Contribution of sedimentary and diagenetic factors to clastic reservoir quality: Quantitative determination by single factor comparison method
Jin Zhenkui1, Shi Liang2, Yan Wei1, Zhu Xiaoer1, Peng Biao1
1 College of Geosciences,China University of Petroleum(Beijing),Beijing 102249,China; 2 Research Institute of Exploration and Development,Jidong Oilfield Company,PetroChina, Tangshan 063004,Hebei
Abstract Quality of clastic reservoirs refers to permeability and porosity. Factors controlling reservoir quality are mainly sedimentary and diagenetic. Sedimentary factors include grain size,rounding,sorting and content of clay matrix. Diagenetic factors include compaction degree,content of dissolution pores,type and content of cements. The reservoir quality of a sandstone is commonly controlled by many factors,and the key to determine major controlling factors is to find out quantitative contribution of each factor. In this paper,a method to analyze quantitative contribution of sedimentary and diagenetic factors to reservoir quality—the single factor comparison method—is proposed out,and is applied to the sandstone reservoirs in the Dongying Formation of Paleogene in the Bozhong sag. There are two types of sandstones in the Dongying Formation,distributary channel sandstone and mouth bar sandstone of deltaic facies,and their permeability differs greatly. Quantitative contribution rate of each factor to the reservoir quality difference is calculated,and major controlling factor is determined:Contribution rate of clay matrix content is 78.5%,indicating clay matrix content is the major controlling factor;that of grain size is 2.7%,that of sorting coefficient is 1.5%;that of authigenic clay mineral content is 15.9%,that of carbonate cement content is 2.3%,that of dissolution pore content is 1.5%,that of compaction degree is 1.7%. Comprehensive contribution rate of sedimentary factors is the sum of each sedimentary factors contribution rate,i.e., 82.7%;comprehensive contribution rate of diagenetic factors is the sum of each diagenetic factor’s contribution rate,i.e., 18.4%(the rate of dissolution pore is -1.5% because of its reverse influence). Thus,sedimentary factors are major factors resulting in great difference in permeability between channel sandstone and mouth bar sandstone in this area.
Corresponding Authors:
Shi Liang,born in 1985,is a Ph.D. He is mainly engaged in sedimentology petrology and reservoir geology. E-mail: sh1558661@163.com.
About author: Jin Zhenkui,born in 1963,is a professor and Ph.D. supervisor. He is mainly engaged in sedimentology and reservoir diagenesis. E-mail: jinzhenkui@188.com.About the corresponding author Shi Liang,born in 1985,is a Ph.D. He is mainly engaged in sedimentology petrology and reservoir geology. E-mail: sh1558661@163.com.
Cite this article:
Jin Zhenkui,Shi Liang,Yan Wei et al. Contribution of sedimentary and diagenetic factors to clastic reservoir quality: Quantitative determination by single factor comparison method[J]. JOPC, 2016, 18(4): 535-544.
Jin Zhenkui,Shi Liang,Yan Wei et al. Contribution of sedimentary and diagenetic factors to clastic reservoir quality: Quantitative determination by single factor comparison method[J]. JOPC, 2016, 18(4): 535-544.
1 董月霞,杨赏,陈蕾,王琦,曹中宏. 2014. 渤海湾盆地辫状河三角洲沉积与深部储集层特征:以南堡凹陷南部古近系沙一段为例. 石油勘探与开发,41(4):385-392. [Dong Y X,Yang S,Chen L,Wang Q,Cao Z H. 2014. Braided river delta deposition and deep reservoir characteristics in Bohai Bay Basin:A case study of Paleogene Sha 1 Member in the south area of Nanpu Sag. Petroleum Exploration and Development,41(4):385-392] 2 付晶,吴胜和,罗安湘,张立安,李桢,李继宏. 2013. 鄂尔多斯盆地陇东地区延长组纵向储集层质量差异及主控因素分析. 地学前缘,20(2):98-107. [Fu J,Wu S H,Luo A X,Zhang L A,Li Z,Li J H. 2013. Reservoir quality and its controlling factors of Chang 8 and Chang 6,members in Longdong Area,Ordos Basin. Earth Science Frontiers,20(2):98-107] 3 傅强,夏庆龙,周心怀,王根照,李建平,王清斌. 2010. 渤中凹陷古近系沙河街组相对高孔渗储集层成因分析:以 QHD35-2-1井为例. 中国海上油气,22(4):221-224. [Fu Q,Xia Q L,Zhou X H,Wang G Z,Li J P,Wang Q B. 2010. A genetic analysis of the reservior with relatively higher porosity and permeability in Paleogene Shahejie Formation,Bozhong sag: A case of Well QHD35-2-1. China Offshore Oil and Gas,22(4):221-224] 4 胡作维,李云,黄思静,吕杰,朱邴光. 2012. 砂岩储集层中原生孔隙的破坏与保存机制研究进展. 地球科学进展,27(1):14-25. [Hu Z W,Li Y,Huang S J,Lü J,Zhu B G. 2012. Reviews of the destruction and preservation of primary porosity in the sandstone reservoirs. Advances in Earth Science,27(1):14-25] 5 金振奎,刘春慧. 2008. 黄骅坳陷北大港构造带储集层成岩作用定量研究. 石油勘探与开发,35(5):581-587. [Jin Z K,Liu C H. 2008. Quantitative study on reservoir diagenesis in northern Dagang structural belt,Huanghua depression. Petroleum Exploration and Development,35(5):581-587] 6 金振奎,苏奎,苏妮娜. 2011. 准噶尔盆地腹部侏罗系深部优质储集层成因. 石油学报,32(1):25-31. [Jin Z K,Su K,Su N N. 2011. Origin of Jurassic deep burial high-quality reservoirs in the central Junggar Basin. Acta Petrolei Sinica,32(1):25-31] 7 石良,金振奎,闫伟,李桂仔,田玉昆. 2015b. 异常高压对储集层溶蚀及成岩阶段的影响机理:以渤中凹陷西北次凹为例. 中国矿业大学学报,44(2):262-270. [Shi L,Jin Z K,Yan W,Li G Z,Tian Y K. 2015b. Influence mechanism of abnormal high pressure on reservoir dissolution and diagenetic stage:An example from northwestern Bozhong sag. Journal of China University of Mining & Technology,44(2):262-270] 8 石良,金振奎,闫伟,朱小二,许新明,彭飚. 2015a. 异常高压对储集层压实和胶结作用的影响:以渤海湾盆地渤中凹陷西北次凹为例. 石油勘探与开发,42(3):310-318. [Shi L,Jin Z K,Yan W,Zhu X E,Xu X M,Peng B. 2015a. Influences of overpressure on reservoir compaction and cementation:A case from northwestern subsag,Bozhong sag,Bohai Bay Basin,East China. Petroleum Exploration and Development,42(3):310-318] 9 谢润成,周文,晏宁平,宁荣彩,赵安坤,王辛. 2010. 致密低渗砂岩储集层质量控制因素研究:以靖边气田盒 8段为例. 石油实验地质,32(2):120-123. [Xie R C,Zhou W,Yan N P,Ning R C,Zhao A K,Wang X. 2010. Study on control factors of quality of compact sandstone reservoir:Taking He8 formation of the Jingbian gas field as an example. Petroleum Geology & Experiment,32(2):120-123] 10 王京,赵彦超,刘琨,王家豪. 2006. 鄂尔多斯盆地塔巴庙地区上古生界砂岩储集层 “酸性+碱性”叠加溶蚀作用与储集层质量主控因素. 地球科学,31(2):221-228. [Wang J,Zhao Y C,Liu K,Wang J H. 2006. Superimposing controls of acidic and alkaline dissolutions on sandstone reservoir quality of the Paleozoic Xia Shihezi and Shanxi Formations in Tabamiao Area,Ordos Basin. Earth Science,31(2):221-228] 11 王瑞飞,孙卫. 2009. 储集层沉积—成岩过程中物性演化的主控因素. 矿物学报,29(3):399-404. [Wang R F,Sun W. 2009. Main factors controlling the evolution of physical properties during the process of reservoir sedimentation diagenesis. Acta Mineralogica Sinica,29(3):399-404] 12 严宗毅. 2002. 低雷诺数流理论. 北京:北京大学出版社,462-467. [Yan Z Y. 2002. Low Renold Number Seepage Theory. Beijing:Peking University Press,462-467] 13 杨玉卿,潘福熙,田洪,徐晋,陈力群. 2010. 渤中25-1油田沙河街组低孔低渗储集层特征及分类评价. 现代地质,24(4):685-693. [Yang Y Q,Pan F X,Tian H,Xu J,Chen L Q. 2010. Characteristics and classification and evaluation of low porosity and permeability reservoir in Shahejie formation of BZ25-1 oil field. Geoscience,24(4):685-693] 14 郑占,吴胜和,许长福,岳大力,王伟,张锋. 2010. 克拉玛依油田六区克下组冲积扇岩石相及储集层质量差异. 石油与天然气地质,31(4):463-471. [Zheng Z,Wu S H,Xu C F,Yue D L,Wang W,Zhang F. 2010. Lithofacies and reservoirs of alluvial fan in the Lower Keramay Formation in the block-6 of Karamay oilfield,the Junggar Basin. Oil & Gas Geology,31(4):463-471] 15 朱红涛,杨香华,周心怀,李建平,王德英,李敏. 2011. 基于层序地层学和地震沉积学的高精度三维沉积体系:以渤中凹陷西斜坡BZ3-1区块东营组为例. 地球科学,36(6):1073-1084. [Zhu H T,Yang X H,Zhou X H,Li J P,Wang D Y,Li M. 2011. High resolution three-dimensional facies architecture delineation using sequence straitigraphy,seismic sedimentology: Example from Dongying Formation in BZ3-1 block of western slope of Bozhong sag,Bohai Bay Basin. Earth Science,36(6):1073-1084] 16 Arnepalli D N,Shanthakumar S,Rao B H,Singh D N. 2008. Comparison of methods for determining specific-surface area of fine-grained soils. Geotechnical and Geological Engineering,26(2):121-132. 17 Blake F C. 1922. The resistance of packing to fluid flow. Transactions of the American Institute of Chemical Engineers,14:415-421. 18 Carman P C. 1937. Fluid flow through granular beds. Transactions-Institution of Chemical Engineeres,15:150-166. 19 Carrier Ⅲ W D. 2003. Goodbye,hazen;hello,kozeny-carman. Journal of Geotechnical and Geoenvironmental Engineering,129(11):1054-1056. 20 Childs E C,Collis-George N. 1950. The permeability of porous materials. Proceedings of the Royal Society of London. Series A. Mathematical and Physical Sciences,201:392-405. 21 Churchman G J,Burke C M. 1991. Properties of sub soils in relation to various measures of surface area and water content. Journal of Soil Science,42(3):463-478. 22 Ehrenberg S N. 1990. Relationship between diagenesis and reservoir quality in sandstones of the Garn Formation,Haltenbanken,Mid-Norwegian Continental Shelf. AAPG Bulletin,74(10):1538-1558. 23 Fair G M,Hatch L P,Hudson H E. 1933. Fundamental factors governing the streamline flow of water through sand[with discussion]. Journal of American Water Works Association,25(11):1551-1565. 24 Jong E. 1999. Comparison of three methods of measuring surface area of soils. Canadian Journal of Soil Science,79(2):345-351. 25 Loudon A G. 1952. The computation of permeability from simple soil tests. Geotechnique,3(4):165-183. 26 Metz V,Raanan H,Pieper H. 2005. Towards the establishment of a reliable proxy for the reactive surface area of smectite. Geochimica et Cosmochimica Acta,69(10):2581-2591. 27 Petersen L W,Moldrup P,Jacobsen O H,Rolston D E. 1996. Relations between specific surface area and soil physical and chemical properties. Soil Science,161(1):9-21. 28 Rossi C,Marfil R,Ramseyer K,Permanyer A. 2001. Facies-related diagenesis and multiphase siderite cementation and dissolution in the reservoir sandstones of the Khatatba Formation,Egypt��s Western Desert. Journal of Sedimentary Research,71(3):459-472. 29 Salem A M. 2005. Diagenesis and reservoir-quality evolution of incised-valley sandstones:Evidence from the Abu Madi gas reservoirs(Upper Miocene),The Nile Delta Basin,Egypt. Journal of Sedimentary Research,75(4):572-584. 30 Salem A M,Morad S,Mato L F,Al-Aasm I S. 2000. Diagenesis and reservoir-quality evolution of fluvial sandstones during progressive burial and uplift:Evidence from the Upper Jurassic Boipeba Member,Reconcavo Basin,Northeastern Brazil. AAPG Bulletin,84(7):1015-1040. 31 Scherer M. 1987. Parameters influencing porosity in sandstones:A model for sandstone porosity prediction. AAPG Bulletin,71(5):485-491. 32 Yukselen Y,Kaya A. 2006. Comparison of methods for determining specific surface area of soils. Journal of Geotechnical and Geoenvironmental Engineering,132(7):931-936.