Society of Petroleum Engineers Journal · 1982 · 177 citations · 22 references
EngineeringGeological EngineeringGeologyHydraulic EngineeringHydraulic FracturingSubsurface Fluid FlowFracture GeometryFracture InitiationFracture MechanicsFracture PropagationNaturally Fractured ReservoirsRock FractureFracture GrowthFracture Propagation In Layered ReservoirsHydraulic Fracture ContainmentHydraulic Fracture GeometryHydraulic Fracture Network GeometryHydraulic Fracture PropagationHydraulic Geometry
Predicting fracture height and identifying barriers to vertical propagation are key challenges in hydraulic fracturing. Analysis shows fractures typically penetrate adjacent layers, with depth governed by stiffness and horizontal stress contrasts, and provides an estimate for penetration depth in the case of a stiffness contrast.
Abstract One of the main problems in hydraulic fracturing technology is the prediction of fracture height. In particular, the question of what constitutes a barrier to vertical fracture propagation is crucial to the success of field operations. An analysis of hydraulic fracture containment effects has been performed. The main conclusion is that in most cases the fracture will penetrate into the layers adjoining the pay zone, the depth of penetration being determined by the differences in stiffness and in horizontal in-situ stress between the pay zone and the adjoining layers. For the case of a stiffness contrast, an estimate of the penetration depth is given.
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General Theory of Three-Dimensional Consolidation
Maurice A. Biot · Journal of Applied Physics · 1941 · 9.6K citations · Full text
Engineering, Civil Engineering, Geotechnical Engineering +13
T.K. Perkins, L.R. Kern · Journal of Petroleum Technology · 1961 · 1.4K citations
Engineering, Earth Sciences, Geology +17