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Publications Database - List of storage publications

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type    April, 2018

Mont Terri poster


EGU Technical poster

This poster was presented at the EGU General Assembly in Vienna, Austria. The poster showcases the CO2 containment assurance work conducted at the Mont Terri laboratory by the Storage, Monitoring and Verification team.

(1.8 mb)      View   Download

type    December, 2014

CCP Project Factsheet


Modular Borehole Monitoring design and field test

(790kb)      View   Download

type    April, 2014

CCP Project Factsheet


Contingencies Program

(806kb)      View   Download

type    February, 2011

CCP Project Factsheet


CO2 Stream Impurities: Impacts on geological storage performance and assurance
Phase 1 – Reservoir Simulation

(919kb)      View   Download

type    January, 2009

A Technical Basis for Carbon Dioxide Storage (A4 210x297mm)


Members of the CO2 Capture Project
Edited by Cal Cooper, ConocoPhillips

This book provides a guide to the major technical issues related to the subsurface geological storage of carbon dioxide. The target audience is people interested in CO2 capture and storage (CCS). It contains both general information and specific details about technologies and applications that are likely to be used in CCS. Within this publication a number of case studies are summarized to give a deeper insight into the technical issues involved. Topics covered include:

Site Selection: Modes of CO2 storage; Desirable geological characteristics of storage sites; CO2 trapping mechanisms; Subsurface characterization workflow; Quantifying subsurface uncertainties; Special site characterization issues for CO2 storage.

Well Construction and Integrity: Life cycle stages; Site selection and development; Operations; Closure; Post-closure.

Monitoring Programmes for CO2 Storage: Selecting monitoring tools and techniques; Models for performance monitoring; Limits of measurement and concern; Monitoring tools and techniques; Examples of monitoring techniques in action; Concluding remarks.

Development, Operation and Closure of CO2 Storage Facilities: Introduction: Oil and gas field lifecycle analogy; CO2 storage project lifecycle: Project certification and uncertainty management.

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type    January, 2009

A Technical Basis for Carbon Dioxide Storage (Letter 8.5x11in)


Members of the CO2 Capture Project
Edited by Cal Cooper, ConocoPhillips

This book provides a guide to the major technical issues related to the subsurface geological storage of carbon dioxide. The target audience is people interested in CO2 capture and storage (CCS). It contains both general information and specific details about technologies and applications that are likely to be used in CCS. Within this publication a number of case studies are summarized to give a deeper insight into the technical issues involved. Topics covered include:

Site Selection: Modes of CO2 storage; Desirable geological characteristics of storage sites; CO2 trapping mechanisms; Subsurface characterization workflow; Quantifying subsurface uncertainties; Special site characterization issues for CO2 storage.

Well Construction and Integrity: Life cycle stages; Site selection and development; Operations; Closure; Post-closure.

Monitoring Programmes for CO2 Storage: Selecting monitoring tools and techniques; Models for performance monitoring; Limits of measurement and concern; Monitoring tools and techniques; Examples of monitoring techniques in action; Concluding remarks.

Development, Operation and Closure of CO2 Storage Facilities: Introduction: Oil and gas field lifecycle analogy; CO2 storage project lifecycle: Project certification and uncertainty management.

(4.2 Mb)      View   Download

type    January, 2009

A technical basis for carbon dioxide storage


Cal Cooper on behalf of the CO2

This paper is the synopsis of a larger work completed under the auspices of the CO2 Capture Project, an international effort funded by eight of the world’s leading energy companies. It seeks to explain the rationale for the geological storage of carbon dioxide (CO2) based on insights from the practical experience of the oil and gas industry. It considers the key technical applications that will make storage possible, and the subsurface management processes that will provide confidence to all stakeholders that storage is effective. Four broad areas are described including, the selection and characterization of sites for CO2 storage; issues of well integrity and well construction; the requirements of monitoring programs for appropriate data collection and risk management. Finally, issues arising from storage operations and the eventual closure and decommissioning of CO2 storage sites are addressed.

© 2008 Elsevier Ltd. All rights reserved.Keywords: carbon dioxide; storage; site selection; wells; injectivity; containment; monitoring; closure; decommissioning.

Source: Greenhouse Gas Control Technologies (GHGT) conference, 16-20 November 2008

(98 Kb)      View   Download

type    January, 2009

CO2 Capture Project Phase 2 (CCP2) – Storage Program: Closing Long-Term CO2 Geological Storage Gaps Relevant to Regulatory and Policy Development


Scott Imbus, Dan Kieke, Walter Crow, Marcos Briceno, Scott Rennie, Calvin Cooper, Alessandra Simone

The CCP2 (2005 -2008) is a consortium is engaged in reducing CO2 capture costs and improving confidence in CO2 storage. The consortium has co-funding from EU, Norway and the US DOE. The CCP2 Storage program project portfolio focuses on technical assurance issues of importance to regulators, policymakers and other stakeholders. These include simplified and transparent protocols for assessing the storage project lifecycle, long term well materials stability under CO2-rich conditions, geochemical and geomechanic al interactions impacting the containment system stability and feasibility of novel remote sensing and geophysical techniques for monitoring CO2 storage. Work has begun on the CCP3 Storage (2009+) program which will continue to address remaining, substantial CO2 storage issues.

© 2008 Elsevier Ltd . All rights reserved.

Keywords: CO2 Capture Project (CCP); CO2 Geologic Storage; Certification Framework; Well Integrity; Geochemical Geomechanical Simulation; CO2 Storage Assurance; CO2 Storage Regulations, CO2 Storage Policy.

Source: Greenhouse Gas Control Technologies (GHGT) conference, 16-20 November 2008

(353 Kb)      View   Download

type    January, 2009

Characterizing fault-plume intersection probability for geologic carbon sequestration risk assessment


Preston D. Jordan, Curtis M. Oldenburg, and Jean-Philippe Nicot

Leakage of CO2 out of the designated storage region via faults is a widely recognized concern for geologic carbon sequestration. The probability of such leakage can be separated into the probability of a plume encountering a fault and the probability of flow along such a fault. In the absence of deterministic fault location information, the first probability can be calculated from regional fault population statistics and modelling of the plume shape and size. In this study, fault statistical parameters were measured or estimated for WESTCARB’s Phase III pilot test injection in the San Joaquin Valley, California. Combining CO2 plume model predictions with estimated fault characteristics resulted in a 3% probability that the CO2 plume will encounter a fault fully offsetting the 180 m (590 ft) thick seal.The probability of leakage is lower, likely much lower, as faults with this offset are probably low-permeability features in this area.

© 2008 Elsevier B.V. All rights reserved.

Keywords: geologic carbon sequestation, fault leakage risk, fault encounter probability.

Source: Greenhouse Gas Control Technologies (GHGT) conference, 16-20 November 2008

(204 Kb)      View   Download

type    January, 2009

Reactive Transport of CO2 in Saline Aquifers with implicit geomechanical analysis


Bjørn Kvamme, Shunping Liu

Geological storage of CO2 in saline aquifers is a promising way to reduce the concentration of the greenhouse gas in the atmosphere. Injection of CO2 will, however, lead to dissolution of minerals in regions of lowered pH and precipitation of minerals from transported ions in regions of higher pH. The geomechanical implications of these changes on the stability of the reservoir are of crucial importance in the evaluation of potential injection reservoirs. The possible injection rate for given over-pressures of the injected CO2 depends on the porosity and permeability of the rock matrix in the vicinity of the injection well. Local fracturing in this region can be a tool for increasing the injection flow rate but a geomechanical analysis will be needed in order to make sure that this fracturing will not affect the geomechanical stability outside this limited region to a significant degree. This paper presents a new rewritten version of RetrasoCodeBright (RCB) for simulations of CO2 storage in saline aquifers. An advantage of this code compared to other codes is the implicit geo-mechanical module. The code has been rewritten to account for non-ideal gas through corrections of gas density and gas solubility in all transport terms. Newton-Raphson method used to solve the flow and mechanics in RCB has been improved so as to improve convergence even under high gas injecting pressures. A 2D hydro-chemical-mechanical problem is used to illustrate the modified RCB code. This particular test case is chosen as a block of pure calcite embedded in top or bottom sections with mineralogy similar to that of the Utsira formation. The test case is designed so as to investigate horizontal migration and injection is controlled by a pressure difference between injection on the right hand side (140 bar) and a constant pressure (100 bar) on the left hand side of the system. For this particular test case the Soave Redlich Kwong (SRK) equation of state has been applied for compressibility factors and fugacity coefficients but can easily be replaced with more accurate equations of state for CO2. The simulated results show as expected a significant buffering effect which slows down the mineral erosion close to the injection zone and for the specific example the only region which appear to have potential geomechanical implications of the injected CO2 is close to the left side of the block where the difference between stress and overpressure indicate region of instability after 100 years of injection.

© 2008 Elsevier Ltd. All rights reserved.

Keywords: Carbon dioxide; storage; geochemistry; geomechanics.

Source: Greenhouse Gas Control Technologies (GHGT) conference, 16-20 November 2008

(979 Kb)      View   Download

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