Witness Testimony
Mr. Howard Gruenspecht
Deputy Administrator Energy Information Administration 1000 Independence Avenue, SW
Washington, DC, 20585
Ultradeep Water Research and Development: What Are the Benefits?
Subcommittee on Energy and Air Quality
April 29, 2004
10:30 AM
Mr. Chairman and Members of the Committee:
I appreciate the opportunity to appear before you today to discuss the Energy
Information Administration's (EIA) recent analysis of provisions related to
ultra-deepwater and unconventional technologies incorporated as Sections 941-949
of last year's Conference Energy Bill (CEB).
EIA is the statistical and analytical agency within the Department of Energy.
We are charged with providing objective, timely, and relevant data, analysis,
and projections for the use of the Department of Energy, other government
agencies, the U.S. Congress, and the public. We do not take positions on policy
issues, but we do produce data and analysis reports that are meant to help
policymakers determine energy policy. Because the Department of Energy
Organization Act gives EIA an element of independence with respect to the
analyses that we publish, our views should not be construed as representing
those of the Department of Energy or the Administration.
In addition to collecting energy data and issuing data reports and baseline
energy projections, including the Annual Energy Outlook (AEO) with projections
of domestic markets through 2025, the EIA also prepares Service Reports that
estimate the impacts of proposed policies or review current energy issues at the
request of the Congress or the Administration. In February 2004, in response to
a request from Senator Sununu for an analysis of the CEB passed by the House in
the Fall of 2003, EIA issued a report entitled Summary Impacts of Modeled
Provisions of the 2003 Conference Energy Bill. While my testimony will focus on
EIA's analysis, it should be noted that the Office of Fossil Energy (FE) has the
lead responsibility for oil and gas technology research and development
(R&D) within the Department. Questions regarding potential for technology
advances or proposed funding to advance technology in these areas are
appropriately directed to that office rather than EIA.
EIA projections are not meant to be exact predictions of the future but
represent a likely energy future, given technological and demographic trends,
current laws and regulations, and consumer behavior as derived from known data.
EIA recognizes that projections of energy markets are highly uncertain, subject
to many random events that cannot be foreseen. Thus, the projections are not
statements of what will happen but of what might happen, given certain
assumptions.
In the interests of brevity, my testimony today does not review in detail the
provisions of Sections 941-949 of the CEB that are the subject of this hearing.
Rather, it starts with a brief discussion of the challenges inherent in modeling
the impacts of R&D programs. Then, it describes the analysis of the Section
941-949 program included in EIA's recent Service Report.
Challenges Related to the Assessment of Energy R&D Programs Two types of
uncertainty characterize the effects of proposed authorizations of Federal
R&D investments. First, the timing and level of the net change in Federal
R&D spending is often different from the authorized amount. Second, a
statistically reliable relationship between the level of R&D spending for
specific technologies and the actual outcome of that R&D has not been
developed. Even if both of these uncertainties could be definitively resolved,
the analysis is complex because the levels of private sector R&D
expenditures are usually unknown but often far exceed R&D spending by the
Federal government. Consequently, EIA cannot provide an estimate of the
incremental impact of an increase in Federal R&D spending on technological
change. Because of the limitations outlined above, EIA did not include any
R&D provisions in the main policy case, referred to as the CEB Case,
developed for its Service Report on the CEB.
However, EIA also provided the results of a sensitivity case using an
assumption of the technological impact resulting from the increases in Federal
spending on Ultra-Deepwater and Unconventional R&D contemplated by Sections
941 to 949 of the CEB. These sections of the bill would allocate $150 million
annually into a fund (the Ultra-Deepwater and Unconventional Natural Gas and
Other Petroleum Research Fund) for Federally-sponsored R&D. The money is to
come from Federal royalty payments that are allocated in each fiscal year from
2004 through 2013 and would not go through the annual appropriations process.
The R&D is to be targeted for the development of ultra-deep (greater than
1,500 meters water depth) offshore, unconventional natural gas, and other
petroleum resources. Unconventional natural gas and other petroleum resources
are "natural gas and other petroleum resources located onshore in an
economically inaccessible geological formation, including resources of small
producers."
Dedicated funding outside of the annual appropriations process implies
relatively low funding-related uncertainty for this program. However, the
uncertainty in relating increased Federal spending to technological progress
remains important. Experts in FE believe that the new R&D funding would
accelerate technological progress for the affected resources (ultra-deep
offshore oil and natural gas and unconventional natural gas production) by 50
percent over the value assumed in EIA's Reference and CEB Cases. They arrived at
this conclusion by verifying that the proposed additional R&D funding would
bring total Federal R&D spending back to the levels represented in the
Reference Case of AEO1997, which used the same rates. (Coincidently, the
Reference Case of AEO1997 has technological change rates that are comparable to
the AEO2004 High Technology Case.) The CEB Case with the added FE assumptions
regarding accelerated technological change due to the Section 941-949 program,
referred to as the FE/CEB Case, assessed the impact of the assumed accelerated
technological change on oil and natural gas supply and prices. This acceleration
is assumed to begin 2 years after the onset of R&D funding for
unconventional technologies and 5 years after the onset for ultra-deep offshore
technologies.
Impacts of the Ultra-Deepwater and Unconventional R&D Program in the CEB
Comparisons between the FE/CEB Case and the main CEB Case provide insight
into the impact of the Ultra-Deepwater and Unconventional R&D program based
on the FE assumptions regarding the technology impacts of that program. The
pattern of natural gas wellhead prices and production in the FE/CEB Case is as
expected. Successful R&D increases supply from the ultra-deep and
unconventional resources and lowers wellhead prices throughout the forecast.
Natural gas wellhead prices are as much as $0.30 per thousand cubic feet lower
than in the Reference Case and as much as $0.20 per thousand cubic feet lower
than in the CEB Case.
Between 2009 and 2025, cumulative crude oil production from the ultra-deep
offshore is more than 850 million barrels higher than in the Reference Case and
over 800 million barrels higher then the CEB Case. Cumulative natural gas
production is 3.8 trillion cubic feet higher than in the Reference Case and 3.2
trillion cubic feet higher than in the CEB Case. Obviously, if the FE
assumptions regarding technological impacts prove to be accurate, the expanded
Ultra-Deepwater and Unconventional R&D program could substantially increase
offshore and unconventional production. This, in turn, could have significant
implications for Federal and State royalty revenues. It is important to note
that the technological improvements assumed for this case would also have an
impact in producing areas outside the United States, which would potentially
affect world oil markets.
The table below summarizes key comparisons between the FE/CEB Case, the CEB
Case, and the AEO2004 Reference Case. As noted at the start of my testimony
there is significant uncertainty surrounding all energy projections. For reasons
discussed above, there is a particularly high degree of uncertainty surrounding
estimates related to the impacts of programs intended to promote improvements in
technology.
Thank you, Mr. Chairman and members of the Committee. I will be happy to
answer any questions you may have.
Impact of Increased R&D Funded by Royalty
Payments on Natural Gas and Oil Supply Using Office of Fossil Energy Assumptions
Regarding the Impact of Increased Federal R&D Spending
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2002
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2010
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2015
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2025
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AEO
2004
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CEB
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FE/
CEB
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AEO
2004
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CEB
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FE/
CEB
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AEO
2004
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CEB
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FE/
CEB
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Lower
48 Average Wellhead Gas Price
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(2002 dollars per thousand cubic feet)
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2.95
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3.40
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3.41
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3.32
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4.19
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4.10
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3.90
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4.40
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4.40
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4.35
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Natural Gas Production
(trillion
cubic feet)
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Lower
48 Production
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18.62
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19.90
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20.25
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20.42
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20.98
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21.01
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22.00
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21.29
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21.54
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22.20
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Onshore Conventional
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7.83
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7.20
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7.16
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7.17
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7.44
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7.37
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7.26
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7.09
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7.13
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6.98
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Onshore Unconventional
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5.93
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7.28
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7.51
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7.75
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8.67
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8.74
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9.66
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9.16
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9.46
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10.06
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Offshore
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4.86
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5.41
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5.57
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5.50
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4.87
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4.91
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5.09
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5.03
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4.96
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5.16
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Alaska
Production
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0.43
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0.60
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0.60
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0.60
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0.64
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0.64
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0.64
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2.71
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2.71
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2.71
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Natural
Gas Consumption
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22.78
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26.15
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25.94
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26.04
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28.03
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27.92
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28.30
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31.41
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31.54
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32.09
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Lower
48 Dry Gas Reserve Additions
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24.0
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21.2
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21.0
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22.8
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20.8
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20.6
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23.1
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19.2
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19.9
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20.0
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Onshore Conventional
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6.9
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7.0
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7.0
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6.9
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7.5
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7.4
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7.2
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6.6
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6.7
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6.6
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Onshore Unconventional
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11.5
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9.0
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8.7
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10.2
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8.9
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8.9
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11.2
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7.8
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8.1
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8.2
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Offshore
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5.6
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5.3
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5.4
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5.7
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4.3
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4.3
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4.6
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4.8
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5.1
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5.1
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Lower 48 Offshore Crude Oil Production
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(million
barrels per day)
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1.53
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2.40
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2.42
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2.42
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2.21
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2.20
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2.31
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2.06
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2.09
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2.10
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Sources: National Energy Modeling System date codes
aeo2004.d101703e, nrgbill00.d011304d, and nrgbill50.d010904a.
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