Development of a reactive transport model for field-scale simulation of microbially induced carbonate precipitation

Research output: Contribution to journalArticle

Abstract

Microbially induced carbonate precipitation (MICP) is a promising technique that could be used for soil stabilization, for permeability control in porous and fractured media, for sealing leaky hydrocarbon wells, and for immobilizing contaminants. Many further field trials are required before optimum treatment strategies can be established. These field trials will be costly and time consuming to \carry out and are currently a barrier to transitioning MICP from a lab-scale process to a practical field-scale deployable technology. To narrow down the range of potential treatment options into a manageable number, we present a field-scale reactive transport model of MICP that captures the key processes of bacteria transport and attachment, urea hydrolysis, tractable CaCO 3 precipitation, and modification to the porous media in terms of porosity and permeability. The model, named biogroutFoam, is implemented in OpenFOAM, and results are presented for MICP treatment in a planar fracture, three-dimensional sand media at pore scale, and at continuum scale for an array of nine injection/abstraction wells. Results indicate that it is necessary to model bacterial attachment, that bacterial attachment should be a function of fluid velocity, and that phased injection strategies may lead to the most uniform precipitation in a porous media.

LanguageEnglish
Pages7229-7245
Number of pages17
JournalWater Resources Research
Volume55
Issue number8
Early online date16 Aug 2019
DOIs
Publication statusPublished - 31 Aug 2019

Fingerprint

reactive transport
Carbonates
porous medium
carbonate
simulation
Porous materials
permeability
soil stabilization
well
fractured medium
sealing
Urea
urea
hydrolysis
Hydrolysis
Bacteria
Sand
Stabilization
Porosity
Hydrocarbons

Keywords

  • MICP modelling
  • micro-continuum modelling
  • MICP treatment injection modelling
  • OpenFOAM
  • ground improvement
  • Sporosarcina pasteurii
  • bacterial attachment

Cite this

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title = "Development of a reactive transport model for field-scale simulation of microbially induced carbonate precipitation",
abstract = "Microbially induced carbonate precipitation (MICP) is a promising technique that could be used for soil stabilization, for permeability control in porous and fractured media, for sealing leaky hydrocarbon wells, and for immobilizing contaminants. Many further field trials are required before optimum treatment strategies can be established. These field trials will be costly and time consuming to \carry out and are currently a barrier to transitioning MICP from a lab-scale process to a practical field-scale deployable technology. To narrow down the range of potential treatment options into a manageable number, we present a field-scale reactive transport model of MICP that captures the key processes of bacteria transport and attachment, urea hydrolysis, tractable CaCO 3 precipitation, and modification to the porous media in terms of porosity and permeability. The model, named biogroutFoam, is implemented in OpenFOAM, and results are presented for MICP treatment in a planar fracture, three-dimensional sand media at pore scale, and at continuum scale for an array of nine injection/abstraction wells. Results indicate that it is necessary to model bacterial attachment, that bacterial attachment should be a function of fluid velocity, and that phased injection strategies may lead to the most uniform precipitation in a porous media.",
keywords = "MICP modelling, micro-continuum modelling, MICP treatment injection modelling, OpenFOAM, ground improvement, Sporosarcina pasteurii, bacterial attachment",
author = "Minto, {James M.} and Lunn, {Rebecca J.} and {El Mountassir}, Gr{\'a}inne",
year = "2019",
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T1 - Development of a reactive transport model for field-scale simulation of microbially induced carbonate precipitation

AU - Minto, James M.

AU - Lunn, Rebecca J.

AU - El Mountassir, Gráinne

PY - 2019/8/31

Y1 - 2019/8/31

N2 - Microbially induced carbonate precipitation (MICP) is a promising technique that could be used for soil stabilization, for permeability control in porous and fractured media, for sealing leaky hydrocarbon wells, and for immobilizing contaminants. Many further field trials are required before optimum treatment strategies can be established. These field trials will be costly and time consuming to \carry out and are currently a barrier to transitioning MICP from a lab-scale process to a practical field-scale deployable technology. To narrow down the range of potential treatment options into a manageable number, we present a field-scale reactive transport model of MICP that captures the key processes of bacteria transport and attachment, urea hydrolysis, tractable CaCO 3 precipitation, and modification to the porous media in terms of porosity and permeability. The model, named biogroutFoam, is implemented in OpenFOAM, and results are presented for MICP treatment in a planar fracture, three-dimensional sand media at pore scale, and at continuum scale for an array of nine injection/abstraction wells. Results indicate that it is necessary to model bacterial attachment, that bacterial attachment should be a function of fluid velocity, and that phased injection strategies may lead to the most uniform precipitation in a porous media.

AB - Microbially induced carbonate precipitation (MICP) is a promising technique that could be used for soil stabilization, for permeability control in porous and fractured media, for sealing leaky hydrocarbon wells, and for immobilizing contaminants. Many further field trials are required before optimum treatment strategies can be established. These field trials will be costly and time consuming to \carry out and are currently a barrier to transitioning MICP from a lab-scale process to a practical field-scale deployable technology. To narrow down the range of potential treatment options into a manageable number, we present a field-scale reactive transport model of MICP that captures the key processes of bacteria transport and attachment, urea hydrolysis, tractable CaCO 3 precipitation, and modification to the porous media in terms of porosity and permeability. The model, named biogroutFoam, is implemented in OpenFOAM, and results are presented for MICP treatment in a planar fracture, three-dimensional sand media at pore scale, and at continuum scale for an array of nine injection/abstraction wells. Results indicate that it is necessary to model bacterial attachment, that bacterial attachment should be a function of fluid velocity, and that phased injection strategies may lead to the most uniform precipitation in a porous media.

KW - MICP modelling

KW - micro-continuum modelling

KW - MICP treatment injection modelling

KW - OpenFOAM

KW - ground improvement

KW - Sporosarcina pasteurii

KW - bacterial attachment

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