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Integration of new methodologies for the planning and environmental analysis of oilfields

Type of activity
Competitive project
Funding entity
MIN DE ECONOMIA Y COMPETITIVIDAD
Acronym
IMPAMYP
Funding entity code
CTM2014-55014-C3-3-R
Amount
61.710,00 €
Start date
2015-01-01
End date
2018-12-31
Abstract
One of the most important aspects in the management, planning and analysis of the environmental impact of oilfields exploitation is the
reliable prediction of its behavior. The most used methodology to reach this goal is numerical simulation. It is important to notice that a
large amount of time to perform these kinds of simulations is spent to obtain a geometrical digital model of the terrain (definition of the
boundary, localization of faults, cavities and horizons that define different strata, injection and extraction wells, etc) and to generate a mesh
adapted to the needs of the simulation. Usually, the most used techniques to obtain geological data may introduce incoherencies as well
as important precision errors. For this reason, it is necessary to develop an environment that allows the effective manipulation of such
information.
In addition, another important issue with this kind of problems is that near the extraction wells and around the faults in the domain, there
are large gradients of pressure which may give rise to large changes in the velocity field. In order to correctly capture these abrupt
variations, that may significantly affect the reliability of the obtained results, commercial software tends to generate meshes that contain a
large number of small elements, because they rely on first order methods. This leads to prohibitively high computational costs to obtain
predictions with the required precision. The hybridizable discontinuous Galerkin method (HDG) is specially designed to overcome these
issues. First, the high order polynomials allow to approximate the physical quantities of interest with higher precision and using fewer
elements. Second, the discontinuous formulation allows to use a different polynomial degree in each element, thus the solution is captured
adaptively with the required precision. Third, the hybridizable formulation allows to reduce the computational cost of the simulation.
This project is devoted to the development of high-order numerical techniques for the efficient and reliable simulation of the behavior of oil
reservoirs. We propose to develop a simulation environment that allows to compute realistic scenarios, increasing the reliability of the
results and reducing the computational resources. In this way, it will be possible to analyze more configurations and to increment their
complexity. In conclusion, the incorporation of these methodologies will allow to increase the range of applicability and usability of the
numerical simulations.
To this end, we set the following objectives:
1. To develop an application that allows to generate a geometric digital model of the region of interest from the information obtained from
the geophysical exploration methods and the production control systems.
2. To develop a 3D high-order mesher algorithm to discretize the geometric model obtained in the first objective.
3. To develop a code to simulate multi-phase (water, oil and gas) and multi-component (different types of oil) porous flux problems by
means of a 3D HDG formulation.
4. To integrate the techniques developed in the previous points in a simulation environment for the planning and environmental analysis of
oil reservoirs and to use the simulation environment to study realistic cases of industrial interest.
This project has the explicit support of two EPO: the "Institut de Catalunya Energy Research, IREC" and "PetroSoft".
Scope
Adm. Estat
Plan
Plan Estatal de Investigación Científica y Técnica y de Innovación 2013-2016
Call year
2015
Funcding program
Programa Estatal de I+D+i Orientada a los Retos de la Sociedad
Funding call
Retos de Investigación: Proyectos de I+D+i
Grant institution
Gobierno De España. Ministerio De Economía Y Competitividad, Mineco

Participants