许光泉. 我国闭坑煤矿矿井水水质演化研究进展与展望[ J ]. 煤炭学报，2024，49（ 9 ）：3 944 - 3 959.
[ 5 ]       林    刚，付晶莹，江    东，等. 中国煤炭去产能的水资源协同效益分析[ J ]. 煤炭科学技术，2023，51（ 7 ）：187 - 196.
[ 6 ]       周新河，翁明月，苏士杰，等. 近距离煤层顶板水害立体防控技术研究——以蒙陕深部矿井为例[ J ]. 煤炭科学技术，2021，49（ 12 ）：165 - 172.
[ 7 ]       张    坤，丁    湘，蒲治国，等. 高承压含水层下近距离煤层顶板水害立体防控技术研究[ J ]. 中国煤炭地质，2022，34（ 11 ）：51 - 59.
[ 8 ]       ZHANG Siyu, WANG Hao, HE Xuwen, et al. Research progress.problems and prospects of mine water treatment technology and resource utilization in China [ J ]. Critical Reviews in Environmental Science and Technology, 2020, 50( 4 ): 331 - 383.
[ 9 ]       曾一凡，朱慧聪，武    强，等. 我国不同类别煤层顶板水害致灾机理与防控路径[ J ]. 煤炭学报，2024，49（ 3 ）：1 539 - 1 555.
[ 10 ]     刘清宝，丁湘等. “八位一体”闭环式煤矿顶板水害管控模式的构建与应用[ J ]. 煤田地质与勘探，2021，49（ 4 ）：170 - 177.
[ 11 ]     郝耀军，朱    鲁，高卫富. 基于矿井直流电法的底板岩层富水性研究[ J ]. 山东煤炭科技，2016（ 5 ）：136 - 138.
[ 12 ]     张存乾，赵建国，屈永利，等. 顶板老窑水危险源矿井直流电法探测技术与应用[ J ]. 矿业安全与环保，2010，37（ 1 ）：30 - 32.
[ 13 ]     马    宝，陈建华，王兴锋. 瞬变电磁法在煤矿富水性探测中的应用——以神东矿区大柳塔矿井五、六盘区为例[ J ]. 煤炭科学技术，2022，50（ S2 ）：223 - 230.
[ 14 ]     刘建国. 音频电透视法在煤矿工作面顶板水探测中的应用[ J ]. 煤炭与化工，2021，44（ 7 ）：78 - 80.
[ 15 ]     吴超凡，刘盛东，邱占林，等. 矿井采空区积水网络并行电法探测技术[ J ]. 煤炭科学技术，2013，41（ 4 ）：93 - 95，67.
[ 16 ]     鲁晶津，王冰纯，李德山，等. 矿井电阻率法监测系统在采煤工作面水害防治中的应用[ J ]. 煤田地质与勘探，2022，50（ 1 ）：36 - 44.
[ 17 ]     毛明仓，韩德品，张维新. 利用矿井直流电法探测技术防治顶板水害[ J ]. 矿业安全与环保，2010，37（ 2 ）：64 - 66.
[ 18 ]     张存乾，赵建国，屈永利，等. 顶板老窑水危险源矿井直流电法探测技术与应用[ J ]. 矿业安全与环保，2010，37（ 1 ）：30 - 32，35.
[ 19 ]     李    飞，张永超，连会青，等. 掘进工作面直流电法超前探测技术问题探讨[ J ]. 煤炭科学技术，2020，48（ 12 ）：250 - 256.
[ 20 ]     李思标，李迪昌，孔令珍，等. 关于充水系数的取值问题[ J ]. 煤炭科学技术，2002（ 9 ）：53 - 54.