Transcript Slide 1

Future Opportunities for Coal Power
Science, Regulations, &
Technology
Energy Crisis!
Comparing U.S. Energy Reserves
Abundant Resources Relate to Stable Prices
6,000
5,000
4,000
3,000
2,000
1,000
0
US Coal Reserves
US Gas Reserves
(in quadrillion BTU’s)
Source: EIA, 2000
US Oil Reserves
Delivered Fuel Cost – U.S.
Coal’s Stable Pricing Makes it Ideal for Generation
10.00
Delivered Fuel Cost
For Generation
9.00
8.00
Delivered $ / MM Btu
Natural Gas
7.00
6.00
5.00
Oil
4.00
3.00
2.00
Coal
1.00
Source: EIA Electric Power Monthly, February 2003
Mar 03
Dec 02
Sep 02
Jun 02
Mar 02
Dec 01
Sep 01
Jun 01
Mar 01
Dec 00
Sep 00
Jun 00
Mar 00
Dec 99
Sep 99
Jun 99
Mar 99
Dec 98
0.00
Louisiana Costs - 2003
 Fuel Cost
Coal
• Natural Gas
• Oil
•
$1.34 mmbtu
$5.50 mmbtu
$5.84 mmbtu
Average electric cost in the state is $0.069/kwh – 6%
below the national average.
Louisiana Electric Generation Mix
 Natural Gas
 Coal-based
 Nuclear
 Renewable
 Oil
45%
26%
18%
4%
3%
Environmental Progress
Increasingly Clean Power
5
4
4.37
SO2
NOx
PM 10
3
2
1
1.01
0.85
1.07
0.43 0.38
0
1970
Source: U.S. Environmental Protection Agency
and Department of Energy, 2002
2001
2010
0.47
0.02 0.02
2003 Average State Coal Fired SO2 Emission Rates
2003 Average US Coal Rate- 0.99#SO2/MMBtu
MD
PA
OH
NH
NY
DE
GA
NC
NJ
IN
VA
WV
TN
KY
AL
SC
MA
MI
ND
WI
LA
IL
FL
TX
MS
IA
MO
SD
KS
OK
NE
NV
OR
MN
AR
CO
WY
NM
AZ
CT
MT
UT
WA
2.00
1.80
1.60
1.40
1.20
1.00
0.80
0.60
0.40
0.20
0.00
Source: EPA 2003 CEMS Data
2003 Average State Coal Fired NOx Emission Rates
0.90
0.80
0.70
0.60
2003 Average US Coal Rate 0.37#NOx/MMBtu
0.50
0.40
0.30
0.20
0.00
SD
NJ
OH
NM
TN
FL
WV
MD
ND
MN
KS
OR
NE
NV
IN
SC
KY
IA
MT
NC
VA
MO
MS
AL
UT
AZ
WY
OK
CO
WI
LA
PA
DE
MA
WA
MI
NY
AR
IL
GA
NH
TX
CT
0.10
Source: EPA 2003 CEMS Data
Regional Transport Rule
1-hr Serious Area
Attainment Date
OTC
NOx
Trading
99
Designate areas
for 8-hr Ozone
NAAQs
NOx
SIPs
Due
00
Section
126 NOx
Controls
01
02
03
1-hr Severe
Marginal 8-hr
Area Attain8-hr
Ozone
ment Date
Ozone
AttainNAAQS ment
NOx
Attain- DemonSIP
ment
stration
Call
Date
SIPs due
Reduc
tions
04
05
06
07
Proposed
Utility
MACT
Phase II
Acid Rain
Compliance
Mercury
Determination
Designated Areas
for Fine PM NAAQS
Haze Sec. 309
SIPS due
Clean Air Interstate Rule to
Address SO/NOx Emissions
for Fine PM NAAQS and
Regional Haze
Final Utility Mercury Rule
08
Assess
Effectiveness
of Regional
Moderate 8-hr
Ozone
Ozone
Strategies Possible
NAAQS
Regional NOx
Attainment
Reductions?
Date
(SIP call II)
Serious 8-hr
Ozone NAAQS
Attainment Date
09
10
11
12
Compliance with
Utility MACT
Latest
Attainment
New Fine PM
date for
NAAQS
Fine PM
Implementation
NAAQS
Plans
Regional Haze
SIPs due
13
14
Compliance
for BART
Sources
Additional Hg
regulation under
112(d) and (f)
15
16
17
Compliance for
BART sources
under the Trading
Program
Second
Regional
Haze SIPs
due
18
Proposed Federal Clean Air Interstate Rule
Further Reductions Required by Texas by 2015:
SO2 – 70% reduction
NOx – 65% reduction
Clean Air Interstate Rule
 NOx
•
•
68,498 tons 2003
39,444 tons 2015
 SO2
•
•
119,930 tons 2003
41,976 tons 2015
Proposed Utility Mercury Reduction Rule
 MACT - Up to 90% reduction by 2008
•
Facility specific control
 Cap & Trade - 70% reduction by 2018
•
Market-based approach
•
Reduce from current 48 tons to 15 tons
•
Estimated to save consumers $8 Billion - 2020
Foreign Contribution
 Fact: Wildfires, prescribed burns, and crop burning
alone emit some 800 tons of mercury each year
globally – National Center for Atmospheric Research
 Fact: 50% of the mercury found in the U.S. is from
foreign sources – U.S. EPA
 Fact: The world’s oceans contains millions of tons of
mercury which impacts the mercury in the
atmosphere – National Center for Atmospheric
Research
Sources of Mercury
Emissions of mercury from U.S. coal-fired power plants are
small compared to global emissions sources
Only 1% of total
world emissions
comes from U.S.
power plants
42% non-U.S.
man-made
sources
2% U.S. manmade, non
power plant
sources
16% natural
sources
(biomass
burning)
39% natural
sources
(oceans and
volcanoes)
Global Mercury Deposition in the U.S.
Percent of mercury deposition that originates outside
of the U.S.
Source: EPRI
Mercury Facts – local deposition
 “Given the current scientific understanding of the
environmental fate and transport of this element, it
is not possible to quantify how much of the
methylmercury in fish consumed by the U.S.
population is contributed by U.S. emissions relative
to other sources of Hg (such as natural sources
and reemissions from the global pool).” – EPA
proposed rule
Local Deposition
 Facts: Only 4 – 7% of mercury is deposited locally,
according to research by the Brookhaven National
Laboratory

“Only a small percentage of the mercury would be
deposited nearby as particles fall to earth, while the
vast majority drifts to greater distances in the
atmosphere.” Hans Friedli, National Center for
Atmospheric Research
Louisiana’s Mercury Emissions
 Fact: Coal-based power plants in Louisiana emit less
than half a ton of mercury – U.S. EPA
 Fact: This equates to less than 0.01 of 1% of the
total global mercury emissions – U.S. EPA
 Fact: Louisiana coal-fueled power plants emit 265
lbs. of oxidized mercury, with the remaining 740 lbs.
in an elemental form – U.S. EPA
Health Concerns
 Fact: The national Health and Nutrition Survey,
which measured actual mercury levels in women and
children did not find anyone approaching the lowest
level that would have been associated with any
measurable health effect due to mercury – U.S.
Center for Disease Control

“ People consume far higher levels of PCBs and other
persistent environmental chemicals in other foods,
including beef, poultry, and dairy products.” National Academy of Science
Benefits of Fish
The American Heart Association predicts about
250,000 people die from sudden heart attacks each
year. If 40 percent of these people ate more fish,
which contains the beneficial omega fatty acids,
100,000 people would increase their odds of avoiding
sudden death. Scaring the public away from eating
fish can in itself be a health concern.
Capturing Mercury is Difficult
Hypothetical Example
• Houston Astrodome filled with 30 billion ping-pong balls
• 30 green “mercury” balls
• Find and remove 27 green balls for 90% Hg capture
EPA has said “So, is
technology capable of getting
a 90-percent reduction of
mercury from coal-fired power
plants in the near future?”
EPA’s answer is NO!
Houston Astrodome
Cost to Control
 Fact: The estimated cost of removing mercury from
a power plant is $70,000 per pound – U.S. EPA
 Fact: A Tennessee Valley Authority study compared
the cost of removing mercury versus other emissions:
•
•
•
Sulfur Dioxide $200 a ton
Nitrogen Oxide $2,000 a ton
Mercury $200,000,000 a ton
FutureGen – Energy Renaissance
One billion dollar, 10-year demonstration project
to create world’s first coal-based, zero-emission
electricity and hydrogen plant
President Bush, February 27, 2003
IGCC Technology in Early Commercialization
U.S. Plants in CCT Program
 Wabash River
• 1996 Powerplant of Year Award*
• Achieved 95% availability
 Tampa Electric
• 1997 Powerplant of Year Award
• First-dispatch power generator
Nation’s First CommercialScale IGCC Plants, Each
Achieving
> 95% Sulfur Removal
> 90% NOx Reductions
*Power Magazine
FutureGen Project Concept
Sequestration: A Key Objective
FutureGen will:
 Test new technologies to capture CO2 at power plant
 Inject CO2 into geologic formations
 Measure and monitor to verify permanence of storage
Enhanced Oil Recovery
And/Or
CO2 Pipeline
Geologic Sequestration
Example: Weyburn CO2 EOR Project
 Approximately 650 production and water injection
wells on a 70-square mile oil field operated by
EnCana Resources.
 A 20-year enhanced oil recovery (EOR) project
begun in 2000 using CO2 from a 200-mile CO2
pipeline from Dakota Gasification Plant —
$20.5 million cooperative agreement with
Canadian Federal and Saskatchewan Provincial
Governments. Provides for 130 million barrels
of oil and storage of about 20 million metric tons
of CO2 over 20-year lifetime.
 U.S. (DOE), EU, Japan, Alberta Government, private
companies (e.g., BP, Chevron-Texaco, etc.) have
joined, providing another $20 million. IEA CO2
Monitoring and Storage Project coordinated
by 20 research organizations in the U.S., UK,
Canada, France, and Italy.
FutureGen . . .
 Produce electricity and hydrogen from
coal using advanced technology
 Emit virtually no air pollutants
 Capture and permanently sequester CO2
Addresses three
Presidential
initiatives:
− Hydrogen
− Clear Skies
− Climate Change
The Future is Bright
Randy Eminger
Vice President – South Region
Center for Energy and Economic Development
(806) 359-5520
[email protected]