利用NMR 技术判识混油钻井液条件下钻遇的油层

doi:10.11938/cjmr20140412

波谱学杂志 ›› 2014, Vol. 31 ›› Issue (4): 579-586.doi: 10.11938/cjmr20140412

利用NMR 技术判识混油钻井液条件下钻遇的油层

王志战1*，秦黎明1，盖姗姗2，徐锐 3，刘小红4，蔡清5

1. 中国石化石油工程技术研究院测录井研究所，北京 100101；
2. 中石化胜利石油工程有限公司地质录井公司，山东东营 257064；
3. 中石化华北石油工程有限公司录井分公司，河南郑州 450042；
4. 中国石化东北油气分公司勘探开发研究院，吉林长春 130062；
5. 苏州纽迈电子科技有限公司，江苏苏州 215163

收稿日期:2014-02-19 修回日期:2014-10-28 出版日期:2014-12-05 发布日期:2014-12-05
通讯作者: 王志战 E-mail:pjes@163.com
作者简介:王志战(1969-)，男，山东栖霞人，博士，教授级高工，主要研究方向为低场核磁共振录井技术、地层压力随钻预测和监测技术、非常规油气储层快速评价技术. 电话：010-84988382，E-mail：wangzz.sripe@sinopec.com. *通讯联系人.
基金资助:
中石化石油工程技术服务有限公司资助项目(JSG11018).

The Effects of Oil-Mixed Drilling Fluid on Oil Layer Identification Studied by NMR Spectroscopy

WANG Zhi-zhan^1*，QIN Li-ming¹，GAI Shan-shan²，XU Rui³，LIU Xiao-hong⁴，CAI Qing⁵

1. SINOPEC Research Institute of Petroleum Engineering, Beijing 100101, China;
2. Geological Logging Branch Company of Shengli Oilfield Corporation of SINOPEC, Dongying 257064, China;
3. Logging Branch Company of North China Petroleum Engineering Corporation of SINOPEC, Zhengzhou 450042, China;
4. Petroleum Exploration and Production Research Institute of Northeast Corporation of SINOPEC, Changchun 130062, China;
5. Niumai Electronic Technology Limited Company, Suzhou 215163, China

Received:2014-02-19 Revised:2014-10-28 Online:2014-12-05 Published:2014-12-05
About author:*Corresponding author：WANG Zhi-zhan, Tel: 010-84988382, E-mail: wangzz.sripe@sinopec.com.
Supported by:
中石化石油工程技术服务有限公司资助项目(JSG11018).

摘要/Abstract

摘要：

混油钻井液对色谱、光谱录井技术发现和评价油气层带来了严重影响．为了准确识别和定量评价混油钻井液条件下所钻遇的油层，创新采用高分辨率核磁共振录井技术随钻检测钻井液T2 谱及其含油率的变化．不同油品在钻井液中的混合实验结果表明，混油钻井液为水包油乳液，两种不同的油品在钻井液中难以混合，在T2 谱上呈现相互独立的峰，据此可以直观、准确地识别所钻遇的油层；并可根据归一法、外标法定量评价钻井液中的地层油含油率．经现场应用，取得了与室内实验相一致的效果，证明了该项技术的有效性．

关键词: 混油钻井液, 油层识别, 含油率, 核磁共振, 定量评价

Abstract:

The use of oil-mixed drilling fluid application may potentially affect the discovery of oil layer, as well as the results of chromatography or spectrum surface
logging. To study and quantify how the use of oil-mixed drilling fluid would affect the results of logging, high-resolution NMR surface logging while drilling technology was used to measure T₂ spectrum and oil content with different levels of oil added into the drilling fluid. The results indicated that oil-mixed drilling fluid exhibited properties of oil in water, and could not blended with the oil layer. As a result, the T₂ spectrum showed two independent peaks of oil. It is concluded that the oil layer can be identified accurately with the use of oil-mixed drilling fluid. In addition, by using the normalization method or external standard method, it was shown that the oil content of layer oil can be calculated in the drilling fluid. Field experiments were used to confirm the results of laboratory experiments.

Key words: oil-mixed drilling fluid, oil layer identification, oil content, NMR, quantified evaluation

中图分类号:

O482.53

王志战1*，秦黎明1，盖姗姗2，徐锐 3，刘小红4，蔡清5. 利用NMR 技术判识混油钻井液条件下钻遇的油层[J]. 波谱学杂志, 2014, 31(4): 579-586.

WANG Zhi-zhan1*，QIN Li-ming1，GAI Shan-shan2，XU Rui3，LIU Xiao-hong4，CAI Qing5. The Effects of Oil-Mixed Drilling Fluid on Oil Layer Identification Studied by NMR Spectroscopy[J]. Chinese Journal of Magnetic Resonance, 2014, 31(4): 579-586.

参考文献

[1] Wang Wei-liang(王伟良), Zhang Qian(张迁), Wu Sheng-hong(吴生红), et al. Ultra-low clay and crude oil mixed drilling fluid for horizonal well(水平井超低土相混油钻井液技术) [J].Drilling Fluid and Completion Fluid (钻井液与完井液), 2012, 29(2): 44－46, 50.

[2] Wang Ping-quan(王平全), Zhou Shi-liang(周世良). Drilling Fluid Treating Chemical and its’ Function Mechanism (钻井液处理剂及其作用原理)[M]. Beijing(北京): Petroleum Industry Press (石油工业出版社), 2003.

[3] Zhang Huan-qing(张欢庆), Chen Lin (陈林), He Wen-ting(贺文廷), et al. High density saturated saltwater drilling fluid with oil for horizontal well KL2-H1 (KL2-H1 水平井高密度饱和盐水混油钻井液技术)[J]. Drilling Fluid and Completion Fluid(钻井液与完井液), 2009, 26(4): 26－28.

[4] Duan Xiang-yang(段向阳), Jin Wu(金武). Effect of oil emulsion drilling fluid on mud logging and pay zone identification(混油钻井液对录井的影响与油气层识别)[J]. Mud Logging Engineering(录井工程), 2006, 17(sup plement(增)): 8－11.

[5] Yang Ming-qing(杨明清), Wang Cheng-biao(王成彪), Wang Yin(王印), et al. Quantitative elimination method for gas measured value in response to oil?emulsion drilling fluid(钻井液混油响应气测值较准确剔除方法)[J]. Xinjiang Petroleum Geology(新疆石油地质), 2013, 34(2): 235－237.

[6] Zhang Xie-xian(章卸贤), Qian Shu-hong(钱书红), Yang Qiu-lai(扬秋来). The influence of drilling fluid mixed with oil or organic additive on logging and logging method(钻井液中有机添加剂对录井的影响及方法探讨)[J]. Offshore Oil (海洋石油), 2003, 23(2): 73－77.

[7] Yuan Huai(苑淮), Zhang Gen-fa(张根法), Chang Jian-jun(常建军), et al. Application of OFA quantitative callophane in henan oil field (OFA 定量荧光分析仪在河南油田的应用)[J]. Petroleum Exploration and Development (石油勘探与开发),2002,29(4):63-65.

[8] Zhang Min(张敏), Lin Ren-zi(林壬子), Mei Bo-wen(林博文), et al. Reservoir Geochemistry-Research on Kuche Oil System of Tarim Basin (油藏地球化学—塔里木盆地库车含油气系统研究)[M]. Chongqing(重庆): Chongqing University Press(重庆大学出版社), 1997.

[9] Zhao Jin-zhou(赵金洲). Drilling Practice of Complex ultradeep well in Eastern China-Drilling Breakthrough of Well Shengke 1(中国东部复杂超深井钻井实践—胜科1 井钻井的重大突破)[M]. Beijing(北京): Sinopec Press(中国石化出版社), 2008.

[10] Zhang Zong-fu(张宗富), Xiao Li-zhi(肖立志), Liu Hua-bing(刘化冰), et al. Simulation of restricted diffusion of water molecules in micropores(水分子在微孔隙介质中的受限扩散模拟) [J].Chinese J Magn Reson(波谱学杂志), 2014, 31(1): 49－60.

[11] Li Xin-jun(李新军), Nie Sheng-dong(聂生东), Wang Yuan-jun(王远军), et al. An improved two-dimensional inversion algorithm for low-field NMR diffusion-transverse relaxation correlation data(低场核磁共振扩散横向弛豫二维反演算法)[J]. Chinese J Magn Reson(波谱学杂志), 2013, 30(3): 322－335.

[12] Xiao Li-zhi(肖立志). Magnetic Resonance Image Logging and Rock Nuclear Magnetic Resonance and its Application(核磁共振成像测井与岩石核磁共振及其应用)[M]. Beijing(北京): Science Press(科学出版社), 1998.

[13] Xu Xiao-qiong(许小琼), Wang Zhi-zhan(王志战), Pu Deng-gang(普登岗), et al. Detecting oil content in drilling fluid with NMR(利用磁共振技术检测钻井液含油量的方法探讨)[J]. Chinese J Magn Reson(波谱学杂志), 2011, 28(2): 237－243.

[14] Freedman R, Heaton N. Fluid characterization using nuclear magnetic resonance logging[J]. Petrophysics, 2004, 45(3), 241－250.

[15] Zhu Ming-hua(朱明华). Instrumental Analysis(仪器分析)[M]. Beijing(北京): Higher Education Press(高等教育出版社), 2000.

[16] Wang Zheng-fan(汪正范). Chromatographic Qualitative and Quantitative(色谱定性与定量)[M]. Beijing(北京): Chemical Industry Press(化学工业出版社), 2007.

[17] Sinopec Huabei Petroleum Administration(中国石化集团华北石油局). NMR Analysis Method of Oil Content in Drilling Fluid(核磁共振钻井液含油质量分数的分析方法): China(中国), 200910172663.0[P], 2010-05-26.

利用NMR 技术判识混油钻井液条件下钻遇的油层

The Effects of Oil-Mixed Drilling Fluid on Oil Layer Identification Studied by NMR Spectroscopy

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