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Thursday, January 26, 2012

ACEEE: MASSACHUSETTS OVERTAKES CALIFORNIA AS #1 ENERGY EFFICIENCY STATE, MICHIGAN AND ILLINOIS AMONG THE MOST IMPROVED

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ACEEE: MASSACHUSETTS OVERTAKES CALIFORNIA AS #1 ENERGY EFFICIENCY STATE, MICHIGAN AND ILLINOIS AMONG THE MOST IMPROVED



2011 Energy Scorecard Top 10 Also Includes NY, OR, VT, WA, RI, MN, CT, MD; States Most in Need of Improvement Are: ND, WY, MS, KS, OK, SC, WV, MO, AL, and SD ... While MI, IL, NE, TN, AL and MD Are Six Most Improved States.



WASHINGTON, D.C. (October 20, 2011): A sour U.S. economy, tight state budgets, and a failure by Congress to adopt a comprehensive energy strategy have not slowed the growing momentum among U.S. states toward increased energy efficiency, according to the fifth edition of the annual ACEEE State Energy Efficiency Scorecard released today by the American Council for an Energy-Efficient Economy (ACEEE) during a National Press Club news conference.



Available online at http://aceee.org/research-report/e115, the ACEEE Scorecard shows that the top 10 states are: Massachusetts (taking the #1 position for the first time); California (slipping from the top spot it held for the first four editions of the ACEEE Scorecard); New York State; Oregon; Vermont; Washington State; Rhode Island; Minnesota, Connecticut; and Maryland (making its first appearance in the top 10 and also one of the six most improved states in the 2011 ACEEE Scorecard).



The 10 states most in need of improvement (from dead last to #42) are: North Dakota; Wyoming; Mississippi; Kansas; Oklahoma; South Carolina; West Virginia; Missouri; Alabama (also one of the top six most improved states); and South Dakota.



The six most improved states include Michigan, Illinois, Nebraska, Alabama, Maryland, and Tennessee.



"Energy efficiency is America's abundant, untapped energy resource and the states continue to press forward to reap its economic and environmental benefits," said ACEEE Executive Director Steven Nadel. "The message here is that energy efficiency is a pragmatic, bipartisan solution that political leaders from both sides of the aisle can support. As they have over the past decades, states continue to provide the leadership needed to forge an energy-efficient economy, which reduces energy costs, spurs job growth, and benefits the environment."



"Thanks to our investments in innovation and infrastructure, Massachusetts is now leading the nation in energy efficiency," said Massachusetts Governor Deval Patrick. "Through our Green Communities Act, we set aggressive goals and laid the foundation for greater investment in energy efficiency -- and now we are proud to be a model for the nation and world."



"I am thrilled that Maryland is being recognized as one of the top ten states and one of the most improved states for energy efficiency," said Malcolm Woolf, director of the Maryland Energy Administration. "As a result of Governor O'Malley's vision in establishing one of the nation's most aggressive energy efficiency goals, Marylanders have already saved over 700,000 MWh of electricity and over $91 million dollars since 2009, and our peak demand program has helped us avoid major blackouts during our record-setting summer heat wave."



"Illinois is a purposeful leader in the area of sustainability, investing more than $600 million in energy efficiency projects over the last four years alone," Illinois Department of Commerce and Economic Opportunity Director Warren Ribley said. "By supporting aggressive policies including the state's energy efficiency portfolio standard and advanced building industry training and education, we are creating jobs, building more sustainable communities and securing our place in the new energy economy."



"We are excited that Michigan's positive action on energy efficiency is being recognized nationally," said Valerie Brader, the chief energy policy officer for the Michigan Economic Development Corporation. The ACEEE report observed that Michigan's improvement is particularly due to the implementation of energy efficiency programs advanced in state legislation P.A. 295.



The fifth edition of the ACEEE State Energy Efficiency Scorecard presents a comprehensive ranking of the states based on an array of metrics that capture best practices and recognize leadership in energy efficiency policy and program implementation. The Scorecard benchmarks progress and provides a roadmap for states to advance energy efficiency in the residential, commercial, industrial, and transportation sectors. A new, diverse set of states has followed a group of leading states by adopting significant energy efficiency policies, which will lead to innovative and effective programs. Tremendous potential remains for energy efficiency savings in all of the states should motivate decision-makers to advance energy efficiency.



"Clearly, 2011 has not been kind to our economy, but energy efficiency remains a growth sector that attracts investment and creates jobs," said Michael Sciortino, ACEEE senior policy analyst and the report's lead author. "With even higher energy savings possible, we expect leading states to continue pushing the envelope next year and inspire those at the bottom of the rankings to embrace energy efficiency as a core strategy to gain a competitive advantage by generating cost-savings, promoting technological innovation, and stimulating growth."

OTHER KEY FINDINGS




Facing uncertain economic times, states are continuing to use energy efficiency as a key strategy to generate cost-savings, promote technological innovation, and stimulate growth. The ACEEE Scorecard documents the following trends:



  • Total budgets for electricity efficiency programs increased to $4.5 billion in 2010, up from $3.4 billion in 2009. Combined with natural gas program budgets of about $1 billion, total energy efficiency budgets in 2010 equal about $5.5 billion. Given the increasing regulatory commitments to energy efficiency, this growth will likely continue over the next decade.

  • Twenty-nine (29) states have either adopted or have made significant progress toward the adoption of the latest energy-saving building codes for homes and commercial properties - up from twenty in 2010 and ten in 2009.

  • Twenty-four (24) states have adopted an Energy Efficiency Resource Standard (EERS), which sets long-term energy savings targets and drives utility-sector investments in energy efficiency programs. States that adopted EERS policies in 2007 and 2008 are now realizing significant energy savings and moving ahead in the Scorecard rankings.

  • States continue to improve policies to reduce financial, technical, and regulatory barriers to adoption and deployment of combined heat and power (CHP) systems, which generate electricity and thermal energy in an integrated system. Tremendous potential remains for CHP, particularly in states with heavy industrial and manufacturing bases.

  • A group of leading states remains ahead of the curve in adopting policies to reduce vehicle miles traveled and promote the purchase and manufacture of efficient vehicles. A major gap exists, however, as over half the states have minimal or no policies to encourage efficiency in the transportation sector.

Methodology


This ACEEE Scorecard provides a comprehensive assessment of policy and programs that improve energy efficiency in our homes, businesses, industry, and transportation sectors. The Scorecard examines six state energy efficiency policy areas and presents these results in six chapters: (1) utility and public benefits programs and policies; (2) transportation policies; (3) building energy codes; (4) combined heat and power; (5) state government initiatives; and (6) appliance efficiency standards. States can earn up to 50 possible points in these six policy areas combined, with the maximum possible points in each area weighted by the magnitude of its potential energy savings impact.



ABOUT ACEEE



The American Council for an Energy-Efficient Economy acts as a catalyst to advance energy efficiency policies, programs, technologies, investments, and behaviors. For information about ACEEE and its programs, publications, and conferences, visit www.aceee.org.



MEDIA CONTACT:   Patrick Mitchell at (703) 276-3266 or pmitchell@hastingsgroup.com.



EDITOR'S NOTE: A streaming audio replay of the news event will be available at http://www.hastingsgroupmedia.com/aceee/102011ScorecardReport.mp3, an electronic copy of the ACEEE 2011 State Energy Efficiency Scorecard report and a high-resolution image of the ACEEE "logo" will be made available upon request on October 20, 2011.





                                                       

                                         

Saturday, December 10, 2011

Atlantis flicks switch on giant 1MW tidal turbine


Atlantis flicks switch on giant 1MW tidal turbine

New AR1000 device to be tested in waters off Orkney for two years

15 Aug 2011
Scotland's first grid-connected, commercial-scale tidal turbine came online last week when Atlantis Resources Corporation flicked the switch on its AR1000 device at the European Marine Energy Centre (EMEC) in Orkney.
The 1MW capacity, three-blade turbine stands 22.5 metres high and has an 18 metre rotor diameter, making it one of the largest marine turbines ever built.
It will be tested for two years in the waters off Orkney before being deployed in Scotland's Pentland Firth.
Atlantis has a 10 per cent stake inMeyGen, a joint venture with International Power and investment bank Morgan Stanley, which won the right to develop the Inner Sound site in October last year.

Tim Cornelius, Atlantis chief executive, said that the deployment of the AR1000 represents the culmination of a long development process, including fine-tuning the nacelle from its earlier two-rotor, AK1000 turbine.
"Our business enters the next phase of its evolution in great shape and I want to thank the huge ecosystem of technology partners, suppliers, contractors and industry figureheads who have supported us to date," Cornelius said in a statement.
"We will continue to invest in the AK1000 research and development programme as the supply chain matures, but our customers need commercial reliability and that's what the AR1000 system can give them today."
The AK1000 will soon be joined at EMEC by rival developer Aquamarine Power's Oyster 800. The 800kW wave energy device, which was unveiled last month, is set to be far more efficient that its 315kW predecessor, and Aquamarine plans to fit two more devices off the coast of Orkney in 2012 and 2013.
All three Oysters will eventually form a 2.4MW array linked to an onshore hydro-electric plant, the company said.
The west of Scotland could also see a further marine energy boost after Argyll and Bute council revealed that it is bidding for £20m of government funds to develop the town of Oban as a renewable energy hub.
Council leader Dick Walsh told The Scotsman today that discussions are already underway with renewable energy industry and government representatives, adding that ScottishPower's proposed Argyll Array wind farm off the coast makes Oban the ideal location for a west coast service centre.

Plug-In Electric Vehicles That Can Pump Power Back Onto the Grid


DECEMBER 10, 2011

Plug-In Electric Vehicles That Can Pump Power Back Onto the Grid
Reversing the usual paradigm, prototype vehicles can draw power from and supply it to the grid

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In the not-too-distant future, the so-called smart power grid may want to have a quick conversation with your plug-in electric vehicle.
In a demonstration in Trenton yesterday of emerging technologies that are driving the development of electric vehicles, the University of Delaware and others showcased prototypes that not only draw electricity from the power grid, but also can deliver rapid bursts of power the other way. And the vehicles get paid for that power.
The technology, dubbed Vehicle-to-Grid (V2G), can help grid operators like PJM Interconnection correct short-terms changes in electricity use, an issue that can affect the stability of the power system. Although the problem, dubbed frequency regulation, is largely unknown to the public, it has attracted the attention of grid operators and the Federal Energy Regulatory Commission (FERC).
V2G also can provide a modest source of income for owners of plug-in electric vehicles, which can help offset the higher costs of the cars when compared to conventional vehicles. In a pilot program being run by the University of Delaware, PJM is paying five plug-in electric vehicles each about $200 a month to deliver almost simultaneous service if the power grid is out of balance.
Bigger vehicles, such as cargo vans used by companies with large fleets and even larger electric batteries can earn even more money, according to backers of the technology. These include the university, AC Propulsion, a California-based company, and NRG Energy, a Princeton-based company that is trying to develop the infrastructure for electric vehicles through private investment.
The long-term goal of having electric vehicles become a source of needed power to keep the lights on will become even more important as New Jersey and the nation increase their reliance on intermittent sources of electricity, such as solar and wind, which do not generate power consistently because the sun does not always shine or the wind blow.
“To my mind, it’s the ultimate smart grid application,’’ said James Sherman, director of the Northeast Transportation Electrification Alliance (NTEA), a trade organization pushing to build an infrastructure for electrical vehicles. The technology incorporates software that enables the plug-in electric vehicles, while not running, to quickly switch from drawing power from the grid to storing it and sending it in the other direction, if necessary, a conversation that takes place over the Internet.
FERC also sees the technology as a way to deal with frequency violations, a problem for the grid. It recently recognized that batteries that can push power to the grid are superior and announced a policy to pay a premium for batteries that provide this service. While the payments to consumers and businesses may not be huge, the market is. Last year, PJM paid out $300 million to companies providing frequency regulation service.
“There’s a lot of interest right now,’’ said Scott Fisher, director of policy coordination and management for NRG, which was at the event at a parking garage a block from Trenton’s rail station, one of a handful of places in the state offering electric charging stations for plug-in vehicles. “People understand the value about this, but there’s a lot of blocking and tackling that still needs to be done,’’ he added.
In the short-term, this application probably will not be available until the next generation of plug-in electric vehicles, because car manufacturers have not incorporated the technology into the cars, according to Nathaniel Pearre, part of the University of Delaware V2G team. That could take up five years or so to realize, he said,
The more pressing challenge, according to backers, is convincing large companies with fleets of vehicles to convert some of them to plug-in electric vehicles. Sherman said there have been conversations with Public Service Electric & Gas (PSE&G) and Verizon New Jersey to convert up to 500 cargo vans to the technology, but they will not commit unless the price is right.
Some advocates believe that electric vehicles probably will not happen unless there is an infusion of state or federal financial assistance to reduce the cost difference between them and conventional diesel-fueled vehicles. Raymond Kennard, also of NETA, noted California has spent tens of millions of dollars to convert United Parcel Service trucks to electric vehicles.

Massive Battery System Captures The Wind


Massive Battery System Captures The Wind

AES Battery Storage System
These containers hold 1.3 million batteries
One of the biggest challenges facing wind energy is intermittency. Wind often blows strongest when power demand is lowest, and weakest when electricity is needed the most. Because today’s power grid needs electricity to be consumed the moment it’s generated, that means wind turbines send energy to the grid half as often as an average coal plant.
But what if wind farms could store the power that isn’t needed right away and sell it later when demand is high? energyNOW! correspondent Patty Kim recently visited a monumental new energy storage system recently built alongside a wind farm in the heart of coal country. The full video is available below:
Wind energy has come a long way in the United States. It’s a multi-billion dollar industry that employs 75,000 people in 42 states and generates about 2 percent of the nation’s electricity. And, the Department of Energy says that number could grow to20 percent of America’s electricity by 2030.
That potential is far from reality, though. And, in order to reach 20 percent, one in five new turbines will have to be built offshore where the wind is faster and more consistent, and offshore wind is yet to be stalled in this country.
Intermittency is a commonly cited problem for renewable energy options, but intermittency is only a problem because the energy industry hasn’t come up with an efficient way to store electricity on a large scale – until now, perhaps.
A massive new battery storage system has sprung up in the heart of coal country, and it could change wind energy forever.AES Corporation, a global power project developer, has built a wind farm of more than 60 turbines spread across twelve miles of West Virginia’s Laurel Mountains. The farm generates enough power for 20,000 homes, and feeds power into the PJM Interconnection regional grid.
But the really impressive aspect of this wind farm is a series of white shipping containers, nondescriptly nestled into the hills, containing 1.3 million lithium ion batteries. Each battery is about the size of a typical C or D cell, and together they provide frequency regulation to the grid. Grid operators at PJM send signals to the battery system every four seconds, telling it to either send the electricity generated by the wind farm onto the grid, or store it for later use when the wind isn’t blowing. “It’s a level of control over power that we haven’t seen,” said Praveen Kathpal, Vice President of Market and Regulatory Affairs for AES Energy Storage.
The storage system technology is impressive, but, for now, its impact is relatively small. The West Virginia project can only hold enough electricity at any one time to power about 5,000 homes for 15 minutes.
“Projects like these are the beginning of a long wave of energy storage projects to come,” said Kathpal. AES says they’re taking the next step in West Texas, where they want to build a second battery project, roughly three times larger than the West Virginia system.