3D Hybrid Mesh Generation for Reservoir Flow Simulation.
Nicolas Flandrin, Houman Borouchaki, Chakib Bennis
Abstract
Nicolas Flandrin, Houman Borouchaki, Chakib Bennis
Abstract
A great challenge for flow simulators of new generation is to gain more accuracy at well proximity within complex geological structures. For this purpose, a new approach based on hybrid mesh modeling was proposed in 2D in [1]. In this hybrid mesh, the reservoir is described by a structured quadrilateral mesh and drainage areas around wells are represented by radial circular meshes. In order to generate a global conforming mesh, unstructured transition meshes constituted by convex polygonal elements satisfying finite volume properties are used to connect together these two structured meshes. Thus, the resulting mesh allows us to take full advantages of simplicity and practical aspects of structured meshes while complexity inherent to unstructured meshes is introduced only where strictly needed.
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A great challenge for flow simulators of new generation is to gain more accuracy at well proximity within complex geological structures. For this purpose, a new approach based on hybrid mesh modeling was proposed in 2D in [1]. In this hybrid mesh, the reservoir is described by a structured quadrilateral mesh and drainage areas around wells are represented by radial circular meshes. In order to generate a global conforming mesh, unstructured transition meshes constituted by convex polygonal elements satisfying finite volume properties are used to connect together these two structured meshes. Thus, the resulting mesh allows us to take full advantages of simplicity and practical aspects of structured meshes while complexity inherent to unstructured meshes is introduced only where strictly needed.
Key concepts: Polygon mesh, T-vertices, Volume mesh, Mesh generation, Computer science, Finite volume method, Quadrilateral, Mathematical optimization