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University of Alabama-Birmingham & Partners
Selected for CO2 EOR Production & Sequestration
Demonstration Project
The DOE recently announced that is has
selected a project submitted by the University of
Alabama-Birmingham and their partners to inject CO2 for
enhanced oil recovery (EOR) into Citronelle field in
Alabama. The project will provide oilfield operators and CO2
producers improved estimates of the potential of tertiary
recovery of fields in the area and their capacity to
sequester the CO2 after completing the flood. Partners
include Denbury Resources, who operates and owns a majority
interest in the field and has a number of ongoing CO2 EOR
projects in Mississippi as well as operating the Jackson
Dome CO2 deposit and pipeline system, Southern Company, one
of the largest U.S. generators, University of Alabama,
Alabama A&M, Geological Survey of Alabama, and the
University of North Carolina. The project cost is $6
million, with DOE providing just under $3 million. A primary
objective of the project is to "improve the reliability of
computer simulations of the oil yield and sequestration
capacity of a given geologic formation and the rate at which
CO2 can be introduced into the underground formations. The
Citronelle simulations will be integrated with computer
visualizations of the migration of oil, water, and CO2, and
made available to the public." This project is the
culmination of the pre-solicitation workshop hosted by PTTC
(www.pttc.org/
workshop_presentations.htm#
co2) in Houston earlier this year.
For more on the awards, go to
www.fossil.energy.gov/news/
techlines/2006/06050-DOE_
Awards_EOR_Project.html.
DOE Selects 7 New Projects in the Deep Trek High Temperature,
High Pressure Program
At a recent DOE workshop on High
Temperature, High Pressure research technology that was
facilitated by PTTC (www.pttc.org/
Workshop_HTHP/HTHP_Pres
entations.htm), seven new awards
were announced. The Deep Trek
and related Deep Gas Imaging and Deep Resource Assessment
programs were initiated in 2001 to support efforts to
advance the understanding of deep gas environments and the
development of new technologies
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that
promise to dramatically reduce deep (20,000 ft. +)
drilling costs, which can be 12 times as much as a 6,000 ft.
well. Pressures in such wells can exceed 15,000 psi and
temperatures exceed 400 °F. The new projects are:
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Giner, Inc. will develop an all-solid
state, high voltage electrochemical-electrolytic
capacitor for operation at temperatures exceeding 400
°F. It will be incorporated into the electronic devices
to steer and log while drilling deep formations.
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Hamilton Sundstrand will adapt
technology from the aerospace industry to develop
high-temperature, metallized fluorene polyester
capacitors for the deep drilling industry.
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Electrochemical Systems Inc. will
develop a high temperature rechargeable battery cell to
power electronics in drilling and logging in
environments up to 482 °F.
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Honeywell International proposes to
extend its silicon-on-insulator process to develop a
reconfigurable processor for data acquisition in
measurement while drilling and production systems.
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Oklahoma State University plans to
develop an extremely temperature-efficient, regulated
power supply for well logging, measurement while
drilling, or drill bit control.
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GE Global Research proposes to develop a
flexible, polyimide-based packaging approach that tests
three different strategies to interconnect the
electronics to withstand high temperatures and
vibration.
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Drill Cool Systems Inc. proposes to
extend the insulated drill pipe technology already
demonstrated in geothermal drilling to high temperature,
high pressure deep gas drilling.
The total cost of all projects is just under
$5 million, with DOE funding $3.3 million.
For more information on the Deep Trek
Program and the associated projects go to
www.netl.doe.gov/technol
ogies/oil-gas/EP_Technol
ogies/AdvancedDrilling/
DeepTrek/DTProgram/index.
html. |
DOE Initiative for Ultra-Low Environmental
Impacts of Oil and Gas Recovery (LINGO)
The DOE has initiated a new program to develop best practices to
minimize the environmental impact of finding and producing domestic oil and gas.
The LINGO program (Low-Impact Natural Gas and Oil) is designed to demonstrate
that ultra-low impact technologies and practices can be deployed in sensitive
areas without environmental damage. Three projects have been chosen for funding
under the LINGO program:
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University of Arkansas will team up with Argonne National
Laboratory for a project designed to minimize ecological effects of drilling
in the Fayetteville Shale, considered to be the next big shale play after
the Barnett in the Fort Worth Basin. They will develop a web-based
interactive software application and database to enable the smaller
independents to generate development plans for the play that employ best
environmental practices and meet all regulatory requirements.
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Michigan Technological University has teamed up with Western
Michigan University and Jordan Development Company LLC to develop novel
horizontal drilling and openhole completion technologies to overcome
environmental issues and regulations that place large tracts of the Antrim
Shale natural gas play off limits in Michigan. Concerns include groundwater
contamination with drilling fluid and air contamination with produced CO2.
The new techniques will require fewer wells to develop larger tracts.
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Interstate Oil and Gas Compact Commission (IOGCC) has teamed
with Devon Energy and ALL Consulting to develop an Adverse-Impact Reduction
Handbook to help producers identify barriers, minimize impacts and includes
a benefit analysis of each option. Input will be solicited from landowners,
ranchers and other concerned citizens to develop this "best practices"
handbook.
For more information go to
www.fossil.energy.gov/
news/techlines/2006/06034-LINGO_Project_Selections.html. |