Integrated Carbon Capture Utilization and Storage (CCUS) Initiative
Building an Integrated Initiative
There is unprecedented interest in carbon capture, utilization and storage (CCUS), carbon management, negative emissions and deep decarbonization worldwide. The National Academies of Sciences, Engineering and Medicine have identified carbon sequestration as one of society’s grand challenges, and multiple national labs and the U.S. Department of Energy have significant ongoing work in the area. The need for detailed scientific and engineering research, coupled with cross-cutting work on policy, markets and regulation is critical.
Colorado School of Mines is a top technical research university in areas related to energy, natural resources and environment. A public university with a strong emphasis on applied research and educating students to help lead the energy transition, Mines is actively engaged in areas related to one or more aspects of the CCUS chain and faculty provide relevant expertise that spans from fundamental chemistry to reactor engineering and cultivate a collaborative working environment across disciplines.
image courtesy of Prof. Rob Braun, Mechanical Engineering
Areas of CCUS Research at Mines
Geologic reservoir characterization and storage
- Fluid Rock interactions to evaluate carbon mineralization
- Geochemical indicators of CO2 leakage
- Geophysical quantification of CO2 in place
- CO2 storage capacity in the seal and reservoir formations
- CO2 leakage into the seal formation
Capture
• Capture membranes
• Chemical looping
Utilization
- Upgrade captured CO2 to commodity chemicals
- CO2 to fuels
- EOR
Capture Policy and economics
- Carbon Pricing
- Industry CCUS policy
- Regulatory approaches to CCUS
- Data analytics for characterizing successful CCUS projects
Integrated CCUS NEWS
TOTAL AND ITS PARTNERS RELEASE NEXT-GENERATION & OPEN-SOURCE GEOLOGICAL CARBON DIOXIDE STORAGE SIMULATOR 11/10/2020
TOTAL AND ITS PARTNERS RELEASE NEXT-GENERATION & OPEN-SOURCE GEOLOGICAL CARBON DIOXIDE STORAGE SIMULATOR
After more than two years of joint research, Total, Lawrence Livermore National Laboratory (LLNL) and Stanford University release GEOSX, an open source simulator for large-scale geological carbon dioxide (CO2) storage. GEOSX was developed using advanced new technologies in high-performance computing and applied mathematics and aims to improve the management and safety of geological CO2 repositories. Its computing performance is unmatched to date. The open-source nature of GEOSX aims to ensure a high level of transparency, sharing and community support to pave the way for the large-scale development of Carbon Capture, Utilization and Storage (CCUS) technologies. November 10, 2020.
Levelized Cost of Carbon Abatement: An Improved Cost-Assessment Methodology for a Net-Zero Emissions World 10/19/2020
Levelized Cost of Carbon Abatement: An Improved Cost-Assessment Methodology for a Net-Zero Emissions World
New policies are needed to achieve the net-zero emissions required to address climate change. To succeed, these policies must lead directly to swift and profound abatement of greenhouse gas (GHG) emissions. Policies that appear effective on the surface too often have little real impact or are costly compared to alternatives. Governments, investors, and decision makers require better tools focused on understanding the real emissions impacts and costs of policies and other measures in order to design the most effective policies required to create a net-zero world. This paper, from the Carbon Management Research Initiative at Columbia University’s Center on Global Energy Policy, puts forward a levelized cost of carbon abatement, LCCA, an improved methodology for comparing technologies and policies based on the cost of carbon abatement. October 19, 2020.
Colorado School of Mines launches Integrated Carbon Capture, Utilization and Storage Initiative 9/18/2020
Colorado School of Mines launches Integrated Carbon Capture, Utilization and Storage Initiative
Led by the Payne Institute for Public Policy and the Mines’ Office of Global Initiatives, the Integrated CCUS initiative will be interdisciplinary across Mines departments. Global interest in carbon capture, utilization and storage is unprecedented as one of the key strategies for addressing climate change. The need for detailed scientific and engineering research, coupled with cross-cutting work on policy, markets and regulation of the technology is equally critical. September 18, 2020.
CCUS in Clean Energy Transitions – September 2020
CCUS in Clean Energy Transitions
A net-zero energy system requires a profound transformation in the way we produce and use energy that can only be achieved with a broad suite of technologies. Carbon capture, utilisation and storage (CCUS) is the only group of technologies that contributes both to reducing emissions in key sectors directly and to removing CO2 to balance emissions that are challenging to avoid – a critical part of “net” zero goals. After years of slow progress, new investment incentives and strengthened climate goals are building new momentum behind CCUS. The report examines in detail the role for CCUS technologies in clean energy transitions. It identifies four key contributions: tackling emissions from existing energy infrastructure; a solution for sectors with hard-to-abate emissions; a platform for low-carbon hydrogen production; and removing carbon from the atmosphere. The report considers innovation needs across CCUS technologies and applications. It includes new geospatial analysis of power and industrial emissions in key regions and their proximity to potential geological storage. September 2020.
Interactive Map of CCUS Projects in Development in the U.S. 7/27/2020
Interactive Map of CCUS Projects in Development in the U.S.
The expanded and extended 45Q tax credit for carbon capture, utilization and sequestration (CCUS) projects passed by the U.S. Congress in early 2018 is the most significant carbon capture-specific incentive available, globally, and is spurring the progress of dozens of projects around the country. Other nations that are looking to create successful carbon reduction policies are closely tracking the impact of 45Q. July 27, 2020.
Linda Battalora
Teaching Professor, Petroleum Engineering
Jyoti Behura
Research Assistant Professor, Geophysics
Nanette Boyle
Assistant Professor
Coors Developmental Chair
Chemical and Biological Engineering
John Bradford
Professor of Geophysics
Vice President for Global Initiatives
Robert Braun
Rowlinson Professor of Mechanical Engineering
Jared Carbone
Associate Professor, Economics and Business
Moises Carreon
Professor, Chemical and Biological Engineering
Tzahi Y. Cath
Ben L. Fryrear Professor
Civil and Environmental Engineering
Ben Gilbert
Assistant Professor, Economics and Business
Marte Gutierrez
James R. Paden Chair and Distinguished Professor, Civil and Environmental Engineering
Director, University Transportation Center for Underground Transportation Infrastructure (UTC-UTI)
Kathleen Hancock
Associate Professor and NREP Graduate Program Director, Humanities, Arts & Social Sciences
Andrew Herring
Professor, Chemical and Biological Engineering
Canan Karakaya
Research Assistant Professor, Mechanical Engineering
Robert Kee
George R. Brown Distinguished Professor, Mechanical Engineering
Carolyn Koh
William K. Coors Distinguished Chair and Professor
Chemical and Biological Engineering
Richard Krahenbuhl
Research Assistant Professor, Geophysics
Associate Director, Humanitarian, Engineering, & Science Graduate Program
Adrianne Kroepsch
Assistant Professor, Humanitarian, Engineering, & Sciences
Ian Lange
Assistant Professor, Economics and Business
Yaoguo Li
Professor, Geophysics
Director, Center for Gravity, Electrical and Magnetic Studies
Shannon Davies Mancus
Teaching Associate Professor, Humanities, Arts & Social Sciences
Peter Maniloff
Assistant Professor, Economics and Business
Mike McGuirk
Assistant Professor, Department of Chemistry
Junko Munakata Marr
Interim Department Head and Professor
Civil and Environmental Engineering
Priscilla Nelson
Professor, Mining Engineering
Ryan O’Hayre
Professor, Metallurgical and Materials Engineering
Matthew Posewitz
Professor, Department of Chemistry
Manika Prasad
Professor, Geophysics
Svitlana Pylypenko
Assistant Professor, Department of Chemistry
Ryan Richards
Professor, Department of Chemistry
Director, Joint Mines/NREL Nexus Center
Laura Singer
Senior Research Associate, Payne Institute for Public Policy
Alexis Navarre-Sitchler
Associate Professor, Geology and Geological Engineering
Steven Smith
Assistant Professor, Economics and Business
Stephen Sonnenberg
Professor, Geology and Geological Engineering
Charles Boettcher Distinguished Chair in Petroleum Geology
Timothy Strathmann
Interim Associate Department Head and Professor
Civil and Environmental Engineering
Neal Sullivan
Associate Professor, Mechanical Engineering
Ali Tura
Professor, Geophysics
Director, Reservoir Characterization Project
Colin Wolden
Professor, Chemical and Biological Engineering
Yu-Shu Wu
Professor, Petroleum Engineering
Energi Simulation Chair
For more information about the Integrated Carbon Capture Utilization and Storage (CCUS) Initiative at the Colorado School of Mines, please contact the Payne Institute for Public Policy Senior Research Associate, Laura Singer, at lsinger@mines.edu, Colorado School of Mines Vice President for Global Initiatives, John Bradford, at jbradford@mines.edu, or Colorado School of Mines Professor of Geophysics, Manika Prasad, at mprasad@mines.edu.