Applying a Combined Hydraulic Fracturing, Reservoir, and Wellbore Simulator: Staged Field Experiment #3, Cluster Spacing, and Stacked Parent/Child Frac Hits
- Mark W. McClure (McClure Geomechanics LLC) | Charles A. Kang (McClure Geomechanics LLC)
- 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
- 5.3 Reservoir Fluid Dynamics, 5.2 Fluid Characterization, 5.5 Reservoir Simulation, 1.6 Drilling Operations, 4 Facilities Design, Construction and Operation, 2.4 Hydraulic Fracturing, 5 Reservoir Desciption & Dynamics, 3 Production and Well Operations, 5.6.5 Tracers, 2.5.2 Fracturing Materials (Fluids, Proppant), 5.6 Formation Evaluation & Management, 2 Well completion, 5.3.2 Multiphase Flow, 1.6.6 Directional Drilling, 4.1.2 Separation and Treating, 4.1 Processing Systems and Design, 5.2.2 Fluid Modeling, Equations of State
- Staged Field Experiment #3, Case study, Hydraulic fracture modeling, Reservoir simulation
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This paper describes three applications of a fully integrated hydraulic fracturing, reservoir, and wellbore simulator. The simulator describes hydraulic fracturing, shut-in, and production in a single continuous simulation. It describes multiphase effects (using either the black oil model or a compositional fluid model), thermal effects, transport of tracers and/or non-Newtonian fluid additives, stress shadowing from fracture propagation, and poroelastic stress effects from depletion, and uses a detailed proppant transport algorithm. It uses constitutive relations that smoothly transition from equations for flow through an open crack to equations for flow through a closed crack (with or without proppant). In the first example, we build a simulation model of Staged Field Experiment #3, a well-known historical dataset. Our result is compared with other published simulations and is matched to 15 years of production data. The simulation shows how the transport and settling of proppant in the fracture during injection and shut-in are impacted by processes such as clustered and hindered settling. Gel crosslinking and breaking are described with first-order reaction rate constants. In the second example, we perform a sensitivity analysis on cluster spacing in a generic slickwater fracturing treatment in a horizontal well. The simulations show complex interactions between stress shadowing, fracture propagation, proppant transport, and multiphase flow. The sensitivity analysis indicates that minimizing near-wellbore pressure drop is critical for improving production. Closer cluster spacing decreases near-wellbore pressure drop by providing more conduits for flow. In the third example, we simulate a vertically stacked parent/child scenario. Depletion of the overlying parent well leads to upward propagation from the child well and direct frac hits. The frac hits remobilize proppant as water sweeps into the parent well fractures, displacing gas. In the appendix, we summarize a suite of validation simulations that confirm the numerical accuracy of the simulator.
|File Size||2 MB||Number of Pages||23|
McClure, Mark W. and Charles A. Kang. 2017. A three-dimensional reservoir, wellbore, and hydraulic fracturing simulator that is compositional and thermal, tracks proppant and water solute transport, includes non-Darcy and non-Newtonian flow, and handles fractures closure. Paper SPE 182593-MS presented at the SPE Reservoir Simulation Symposium, Montgomery, TX.
Shaoul, J.R., J. Park, C. Berentsen, and J. Caballero. 2016. A new look at a famous well - analysis of Staged Field Experiment #3 including stress sensitive permeability in a multi-layer reservoir simulation model. Paper SPE 181443-MS presented at the SPE Annual Technology Conference and Exhibition, Dubai, UAE.
Shou, Keh-Jian, Eduard Siebrits, Steven L. Crouch. 1997. A higher order displacement discontinuity method for three-dimensional elastostatic problems. International Journal of Rock Mechanics and Mining Sciences 34 (2): 317–322, doi: 10.1016/S0148-9062(96)00052-6.