喇嘛甸油田北东块葡Ⅰ1-2油层聚驱后期调整方法研究
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摘要
近年来，随着聚合物驱工业推广规模的不断扩大，人们在聚合物驱过程中进行了多项剩余油挖潜方法的研究。但是，以往的研究都是针对聚合物驱不同开发阶段提出来的，因此在与精细地质研究成果的结合上有时会缺乏连续性和系统性。为了充分聚合物驱的作用，使聚合物驱厚油层剩余油挖潜技术得到更深入的发展，喇嘛甸油田北东块聚合物驱在开展聚合物驱转后续水驱时机研究的同时，加强了聚合物驱精细挖潜工作的研究力度，并在此基础上，对喇嘛甸油田聚合物驱后期综合调整方法进行了归纳整理，以期能够使该项技术更加科学化、规范化。
本文详细地介绍了北东块聚合物驱葡Ⅰ1-2油层的沉积特征和聚合物驱后剩余油分布特征，并给出了北东块转后续水驱后，开发指标的变化。在此基础上，对北东块聚合物驱后续水驱阶段的调整方法进行研究，并对此进行了效果评价，给出了转后续水驱的时机判定公式及决定聚合物转后续水驱实际的主要影响因素。
在数模基础上，预测了聚合物用量大于400PV·mg／L，不同的聚合物用量时的开发指标，以及不同的后续水驱注入速度的最终采收率值。同时，对调整后的方案进行经济效益评价，给出了投入产出比，为该油田其它区块后续水驱调整提供了理论的依据。
Recently, multiple options enhanced oil recovery for remaining oil was developed through polymer flooding processes with the expanding of polymer flooding industries. However, the former studies were brought forward against the different development phases of polymer flooding. Thus, there was lack of continuity and systematization when these methods matching with the outcome of precise geological studies. In order to exert the function of polymer flooding fully, and further develop the enhanced oil recovery of remaining oil bearing in thick reservoir layers for polymer flooding, it was enhanced to the study of precise enhanced oil recovery for polymer flooding in the polymer flooding in north-east block of Lamadian oilfield, while developing the study as polymer flooding transforming to following water flooding. And on the basis of it, it was concluded and treated to the integrated adjustable methods for polymer flooding in north-east block of Lamadian oilfield at the latter development period so that it cou
ld made this technology became more scientifization and standardization.
This paper introduced the details of the sedimentary character and the distribution character of remaining oil after polymer flooding in the pay-sands Pu I 1-2 of north-east block which utilized the polymer flooding. And this paper gave the changed of development indexes that was of following water flooding in the north-east water flooding. Based on it, the adjustable methods were studied which were for polymer flooding in north-east block at following water flooding period, and gave the evaluation of its effect. At the meanwhile, this paper gave the equations of deciding occasion of following water flooding and the important practical factors which decided the polymer flooding transforming to the following water flooding.
Based on the numerical model, it forecasted the development indexes for the different dosage of polymer when the dosage of polymer was more than 400PV mg/L. It also forecasted the value of ultimate recovery factor for following water flooding at the different injection rates. At the same time, it evaluated the economic benefit of the adjusted project and gave the ratio of investment versus profit. All of these provided the academic basis for the adjustment of other blocks of the oilfield which used the following water flooding.
本文详细地介绍了北东块聚合物驱葡Ⅰ1-2油层的沉积特征和聚合物驱后剩余油分布特征，并给出了北东块转后续水驱后，开发指标的变化。在此基础上，对北东块聚合物驱后续水驱阶段的调整方法进行研究，并对此进行了效果评价，给出了转后续水驱的时机判定公式及决定聚合物转后续水驱实际的主要影响因素。
在数模基础上，预测了聚合物用量大于400PV·mg／L，不同的聚合物用量时的开发指标，以及不同的后续水驱注入速度的最终采收率值。同时，对调整后的方案进行经济效益评价，给出了投入产出比，为该油田其它区块后续水驱调整提供了理论的依据。
Recently, multiple options enhanced oil recovery for remaining oil was developed through polymer flooding processes with the expanding of polymer flooding industries. However, the former studies were brought forward against the different development phases of polymer flooding. Thus, there was lack of continuity and systematization when these methods matching with the outcome of precise geological studies. In order to exert the function of polymer flooding fully, and further develop the enhanced oil recovery of remaining oil bearing in thick reservoir layers for polymer flooding, it was enhanced to the study of precise enhanced oil recovery for polymer flooding in the polymer flooding in north-east block of Lamadian oilfield, while developing the study as polymer flooding transforming to following water flooding. And on the basis of it, it was concluded and treated to the integrated adjustable methods for polymer flooding in north-east block of Lamadian oilfield at the latter development period so that it cou
ld made this technology became more scientifization and standardization.
This paper introduced the details of the sedimentary character and the distribution character of remaining oil after polymer flooding in the pay-sands Pu I 1-2 of north-east block which utilized the polymer flooding. And this paper gave the changed of development indexes that was of following water flooding in the north-east water flooding. Based on it, the adjustable methods were studied which were for polymer flooding in north-east block at following water flooding period, and gave the evaluation of its effect. At the meanwhile, this paper gave the equations of deciding occasion of following water flooding and the important practical factors which decided the polymer flooding transforming to the following water flooding.
Based on the numerical model, it forecasted the development indexes for the different dosage of polymer when the dosage of polymer was more than 400PV mg/L. It also forecasted the value of ultimate recovery factor for following water flooding at the different injection rates. At the same time, it evaluated the economic benefit of the adjusted project and gave the ratio of investment versus profit. All of these provided the academic basis for the adjustment of other blocks of the oilfield which used the following water flooding.
引文
[1] 王志武主编．大庆油田“稳油控水”系统工程．石油工业出版社，2000年
[2] 胡博仲主编．聚合物采油工程．石油工业出版社，1997
[3] 林承焰主编．剩余油形成与分布，石油大学出版社 1999
[4] 隋军等主编．大庆油田河流三角洲相储存研究．石油工业出版社
[5] 程杰成，王德民等编译．国外三次采油技术．上海交通大学出版社，1992年
[6] 王德民院士报告论文集．石油工业出版社，2001年
[7] 伍友佳，蔡正旗主编．油藏地质学．石油工业出版社，2000年
[8] 裘怿南，陈子旗主编．油藏描述．石油工业出版社，1996
[9] 陈涛平．胡靖邦主编．石油工程．石油工业出版社，2000
[10] 胡博仲主编．非均质多层研究油田分层开采技术．石油工业出版社，2000
[11] 李凤林，宁树枫主编．微生物采油的研究进展．石油工业出版社，1995
[12] 方凌云，万新德等编著．研究油藏注水开发动态分析．石油工业出版社．1997年
[13] 刘丁曾，王启民，李伯虎．大庆变层砂岩．油田开发．石油工艺出版社，1996．11
[14] 王玉普，王广昀，王林．大庆油田高含水期注采工艺技术．石油工艺出版社，2001．09
[15] 郑俊德，张洪亮主编．油气田开发与开采．石油工艺出版社，1997．08
[16] 翟云芳主编．渗流力学．石油工艺出版社
[17] 罗平亚主编．油气藏开发工程理论和技术．1999．04 论文集．石油工业出版社
[18] 李庆昌，吴虻，赵立青等．砾岩油田开发．石油工业出版社，1997
[19] 廉庆存主编．油田开发．石油工业出版社．1997．04
[20] 康万利，董喜贵编．三次采油化学原理．化学工业出版社．1997．03
[21] 李颖川主编．采油工程．石油工业出版社，2002．02
[22] 王良忱，张金亮编．沉积环境和沉积相．石油工业出版社，1996．06
[23] 田在艺．石油地质论文集．石油工业出版社，1997．01
[24] 冈奉麟主编．化学驱油论文集．石油工业出版社，1998．11
[25] 巢华庆主编．大庆油油藏工程(优秀)论文集．石油工业出版社，2000．05
[26] 奉同洛，李烫，陈元千编著．实用油藏工程方法．石油工业出版社，1989．07
[27] 高树章等．聚合物驱提高石油采收率．石油工业出版社．1996．10
[28] 王克亮等．改善聚合物驱油技术研究．石油工业出版社，1997．12
[29] 陈元千著．油气藏工程计算方法．石油工业出版社．1994．05
[30] 陈铁龙，蒲万芬主编．油田稳油控水技术论文集．石油工业出版社，2001．08
[31] 王渝明主编．油田开发 30 年技术实践．石油工业出版社．2001．09
[32] 孙平主编．油田开发综合配套技术应用．石油工业出版社，1998．04
[33] 杨万里主编．松辽盆地石油地质．石油工业出版社，1985．10
[34] 张琪主编．采油工程原理与设计．石油大学出版社．2000．09
[35] 沈平平著．油水在多介质中的运动理论和实践．石油工业出版社，2000．12
[36] 张原福，张万选主编．石油地质学．石油工业出版社，1997．01
[37] 刘东升主编．聚合物驱注采井节点系统分析方法及其应用．石油工业出版社．2001．05
[38] 郑永刚著．非牛顿流体流动理论及其在石油工程中的应用．石油工业出版社 1999．05
[39] 袁士义等编．北京石油学会第三届青年学术年会论文集．石油工业出版社，2000．10
[40] 杨承志等著．化学驱提高石油采收率．石油工业出版社，1999．12
[41] 任惠立，王凤刚主编．采油地质．石油工业出版社，1995．06
[42] 冈奉麟主编．高含水期油田改善水驱效果新技术．石油工业出版社，1999．07
[43] 余毓等主编．论陆相油田开发．石油工业出版社，1997
[44] 陈永生著．油藏流场．石油工业出版社，1998．10
[45] 巩艳芬主编．技术经济学．石油工业出版社，2001．08
[46] 守吉水等著．大庆油区油气田开发技术研究．石油工业出版社，2001．08
[47] 守世漠主编．物理化学．高等教育出版社，1982．07
[48] 陈云官主编．油气田地下地质学．地质出版社，1985．05
[49] 蔡鹏展主编．油田开发经济评价．石油工业出版社，1997．03
[50] 胡博仲主编．大庆油田机械采油配套技术．石油工业出版社，1998．07
[51] 胡博仲主编．大庆油田高含水期稳油控水采油工程技术．石油工业出版社，1997．04
[52] 黄修平等编．不同油层条件对聚合物驱油效果的影响．大庆石油地质与开发，2000．03
[53] 徐正顺等．大庆油田聚合物驱技术应用的做法与经验．大庆石油地质与开发，2000．04
[54] 梅启太等．水下窄又河道砂体综合调整挖潜技术．大庆石油地质与开发，2000．05
[55] 徐正顺．大庆油田聚合物驱潜力评价．大庆石油地质与开发，2001．02
[56] 耿师江等．非均质油藏中高含水期稳油控水措施及效果．大庆石油地质与开发，2001．03
[57] 高尔双等．聚合物驱不同阶段效果评价方法探讨．大庆石油地质与开发，2001．04
[58] 孔祥亭等．聚合物驱开发规划指标预测方法研究．大庆石油地质与开发，2001．05
[59] 方艳君等．改善聚驱开发效果、延长有效期的做法．大庆有油地质与开发，2001．06
[60] 韩伟东等．喇嘛甸油田剩余油挖潜方法．大庆石油地质与开发，2002．03
[61] 张宏方等．聚合物溶液在多孔介质中的渗流规律及其提高驱油效率的机理．大庆石油地质与开发，2002．04
[62] 王元庆等．三角洲前缘相储层沉积特征及剩余油分布研究．大庆石油地质与开发，2002．05
[63] 张宝胜等．喇萨杏油田各类油层水洗状况．大庆石油地质与开发，2002．06
[64] 王德民．对大庆油田持续发展有影响的四项工艺技术与方法的探讨．大庆石油地质与开发，2002．01
[65] Abdo, M. K., H. S. Chung, C. H. Phelps, and T. M. Klaric. Field Exeriment with Floodeater Diversion by Complexed Biopolymers.. Presa. at SPE/DOE 4th symp. on Enhanced Oil Recovery, Tuisa, Apr. p15-18, 1984.SPE/DOE paper 12642.
[66] Avery, M. R., L A. Burkholder, and M. A. Gruenenfelder. Use of Crossliked Xanthan Gels in Actual Profile Modification. press. at the SPE Int'l Mtg. on petroleum Engineering, Beijing, China, Mar. p17-20.1986.
[67] Baghdikian, S, Y.. L. L. Handy, M. M. shama. Flow of Clay suspensions through Porous Media. Pres. at the SPE Oilfield Chemistry Int"l Symp., San Antoaio, 1987. SPE paper 16257
[68] Sadiford, B. B. plugging High Permeability Zones of Reservoirs Having Heterogeneous permeability. U. S. patent, 4,069,869,Jan. 1978.
[69] Felber, B. J. and W. L. Dauben. Development of Lignosulfate Gels for sweep Improvement. Pres. at the 1976 SPE 51st Ann. Fall Tech. conf.. New oreleans. oct. P3-6. SPE paper 6206.
[70] Sorbie, K. S. L. J. Poberts, and P. J Cliptord. Calculantion on the Behavior of Time-Setting Polymer Gels in Porous Media. Pres. at Aiche Mtg., Houston, Mar. 1985.
[71] Scott, T.; L. J. Roberts, and S. R. Sharpe. In Situ Gel Calculation in Complex Reservoir Systems Using a New Chemical Flood Simulator. Pers. at the 60th Ann. Tech. Conf. of the Soc. of Pet. Eng, Las Vegas, Sept.p22-25, 1985, SPE paper 14234.
[72] Pope, G. A., L. W. Lake, R. Sephernoori, and F. W. Burtch. Modeling and Scale-Up of Chemical Flooding. U. S. Dept. of Energy Report No. Doe/bc/10846-5. July 1987.
[73] Garner, F. J.. M. M. Sharma. and G. A. Pope. The Competition for Chromium Between Xanthan Biopolymer and Resident Clays in Sandstones. Pres. at the 64th Ann. Tech. Conf. of the Soc. of Pet. Engrs., San Antonio, Oct. p8-11,1989. SPE paper 19632.
[74] Fanchi J. R., K. J. Harpole. S. W. Bujnowski and H. B. Carroll, Jr. BOAST: A Three-Dimensionl, Three_PhaseBlack Oil Applied Simulation Tool(Version 1.1). Volume Ⅰ: Technical Description and Fortran Code. U. S. Dept of Fnergy Report No.DOE/BC/10033-3,V.1.Spet. 1982.
[75] Bird, R. B., W. E. Stewart, and E. N. Lightfoot. Transport Phenomena. John Wiley and Sons, Inc., New York, 1960.
[76] Huang, Chyi-Gang, D. W. Green, and G. P. Willhite, An Experimental study of the In Situ Getation of Chromium (+3) Polyacylamide Polymer in Porous Media. Pres. At the SPE/DOE/4th Symp. on Entranced Oil Recovery, Tulsa, Apr. p15-18.1984.SPE/DOE paper 12638.
[77] Southard, M. I., d. w. green. and G. P. Willhite. Kinetics of the Chromium (Ⅵ)/Thiourea reaction in the Presence of Polyacrylamide. Pres. at the SPE/DOE 4th Symp. on Enhanced Oil Recovery, Tulsa, Apr.p15-18,1984. SPE/DOE paper 12715.
[78] Prudhom me, R. K. AND J. T. UHl. Kinetics of Polymer/Metal-Ion Gelation Pres. at the SPE/DOE 4th Symp. on Enhanced Oil Recovery, Tulsa, Apr.P15-18.1984. SPE/DOEpaper 12640.
[79] Camillieri. D. Micellar/Polymer Flooding Experimerits and Comparisons With an Improved I-DSimulator. M. S. Thesis, Univ. of Texas-Austin, May 1983.
[80] Datta, Gupta A. Three-Dimensional Simulation of Chemical Flooding. M. S. Thesis. Univ. of Texas-Austin, May 1985.
[81] Meter, D. M. and R. B. Bird. Tube Flow of Non-Newtonian Polymer Solutions: Part 1 Laminar Flow and Rheological Models. AICHE J., V. 10. No 6, Nov. 1984, p1143-1150.
[82] Gao, h. w., p. b. Lorenz, and S. Brock. Viselastic Behavior of Hydrolyzed Polyacrylamide Solutions in Porou~ Mesia. Poly. Mater. Sci. Engr., Prol. of the ACS Div. of Polymeric Materials; Sci. and Engr.,, v. 55, Fall Mtg., Anaheim, 1986,p685-693.
[83] Wang, B. Development of a 2-D Large-Scale Micellar/Polymer Simulator. Ph. D. Dissertation. Univ. of Texas-Austin, 1981.
[84] Terry, R. E., C. Huang, D. W. Green, M. J. Michnicr, and G. P. Willhite. Correlation of Gelation Times for Polymer Solutions Used as Sweep Improvement Agents. Soc. Pet. Eng J., Apr 1981.p229-235.
[85] Jennings, R. R., J. H. Rogers, and T. J. West. Factors Influencing Mobility Control by Polymer Solutions. J. Pet. Tech., Mar. 1971,p391-401.
[86] Dawson, R. and R. B. Lantz. Inaccessible Pore Volume in Polymer Flooding. Soc. Pet. Eng. J., Oct. 1972.p448-452.
[87] Willhite, G. P. and J. G. Dominguez. Mechanisms of Polymer Retention in Porous Media. I Improved Oil Recovery by Surfactant and Polymer Flooding, U. O. Shah and R. S. Schechter, eds., Academic Pres, Inc,. New York, 1977.p511.
[88] Liauh. W. C.. J. L. Duda, and E. E. Klaus. An Investigation of the Inaccessible Pore Volume Phenomena. Interfacial Phcnomena in Enhanced Oil Recovery, AICHE Syrup. Series, 1982,v.78,No.212,p70-76.
[89] Ames, W, F. Numerical Methods for Partial Differential Equations. 2nd Ebition, Academic Press,Inc.,New York, 1977.
[90] Carnahan, B., H. A. Luther, and J, O, Wilkins. Applied Numerical Methods. John WILEY & Sons, Inc., New York, 1969.
[91] Hong W. Gao and Ming M. Chang. A Three-Phase Simulator for Permeability Modification. U. S. Dept. of Energy Report No. NIPER-338, in press.
[92] Fanchi, Joh R. and Fred W. Burtch. CHEM20: A Two-Dimensional. Three-Phase, Nine-Component Chemical Flood Simulator. Volume Ⅰ: CHEM2D Technical Description and FORTRAN Code. u. s. Dept. of Energy Report No. DOE/BC/10033-9,v. 1. Feb. 1984.
[93] Naiki, M. A Numerical Investigation of Polymer Flooding Including the Effects of Salinity. Ph. D. dissertation, Univ. of Texas, Austin, 1981.
[94] Fanchi, J. R., K. J. Harpole. S. W. Bujnowski, and H. B. Carroll, Jr. BOAST: A Three-Dimesionalln, Three-Phase black Oil Applied Simulation Tool(Version 1.1.).Volume Ⅱ: Program User'Manual, U. S. Dept. of Energy Report No.DOE/BC/10033-3,V.2.Sept. 1982.
[95] Jones, R. S.. G. A. Pope. H. J. Ford. and L. W. Lake. A Predictive Model for water and Polymer Flooding. Pres. at SPE/DOE Ffourth Symposium on Enhanced Oil Recovery, Tulsa, Apr.p15-18, 1984.SPE/DOE paper 12653.
[96] Manning, R. K., G. A. Pope. L. W. Lake, G. W. Paul and T. C. Wesson. A Techi nicl Survey of Polymer Flooding Projects. U. S. Dept. of. Energy Report No.DOE/BC/10327-19,Sept.1983
[97] Clampitt, R. L. and. J. E. Hessert. Methods for Controlling Formation Permeability. U. S. Patent No.3, 785,437, Jan.15,1974.
[98] Call, J. W. Subterranean Formation Permeability Correction. U. S. Patent No.3,762,476.Oct2,1973
[99] Gogarty, W. B., "Enhanced Oil Recovery Through the Use of Chemicals-Part 2", JPT(October 1993)p1761-1775
[100] Sorbie, K. S.. Parker. A.. and Clifford, P. J., "Experimental and Theoretical Study of Polymer Flow in Porous Media, "SPE Reservoir Eng.(August 1987)p281-304.
[101] Chauveteau. G., and Lecourtier, J.," Propagation of PolymerSlugs Through A dsorbent Porous Media", Paper presented at 1985 ACS Anhnual Meeting, Anaheim, CA, Aprilpl 6-18
[2] 胡博仲主编．聚合物采油工程．石油工业出版社，1997
[3] 林承焰主编．剩余油形成与分布，石油大学出版社 1999
[4] 隋军等主编．大庆油田河流三角洲相储存研究．石油工业出版社
[5] 程杰成，王德民等编译．国外三次采油技术．上海交通大学出版社，1992年
[6] 王德民院士报告论文集．石油工业出版社，2001年
[7] 伍友佳，蔡正旗主编．油藏地质学．石油工业出版社，2000年
[8] 裘怿南，陈子旗主编．油藏描述．石油工业出版社，1996
[9] 陈涛平．胡靖邦主编．石油工程．石油工业出版社，2000
[10] 胡博仲主编．非均质多层研究油田分层开采技术．石油工业出版社，2000
[11] 李凤林，宁树枫主编．微生物采油的研究进展．石油工业出版社，1995
[12] 方凌云，万新德等编著．研究油藏注水开发动态分析．石油工业出版社．1997年
[13] 刘丁曾，王启民，李伯虎．大庆变层砂岩．油田开发．石油工艺出版社，1996．11
[14] 王玉普，王广昀，王林．大庆油田高含水期注采工艺技术．石油工艺出版社，2001．09
[15] 郑俊德，张洪亮主编．油气田开发与开采．石油工艺出版社，1997．08
[16] 翟云芳主编．渗流力学．石油工艺出版社
[17] 罗平亚主编．油气藏开发工程理论和技术．1999．04 论文集．石油工业出版社
[18] 李庆昌，吴虻，赵立青等．砾岩油田开发．石油工业出版社，1997
[19] 廉庆存主编．油田开发．石油工业出版社．1997．04
[20] 康万利，董喜贵编．三次采油化学原理．化学工业出版社．1997．03
[21] 李颖川主编．采油工程．石油工业出版社，2002．02
[22] 王良忱，张金亮编．沉积环境和沉积相．石油工业出版社，1996．06
[23] 田在艺．石油地质论文集．石油工业出版社，1997．01
[24] 冈奉麟主编．化学驱油论文集．石油工业出版社，1998．11
[25] 巢华庆主编．大庆油油藏工程(优秀)论文集．石油工业出版社，2000．05
[26] 奉同洛，李烫，陈元千编著．实用油藏工程方法．石油工业出版社，1989．07
[27] 高树章等．聚合物驱提高石油采收率．石油工业出版社．1996．10
[28] 王克亮等．改善聚合物驱油技术研究．石油工业出版社，1997．12
[29] 陈元千著．油气藏工程计算方法．石油工业出版社．1994．05
[30] 陈铁龙，蒲万芬主编．油田稳油控水技术论文集．石油工业出版社，2001．08
[31] 王渝明主编．油田开发 30 年技术实践．石油工业出版社．2001．09
[32] 孙平主编．油田开发综合配套技术应用．石油工业出版社，1998．04
[33] 杨万里主编．松辽盆地石油地质．石油工业出版社，1985．10
[34] 张琪主编．采油工程原理与设计．石油大学出版社．2000．09
[35] 沈平平著．油水在多介质中的运动理论和实践．石油工业出版社，2000．12
[36] 张原福，张万选主编．石油地质学．石油工业出版社，1997．01
[37] 刘东升主编．聚合物驱注采井节点系统分析方法及其应用．石油工业出版社．2001．05
[38] 郑永刚著．非牛顿流体流动理论及其在石油工程中的应用．石油工业出版社 1999．05
[39] 袁士义等编．北京石油学会第三届青年学术年会论文集．石油工业出版社，2000．10
[40] 杨承志等著．化学驱提高石油采收率．石油工业出版社，1999．12
[41] 任惠立，王凤刚主编．采油地质．石油工业出版社，1995．06
[42] 冈奉麟主编．高含水期油田改善水驱效果新技术．石油工业出版社，1999．07
[43] 余毓等主编．论陆相油田开发．石油工业出版社，1997
[44] 陈永生著．油藏流场．石油工业出版社，1998．10
[45] 巩艳芬主编．技术经济学．石油工业出版社，2001．08
[46] 守吉水等著．大庆油区油气田开发技术研究．石油工业出版社，2001．08
[47] 守世漠主编．物理化学．高等教育出版社，1982．07
[48] 陈云官主编．油气田地下地质学．地质出版社，1985．05
[49] 蔡鹏展主编．油田开发经济评价．石油工业出版社，1997．03
[50] 胡博仲主编．大庆油田机械采油配套技术．石油工业出版社，1998．07
[51] 胡博仲主编．大庆油田高含水期稳油控水采油工程技术．石油工业出版社，1997．04
[52] 黄修平等编．不同油层条件对聚合物驱油效果的影响．大庆石油地质与开发，2000．03
[53] 徐正顺等．大庆油田聚合物驱技术应用的做法与经验．大庆石油地质与开发，2000．04
[54] 梅启太等．水下窄又河道砂体综合调整挖潜技术．大庆石油地质与开发，2000．05
[55] 徐正顺．大庆油田聚合物驱潜力评价．大庆石油地质与开发，2001．02
[56] 耿师江等．非均质油藏中高含水期稳油控水措施及效果．大庆石油地质与开发，2001．03
[57] 高尔双等．聚合物驱不同阶段效果评价方法探讨．大庆石油地质与开发，2001．04
[58] 孔祥亭等．聚合物驱开发规划指标预测方法研究．大庆石油地质与开发，2001．05
[59] 方艳君等．改善聚驱开发效果、延长有效期的做法．大庆有油地质与开发，2001．06
[60] 韩伟东等．喇嘛甸油田剩余油挖潜方法．大庆石油地质与开发，2002．03
[61] 张宏方等．聚合物溶液在多孔介质中的渗流规律及其提高驱油效率的机理．大庆石油地质与开发，2002．04
[62] 王元庆等．三角洲前缘相储层沉积特征及剩余油分布研究．大庆石油地质与开发，2002．05
[63] 张宝胜等．喇萨杏油田各类油层水洗状况．大庆石油地质与开发，2002．06
[64] 王德民．对大庆油田持续发展有影响的四项工艺技术与方法的探讨．大庆石油地质与开发，2002．01
[65] Abdo, M. K., H. S. Chung, C. H. Phelps, and T. M. Klaric. Field Exeriment with Floodeater Diversion by Complexed Biopolymers.. Presa. at SPE/DOE 4th symp. on Enhanced Oil Recovery, Tuisa, Apr. p15-18, 1984.SPE/DOE paper 12642.
[66] Avery, M. R., L A. Burkholder, and M. A. Gruenenfelder. Use of Crossliked Xanthan Gels in Actual Profile Modification. press. at the SPE Int'l Mtg. on petroleum Engineering, Beijing, China, Mar. p17-20.1986.
[67] Baghdikian, S, Y.. L. L. Handy, M. M. shama. Flow of Clay suspensions through Porous Media. Pres. at the SPE Oilfield Chemistry Int"l Symp., San Antoaio, 1987. SPE paper 16257
[68] Sadiford, B. B. plugging High Permeability Zones of Reservoirs Having Heterogeneous permeability. U. S. patent, 4,069,869,Jan. 1978.
[69] Felber, B. J. and W. L. Dauben. Development of Lignosulfate Gels for sweep Improvement. Pres. at the 1976 SPE 51st Ann. Fall Tech. conf.. New oreleans. oct. P3-6. SPE paper 6206.
[70] Sorbie, K. S. L. J. Poberts, and P. J Cliptord. Calculantion on the Behavior of Time-Setting Polymer Gels in Porous Media. Pres. at Aiche Mtg., Houston, Mar. 1985.
[71] Scott, T.; L. J. Roberts, and S. R. Sharpe. In Situ Gel Calculation in Complex Reservoir Systems Using a New Chemical Flood Simulator. Pers. at the 60th Ann. Tech. Conf. of the Soc. of Pet. Eng, Las Vegas, Sept.p22-25, 1985, SPE paper 14234.
[72] Pope, G. A., L. W. Lake, R. Sephernoori, and F. W. Burtch. Modeling and Scale-Up of Chemical Flooding. U. S. Dept. of Energy Report No. Doe/bc/10846-5. July 1987.
[73] Garner, F. J.. M. M. Sharma. and G. A. Pope. The Competition for Chromium Between Xanthan Biopolymer and Resident Clays in Sandstones. Pres. at the 64th Ann. Tech. Conf. of the Soc. of Pet. Engrs., San Antonio, Oct. p8-11,1989. SPE paper 19632.
[74] Fanchi J. R., K. J. Harpole. S. W. Bujnowski and H. B. Carroll, Jr. BOAST: A Three-Dimensionl, Three_PhaseBlack Oil Applied Simulation Tool(Version 1.1). Volume Ⅰ: Technical Description and Fortran Code. U. S. Dept of Fnergy Report No.DOE/BC/10033-3,V.1.Spet. 1982.
[75] Bird, R. B., W. E. Stewart, and E. N. Lightfoot. Transport Phenomena. John Wiley and Sons, Inc., New York, 1960.
[76] Huang, Chyi-Gang, D. W. Green, and G. P. Willhite, An Experimental study of the In Situ Getation of Chromium (+3) Polyacylamide Polymer in Porous Media. Pres. At the SPE/DOE/4th Symp. on Entranced Oil Recovery, Tulsa, Apr. p15-18.1984.SPE/DOE paper 12638.
[77] Southard, M. I., d. w. green. and G. P. Willhite. Kinetics of the Chromium (Ⅵ)/Thiourea reaction in the Presence of Polyacrylamide. Pres. at the SPE/DOE 4th Symp. on Enhanced Oil Recovery, Tulsa, Apr.p15-18,1984. SPE/DOE paper 12715.
[78] Prudhom me, R. K. AND J. T. UHl. Kinetics of Polymer/Metal-Ion Gelation Pres. at the SPE/DOE 4th Symp. on Enhanced Oil Recovery, Tulsa, Apr.P15-18.1984. SPE/DOEpaper 12640.
[79] Camillieri. D. Micellar/Polymer Flooding Experimerits and Comparisons With an Improved I-DSimulator. M. S. Thesis, Univ. of Texas-Austin, May 1983.
[80] Datta, Gupta A. Three-Dimensional Simulation of Chemical Flooding. M. S. Thesis. Univ. of Texas-Austin, May 1985.
[81] Meter, D. M. and R. B. Bird. Tube Flow of Non-Newtonian Polymer Solutions: Part 1 Laminar Flow and Rheological Models. AICHE J., V. 10. No 6, Nov. 1984, p1143-1150.
[82] Gao, h. w., p. b. Lorenz, and S. Brock. Viselastic Behavior of Hydrolyzed Polyacrylamide Solutions in Porou~ Mesia. Poly. Mater. Sci. Engr., Prol. of the ACS Div. of Polymeric Materials; Sci. and Engr.,, v. 55, Fall Mtg., Anaheim, 1986,p685-693.
[83] Wang, B. Development of a 2-D Large-Scale Micellar/Polymer Simulator. Ph. D. Dissertation. Univ. of Texas-Austin, 1981.
[84] Terry, R. E., C. Huang, D. W. Green, M. J. Michnicr, and G. P. Willhite. Correlation of Gelation Times for Polymer Solutions Used as Sweep Improvement Agents. Soc. Pet. Eng J., Apr 1981.p229-235.
[85] Jennings, R. R., J. H. Rogers, and T. J. West. Factors Influencing Mobility Control by Polymer Solutions. J. Pet. Tech., Mar. 1971,p391-401.
[86] Dawson, R. and R. B. Lantz. Inaccessible Pore Volume in Polymer Flooding. Soc. Pet. Eng. J., Oct. 1972.p448-452.
[87] Willhite, G. P. and J. G. Dominguez. Mechanisms of Polymer Retention in Porous Media. I Improved Oil Recovery by Surfactant and Polymer Flooding, U. O. Shah and R. S. Schechter, eds., Academic Pres, Inc,. New York, 1977.p511.
[88] Liauh. W. C.. J. L. Duda, and E. E. Klaus. An Investigation of the Inaccessible Pore Volume Phenomena. Interfacial Phcnomena in Enhanced Oil Recovery, AICHE Syrup. Series, 1982,v.78,No.212,p70-76.
[89] Ames, W, F. Numerical Methods for Partial Differential Equations. 2nd Ebition, Academic Press,Inc.,New York, 1977.
[90] Carnahan, B., H. A. Luther, and J, O, Wilkins. Applied Numerical Methods. John WILEY & Sons, Inc., New York, 1969.
[91] Hong W. Gao and Ming M. Chang. A Three-Phase Simulator for Permeability Modification. U. S. Dept. of Energy Report No. NIPER-338, in press.
[92] Fanchi, Joh R. and Fred W. Burtch. CHEM20: A Two-Dimensional. Three-Phase, Nine-Component Chemical Flood Simulator. Volume Ⅰ: CHEM2D Technical Description and FORTRAN Code. u. s. Dept. of Energy Report No. DOE/BC/10033-9,v. 1. Feb. 1984.
[93] Naiki, M. A Numerical Investigation of Polymer Flooding Including the Effects of Salinity. Ph. D. dissertation, Univ. of Texas, Austin, 1981.
[94] Fanchi, J. R., K. J. Harpole. S. W. Bujnowski, and H. B. Carroll, Jr. BOAST: A Three-Dimesionalln, Three-Phase black Oil Applied Simulation Tool(Version 1.1.).Volume Ⅱ: Program User'Manual, U. S. Dept. of Energy Report No.DOE/BC/10033-3,V.2.Sept. 1982.
[95] Jones, R. S.. G. A. Pope. H. J. Ford. and L. W. Lake. A Predictive Model for water and Polymer Flooding. Pres. at SPE/DOE Ffourth Symposium on Enhanced Oil Recovery, Tulsa, Apr.p15-18, 1984.SPE/DOE paper 12653.
[96] Manning, R. K., G. A. Pope. L. W. Lake, G. W. Paul and T. C. Wesson. A Techi nicl Survey of Polymer Flooding Projects. U. S. Dept. of. Energy Report No.DOE/BC/10327-19,Sept.1983
[97] Clampitt, R. L. and. J. E. Hessert. Methods for Controlling Formation Permeability. U. S. Patent No.3, 785,437, Jan.15,1974.
[98] Call, J. W. Subterranean Formation Permeability Correction. U. S. Patent No.3,762,476.Oct2,1973
[99] Gogarty, W. B., "Enhanced Oil Recovery Through the Use of Chemicals-Part 2", JPT(October 1993)p1761-1775
[100] Sorbie, K. S.. Parker. A.. and Clifford, P. J., "Experimental and Theoretical Study of Polymer Flow in Porous Media, "SPE Reservoir Eng.(August 1987)p281-304.
[101] Chauveteau. G., and Lecourtier, J.," Propagation of PolymerSlugs Through A dsorbent Porous Media", Paper presented at 1985 ACS Anhnual Meeting, Anaheim, CA, Aprilpl 6-18
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