Electric Industry Infrastructure Issues and What It Means ... · Electric Industry Infrastructure...
Transcript of Electric Industry Infrastructure Issues and What It Means ... · Electric Industry Infrastructure...
Electric Industry Infrastructure Issues and Electric Industry Infrastructure Issues and What It Means to the Grocery IndustryWhat It Means to the Grocery Industry
Steve KiesnerDirector, National Customer Markets
Edison Electric Institute
Food Marketing InstituteEnergy and Technical Conference
September 9, 2008
Energy LandscapeEnergy LandscapeSupply margins are declining and demand is increasing
Need significant infrastructure investment but costs increasing rapidly$750 -900 Billion: Exceeds current capitalization Major baseload generation and transmission is needed asap
No longer a declining cost industry
Rate Cases are on the Rise 35=‘06; 40=‘07; 50+ =’08; rate freezes expire in Va., Pa, Ohio Fuel costs to rise over the next several years, demand for nat gas grows due to reliance on peaking facilities to meet NT-term increases in demand
Increasing concerns about the environment
Energy efficiency is viable option: Low hanging fruit for Climate Change
Understanding the Core Drivers of Rising Costs
Demand Projected To Demand Projected To Increase 30% by 2030Increase 30% by 2030
Sources: U.S. Department of Energy, Energy Information Administration, Annual Energy Review 2006and Annual Energy Outlook 2008 Early Release*Electricity demand projections based on expected growth between 2006-2030
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Some Causes for Rising DemandSome Causes for Rising Demand
Increasing population 11.18% in 10 years
Increased economic growth 50.1% in 8 years
Increased number of homes with central A/C 49% in 9 years
Plug-in loads
Average US household owns 26 consumer electronics products
Commercial facilities are much bigger and have more energy intensive
U.S. Electrical Infrastructure:Generation and Transmission
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Margins Projected to Fall Below Margins Projected to Fall Below Minimum Target LevelsMinimum Target Levels
TRE (ERCOT)2009/2016+
New England 2009/2009
RFC (MISO)*2008/2008
AZ/NM/SNV2009/2011
California2009/2012
Rocky Mtn2008/2011
SPP2015/2016+
MRO2009/2009
(US)
New York2011/2016+
RFC (PJM)2012/2014
*Excludes MISO resources outside the RFC boundary
Source: NERC 2007 Long Term Reliability Assessment
What Powers our Plants?What Powers our Plants?
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*”Non-Hydro Renewablesand Other” includes generation from solar, wind, geothermal, biomass (agricultural waste, municipal solid waste, landfill gas recovery, wood, pitch), hydrogen, batteries, chemicals, non-wood waste, purchased steam, sulfur and miscellaneous technologies.
Sum of components may not add to 100% due to independent rounding.
Source: U.S. Department of Energy, Energy Information Administration, Power Plant Report (EIA-920), Combined Heat and Power Plant Report (EIA-920), and Electric Power Monthly (2006 Preliminary).
Different Regions Of The CountryRely on Different Fuel Mixes
Source: NERC Transmission Loading Relief Procedure Logs
Transmission Congestion Transmission Congestion Dramatically Increasing Dramatically Increasing
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LRs
Requests for transmission loading relief (TLRs) in the Eastern Interconnection
2007
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20032003
20052005
Aging Transmission InfrastructureAging Transmission Infrastructure
70 % of transmission lines are 25 years or older
70 % of power transformers are 25 years or older
60 % of circuit breakers are more than 30 years old
“Rising Utility Construction Costs: Sources and Impacts” Edison Foundation/Brattle Group
Reporthttp://www.globalenvironmentfund.com/GEF%20white%20paper_Electric%20Power%20Grid.pdf
Existing Net Plant in Service $750 Billion(1)
Significant Electric Capital Investment Significant Electric Capital Investment RequiredRequired
1. End of 2006. 2. 2006 dollars
Conservation and Efficiency
$50 billion
Generation$350
billion for
230+ GW
Environmental Retrofits
$50 billion (excl. CO2 ~$300B?)
Transmission$150 billion
Distribution$300 billion
Transmission$90 billion
Generation$350 billion
Fuels$8 billion
Regulatory Assets$60 billion
Distribution$240 billion
Investment Need for Next 15 Years: $900 Billion
Source: Lehman Brothers. July 2007
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Raw Materials Price IndexesRaw Materials Price Indexes
Coppe
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%20
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Fuel Costs Increasing DramaticallyFuel Costs Increasing Dramatically
Source: U.S. DOE/EIA Electric Power Monthly, March 2008 ReleaseTable 4.1-based on $/MMBtu Delivered Cost
1999 – July 2008
Fuel Costs – Uranium Skyrockets
Higher worldwide demand and a fear of future shortages have driven the price of processed uranium ore (yellow cake)$7 lb at the beginning of 2001$10 lb in 2003$36.25 at the beginning of 2006 $72 at the beginning of this year. Weekly spot price $138 lb this monthChina and India drivers
Nuclear Power in the US104 commercial reactors: 30+ applications for new permitsNRC streamlined licensing process to make timelier, more comprehensive decisions about proposals. Developed standardized designs for plants to reduce construction and operating costsEmerging Issues
$5 billion to $12 billion to build a plant, double to quadruple earlier rough estimates.Permanent Waste DepositoryShrunken supplier, operational network for the industry
Wall Street Concerns: Rival technologies could again make nukes white elephants.
A drop in prices for coal and natural gas, now very expensive, could make nuclear plants less attractive.
Nuclear Power Plants Nuclear Power Plants Planned and OperatingPlanned and Operating
Nuclear Power WorldwideNine countries get 40% or more of their electricity from nuclear powerBut worldwide, it supplies only 17% of the total.80% in France. China 2.3 % nuclear, but it intends to spend $50 billion to build 32 nuclear plants by 2020.A MIT report said China may have to add as many as 200 nukes by 2050. IEA report estimated that the world needed to construct 32 new nuclear plants every year from now until 2050 in order to help cut global GHG emissions by 50%
Coal Plant Cancellations / ClosingsCoal Plant Cancellations / Closings2006 2006 -- 20072007
Source: NRDC: The Growing Trend Against Coal-Fired Power Plants; other publications
Reasons for CancellationsReasons for CancellationsUncertainty over cost of future CO2 emission requirements
Green movement - changing attitudes of consumers and policy makers
Rapidly rising construction costs
New emphasis on renewables, energy efficiency and demand response
Unknowns and risksUtility management becoming more averse to additional risk
Bottom line a “Dash to gas!”
Energy Efficiency Can Reduce Energy Efficiency Can Reduce Investment by 5% to 18% in 2030Investment by 5% to 18% in 2030
Summary of Avoided Capital Investment Due to EnhancedEfficiency Illustrated Using "No Carbon Policy" Scenario
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"No Carbon Policy"Scenario
RAP Efficiency Scenario
MAP Efficiency Scenario
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AMI Investment
$19 BGeneration Investment
$512 B
AMI Investment
$27 BGeneration Investment
$430 B
Total Investment $559 B
Total Investment $531 B
(5% Reduction)
Total Investment $457 B
(18% Reduction)
21RAP-- Realistic Achievable Potential MAP-- Maximum Achievable Potential
Natural Gas InfrastructureNatural Gas InfrastructureDistribution $5.3 billion / year
Net distribution gas plant = $46.6 billion
Transmission $2.4 billion / year Net transmission gas plant = $50.1 billion
Natural Gas Exploration / Supply $47.2 billion
National Petroleum Council’s 2005 report, Balancing Natural Gas Policy
Worldwide Electricity Demand GrowthWorldwide Electricity Demand Growth
Source: Energy Information Administration, International Energy Outlook 2006
Net Electricity Consumption
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U.S. China OECD Europe India
USA
CHINA
Worldwide ElectricityWorldwide ElectricityIn 2007, China built just over 100 GW of new power generating capacity.
Coal-fired electric power stations comprised about 70 GW of this total.In 2006, they added 116 GW, with 93 GW of coal-fired capacity built.China built 1 new coal-fired electric power station about 2 days (IEA,2007).India: 130 GW now, plans for 780 GW by 2030 (about 30 GW every year)Both: Electric use growth rates > 8-10%+ / yr
MidEastern and South American Growth is noteworthy too!
ChinaChina’’s COs CO22 Emissions Emissions Surpass U.S. in 2007Surpass U.S. in 2007**
* Based on projected data from the International Energy Agency, November 2007.
Renewables
An Intensified An Intensified Commitment To RenewablesCommitment To Renewables
Renewables accounted for 69% of the total new capacity added in the first 4 months of 2008
Wind is fastest-growing renewable
T Boone = 4000 MW
Wind farms operate in 32 states with > 10,000 MW
2007
Note: Numbers exceed 100% due to rounding.Source: U.S. DOE/EIA Form EIA-906, Power Plant Report, Form EIA-920 Combined Heat and Power Plant Report; 2005 preliminary data*Includes agricultural byproducts, landfill gas, municipal solid waste, sludge waste and tire-derived fuels.
What Will It Take?
States with the Most RenewablesStates with the Most Renewables
Operating NonOperating Non--Hydro RenewablesHydro Renewables
Operating and Planned WindOperating and Planned Wind
Electricity Generated from RenewablesElectricity Generated from RenewablesChallenges:
High initial capital costs Need tax credits or other incentivesMarket is coming to the rescue
Intermittent nature of supply (i.e., wind and solar)
Transmission availability
Frequent expiration of production tax credit
Environmental and aesthetic challenges
Geographic limitations
Wind Power
Source: NREL, Wind Energy Resource Atlas of the United States
Solar Radiation – Tracking Concentrator
Source: NREL
Geothermal Resources
Source: NREL, Geothermal Resources Estimates for the US, Technical Report, NREL/TP-840-40665, Nov. 2006
Biomass Resources
Source: NREL
Climate Change
U.S. Green House Gas Emissions U.S. Green House Gas Emissions By SectorBy Sector
Industry19%
Commercial7%
Residential6%
Agriculture7%
Transportation28%
Electricity Generation
32%
U.S. Territories1%
Controlling Greenhouse Gas (GHG) Controlling Greenhouse Gas (GHG) Emissions Emissions –– Current StatusCurrent Status
Congress seriously considering legislation aimed at reducing GHG emissionsClimate Change legislation favored byn both candidates “Inaction on this issue is not an option..” Chairman Backus, Senate Finance Committee
Goals in CO2 emissions cuts range from 50% - 80% by 2050
Supreme Court rules that carbon dioxide is a pollutant under the Clean Air Act
EPA to regulate!
Some states, such as California, have adopted comprehensive policies to limit GHG emissions
Key Questions In GHG DebateKey Questions In GHG DebateTargets and timetable for GHG reductions?
Include all sectors of the economy and all sources of GHG?
Will the development and deployment of needed technologies be ready to address compliance timetables?
Mechanisms to achieve cost-effective GHG reductions? Cap and trade (w/ or w/o safety valve), tax, hybrid?
Controlling Greenhouse Gas (GHG) Controlling Greenhouse Gas (GHG) Emissions Emissions
How do you …
Establish the price of carbon?
Minimize economic disruptions?
Ensure that low income consumers do not shoulder a disproportionate impact?
Recognize early actions / investments made to mitigate GHG?
Take into account unintended aspects of GHG emissions? Jobs? Trade balances? Cost of goods and services?
There Is No Silver Bullet!There Is No Silver Bullet!
What Will It Take?What Will It Take?
RenewablesEnergy EfficiencyClean Coal TechnologiesCarbon capture and storageNuclearPlug-in hybrid electric vehicles
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EIA Base Case 2008
Technology EIA 2008 Reference Target
Efficiency Load Growth ~ +1.05%/yr Load Growth ~ +0.75%/yr
Renewables 55 GWe by 2030 100 GWe by 2030
Nuclear Generation 15 GWe by 2030 64 GWe by 2030
Advanced Coal Generation
No Heat Rate Improvement for Existing Plants
40% New Plant Efficiencyby 2020–2030
1-3% Heat Rate Improvement for 130 GWe Existing Plants46% New Plant Efficiency
by 2020; 49% in 2030
CCS None Widely Deployed After 2020
PHEV None 10% of New Light-Duty Vehicle Sales by 2017; 33% by 2030
DER < 0.1% of Base Load in 2030 5% of Base Load in 2030
EIA Base Case 2007
COCO22 Reductions Reductions ––WhatWhat’’s Technically Feasible? s Technically Feasible?
Achieving all targets is very aggressive, but potentially feasible
(EPRI Prism (EPRI Prism –– With EIA Update)With EIA Update)
Range of Potential Impacts Range of Potential Impacts From Climate Legislation?From Climate Legislation?
Cost per household $446 - $2927 in 2020 / year
Electricity prices 21% - 35% in 2020
Natural gas prices 20% - 39% in 2020
GDP 0.7% - 1.74% (~ $336B out of $~19.2T GDP)
Coal consumption 42% - 66% in 2020
Permit prices ($ / ton CO2 equivalent) $18 - $48 / ton in 2020
Total US GHG emission (mmtCO2-equivalent) 4887 – 6654 in 2030 (“Business As Usual” 9672 in 2030)
It’s All About The Assumptions!
WhoWho’’s Assumptions Are Right?s Assumptions Are Right?Wide RangesWide Ranges
New Renewables 6 GW <–> 176 GW by 2030
Coal w/ Carbon Capture and Storage 25 GW <–> 250 GW by 2030
New Nuclear 3.5 GW <–> 268 GW by 2030
Energy EfficiencyMajor impact – How much?
Offsets 15% domestic only <–> 30% domestic and international
The Challenge of New TechnologiesThe Challenge of New TechnologiesSupply technologies
Clean Coal Technologies – IGCCAdvanced new nuclearDistributed generationRenewables
Demand technologiesSmart / energy efficiency devices
Appliances, buildings / codes, thermostats, meters
Energy storage / transportationPlug-in Hybrid Electric VehiclesThermal energy storage
How do we fund their development?
Challenge:Challenge:Technologies and TimeframesTechnologies and Timeframes
Clean coal technologiesNot commercially available until 2015
Carbon capture and storage (CCS) technologies Not commercially available until 2020-2025
Deployment of nuclear plantsNot possible until 2015 at earliest
Summary:Summary:Challenges Are PlentifulChallenges Are Plentiful
Supply margins are declining and demand is increasingNeed significant infrastructure investment but costs increasing rapidly
No longer a declining cost industry
Energy efficiency is viable option
Increasing concerns about the environmentPotential impacts from climate legislation Need to accelerate development and deployment of new technologies
Changing political landscapeBoth candidates concerned about GHG