Abstract
The fault-karst carbonate reservoirs in Tarim Basin have previously been determined to have promising prospects for exploration and development. Large karst caves are the main storage space and flow channel, which are separated from one another, yet connected by fractures. During the drilling processes, when large karst caves are encountered, drilling break and mud leakage often occur. Such occurrences make it impractical to carry out normal logging operations or determine the depths of the reservoirs. Therefore, in order to address the difficulties in determining the reservoir depths during the development fault-karst reservoirs, this study presented a method by which to accurately predict reservoir depths by means of combining the relationships between the flow temperatures and rest temperatures within the well structures. A mathematical model describing the heat transfer was established for the purpose of obtaining the temperature distributions of the fluid within the karst caves and wellbores during stable oil production, and the model was verified using numerical simulations. In addition, a temperature distribution method was applied to the temperature predictions of wells in Shunbei Block of Tarim Basin, and the reservoir depths were predicted at the same time. Then, the research results were compared with the seismic section of the fault-karst. It was found that good application effects and consistency had been achieved.
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References
Aziz K, Fontanilla JP (1982) Prediction of bottom-hole conditions for wet steam injection wells. J Can Pet Technol 21(2):82
Bao D, Zhang HT (2017) Description of the separation in fault karst carbonate reservoirs in Tahe oilfield. Xinjiang Oil & Gas 13(1):25–30
Bense VF, Read T, Bour O, Le Borgne T, Coleman T, Krause S, Chalari A, Mondanos M, Ciocca F, Selker JS (2016) Distributed temperature sensing as a down-hole tool in hydrogeology. Water Resour Res 52(12):9259–9273
Chang SY, Zhuang XJ, Deng XL, Yang XJ, Zhao ZY (2017) Fault-karst carbonate reservoir prediction: a case study in Ordovician buried hills. HLHT Oilfield. Oil Geophys Prospec 52(S1):199–206+13–14
Cheng G (2013) Research of temperature characteristics in carbonate reservoirs and temperature logging data applications. Jilin university
Carslaw HS, Jaeger JC (1959) Conduction of heat in soilds. Math Gaz 15(11):74–76
Guillaume M., Florent B., José A. C., Antoine T, Hermann Z, Alexandra M, Renald MC (2018) High-resolution wellbore temperature logging combined with a borehole-scale heat budget: conceptual and analytical approaches to characterize hydraulically active fractures and groundwater origin Geofluids Article ID 9461214
Hu Ch (2013) Numerical simulation on CO2 injection wellbore heat transfer during geological sequestration Dalian University of Technology
Hu XC, Jonathan B, Wu LP, Liu WV (2020) Numerical modeling of a coaxial borehole heat exchanger to exploit geothermal energy from abandoned petroleum wells in Hinton. Alberta Renew Energy 148:1110–1123
Huang Sh B (2014) Heat transfer theory Dongying: China university of petroleum press
Jiao FZH (2019) Practice and knowledge of volumetric development of deep fractured-vuggy carbonate reservoirs in Tarim Basin. NW China Petrol Explor Dev 46(3):552–558
Jiao FZH (2018) Significance and prospect of ultra-deep carbonate fault-karst reservoirs in Shunbei area,Tarim Basin. Oil Gas Geol 39(02):207–216
Klepikova M, Le Borgne T, Bour O, Gallagher K, Hochreutener R, Lavenant N (2014) Passive temperature tomography experiments to characterize transmissivity and connectivity of preferential flow paths in fractured media. J Hydrol 512:549–562
Klepikova M, Brixel B, Jalali R (2020) Transient hydraulic tomography approach to characterize main flowpaths and their connectivity in fractured media. Adv Water Resour 136(2020):103500
Li Y, Hou JG, Li YQ (2016) Features and hierarchical modeling of carbonate fracture-cavity reservoirs. Pet Explor Dev 43(04):600–606
Li Y, Kang Zh J, Xue Zh J, Zhang SQ (2018) Theories and practices of carbonate reservoirs development in China. Pet Explor Dev 45(4):669–678
Liao XW, Feng JL (2005) Pressure-temperature coupling calculation of transient wellbore heat transfer in deep geopressured gas reservoir. Pet Explor Dev 32(1):67269
Lu XB, Hu WG, Wang Y, Li XH, Li T, Lyu Y, He X, Yang D (2015) Characteristics and development practice of fault-karst carbonate reservoirs in Tahe area, Tarim Basin. Oil Gas Geol 36(03):347–355
Lu XB, Wang Y, Tian F, Li XH, Yang DB, Li T, Lv Y, He X (2017) New insights into the carbonate karstic fault system and reservoir formation in the Southern Tahe area of the Tarim Basin. Mar Pet Geol 86:587–605
Lu XB, Yang M, Wang Y, Bao D, Cao F, Yang DB (2018) Geological characteristics of “strata-bound” and “fault-controlled” reservoirs in the northern Tarim Basin: taking the Ordovician reservoirs in the Tahe oil field as an example. Pet Geol Exp 40(04):461–469
Liu Y, Hou J, Li Y, Dong Y, Ma X, Wang X (2018) Characterization of architectural elements of ordovician fractured-cavernous carbonate reservoirs, Tahe oilfield. China J Geol Soc India 91:315–322
Kang ZHJ, Di Y, Cui SHY (2017) Numerical simulation technology and its application for paleokarst carbonate reservoirs. China university of petroleum press, Dongying
Pan BZH, Li D, Chen G, Wang QC, Ma LX, Liu SH (2014) Numerical simulation of wellbore and formation temperature fields in carbonate formations during drilling and shut-in in the presence of lost circulation. Pet Sci 11:293–299
Ramey HJ Jr (1962) Wellbore heat transmission. J Petrol 14(04):427–435
Read T, Bour O, Bense V, Le Borgne T, Klepikova MV, Hochreutener R, Lavenant N, Boschero V (2013) Characterizing groundwater flow and heat transport in fractured rock using fiber-optic distributed temperature sensing. Geophys Res Lett 40(10):2055–2059
Shiu KC, Beggs H (1980) Predicting temperatures in flowing oil Wells. J Energy Res Technol 102(1):2–11
Tian F, Lu X, Zheng S, Zhang H, Rong Y, Yang D, Liu N (2017) Structure and filling characteristics of paleokarst reservoirs in the northern Tarim basin, revealed by outcrop, core and borehole images. Open Geosci 2017(9):266–280
Tian F, Di Q, Jin Q, Cheng F, Zhang W, Lin L, Wang Y, Yang D, Niu C, Li Y (2019) Multiscale geological-geophysical characterization of the epigenic origin and deeply buried paleokarst system in Tahe oilfield. Tarim Basin Mar Pet Geol 102:16–32
Wang L, Peng X, Cao Y, Jiang BY, Pan P (2015) The prediction of wellbore fluid temperature distribution of geothermal production well. China Mining Magazine 24(S1):376–380
Wang Z, Wen H, Deng GX, Ding W, Wang X (2019) Fault-karst characterization technology in the Tahe oilfield, China. Geophys Prospect Petrol 58(1):149–154
Willhite GP (1967) Over-all heat transfer coefficients in steam and hot water injection wells. J Pet Technol 19(5):607–615
Yue P, Xie ZW, Liu HH, Chen XF, Guo Z (2018) Application of water injection curves for the dynamic analysis of fractured-vuggy carbonate reservoirs. J Pet Sci Eng 169:220–229
Zhang BM (2009) Classification and characteristics of karst reservoirs in China and related theories. Pet Explor Dev 36(01):12–29
Zhang RD (2017) Study on temperature interpretation model in multilayer wells. Southwest Petroleum University
Zheng SQ, Yang M, Kang Zh J, Liu Z, Long X, Liu K, Li X, Zhang S (2019) Controlling factors of remaining oil distribution after water flooding and enhanced oil recovery methods for fracture-cavity reservoirs in Tahe oilfield. Pet Explor Dev 46(4):1–9
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The Project Supported by the National Natural Science Foundation of China (Grant No.2016ZX05053) and the Jilin province science and technology development plan outstanding young talent project (Grant 20190103150JH).
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Lei, J., Pan, B., Guo, Y. et al. The temperature distribution model and its application to reservoir depth prediction in fault-karst carbonate reservoirs. Arab J Geosci 13, 676 (2020). https://doi.org/10.1007/s12517-020-05696-x
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DOI: https://doi.org/10.1007/s12517-020-05696-x