Beyond Oil - The Role of Wind Energy Dr. James A. Walker Vice Chairman, enXco Inc. President, American Wind Energy Association Dr. James A. Walker Vice.

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Presentation transcript:

Beyond Oil - The Role of Wind Energy Dr. James A. Walker Vice Chairman, enXco Inc. President, American Wind Energy Association Dr. James A. Walker Vice Chairman, enXco Inc. President, American Wind Energy Association

New Capacity Added by Energy Source for the U.S. & (for 2007) Texas In 2007, 64% of new MW in Texas was wind In 2007, 35% of new MW in the US was wind

The 20% Wind Report Released by US DOE in May 2008 Available at: Explores one scenario for reaching 20% wind energy by 2030 and contrasts it to a scenario in which no new U.S. wind power capacity is installed Is not a prediction, but an analysis based on one scenario Does not assume specific policy support for wind (but does assume some form of stable federal support for renewables) Is the work of more than 100 individuals involved from (government, industry, utilities, NGOs) Analyzes wind’s potential contributions to energy security, economic prosperity and environmental sustainability

The 20% Wind Energy Scenario Primary Assumptions: U.S. electricity consumption grows 39% from 2005 to to 5.8 billion MWh (Source: EIA) Wind turbine energy production increases about 15% by 2030 Wind turbine costs decrease about 10% by 2030 No major breakthroughs in wind technology Primary Findings: 20% wind electricity would require about 300 GW (300,000 MW) of wind generation Affordable, accessible wind resources are available across the nation Cost to integrate wind is modest if properly planned Raw materials are available Transmission a challenge

2010 Costs w/o PTC after 2008, w/o Transmission or Integration costs Resource Potential Exceeds Total US Electricity Demand Current US MW of all types

Average Wind Speed at 80 m Copyright  TIER , Inc.

Installed Capacity as of Sept 2008 = 20,152 MW 305 GW 20% Wind Scenario

20% Wind Report: Growth Path For Wind Preliminary: from forthcoming report Actuals for ’06-’07, est ‘08 >100GW

46 States Have Wind Development by 2030 Under the 20% Wind Scenario 31 States have over $2 billion of development

Wind Is Part of a Generation Portfolio 20% Wind If Wind is 20% of 2030 generation, 80% is something else The 20% Wind Scenario would decrease generation from natural gas by 50% and generation from coal by 18%. Other renewables assumed to stay at 2006 levels – clearly understated

Annual CO 2 Emissions Reductions CO 2 emissions reductions by 2030= ~825 million metric tons annually Could avoid ~$98 billion * CO 2 regulation cost Source *: Hand et al., 2008 Annual Reduction in CO 2 Emissions (million metric tons) Annual Reductions

,000 1,500 2,000 2,500 3,000 3,500 4,000 4,500 No New Wind Scenario CO 2 emissions 20% Wind ScenarioCO 2 emissions USCAP path to 80% below today’s levels by 2050 CO 2 Emissions in the Electric Sector (million metric tons) CO 2 Emissions from the Electricity Sector

Wind is Ready to Lead the Fight Against Climate Change 20% Wind in 2030 is equivalent to: Taking 140 million of today’s cars off the road, or Increasing current vehicle fuel economy ~45% to 25 mpg, or Offsetting 96% of the CO2 emissions of the entire 2007 US Industrial Sector EPRI/NRDC estimates of GHG reductions from PHEVs in 2050

Cumulative Water Savings from 20% Scenario Reduces water consumption of 4 trillion gallons through 2030 (represents a reduction in electric sector water consumption by 17% in 2030)

Transmission Enhancement of electrical transmission system required in all electricity-growth scenarios Transmission is needed to: Relieve congestion in existing system Improve system reliability for all customers Increase access to lower-cost energy Access new and remote generation resources Wind requires more transmission than some other options as best winds are often in remote locations Photo courtesy: NREL

American Electric Power Plan AEP’s Transmission Vision

20% Wind Energy Can Be Managed Wind integration costs for three penetration levels and pattern years. Cost of incremental operating reserves is embedded. Source: MN DOC

225,000 MW of wind now dominates 11 major interconnection queues

Over 500,000 total jobs would be supported by the wind industry Approx. 180,000 jobs supported directly by the wind industry in operations, construction, and manufacturing Jobs Supported by 20% Wind Scenario

Manufacturing Jobs Supported by State

Wind is Competitively Priced AVERAGE WIND AND WHOLESALE ELECTRIC PRICES

Incremental direct cost to society $43 billion 50 cents/month/ household Reduction in emissions of greenhouse gasses and avoided carbon regulation costs 825 million tons of CO 2 $50 to $145 billion Reduction in water consumption 8% through % in 2030 Jobs supported and other economic benefits 500,000 total with 150,000 direct jobs $2 billion in local annual revenues Reduction in nationwide natural gas use and likely savings for all gas consumers 11% $ billion Summary: Costs & Benefits Sources: DOE, 2008 and Hand et al., 2008 Note: All dollar values are in NPV

Beyond The 20% Wind Scenario The 20% Scenario in no way represents a “cap” – other scenarios could exceed 20% Plug-in Hybrid Electric Vehicles (PHEVs) present one scenario “beyond 20%” US DOT reports that 78% of cars are driven < 40 miles per day on average; corresponds to expected battery range for PHEVs Wind Power could charge PHEVs at night, off- peak, making better use of existing electric utility infrastructure Smart Grid / advanced metering paves the way for PHEVs to truly be “wind powered cars”

Beyond The 20% Wind Scenario EPRI / NRDC Study: If 60% of light vehicles replaced by PHEVs by 2050, electricity consumption would rise only about 8%. Net carbon dioxide reductions of 450 million metric tons annually—equivalent to taking 82 million cars off the road. PNWNL Study: Found the existing US electric system has the “technical potential” to support 73% penetration of LDV fleet by PHEVs Would reduce US GHG emissions 27%, oil imports 52% Expanding wind power will help ensure that PHEV growth results in emissions and electricity price reductions

Beyond 20% Wind Help the electric industry recapture the transportation market they lost in early 1900s

During WWII, US was arsenal to the world –FDR promised 60,000 airplanes, delivered 229,600 –EVERYBODY pitched in. Then it took 37% of GDP, 87% of Federal budget Today we have the resources to do 300 GW using only 2.5% of US steel production (Black & Veatch) US Auto Industry in 2007 produced the horsepower equivalent of 1,700 GW – 100 times the annual rate of prime mover production needed for 20% wind Can We Do It?

Conclusions 20% Wind Report provides authoritative confirmation that wind has great growth potential There are no fundamental technical barriers to the integration of 20% wind energy into the nation’s electrical system, but… Requires a continuing evolution of transmission planning, system operations and market development for this to be achieved Scenario is feasible and brings significant net benefits Scenario is not a cap – potential exists for accelerating schedule (e.g. Pickens Plan) going beyond 305GW to help transform transportation Climate change and import dependence add great urgency – Nobelist Pachauri, IPCC Head, says we have only 7 years (to 2015) to have world GHG emissions start to decline to avoid temperature rises > 2C Wind can provide a bridge to other clean generation technologies Wind is one of a very few zero carbon, zero water use, affordably priced generation sources that can and is being deployed at scale using current technology