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T. Blasingame (2008)
The Characteristic Flow Behavior of Low-Permeability Reservoir Systems
Fred Wang, R. Reed (2009)
Pore Networks and Fluid Flow in Gas Shales
F. Javadpour (2009)
Nanopores and Apparent Permeability of Gas Flow in Mudrocks (Shales and Siltstone)Journal of Canadian Petroleum Technology, 48
T. Ertekin, G. King, F. Schwerer (1986)
DYNAMIC GAS SLIPPAGE: A UNIQUE DUAL-MECHANISM APPROACH TO THE FLOW OF GAS IN TIGHT FORMATIONS.Spe Formation Evaluation, 1
C. Clarkson, P. Pedersen (2010)
Tight Oil Production Analysis: Adaptation of Existing Rate-Transient Analysis Techniques
J. Perdomo, F. Civan, D. Devegowda, R. Sigal (2010)
Accurate Simulation of Shale-Gas Reservoirs
C. Clarkson, M. Nobakht, D. Kaviani, T. Ertekin (2012)
Production Analysis of Tight-Gas and Shale-Gas Reservoirs Using the Dynamic-Slippage ConceptSpe Journal, 17
F. Florence, J. Rushing, K. Newsham, T. Blasingame (2007)
Improved Permeability Prediction Relations for Low Permeability Sands
Atif Malayalam, A. Gangopadhyay, Coulibaly Aboubakar, H. Sebastian, Don Woodward (2013)
Reservoir Modeling and Forecasting Shale Multi-Stage Stimulation with Multi-disciplinary Integration
V. Sen, M. Nassir, A. Settari (2014)
Probabilistic Modeling of Hydraulic Fracturing Induced Microseismicity in Shale Plays : An Integrated Approach Using a Coupled Flow and Geomechanical Model
Ultra low permeability rocks such as shales exhibit complex fracture networks which must be discretely characterized in our reservoir models to evaluate stimulation designs and completion strategies properly. The pressure (Darcy’s law) and composition driven (Fick’s law) flow mechanisms when combined result in composition, pressure and saturationdependent slippage factor. The approach used in this study is to utilize pressure-dependent transmissibility multipliers to incorporate apparent gas-permeability changes resulting from multi-mechanism flows in commercial simulators. This work further expounds on the effectiveness of the theory by presenting a descriptive analysis between two commercially utilized numerical simulators. The applicability of dynamic slippage as an effective flow mechanism governing gas flow mechanisms within the computational environment of two different simulators is attempted in this analysis. Results indicate that slippage-governed flow in modelling shale reservoirs should not be ignored.
World Journal of Engineering – Emerald Publishing
Published: Oct 1, 2015
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