Development and Performance Evaluation of Dissolvable Balls for Large Borehole Bridge Plug Fracturing
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摘要: 为解决国内可溶解憋压球无法满足大通径桥塞压裂要求的问题,采用网络结构设计了以镁铝合金为基体并添加Zn、Cu等材料而形成的多元材料,以抗压强度、屈服强度、溶解速率为目标优化了材料中Zn、Cu的加量,研制了与大通径桥塞压裂配套用的大直径、高强度、可溶解合金材料及憋压球。经测试合金材料的抗压强度与屈服强度分别超过了430和330 MPa,直径89.027 mm憋压球承压超过70 MPa,且喷涂防护膜后球体稳定承压达到6 h;93℃条件下在3% KCl溶液中球体溶解90%体积所需时间约为92 h;在胍胶压裂液中的溶解速率虽然比在1%KCl溶液慢,但200 h也能溶解球体90%的体积。这表明,大直径可溶解憋压球能满足大通径桥塞压裂所需的高强度、快速溶解的性能要求。Abstract: In China, conventional dissolvable balls are not adaptable to large borehole bridge plug fracturing. To solve this problem, a large diameter and high strength dissolvable ball was developed. It is a multi-component system with magnesium alloy as matrix as well as Zn, Cu and other elements in a net structure. The Zn and Cu content was optimized to improve the system’s compressive strength, yield strength and dissolution rate. Some tests showed that the compressive strength and yield strength of the system were over 430 MPa and 330 MPa, respectively. Pressure resistence capacity was over 70 MPa for the 89.027 mm diameter dissolvable ball made with the system. After coating the ball, pressures were stable for 6 hours, and 90% of the ball dissolved in a 3% KCl solution at 93℃ in about 92 hours. In gel, the ball would dissolve more slowly than in 1% KCl solution, and 90% of the ball was dissolved within 200 hours. We have concluded that the large diameter dissolvable ball can meet the requirement of high strength and rapid dissolution in large borehole bridge plug fracturing.
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Keywords:
- bridge plug /
- dissolvable alloy /
- fracturing ball /
- staged fracturing
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[1] SIMONDS R,SWAN T.Development of a large-bore monobore completion system for gas production[R].OTC 11880,2000.
[2] 曾雨辰,杨保军,王凌冰.涪页HF-1井泵送易钻桥塞分段大型压裂技术[J].石油钻采工艺,2012,34(5):75-79. ZENG Yuchen,YANG Baojun,WANG Lingbing.Large-scale staged fracturing technology with pump-down drillable bridge plug for Well Fuye HF-1[J].Oil Drilling Production Technology,2012,34(5):75-79. [3] 路保平.中国石化页岩气工程技术进步及展望[J].石油钻探技术,2013,41(5):1-8. LU Baoping.Sinopec engineering technical advance and its developing tendency in shale gas[J].Petroleum Drilling Techniques,2013,41(5):1-8. [4] 贾长贵,路保平,蒋廷学,等.DY2HF深层页岩气水平井分段压裂技术[J].石油钻探技术,2014,42(2):85-90. JIA Changgui,LU Baoping,JIANG Tingxue,et al.Multi-stage horizontal well fracturing technology in deep shale gas Well DY2HF[J].Petroleum Drilling Techniques,2014,42(2):85-90. [5] 莫里斯·杜索尔特,约翰·麦克力兰,蒋恕.大规模多级水力压裂技术在页岩油气藏开发中的应用[J].石油钻探技术,2011,39(3):6-16. DUSSEAULT M,MCLENNAN J,JIANG Shu.Massive multi-stage hydraulic fracturing for oil and gas recovery from low mobility reservoirs in China[J].Petroleum Drilling Techniques,2011,39(3):6-16. [6] AGRAWAL G,SALINAS B J,XU Z.Coated metallic powder and method of making the same:2011/0135953A1[P].2011-06-09.
[7] XU Z,AGRAWAL G,SALINAS B J.Smart nanostructured materials deliver high reliability completion tools for gas shale fracturing[R].SPE 146586,2011.
[8] 魏辽,肖代红,朱敏涛,等.高强快速分解Mg-xAl合金的组织与性能[J].材料热处理学报,2015,36(3):101-104. WEI Liao,XIAO Daihong,ZHU Mintao,et al.Microstructure and properties of high strength and rapidly decomposed Mg-xAl alloys[J].Transactions of Materials and Heat Treatment,2015,36(3):101-104. [9] 秦金立,吴姬昊,崔晓杰,等.裸眼分段压裂投球式滑套球座关键技术研究[J].石油钻探技术,2014,42(5):52-56. QIN Jinli,WU Jihao,CUI Xiaojie,et al.Key technology on ball-activated sleeve for open hole staged fracturing[J].Petroleum Drilling Techniques,2014,42(5):52-56. [10] 戴文潮,秦金立,薛占峰,等.一球多簇分段压裂滑套工具技术研究[J].石油机械,2014,42(8):103-106. DAI Wenchao,QIN Jinli,XUE Zhanfeng,et al.Research on one ball-activated multiple sleeves per stage for multistage fracturing[J].China Petroleum Machinery,2014,42(8):103-106. -
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