Author: admin

  • UN Chief ‘alarmed’ at glacier melt

     

    Mr Ban, a former South Korean foreign minister, is on a two-day trip to the Arctic to see first-hand the effects of climate change ahead of international climate talks in Copenhagen in December.

    He is the first UN chief to visit the Ny-Alesund research station.

    World leaders will gather at a UN climate summit in December to try to seal a new international accord on fighting climate change after the Kyoto Protocol requirements expire in 2012.

    Mr Ban, who visited the Polar Ice Rim aboard a Norwegian coastguard vessel, said politicians must act now.

    “We have a moral political responsibility for our future and for the whole of humanity, for even the future of our planet,” he said.

    “This Arctic is the place where this global warming is happening much faster than any other region in the world.

    “It looks like it’s seemingly moving in slow motion but it’s moving faster and faster. Much faster than expected.”

    The UN chief visited the Zeppelin atmospheric measuring station on Ny-Alesund which records the level of carbon dioxide, other greenhouse gases and pollutants in the air.

    “Over the past two years, we’ve suddenly seen a very big increase in methane gas,” Kim Holmen, research director at the Norwegian Polar Institute, told Mr Ban.

    Methane is one of the greenhouse gases that contributes to global warming.

    Mr Holmen warned that glaciers were melting at an increasing rate, releasing massive amounts of fresh water in the oceans and disrupting the Gulf stream – a flow of water in the Atlantic that has a major impact on the planet’s weather system.

    Mr Ban hopes to use his experience in Svalbard to convince the international community about the dangers of climate change at the Copenhagen summit, a meeting he has described as “crucial”.

    Mr Ban is also due to travel to Longyearbyen, the main town in the archipelago, to tour a vault carved into the Arctic permafrost and filled with samples of the world’s most important seeds.

    Dubbed the “Noah’s Ark” of food, the vault can hold up to 4.5 million samples that can provide food crops in the event of a global catastrophe.

     

  • Greens, Libs fight wilderness mining

     

    “Constructing a uranium mine would be completely and utterly incompatible with Arkaroola and all that is precious about Arkaroola,” he said.

    Marathon’s exploration licence expires next month and the SA Government says it will consider renewing the licence after sanctions in the Mining Act have been tightened.

    Tags: mining, environment, mining, land-pollution, recycling-and-waste-management, federal-state-issues, liberal-party, greens, states-and-territories, mining, uranium-mining, sa, adelaide-5000, hawker-5434, port-augusta-5700, port-pirie-5540, whyalla-5600

  • The Sermilik Fjord in Greenland: a chilling view of a warming world

     

    This is also the season for science in Greenland. Glaciologists, seismologists and climatologists from around the world are landing on the ice sheet in helicopters, taking ice-breakers up its inaccessible coastline and measuring glaciers in a race against time to discover why the ice in Greenland is vanishing so much faster than expected.

    Gordon Hamilton, a Scottish-born glaciologist from the University of Maine’s Climate Change Institute, is packing up equipment at his base camp in Tasiilaq, a tiny, remote east coast settlement only accessible by helicopter and where huskies howl all night.

    With his spiky hair and ripped T-shirt, Hamilton could be a rugged glaciologist straight from central casting. Four years ago he hit upon the daring idea of landing on a moving glacier in a helicopter to measure its speed.

    The glaciers of Greenland are the fat, restless fingers of its vast ice sheet, constantly moving, stretching down into fjords and pushing ice from the sheet into the ocean, in the form of melt water and icebergs.

    Before their first expedition, Hamilton and his colleague Leigh Stearns, from the University of Kansas, used satellite data to plan exactly where they would land on a glacier.

    “When we arrived there was no glacier to be seen. It was way up the fjord,” he says. “We thought we’d made some stupid goof with the co-ordinates, but we were where we were supposed to be.” It was the glacier that was in the wrong place. A vast expanse had melted away.

    When Hamilton and Stearns processed their first measurements of the glacier’s speed, they thought they had made another mistake. They found it was marching forwards at a greater pace than a glacier had ever been observed to flow before. “We were blown away because we realised that the glaciers had accelerated not just by a little bit but by a lot,” he says. The three glaciers they studied had abruptly increased the speed by which they were transmitting ice from the ice sheet into the ocean.

    Raw power

    Standing before a glacier in Greenland as it calves icebergs into the dark waters of a cavernous fjord is to witness the raw power of a natural process we have accelerated but will now struggle to control.

    Greenland’s glaciers make those in the Alps look like toys. Grubby white and blue crystal towers, cliffs and crevasses soar up from the water, dispatching millenniums of compacted snow in the shape of seals, water lilies and bishops’ mitres.

    I take a small boat to see the calving with Dines Mikaelsen, an Inuit guide, who in the winter will cross the ice sheet in his five-metre sled pulled by 16 huskies.

    It is not freezing but even in summer the wind is bitingly cold and we can smell the bad breath of a humpback whale as it groans past our bows on Sermilik Fjord. Above its heavy breathing, all you can hear in this wilderness is the drip-drip of melting ice and a crash as icebergs cleave into even smaller lumps, called growlers.

    Mikaelsen stops his boat beside Hann glacier and points out how it was twice as wide and stretched 300 metres further into the fjord just 10 years ago. He also shows off a spectacular electric blue iceberg.

    Locals have nicknamed it “blue diamond”; its colour comes from being cleaved from centuries-old compressed ice at the ancient heart of the glacier. Bobbing in warming waters, this ancient ice fossil will be gone in a couple of weeks.

    The blue diamond is one vivid pointer to the antiquity of the Greenland ice sheet. A relic of the last Ice Age, this is one of three great ice sheets in the world. Up to two miles thick, the other two lie in Antarctica.

    While similar melting effects are being measured in the southern hemisphere, the Greenland sheet may be uniquely vulnerable, lying much further from the chill of the pole than Antarctica’s sheets. The southern end of the Greenland sheet is almost on the same latitude as the Shetlands and stroked by the warm waters of the Gulf Stream.

    Driven by the loss of ice, Arctic temperatures are warming more quickly than other parts of the world: last autumn air temperatures in the Arctic stood at a record 5C above normal. For centuries, the ice sheets maintained an equilibrium: glaciers calved off icebergs and sent melt water into the oceans every summer; in winter, the ice sheet was then replenished with more frozen snow. Scientists believe the world’s great ice sheets will not completely disappear for many more centuries, but the Greenland ice sheet is now shedding more ice than it is accumulating.

    The melting has been recorded since 1979; scientists put the annual net loss of ice and water from the ice sheet at 300-400 gigatonnes (equivalent to a billion elephants being dropped in the ocean), which could hasten a sea level rise of catastrophic proportions.

    As Hamilton has found, Greenland’s glaciers have increased the speed at which they shift ice from the sheet into the ocean. Helheim, an enormous tower of ice that calves into Sermilik Fjord, used to move at 7km (4.4 miles) a year. In 2005, in less than a year, it speeded up to nearly 12km a year. Kangerdlugssuaq, another glacier that Hamilton measured, tripled its speed between 1988 and 2005. Its movement – an inch every minute – could be seen with the naked eye.

    The three glaciers that Hamilton and Stearns measured account for about a fifth of the discharge from the entire Greenland ice sheet. The implications of their acceleration are profound: “If they all start to speed up, you could have quite a large rise in sea level in the near term, much larger than the official estimate by the Intergovernmental Panel on Climate Change (IPCC) would project,” says Hamilton.

    The scientific labours in the chill winds and high seas of the Arctic summer seem wrapped in an unusual sense of urgency this year. The scientists working in Greenland are keen to communicate their new, emerging understanding of the dynamics of the declining ice sheet to the wider world. Several point out that any international agreement forged at the UN climate change conference in Copenhagen in December will be based on the IPCC’s fourth assessment report from 2007. Its estimates of climate change and sea-level rise were based on scientific research submitted up to 2005; the scientists say this is already significantly out of date.

    The 2007 report predicted a sea level rise of 30cm-60cm by 2100, but did not account for the impact of glaciers breaking into the sea from areas such as the Greenland ice sheet. Most scientists working at the poles predict a one metre rise by 2100. The US Geological Survey has predicted a 1.5 metre rise. As Hamilton points out: “It is only the first metre that matters”.

    Record temperatures

    A one metre rise – with the risk of higher storm surges – would require new defences for New York, London, Mumbai and Shanghai, and imperil swaths of low-lying land from Bangladesh to Florida. Vulnerable areas accommodate 10%of the world’s population – 600 million.

    The Greenland ice sheet is not merely being melted from above by warmer air temperatures. As the oceans of the Arctic waters reach record high temperatures, the role of warmer water lapping against these great glaciers is one of several factors shaping the loss of the ice sheet that has been overlooked until recently.

    Fiamma Straneo, an Italian-born oceanographer, is laboriously winding recording equipment the size of a fire extinguisher from the deck of a small Greenpeace icebreaker caught in huge swells at the mouth of Sermilik fjord.

    In previous decades the Arctic Sunrise has been used in taking direct action against whalers; now it offers itself as a floating research station for independent scientists to reach remote parts of the ice sheet. It is tough work for the multinational crew of 30 in this rough-and-ready little boat, prettified below deck with posters of orang-utans and sunflowers painted in the toilets.

    Before I succumb to vomiting below deck – another journalist is so seasick they are airlifted off the boat – I examine the navigational charts used by the captain, Pete Willcox, a survivor of the sinking of the Rainbow Warrior in 1985. He shows how they are dotted with measurements showing the depth of the ocean but here, close to the east coast of Greenland, the map is blank: this part of the North Atlantic was once covered by sea ice for so much of the year that its waters are still uncharted.

    Earlier in the expedition, the crew believe, they became the first boat to travel through the Nares Strait west of Greenland to the Arctic Ocean in June, once impassable because of sea ice at that time of year. The predicted year when summers in the Arctic would be free of sea ice has fallen from 2100 to 2050 to 2030 in a couple of years.

    Jay Zwally, a Nasa scientist, recently suggested it could be virtually ice-free by late summer 2012. Between 2004 and 2008 the area of “multiyear” Arctic sea ice (ice that has formed over more than one winter and survived the summer melt) shrank by 595,000 sq miles, an area larger than France, Germany and the United Kingdom combined.

    Undaunted by the sickening swell of the ocean and wrapped up against the chilly wind, Straneo, of Woods Hole Oceanographic Institution, one of the world’s leading oceanographic research centres, continues to take measurements from the waters as the long Arctic dusk falls.

    According to Straneo, the rapid changes to the ice sheet have taken glaciologists by surprise. “One of the possible mechanisms which we think may have triggered these changes is melting driven by changing ocean temperatures and currents at the margins of the ice sheet.”

    She has been surprised by early results measuring sea water close to the melting glaciers: one probe recovered from last year recorded a relatively balmy 2C at 60 metres in the fjord in the middle of winter. Straneo said: “This warm and salty water is of subtropical origin – it’s carried by the Gulf Stream. In recent years a lot more of this warm water has been found around the coastal region of Greenland. We think this is one of the mechanisms that has caused these glaciers to accelerate and shed more ice.”

    Straneo’s research is looking at what scientists call the “dynamic effects” of the Greenland ice sheet. It is not simply that the ice sheet is melting steadily as global temperatures rise. Rather, the melting triggers dynamic new effects, which in turn accelerate the melt.

    “It’s quite likely that these dynamic effects are more important in generating a near-term rapid rise in sea level than the traditional melt,” says Hamilton. Another example of these dynamic effects is when the ice sheet melts to expose dirty layers of old snow laced with black carbon from forest fires and even cosmic dust. These dark particles absorb more heat and so further speed up the melt.

    After Straneo gathers her final measurements, the Arctic Sunrise heads for the tranquillity of the sole berth at Tasiilaq, which has a population of fewer than 3,000 but is still the largest settlement on Greenland’s vast east coast. Here another scientist is gathering her final provisions before taking her team camping on a remote glacier.

    Invisible earthquakes

    Several years ago Meredith Nettles, a seismologist from Colombia University, and two colleagues made a remarkable discovery: they identified a new kind of earthquake. These quakes were substantial – measuring magnitude five – but had been invisible because they did not show up on seismographs. (While orthodox tremors registered for a couple of seconds, these occurred rather more slowly, over a minute.)

    The new earthquakes were traced almost exclusively to Greenland, where they were found to be specifically associated with large, fast-flowing outlet glaciers. There have been 200 of them in the last dozen years; in 2005 there were six times as many as in 1993.

    Nettles nimbly explains the science as she heaves bags of equipment on to a helicopter, which will fly her to study Kangerdlugssuaq glacier. “It’s quite a dramatic increase, and that increase happened at the same time as we were seeing dramatic retreats in the location of the calving fronts of the glaciers, and an increase in their flow speed,” she says. “The earthquakes are very closely associated with large-scale ice loss events.”

    In other words, the huge chunks of ice breaking off from the glaciers and entering the oceans are large enough to generate a seismic signal that is sent through the Earth. They are happening more regularly and, when they occur, it appears that the glacier speeds up even more.

    The scientists rightly wrap their latest observations in caution. Their studies are still in their infancy. Some of the effects they are observing may be short-term.

    The Greenland ice sheet has survived natural warmer periods in history, the last about 120,000 years ago, although it was much smaller then than it is now. Those still sceptical of the scientific consensus over climate change should perhaps listen to the voices of those who could not be accused of having anything to gain from talking up climate change.

    Inuit warnings

    Arne Sorensen, a specialist ice navigator on Arctic Sunrise, began sailing the Arctic in the 1970s. Journeys around Greenland’s coast that would take three weeks in the 1970s because of sea ice now take a day. He pays heed to the observations of the Inuit. “If you talk to people who live close to nature and they tell you this is unusual and this is not something they have noticed before, then I really put emphasis on that,” he says. Paakkanna Ignatiussen, 52, has been hunting seals since he was 13. His grandparents travelled less than a mile to hunt; he must go more than 60 miles because the sea ice disappears earlier – and with it the seals. “It’s hard to see the ice go back. In the old days when we got ice it was only ice. Today it is more like slush,” he says. “In 10 years there will be no traditional hunting. The weather is the reason.”

    The stench of rotting seal flesh wafts from a bag in the porch of his house in Tasiilaq as Ignatiussen’s wife, Ane, remarks that, “the seasons are upside down”.

    Local people are acutely aware of how the weather is changing animal behaviour. Browsing the guns for sale in the supermarket in Tasiilaq (you don’t need a licence for a gun here), Axel Hansen says more hungry polar bears prowl around the town these days. Like the hunters, the bears can’t find seals when there is so little sea ice. And the fjords are filled with so many icebergs that local people find it hard to hunt whales there.

    Westerners may shrug at the decline of traditional hunting but, in a sense, we all live on the Greenland ice sheet now. Its fate is our fate. The scientists swarming over this ancient mass of ice, trying to understand how it will be transformed in a warming world, and how it will transform us, are wary of making political comments about how our leaders should plan for one metre of sea level rise, and what drastic steps must be taken to cut carbon emissions. But some scientists are so astounded by the changes they are recording that they are moved to speak out.

    What, I ask Hamilton, would he say to Barack Obama if he could spend 10 minutes with the US president standing on Helheim glacier?

    “Without knowing anything about what is going on, you just have to look at the glacier to know something huge is happening here,” says the glaciologist. “We can’t as a scientific community keep up with the pace of changes, let alone explain why they are happening.

    “If I was, God forbid, the leader of the free world, I would implement some changes to deal with the maximum risk that we might reasonably expect to encounter, rather than always planning for the minimum. We won’t know the consequences of not doing that until it’s way too late. Even as a politician on a four-year elected cycle, you can’t morally leave someone with that problem.”

  • REPCO RALLY

    Special Legislation, enacted by the NSW Government to allow the Rally to go ahead, is foisting the car rally on the Tweed and Kyogle shires of northern NSW and a  further four more rallies are to be held, biennially, until 2017. The legislation gives sweeping powers to Ian Macdonald, Special Minister of State.

    The Rally legislation tramples on the wishes of a large portion of the local community and overrides all the usual protections of the individual and the environment by ‘switching off’ the National Parks and Wildlife Act, the Environmental Planning and Assessment Act, the Threatened Species Conservation Act, the Forestry Act, the Water Management Act, the Fisheries Management Act and the Local Government Act.

    The 7.30 Report will be airing a story tonight Tues 1 September (or tomorrow night) about the Rally. We are asking people to leave comments on the 7.30 Report website to convey the Statewide displeasure for this abominable dinosaur event.

    This is not just a north coast issue – it is an issue of our democratic rights being swept aside to enable an event by a private, profit-making company. .  Watch the 7.30 Report story and then post a comment.
    http://www.abc.net.au/7.30/

    Write to the letters pages of the newspapers.  Make your displeasure felt!

    Please distribute this to all your networks.

  • Feed-in Tariffs Have Earned a Role in US Energy Policy

     

    The feed-in tariff, or FIT, has proven to be a powerful tool to create managed economic incentives that yield meaningful results in system deployments, job creation, cost reduction and market development — yet many policy makers, especially in the U.S., continue to rely upon renewable portfolio standards, investment tax credits, low interest loan guarantees and other mechanisms to reduce fossil fuel dependency. The solar industry in the U.S. should take pride in achieving recent legislative and funding victories, but also must recognize the powerful role that FITs can bring to rational and responsible energy policy.

    Simply speaking, a capless FIT offers any producer of solar power a pre-determined rate for any kWh of electricity produced, regardless of the own consumption. If this rate is guaranteed for e.g. 20 years, and set in order to allow a decent return on investment for the owner of the system, it mobilizes powerful market forces towards rapid implementation of growing amounts of solar energy.

    The German Solar Miracle

    FITs are the highly-effective policy engine behind the German solar miracle. Recognizing that return-on-investment is the principle barrier to wider market penetration for renewable energy alternatives (not lowering up-front costs), German policy makers required utilities to pay a rate of between €0.32/kWh and €0.43/kWh for solar electricity from newly installed PV systems. The German FIT program authorizes the utilities to pass on this extra cost, spread equally, to all electricity consumers through their electricity bill. In this way, the feed-in program works through market incentives independent of government budgets and subsidies.

    In Germany, the share of renewable energy on the electricity supply grew from 5% in 1998 to 15% in 2008. The monthly extra cost per household due to the feed-in rates for solar electricity is in the average only €3 in 2008. The result is that every electricity consumer contributes to the restructuring of the national electricity supply network. Equally important, by assuring a rate of return over a sufficient period, the German FIT has proven to be an excellent accelerator for private financing. To encourage cost reduction and the eventual elimination of tariffs, the feed-in rate in Germany is reduced each year by 5% (increased to 8 -10 % starting 2009), but only for newly-installed PV systems. Once a PV system is connected to the grid, the guaranteed feed-in rate remains constant over a 20-year period. This approach allows solar customers to easily calculate the return on investment in their PV system, while exerting price pressure on the industry to continuously reduce costs to remain in the market.

    A remarkable feature of a FIT is the built-in sunset clause: With the annual degression of the feed-in rate offered to new customers this rate will in only a few years dip below the rate of household electricity, and later compete with conventional power. Thus, the financial burden on today’s rate payers remains limited, and it provides the basis for more stable energy prices in the future, based on a larger fraction of secure, domestically produced electricity.

    Spain’s FIT

    FITs have been implemented throughout the world with enormously successful results. In Spain’s widely reported experience, nearly 3 GW in 2008 of solar power projects were deployed last year after generous tariffs were adopted. The result was that Spain briefly became the largest solar power market on the world, adding more than 45% of the world’s new installations and three times more than analysts expected. Today, in response to the impact on utility rate payers, Spain has capped its FIT at 500 MW, an amount still larger than all newly installed systems the in the U.S. last year. While Spain’s FIT is often cited as what not to do in solar policy, and this is partly true, the case clearly demonstrates the effectiveness of FITs to quickly establish a viable solar market.

    Part of the confusion and controversy surrounding feed-in tariff is the wide variety of incentive schemes proposed and implemented across the world. In addition to the German example, classic tariffs or premium pricing schemes can be used; FITs can be technology targeted or neutral; capped or uncapped; generation cost based or value based.

    FITs Enacted in ROW

    FITs have been enacted with varying degrees of success in Australia, Brazil, Greece, Portugal, Korea, Singapore, and in some states in the U.S. South Korea adopted feed-in tariffs for solar PV in 2006 that distinguishes between systems >30kWp and systems <30kWp. Feed-in rates are quite generous, but necessary when considering the countries’ low solar irradiance profile. The result has been that South Korea’s solar demand now rivals Japan’s as Asia’s largest market (the country has set a goal of installing 1,300MWp by 2012).

    By using relatively simple market incentives implemented through regulated utility monopolies, feed-in tariffs have proven effective at overcoming thorny downstream barriers such as financing, market education, distribution and sales, installation support, permitting and zoning fears and environmental regulations. Energy investors with resources, experience and entrepreneurial zeal can quickly make markets when they understand the risk and have confidence in reasonable rates of return.

    Policy makers can target residential, commercial and power generation solar markets for development and choose tariff rates or caps to achieve the level of solar penetration desired. Successful fossil fuel reduction — with ancillary beneFITs of job creation, peak management, stable fuel supplies, and more — can be achieved more efficiently, more accurately and more cost effectively than any other policy instrument. In addition, the considerable cost of red tape that is necessary to administrate complicated support schemes like the ones we got used to in the U.S. to prevent fraud can almost be completely eliminated, as the PV system operator will take care to have the system run in the optimum way in order to ensure its profitability.

    Reliance on Subsidies

    So, why the reliance on tax credits, loans, subsidies and solar energy standards in the U.S. and China, to name two countries, to achieve desired policy outcomes? For one, tax credits have been the traditional incentive instruments in the United States for a variety of worthy goals such as home ownership, R&D, education and more. It is an instrument that is familiar and politically expedient.

    Confusion over the term “feed-in tariff” has also been cited as a barrier. In fact, a FIT scheme is not a tax; it just offers a certain rate to be paid for the production of power. Therefore, some advocates prefer the term “feed-in rates,” “performance-based incentives,” “advanced renewable incentives” or “clean energy buy back” mechanisms.

    Most solar policies today rely upon hard or soft mandates on utilities and electrical power providers to establish renewable energy production targets. The American Clean Energy and Security Act of 2009, as passed by the U.S. House of Representatives in June, relies upon the Renewable Portfolio Standards (RPS) to place an obligation on electricity supply companies to produce a specified fraction of their electricity from renewable energy sources. A majority of U.S. states also use RPS policies to achieve favorable renewable energy outcomes. Advocates of RPS mechanisms claim they will result in competition, efficiency and innovation that will deliver renewable energy at the lowest possible cost.

    Barriers to FITs

    The barriers to FITs in the United States are also related to the state and local control over electric utilities and the widely decentralized structure of the electrical generation and distribution system. The U.S. is a labyrinth of 3,100 public utilities, 2,100 non-utility power producers and a not-so-smart transmission system. Despite the complexity, movement is underway to use FITs as an instrument of state, local and national energy policy. In May, Vermont joined California as the only states to pass feed-in tariffs for renewable energy. Several other states, including Michigan, Minnesota, New York, Indiana, and Wisconsin are considering FITs.

    “The feed-in tariff has proven to be the best way to get quick movement in renewable energy development and create a lot of jobs,” said state Rep. Matt Pierce (D), who has introduced a feed-in tariff proposal in Indiana. (New York Times)

    In Florida, the Gainesville Regional Utilities adopted a feed-in tariff with a rate of $0.32 per kilowatt-hour guaranteed for the next 20 years. The program is modeled closely after European systems and reached its self-imposed cap of 4 MW in minutes after accepting applications. In comparison, the U.S. Department of Energy took over three years to award the first loan guarantee for solar after the Energy Policy Act passage in 2005.

    Perhaps similar to the problems in using European benchmarks in the current U.S. healthcare debate, FITs are still seen by some as some strange, exotic policy not applicable to the U.S. market. Some observers have even claimed that that the type of incentives does not matter, just the amount. One solar lobbyist even said about Germany, “They’ve been handing out bags of money and calling it a feed-in tariff. People think that they want a feed-in tariff, but what they really want is those bags of money.”

    “A lot of the charm of the feed-in tariff is solid, take-it-to-the-bank security and confidence for the investing community,” said U.S. Representative Jay Inslee (D-Wash), a sponsor of legislation that would establish a nationwide FIT. His bill was introduced in Congress last year and would use FITs to incent small projects up to 20 MW and help streamline grid interconnections.

    An analysis by the National Renewable Energy Laboratory (NREL) also confirmed that countries with feed-in tariffs have cheaper renewable electricity than those with renewable energy credits, the mechanism behind RPS. The tariff system is less risky, and investors are willing to accept lower profits for long-term stability, according to the report.

    “We deal with data and the evidence is very clear,” said Toby Couture, a researcher with the NREL in a report by the Sarasota Herald-Tribune (March 22, 2009). “Feed-in tariffs have consistently proven to be cheaper for consumers. That’s the bottom line.”

    Increasingly, FITs are seen as complimentary to well-crafted RPS policies. One report concluded, “RPS policies appear to be converging with some of the design characteristics typically associated with feed-in tariffs. As a result, it could become increasingly possible to incorporate elements of feed-in tariffs into RPS policy making,” (Feed-in Tariffs and Renewable Energy in the USA – a Policy Update, May 2008). A similar conclusion was made in a March 2009 report by the NREL that concluded: “FIT policies…can be used in parallel and wholly separate from RPS policies, they can replace a part of the current mechanism (perhaps to support a solar carve-out, or distributed generation), or they can be used to entirely replace RPS mechanisms. Of course, they can also be used by states with voluntary renewable energy goals to advance renewable energy development (Technical Report, NREL/TP-6A2 45549 March 2009).

    Despite their proven effectiveness and ability to work in conjunction with RPS policies, national, state and regional FIT legislation has been a grass roots affair, not supported by national environmental or renewable energy associations. Rhone Resch of the Solar Energy Industries Association said in January, “What you are also going to see is a focus by industry to create feed-in tariffs at the state level. Creating these programs at the state level will provide a laboratory that shows the federal government how this kind of incentive program stimulates the market. So we are probably a couple years away from a major push on feed-in tariffs at the federal level.”

    Call them what you will, but feed-in tariffs or performance-based incentives need to be seriously considered by every country and every policy maker in the world looking to expand the contribution of solar energy. They will be required to reach meaningful national climate goals and achieve significant job creation and economic stimulus. Elimination or marginalization of FITs by many policy makers in the U.S. cannot be a healthy sign for optimal legislation in the future. While near-term legislative action needs to focus on winnable, achievable victories, long-term success will require effective instruments grounded in solid economics.

  • PM’s Gorgon claims not backed by figures:Greens

    PM’s Gorgon claims not backed by figures: Greens

    Claims by Kevin Rudd that the Gorgon gas project must go ahead on an
    A-class reserve at Barrow Island so that the project’s emissions can be
    sequestered in reservoirs beneath the island are undermined by the
    proponents’ own figures, Greens Senator for WA Rachel Siewert says.

    “Out of the nearly nine million tonnes-a-year of CO2 emissions that the
    Gorgon project will create, the proponents quite clearly state that they
    planning to geo-sequester less than half,” Senator Siewert said.

    “It is therefore a furphy that keeping greenhouse gas emissions low is
    the main reason for the proponents to build on Barrow. The real reason
    is simply cost, because Barrow presents a cheaper option for the
    proponents than building an LNG plant on the mainland.

    “Given the very poor track record of carbon geo-sequestration projects
    around the world to date, I also fear that given the weak conditions
    imposed on the development, the proponents will eventually allow all
    8.81 million tonnes-a-year of Gorgon’s carbon dioxide emissions to vent
    into the atmosphere.

    “That could mean we’re looking at this project emitting the equivalent
    emissions of eight new coal-fired power stations.

    “Even with carbon geo-sequestration, Gorgon represents as many annual
    emissions as five new 200MW coal-fired power stations.

    “Putting the LNG plant on the mainland would not only avoid unnecessary
    irreparable damage to a fragile offshore environment and species living
    on Barrow, it would also allow for the co-location of other industries
    boosting skilled jobs and the local economy.

    “This comes at a time when renewable energy technologies in Western
    Australia are ripe for commercial roll-out, including solar thermal and
    wind, with wave and geothermal close behind.

    “It’s clear that Western Australia has massive potential for job
    creation and zero-carbon base and peak-load electricity generation using
    renewable energies.

    “What a difference it would make if the Rudd and Barnett governments put
    the same amount of energy into encouraging renewable energy developments
    as they have into Gorgon.

    “A multi-billion dollar investment in solar thermal and wave power would
    see a huge boost to WA’s economy and a tremendous reduction in our
    greenhouse emissions, and it would set us up to be an export hub for
    renewable energy instead of more polluting fossil fuels.”

    For more information or media inquiries, please call Eloise Dortch on
    0415 507 763

    Note to editors:
    Gorgon proponents plan to inject 3.36 million tonnes of carbon dioxide
    each year into reservoirs beneath the island and vent another 5.45
    million tonnes annually into the atmosphere – refer to WA Environmental
    Protection Authority report No 1323 (April 2009), page 30 (p.39 on
    computer screen) at
    http://www.epa.wa.gov.au/docs/2937_Rep1323GorgonRevPer30409.pdf