Key technologies for surface control of gas dynamic disasters in coal mines and their application
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摘要:目的意义
随着采煤深度增加，煤炭开采面临的煤与瓦斯突出、冲击地压及复合动力灾害愈发突出，深化致灾机理、发展多元化防治技术对于煤矿安全生产意义重大，利用煤层气开发关键技术治理煤矿瓦斯动力灾害是实现煤矿生产“安全关口前移”的必由之路。但目前尚未形成规模化适用性技术体系。
方法从地面煤层气开发的关键技术应用视角，系统述评了煤层气钻完井、压裂等技术的发展历程和研究进展；从煤矿安全角度详细梳理了近70年来煤矿瓦斯动力灾害的致灾机理及关键技术。结合煤层气开发技术特点和煤矿动力灾害防治需求，提出了在理论创新和技术攻关方面的一些建议。
结果和结论(1)在理论研究方面，深化开展煤与煤层气(瓦斯)综合勘查，并融合多种手段开展精细地质研究。(2)在治理技术方面，进一步探究洞穴消突井+高压空气(液氮、CO2)涤荡+负压抽采、地面L型水平井分段压裂+排采等煤与瓦斯突出治理技术，以及顶板L型井分段水力压裂、顶板L型井分段水力加砂压裂+排采等冲击地压治理技术。在此基础上，优选煤层气开发L型分段压裂等先进技术并开展现场瓦斯动力灾害治理试验，通过实施科研−工程一体化工程项目，探索不同防治理论及技术在不同地质条件下的适用性，构建适用于煤矿瓦斯动力灾害防治的技术系列，为我国煤矿安全生产保驾护航。
Abstract:Objective and SignificanceAs the coal mining depth increases, coal mining faces increasingly prominent challenges including coal and gas outbursts, rock bursts, and compound dynamic disasters. Deepening the understanding of disaster-causing mechanisms and developing diversified prevention and control technologies are significant for the safe production of coal mines. Employing the key technologies for coalbed methane (CBM) production to control gas-related dynamic disasters is an inevitable course for the safe production of coal mines. However, large-scale, suitable technology systems are yet to be developed.
MethodsFrom the perspective of the application of key technologies for surface CBM production, this study systematically reviews the development history and research advances in technologies including well drilling and completion for CBM production and fracturing. From the angle of coal mine safety, this study organizes the disaster-causing mechanisms and critical control technologies for gas dynamic disasters over the past 70 years. In combination with the characteristics of CBM production technologies and the demand for the prevention and control of dynamic disasters in coal mines, this study proposes some suggestions for theoretical innovation and technological breakthroughs.
Results and ConclusionsIn terms of theoretical research, it is necessary to deepen the comprehensive exploration of coals and CBM and conduct fine-scale geological studies by integrating multiple approaches. Regarding control technologies, efforts should be made to further explore the control technologies for coal and gas outbursts and rock bursts, with the former including (1) outburst elimination using cavity-type tube wells+high-pressure air/liquid nitrogen/CO2 scrubbing + negative-pressure drainage and (2) multistage fracturing of L-shaped surface horizontal wells+production and the latter including (1) multistage hydraulic fracturing of roofs using L-shaped wells and (2) proppant injection-based multistage hydraulic fracturing for roofs using L-shaped wells+production. Accordingly, advanced technologies such as multistage fracturing of L-shaped wells for CBM production should be employed to conduct on-site experiments on gas dynamic disaster control. It is necessary to explore the applicability of varying prevention and control theories and technologies under different geologic conditions based on scientific research and engineering integrated engineering and projects and develop technology systems for the prevention and control of gas dynamic disasters in coal mines, thus providing robust support for the safe production of coal mines in China.
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图 2 沁水盆地南部分段压裂水平井发展历程
Fig. 2 History of multistage fracturing of horizontal wells in the southern Qinshui Basin
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图 3 洞穴井消突技术组合路径
Fig. 3 Combination path of technologies for outburst elimination via cavity-type tube wells
井型 压裂方式 技术优势 应用地点 效果 直井 填砂分层压裂 技术难度低，成本低 所有主力区块，
中−高渗储层增产效果相对有限，
单井产气量一般低于1 000 m3/d水平井 泵送桥塞分段压裂 大排量、大液量、压裂段数不受限制，体积造缝 沁水盆地、
鄂尔多斯盆地增产效果良好 普通油管底封拖动压裂 工艺简单，成本低，可分段放喷 沁水盆地 增产效果良好 连续油管底封拖动压裂 施工压力低，施工周期短 沁水盆地 明显优于普通油管底封拖动压裂 桥射联作分段压裂 全程带压连续作业，排量大，射孔段长，
可分簇，施工周期较短沁水盆地 明显优于普通油管底封拖动压裂 封隔器−滑套分段压裂 定点压裂、施工便捷 沁水盆地寺河井田 增产效果显著 
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表 2 煤与瓦斯突出治理技术汇总
Table 2 Summary of technologies for coal and gas outburst control
地质条件 典型矿区/矿井 防治措施 应用实例 高瓦斯、
硬煤山西晋城矿区、河南安阳矿区、
重庆松藻同华煤矿、峰峰大淑村矿开釆保护层[89]、钻孔抽采[90]、
预抽瓦斯[2]、水力压裂[91-92]、
降压解吸[93]
邻近层瓦斯抽采(山西晋城)[94]高瓦斯、
软煤红阳西马矿井、抚顺徐家大沟矿井、
韩城下峪口煤矿、平顶山矿区中西部矿井、
北票台吉矿井、汾河矿区回坡底矿井、
沈阳红菱煤矿、邯郸陶二煤矿、淮北芦岭煤矿密集顺层钻孔抽采/卸压抽采[95-96]、
保护层开采[97-98]、
煤层顶板水平井压裂采气[44]
密集穿层钻孔及顺层钻孔
(淮北芦岭煤矿)[95]高瓦斯、
高应力、
软煤淮南潘一矿、淮南谢一矿、重庆地区、
平顶山矿区东部矿井、万盛南桐矿井保护层开采卸压消除瓦斯与应力集中[99]、
水力强化技术[91]、
瓦斯抽−抑协作水力接替精准治理技术
保护层开采(淮南潘一煤矿)[100]瓦斯含量与
煤体结构
不均一洛阳新义煤矿、靖远魏家地煤矿、
永城陈四楼煤矿、潞安王庄煤矿软煤夹层水射流层状卸压增透
抽采[101-103]
水射流层状(洛阳新义煤矿)[103]
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表 3 冲击地压治理技术汇总
Table 3 Summary of technologies for rock burst control
类型
(特点)典型矿区/矿井 防治措施 应用实例 构造型
(构造成因的
结构弱面)彬长孟村煤矿、开滦赵各庄煤矿、
义马千秋煤矿、义马跃进煤矿、
济宁梁宝寺煤矿等基于结构面探测的强卸强支[111]、
开采不接近断层[117]、
留设煤柱[117]
巷道强支护技术(彬长孟村煤矿)[111]顶板型
(顶板强硬岩层)彬长孟村煤矿、甘肃华亭煤矿、衮矿
东滩煤矿、枣庄联创煤矿、七台河
桃山煤矿、北京大台煤矿、彬长胡家河
煤矿、新汶华丰煤矿、彬长小庄煤矿等地面水平井分段压裂[118]、深孔爆破[78]、
刚柔一体化支护[115,119]、
井上下立体防治[118]、开采保护层[111]，
多点拖动分段压裂[120-121]
L型井分段压裂技术
(彬长孟村煤矿)[118]煤柱型
(孤岛煤柱)山西斜沟煤矿、呼吉尔特葫芦素煤矿、
山东梁宝寺煤矿，山东赵楼煤矿、
开滦唐山煤矿、兖州东滩煤矿、临沂
古城煤矿、肥城梁宝寺煤矿、星村煤矿、
朝阳煤矿、彬长孟村煤矿等大直径钻孔卸压[122-123]、煤层顶板
预爆破[124-125]、对穿卸压钻孔贯穿[123]、
爆破孔[123,125]、控制工作面推采
速度[125]
大直径钻孔卸压技术
(呼吉尔特葫芦素煤矿)[122]
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