辽河坳陷变质岩基岩地震技术储层评价研究
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摘要
本次研究针对目前辽河坳陷中央凸起南部勘探中存在的基岩内幕裂缝预测和描述的技术难题,运用三维地震资料进行精细构造解释、地震属性分析、烃类检测和地震叠前反演预测方法,刻画目标区的储层分布规律,为进一步勘探部署提供建议,并指出地震技术对变质岩基岩地质研究的适用性。通过该项目的研究取得了以下主要成果:
     1、提出了在储层段内地震频谱连续衰减变化检测油气的新方法
     沿储层段分析地震频谱的衰减变化来识别油气层的方法,考虑了储层在一段深度范围内对地震波能量的连续吸收作用,有利于对储层段内地震频谱变化做整体趋势的判断。过井地震道时频分布图的频谱衰减与试油的含油气结论取得了较为一致的结果。频谱衰减分析方法可作为勘探部署的重要参考依据。
     2、研究了适用于本地区裂缝预测的地震属性,指出主要裂缝发育区域
     太古界裂缝带及内幕断层在沿大洼断层一带最为发育,在南部赵古3附近发育程度次之,其他地区也有零星发育。相干体、蚂蚁体、曲率体属性对裂缝带和断层反映敏感,主成分分析结果较好地刻画裂缝带及内幕断层的发育特征。
     3、提出了基岩变质岩岩性及裂缝发育与地震响应之间的关系
     太古界角闪岩、煌斑岩与其它岩性接触时易产生地震反射,任何两种岩性的反射系数大于0.012时可观察到地震反射,且岩性界面的横向连续性受噪声影响较大。高角度裂缝带的地震反射与地震资料主频、裂缝带的宽度和高度有关。地震主频越高、裂缝带越宽、越长,裂缝带越容易出现地震反射。
     4、指出了AVO属性和叠前地震反演研究变质岩的局限性
     AVO属性分析检测油气的方法,对本区变质岩基岩地层具有一定的局限性。叠前地震反演的纵波速度体能够在一定程度上区分变质岩岩性。
     5、通过对研究成果的综合分析,提出了下步勘探的重点区域
     近大洼断裂一带北北东向展布的带状区域,油源充足,储层发育,源-储配置关系优越,多口井试油均获工业油流,区内为靠近烃源岩的潜山,断块、断阶型圈闭发育,可作为勘探主攻区域。
The study project mainly focuses upon the technique problems about description andprediction of interior fracture within the base rock in seismic exploration of southern CentralRise in Liaohe Depression. The project takes advantage of different methods, such as structureinterpretation, seismic attribute analysis, hydrocarbon detecting and seismic pre-stackinversion, to characterize reservoir. The result may propose exploration suggestions andseismic technology applicability on metamorphic bedrock. This project has achieved thefollowed results.
     1. Established seismic frequency decay method to detect hydrocarbon.The project detected hydrocarbon by the decay of seismic frequency spectrum along withreservoir. This method considered continues absorbing to seismic energy in a horizon intervalwhich made for judging whole trend of frequency spectrum. Frequency spectrum decay in thetime-frequency map of seismic trace crossed well are consistent with oil test of the well.Frequency spectrum decay may be important evidence to exploration arrangement.
     2. Study seismic attributes apply to fractures prediction and indicated main fracturesdevelopment zone.The fractures development zone are mainly located two sides of Dawa Fault. Zones nearZhaogu3are also developed fractures. Coherence, Ant Cube and Volume Curvature aresensitive to fracture zone and faults. Principle Component Analysis may characterize fracturezone and inner faults.
     3. Established relationship between metamorphic bedrock lithology, fracture zonedevelopment degree with seismic response.Amphibolit and Lamprophyr in Archaeozoic may have apparent seismic reflection while theyconnect with other lithology. The reflectivity of any lithology may have seismic reflectionwhen it is more than0.012. The amplitude continuity are easily affected by seismic noise.Seismic reflections of fracture zones with high angle relate to dominate frequency of seismic,width and height of the fracture zones. The reflection would be more apparent when seismicdomination frequency is high or the fracture zones are width and long.
     4. Indicated the limitation of AVO attributes and pre-stack seismic inversion on metamorphic.The method of AVO attributes for hydrocarbon detecting has limitation for metamorphicbedrock in this area. Pre-stack seismic P-wave inversion has some effect on identify metamorphic lithology.
     5. Proposed key areas of exploration according to comprehensive analysis.The banding zones located two side of Dawa Fault have fully hydrocarbon source anddeveloped reservoir. A few of wells in this area have industrial oil production. The buried hills,fault blocks and fault step traps may be main exploration zones.
引文
[1]孟卫工,李晓光,刘宝鸿.辽河坳陷变质岩古潜山内幕油藏形成主控因素分析[J].石油与天然气地质,2007,28(5):584-589
    [2]谢文彦,孟卫工,张占文,等.辽河坳陷潜山内幕多期裂缝油藏成藏模式[J].石油勘探与开发,2006,33(6):649-652
    [3]刘兴周.辽河坳陷变质岩潜山内幕油气成藏规律初探[J].石油地质与工程,2009,23(1):1-7
    [4]马志宏.辽河坳陷基岩油气藏类型及其特征探讨[J].复杂油气藏,2011,4(1):19-21
    [5]郭彦民,尤桂彬,林洪利.辽河坳陷潜山深化勘探理论与实践[J].石油钻采工艺,2009:31(1):9-14
    [6]康武江,李理,刘宝.中央凸起南部潜山成藏条件分析及目标评价[R].勘探开发研究院盆地所西南室,2009
    [7]张泽慧.辽河坳陷中央凸起带变质岩潜山储层特征[J].甘肃科技,2009,25(6):31-32
    [8]肖淑蓉,张跃明.辽河盆地基岩潜山油藏裂缝型储层特征[J].中国海上油气(地质),2000,14(2):108-111
    [9] Jinglan Luo, Sadoon Morad, Zhigang Liang. Controls on the quality of Archeanmetamorphic and Jurassic volcanic reservoir rocks from the Xinglongtai buriedhill, western depression of Liaohe basin, China. AAPG Bulletin2005,89(10):1319-1346
    [10]陈琰.柴达木盆地马北油田变质基岩储层描述[D].武汉:中国地质大学,2010
    [11]单俊峰.辽河坳陷变质岩潜山内幕成藏条件研究[D].北京:中国地质大学(北京),2007
    [12]陈昭年.黄骅坳陷千米桥潜山形成演化与油气成藏史[D].北京:中国地质大学,2002
    [13] Galan-abellan, A B. Barrenechea, J F. Benito, etc. PalaeoenvironmentalImplications of Aluminium Phosphate-sulphate Minerals in Early-middle TriassicContinental Sediments, Se iberian Range. Sedimentary Geology,2013,289:169~181
    [14] Al-suwaidi, A S. Elhami Elsaid and M. IBRAHIM. Salt Tectonism Offshore U.A.E.,A Studied Case. Spe Abu Dhabi International Petroleum Conference,2012
    [15] Barbera, G. Critelli and S. Mazzoleni. Petrology and Geochemistry of CretaceousSedimentary Rocks of The Monte Soro Unit (Sicily, Italy): Constraints onWeathering, Diagenesis, and Provenance. The Journal of Geology,2011,119(1):51-68
    [16] Kojima, S. Tsukada, K. Otoh, S. Yamakita, etc. Geological Relationship BetweenAnyui Metamorphic Complex and Samarka Terrane, Far East Russia. Island Arc,2008,17(4):502-516
    [17] Fainstein, R. Ueipass Mahriak. Continental Margins of The Equatorial SouthAtlantic. Annual AAPG Convention Abstracts,2013
    [18] Salomo, J. Early Aptian to Late Eocene Paleogeography of The Orange Basin andIts Implications for Facies Distribution, Offshore South Africa AAPGInternational Conference Abstracts,2012
    [19] Pendkar, N. Mokhtar and P N B. Juni, etc. Understanding and Defining TheMetasedimentary Basement in Malay Basin, Offshore PeninsulaR Malaysia. AAPGInternational Conference Abstracts,2012
    [20]陈曼云,金巍,郑常青.包含变质岩分类三要素的主要变质岩分类表[J].岩石学报,2009,25(8):1749-1752
    [21]金文山.变质岩分类和命名[J].国外前寒武纪地质,1993,3:18-33
    [22]伍友佳,刘达林.中国变质岩火山岩油气藏类型及特征[J].西南石油学院学报,2004,26(4):1-4
    [23] Jane Selverstone and David S. Gutzler: Post-125Ma carbon storage associatedwith continent-continent collision. Geology,1993,21(10):885~888
    [24] Xu Shutong, A.I.Okay and Ji Shouyuan: Diamond from the Dabie Shan MetamorphicRocks and Its Implication for Tectonic Setting. Science,1992,256(3):80~82
    [25] Tong, K. Zhao, C and Lu, Z, etc. Reservoir Evaluation and FractureCharacterization of The Metamorphic Buried Hill Reservoir in Bohai Bay Basin.Petroleum Exploration and Development,2012,39(1):62-69
    [26]徐萍,郭秀文,贾洪涛.变质岩潜山油藏纵向非均质性研究[J].特种油气藏,2011,18(4):63-65
    [27] Ruger A. Variation of P-wave reflectivity with offset and azimuth in anisotropicmedia [J]. Geophysics,1998,63(3):953~947
    [28] Xiang-Yang Li. Fracture detection using azimuthal variation of P-wave moveoutfrom orthogonal seismic survey lines [J]. Geophysical prospecting for petroleum,2002,41(3):253~258
    [29] Thomsen L. Converted-wave reflection seismology over inhomogeneous anisotropicmedia [J]. Geophysics,1999,64(3):678~690
    [30] Ruger A. Tsvankin I. Using AVO for fracture detection: analytic basis andpractical solution [J]. The Leading Edge,1997,16(10):1429~1434
    [31] Fritz D A and Belsher T W. New exploration concept for the Edwards and Sligomargins of cretaceous of onshore Texas [J]. AAPG Bulletion,2000,84(7):905~922
    [32] Fernando A Neves, Mohammad S Zahrani and Stephen W. Bremkamp. Detection ofpotential fracture and small faults using seismic attributes [J]. The LeadingEdge,2004,23(9):903~906
    [33] Beretta M M, Bernasconi G and Drufuca G. AVO and AVA inversion for fracturedreservoir characterization [J]. Geophysics,2002,67(1):300~306
    [34] Ruger. Reflection coefficients and azimuthal: AVO analysis in Anisotropic Mediadoctoral dissertation. Colorado School of Mines,1996
    [35] Lee Hunt, Scott Reynolds, Tyson Brown. Quantitative estimate of fracturedensity variations in the Nordegg with azimuthal AVO and curvature: A case study[J]. The Leading Edge,2010,9:1121~1136
    [36] David Gray and Kim Head. Fracture detection in Manderson Field: A3-D AVAZ casehistory [J]. The Leading Edge,2000,11:1214~1221
    [37]张广智,郑静静,印兴耀.基于Curvelet变换的多尺度性识别裂缝发育带[J].石油地球物理勘探,2011,46(5):757~762
    [38]周新桂,操成杰,袁嘉音.储层构造裂缝定量预测与油气渗流规律研究现状和进展[J].地球科学进展,2003,18(3):398~404
    [39]宋惠珍,贾承造,欧阳健等.裂缝性储集层研究理论与方法:塔里木盆地碳酸盐岩储集层裂缝预测[M],北京:石油工业出版社,2001
    [40]胡明,秦启荣,李昌全.贵州赤水地区构造特征及与裂缝发育关系研究[J].西南石油学院学报,2006,28(1):13~17
    [41]张昕,郑晓东.裂缝发育带地震识别预测技术研究进展[J].石油地球物理勘探,2005,40(6):724~730
    [42] Smith, D A. Hild, J. Pfeiffer, J. Drakos, P. Pitfalls and Considerations:Seismic Surveys in Igneous and Metamorphic Environments for Geothermal andMineral Resources. Annual AAPG Conference: Directing The Future of E&P:Starring Creative Ideas and New Technology Abstracts,2012
    [43] Tian, L. Ming, J. and Zhang, P. Application of Narrow Azimuth Seismic Data inMetamorphic Fractured Reservoir Prediction.80TH Annual SEG InternationalMeeting Technical Program,2010
    [44] MEZA, O E. PERALTA, V. NUNEZ, E. Influence of Stress Field in The Productivityof Naturally Fractured Reservoirs in Metamorphic Basement: A Case Study of TheSan Pedro Field, Amotape Group. SPE Latin American and Caribbean PetroleumEngineering Conference,2010
    [45] DU, J. LI, J. GUO, P. etc. Study of EOR by Gas Injection in Buried Hill ReservoirsConsisting of Fractured Metamorphic Rocks. Petroleum Geology&Experiment,2010,32(5):509-512
    [46] Velez, E. Vasquez, J. FRYDMAN, M, etc. Novel Approach for FractureCharacterization in a Metamorphic Reservoir. SPE Latin American and CaribbeanPetroleum Engineering Conference,2010
    [47] Martinez, J M. Schmitt, D R. Kofman, R. Anisotropy Measurements in a Multi-facedCore Sample by Using Pulse Transmission Method. CSPG CSEG CWLS Joint AnnualConvention,2012
    [48] Kuchuk, F. Biryukov, D. Transient Pressure Test Interpretation for Continuouslyand Discretely Fractured Reservoirs. Annual SPE Technical Conference,2012
    [49]李威.碳酸盐岩裂缝型储层地震预测技术研究[D].北京:中国地质大学(北京),2010,40(6):724~730
    [50]杨晓,王真理,喻岳钰.裂缝型储层地震检测方法综述[J].地球科学进展,2010,25(5):1785~1794
    [51] Oleg V. Poliannikov, Alison E. Malcolm and Hugues djikpesse. Interferometrichydrofracture microseism localization using neighboring fracture [J].Geophysics,2011,6:WC27~WC36
    [52]喻岳饪,杨长春,王彦飞等.瞬时频域衰减属性及其在碳酸盐岩裂缝检测中的应用[J].地球物理学进展,2009,24(5):1717~1722
    [53]毕研斌,龙胜祥,郭彤楼等.地震方位各向异性技术在TNB地区嘉二段储层裂缝检测中的应用[J].石油地球物理勘探,2009,44(5):190~195
    [54]刘朋波,蒲仁海,潘仁芳等.多方位AVO技术在裂缝检测中的应用[J].石油地球物理勘探,2008,43(4):437~442
    [55]张军华,朱焕,郑旭刚等.宽方位角地震勘探技术评述[J].石油地球物理勘探,2007,42(5):603~610
    [56]马在田.走向21世纪的实用地震学[J].地球物理学报,1995,38(4):539~547
    [57] Ruger A. Variation of P-wave reflectivity with offset and azimuth in anisotropicmedia [J]. Geophysics,1998,63(3):953~947
    [58] Mu Luo, Brian J.Evans. An Amplitude-based multiazimuth approach to mappingfractures using P-wave3D seismic data[J]. Geophysics,2004,69(3):690~698
    [59]韩文功,沈财余.陆相断陷盆地复杂地质模型建立与正演模拟.石油地球物理勘探,2006,41(4):396~401
    [60]闵小刚,顾汉明,朱定.塔河油田孔洞模型的波动方程正演模型.勘探地球物理进展,2006:29(3):187~191
    [61]黄绪宝,顾汉明.塔河油田南部缝洞储层的正演模拟及地震波场特征.石油与天然气地质,2007:28(6):836~840
    [62]白杰.射线追踪正演模拟及应用.北京:中国地质大学(北京),2007
    [63] B.C. Papazachos, E.M. Scordilis and C.B. Papazachos et al. A forward test ofthe precursory decelerating and accelerating seismicity model for California.Journal of Seismology (2006)10:213~224
    [64] Wang Zi-hong, Liu Bao-hong, Kang Wu-jiang, et al. Seismic forward modeling inthe metamorphic buried hills in Liaohe Depression[J]. JDCTA: InternationalJournal of Digital Content Technology and its Applications,2013,7(5):69-75
    [65] Sloan Steven D., Nolan Jeffery J., Broadfoot Seth W. Using near-surface seismicrefraction tomography and multichannel analysis of surface waves to detectshallow tunnels: A feasibility study[J]. JOURNAL OF APPLIED GEOPHYSICS,2013,99(S1):60-65
    [66] Tang Daqing, Chen Honghan, Jiang Tao,et al. Neogene differential structuralinversion and hydrocarbon accumulation in the Yitong Basin, NE China[J].PETROLEUM EXPLORATION AND DEVELOPMENT,2013,40(6):731-741
    [67] Salehi Ehsan, Javaherian Abdolrahim, Pour Majid Ataee, et al. Quantitativeseismic pre-stack analysis of potential gas-hydrate resources in the MakranAccretionary Prism, offshore Iran[J]. MARINE AND PETROLEUM GEOLOGY,2013,48:160-170
    [68] Morgan Joanna, Warner Michael, Bell Rebecca, et al. Next-generation seismicexperiments: wide-angle, multi-azimuth, three-dimensional, full-waveforminversion[J]. GEOPHYSICAL JOURNAL INTERNATIONAL,2013,195(3):1657-1678
    [69] Prudencio Janire, Ibanez Jesus M., Garcia-Yeguas Araceli, et al. Spatialdistribution of intrinsic and scattering seismic attenuation in active volcanicislands-II: Deception Island images[J]. GEOPHYSICAL JOURNAL INTERNATIONAL,2013,195(3):1957-1969
    [70] Ahmadi Amin Baharvand, Morozov Igor. Anisotropic frequency-dependent spreadingof seismic waves from first-arrival vertical seismic profile data analysis[J].GEOPHYSICS,2013,78(6): C41-C52
    [71] Silvestrov Ilya, Neklyudov Dmitry, Kostov Clement, et al. Full-waveforminversion for macro velocity model reconstruction in look-ahead offset verticalseismic profile: numerical singular value decomposition-based analysis[J].GEOPHYSICAL PROSPECTING,2013,61(6):1099-1113
    [72] Butzer S., Kurzmann A., Bohlen T.3D elastic full-waveform inversion ofsmall-scale heterogeneities in transmission geometry[J]. GEOPHYSICALPROSPECTING,2013,61(6):1238-1251
    [73] Kazei V. V., Troyan V. N., Kashtan B. M. On the role of reflections, refractionsand diving waves in full-waveform inversion[J]. GEOPHYSICAL PROSPECTING,2013,61(6):1252-1263
    [74] Badal Jose,Chen Yun, Chourak Mimoun, et al. S-wave velocity images of the DeadSea Basin provided by ambient seismic noise[J]. JOURNAL OF ASIAN EARTH SCIENCES,2013,75:26-35
    [75] Zheng Yikang, Wang Yibo, Chang, Xu. Wave-equation traveltime inversion:Comparison of three numerical optimization methods[J]. COMPUTERS&GEOSCIENCES,2013,60:88-97
    [76] Richardson Joshua P., Waite Gregory P. Waveform inversion of shallow repetitivelong period events at Villarrica Volcano, Chile[J]. JOURNAL OF GEOPHYSICALRESEARCH-SOLID EARTH,2013,118(9):4922-4936
    [77] Behura Jyoti, Snieder Roel. Virtual Real Source: Source signature estimationusing seismic interferometry[J]. GEOPHYSICS,2013,78(5): Q57-Q68
    [78] Perez Daniel O., Velis Danilo R., Sacchi Mauricio D. High-resolution prestackseismic inversion using a hybrid FISTA least-squares strategy[J]. GEOPHYSICS,2013,78(5): R185-R195
    [79] Prieux Vincent, Brossier Romain, Operto Stephane, et al. Multiparameter fullwaveform inversion of multicomponent ocean-bottom-cable data from the Valhallfield. Part2: imaging compressive-wave and shear-wave velocities[J].GEOPHYSICAL JOURNAL INTERNATIONAL,2013,194(3):1665-1681
    [80] Conti Cassio Rodrigo, Roisenberg Mauro, Schwedersky Neto Guenther, et al. FastSeismic Inversion Methods Using Ant Colony Optimization Algorithm[J]. IEEEGEOSCIENCE AND REMOTE SENSING LETTERS,2013,10(5):1119-1123
    [81] Bornstein G., Biescas B., Sallares V., et al. Direct temperature and salinityacoustic full waveform inversion[J]. GEOPHYSICAL RESEARCH LETTERS,2013,40(16):4344-4348
    [82] Peng Miao, Tan Han-Dong, Jiang Mei, et al. Three-dimensional joint inversionof magnetotelluric and seismic travel time data with cross-gradientconstraints[J]. CHINESE JOURNAL OF GEOPHYSICS-CHINESE EDITION,2013,56(8):2728-2738
    [83] Cao Danping, Yin Xingyao, Wu Guochen, et al. Impedance joint inversion ofborehole and surface seismic data[J]. JOURNAL OF GEOPHYSICS AND ENGINEERING,2013,10(4)
    [84] Martinez-Garcia P., Comas M., Soto J. I., et al. Strike-slip tectonics and basininversion in the Western Mediterranean: the Post-Messinian evolution of theAlboran Sea[J]. BASIN RESEARCH,2013,25(4):361-387
    [85] Aune Erlend, Eidsvik Jo, Ursin Bjorn. Three-dimensional non-stationary andnon-linear isotropic AVA inversion[J]. GEOPHYSICAL JOURNAL INTERNATIONAL,2013,194(2):787-803
    [86] Kamei R., Pratt R. G. Inversion strategies for visco-acoustic waveforminversion[J]. GEOPHYSICAL JOURNAL INTERNATIONAL,2013,194(2):859-884
    [87]孙夕平,杜世通.相干体技术算法研究及其在地震资料解释中的应用[J].石油大学学报(自然科学版),2003,27(2):32-35
    [88]陈国俊,王纬,张宏.地震相干体软件开发及其应用效果分析[J].工程地球物理学报,2004,1(5):399-403
    [89]张会星,何兵寿,姜效典,等.利用地震波在双相介质中的衰减特性检测油气[J].石油地球物理勘探,2010,45(3):343–349
    [90] LI Z S. Physical mechanism of seismic attenuation in a two-phase medium[J].Applied Geophysics,2008,5(1):9-17
    [91]刁瑞,李振春,韩文功,等.基于广义S变换的吸收衰减分析技术在油气识别中的应用[J].石油物探,2011,50(3):260–265
    [92]牛聪,刘志斌.基于谱分析的低频阴影检测技术[J].海洋石油,2008,28(2):58–62
    [93]王小品,贺振华,熊晓军.基于子波衰减的低频伴影数值模拟及油气检测[J].大庆石油地质与开发,2011,30(1):157-160
    [94]尚永生,杨长春,王真理,等.柴达木盆地第四系气藏烃类检测研究[J].地球物理学进展,2007,22(3):831–835
    [95]边树涛,董艳蕾,郑浚茂.地震波频谱衰减检测天然气技术应用研究[J].石油地球物理勘探,2007,42(3):296–300
    [96]付勋勋,秦启荣,徐峰,等.基于Wigne-Ville分布和短时傅立叶变换时频分布计算地震波衰减梯度[J].新疆石油地质,2012,33(3):353–356
    [97]谢春临,扈玖战,王金伟,等.松辽盆地敖南地区浅层气的AVO响应和识别[J].大庆石油地质与开发,2011,30(2):158-162
    [98]李燕,孟宪军,刘浩杰.储层频域特征参数提取及地质应用[J].油气地质与采收率,2010,17(2):64-66
    [99]王子洪,苏惠,曾探,等.东濮凹陷柳屯环洼深层油气藏成藏条件分析[J].天然气工业,2004,24(6):15-17
    [100]杨辉廷,敬兵,陈培元,等.弹性波阻抗反演在碳酸盐岩流体检测中的应用[J].大庆石油地质与开发,2012,31(5):163-165
    [101] Michael Dean Burnett, John Patrick Castagna. Application of spectraldecomposition to gas basins in Mexico[J]. The Leading Edge,2003,11:1130-1134
    [102] John P. Castagna and Shengjie Sun. Instantaneous spectral analysis: Detectionof low-frequency shadows associated with hydrocarbons[J]. The Leading Edge,2003,2:120-127
    [103] Greg Partyka, James Gridley, John Lopez. Interpretational applications ofspectral decomposition in reservoir characterization[J]. The Leading Edge,1999,3:353-360
    [104] Brian Henderson Russell. The application of multivariate statistics and neuralnetworks to the prediction of reservoir parameters using seismic attributes[D].Alberta:University of Calgary,2004
    [105] Li Jinghe, He Zhanxiang, Liu Qing Huo. Higher-order statistics correlationstacking for DC electrical data in the wavelet domain[J]. JOURNAL OF APPLIEDGEOPHYSICS,2013,99(S1):51-59
    [106]冯凯,查朝阳,钟德盈.反演技术和频谱成像技术在储层预测中的综合应用[J].石油物探,2006,45(3):262-266

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