What does this imply for the United States' 5,000+ existing fossil fuel power plants?
Modifying
fossil fuel power plants to reduce their CO2
emissions
http://www.carboncapturejournal.com/index.php
CCS Cost and Performance - IEA .pdf (April 2010, 1 meg) "Clean Coal" Power Plant News Items
Massachusetts Institute of Technology is leading the way in the United States
Massachusetts Institute of Technology
Carbon Capture and Sequestration Projects.
Carbon Capture - Retrofitting of Coal-Fired Power Plants for CO2 Emissions
Reductions - MIT .pdf
Worldwide, about 200 Carbon Capture and
Sequestration projects in over 14 industries
during 2010 according to Carbon Capture Journal.
Carbon
Capture and Sequestration Technology is promising
to become a very large industry.
A 200 MegaWatt Carbon Capture and Storage (CCS) plant is right on the bottom edge of being seriously big.
Retrofit or Retire Coal Plants .pdf
Carbon Capture - Linde BASF RWE .pdf
(Right) Postcombustion retrofit. This deals with coal's solids and impurities. The world has about 150,000 large coal boilers that could make use of this technology.
EPA Releases CO2 Storage Rules.
The AP (11/23, Daly) reports the Environmental Protection Agency "is imposing
new rules to protect drinking water and track the amount of carbon dioxide
stored underground by 'clean coal' technology." EPA Administrator Lisa Jackson
"said the rules clarify standards for carbon storage, so industry knows what is
required as it develops the technology." According to the article, "the
administration wants to encourage carbon storage while overcoming liability
obstacles that could hinder its development," pointing out that "a sudden
release of large amounts of carbon dioxide can kill by asphyxiation," as it did
in 1986 when 1,700 people died after "a cloud of carbon dioxide escaped from a
volcanic lake in Cameroon." A report compiled by an Administration task force
this summer "advised against the government taking on unlimited liability for
underground storage of carbon dioxide."
Bloomberg News (11/23, Lomax) adds that "the drinking-water regulation governs
the way carbon- dioxide injection wells are located, built, tested, monitored
and closed." The task force also said this summer that "rules governing the
'environmental soundness of injecting and storing carbon dioxide underground'
must be part of a federal plan to 'facilitate widespread cost-effective
deployment' of the pollution-control technology after 2020...A separate EPA rule
also released today deals with measuring the amount of carbon dioxide that's
captured and stored."
Carbon Capture and Storage
Coal CO2
Capture and Storage - CCS. The only
long-term hope for the coal industry. Billions of tax dollars are being spent
worldwide for research. O
"Clean Coal" is a tall order. Vaclav Smil, (pdf, page 22) who has written on energy extensively, tells us that "Sequestering a mere 1/10 of today's global CO2 emissions (less than 3 GigaTons CO2) would thus call for putting in place an industry that would have to force underground every year the volume of compressed gas larger than or (with higher compression) equal to the volume of crude oil extracted globally by a petroleum industry whose infrastructures and capacities have been put in place over a century of development."
'Clean Coal' Made As Simple As Possible.
The Swedish company, Vattenfall, have prepared an excellent set of explanations covering the four major coal CO2 capture and sequestration technologies developed so far. Vattenfall recently designed and built the world's most advanced CCS demonstration facility in Germany.
Oxyfuel Combustion Capture: http://www.vattenfall.com/en/ccs/oxyfuel-combustion.htm $50 to $60 per ton CO2.
Precombustion Capture: http://www.vattenfall.com/en/ccs/precombustion.htm $25 to $50 per ton CO2.
Postcombustion Capture: http://www.vattenfall.com/en/ccs/postcombustion.htm $25 to $75 per ton CO2.
Chemical Looping: http://www.vattenfall.com/en/ccs/chemical-looping-.htm
Postcombustion Capture is being looked at as the technology
best-suited to bring the world's existing 60,000 fossil fuel-burning power
plants under control. Its a tough job, only about 10% of
the stack gasses are CO2 and the stack
can be as hot as 800°F. A leakage of 50% of the CO2
slipping past the capture system and a 25% loss of electricity output due to
powering the CO2
capture equipment is being spoken of as acceptable.
The captured CO2
gas would be compressed to about 1,000 pounds per square inch to liquefy it and
then the liquid CO2
would be piped to
CO2 Capture
and Storage Has A Big
Check out what I'm saying at: http://en.wikipedia.org/wiki/Lake_Nyos
Google: Sequestration + Lake Nyos to get the latest buzz on this environmental hazard. The EPA and the Sierra Club have it on their radars. This is a common occurrence. Ground leakage of natural gas, either spontaneous or as a consequence of drilling for natural gas, is surprisingly common, with several mini-disasters occurring around the world every year. http://www.abc.net.au/nature/news/NatureNews_1686353.htm
Carbon Capture and Sequestration Costs.
Impact of Carbon Capture and Sequestration on our coal reserves.
(Right) Probable loss of our coal reserve life as a consequence of growing our economy on a diet of "Clean Coal" CCS electricity.
(DOE data. From a speech by Rep. Roscoe Bartlett, 6th District, Maryland)
"There is a basic economic problem with coal/carbon capture that gets far too little attention. Namely, it is the only low/zero carbon generation technology that requires an increase in fuel combustion. As a practical matter, this means that carbon capture will never be economic in any world that provides an incentive for low-carbon generation to come forward -- so long as one assumes that carbon will ultimately be priced in some sort of a market, bid up to the marginal cost of supply. Nuclear, renewables and energy efficiency all have their own economic strengths and weaknesses, but all have innately lower operating costs than a coal plant with CCS, and once built will necessarily cause the price of CO2 reduction to clear below the level required to justify the operation of a CCS facility. One doesn't need to be quantitative to prove this point -- it is sufficient to note merely that the parasitic loads required to operate a CCS plant will increase fuel use, and no one is giving away fuel for free.
For CCS to play a role in CO2 reduction therefore requires that two things will happen: (1) technology development will eventually bring capital costs down to a level necessary to sustain investment and (2) every other CO2 reduction strategy we deploy will be insufficient to meet our CO2 goals and we will have to also run CCS. (And that we will run CCS facilities sufficiently hard to generate revenues necessary to recoup the original investment.) The first might be possible, but is by no means guaranteed. But the second virtually guarantees that the first will never happen. Why would any investor commit to investing in a technology that loses money on the margin? Absent such investor belief, how will we gain sufficient experience to drive capital expenditure down?
By all means, let's get CO2 emissions down. And by all means, let's chase fuel efficiency (including efficient use of coal) as a part of that strategy. But let's be much more skeptical of claims that reducing the efficiency of coal-fired power is the key to an economically-sustainable, carbon-constrained future." - - Sean Casten, President & CEO, Recycled Energy Development, LLC
How about a CO2 "Slippage Credit" for fossil power plants that convert to nuclear?
(Right) Early results at small-scale research sites.
If plants with carbon capture can let up to 25% of their CO2 slip past the capture equipment, when a fossil fuel heated source converts to nuclear heat, the rules should allow that amount of the plant's former CO2 emissions be used for such things as natural gas heated steam reheaters.
Clean Coal - - -
When we take a close look at the size of Global Warming, we better hope
everything works.
http://www.americaspower.org/
http://www.fossil.energy.gov/programs/powersystems/cleancoal/
http://www.coal-is-clean.com/
http://www.cleancoalusa.org/
http://www.netl.doe.gov/technologies/coalpower/cctc/index.html
http://en.wikipedia.org/wiki/Clean_coal
http://www.sierraclub.org/sierra/200701/coal.asp
http://www.nrdc.org/OnEarth/05fal/coal1.asp
http://www.newgencoal.com.au/index.aspx?gclid=cjfbksv115ocfrkaxgodoukufw
http://www.eia.doe.gov/iea/elec.html My favorite electricity data web site
"Clean Carbon" Power Plant News Items
DOE awards B&W $2.8M for carbon
capture research
20 December 2011 Green Car Congress
Babcock & Wilcox Power Generation Group,
Inc., a subsidiary of The Babcock & Wilcox Company, has been
selected to receive $2.8 million in
financial assistance funding from the US Department of Energy (DOE) to study
chemical formulations to improve the performance of its Regenerable Solvent
Absorption Technology (RSAT) process solvent used to capture CO2 from
coal-fired power plants. The project will be managed by DOE’s National Energy
Technology Laboratory under its Innovations for Existing Plants (IEP) Program.
B&W will contribute $0.7 million in the form of in-kind research and development
to the project, including research personnel and facility space, which will be
conducted at the B&W Research Center in Barberton, Ohio. Project participants
also include the University of Cincinnati and FirstEnergy Corp., which will act
in an advisory role to provide input from a utility operator’s perspective.
B&W is in the process of optimizing our
proprietary OptiCap solvent for CO2 capture. This DOE-funded project
allows us to explore new options for improving the energy requirements for
solvent regeneration, durability and other factors to make the OptiCap solvent
an attractive option for post-combustion CO2 capture.
—B&W Senior Vice President and Chief Technology Officer Don Langley
At its Barberton research facility, B&W has developed and tested multiple technologies to capture CO2 emissions from coal-fired power plants and combat global climate change. These technologies include the post-combustion RSAT process using OptiCap solvent and the oxy-coal combustion process. The facility has several RSAT process pilot systems and chemical analysis apparatus to allow for a full range of product development and testing.
DOE To Hold
Hearings On FutureGen Project In June.
The AP (5/24) reports, "The
Department of Energy plans three public hearings next month in Illinois on the
FutureGen coal-energy project as it gathers information about potential
environmental impact." A hearing is scheduled for June 9 in Jacksonville, which
is "near the Morgan County site where the project will retool a power plant to
use new technology that captures the greenhouse gas carbon dioxide from coal and
then store it underground." The AP notes that "a group of coal companies and
other firms known as the FutureGen Alliance earlier this year picked the Morgan
County town of Meredosia for the project."
The Springfield (IL) State Journal
Register (5/24, Landis) adds that "early this year, the FutureGen Alliance
selected a site northeast of Jacksonville as the preferred location for a
project that is expected to require at least 1,000 acres for the storage
facility and buffer zone." Further, "sites near Taylorville and Tuscola are
backups should there be problems with the Jacksonville site." DOE has already
committed $1 billion to the $1.3 billion project. According to the Register, "An
agency representative said Monday the hearings will become part of an
environmental impact statement."
Power
Companies May Need $40 Billion To Meet EPA Mercury Rule.
Bloomberg News (5/5, Main)
reports, "Southern Co. and Duke Energy Corp. are among power companies facing a
combined $40 billion in costs by 2016 under a proposal aimed at reducing toxic
emissions such as mercury at coal-fired plants, according to data compiled by
Bloomberg." Bloomberg News based the estimate on EPA's analysis of the controls
required to comply with the rule, which is aimed at limiting power plant mercury
emission levels. The EPA indicated that the rule would affect about 1,200
coal-fired plants. According to the article, "costs of retrofitting or retiring
power plants will fall hardest on companies most dependent on coal-fired
generation." Bloomberg News notes that "Duke, Southern, American Electric Power
Inc. and the Tennessee Valley Authority are likely to have multibillion-dollar
costs."
Saskatchewan approves $1.2B carbon capture project
26 April
2011
The Government of Saskatchewan has
approved construction of the Boundary
Dam Integrated Carbon Capture and Storage Demonstration Project—among the first
commercial-scale carbon capture and storage facilities in the world. The
C$1.24-billion (US$1.3 billion) project will transform an aging generating unit
at the SaskPower Boundary Dam Power Station near Estevan, reducing greenhouse
gas emissions by approximately one million tonnes per year in addition to
capturing CO2 for enhanced oil recovery.
The Canadian federal government provided $240 million to assist in the
development of the project.
SaskPower has chosen SNC Lavalin to oversee detailed engineering, procurement
and construction activities at the Boundary Dam project. Cansolv, a wholly owned
subsidiary of Shell Global Solutions, will supply the carbon capture process.
Hitachi will supply an advanced steam turbine—the first in the world designed to
fully integrate a coal-fired power plant with carbon capture technology.
Construction on the project will begin immediately, with operations commencing
in 2014. The new generating unit at Boundary Dam will have the capacity to
generate 110 megawatts (MW) of electricity.
In addition to capturing CO2 for enhanced oil recovery operations,
the Boundary Dam project will also capture sulfur dioxide (SO2) to be
used in the production of sulphuric acid.
Boundary Dam Power Station is SaskPower’s largest generating facility, with six
units and a combined generating capacity of 824 MW. The company’s three
coal-fired power plants account for approximately 50% of its generating capacity
of 3,513 MW. SaskPower has a total available generating capacity of 3,982 when
the production of independent power producers is taken into account.
The Boundary Dam Integrated Carbon Capture and Storage Demonstration Project is
part of a capital program that will see billions of dollars invested in
SaskPower’s power production and transmission and distribution systems over the
next decade
University Of Wyoming Initiates
CO2 Sequestration Project.
The AP (4/23) reported, "A University of Wyoming project to experiment with
storing carbon dioxide underground gets going this weekend when a crew starts
drilling a hole in the ground in Sweetwater County." According to the newswire,
"the Carbon Management Institute at the university and the US Department of
Energy's Office of Fossil Energy are behind the nearly $17 million project." The
goal of the project is to determine how "to prevent climate change by capturing
carbon dioxide and keeping the greenhouse gas out of the atmosphere by pumping
it underground."
Indiana House Of Representatives
Approves CO2 Pipeline Measure.
Platts (4/22, Matyi) reports on its website that "the Indiana House of
Representatives approved and sent to a conference committee a bill that includes
eminent domain language sought by the developer of a proposed carbon dioxide
pipeline." According to the article, "prior to the Republican-controlled House's
64-32 vote to pass the bill (S.B. 251), the lawmakers accepted an amendment by
State Representative Sue Ellspermann, a Republican, that empowers companies like
Dallas-based Denbury Resources to condemn private property for a CO2 pipeline
that would move gas from several clean coal plants in the Midwest to the Gulf
Coast for use in enhanced oil extraction." The Republican-controlled Indiana
Senate "voted 28-21 in early February to defeat the original Denbury-based
pipeline bill (H.B. 72), with some lawmakers objecting to eminent domain."
Future Of FutureGen Project
Remains Uncertain.
The Illinois Statehouse News (4/5, Lee) reports that the future of FutureGen's
$1.3 billion "clean coal" project is uncertain. According to the report, "there
are several hurdles to clear before construction can start on the carbon dioxide
storage site in Morgan County." This week a state Senate committee will consider
Senate Bill 1821, which "would allow for the construction and operation of a
proposed carbon dioxide pipeline with a certificate of approval from the
Illinois Commerce Commission." State Sen. William Haine, D-Alton, co-sponsor of
the measure, said, "The purpose of this is to lessen environmental damage, have
less CO2 in the air, because of the perceived belief that too much CO2 causes
global warming and other problems."
CCS Carbon Storage Successes April 2011.pdf From EnergyBiz Insider
Texas Approves Clean Coal Plant.
The Fort Worth Star Telegram (12/15, Smith) reports the Texas Commission on
Environmental Quality approved a $3.5 billion clean coal plan for West Texas.
"The Tenaska Trailblazer Energy Center will capture 85 to 90 percent of
emissions of carbon dioxide." Sweetwater, Texas will be the home of the plant,
while the carbon will be sequestered underground in West Texas. Once
sequestered, the carbon "will be used to boost petroleum recovery by an
estimated 10 million barrels annually." Upon completion, the plant will generate
600 megawatts of power "and use a cooling technology that reduces water use by
90 percent." Construction, which will begin in 2011, will add up to 1,500 jobs
to the local economy. Plant operations means that 100 people will be permanently
employed starting in 2016. The AP (12/1) reports adds that the commission voted
unanimously.
The Abilene (TX) Reporter-News (12/15) observes that the permit for the plant
was approved "despite continued opposition from some environmental groups."
Groups such as the Multi-County Coalition and the Sierra Club "vowed to continue
a public campaign against Tenaska." The Sierra Club may appeal the permit
approval to the state supreme court. Even though the permit was approved,
questions remain about the final stages of production since Tenaska as the
company has not secured "a needed water source. Tenaska also must develop
business contracts related to the sale of electricity from the plant as well as
develop plans to market carbon dioxide for use in West Texas oil exploration."
6 Sites to Host FutureGen's Carbon
Storage
Associated Press (11/17/10) Mercer, David
Six locations in Illinois have shown interest in
having a carbon dioxide storage site, as part of FutureGen's clean-coal project.
The storage site could produce more than 1,000 short-term jobs and a few dozen
permanent ones. The bidders at one location have stated that their level of
skepticism is high because they saw politics almost remove the project and make
changes to it. "Our team of scientific and engineering experts has already begun
review of those proposals, and we look forward to making an announcement on the
final site in early 2011," says FutureGen CEO Ken Humphreys. Until earlier this
year, the plan proposed a new power plant in Mattoon, Ill., and storing the
carbon dioxide right outside town. But the Department of Energy used $1.2
billion in federal stimulus funding to retrofit a coal-burning plant in
Meredosia, Ill., to use different technology and pipe the carbon dioxide to
another place for underground storage. Despite skepticism, many officials are
impressed with the plan because it would provide jobs.
http://www.doosanbabcock.com/live/cme0.htm
B&W Oxy-Coal Technology To Be
Used On $1.2B Future-Gen Project.
The Akron (OH) Beacon Journal (10/9, Downing) reports, "The oxy-coal combustion
technology developed by the Babcock & Wilcox Power Generation Group Inc. and Air
Liquide Process & Construction will be used on the $1.2 billion Future-Gen
project near Matoon, Ill. The two companies were included by the US Department
of Energy in cooperative agreements with Ameren Energy Resources Co. LLC and the
FutureGen Alliance." The Beacon Journal adds, "The Illinois plant will be the
first large-scale, integrated test of an oxy-coal power plant with carbon
dioxide capture."
CO2 Capture Using Rocket Nozzles .pdf Carbon Capture Technology .pdf
Hydrogen - First Industrial Scale Power Plant .pdf They get their hydrogen from a nearby oil refinery. Hmm.
Rocket Nozzles Could Help Clean
Power Plants.
Discovery News (7/6, Klotz) reported ATK, which builds the booster rockets for
the shuttle program, "is working to turn rocket nozzle technology into a novel
method for cleaning up the carbon-laced air emitted by coal-burning power
plants." Under a program funded by the DOE's Advanced Research Projects Agency
(ARPA-E), forcing the exhaust from a smokestack through a nozzle before it is
released would eliminate the need for costly chemicals. ATK vice president
Robert Bakos said, "Today's carbon capture technology adds 80 percent to the
cost per kilowatt hour of electricity delivered. ... With our approach, we could
knock that down to 30 percent." Meanwhile, "The company plans to demonstrate the
technology in a laboratory within 14 months, then move on to a pilot program at
a power plant."
According to Popular Science (7/7, Dillow), which references the Discovery News
article, "the ability to effectively pull CO2 out of coal emissions could
restore coal's place as a viable alternative to foreign oil and as a cleaner
bridge to a renewable energy future. Of course, the technology has to work
first."
For Some Midwest States, Plans
For Clean Coal Plant Turn Costly.
The Chicago Tribune (7/11, Hawthorne) reported, "Sold on a promise of cheap,
clean electricity, dozens of communities in Illinois and eight other Midwest
states instead are facing more expensive utility bills after bankrolling a new
coal-fired power plant," the Prairie State Energy Campus, "that will be one of
the nation's largest sources of climate-change pollution." The plant's "price
tag already has more than doubled to $4.4 billion - costs that will largely be
borne by municipalities," and "the communities are locked into 28-year contracts
that will require higher electricity rates to cover the construction overruns."
OriginOil lands first order for industrial-scale algae oil extraction system; Bio-CCS
31 January 2011
OriginOil, Inc. has received the first commercial order to deploy its algae oil extraction system in an industrial setting. MBD Energy (MBD) recently committed to purchase an initial OriginOil extraction unit for piloting at one of Australia’s three largest coal-fired power plants. (Earlier post.) MBD Energy expects OriginOil technology to support a pilot Bio-CCS (Bio-based Carbon Capture and Storage) algal synthesizer system at Queensland’s Tarong Power Station.
The proof of concept phase on a one-hectare site, scheduled for later this year, will use concentrated CO2 emissions to produce oil-rich algae in MBD’s proprietary growth membranes. OriginOil’s extraction technology will be used to harvest the algae oil and biomass.
This first extraction system will support early testing at the Tarong site. A much larger unit is intended to replace it later this year to process up to 300 gallons per minute (300 gpm) of algae culture for the one-hectare pilot site, at which point the first unit will be deployed at the next power station pilot site, and so on. Together, the recently-committed initial unit and the full system for the Tarong proof-of-concept site, if approved, may generate as much as US$1 million in product and service sales for OriginOil.
—Riggs Eckelberry, CEO of OriginOil
Subject to successful trials and mutual agreement with its power station partners, MBD said each project at Australia’s three largest coal-fired power stations has the potential to grow from an initial one hectare (2.47 acre) proof of concept facility to become fully commercial facilities.
Each facility would then be capable of consuming significant amounts of CO2 and producing commercial quantities of high-value oil suitable for manufacture of transport fuel and plastics.
We are excited to be building a pilot facility that uses the power station’s CO2-laden flue-gas to feed a Bio-CCS algal synthesizer. We expect this to serve as proof of concept for a larger, second stage facility of up to 80 hectares (197 acres) and possibly a much larger third stage project after that.
—Andrew Lawson, Managing Director of MBD Energy, Ltd.
MBD estimated that subject to performance at the 80 hectare level and mutual agreements, each Stage 3 full-scale production facility has the potential to grow to 1600 hectares (3,900 acres) and could produce around 300 million liters (over 79 million gallons) of transport (or plastics) oil per year, as well as other valuable commodities, and consume, at full scale, more than half of each power station’s CO2 emissions.
OriginOil and MBD recently entered into a strategic agreement protecting OriginOil’s intellectual property for demonstration projects and granting mutual marketing rights.