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Evaluating Electrical Anisotropy Parameters in Miocene Formations in the Cierpisz Deposit

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Wybrane pełne teksty z tego czasopisma
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Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
The electrical anisotropy of rocks is generally an effect of alternating layers of thin-bedded sandstones and shales with clear lamination. Thin-bedded rock sequences can be treated as an anisotropic medium described by two resistivities: horizontally to the bedding RH and vertically to the bedding RV. Such sequences have fairly low resistivity and, as a result of poor vertical resolution of conventional electric tools, one can sometimes fail to distinguish them from the adjoining shales. This paper presents the possibility of calculating the anisotropy parameters based on resistivity logs recorded with a laterolog tool (DLL) and an induction tool HRAI. We have also performed an analysis of the ambiguity of the results and attempts to assess the water saturation (SW) generating cross-plots based on calculated resistivities, RH and RV. It is very important to correctly evaluate the resistivity of sandstone interbeds when calculating water saturation (SW) and hydrocarbon saturation (SG), in formulating an integrated quantitative interpretation of anisotropic formations.
Czasopismo
Rocznik
Strony
1296--1315
Opis fizyczny
Bibliogr. 28 poz., rys., tab., wykr.
Twórcy
autor
  • AGH University of Science and Technology, Department of Geology, Geophysics and Environmental Protection, Kraków, Poland
autor
  • AGH University of Science and Technology, Department of Geology, Geophysics and Environmental Protection, Kraków, Poland
Bibliografia
  • [1] Anderson, B., and T. Barber (1996), Induction logging, Schlumberger, http://www.hub.slb.com/index.cfm?id=id8880.
  • [2] Anderson, B.I., T.D. Barber, and T.M. Habashy (2002), Interpretation and inversion of fully triaxial induction data, A sensitivity study. In: Proc SPWLA 43th Ann. Logg. Symp., 2-5 June 2002, Oiso, Japan, SPWLA-2002-O.
  • [3] Anderson, B., T. Barber, R. Bastia, K.R. Saxena, A.K. Tyagi, J.-B. Clavaud, B. Coffin, M. Das, R. Hayden, T. Klimentos, C.C. Minh, and S. Williams (2008), Triaxial induction - A new angle for an old measurement, Oilfield Rev.: Summer 20, 2, 64-84.
  • [4] Bała, M. (2009), Study of the effects of anisotropy and shaliness on velocities of longitudinal and shear waves and other elastic parameters of clastic rocks, Geologia 35, 2/1, 559-566 (in Polish, abstract in English).
  • [5] Bała, M. (2011), Evaluation of electric parameters of anisotropic sandy-shaly miocene formations on the basis of resistivity logs, Acta Geophys. 59, 5, 954-966, DOI: 10.2478/s11600-011-0033-1.
  • [6] Bittar, M.S., and P.F. Rodney (1994), The effects of rock anisotropy on MWD electromagnetic wave resistivity sensors. In: Proc. SPWLA 35th Ann. Logg. Symp., 19-22 June 1994, Tulsa, USA, SPWLA-1994-PP.
  • [7] C-3 Well (2004), Final documentation of C-3 well, Geofizyka, Kraków.
  • [8] Chemali, R., S.C. Gianzero, and S.M. Su (1987), The effect of shale anisotropy on focused resistivity devices. In: Proc. SPWLA 28th Ann. Logg. Symp., 29 June - 2 July 1987, London, England, SPWLA-1987-H.
  • [9] Dachnov, W.N. (1967), Electric and Magnetic Methods of Logging. Fundament of Theory, Nedra, Moskwa (in Russian).
  • [10] Faivre, O., T. Barber, L. Jammes, and D. Vuhoang (2002), Using array induction and array laterolog data to characterize resistivity anisotropy in vertical wells. In: Proc. SPWLA 43th Ann. Logg. Symp., 2-5 June 2002, Oiso, Japan, SPWLA-2002-M.
  • [11] Ferraris, P., M.R. Coutinho, A.A.G. Meira, and T. Adams (2007), Campos basin anisotropic turbidities formation evaluation: challenges and proposed solutions. In: Proc. SPWLA 48th Ann. Logg. Symp., 3-6 June 2007, Austin, USA, SPWLA-2007-QQ.
  • [12] Hagiwara, T. (1996), A new method to determine horizontal-resistivity in anisotropic formations without prior knowledge of relative dip. In: Proc. SPWLA 37th Ann. Logg. Symp., 16-19 June 1996, New Orleans, USA, SPWLA-1996-Q.
  • [13] Karnkowski, P. (1999), Oil and Gas Deposits in Poland, Geosynoptics Society „GEOS”, Kraków, 380 pp.
  • [14] Klein, J.D. (1993), Induction log anisotropy corrections, The Log Analyst 34, 2, 18-27.
  • [15] Klein, J.D., P.R. Martin, and D.F. Allen (1995), The petrophysics of electrically anisotropic reservoirs. In: Proc SPWLA 36th Ann. Logg. Symp., 26-29 June 1995, Paris, France, SPWLA-1995-HH.
  • [16] Kunz, K.S., and J.H. Moran (1958), Some effects of formation anisotropy on resistivity measurements in boreholes, Geophysics 23, 4, 770-794, DOI: 10.1190/1.1438527.
  • [17] Minh, C.C., J.B. Clavaud, P. Sundararaman, S. Froment, E. Caroli, O. Billon, G. Davis, and R. Fairbairn (2007), Graphical analysis of laminated sandshale formations in the presence of anisotropic shales. In: Proc. SPWLA 48th Ann. Logg. Symp., 3-6 June 2007, Austin, USA, SPWLA-2007-MM.
  • [18] Mollison, R.A., O.N. Fannini, B.F. Kriegshauser, L. Yu, G. Ugueto, and J. van Popta (2001), Impact of multicomponent induction technology on a deepwater turbidite sand hydrocarbon saturation evaluation. In: Proc. SPWLA 42th Ann. Logg. Symp., 17-20 June 2001, Houston, USA, SPWLA-2001-T.
  • [19] Moran, J.H., and S. Gianzero (1979), Effects of formation anisotropy on resistivitylogging measurements, Geophysics 44, 7, 1266-1286, DOI: 10.1190/1.1441006.
  • [20] Myśliwiec, M. (2004), The Miocene reservoir rocks of the Carpathian Foredeep, Geol. Rev. 52, 7, 581-592 (in Polish, abstract in English).
  • [21] Quirein, J., B. Donderici, D. Torres, E. Murphy, and J. Witkowsky (2012), Evaluation of general resistivity density-based saturation in thin, laminated sand shale sequences. In: AAPG Int. Conf. Exhib. “Asia Pacific Resources: Fueling the Future”, 16-19 September 2012, Singapore.
  • [22] Rosthal, R., T. Barber, S. Bonner, K.-Ch. Chen, S. Davydycheva, G. Hazen, D. Homan, C. Kibbe, R. Schlein, L. Villegas, H. Wang, and F. Zhou (2003), Field test results of an experimental fully-triaxial induction tool. In: Proc. SPWLA 44th Ann. Logg. Symp., 22-25 June 2003, Galveston, USA, SPWLA-2003-QQ.
  • [23] Syrek-Moryc, C. (2006), The deposit of natural gas Cierpisz as an important point in the issues concerning the future search in the thin strata of Miocene deposits of the Carpathian Foredeep and potential natural gas resources connected with the deposits, Prace Inst. Nafty i Gazu 137, 223-230 (in Polish, abstract in English).
  • [24] Tabanou, J.R., P. Cheung ,Ch.B. Liu, S. Hansen, J. Lavigne, T. Pickens, T. Borbas, and B. Wendt (2002), Thinly laminated reservoir evaluation in oil-base mud: High resolution versus bulk anisotropy measurement - A comprehensive evaluation. In: Proc. SPWLA 43rd Ann. Logg. Symp., 2-5 June 2002, Oiso, Japan, SPWLA-2002-P.
  • [25] Yang, W. (2001), Determining resistivity anisotropy by joint lateral and induction logs. In: Proc. SPWLA 42nd Ann. Logg. Symp., 17-20 June 2001, Houston, USA, SPWLA-2001-CC.
  • [26] Yin, H. (2000), Limitations and error inherent in resistivity log inverse modeling for formation evaluation. In: SEG 70th Ann. Int. Meeting Exp. Abstr., 6-11 August 2000, Calgary, Canada, SEG-2000-1798, 1798-1801.
  • [27] Yin, H., and B. Kurniawan (2008), Resistivity anisotropy models and multicomponent induction measurements: Impact on Sw and uncertainty on Hpv estimation. In: Proc. SPWLA 48th Ann. Logg. Symp., 25-28 May 2008, Austin, USA, SPWLA-2008-LLLL.
  • [28] Zajkowskij, I.J., D.E. Kowalenko, and A.E. Kulinkowich (1965), Opriedelenie parametrow anizotropowego plasta po kriwym Bokowogo Karotażnogo Zondirowania (BKZ), Prikl. Geofiz. 46, 213-216 (in Russian).
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-eb9280c3-1e83-43d5-b184-ddc5c4281819
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