Large Scale Fracturing Technology of Well Pengye HF–1 Shale Gas

doi:10.11885/j.issn.1674-5086.2012.08.30.04

Abstract

Abstract:

Shale gas reservoir with low porosity，low permeability，and fractures development and other characteristics must
be stimulated in order to achieve commercial development. Well Pengye HF–1 is one of the key shale gas exploratory wells of
Sinopec. According to analysis of the reservoir conditions，the fracturing model of the well was determined. On the basis of
this，we decided the fracturing crafts. Through experimental study，fluid and proppant selection were optimized. Well Pengye
HF–1 was fractured according to the fracturing design，and the whole progression was divided into 12 sections. The treatment
fluid is 16 211.6 m3，the accumulated proppant is 1 332.7 t. After the test，the well yields 20 000 m3/d. The well fracturing
achieved great success and deliverability test obtained breakthrough，which not only proved the performance of shale containing
gas and that the fracturing technology is suitable for the reservoir，but also provided a good references in other shale gas reservoir
stimulation.

Key words: shale gas；hydraulic fracturing；fracturing fluid；fracturing proppant；Well Pengye HF&ndash, 1

Yang Huaicheng, Mao Guoyang, Song Qicang, Ji Zhijian, Liu Fangzhi. Large Scale Fracturing Technology of Well Pengye HF–1 Shale Gas[J]. 西南石油大学学报(自然科学版), DOI: 10.11885/j.issn.1674-5086.2012.08.30.04.

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References

[1] Potapenko D I，Tinkham S K，Lecerf B，et al．Barnett

shale refracture stimulations using a novel diversion technique[

C]. SPE 119636，2009．

[2] Multalik P N，Gibson R W．Case history of sequential

and simultaneous fracturing of the Barnett shale in Parker

County[C]. SPE 116124，2008．

[3] Mayerhofer M J，Lolon E P，Warpinski N R. What is stimulated

rock volume[C]. SPE 119890，2008．

[4] 赵金洲，任岚，胡永全，等. 页岩储层压裂缝成网延伸

的受控因素分析[J]. 西南石油大学学报：自然科学版，

2013，35（1）：1–9.

Zhao Jinzhou，Ren Lan，Hu Yongquan. Controlling factors

of hydraulic fractures extending into network in shale

formations[J]. Journal of Southwest Petroleum University：

Science & Technology Edition，2013，35（1）：1–9.

[5] 邹才能，董大忠，王社教，等. 中国页岩气形成机理、地

质特征及资源潜力[J]. 石油勘探与开发，2010，37（6）：

641–653.

Zou Caineng，Dong Dazhong，Wang Shejiao，et al. Geological

characteristics，formation mechanism and resource

potential of shale gas in China[J]. Petroleum Exploration

and Development，2010，37（6）：641–653.

[6] 陈作，薛承瑾，蒋廷学，等. 页岩气井体积压裂技术在

我国的应用建议[J]. 天然气工业，2010，30（10）：30–32.

Chen Zuo，Xue Chengjin，Jiang Tingxue，et al. Proposals

for the application of fracturing by stimulated reservoir

volume（SRV）in shale gas wells in China[J]. Natural Gas

Industry，2010，30（10）：30–32.

[7] 孙海成，汤达祯. 四川盆地南部构造页岩气储层压裂改

造技术[J]．吉林大学学报：地球科学版，2007，37（4）：

721–725．

Sun Haicheng，Tang Dazhen. Shale gas formation fracture

stimulation in the south Sichuan Basin[J]．Journal

of Jilin University：Earth Science Edition，2007，37（4）：

721–725．

[8] King G E. Thirty years of gas shale fracturing：What have

we learned[C]. SPE 13346，2006．

[9] Boyer C，Kieschnick J，Suarez-Rivera R，et al. Producting

gas from its source[J]. Oil Field Review，2006，18（3）：

36–49.

[10] Cipolla C L，Warpinski N R，Mayerhofer M J，et al. The

relationship between fracture complexity，reservoir properties，

and fracture treatment design[C]. SPE 115769，

2008.

[11] 赵晨光．非常规天然气系统及其在中国的勘探前景[J].

石油天然气学报，2009，31（3）：193–195．

Zhao Chenguang．Unconventional nature gas system and

its exploration prospect in China[J]．Journal of Oil and

Gas Technology，2009，31（3）：193–195．

[12] 刘红磊，熊炜，高应运，等. 方深1 井页岩气藏特大型

压裂技术[J]. 石油钻探技术，2011，39（3）：46–52.

Liu Honglei，Xiong Wei，Gao Yingyun，et al. Large scale

fracturing technology of Fangshen 1 shale gas well[J].

Petroleum Drilling Techniques，2011，39（3）：46–52.

[13] 吴奇，胥云，刘玉章，等. 美国页岩气体积改造技术现

状及对我国的启示[J]. 石油钻采工艺，2011，33（2）：

1–5.

Wu Qi，Xu Yun，Liu Yuzhang，et al. The current situation

of stimulated reservoir volume for shale in U.S. and

its inspiration to China[J]. Oil Drilling & Production Technology，

2011，33（2）：1–5.

[14] Lee M H，Gary S，Mark M，et al. Stimulation of gas

shales：They′re all the same-right?[C]. SPE 106070，2007.

[15] 阎存章，李鹭光，王炳芳，等，北美地区页岩气勘探开

发新进展[M]. 北京：石油工业出版社，2009.

[16] 唐颖，张金川，张琴，等. 页岩气井水力压裂技术及其

应用分析[J]. 天然气工业，2010，30（10）：33–38.

Tang Ying，Zhang Jinchuan，Zhang Qin，et al. An analysis

of hydraulic fracturing technology in shale gas wells and

its application[J]. Natural Gas Industry，2010，30（10）：

33–38.

[17] 吴奇，胥云，王腾飞，等. 增产改造理念的重大变

革体积改造技术概论[J]. 天然气工业，2011，

31（4）：7–12.

Wu Qi，Xu Yun，Wang Tengfei，et al. Great change in simulations

concept：Volume reconstruction technology[J].

Natural Gas Industry，2011，31（4）：7–12.

[18] 赵金洲，王松，李勇明. 页岩气藏压裂改造难点与技术

关键[J]. 天然气工业，2012，32（4）：46–49.

Zhao Jinzhou，Wang Song，Li Yongming. Difficulties and

key techniques in the fracturing treatment of shale gas

reservoirs[J]. Natural Gas Industry，2012，32（3）：46–49.

[19] Warpinski N R，Vincent M C，Lolon E P，et al. Stimulating

unconventional reservoirs：Maximizing network growth

while optimizing fracture conductivity[C]. SPE 114173，

2008.