1 Economics of CO 2 Storage and Sink Enhancement Options: A Utility Perspective Research Funded by DOE, TVA, and EPRI Collaborators: EPRI, MIT, Parsons,

Slides:



Advertisements
Similar presentations
Climate Change Mitigation: The need to include Agriculture, Forestry and Other Land Uses (AFOLU)
Advertisements

Presentation to the North Carolina DENR/DAQ Mercury/CO 2 Workshop April 19-21, 2004 Presented by Gerald R. Hill, Ph.D. Senior Technical Advisor Southern.
Joe Chaisson April 21, Integrated Coal Gasification Combined Cycle (IGCC) Power Plants and Geologic Carbon Sequestration Joe Chaisson.
Climate Change and KS : Mitigation Charles W. Rice Soil Microbiologist Department of Agronomy Lead Author, IPCC AR4 WGIII K-State Research and Extension.
Producing energy does not have to threaten the environment. In fact, its very production can reap major environmental benefits. The United States biomass.
Economic Analysis of Carbon Sequestration. Hypothesis: By adopting more sustainable practices, farmers can sequester C in soil at a cost competitive with.
CO 2 Capture and Storage (CCS). Contents The Need for CO 2 Capture and Storage 4 Reliance on Fossil Fuels 5 Largest CO 2 Emitters 7 Addressing the Challenge.
Don Scott Director of Sustainability National Biodiesel Board Biodiesel Liquid Solar Energy.
Technical options for placement of CO 2 in the maritime area  by Paul Freund
1 ACT AND ADAPT: CLIMATE CHANGE IN SCOTLAND Climate Change Division.
Carbon Offsets – Agriculture & Forestry Neil Sampson June 25, 2004.
CO 2 Sequestration Options for California Larry Myer WESTCARB Technical Director California Energy Commission (916) ; ETAAC.
Environmental Sustainability in the Extractive Industry: The Case for Climate Change Mitigation Dr Uwem E. Ite.
FOREST SERVICE GHG ISSUES AND INFORMATION NEEDS Elizabeth Reinhardt, FS Climate Change Office.
Carbon Sequestration Anjani Kumar CPSP218L Dudash
Robert C. Trautz Principal Technical Leader CREA Energy Innovation Summit Denver, Colorado October 27, 2014 Commercial CO 2 Storage: Around the Corner.
Advances in Energy Studies Porto Venere, September 2002 CO 2 capture and storage (with emphasis on PEACS project of UCE for the IEA Greenhouse Gas.
Stakeholder consultation on discussion document on GHG mitigation potential within the agriculture and forest sector Portlaoise 15 May 2015 Eugene Hendrick.
Coal-fired electricity generation 1.Accounts for 39% of world electricity production – the most important source of electricity in OECD and non-OECD. 2.Accounts.
Opportunities and Challenges for New Zealand's Energy Future Rosalind Archer Energy Research Theme Leader Faculty of Engineering University of Auckland.
ENERGY FROM BIOMASS. Biomass Biomass energy is energy produced from burning wood or plant residue, or from organic wastes (manure, dung). Algae is most.
Presented by Dean Current, PhD Center for Integrated Natural Resources and Agricultural Management (CINRAM) Department of Forest Resources University of.
Carbon capture and geological sequestration:. Some numbers 40 % carbon emissions from power plants 90 % emission reduction proven operationally Eg. Geological.
PROSPECTS FOR CO 2 CAPTURE AND STORAGE Energy Technology Scenarios Technologies and Costs of CO 2 Sequestration Jacek Podkanski, Dolf Gielen International.
Carbon Capture & Storage(CCS)
WOC 1 view on the focus and scope regarding CO 2 sequestration in WOC 1 (upstream sector) study area. (according to the experience of CO 2 problem study.
Technology options under consideration for reducing GHG emissions SUSTAINABLE ENERGY ROUNDTABLE SERIES: Next Steps Post-Kyoto: U.S. Options January 13,
CO 2 Sequestration Sequestration –To set off or apart; separate; segregate Why sequester CO 2 ? –Removal from atmosphere reduces the impact that anthropogenic.
Carbon Sequestration in Farm and Forest Ecosystems Sarah Hines April 2009
Implementation of the Kyoto Protocol: what does it mean for bioenergy and C sequestration? Implementation of the Kyoto Protocol: what does it mean for.
Game Changers. Technology Game Changer Barriers Many technologies are capable of significant deployment as “Game Changers” (energy efficiency, CH&P, renewables,
KEC MGA Committee, 2/21/2008 Midwestern Governor’s Association (MGA) Energy Security and Climate Stewardship Platform and Midwestern GHG Accord.
Managing The Risks of Climate Legislation Bruce Braine, Vice President June 3, 2008 MACRUC Conference Williamsburg, Virginia Mountaineer Plant - New Haven,
1 Xi Liang, David Reiner Judge Business School University of Cambridge International Conference on Climate Change Hong Kong May 29 th – 31 st 2007 Financing.
Climate Change Policy Gordon Harvey. 2 The extent of the challenge Global emissions need to peak no later than 2030 and be lower in 2050 than they are.
CCS The development worldwide Evonik’s view Dr. Alfred Tacke Chairman of the Board of Management Evonik Steag GmbH, Germany.
Developing a Framework for Offset Use in RGGI Opportunities and Risks Dale Bryk, NRDC and Brian Jones, MJB&A – Northeast Regional GHG Coalition RGGI Stakeholder.
Presented at: Saskatchewan Agriculture and Food Agriculture and Greenhouse Gas/Climate Change Workshop Saskatoon December 11, 2000 Llewellyn Matthews and.
Carbon Dioxide Capture and Geological Storage: Contributing to Climate Change Solutions Luke Warren, IPIECA.
INTERGOVERNMENTAL PANEL ON CLIMATE CHANGE (IPCC) The IPCC on Carbon dioxide Capture and Storage Heleen de Coninck (IPCC WG III on Mitigation) DEFRA/IRADe.
R K Jain. CO 2 emission responsible for global warming Development process to go unhalted. Ways and means to be found for controlling and abating CO 2.
INTERGOVERNMENTAL PANEL ON CLIMATE CHANGE (IPCC) The IPCC Special Report on Carbon dioxide Capture and Storage Your name Your institute Date, place.
Oregon Ag Carbon Work Group. Introduction Agriculture represents a small percentage of greenhouse gas emissions Ag likely won’t be regulated under a greenhouse.
Carbon sequestration and trading: Implications for agriculture François FALLOUX Eco-Carbone Presentation to International Policy Council Stratford, October.
Generation Technologies in a Carbon-constrained World Steve Specker President & CEO October 2005.
1 Protection of soil carbon content as a climate change mitigation tool Peter Wehrheim Head of Unit, DG CLIMA Unit A2: Climate finance and deforestation.
The role of gas in developing Carbon Capture and Storage (CCS)
Climate Change Mitigation: Some inputs for group discussion Hanoi, 10 June 2009 Nguyen Quang Tan RECOFTC – The Center for People and Forest.
Land Use, Land Use Change and Forestry (LULUCF) European Commission expert group on forest fires Antalya, 26 April 2012 Ernst Schulte, DG ENV on behalf.
What is the Carbon Cycle????
M idcontinent I nteractive D igital C arbon A tlas and R elational Data B ase James A. Drahovzal, Lawrence H. Wickstrom, Timothy R.Carr, John A. Rupp,
Carbon Sequestration A Strategic Element in Clean Coal Technology Presentation to: Mid-America Regulatory Conference (MARC) Columbus, Ohio, June 20, 2006.
Integrated Waste Management Consulting, LLC Matthew Cotton Reducing GHG: An Organics Perspective STRATEGIC POLICY DEVELOPMENT COMMITTEE PUBLIC WORKSHOP.
Carbon Capture and Storage Potentials and Barriers to Deployment.
Coal in a Carbon-Constrained World Ernest J. Moniz, Cecil and Ida Green Professor of Physics and Engineering Systems Director, MIT Energy Initiative Baker.
Mitigation The potential to use protected areas in carbon storage and capture.
The Dimensions of the Prize: Leverage Technology to Achieve Sustainable Emissions Cal Cooper ConocoPhillips.
Biomass and Bioenergy Approaches to Assessing Greenhouse Gas Mitigation Potential Carly Green 20 November 2003IEA Bioenergy Task 38 National Meeting -
Tomas Lundmark SLU Sweden
BIOENERGY IN ELECTRICITY GENERATION
Challenges in Global CCS Projects
Entergy’s GHG Stabilization Commitment
Restructuring Roundtable Boston, MA December 4, 2009
Greenhouse Gas Emissions Data
WHAT ARE THE BEST CARBON MANAGEMENT PRACTICES?
The role of gas in developing Carbon Capture and Storage (CCS)
The Economics of Carbon Capture & Storage (CCS)
CO2 Capture and Storage Potential for Reducing CO2 Emissions
Results of Workshop Organized by
GLOBAL EFFECTS.
Presentation transcript:

1 Economics of CO 2 Storage and Sink Enhancement Options: A Utility Perspective Research Funded by DOE, TVA, and EPRI Collaborators: EPRI, MIT, Parsons, IEA GHG Programme, SFA Pacific, UTK Bert Bock

2 Utility Options Internal operations –Improved energy efficiency –Fuels containing less carbon per unit of energy –Renewable energy sources External operations –Storage of captured CO 2 –CO 2 storage in forests and soils (CO 2 sink enhancement) Utilities need better economic assessment of external options

3 CO 2 Sequestration Options Compared Storage of Captured CO 2 --Depleted gas reservoirs --Depleted oil reservoirs --Deep saline aquifers --Enhanced oil recovery --Enhanced coalbed methane recovery --Ocean pipeline --Ocean tanker CO 2 Sink Enhancement --Forest management New plantations Restoration Agro-forestry Avoided deforestation --Cropland via reducing tillage (USA)

4 Challenges CO 2 capture costs + storage costs (DOE/EPRI, 2000) (this project) compared with CO 2 sink enhancement costs (this project) Estimating net reductions in GHG emissions (avoided GHG emissions) Life-cycle basis (cradle to grave) Accounting for timing differences –Costs of Storage and sink enhancement (NPV) –Avoided GHG emissions Revenues from GHG markets (NPV) Avoided carbon taxes (NPV) 100-year planning horizon

5 Net Cost of Storing Captured CO 2

6 CO 2 Capture Cost (DOE/EPRI, 2000) IGCC reference plant (425 MW net, 43% efficiency) vs. IGCC CO 2 capture plant (404 MW net, 37% efficiency) $64/tonne C eq. LC GHG avoided in capture process IGCC CO 2 capture costs are 3 to 7 times > typical storage costs without by-products

7 CO 2 Capture + Net Storage Costs: Base Cases, NPV Basis CO 2 Storage Process$/tonne C eq. LC GHG avoided Enhanced oil recovery15 Enhanced coalbed methane recovery41 Depleted gas reservoir86 Depleted oil reservoir81 Deep saline aquifer77 Ocean pipeline89 Ocean tanker143

8 Deep Aquifer Example: COE, $/MWh Reference plant (no capture)43.98 CO 2 Capture costs (years 1-20)11.10 CO 2 Storage costs (years 1-20) 2.27 Monitoring costs, etc. (years ) 0.03 Total cost of electricity57.38

9 Conclusions Methodologies were developed to compare economics of a wide range of CO 2 storage and sink enhancement options from a utility perspective Base-case cost ranges: –CO 2 capture and storage ($15 to 145/tonne CE avoided) –Forest management Aboveground ($10 to 175/tonne CE avoided) “All” ($-160 to 55/tonne CE avoided) –Cropland via reducing tillage ($50 to 90/tonne CE avoided) Significant opportunity for early adopters to reap “low hanging fruit”

10 Forestry Cases Management TypeType of TreesCountry/region New PlantationLoblolly pineUSA (South) New PlantationDouglas FirUSA (Pacific NW) New PlantationSpanish CedarMexico RestorationPine-oakMexico RestorationMiomboSouthern Africa Agro-forestryMango-TamarindIndia (South) Avoidance of deforestation VariousMexico

11 Costs: Medium Productivity Cases, NPV Basis

12 Reducing Tillage on U.S. Cropland: Factors Affecting Costs ($/tonne C eq. LC GHG avoided) Adoption incentive paid to farmer by utility = f (Δ crop yield, Δ crop production costs, Δ risk) Transaction costs Monitoring costs Δ C sequestered in soil organic matter Δ N 2 O emissions from soil Δ GHG emissions from crop production inputs

13 Intensive Till to No Till Costs: Base Cases, NPV Basis