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  • The five most important people for renewables

    The five most important people for renewables

    By Bill White

    wind transmission lines
    Shutterstock

    Five people will make a decision soon that will have an outsized impact on the future of renewable energy in America. I’m not talking about big shots like Obama, Koch, Boehner, Bloomberg, or Steyer. I’m talking about names many have never heard of:  Moeller, Norris, LaFleur, Clark, and Binz (if he is confirmed). These are the chief electricity officers of the United States of America — they are the commissioners of the Federal Energy Regulatory Commission (FERC).

    You’ve probably heard this before: “Scientists agree that in order to avoid the worst consequences of climate change, we must generate 80 percent of our energy from renewable sources by 2050.”  No single entity will play as crucial a role as FERC in ensuring that the infrastructure exists to handle new renewable energy generation.

    President Obama’s climate plan is a courageous step forward and deserves the widespread media coverage it has received. But only the acceleration of utility-scale renewable energy projects can take us where we need to go.

    Modernizing our nation’s power system is a daunting task, but there are good reasons to be optimistic. America has enough wind and solar to power the entire country more than a dozen times over. And with the cost of wind and solar going down every day, rapid development of large-scale generation projects appears inevitable.

    But if you place the map of regions with the best wind and solar energy on top of a map of our current transmission system, you won’t find too much overlap. Transmission is the key to unlocking America’s virtually unlimited renewable resources and delivering their energy to users.

    Unlike our interstate highway system, which is funded by taxpayers, high-voltage transmission lines are built with private capital. Investors will put money into transmission projects as long as they generate returns that are attractive relative to similar types of investments. This is where FERC steps in. They set the return on equity (ROE) for transmission projects across the nation.

    As you might imagine, the higher the ROE, the more incentive there is to build transmission. A company would never invest in our grid if the maximum ROE was 1 percent — meaning it would take 100 years to recoup the costs of a project. And if it was 100 percent, we would end up building much more transmission than we need and sticking consumers with the bill.

    Recent history also tells us that the cost of inadequate transmission is steep. Electric customers are still paying billions of dollars per year for congestion, poor reliability, and overpriced power from dirty, outdated, and inefficient power plants — all of which are the direct result of three decades of underinvestment in transmission. Renewable energy was locked out of a strained and inadequate grid. In the mid-2000s, FERC recognized the chronic neglect of transmission investments as a major burden on ratepayers and a barrier to modernizing our electric system, and stepped in to raise transmission ROEs.

    That decision helped spur a wave of new transmission investments that are reducing costs to consumers and expanding access to renewable energy. For example, the Midwest ISO has begun a new set of transmission lines called the MVP projects. The average consumer is seeing $23 in savings for every $11 spent these new lines.

    Why is transmission such a great deal for electric customers? It’s the smallest part of an electric bill — 11 percent on average — compared with 58 percent for generation and 31 percent for distribution. Transmission pays for itself quickly by relieving costly congestion, moving cheap and clean renewable power to customers, making the grid more reliable and secure, and putting old and inefficient power plants out of business. Simply put, transmission is essential infrastructure for competition, consumer choice, economic efficiency, and environmental protection.

    Despite the well-documented value that transmission investments deliver to ratepayers and the environment, FERC has been hearing complaints recently that ROEs for transmission projects are too high, and that ratepayers need relief. These complaints are misguided, and their timing could not be worse. Never in our history has so much depended on expanding and modernizing our electric transmission system.

    Our chief electricity officers may never get the ROE for transmission “just right”; the uncertainty of markets, interest rates, and the economy probably make that lofty goal impossible to achieve. But they can — and they must — ensure that ROEs remain at levels that ensure a steady and stable flow of private capital into urgently needed transmission investments. Failing to do so would stall renewable energy development and with it progress on reducing emissions, and would increase the cost of electricity for everyone.

    The president’s climate plan is moving forward. State renewable energy standards are helping expedite that progress. The falling costs of wind and solar are driving growth. But none of that will matter if the infrastructure to deliver renewable energy to customers is not built.

    Five FERC commissioners will make a little-noticed decision in the near future, one that will either keep us on the right track, or throw a major obstacle — one that we can ill-afford — on the road to achieving our nation’s renewable energy future and stabilizing our world’s climate.

    Bill White manages the National Clean Energy Transmission Initiative for the Energy Future Coalition. During the Clinton administration, he served as senior advisor to EPA Administrator Carol Browner.

  • Alaska’s latest climate worries: Massive wildfires and gushing glaciers

    Alaska’s latest climate worries: Massive wildfires and gushing glaciers

    By Claire Thompson

    The Mendenhall Glacier's sudden surges of icy water threaten people and property in nearby Juneau.
    Random Michelle
    The Mendenhall Glacier’s sudden surges of icy water threaten people and property in nearby Juneau.

    Some say the world will end in fire, some say in ice. Alaska, by the looks of it, is on track for a double apocalypse.

    The home of Sarah “global warming my gluteus maximus” Palin faces a daunting confluence of climate-related challenges, from rising seas to gushing glaciers to massive wildfires. Even Mayor Stubbs (who we’d expect to be cool about this kind of thing) won’t answer questions about the state’s fate.

    Raging blazes in Arizona and Colorado have dominated wildfire news in recent years, but the biggest fires of the past decade burned in Alaska, which is warming twice as fast as the lower 48 states. There, flames have swallowed more than a half-million acres at a time (that’s 781 square miles) of boreal forest, the landscape of spruce and fir trees dominant below the Arctic Circle. And a new study says that this fiery phase is here to stay. From the L.A. Times:

    A warming climate could promote so much wildfire in the boreal zone that the forests may convert to deciduous woodlands of aspen and birch, researchers said.

    “In the last few decades we have seen this extreme combination of high severity and high frequency” wildfire in the study area of interior Alaska’s Yukon Flats, said University of Illinois plant biology Prof. Feng Sheng Hu. …

    Accelerated wildfire could also unlock vast amounts of forest carbon, contributing to greenhouse gases. “The more important implication there is [that] you’re probably going to release a substantial fraction of the carbon that has been stored in the soil,” Hu said.

    In contrast, Alaska’s Mendenhall Glacier, outside Juneau, threatens to wreak chilly destruction, reports The New York Times:

    Starting in July 2011, and each year since, sudden torrents of water shooting out from beneath the glacier have become a new facet of Juneau’s brief, shimmering high summer season. In that first, and so far biggest, measured flood burst, an estimated 10 billion gallons gushed out in three days, threatening homes and property along the Mendenhall River that winds through part of the city. There have been at least two smaller bursts this year. …

    Water from snowmelt, rain and thawing ice are combining in new ways, researchers said — first pooling in an ice-covered depression near the glacier called Suicide Basin, then finding a way to flow downhill.

    What prompts a surge … is pressure. As water builds up in the basin and seeks an outlet, it can actually lift portions of the glacier ever so slightly, and in that lift, the water finds a release. Under the vast pressure of the ice bearing down upon it, the water explodes out into the depths of Mendenhall Lake and from there into the river.

    The phenomenon is not unique to Alaska. Scientists call it jokulhlaup, an Icelandic word meaning “glacier leap.” Though the name suggests an eccentric backcountry sporting event or maybe an elfin dance move, there’s nothing jolly about it. Mendenhall, unlike most glaciers, is far from isolated: 14 miles from downtown Juneau, it’s one of the most visited glaciers in the world, attracting 400,000 tourists a year. That means that its tendency to leap poses huge risks to people and property, and local officials are scrambling to keep a close eye on it. The city of Juneau kicked in part of the cost to install a pressure transducer, which gauges water buildup and transmits real-time results back to monitors via satellite. Meteorologists say the warmer, wetter weather the Juneau area could see in coming decades could increase runoff and spur more frequent surges.

    If only there were a way to make these glaciers leap on over to the burning boreal forest, where they could actually do some good. I’d suggest some kind of pipeline, but I think they’re all in use.

    Claire Thompson is an editorial assistant at Grist.

  • Ocean acidification papers among the most cited in Nature Climate Change

    Ocean acidification papers among the most cited in Nature Climate Change

    Published 26 July 2013 Science Leave a Comment

    Since the journal Nature Climate Change was launched 3 years ago, two ocean acidification papers are among the most cited ones: Fabricius et al. (2011)
    and Rodolfo-Metalpa et al. (2011).

     

    Excerpt from the editorial:

    “Nature Climate Change publishes across the climate change disciplines and it is pleasing that papers from all fields are being recognized in the scientific community. Our most cited paper is about coral reefs and ocean acidification6, with another marine ecology paper — ‘Coral and mollusc resistance to ocean acidification adversely affected by warming’7 — also being well cited. A top social science paper is ‘The role of social and decision sciences in communicating uncertain climate risks’8. The physical sciences are also represented, for example ‘Global radiative forcing from contrail cirrus’9 and a paper on the historical interdecadal modulation of El Niño Southern Oscillation10. Citation counts vary between the ISI Web of Science and Google Scholar due to the different coverage. As is to be expected, papers from our first year, 2011 to early 2012, dominate as they have had longer to accumulate citations.”

     

  • NOAA’s Fairweather Ship Will Set Sail On Ocean Acidification Cruise

    green

    Edition: U.S.

     

    NOAA’s Fairweather Ship Will Set Sail On Ocean Acidification Cruise

    Posted: 07/26/2013 11:30 am EDT

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    By Douglas Main, LiveScience Staff Writer:

    The waters off the Pacific Northwest are becoming more acidic, making life more difficult for the animals that live there, especially oysters and the approximately 3,200 people employed in the shellfish industry.

    Researchers from the National Oceanographic and Atmospheric Administration (NOAA) will set sail Monday (July 29) on a month-long research cruise off the U.S. and Canadian West Coast to see how ocean acidification is affecting the chemistry of the ocean waters and the area’s sea life.

    Ocean acidification occurs when greenhouse-gas emissions cause carbon dioxide to accumulate in the atmosphere and become dissolved in sea water, changing the water’s chemistry and making it more difficult for coral, shellfish and other animals to form hard shells. Carbon dioxide creates carbonic acid when dispersed in water. This can dissolve carbonate, the prime component in corals and oysters’ shells.

    The world’s oceans are 30 percent more acidic than they were before the Industrial Revolution, scientists estimate.

    ocean acidification cruise

    NOAA Ship Fairweather in the Gulf of Alaska with namesake Mt. Fairweather. Credit: NOAA

    This cruise follows up on a similar effort in 2007 that supplied “jaw-dropping” data on how much ocean acidification was hurting oysters, said Brad Warren, director of the Global Ocean Health Partnership, at a news conference today (July 25). (The partnership is an alliance of governments, private groups and international organizations.)

    That expedition linked more acidic waters to huge declines in oyster hatcheries, where oysters are bred, Warren said. Oyster farms rely on a fresh stock of oysters each year to remain economically viable.

    When the data came in from that cruise, it was “a huge wake-up call,” Warren said. “This was almost a mind-bending realization for people in the shellfish industry,” he said.

    The new cruise will also look at how acidification is affecting tiny marine snails called pteropods, a huge source of food for many fish species, including salmon, said Nina Bednarsek, a biological oceanographer with NOAA’s Pacific Environmental Marine Laboratory.

    The research will take place aboard the NOAA ship Fairweather, which will depart from Seattle before heading north and then looping back south. It will end up in San Diego on Aug. 29. During this time, scientists will collect samples to analyze water chemistry, calibrate existing buoys that continuously measure the ocean’s acidity and survey populations of animals, scientists said.

    The researchers will also examine algae along the way. Ocean acidification is expected to worsen harmful algal blooms (like red tide), explosions of toxin-producing cells that can sicken and even kill people who eat oysters tainted with these chemicals, said Vera Trainer, a researcher at NOAA’s Northwest Fisheries Science Center.

    Email Douglas Main or follow him on Twitter or Google+. Follow us @livescience, Facebook or Google+. Article originally on LiveScience.com.

    Copyright 2013 LiveScience, a TechMediaNetwork company. All rights reserved. This material may not be published, broadcast, rewritten or redistributed.

    Also on HuffPost:

    • #10 Madagascar, Indian Ocean

    • #9 Eritrea, Red Sea

    • #8 Pakistan, Arabian Sea

    • #7 Faroe Islands, North Atlantic Ocean

    • #6 Aruba, Southern Caribbean

    • #5 Kiribati, Central Tropical Pacific Ocean

    • #4 Comoros, Indian Ocean

    • #3 Turks And Caicos Islands, Caribbean

    • #2 New Caledonia, Southwest Pacific Ocean

    • #1 Cook Islands, South Pacific Ocean

    • Worst Ocean Acidification in 300 Million Years

      New research suggests that increased carbon emissions have caused the worst

  • Watch this Jeremy Jackson lecture.

    Great lecture by Dr. Jeremy Jackson on damage to our oceans.

     

    x4media@x4mediaLtd 1h

    @ARTHURSLEA @Mark_Butler_MP Yep, I know. Watch this Jeremy Jackson lecture.Best I’ve watched for eco & climate detail http://youtu.be/2zMN3dTvrwY 

  • Having an impact

    Nature Climate Change | Editorial

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    Having an impact

    Nature Climate Change
    3,
    601
    (2013)
    doi:10.1038/nclimate1952
    Published online
    25 June 2013

    As the journal’s first impact factor is released, it is time to reflect on journal metrics and how Nature Climate Change has been making its mark.

    “The impact factor is one of the most recognized metrics and is a measure of a journal’s influence.”

    How time flies. The first issue of Nature Climate Change appeared in April 2011, and the journal — a monthly publication — is now well into its third volume. By the time this issue goes to press, we should have received our first impact factor from Thomson Reuters1. The impact factor is one of the most recognized metrics and is a measure of a journal’s influence. It is calculated on two years’ worth of citation data. The impact factor released in 2013 is for 2012; it is calculated on citation counts in 2012 of papers published in 2010–2011, divided by the number of ‘citable items’ published in that period. Citable items — typically considered to be research papers and review articles — may not include all of the journal content that has been cited, Commentary and Policy Watch pieces would be excluded, for example.

    The importance of impact factors is much debated, with a feeling that too heavy an emphasis is placed on this single number. A small number of very highly cited papers can strongly influence the final number, and the citation is not rated on being positive or negative, so a highly criticized paper may inflate the value.

    Further criticisms of the impact factor include the timeframe — it only looks at the first two years of citations for any given paper, so the longer-term impact of work is not measured; and coverage — citations in books, conferences, reports, policy documents, working papers and the media — is not taken into account. Different dynamics, including publishing timelines and formats, across research disciplines result in different citation rates, meaning that comparison across fields is not possible. The social sciences are not well represented by impact factors; a study has shown that they often have artificially low numbers and are better ranked by other metrics2. Thomson Reuters recognises this and there is a Social Science Citation Index, covering over 4,000 journals and 50 disciplines in the social sciences, for better comparison in these fields3.

    Another tool for measuring journal performance is the h5-index used by Google Scholar, which provides greater coverage of citations including books, conference and working papers4, 5. One advantage of the h5-index is that it is based on five years’ worth of data, rather than just two, which should make it more reliable; on the other hand a new journal would have to wait this period of time before receiving its first h5-index ranking.

    All metrics have shortcomings, are still used as they provide a value for something that is difficult to define. Regardless, Nature Climate Change papers have attracted attention across the scientific and broader community in ways that might not be captured by a single number.

    Nature Climate Change publishes across the climate change disciplines and it is pleasing that papers from all fields are being recognized in the scientific community. Our most cited paper is about coral reefs and ocean acidification6, with another marine ecology paper — ‘Coral and mollusc resistance to ocean acidification adversely affected by warming’7 — also being well cited. A top social science paper is ‘The role of social and decision sciences in communicating uncertain climate risks’8. The physical sciences are also represented, for example ‘Global radiative forcing from contrail cirrus’9 and a paper on the historical interdecadal modulation of El Niño Southern Oscillation10. Citation counts vary between the ISI Web of Science and Google Scholar due to the different coverage. As is to be expected, papers from our first year, 2011 to early 2012, dominate as they have had longer to accumulate citations.

    The Nature Climate Change papers that have received the most press coverage are not necessarily those that are the most cited. Papers that have been reported in the media come from many sections of the journal and are varied in subject area. Examples include a paper on the impacts of wind farms on land surface temperature11, a Perspective on shrinking body size as an ecological response to climate change12 and a paper on a hotspot of sea-level rise13. Other top stories picked up by the media include a very highly cited Correspondence on the rapid growth in carbon dioxide emissions after the global financial crisis of 2008–200914, and more recently a paper on intensification of turbulence affecting air travel over the Atlantic, which received worldwide interest15. Many more Nature Climate Change papers have featured in the press, as well as in digital and social media.

    The impact of published research on policy and working papers is harder to gauge, however feedback from authors and reviewers indicates that papers from the journal are being referenced outside academia. We expect several papers from the journal to feature in the upcoming Intergovernmental Panel on Climate Change Assessment Report Five, with ‘The Physical Science Basis’ expected in September of this year, followed by ‘Impacts, Adaptation and Vulnerability’ and ‘Mitigation of Climate Change’ early next year and the Synthesis Report in October 2014. Another report, the US National Climate Assessment — currently in draft form but closed for comments16 — references several Nature Climate Change papers.

    Nature Climate Change is establishing itself as a resource of climate change information for scientists and the broader community. Although measuring the success of a publication is a complex process, the impact factor represents a key indicator of influence. The release of our first impact factor is therefore an exciting milestone for the journal.

    References

    1. http://wokinfo.com/essays/impact-factor/
    2. Koucher, K. & Thelwall, M. J. Am. Soc. Inform. Sci. Technol. 58, 1055–1065 (2007).
    3. http://thomsonreuters.com/social-sciences-citation-index
    4. http://go.nature.com/gmYXl3
    5. Harzing, A. W. & van der Wal, R. A Google Scholar h-index For Journals: A Better Metric to Measure Journal Impact in Economics and Business? (Academy of Management Annual Meeting, 2008); available at http://www.harzing.com/download/hjournals.pdf
    6. Fabricius, K. E. et al. Nature Clim. Change 1, 165–169 (2011).
    7. Rodolfo-Metalpa, R. et al. Nature Clim. Change 1, 308–312 (2011).
    8. Pidgeon, N & Fischhoff, B. Nature Clim. Change 1, 35–41 (2011).
    9. Burkhardt, U. & Kärcher, B. Nature Clim. Change 1, 54–58 (2011).
    10. Li, J. et al. Nature Clim. Change 1, 114–118 (2011).
    11. Zhou, L. et al. Nature Clim. Change 2, 539–543 (2012).
    12. Sheridan, j.A. & Bickford, D. Nature Clim. Change 1, 401–406 (2011).
    13. Sallenger, A. H., Doran, K. S. & Howd, P. A. Nature Clim. Change 2, 884–888 (2012).
    14. Peters, G. P. et al. Nature Clim. Change 2, 2–4 (2012).
    15. Williams, P. D. & Joshi, M. M. Nature Clim. Change 3, 644–648 (2013).
    16. http://ncadac.globalchange.gov/

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