Temperature Transient Analysis During Boundary Dominated Flow Period
- Yilin Mao (Louisiana State University) | Mehdi Zeidouni (Louisiana State University)
- Document ID
- Society of Petroleum Engineers
- SPE Western Regional Meeting, 22-26 April, Garden Grove, California, USA
- Publication Date
- Document Type
- Conference Paper
- 2018. Society of Petroleum Engineers
- 5.1.5 Geologic Modeling, 5.1 Reservoir Characterisation, 5 Reservoir Desciption & Dynamics
- temperature transient analysis, boundary dominated flow, pseudo-steady state, analytical solution, reservoir characterization
- 5 in the last 30 days
- 154 since 2007
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Temperature transient analysis is emerging as a reservoir characterization and production analysis approach partly due to the progress in the downhole temperature monitoring system. Among different flow regimes encountered during reservoir exploration, the long-lasting boundary dominated flow is a major focus since most of the hydrocarbon is recovered during this period. In this work, we derive a novel temperature transient analytical solution to model arriving temperature signals under boundary dominated flow, which is validated in multiple cases with numerical results. This solution can be incorporated with previous temperature transient analytical solutions to model the temperature signals during the entire life cycle of the production well. Compared to the heating Joule-Thomson effect in the transient period near the production well, a temporal cooling effect is observed throughout the entire volumetric reservoir after pressure transient reaches the reservoir boundary. This finding enables the thermal surveillance from monitoring wells away from the production well during boundary dominated flow. Among all the parameters involved, total compressibility and production drainage area are sensitive to this cooling effect only. From the thermal modeling, we extend existing reservoir characterization procedures to incorporate the boundary dominated flow period. Drainage area can be estimated from the measured temperature signals acquired in both production and monitoring wells. Decent accuracies of the estimations (more than 93%) are achieved from the examples presented in this work. The estimations from the monitoring wells are more accurate (more than 99% accuracy) compared to those from production wells. We find that monitoring well temperature transient analysis is promising for field application during the boundary dominate flow period. Another implication of this work is to develop variable rate temperature transient analysis (rate-temperature transient analysis) and temperature based decline curve analysis for reservoir characterization.
|File Size||1 MB||Number of Pages||15|
Agarwal, R. G., Gardner, D. C., Kleinsteiber, S. W.et al. 1999. Analyzing well production data using combined-type-curve and decline-curve analysis concepts. Spe Reservoir Evaluation & Engineering 2 (5): 478-486. 10.2118/57916-Pa.
App, J. F. 2010. Nonisothermal and Productivity Behavior of High-Pressure Reservoirs. Spe Journal 15 (1): 50-63. SPE-114705-PA. http://dx.doi.org/10.2118/114705-PA.
App, J. F., Yoshioka, K. 2013. Impact of Reservoir Permeability on Flowing Sandface Temperatures: Dimensionless Analysis. SPE J. 18 (4): 685-694. SPE-146951-PA. http://dx.doi.org/10.2118/146951-PA.
App, Jeff. 2017. Permeability, Skin, and Inflow-Profile Estimation From Production-Logging-Tool Temperature Traces. SPE Journal. 10.2118/174910-pa.
Camacho-V, Rodolfo G., Raghavan, Rajagopal. 1989. Boundary-Dominated Flow in Solutions-Gas-Drive Reservoirs. SPE Reservoir Engineering 4 (04): 503-512. 10.2118/18562-pa.
Chevarunotai, N., Hasan, A. R., Kabir, C. S. 2015. Transient Flowing-Fluid Temperature Modeling in Oil Reservoirs for Flow Associated with Large Drawdowns. Proc., 10.2118/175008-MS.
Collins, R. E. 1991. Pseudo-Steady-State Flow and the Transient Pressure Behavior of Fractured Wells: A New Analytical Technique for Complex Well bore Configurations. Proc., 10.2118/22660-MS.
Dada, Akindolu, Muradov, Khafiz, Dadzie, Kokouet al. 2017. Numerical and analytical modelling of sandface temperature in a dry gas producing well. Journal of Natural Gas Science and Engineering 40: 189-207. 10.1016/j.jngse.2017.02.005.
Fetkovich, M. J. 1980. Decline Curve Analysis Using Type Curves. Journal of Petroleum Technology 32 (6): 1065-1077. 10.2118/4629-Pa.
Glasbergen, G., Gualtieri, D., van Domelen, M.et al. 2009. Real-Time Fluid Distribution Determination in Matrix Treatments Using DTS. Spe Production & Operations 24 (1): 135-146. SPE-107775-PA. http://dx.doi.org/10.2118/107775-PA.
Li, Yurong, Cheng, Baokai, Zhu, Wengeet al. 2017. Development and evaluation of the coaxial cable casing imager: a cost-effective solution to real-time downhole monitoring for CO2 sequestration wellbore integrity. Greenhouse Gases: Science and Technology. 10.1002/ghg.1691.
Li, Z. Y., Yin, J. C., Zhu, D.et al. 2011. Using downhole temperature measurement to assist reservoir characterization and optimization. Journal of Petroleum Science and Engineering 78 (2): 454-463. 10.1016/j.petrol.2011.06.012.
Mao, Y., Zeidouni, M. 2017a. Accounting for Fluid-Property Variations in Temperature-Transient Analysis. SPE Journal Pre-print. SPE-187465-PA. 10.2118/187465-pa.
Mao, Y., Zeidouni, M. 2017b. Analytical Solutions for Temperature Transient Analysis and Near Wellbore Damaged Zone Characterization. Proc., SPE Reservoir Characterisation and Simulation Conference, Abu Dhabi, UAE, SPE-185990-MS, http://dx.doi.org/10.2118/185990-MS.
Mao, Y., Zeidouni, M. 2017c. Temperature Transient Analysis for Characterization of Multilayer Reservoirs with Crossflow. Proc., SPE Western Regional Meeting, Bakersfield, California, SPE-185654-MS, http://dx.doi.org/10.2118/185654-MS.
Mao, Y., Zeidouni, M. 2017d. Near Wellbore Characterization from Temperature Transient Analysis: Accounting for Non-Darcy Flow Effect. Proc., SPE Symposium: Production Enhancement and Cost Optimisation, Kuala Lumpur, Malaysia, SPE-189234-MS, http://dx.doi.org/10.2118/189234-MS.
Mao, Y., Zeidouni, M., Askari, R. 2017. Effect of leakage pathway flow properties on thermal signal associated with the leakage from CO2 storage zone. Greenhouse Gases-Science and Technology 7 (3): 512-529. 10.1002/ghg.1658.
Mao, Y., Zeidouni, M., Duncan, I. 2017. Temperature analysis for early detection and rate estimation of CO2 wellbore leakage. International Journal of Greenhouse Gas Control 67: 20-30. http://dx.doi.org/10.1016/j.ijggc.2017.09.021.
Mattar, L., Anderson, D. M. 2003. A Systematic and Comprehensive Methodology for Advanced Analysis of Production Data. Proc., 10.2118/84472-MS.
Mattar, L., Anderson, D., Stotts, G. 2006. Dynamic material balance - oil- or gas-in-place without shut-ins. Journal of Canadian Petroleum Technology 45 (11): 7-10. 10.2118/06-11-TN.
Muradov, K., Davies, D. 2012. Temperature transient analysis in horizontal wells: Application workflow, problems and advantages. Journal of Petroleum Science and Engineering 92-93: 11-23. 10.1016/j.petrol.2012.06.012.
Ramazanov, A., Valiullin, R. A., Shako, V.et al. 2010. Thermal Modeling for Characterization of Near Wellbore Zone and Zonal Allocation. Proc., SPE-136256-MS, http://dx.doi.org/10.2118/136256-MS.
Ryou, Sangsoo, Frantz, J. H., Jr., Lee, W. J. 1994. New, Simplified Methods for Modeling Multilayer Reservoirs Performing at Pseudo-Steady State. Proc., 10.2118/28631-MS.
Sclater, K. C., Stephenson, B. R. 1929. Measurements of original pressure, temperature and gas-oil ratio in oil sands. Transactions of the American Institute of Mining and Metallurgical Engineers 82: 119-131. 10.2118/929119-G.
Shahamat, M. S., Mattar, L., Aguilera, R. 2014. A Physics-Based Method for Production Data Analysis of Tight and Shale Petroleum Reservoirs Using Succession of Pseudo-Steady States. Proc., 10.2118/167686-MS.
Slider, H. C. 1966. Application of Pseudo-Steady-State Flow to Pressure-Buildup Analysis. Proc., 10.2118/1403-MS.
Xu, Bohan, Forouzanfar, Fahim. 2017. The Information Content and Integration of Distributed-Temperature-Sensing Data for Near-Wellbore-Reservoir Characterization. SPE Reservoir Evaluation & Engineering. 10.2118/180405-pa.