A composite system with a planar interface
Publication details: feb. 2010Description: 6 p. ; 229-234 In: Journal of Petroleum Science & Engineering 70Summary: Transcripción del resumen del autor. This paper presents a Green's function formulation for flow to a well in a composite system with a planar interface. It is difficult to obtain solutions to the diffusion equation under such circumstances. Usually, for this problem, solutions are obtained in terms of the Laplace transformation followed by a Fourier transformation. But difficulties arise in reducing the solutions to a state that enables efficient numerical calculations. In this work, flow to a well represented by a continuous line-source near a partial hydrologic barrier (a composite system) is solved along the lines proposed by Sommerfeld (1909). His approach to working the problem results in a scheme that is highly efficient from a computational perspective, an essential requirement for processing the inverse problem. Results obtained by the new solution are compared with those of Bixel et al. (1963).| Current library | Status | Barcode | |
|---|---|---|---|
| Biblioteca Alejandro Angel Bulgheroni | Not for loan | 200046016 |
Transcripción del resumen del autor. This paper presents a Green's function formulation for flow to a well in a composite system with a planar interface. It is difficult to obtain solutions to the diffusion equation under such circumstances. Usually, for this problem, solutions are obtained in terms of the Laplace transformation followed by a Fourier transformation. But difficulties arise in reducing the solutions to a state that enables efficient numerical calculations. In this work, flow to a well represented by a continuous line-source near a partial hydrologic barrier (a composite system) is solved along the lines proposed by Sommerfeld (1909). His approach to working the problem results in a scheme that is highly efficient from a computational perspective, an essential requirement for processing the inverse problem. Results obtained by the new solution are compared with those of Bixel et al. (1963).
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