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OLS Field Name OLS Field Data
Main Title Discrete Fracture Network Modeling of Hydraulic Stimulation Coupling Flow and Geomechanics / [electronic resource] :
Type EBOOK
Author McClure, Mark W.
Other Authors
Author Title of a Work
Horne, Roland N.
Publisher Springer International Publishing : Imprint: Springer,
Year Published 2013
Call Number TP315-360
ISBN 9783319003832
Subjects Geology, economic. ; Geology, Structural. ; Hydraulic engineering.
Internet Access
Description Access URL
http://dx.doi.org/10.1007/978-3-319-00383-2
Collation X, 90 p. 42 illus., 41 illus. in color. online resource.
Notes
Due to license restrictions, this resource is available to EPA employees and authorized contractors only
Contents Notes
Introduction.-Discrete Fracture Network Modeling.-Review of Stimulation Models -- References.-Methodology -- Governing and Constitutive Equations -- Initial Conditions -- Methods of Solution -- Spatial Domain -- Special Stimulation Topics.-References.-Results -- Simulation and Discretization Details -- Model A: Small Test Problem -- Models B and C: Large Test Problems -- Model D: Testing the Strain Penalty Method -- Hierarchical Matrix Decomposition.-References -- Discussion -- Model A -- Model B -- Model C -- Model D -- Hierarchical Matrix Decomposition -- Extension of the Model to Three Dimensions.-References.-Conclusions. Discrete Fracture Network Modeling of Hydraulic Stimulation describes the development and testing of a model that couples fluid-flow, deformation, friction weakening, and permeability evolution in large, complex two-dimensional discrete fracture networks. The model can be used to explore the behavior of hydraulic stimulation in settings where matrix permeability is low and preexisting fractures play an important role, such as Enhanced Geothermal Systems and gas shale. Used also to describe pure shear stimulation, mixed-mechanism stimulation, or pure opening-mode stimulation. A variety of novel techniques to ensure efficiency and realistic model behavior are implemented, and tested. The simulation methodology can also be used as an efficient method for directly solving quasistatic fracture contact problems. Results show how stresses induced by fracture deformation during stimulation directly impact the mechanism of propagation and the resulting fracture network.