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CO2 Summit II: Technologies and Opportunities Proceedings
Spring 4-11-2016
The critical role of CCS and EOR in managing US
carbon emissions
Brad Crabtree
Great Plains Institute, bcrabtree@gpisd.net
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Recommended Citation
Brad Crabtree, "The critical role of CCS and EOR in managing US carbon emissions" in "CO2 Summit II: Technologies and
Opportunities", Holly Krutka, Tri-State Generation & Transmission Association Inc. Frank Zhu, UOP/Honeywell Eds, ECI
Symposium Series, (2016). http://dc.engconfintl.org/co2_summit2/3
The Critical Role of CCS and EOR in
Managing U.S. Carbon Emissions
Brad Crabtree
Great Plains Institute
CO2 Summit II: Technologies and Opportunities
Santa Ana Pueblo, New Mexico, USA
Overview
 Essential Role of CCS in Carbon Mitigation
 Evolution and Potential of CO2-EOR as a Proven
Commercial CCS Pathway
 Need and Growing Support for Incentives to Spur
Commercial Project Deployment and Bring Down Costs
 Relative Cost of CCS Incentives Compared to
Comparable Federal Policies and Their Potential to
Generate Net Federal Revenue
 Growing Role of the States in Supporting Incentives
Policy
A Decade Ago:
 Concerns over peak oil.
 Accelerating global
demand for oil + slow
growth in proved reserves =
looming energy insecurity.
 U.S. environmental debate
focused primarily on future
of coal.
Mounting Climate Concerns and Unconventional Oil
and Gas Development have Transformed the Energy
Landscape and Environmental Debate
Source: Deborah Gordon, Carnegie Endowment.
Environmental and climate activism has
expanded from stopping coal to
opposing unconventional oil and gas (
hydraulic fracturing, Keystone XL,
divestment campaigns, etc.)
Today: The End of Scarcity
Source: Deborah Gordon, Carnegie Endowment.
Horizontal
Drilling/
Hydraulic
Fracturing
Innovation
Permissive
regulation of
private
lands drilling
Increased
federal
energy
efficiency
requirements
Transformation
of American
energy &
economic
prospects
 Remaining coal, oil, natural gas and other
hydrocarbon reserves contain far more carbon
than can be released and still stabilize future
levels of atmospheric CO2 . . . IF produced and
used in conventional ways.
 Increasingly polarized national environmental
debate—business as usual vs. keep it in the
ground—risks gridlock and poor outcomes for
industry and environmental advocates alike.
The Future: Energy Security Opportunity and Carbon Challenge
Source: Deborah Gordon, Carnegie Endowment.
 Projections of hundreds of
billions barrels of oil in the
Bakken alone—just one major
unconventional oil play—
illustrate the size of the energy
and economic prize . . . and
the potential for future global
carbon emissions.
 Given rapid innovation in
hydrocarbon recovery and
humanity’s propensity to
exploit available resources,
“keeping it in the ground”
looks like a risky climate
strategy.
The Bakken: A Microcosm of Our Broader
Energy Security and Carbon Challenge
Source: Energy & Environmental Research Center
CO2-Enhanced Oil Recovery: A Technical, Economic and
Political Down Payment on Large-Scale Carbon Mitigation
 What if we instead aligned the global need to produce more energy
and industry’s interest in increasing hydrocarbon recovery with the
imperative to reduce the carbon footprint of energy production?
 Accelerating commercial deployment of carbon capture and storage
(CCS) through the capture of CO2 from power plants and industrial
facilities for use in enhanced oil recovery (CO2-EOR) can:
 Deliver a triple-win of energy security, economic development and
emissions reductions;
 Further develop the technical capability and build out the
infrastructure essential to long-term, large-scale carbon
management.
 Help build a political consensus on climate that can enable
achievement of mid-century emissions reduction targets.
Carbon Capture and Storage is Essential to Achieving
Mid-Century Carbon Reductions and Doing So Affordably
• Under the IEA’s scenario to limit warming to
2° C, CCS contributes 14% of 2015-2050 CO2
reductions.
• CCS is an essential control strategy for
industrial sources, not just coal and natural
gas power generation:
o In IEA’s 2° C scenario, 45% of CO2
captured comes from industrial sources.
• The IPCC’s 5th Assessment found the overall
cost of carbon mitigation under the 2° C
scenario to cost 138% more, if CCS was
excluded.
• IEA concludes that renewables and
efficiency alone simply cannot achieve the
2° C target.
How CO2-EOR Works
9
Source: DOE CO2 EOR Primer, 2009
OOIP Recovered
10 - 20% Primary
10 - 25% H2O Flood
7 - 20% CO2 Flood
Production Fluids (Oil, Gas
and Water) Separation and
Storage Facilities
Four Ways CO2 Helps Recover Oil:
• Interfacial Tension Reduced:
• Oil sticks less to rock
• Swelling of Oil:
• Oil & CO2 combine as
a single phase, providing
more efficient miscible displacement
• Improved Viscosity:
• Viscosity of the
combined miscible
phase is reduced,
allowing the fluid to be
flushed to producers
• WAG Injection:
• CO2 is introduced in
alternating cycles with H2O
• Provides greater sweep efficiency in
the flood
• Aids in controlling gas production
How Does Using CO2 to Produce More Oil
Actually Reduce Carbon Emissions?
 CO2 captured, transported by pipeline and injected for EOR ultimately
remains safely and permanently stored in the oil field, thus avoiding the
power plant and industrial emissions that would otherwise occur.
 More CO2 is injected than is emitted by the oil produced.
 Domestic oil produced through CO2-EOR tends to displace oil we would
otherwise import and consume.
 The U.S. tends to import heavier crudes that are more carbon intensive to
refine than lighter crude produced through CO2-EOR.
 The sale of CO2 for use in oil production helps finance the build-out of
carbon capture and pipeline infrastructure that can be used long term for
CCS, even after oil production stops.
What is the Net Carbon Balance of CO2-EOR?
Fortunately, CO2-EOR is a Safe, Commercially
Proven and Long-Standing CCS Pathway in the U.S.
• Over 40 years experience, beginning at
significant scale in West Texas in 1972.
• Over 300,000 barrels of oil per day:
o 110 million barrels annually, or about 4 percent of U.S. domestic
production.
• Over 4,500 miles of CO2 pipelines
• Over 67 million tons of CO2 injected and stored
each year.
• 13 million tons of CO2 from man-made sources.
• To date, more than 1.5 billion barrels of oil have
been recovered via CO2-EOR. Source: Melzer, 2012
Map of Current CO2-EOR Activity and Infrastructure:
Over 4,500 Miles of CO2 Pipelines in U.S. Today
Source: Oil & Gas Journal, 2014, available at: http://www.ogj.com/content/dam/ogj/print-articles/volume-112/april-07/z140407OGJsku01.jpg
History of CO2-EOR Production and Projects in
US: Steady Growth Despite Oil Price Volatility
Ref: Oil & Gas Journal Biennial Production Volumes
(Mar of even Number Years)
CO2-EOR is Not a Niche: Oil Production Potential is Vast
• An additional 21.4-36.7 billion barrels of oil could be recovered with current best
practices, potentially more than doubling current U.S. proven reserves.
• “Next generation” EOR technology could potentially increase recoverable
domestic oil from EOR to 63.3 to 79.3 billion barrels, storing 16.2-20.4 billion metric
tons of CO2 that would otherwise be released into the atmosphere.
Source: Wallace, Kuuskraa, DiPietro., National Energy Technology Laboratory, 2013. “An In-depth Look at ‘Next
Generation’ CO2-EOR Technology”
Available at: http://www.netl.doe.gov/energy-analyses/pubs/Disag%20Next%20Gen%20CO2%20EOR_full_v6.pdf
The Commercial Carbon Storage Potential is Also Vast
Resource
Area
Demand for
Purchased CO2
(Billion Metric Tons)
Current
Technology
Next Generation
Technology
Lower-48, Onshore 9 21
Lower-48, Offshore ** 5
Total 9 26
*At oil prices of $80 to $90/B, CO2 costs of $36 to $40/mt and 20% ROR (before tax).
**Less than 0.5 Bmt.
CO2 Demand:
Current and “Next Generation”
CO2-EOR Technology
• According to Advanced Resources
International, economically viable
demand for CO2 from conventional
domestic oil fields is 9 billion metric
tons of CO2.
• Use of next generation technologies
increases this to 26 billion metric tons
of CO2.
• This equals 40 years of CO2 capture
from 45 to 130 GWs of coal-fired
power.
• At a CO2 price of $36/mt, CO2-EOR
would provide a $300 to $900 billion
revenue market to suppliers of CO2.
Source: Advanced Resources International, 2016
17
CO2 Storage and Oil Recovery Opportunities from CO2 Enhanced Oil RecoveryDRAFT June 11, 2015
Geologically Viable CO2 Storage With
By-Product Recovery of Oil!
Source: Advanced Resources International, 2015
The 9.6 billion barrels of by-product oil provides net revenues of $585 billion*, equal to
$52/mt of CO2 stored, with the produced oil being highly carbon negative.
County
CO2
Storage
By-Product
Oil Recovery
Purchased CO2/
Oil Recovery Ratio
By-Product
Net Revenues*
(Tcf) (B mt) (B bbls) (Mcf/Bbl) (mt/Bbl) ($US, Billion)
Gaines 49 2.6 2.6 18.7 0.99 $158
Yoakum 20 1.1 1.3 15.7 0.83 $78
Terry 64 3.4 3.1 20.5 1.10 $192
Dawson 76 4.0 2.6 29.4 1.55 $157
Total 209 11.1 9.6 21.7 1.16 $585
*At an $80 per barrel oil price, after excluding a net revenue interest of 80% and a 5% state severance tax.
San Andres ROZ "Fairway" Resource, Four-County Area of West Texas
| JAF2016_021.PPT | April 7, 2016 | www.adv-res.com Preliminary
The Opportunity is National in Scope:
Active and Potential CO2-EOR States
And Even More States Could Participate With the Development of
a National CO2 Pipeline Network . . . .
19
Current CO2 Pipelines in the U.S.
CO2 Pipeline Capacity – by diameter
20
CO2 Pipelines and Ethanol/Fertilizer Plants
21
CO2 Pipelines and Coal-Fired Power Plants
22
CO2 Pipelines and Ethanol/Fertilizer/Coal Plants
23
Possible Future CO2 Pipeline Corridors
24
Source: National Energy Technology Laboratory, 2012 Carbon Sequestration
Atlas of the United States and Canada - Fourth Edition (Atlas IV).
Realizing CO2-EOR’s Full Potential Will Require More
CO2 from Power Plants and Industrial Facilities!
Map of Stationary CO2 Sources in the U.S.
Commercial Scale CO2 Capture has Occurred at
Industrial Facilities for Years and Even Decades
Examples of commercial industrial CO2
capture for EOR and other geologic
storage:
 Natural gas processing
 Fermentation of ethanol
 Fertilizer production
 Refinery hydrogen production
 Industrial gasification (non-IGCC)
 Steel production (just now being
demonstrated in the UAE)
Air Products Steam Methane Reformer, Texas
Emirates Steel CCS Project, UAE
Commercial Scale Demonstration of CO2 Capture Underway in
Power Sector, but Remains Costly and We Need More Projects
28
Increasing the Supply of both Industrial and Power Plant CO2
Will Require Financial Incentives to Drive Commercial Project
Deployment and Reduce Costs of CO2 Capture
Power plant CO2
supply much
larger
NEORI Objectives:
1. Enact federal incentives to expand commercial deployment of
CO2 capture and pipeline transport from power plants and from
gas processing, ethanol, fertilizer, chemicals, iron and steel,
Portland cement, and other industrial facilities;
2. Encourage state policies to complement federal incentives and
accelerate deployment;
3. Increase awareness of CO2-EOR’s economic and environmental
benefits among policymakers, the media and public; and
4. Conduct analyses of the benefits of CO2-EOR and understand
the impacts of different incentive policies.
The National Enhanced Oil Recovery Initiative (NEORI) Launched
in 2011 to Support the Adoption of New CCS Incentives
NEORI Participants: CO2-EOR’s Many Benefits Unite
Diverse Fossil Energy, Labor & Environmental Interests
Coal Producers
• Arch Coal
• Cloud Peak Energy
• Peabody Energy
Electric Power Generators
• Great River Energy
• NRG Energy
• Summit Power Group
• Tenaska Energy
Industrial CO2 Suppliers and
Technology Vendors
• Air Products
• Alstom
• Archer Daniels Midland
• C12
• GE Oil & Gas
• Jupiter Oxygen
• LI-COR Biosciences
• Linde
• Praxair
Project Developers
• Lake Charles Methanol
Environmental NGOs
• Clean Air Task Force
• Natural Resources Defense
Council
• Wyoming Outdoor Council
Labor Unions
• AFL-CIO
• International Brotherhood of
Boilermakers
• International Brotherhood of
Electrical Workers
• SMART Transportation Division
• United Mine Workers of
America
• Utility Workers Union of
America
Academic Institutions
• Enhanced Oil Recovery
Institute (University of Wyoming)
Observers
• Chaparral Energy
• Core Energy
• Interstate Oil and Gas
Compact Commission
• Mitsubishi Heavy Industries of
North America
• Tellus Operating Group
• Future prospects for federal grants and other direct
financial support for further CCUS projects and
technology demonstration are uncertain in the U.S.
• Concern over U.S. federal budget deficits and the
national debt limits political support for such options.
Current U.S. Federal Policy for Deployment of Carbon
Capture, Utilization and Storage is Uncertain and Insufficient
• The 45Q tax credit is valued at only $10 per ton
of CO2 captured and used in EOR—not enough
for new capture projects, especially at current
low oil prices.
• 45Q does not provide certainty for project
developers and investors, who cannot plan
projects with confidence that credits will be
available:
o The program is capped at 75 million tons of
CO2 and will likely run out in several years.
The Existing U.S. Federal 45Q Tax Credit for Carbon
Sequestration Illustrates the Problem
Reforming and Expanding U.S. Federal Incentives for CO2
Capture and Transport Would Achieve Important Objectives
1. Cover remaining cost gap for new CCS projects:
• Cost gap = the cost of CO2 capture, compression and pipeline
transport minus revenue received from selling CO2 to the oil industry for
use in EOR.
2. Generate new revenue to the federal government from oil production
to pay for the cost of the incentives:
• CO2 captured with incentives new oil production through EOR
new sales revenue and royalty income and payments new tax
revenue to the federal government to pay for incentives over time.
Proposed U.S. Federal Incentives Endorsed by NEORI
Key Goal:
• Reduce economic barriers to carbon capture and pipeline projects
that sell CO2 for use in EOR and result in permanent geologic storage.
Federal Incentive Options:
• Various incentives can address different economic needs of capture
and pipeline projects, including:
Expand and reform
existing US Section 45Q
Federal Tax Credit for
Carbon Sequestration (tax
credit for every ton of CO2
captured and stored
through CO2-EOR)
Authorize tax-exempt
private activity bonds
for CO2 capture
projects (allows for tax-
free bonding of
projects)
Authorize master
limited partnerships for
CO2 capture projects
(convey tax benefit of
partnerships to capture
projects)
Current State of Play on Federal Incentives
Expand and reform existing 45Q Tax Credit for Carbon Sequestration
• Improve existing production tax credit for EOR ($10/ton) and saline storage ($20/ton) and
eliminate cap on number of credits
• House leader Mike Conaway (R-TX) has introduced the bipartisan Carbon Capture Act of 2016
with 20 co-sponsors, a version of which is being considered for inclusion by the Senate in
broader tax legislation.
Authorize master limited partnerships (MLP) for carbon capture projects
• Would authorize tax-advantaged business structure for carbon capture projects that is already
available for CO2 pipelines and EOR projects
• Bipartisan legislation introduced in 2015 in Senate by Moran (R-KS) and Coons (D-DE) and
House by Poe (R-TX) and Thompson (D-CA)
Authorize private activity bonds (PABs) for carbon capture projects
• Would allow tax-exempt bonding long available for other pollution control technologies
• Bipartisan Senate legislation introduced last November by Portman (R-OH) and Bennet (D-CO)
Oil Price Stabilizations Mechanisms
• Amendment to pending Senate energy bill calls on DOE to propose a program to Congress
allowing DOE to enter into multi-year contracts to purchase CO2 at a guaranteed price to
reduce oil price risk for investors in CO2 capture projects (projects would pay DOE if oil prices
exceeded the forecasted price)
• Bipartisan sponsorship from 10 senators.
President Obama’s Tax Credit Proposal
• Investment and sequestration tax credits in President Obama’s FY 2016 and 2017 budgets
• $10/ton for EOR storage over 20 years; $50/ton for saline
• Only power sector projects eligible
Conaway Carbon Capture Act 45Q Provisions
Make tax credit permanent, eliminating cap of 75 million tons of CO2
• Already 35 million tons claimed by 2014 per IRS
• Likely exhausted in several years, so credit is uncertain and fails to attract
private investment in projects
Increase $/ton value for power plants and certain industrial sources
• From $10/ton for EOR storage to $20 and ramping up to $30 over 10 years;
From $20/ton for non-EOR storage, ramping up to $30
Address lack of tax appetite for coops, munis and project developers
• Make 45Q transferable within chain of CO2 custody (renewables once had
similar benefit)
Reduce project eligibility threshold
• Reduce current 500,000 ton capture threshold to 150,000 tons to enable
participation of more industries with smaller CO2 sources (e.g. ethanol and
fertilizer production) and important smaller scale commercial capture
technology demonstrations)
Broad Political Support!
• 30 cosponsors (22 Republicans and 8 Democrats) from 21 states and
spanning the ideological spectrum of Congress from the Freedom Caucus to
the Congressional Black Caucus.
Coalition for 45Q Tax Credit Reform is Unprecedented and Highlights
Potential for CO2-EOR to Help Build Federal Energy Policy Consensus
• Companies and organizations that signed on to joint letters to House
Ways and Means and Senate Finance in support of the Conaway 45Q
legislation included:
o Arch Coal, Cloud Peak Energy, and Peabody Energy (top five coal
producers);
o Occidental Petroleum (world’s largest EOR operator);
o ADM, Conestoga and White Energy (ethanol producers)
o AFL-CIO, Utility Workers, United Mineworkers, and SMART
Transportation (key industrial unions);
o NRDC, Clean Air Task Force, C2ES, and Third Way (national NGOs);
and
o NEORI and Coal Utilization Research Council (leading coalitions
supporting CCS).
How Much Will this Cost? Not as Much as Commonly
Understood, Even in the Power Sector
CCS incentives are competitive with renewables in electric power generation from
a cost per ton of CO2 reduced/avoided basis—the most important metric from a
climate perspective:
 NREL, in estimating impact of extending renewables tax credits concluded that
one MWh of renewable power would displace a mix of 80% natural gas and
20% coal power.
 NREL Base Case weighted average CO2 savings: (80% gas x 0.4 tons/MWh) +
(20% coal x 1.0 tons/MWh) = 0.52 tons CO2 saved per wind MWh
 This amounts to a cost for wind of $46/ton of CO2 avoided
 By contrast, $40-45/ton is commonly understood as a sufficient incentive for
CCS deployment for coal-fired power generation (including revenues from sale
of CO2 for EOR).
 Schematic on the next page shows the NREL base case (with 0.52 tons rounded
to ½ ton)
Source: Simplified presentation of analysis from Jeff Brown, Stanford University.
Costs $46 PTC to Save 1 ton with 2MWh
Save
½
ton
CO2Save
½
ton
CO2
1 MWh
1 MWh
$23
$23
Save 1.0
tons CO2
total
Treasury
pays $46
total
The Federal Revenue Argument is Even More Convincing: NEORI
Analysis of the 2014 Rockefeller-Heitkamp 45Q Tax Credit
Legislation Shows Significant Fiscal Benefits Over 40 Years
8 billion barrels of
additional U.S.
domestic oil
produced
4 billion tons of
CO2 stored that
would otherwise
be released as
greenhouse gas
emissions
Deployment of
CO2 capture and
pipelines in many
states and
regions of the U.S.
An Energy and Climate Solution That Pays for Itself: More
Incentives = More CO2 = More Oil Production = Federal
Revenue That Exceeds the Cost of Incentives Over Time
And States Play an Important Role Too: State Tax and Other
Policies Can Complement Federal Incentives to Support
Commercial Project Deployment
 NEORI has identified the following policies that state can and have
adopted to complement federal incentive policies:
o Tax credits, exemptions, or abatements for CO2 capture;
o Severance tax reductions for oil produced via CO2-EOR;
o Regulatory cost recovery approval for carbon capture projects
(especially for regulated electric utilities);
o Off-take agreements to provide a guaranteed customer and
price for a CCUS project;
o State-level bonding of CO2 pipeline projects and/or capture and
compression facilities; and
o Inclusion of CO2 capture with EOR in electricity portfolio
standards that require a certain percentage of electricity be
generated from renewable and low-carbon sources.
Nearly 20 States Have Adopted Some Form of CCS Incentive
And States Are Now Engaging at the Leadership Level and
Joining the Chorus in Support of Federal CCS Incentives
Over the past year, governors and other state officials have
endorsed three resolutions calling on Congress to enact
federal CCS incentives: Western Governors Association,
Southern States Energy Board and National Association of
Regulatory Utility Commissioners.
In September, Governor Matt Mead (R-WY) and Governor
Steve Bullock (D-MT) co-convened a State CO2-EOR
Deployment Work Group of governors’ staff and state
officials and private sector stakeholders from 14 oil and gas
and coal-producing states that is developing
recommendations on federal and state CCS-EOR incentives
policy and will work to support their implementation.
THANK YOU
Brad Crabtree
Vice President for Fossil Energy
Great Plains Institute
bcrabtree@gpisd.net
(701) 647-2041

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The best overview of CO2 EOR I've seen crabtree

  • 1. Engineering Conferences International ECI Digital Archives CO2 Summit II: Technologies and Opportunities Proceedings Spring 4-11-2016 The critical role of CCS and EOR in managing US carbon emissions Brad Crabtree Great Plains Institute, bcrabtree@gpisd.net Follow this and additional works at: http://dc.engconfintl.org/co2_summit2 Part of the Environmental Engineering Commons This Conference Proceeding is brought to you for free and open access by the Proceedings at ECI Digital Archives. It has been accepted for inclusion in CO2 Summit II: Technologies and Opportunities by an authorized administrator of ECI Digital Archives. For more information, please contact franco@bepress.com. Recommended Citation Brad Crabtree, "The critical role of CCS and EOR in managing US carbon emissions" in "CO2 Summit II: Technologies and Opportunities", Holly Krutka, Tri-State Generation & Transmission Association Inc. Frank Zhu, UOP/Honeywell Eds, ECI Symposium Series, (2016). http://dc.engconfintl.org/co2_summit2/3
  • 2. The Critical Role of CCS and EOR in Managing U.S. Carbon Emissions Brad Crabtree Great Plains Institute CO2 Summit II: Technologies and Opportunities Santa Ana Pueblo, New Mexico, USA
  • 3. Overview  Essential Role of CCS in Carbon Mitigation  Evolution and Potential of CO2-EOR as a Proven Commercial CCS Pathway  Need and Growing Support for Incentives to Spur Commercial Project Deployment and Bring Down Costs  Relative Cost of CCS Incentives Compared to Comparable Federal Policies and Their Potential to Generate Net Federal Revenue  Growing Role of the States in Supporting Incentives Policy
  • 4. A Decade Ago:  Concerns over peak oil.  Accelerating global demand for oil + slow growth in proved reserves = looming energy insecurity.  U.S. environmental debate focused primarily on future of coal. Mounting Climate Concerns and Unconventional Oil and Gas Development have Transformed the Energy Landscape and Environmental Debate Source: Deborah Gordon, Carnegie Endowment.
  • 5. Environmental and climate activism has expanded from stopping coal to opposing unconventional oil and gas ( hydraulic fracturing, Keystone XL, divestment campaigns, etc.) Today: The End of Scarcity Source: Deborah Gordon, Carnegie Endowment. Horizontal Drilling/ Hydraulic Fracturing Innovation Permissive regulation of private lands drilling Increased federal energy efficiency requirements Transformation of American energy & economic prospects
  • 6.  Remaining coal, oil, natural gas and other hydrocarbon reserves contain far more carbon than can be released and still stabilize future levels of atmospheric CO2 . . . IF produced and used in conventional ways.  Increasingly polarized national environmental debate—business as usual vs. keep it in the ground—risks gridlock and poor outcomes for industry and environmental advocates alike. The Future: Energy Security Opportunity and Carbon Challenge Source: Deborah Gordon, Carnegie Endowment.
  • 7.  Projections of hundreds of billions barrels of oil in the Bakken alone—just one major unconventional oil play— illustrate the size of the energy and economic prize . . . and the potential for future global carbon emissions.  Given rapid innovation in hydrocarbon recovery and humanity’s propensity to exploit available resources, “keeping it in the ground” looks like a risky climate strategy. The Bakken: A Microcosm of Our Broader Energy Security and Carbon Challenge Source: Energy & Environmental Research Center
  • 8. CO2-Enhanced Oil Recovery: A Technical, Economic and Political Down Payment on Large-Scale Carbon Mitigation  What if we instead aligned the global need to produce more energy and industry’s interest in increasing hydrocarbon recovery with the imperative to reduce the carbon footprint of energy production?  Accelerating commercial deployment of carbon capture and storage (CCS) through the capture of CO2 from power plants and industrial facilities for use in enhanced oil recovery (CO2-EOR) can:  Deliver a triple-win of energy security, economic development and emissions reductions;  Further develop the technical capability and build out the infrastructure essential to long-term, large-scale carbon management.  Help build a political consensus on climate that can enable achievement of mid-century emissions reduction targets.
  • 9. Carbon Capture and Storage is Essential to Achieving Mid-Century Carbon Reductions and Doing So Affordably • Under the IEA’s scenario to limit warming to 2° C, CCS contributes 14% of 2015-2050 CO2 reductions. • CCS is an essential control strategy for industrial sources, not just coal and natural gas power generation: o In IEA’s 2° C scenario, 45% of CO2 captured comes from industrial sources. • The IPCC’s 5th Assessment found the overall cost of carbon mitigation under the 2° C scenario to cost 138% more, if CCS was excluded. • IEA concludes that renewables and efficiency alone simply cannot achieve the 2° C target.
  • 10. How CO2-EOR Works 9 Source: DOE CO2 EOR Primer, 2009 OOIP Recovered 10 - 20% Primary 10 - 25% H2O Flood 7 - 20% CO2 Flood Production Fluids (Oil, Gas and Water) Separation and Storage Facilities Four Ways CO2 Helps Recover Oil: • Interfacial Tension Reduced: • Oil sticks less to rock • Swelling of Oil: • Oil & CO2 combine as a single phase, providing more efficient miscible displacement • Improved Viscosity: • Viscosity of the combined miscible phase is reduced, allowing the fluid to be flushed to producers • WAG Injection: • CO2 is introduced in alternating cycles with H2O • Provides greater sweep efficiency in the flood • Aids in controlling gas production
  • 11. How Does Using CO2 to Produce More Oil Actually Reduce Carbon Emissions?  CO2 captured, transported by pipeline and injected for EOR ultimately remains safely and permanently stored in the oil field, thus avoiding the power plant and industrial emissions that would otherwise occur.  More CO2 is injected than is emitted by the oil produced.  Domestic oil produced through CO2-EOR tends to displace oil we would otherwise import and consume.  The U.S. tends to import heavier crudes that are more carbon intensive to refine than lighter crude produced through CO2-EOR.  The sale of CO2 for use in oil production helps finance the build-out of carbon capture and pipeline infrastructure that can be used long term for CCS, even after oil production stops.
  • 12. What is the Net Carbon Balance of CO2-EOR?
  • 13. Fortunately, CO2-EOR is a Safe, Commercially Proven and Long-Standing CCS Pathway in the U.S. • Over 40 years experience, beginning at significant scale in West Texas in 1972. • Over 300,000 barrels of oil per day: o 110 million barrels annually, or about 4 percent of U.S. domestic production. • Over 4,500 miles of CO2 pipelines • Over 67 million tons of CO2 injected and stored each year. • 13 million tons of CO2 from man-made sources. • To date, more than 1.5 billion barrels of oil have been recovered via CO2-EOR. Source: Melzer, 2012
  • 14. Map of Current CO2-EOR Activity and Infrastructure: Over 4,500 Miles of CO2 Pipelines in U.S. Today Source: Oil & Gas Journal, 2014, available at: http://www.ogj.com/content/dam/ogj/print-articles/volume-112/april-07/z140407OGJsku01.jpg
  • 15. History of CO2-EOR Production and Projects in US: Steady Growth Despite Oil Price Volatility Ref: Oil & Gas Journal Biennial Production Volumes (Mar of even Number Years)
  • 16. CO2-EOR is Not a Niche: Oil Production Potential is Vast • An additional 21.4-36.7 billion barrels of oil could be recovered with current best practices, potentially more than doubling current U.S. proven reserves. • “Next generation” EOR technology could potentially increase recoverable domestic oil from EOR to 63.3 to 79.3 billion barrels, storing 16.2-20.4 billion metric tons of CO2 that would otherwise be released into the atmosphere. Source: Wallace, Kuuskraa, DiPietro., National Energy Technology Laboratory, 2013. “An In-depth Look at ‘Next Generation’ CO2-EOR Technology” Available at: http://www.netl.doe.gov/energy-analyses/pubs/Disag%20Next%20Gen%20CO2%20EOR_full_v6.pdf
  • 17. The Commercial Carbon Storage Potential is Also Vast Resource Area Demand for Purchased CO2 (Billion Metric Tons) Current Technology Next Generation Technology Lower-48, Onshore 9 21 Lower-48, Offshore ** 5 Total 9 26 *At oil prices of $80 to $90/B, CO2 costs of $36 to $40/mt and 20% ROR (before tax). **Less than 0.5 Bmt. CO2 Demand: Current and “Next Generation” CO2-EOR Technology • According to Advanced Resources International, economically viable demand for CO2 from conventional domestic oil fields is 9 billion metric tons of CO2. • Use of next generation technologies increases this to 26 billion metric tons of CO2. • This equals 40 years of CO2 capture from 45 to 130 GWs of coal-fired power. • At a CO2 price of $36/mt, CO2-EOR would provide a $300 to $900 billion revenue market to suppliers of CO2. Source: Advanced Resources International, 2016
  • 18. 17 CO2 Storage and Oil Recovery Opportunities from CO2 Enhanced Oil RecoveryDRAFT June 11, 2015 Geologically Viable CO2 Storage With By-Product Recovery of Oil! Source: Advanced Resources International, 2015 The 9.6 billion barrels of by-product oil provides net revenues of $585 billion*, equal to $52/mt of CO2 stored, with the produced oil being highly carbon negative. County CO2 Storage By-Product Oil Recovery Purchased CO2/ Oil Recovery Ratio By-Product Net Revenues* (Tcf) (B mt) (B bbls) (Mcf/Bbl) (mt/Bbl) ($US, Billion) Gaines 49 2.6 2.6 18.7 0.99 $158 Yoakum 20 1.1 1.3 15.7 0.83 $78 Terry 64 3.4 3.1 20.5 1.10 $192 Dawson 76 4.0 2.6 29.4 1.55 $157 Total 209 11.1 9.6 21.7 1.16 $585 *At an $80 per barrel oil price, after excluding a net revenue interest of 80% and a 5% state severance tax. San Andres ROZ "Fairway" Resource, Four-County Area of West Texas | JAF2016_021.PPT | April 7, 2016 | www.adv-res.com Preliminary
  • 19. The Opportunity is National in Scope: Active and Potential CO2-EOR States
  • 20. And Even More States Could Participate With the Development of a National CO2 Pipeline Network . . . . 19 Current CO2 Pipelines in the U.S.
  • 21. CO2 Pipeline Capacity – by diameter 20
  • 22. CO2 Pipelines and Ethanol/Fertilizer Plants 21
  • 23. CO2 Pipelines and Coal-Fired Power Plants 22
  • 24. CO2 Pipelines and Ethanol/Fertilizer/Coal Plants 23
  • 25. Possible Future CO2 Pipeline Corridors 24
  • 26. Source: National Energy Technology Laboratory, 2012 Carbon Sequestration Atlas of the United States and Canada - Fourth Edition (Atlas IV). Realizing CO2-EOR’s Full Potential Will Require More CO2 from Power Plants and Industrial Facilities! Map of Stationary CO2 Sources in the U.S.
  • 27. Commercial Scale CO2 Capture has Occurred at Industrial Facilities for Years and Even Decades Examples of commercial industrial CO2 capture for EOR and other geologic storage:  Natural gas processing  Fermentation of ethanol  Fertilizer production  Refinery hydrogen production  Industrial gasification (non-IGCC)  Steel production (just now being demonstrated in the UAE) Air Products Steam Methane Reformer, Texas Emirates Steel CCS Project, UAE
  • 28. Commercial Scale Demonstration of CO2 Capture Underway in Power Sector, but Remains Costly and We Need More Projects
  • 29. 28 Increasing the Supply of both Industrial and Power Plant CO2 Will Require Financial Incentives to Drive Commercial Project Deployment and Reduce Costs of CO2 Capture Power plant CO2 supply much larger
  • 30. NEORI Objectives: 1. Enact federal incentives to expand commercial deployment of CO2 capture and pipeline transport from power plants and from gas processing, ethanol, fertilizer, chemicals, iron and steel, Portland cement, and other industrial facilities; 2. Encourage state policies to complement federal incentives and accelerate deployment; 3. Increase awareness of CO2-EOR’s economic and environmental benefits among policymakers, the media and public; and 4. Conduct analyses of the benefits of CO2-EOR and understand the impacts of different incentive policies. The National Enhanced Oil Recovery Initiative (NEORI) Launched in 2011 to Support the Adoption of New CCS Incentives
  • 31. NEORI Participants: CO2-EOR’s Many Benefits Unite Diverse Fossil Energy, Labor & Environmental Interests Coal Producers • Arch Coal • Cloud Peak Energy • Peabody Energy Electric Power Generators • Great River Energy • NRG Energy • Summit Power Group • Tenaska Energy Industrial CO2 Suppliers and Technology Vendors • Air Products • Alstom • Archer Daniels Midland • C12 • GE Oil & Gas • Jupiter Oxygen • LI-COR Biosciences • Linde • Praxair Project Developers • Lake Charles Methanol Environmental NGOs • Clean Air Task Force • Natural Resources Defense Council • Wyoming Outdoor Council Labor Unions • AFL-CIO • International Brotherhood of Boilermakers • International Brotherhood of Electrical Workers • SMART Transportation Division • United Mine Workers of America • Utility Workers Union of America Academic Institutions • Enhanced Oil Recovery Institute (University of Wyoming) Observers • Chaparral Energy • Core Energy • Interstate Oil and Gas Compact Commission • Mitsubishi Heavy Industries of North America • Tellus Operating Group
  • 32. • Future prospects for federal grants and other direct financial support for further CCUS projects and technology demonstration are uncertain in the U.S. • Concern over U.S. federal budget deficits and the national debt limits political support for such options. Current U.S. Federal Policy for Deployment of Carbon Capture, Utilization and Storage is Uncertain and Insufficient
  • 33. • The 45Q tax credit is valued at only $10 per ton of CO2 captured and used in EOR—not enough for new capture projects, especially at current low oil prices. • 45Q does not provide certainty for project developers and investors, who cannot plan projects with confidence that credits will be available: o The program is capped at 75 million tons of CO2 and will likely run out in several years. The Existing U.S. Federal 45Q Tax Credit for Carbon Sequestration Illustrates the Problem
  • 34. Reforming and Expanding U.S. Federal Incentives for CO2 Capture and Transport Would Achieve Important Objectives 1. Cover remaining cost gap for new CCS projects: • Cost gap = the cost of CO2 capture, compression and pipeline transport minus revenue received from selling CO2 to the oil industry for use in EOR. 2. Generate new revenue to the federal government from oil production to pay for the cost of the incentives: • CO2 captured with incentives new oil production through EOR new sales revenue and royalty income and payments new tax revenue to the federal government to pay for incentives over time.
  • 35. Proposed U.S. Federal Incentives Endorsed by NEORI Key Goal: • Reduce economic barriers to carbon capture and pipeline projects that sell CO2 for use in EOR and result in permanent geologic storage. Federal Incentive Options: • Various incentives can address different economic needs of capture and pipeline projects, including: Expand and reform existing US Section 45Q Federal Tax Credit for Carbon Sequestration (tax credit for every ton of CO2 captured and stored through CO2-EOR) Authorize tax-exempt private activity bonds for CO2 capture projects (allows for tax- free bonding of projects) Authorize master limited partnerships for CO2 capture projects (convey tax benefit of partnerships to capture projects)
  • 36. Current State of Play on Federal Incentives Expand and reform existing 45Q Tax Credit for Carbon Sequestration • Improve existing production tax credit for EOR ($10/ton) and saline storage ($20/ton) and eliminate cap on number of credits • House leader Mike Conaway (R-TX) has introduced the bipartisan Carbon Capture Act of 2016 with 20 co-sponsors, a version of which is being considered for inclusion by the Senate in broader tax legislation. Authorize master limited partnerships (MLP) for carbon capture projects • Would authorize tax-advantaged business structure for carbon capture projects that is already available for CO2 pipelines and EOR projects • Bipartisan legislation introduced in 2015 in Senate by Moran (R-KS) and Coons (D-DE) and House by Poe (R-TX) and Thompson (D-CA) Authorize private activity bonds (PABs) for carbon capture projects • Would allow tax-exempt bonding long available for other pollution control technologies • Bipartisan Senate legislation introduced last November by Portman (R-OH) and Bennet (D-CO) Oil Price Stabilizations Mechanisms • Amendment to pending Senate energy bill calls on DOE to propose a program to Congress allowing DOE to enter into multi-year contracts to purchase CO2 at a guaranteed price to reduce oil price risk for investors in CO2 capture projects (projects would pay DOE if oil prices exceeded the forecasted price) • Bipartisan sponsorship from 10 senators. President Obama’s Tax Credit Proposal • Investment and sequestration tax credits in President Obama’s FY 2016 and 2017 budgets • $10/ton for EOR storage over 20 years; $50/ton for saline • Only power sector projects eligible
  • 37. Conaway Carbon Capture Act 45Q Provisions Make tax credit permanent, eliminating cap of 75 million tons of CO2 • Already 35 million tons claimed by 2014 per IRS • Likely exhausted in several years, so credit is uncertain and fails to attract private investment in projects Increase $/ton value for power plants and certain industrial sources • From $10/ton for EOR storage to $20 and ramping up to $30 over 10 years; From $20/ton for non-EOR storage, ramping up to $30 Address lack of tax appetite for coops, munis and project developers • Make 45Q transferable within chain of CO2 custody (renewables once had similar benefit) Reduce project eligibility threshold • Reduce current 500,000 ton capture threshold to 150,000 tons to enable participation of more industries with smaller CO2 sources (e.g. ethanol and fertilizer production) and important smaller scale commercial capture technology demonstrations) Broad Political Support! • 30 cosponsors (22 Republicans and 8 Democrats) from 21 states and spanning the ideological spectrum of Congress from the Freedom Caucus to the Congressional Black Caucus.
  • 38. Coalition for 45Q Tax Credit Reform is Unprecedented and Highlights Potential for CO2-EOR to Help Build Federal Energy Policy Consensus • Companies and organizations that signed on to joint letters to House Ways and Means and Senate Finance in support of the Conaway 45Q legislation included: o Arch Coal, Cloud Peak Energy, and Peabody Energy (top five coal producers); o Occidental Petroleum (world’s largest EOR operator); o ADM, Conestoga and White Energy (ethanol producers) o AFL-CIO, Utility Workers, United Mineworkers, and SMART Transportation (key industrial unions); o NRDC, Clean Air Task Force, C2ES, and Third Way (national NGOs); and o NEORI and Coal Utilization Research Council (leading coalitions supporting CCS).
  • 39. How Much Will this Cost? Not as Much as Commonly Understood, Even in the Power Sector CCS incentives are competitive with renewables in electric power generation from a cost per ton of CO2 reduced/avoided basis—the most important metric from a climate perspective:  NREL, in estimating impact of extending renewables tax credits concluded that one MWh of renewable power would displace a mix of 80% natural gas and 20% coal power.  NREL Base Case weighted average CO2 savings: (80% gas x 0.4 tons/MWh) + (20% coal x 1.0 tons/MWh) = 0.52 tons CO2 saved per wind MWh  This amounts to a cost for wind of $46/ton of CO2 avoided  By contrast, $40-45/ton is commonly understood as a sufficient incentive for CCS deployment for coal-fired power generation (including revenues from sale of CO2 for EOR).  Schematic on the next page shows the NREL base case (with 0.52 tons rounded to ½ ton) Source: Simplified presentation of analysis from Jeff Brown, Stanford University.
  • 40. Costs $46 PTC to Save 1 ton with 2MWh Save ½ ton CO2Save ½ ton CO2 1 MWh 1 MWh $23 $23 Save 1.0 tons CO2 total Treasury pays $46 total
  • 41. The Federal Revenue Argument is Even More Convincing: NEORI Analysis of the 2014 Rockefeller-Heitkamp 45Q Tax Credit Legislation Shows Significant Fiscal Benefits Over 40 Years 8 billion barrels of additional U.S. domestic oil produced 4 billion tons of CO2 stored that would otherwise be released as greenhouse gas emissions Deployment of CO2 capture and pipelines in many states and regions of the U.S.
  • 42. An Energy and Climate Solution That Pays for Itself: More Incentives = More CO2 = More Oil Production = Federal Revenue That Exceeds the Cost of Incentives Over Time
  • 43. And States Play an Important Role Too: State Tax and Other Policies Can Complement Federal Incentives to Support Commercial Project Deployment  NEORI has identified the following policies that state can and have adopted to complement federal incentive policies: o Tax credits, exemptions, or abatements for CO2 capture; o Severance tax reductions for oil produced via CO2-EOR; o Regulatory cost recovery approval for carbon capture projects (especially for regulated electric utilities); o Off-take agreements to provide a guaranteed customer and price for a CCUS project; o State-level bonding of CO2 pipeline projects and/or capture and compression facilities; and o Inclusion of CO2 capture with EOR in electricity portfolio standards that require a certain percentage of electricity be generated from renewable and low-carbon sources.
  • 44. Nearly 20 States Have Adopted Some Form of CCS Incentive
  • 45. And States Are Now Engaging at the Leadership Level and Joining the Chorus in Support of Federal CCS Incentives Over the past year, governors and other state officials have endorsed three resolutions calling on Congress to enact federal CCS incentives: Western Governors Association, Southern States Energy Board and National Association of Regulatory Utility Commissioners. In September, Governor Matt Mead (R-WY) and Governor Steve Bullock (D-MT) co-convened a State CO2-EOR Deployment Work Group of governors’ staff and state officials and private sector stakeholders from 14 oil and gas and coal-producing states that is developing recommendations on federal and state CCS-EOR incentives policy and will work to support their implementation.
  • 46. THANK YOU Brad Crabtree Vice President for Fossil Energy Great Plains Institute bcrabtree@gpisd.net (701) 647-2041