侯腾飞,张士诚,马新仿,李栋,邵俊杰

• 1:中国石油大学(北京)石油工程学院
• 2:中国石油天然气管道局国际事业部

摘要(Abstract)：

通过建立考虑支撑剂非均匀铺置的页岩气产能预测模型,分析了支撑剂均匀铺置与非均匀铺置2种方式下储层与裂缝参数对气井产能的影响。模拟结果表明:支撑剂浓度低和裂缝导流能力小时,支撑剂非均匀分布大大降低了气井产能,当裂缝导流大于4μm~2·cm时,可忽略非均匀铺砂对产能影响;非均匀铺砂对产能影响最敏感的参数是基质渗透率,其次依次是裂缝半长、导流能力和簇间距;对涪陵X区页岩气藏,均匀铺砂方案比非均匀铺砂方案下的10 a累积产气量高35.6%。

关键词(KeyWords)： 支撑剂非均匀分布;水平页岩气井;产能影响因素

Abstract:

Keywords:

基金项目(Foundation): 国家科技重大专项“页岩气储层压裂改造机理研究”(编号:2013CB228004);; 高等学校博士学科点专项科研基金课题(编号:20120007110004)联合资助

作者(Author): 侯腾飞,张士诚,马新仿,李栋,邵俊杰

参考文献(References)：

• [1]WARPINSKI N R,MAYERHOFER M J,VINCENT M C,et al.Stimulating unconventional reservoirs:Maximizing network growth while optimizing fracture conductivity[J].Journal of Canadian Petroleum Technology,2009,48(10):39-51.
• [2]CIPOLLA C L,WARPINSKI N R,MAYERHOFER M J,et al.The relationship between fracture complexity,reservoir properties,and fracture treatment design[J].SPE Production&Operations,2010,25(4):438-452.
• [3]张小涛,吴建发,冯曦,等.页岩气藏水平井分段压裂渗流特征数值模[J].天然气工业,2013,33(3):47-52.ZHANG Xiaotao,WU Jianfa,FENG Xi,et al.Numerical simulation of seepage flow characteristics of multi-stage fracturing in horizontal shale gas wells[J].Natural Gas Industry,2013,33(3):47-52.
• [4]糜利栋,姜汉桥,李俊键.页岩气离散裂缝网络模型数值模拟方法研究[J].天然气地球科学,2014,25(11):1795-1803.MI Lidong,JIANG Hanqiao,LI Junjian.Investigation of shale gas numerical simulation method based on discrete fracture network model[J].Natural Gas Geoscience,2014,25(11):1795-1803.
• [5]刘祖林,杨保军,曾雨辰.页岩气水平井泵送桥塞射孔联作常见问题及对策[J].石油钻采工艺,2014,34(5):75-78.LIU Zulin,YANG Baojun,ZENG Yuchen.Common problems of pumping bridge plug and clustering perforation for horizontal shale gas well and countermeasures[J].Oil Drilling&Production Technology,2014,34(5):75-78.
• [6]JAIN S,SOLIMAN M,BOKANE A,et al.Proppant distribution in multistage hydraulic fractured wells:A largescale inside-casing investigation[C].SPE 163856,2013.
• [7]CIPOLLA C L,LOLON E,MAYERHOFERM J,et al.The effect of proppant distribution and un-propped fracture conductivity on well performance in unconventional gas reservoirs[C].SPE 119368,2009.
• [8]CIPOLLA C,MACK M,MAXWELL S,et al.Reducing exploration and appraisal risk in low-permeability reservoirs using microseismic fracture mapping[C].SPE 138103,2010.
• [9]MILLER C K,WATERS G A,RYLANDER E I.Evaluation of production log data from horizontal wells drilled in organic shales[C].SPE 144326,2011.
• [10]VINCENT M C.The next opportunity to improve hydraulicfracture stimulation[J].Journal of Petroleum Technology,2014,64(3):118-127.
• [11]BOKANE A B,JAIN S,DESHPANDE Y K,et al.Transport and distribution of proppant in multistage fractured horizontal wells:A CFD simulation approach[C].SPE166096,2013.
• [12]DANESHY,A.Horizontal well fracturing:A state-of-the-art report[J].World Oil,2011,232:75-76.
• [13]SAHAI R,MISKIMINS J L,OLSON K E,et al.Laboratory results of proppant transport in complex fracture systems[C].SPE 168579,2014.
• [14]温庆志,高金剑,刘华,等.纤维压裂液携砂性能实验评价[J].科技导报,2015,33(7):39-42.WEN Qingzhi,GAO Jinjian,LIU Hua,et al.Exprimental evaluation of the proppant carrying capacity of fiber fracturing fluid[J].Science&Technology Review.2015,33(7):39-42.
• [15]温庆志,高金剑,刘华,等.滑溜水携砂性能动态实验[J].石油钻采工艺,2015,37(2):97-100.WEN Qingzhi,GAO Jinjian,LIU Hua,et al.Dynamic experiment on slick-water prop-carrying capacity[J].Oil Drilling&Production Technology.2015,37(2):97-100.
• [16]YU W.Simulation of proppant distribution effect on well performance in shale gas reservoirs[C].SPE 167225,2013.
• [17]ALRAMAHI B,SUNDBERG M I.Proppant embedment and conductivity of hydraulic fractures in shales[C].Biomedical Market Newsletter,ARMA-2012-291,2012.