Reactive transport modeling for CO2 sequestration with a dual mesh method

Dominique Guerillot, J. Bruyelle

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Abstract

Acidic fluid injection in rock formations may generate geochemical reactions that can modify the mineral assemblage of the rock and disturb thermodynamic equilibria. Numerical difficulties of reactive transport simulation are that geochemical reactions are at the pore scale, may appear in short time period and are very sensitive to the mesh size and/or time step. The classical approach for reservoir engineers consists in upscaling the high resolution petrophysical values to assign to a low-resolution model. For reactive transport modelling, the upscaling step will impact not only the mass fraction of each species but also the mineral dissolution and/or precipitation processes that highly depend on mass fractions. This paper recalls the Compositional Dual Mesh Method, an original algorithm for a compositional flow modelling in porous media with rock-fluid interactions using two different space and time discretization: one mesh, as usual for the pressure equation and a much finer one for the chemical reactions. The interest of this scheme is that the calculation of the flow on the high-resolution grid is done solving a local problem on each coarse cell. Two examples of CO2 injection in carbonate reservoirs illustrate this algorithm.

Original languageEnglish
Title of host publication5th CO2 Geological Storage Workshop
PublisherEuropean Association of Geoscientists and Engineers, EAGE
ISBN (Electronic)9789462822702
Publication statusPublished - 1 Jan 2018
Event5th CO2 Geological Storage Workshop - Utrecht, Netherlands
Duration: 21 Nov 201823 Nov 2018

Publication series

Name5th CO2 Geological Storage Workshop
Volume2018-November

Conference

Conference5th CO2 Geological Storage Workshop
CountryNetherlands
CityUtrecht
Period21/11/1823/11/18

Fingerprint

reactive transport
carbon sequestration
upscaling
Rocks
Minerals
rock
modeling
fluid injection
Fluids
flow modeling
mesh size
Carbonates
mineral
chemical reaction
Porous materials
porous medium
Chemical reactions
Dissolution
thermodynamics
dissolution

ASJC Scopus subject areas

  • Geochemistry and Petrology

Cite this

Guerillot, D., & Bruyelle, J. (2018). Reactive transport modeling for CO2 sequestration with a dual mesh method. In 5th CO2 Geological Storage Workshop (5th CO2 Geological Storage Workshop; Vol. 2018-November). European Association of Geoscientists and Engineers, EAGE.

Reactive transport modeling for CO2 sequestration with a dual mesh method. / Guerillot, Dominique; Bruyelle, J.

5th CO2 Geological Storage Workshop. European Association of Geoscientists and Engineers, EAGE, 2018. (5th CO2 Geological Storage Workshop; Vol. 2018-November).

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Guerillot, D & Bruyelle, J 2018, Reactive transport modeling for CO2 sequestration with a dual mesh method. in 5th CO2 Geological Storage Workshop. 5th CO2 Geological Storage Workshop, vol. 2018-November, European Association of Geoscientists and Engineers, EAGE, 5th CO2 Geological Storage Workshop, Utrecht, Netherlands, 21/11/18.
Guerillot D, Bruyelle J. Reactive transport modeling for CO2 sequestration with a dual mesh method. In 5th CO2 Geological Storage Workshop. European Association of Geoscientists and Engineers, EAGE. 2018. (5th CO2 Geological Storage Workshop).
Guerillot, Dominique ; Bruyelle, J. / Reactive transport modeling for CO2 sequestration with a dual mesh method. 5th CO2 Geological Storage Workshop. European Association of Geoscientists and Engineers, EAGE, 2018. (5th CO2 Geological Storage Workshop).
@inproceedings{42be7becfcda4bbe84b33611cd8d1ec0,
title = "Reactive transport modeling for CO2 sequestration with a dual mesh method",
abstract = "Acidic fluid injection in rock formations may generate geochemical reactions that can modify the mineral assemblage of the rock and disturb thermodynamic equilibria. Numerical difficulties of reactive transport simulation are that geochemical reactions are at the pore scale, may appear in short time period and are very sensitive to the mesh size and/or time step. The classical approach for reservoir engineers consists in upscaling the high resolution petrophysical values to assign to a low-resolution model. For reactive transport modelling, the upscaling step will impact not only the mass fraction of each species but also the mineral dissolution and/or precipitation processes that highly depend on mass fractions. This paper recalls the Compositional Dual Mesh Method, an original algorithm for a compositional flow modelling in porous media with rock-fluid interactions using two different space and time discretization: one mesh, as usual for the pressure equation and a much finer one for the chemical reactions. The interest of this scheme is that the calculation of the flow on the high-resolution grid is done solving a local problem on each coarse cell. Two examples of CO2 injection in carbonate reservoirs illustrate this algorithm.",
author = "Dominique Guerillot and J. Bruyelle",
year = "2018",
month = "1",
day = "1",
language = "English",
series = "5th CO2 Geological Storage Workshop",
publisher = "European Association of Geoscientists and Engineers, EAGE",
booktitle = "5th CO2 Geological Storage Workshop",

}

TY - GEN

T1 - Reactive transport modeling for CO2 sequestration with a dual mesh method

AU - Guerillot, Dominique

AU - Bruyelle, J.

PY - 2018/1/1

Y1 - 2018/1/1

N2 - Acidic fluid injection in rock formations may generate geochemical reactions that can modify the mineral assemblage of the rock and disturb thermodynamic equilibria. Numerical difficulties of reactive transport simulation are that geochemical reactions are at the pore scale, may appear in short time period and are very sensitive to the mesh size and/or time step. The classical approach for reservoir engineers consists in upscaling the high resolution petrophysical values to assign to a low-resolution model. For reactive transport modelling, the upscaling step will impact not only the mass fraction of each species but also the mineral dissolution and/or precipitation processes that highly depend on mass fractions. This paper recalls the Compositional Dual Mesh Method, an original algorithm for a compositional flow modelling in porous media with rock-fluid interactions using two different space and time discretization: one mesh, as usual for the pressure equation and a much finer one for the chemical reactions. The interest of this scheme is that the calculation of the flow on the high-resolution grid is done solving a local problem on each coarse cell. Two examples of CO2 injection in carbonate reservoirs illustrate this algorithm.

AB - Acidic fluid injection in rock formations may generate geochemical reactions that can modify the mineral assemblage of the rock and disturb thermodynamic equilibria. Numerical difficulties of reactive transport simulation are that geochemical reactions are at the pore scale, may appear in short time period and are very sensitive to the mesh size and/or time step. The classical approach for reservoir engineers consists in upscaling the high resolution petrophysical values to assign to a low-resolution model. For reactive transport modelling, the upscaling step will impact not only the mass fraction of each species but also the mineral dissolution and/or precipitation processes that highly depend on mass fractions. This paper recalls the Compositional Dual Mesh Method, an original algorithm for a compositional flow modelling in porous media with rock-fluid interactions using two different space and time discretization: one mesh, as usual for the pressure equation and a much finer one for the chemical reactions. The interest of this scheme is that the calculation of the flow on the high-resolution grid is done solving a local problem on each coarse cell. Two examples of CO2 injection in carbonate reservoirs illustrate this algorithm.

UR - http://www.scopus.com/inward/record.url?scp=85063127091&partnerID=8YFLogxK

UR - http://www.scopus.com/inward/citedby.url?scp=85063127091&partnerID=8YFLogxK

M3 - Conference contribution

T3 - 5th CO2 Geological Storage Workshop

BT - 5th CO2 Geological Storage Workshop

PB - European Association of Geoscientists and Engineers, EAGE

ER -