Showing posts with label GHG reduction. Show all posts
Showing posts with label GHG reduction. Show all posts
02 January 2013
Carbon Taxes Make Ireland Even Greener
DUBLIN — Over the last three years, with its economy in tatters, Ireland embraced a novel strategy to help reduce its staggering deficit: charging households and businesses for the environmental damage they cause.
The government imposed taxes on most of the fossil fuels used by homes, offices, vehicles and farms, based on each fuel’s carbon dioxide emissions, a move that immediately drove up prices for oil, natural gas and kerosene. Household trash is weighed at the curb, and residents are billed for anything that is not being recycled.
The Irish now pay purchase taxes on new cars and yearly registration fees that rise steeply in proportion to the vehicle’s emissions.
for the rest of the article click here
04 December 2012
28 November 2012
Greenhouse gas volumes reached new high in 2011: survey
Date: 21-Nov-12
Country: GENEVA
Author: Tom Miles
Atmospheric volumes of greenhouse gases blamed for climate change hit a new record in 2011, the World Meteorological Organization (WMO) said in its annual Greenhouse Gas Bulletin on Tuesday.
The volume of carbon dioxide, the primary greenhouse gas emitted by human activities, grew at a similar rate to the previous decade and reached 390.9 parts per million (ppm), 40 percent above the pre-industrial level, the survey said.
It has increased by an average of 2 ppm for the past 10 years.
Fossil fuels are the primary source of about 375 billion metric tonnes (413.37 billion tons) of carbon that has been released into the atmosphere since the industrial era began in 1750, the WMO said.
WMO Secretary-General Michel Jarraud said the billions of tonnes of extra carbon dioxide would stay in the atmosphere for centuries, causing the planet to warm further.
"We have already seen that the oceans are becoming more acidic as a result of the carbon dioxide uptake, with potential repercussions for the underwater food chain and coral reefs," he said in a statement.
Levels of methane, another long-lived greenhouse gas, have risen steadily for the past three years after leveling off for about seven years. The reasons for that evening out are unclear.
Growth in volumes of a third gas, nitrous oxide, quickened in 2011. It has a long-term climate impact that is 298 times greater than carbon dioxide.
The WMO, the United Nations' weather agency, said the three gases, which are closely linked to human activities such as fossil fuel use, deforestation and intensive agriculture, had increased the warming effect on the climate by 30 percent between 1990 and 2011.
The prevalence of several less abundant greenhouse gases was also growing fast, it said.
Sulphur hexafluoride, used as an electrical insulator in power distribution equipment, had doubled in volume since the mid-1990s, while hydrochlorofluorocarbons (HCFCs) and hydrofluorocarbons (HFCs) were growing at a rapid rate from a low base.
But chlorofluorocarbons (CFCs) and most halons were decreasing, it said.
23 November 2012
Ripe for Retirement: The Case for Closing America's Costliest Coal Plants
As many as 353 coal-fired power generators in 31 states — representing up to 59 GW of power capacity — are no longer economically viable compared with cleaner, more affordable energy sources
A significant number of U.S. coal-fired generators are old, inefficient, dirty, and no longer economically competitive. Simply stated, they are ripe for retirement and should be considered for closure.
America’s coal power fleet is facing an increasingly uncertain economic future. Growing competition from cheaper, cleaner alternatives — including natural gas and renewable energy sources such as wind and solar — is making it harder for these generators to produce energy economically.
With appropriate planning, these outdated coal generators can be closed down while still maintaining a reliable electricity system. By ramping up underutilized natural gas plants, increasing renewable energy through existing state policies, and reducing demand through improved energy efficiency, every region in the country could more than replace the electricity currently produced by ripe-for-retirement generators.
Shutting them down doesn't just make sense financially. Reducing America's reliance on coal would also improve public health, lower global warming emissions, and provide a historic opportunity to accelerate the transition to a cleaner, healthier energy future.
For the rest of this report Click here
19 November 2012
How Germany Is Getting to 100 Percent Renewable Energy
by Thomas Hedges
There is no debate on climate change in Germany. The temperature for the past 10 months has been three degrees above average and we’re again on course for the warmest year on record. There’s no dispute among Germans as to whether this change is man-made, or that we contribute to it and need to stop accelerating the process.
Since 2000, Germany has converted 25 percent of its power grid to renewable energy sources such as solar, wind and biomass. The architects of the clean energy movement Energiewende, which translates to “energy transformation,” estimate that from 80 percent to 100 percent of Germany’s electricity will come from renewable sources by 2050.
Germans are baffled that the United States has not taken the same path. Not only is the U.S. the wealthiest nation in the world, but it’s also credited with jump-starting Germany’s green movement 40 years ago.
“This is a very American idea,” Arne Jungjohann, a director at the Heinrich Boll Stiftung Foundation (HBSF), said at a press conference Tuesday morning in Washington, D.C. “We got this from Jimmy Carter.”
Germany adopted and continued Carter’s push for energy conservation while the U.S. abandoned further efforts. The death of an American Energiewende solidified when President Ronald Reagan ripped down the solar panels atop the White House that Carter had installed.
Since then, Germany has created strong incentives for the public to invest in renewable energy. It pays people to generate electricity from solar panels on their houses. The effort to turn more consumers into producers is accelerated through feed-in tariffs, which are 20-year contracts that ensure a fixed price the government will pay. Germany lowers the price every year, so there’s good reason to sign one as soon as possible, before compensation falls further.
The money the government uses to pay producers comes from a monthly surcharge on utility bills that everyone pays, similar to a rebate. Ratepayers pay an additional cost for the renewable energy fund and then get that money back from the government, at a profit, if they are producing their own energy.
In the end, ratepayers control the program, not the government. This adds consistency, Davidson says. If the government itself paid, it would be easy for a new finance minister to cut the program upon taking office. Funding is not at the whim of politicians as it is in the U.S.
“Everyone has skin in the game,” says writer Osha Gray Davidson. “The movement is decentralized and democratized, and that’s why it works. Anybody in Germany can be a utility.”
The press conference the foundation organized with InsideClimate News comes two weeks after one of the biggest storms in U.S. history and sits in the shadow of the Keystone XL Pipeline, which would unlock the world’s second-largest oil reserve in Canada. The event also comes one day after a report that says that the U.S. is on track to become the leading oil and gas producer by 2020, which suggests that the U.S. has the capability to match Germany’s green movement, but is instead using its resources to deepen its dependency on fossil fuels.
Many community organizers have given up on government and are moving to spark a green movement in the U.S. through energy cooperatives.
Anya Schoolman is a D.C. organizer who has started many co-ops in the district although she began with no experience. She says that converting to renewable energy one person at a time would not work in the U.S. because of legal complexities and tax laws that discourage people from investing in clean energy.
Grid managers in the U.S., she explains, often require households to turn off wind turbines at night, a practice called “curtailment.”
“It’s a favor to the utility companies,” she says, which don’t hold as much power in Germany as they do in the United States.
Individuals and cooperatives own 65 percent of Germany’s renewable energy capacity. In the U.S. they own 2 percent. The rest is privately controlled.
The largest difference, panelists said, between Germany and the U.S. is how reactive the government is to its citizens. Democracy in Germany has meant keeping and strengthening regulatory agencies while forming policies that put public ownership ahead of private ownership.
“In the end,” says Davidson, who spent a month in Germany studying the Energiewende, “it isn’t about making money. It’s about quality of life.”
Thomas Hedges works for the Center for Responsive Law in Washington, DC
07 September 2012
02 June 2012
Nukes down CO2 UP
Like or dislike nuclear power, its reactors do not emit carbon dioxide - the global warming culprit. So guess what’s happened to Japan’s CO2 footprint since it started shutting down its nuclear plants and replacing them with CO2 spewing fossil fuels?
In case you need a clue: Japan has switched off all but two of the 54 reactors that had provided 30 percent of the country’s electricity before Fukushima Daichii nuclear plant meltdown a year ago.
The answer: “They’re swapping (in) fossil fuels for nuclear, and that’s driving up their CO2 emissions and the carbon intensity of their electricity supply,” says Jesse Jenkins, an energy analyst with research firm the Breakthrough Institute, in an article on the NPR website.
The country has made up a good portion of the energy gap by burning liquefied natural gas (LNG), and also coal and fuel oil. While LNG emits less CO2 than coal, it is still a significant emitter (the nuclear value chain, including mining and fuel processing, has a very small CO2 footprint, as do solar and wind). On top of that, the country imports its fossil fuels from far afield - Japan has precious little of its own coal, oil or natural gas. That incurs extra environmental demerits through the high CO2 emissions of overseas shipping.
“A permanent shutdown (of Japan’s nuclear) would boost annual CO2 emission by 60 million tons - or more than 5 percent - as the nation draws extra power from burning fossil fuels, according to the country’s Institute of Energy Economics,” writes New Scientist, in a kindred story to NPR’s.
There’s a similar CO2 rise in Germany, which began phasing out nuclear power and using more coal after the events at Fukushima. Germany has closed 8 nuclear plants, and plans to shut its remaining 9 by 2022.
“The additional German emissions alone could add up to more than 300 million tons by 2020, which according to the World Nuclear Association, would ‘virtually cancel out the 335-million-ton savings intended to be achieved in the entire European Union by the 2011 Energy Efficiency Directive’,” New Scientist notes.
Both Germany and Japan have significant plans to use solar and wind energy. Germany is already one of the world’s largest generators of solar electricity (the largest by many measures, although some rankings now put Italy on top). But solar and wind generally cannot provide the steady “baseload” power that nuclear can.
Japan has also responded to its nuclear shutdown with impressive conservation efforts. Its Institute of Energy Economics has estimated that the country could eliminate the need for 13 nuclear reactors alone simply by replacing 1.6 million lightbulbs with energy efficient LEDs.
The country has reasons other than environmental to continue to seek energy efficiency gains. The fossil fuel imports are subject to geopolitical instabilities, as the LNG comes largely from the Persian Gulf, threatened by tensions in Iran.
The imports have even flipped the manufacturing powerhouse’s long vaunted trade surplus. As the NPR article notes, “The country now spends more on imports than it earns from exports. What is Japan buying? Fuel.” It sites figures from the International Energy Agency in Paris pegging Japan’s daily fuel import bill at $100 million. One IEA analyst says that Japan would use 20 percent of the world’s supply of LNG if it kept going at its current rate.
And let’s not forget why Japan built up its nuclear energy profile in the first place. As the CIA handbook points out, the country “has virtually no energy natural resources.” It is “the world’s largest importer of coal and liquefied natural gas, as well as the second largest importer of oil,” the CIA says. That’s a dubious distinction in an era of globally intense political and industrial hydrocarbon volatility.
Nuclear power, and its CO2 avoidance, could well rise up the international environmental agenda, especially as post-Fukushima time goes by. Just yesterday, word leaked that the UK government wants the European Commission to include nuclear as a “renewable” source of energy in 2030 targets for the European Union.
Note to EC: heed Britain’s suggestion. But don’t just stick with conventional uranium, water-cooled nuclear. Head into a nuclear world of safer alternative technologies, such as thorium and others. Thorium reactors could have won the day back in the 1960s, when for political reasons they did not. It’s time to go back to the future.
28 May 2012
U.S. Coal Generation Drops 19 Percent In One Year, Leaving Coal With 36 Percent Share Of Electricity
By Stephen Lacey
Power generation from coal is falling quickly. According to new figures from the U.S. Energy Information Administration, coal made up 36 percent of U.S. electricity in the first quarter of 2012 — down from 44.6 percent in the first quarter of 2011.
That stunning drop, which represented almost a 20 percent decline in coal generation over the last year, was primarily due to low natural gas prices. As EIA explains, natural gas generation will climb steadily this year, while coal will see a double-digit drop by the end of 2012:
Natural‐gas‐fired generation continues to expand its share of total generation at the expense of coal‐fired generation. During the first quarter of 2012, natural gas accounted for 28.7 percent of total generation compared with 20.7 percent during the same quarter last year. In contrast, coal’s share of total generation declined from 44.6 percent to 36.0 percent over the same period.
Prices for natural gas delivered to the electric power industry fell by 7.5 percent in 2011, which contributed to a significant increase in the share of natural‐gas‐fired generation. EIA expects this trend to continue in 2012, with electric power sector coal consumption falling by 14 percent. Natural gas in the electric power sector grows by almost 21 percent in 2012, primarily driven by the increasing relative cost advantages of natural gas over coal for power generation in some regions.
EIA also projects that coal production at mines will fall by more than 10 percent this year. However, with prices falling due to an increase in secondary inventories, the agency predicts that domestic consumption may rise by just over 1 percent next year.
The U.S. coal industry if facing major headwinds. The current drop in generation is mostly due to competition from natural gas. But there are other factors that will assist in pushing coal out of the electricity mix: An aging fleet of plants, cost-competitive renewables, new clean air regulations, and a strong anti-coal movement are working together to reduce the attractiveness of coal. Since 2010, plant operators have announced 106 retirements of coal facilities — representing 13 percent of the U.S. fleet, according to the Sierra Club.
The continued decline in domestic coal generation is good news for reducing greenhouse gas emissions. Carbon dioxide emissions from the fossil fuel sector are expected to decline by almost 3 percent this year — continuing the 1.9 percent decrease seen in 2011. Emissions from natural gas will rise by 5.5 percent, while emissions from coal will fall by almost 12 percent.
12 May 2012
08 May 2012
THIS IS IMPORTANT READ IT!
Reposted from Planet Thoughts
The future of nuclear power now hangs on a single decision by President Obama---and us.
His Office of Management and Budget could cave to the unsustainable demands of reactor builders who cannot handle the standard terms of a loan agreement.
Or he could defend basic financial procedures and stand up for the future of the American economy.
You can help make this decision, which will come soon.
It's about a proposed $8.33 billion nuke power loan guarantee package for two reactors being built at Georgia's Vogtle. Obama anointed it last year for the Southern Company, parent to Georgia Power. Two other reactors sporadically operate there. Southern just ravaged the new construction side of the site, stripping virtually all vegetation.
It's also stripped Georgia ratepayers of ever-more millions of dollars, soon to become billions. This project is in the Peach State for its law forcing the public to pay for reactor construction in advance. When the project fails, or the reactors melt, the public still must pay. A taste of what's coming has emerged in shocking defects in poured concrete at the site which will cost millions to correct and months of delay on a project whose construction has barely begun ( http://nukefree.org/nc-warn-vogtle-already-hit-major-design-flaw-delay ) .
Nonetheless, Southern runs virtually no financial risk. It actually has an interest in never finishing. Florida is now in turmoil, trying to rid itself of a similar Construction Work in Progress law ( http://nukefree.org/florida-legislators-sue-stop-nuke-bailouts-advance ).
Worldwide estimated reactor costs have jumped from $3-5 billion each a few short years ago to $10 billion or more, and rising.
Uranium prices are set to soar as the supply of Russian weapons-based fuel is about done. And renewables have long since outstripped atomic energy as being cheaper, faster to build, cleaner, safer, more reliable and open to community ownership.
There are virtually no private investors willing to back new reactor construction. There are no private insurers willing to take the risk on operating reactors. There is no place to store the radioactive wastes they generate.
Operating reactors in Vermont ( http://nukefree.org/vermonters-tell-vermont-yankee-get-out ), New York, California ( http://nukefree.org/nrc-chair-jazcko-says-san-onofre-be-shut-indefinitely ) and elsewhere now face ferocious public uprisings to get them shut.
They are being joined by Governors, US Senators and entire legislatures. Peter Shumlin, Governor of Vermont, has appeared at a major public rally to shut Yankee. The legislature long ago voted (26-4) the same way. Shumlin was joined by US Senator Bernie Sanders, who has issued a stunning denunciation of the loan guarantees ( http://nukefree.org/sen-bernie-sanders-ryan-alexander-stop-nuclear-subsidies ) . US Senator Ron Wyden of Orgeon has published a serious warning about the on-going dangers of Fukushima, which he recently visited ( http://nukefree.org/sen-wyden-warns-situation-fukushima-worse-believed ).
Once the public kills one of these elderly reactors, a tsunami of shutdowns among the 104 currently licensed in the US will follow.
Germany and much of the rest of Europe have abandoned the technology ( http://nukefree.org/europes-war-over-nuclear-financing ). Bulgaria has just scrapped plans for two proposed generators. Major banking institutions have warned potential investors in Britain's planned reactors that if they proceed, they will lose their financial standing. Mexico has also said it won't build new nukes.
In Asia, only one of Japan's 54 licensed reactors now operates, and it may soon shut. Huge demonstrations and hunger strikes are raging against a proposed project at Koodankulam, India. The Philippines says it won't build any reactors at all ( http://nukefree.org/philippines-says-no-new-nukes ). China, the last bastion of any apparent large-scale interest in multiple nukes, seems to be wavering, in part because of the rise of a No Nukes movement there.
Here, two reactors barely beginning construction in South Carolina are also in deep trouble. Their builders need massive rate hikes in North Carolina to proceed, and the opposition there is fierce ( http://nukefree.org/ncwarn-north-carolina-can-kill-south-carolina-nuke-project ).
But the lynchpin is Vogtle. The construction loan guarantee program got $18.5 billion from George W. Bush in 2005. With the industry in deepening chaos, it took until last year for a president to designate less than half that money. For the first time in years, there is no Executive or Congressional request to put more money into the fund.
The French National Utility EDF did step forward to get funding for Maryland's proposed Calvert Cliffs project. But haggling over terms contributed to its demise.
Now Southern faces the same abyss. It refuses what the mortgage community would consider a normal 20% downpayment on its taxpayer-funded loan. Southern wants to put virtually none of its own money into the project, leaving the radioactive gamble totally to the public.
But the Office of Management and Budget is apparently demanding something more reasonable ( http://nukefree.org/vogtle-loan-guarantee-not-yet-done-deal ). Because the OMB is a White House agency, Obama holds the key. It's our job to make him turn it in a green direction.
A short while ago, this package was considered a done deal. But the GOP uproar over the failed $535 million loan to the solar company Solyndra changed to context. Initiated by Bush, Republicans have made Solyndra the poster child for bad federal loans.
Vogtle involves some 15 times Solyndra's liability. And it's all Obama's. At least three petitions are circulating against the package.( http://nukefree.org/please-do-sign-petition-stop-new-nuke-loan-guarantees ).
There are many ways to finally shut down what has been the most expensive technological failure in human history. Fukushima and the killing power of radiation, the unsolved problem of radioactive waste, the campaigns against failing reactors such as Vermont Yankee, Indian Point, San Onofre and Davis-Besse---all are key. This weekend, a conference convened by the Sierra Club in Washington, DC ( http://action.sierraclub.org/site/DocServer/no_Nukes_Flyer2.pdf?docID=9701 ), will weigh the various strategies.
But killing this loan guarantee package could finally kill the prospect of new reactors in the US. The astonishing rise of Solartopian green technologies has far outstripped atomic energy in the marketplace. Every delay deeply diminishes the possibility of building more of these profoundly uneconomic anachronisms.
In the long run, Vogtle, Summer and any other new nukes that seem to slip through in the short term will almost certainly be stopped by what has become one of the most powerful non-violent social movements in human history.
But right now, it's up to Obama---and us. Does he really want an atomic Solyndra on his hands? Will we really let this happen?
Let's relieve the President of this radioactive burden. Let's kill these reactors before they kill us, and take the most significant leap of all toward a green-powered Earth.
28 February 2012
More than 68% of New European Electricity Capacity Came from Wind and Solar in 2011
Written by Stephen Lacey, ThinkProgress
As the sovereign debt crisis unfolds in Europe, onlookers have questioned whether the region will stay committed to renewable energy. The answer so far is “yes.”
Even with a few countries pulling back on government support of the industry because of fiscal troubles, 2011 was still a huge year for deployment — with wind and solar alone representing almost 70% of new capacity.
That’s almost a 10-fold increase over deployment in 2000, when only 3.5 GW of renewable energy projects were installed. Last year, 32 GW of renewables — mostly wind and solar — were deployed across European countries.
The figures come from the European Wind Energy Association, which just released a report on industry growth.
Growth in Europe has consistently outstripped forecasts. The EU currently has a target of getting 20% of its final energy (heat, electricity and fuels) from renewable energy. Numerous countries have already surpassed their needed targets in the electricity and heating sectors, and it’s likely that the entire region will move past the goal well ahead of schedule.
It’s expected that renewable electricity sources will meet 34% of demand in Europe by 2020, with 25 of 27 countries to surpass their targets beforehand.
In 2011, solar PV accounted for 26.7% of capacity additions, wind power accounted for 21.4% of additions, and natural gas made up 22% of installations. Below that was coal at 4.8%, fuel oil at 1.6%, large hydro at 1.3%, and concentrating solar power at 1.1% of capacity.
(A side note to anyone confused by terms: It is always important to remember that “capacity” is the ability to do work. It is completely different than actual electricity generation. Just because 68% of new capacity was added in 2011, doesn’t mean that Europe will get 68% more electricity from renewables. Hence, the major differences in generation figures).
So what does Europe’s power capacity mix look like today?

Notice the stunning increase in wind, solar and natural gas — by far the top three choices for developers in the region. However, coal and fuel oil still have a very large market share. Some experts are concerned that a roll back of nuclear in various countries will increase the share of fossil fuels, particularly coal.
But with wind, solar and gas prices all declining to record lows, the combination of those three resources could prevent a sizable increase in coal development.
Read more: http://www.care2.com/causes/more-than-68-of-new-european-electricity-capacity-came-from-wind-and-solar-in-2011.html#ixzz1mqOxJg3i
As the sovereign debt crisis unfolds in Europe, onlookers have questioned whether the region will stay committed to renewable energy. The answer so far is “yes.”
Even with a few countries pulling back on government support of the industry because of fiscal troubles, 2011 was still a huge year for deployment — with wind and solar alone representing almost 70% of new capacity.
That’s almost a 10-fold increase over deployment in 2000, when only 3.5 GW of renewable energy projects were installed. Last year, 32 GW of renewables — mostly wind and solar — were deployed across European countries.
The figures come from the European Wind Energy Association, which just released a report on industry growth.
Growth in Europe has consistently outstripped forecasts. The EU currently has a target of getting 20% of its final energy (heat, electricity and fuels) from renewable energy. Numerous countries have already surpassed their needed targets in the electricity and heating sectors, and it’s likely that the entire region will move past the goal well ahead of schedule.
It’s expected that renewable electricity sources will meet 34% of demand in Europe by 2020, with 25 of 27 countries to surpass their targets beforehand.
In 2011, solar PV accounted for 26.7% of capacity additions, wind power accounted for 21.4% of additions, and natural gas made up 22% of installations. Below that was coal at 4.8%, fuel oil at 1.6%, large hydro at 1.3%, and concentrating solar power at 1.1% of capacity.
(A side note to anyone confused by terms: It is always important to remember that “capacity” is the ability to do work. It is completely different than actual electricity generation. Just because 68% of new capacity was added in 2011, doesn’t mean that Europe will get 68% more electricity from renewables. Hence, the major differences in generation figures).
So what does Europe’s power capacity mix look like today?
Notice the stunning increase in wind, solar and natural gas — by far the top three choices for developers in the region. However, coal and fuel oil still have a very large market share. Some experts are concerned that a roll back of nuclear in various countries will increase the share of fossil fuels, particularly coal.
But with wind, solar and gas prices all declining to record lows, the combination of those three resources could prevent a sizable increase in coal development.
Read more: http://www.care2.com/causes/more-than-68-of-new-european-electricity-capacity-came-from-wind-and-solar-in-2011.html#ixzz1mqOxJg3i
04 February 2012
if only
From The economist
A FREIGHT train, its dozen cars loaded with coal covered in a light dusting of snow, snaked through the narrow valley, sometimes following the two-lane highway and sometimes crossing it. The valley was silent and snowy, and though it was two days into 2012 it could easily have been 1982, 1942 or 1922: coal has been mined in Appalachia and carried out by rail for well over a century.
And by some measures, coal is still going strong. It provides more of America’s electricity than any other fuel. Production has fallen off since 2008, but it remains high, as do prices, for which thank the developing world’s appetite. In Appalachia, coal remains a source of well-paid jobs in a region that needs them: for the first three quarters of 2011 employment in the Appalachian coal industry was at its highest level since 1997. And the Powder River Basin, which spans Wyoming and Montana, has become America’s major source of coal in the past decade, relieving overmined Kentucky and West Virginia. The Energy Information Administration (EIA) reckons America has enough coal to meet current demand levels for the next 200 years.
But if the raw numbers look good, the trends tell a different story. Regulatory uncertainty and the emergence of alternative fuel sources (natural gas and renewables) will probably make America’s future far less coal-reliant than its past. In 2000 America got 52% of its electricity from coal; in 2010 that number was 45%. Robust as exports are, they account for less than one-tenth of American mined coal; exports cannot pick up the slack if America’s taste for coal declines. Appalachian coal production peaked in the early 1990s; the EIA forecasts a decline for the next three years, followed by two decades of low-level stability. Increased employment and declining productivity suggest that Appalachian coal is getting harder to find.
Toughening regulation has an effect, too. Coal-fired power plants are the source of more than one-third of greenhouse-gas emissions in America. Last July the Environmental Protection Agency (EPA) issued a rule that requires 28 states to reduce the amount of sulphur dioxide and nitrogen oxide they emit; in December came another, reducing the amount of mercury and other toxic air pollutants that power plants can puff out.
Many plants have already made the necessary upgrades and retrofits; around 53% of America’s coal-fired capacity comes from units fitted with scrubbers. But others, particularly older plants, will have to decide whether such expensive upgrades are worth doing at all. Most of America’s coal-fired capacity comes from plants at least 30 years old, and as much as 14% of existing coal-fired plants, accounting for 4% of America’s generation capacity, will have to be retired in the next five to eight years. Energy providers face a stark choice. They can fight these regulations in court (outcome uncertain). They can retrofit old plants: plenty have done that, too. Or they can build new plants—in which case, far more are choosing plants that burn natural gas or use renewables rather than coal.
To some, regulations prove the current administration’s hostility to coal. To others, however, they are a long-overdue attempt to gauge a putatively cheap fuel’s true external costs. A National Academy of Sciences report estimated that the external costs unrelated to climate-change costs (to human health, crop and timber yields, building materials and recreation) of coal-fired power plants in 2005 totalled $62 billion. A study of coal’s effects on Kentucky’s budget in 2006 found that it contributed $528m in revenue, but its on-budget costs—training, support, repairs to the roads, R&D for the coal industry—totalled $643m. A study in West Virginia in 2009 also found the coal industry a net cost to the state.
Without alternatives, America might need to resign itself to these costs. But alternatives are there. As coal’s share of America’s electricity-generation market fell between 2000 and 2010, those of natural gas and renewables rose: gas from 16% to 24%, and renewables from 9% to 10%.
The EIA forecasts that America will still obtain 39% of its energy from coal by 2035, but that assumes a consistent regulatory framework. Other sources are less sanguine. Deutsche Bank predicts that coal’s share will fall to 20% by 2030 as regulatory risk grows, with natural gas and renewables rising. That seems more likely. The EPA’s new emissions rules may have been stayed by the courts, but they loom nonetheless, hampering investment in coal.
The switch away from it will be painful for some. But as Robert Byrd, the late senator from West Virginia, once said, coal-dependent regions “can choose to anticipate change and adapt to it, or resist and be overrun by it.”
A FREIGHT train, its dozen cars loaded with coal covered in a light dusting of snow, snaked through the narrow valley, sometimes following the two-lane highway and sometimes crossing it. The valley was silent and snowy, and though it was two days into 2012 it could easily have been 1982, 1942 or 1922: coal has been mined in Appalachia and carried out by rail for well over a century.
And by some measures, coal is still going strong. It provides more of America’s electricity than any other fuel. Production has fallen off since 2008, but it remains high, as do prices, for which thank the developing world’s appetite. In Appalachia, coal remains a source of well-paid jobs in a region that needs them: for the first three quarters of 2011 employment in the Appalachian coal industry was at its highest level since 1997. And the Powder River Basin, which spans Wyoming and Montana, has become America’s major source of coal in the past decade, relieving overmined Kentucky and West Virginia. The Energy Information Administration (EIA) reckons America has enough coal to meet current demand levels for the next 200 years.
But if the raw numbers look good, the trends tell a different story. Regulatory uncertainty and the emergence of alternative fuel sources (natural gas and renewables) will probably make America’s future far less coal-reliant than its past. In 2000 America got 52% of its electricity from coal; in 2010 that number was 45%. Robust as exports are, they account for less than one-tenth of American mined coal; exports cannot pick up the slack if America’s taste for coal declines. Appalachian coal production peaked in the early 1990s; the EIA forecasts a decline for the next three years, followed by two decades of low-level stability. Increased employment and declining productivity suggest that Appalachian coal is getting harder to find.
Toughening regulation has an effect, too. Coal-fired power plants are the source of more than one-third of greenhouse-gas emissions in America. Last July the Environmental Protection Agency (EPA) issued a rule that requires 28 states to reduce the amount of sulphur dioxide and nitrogen oxide they emit; in December came another, reducing the amount of mercury and other toxic air pollutants that power plants can puff out.
Many plants have already made the necessary upgrades and retrofits; around 53% of America’s coal-fired capacity comes from units fitted with scrubbers. But others, particularly older plants, will have to decide whether such expensive upgrades are worth doing at all. Most of America’s coal-fired capacity comes from plants at least 30 years old, and as much as 14% of existing coal-fired plants, accounting for 4% of America’s generation capacity, will have to be retired in the next five to eight years. Energy providers face a stark choice. They can fight these regulations in court (outcome uncertain). They can retrofit old plants: plenty have done that, too. Or they can build new plants—in which case, far more are choosing plants that burn natural gas or use renewables rather than coal.
To some, regulations prove the current administration’s hostility to coal. To others, however, they are a long-overdue attempt to gauge a putatively cheap fuel’s true external costs. A National Academy of Sciences report estimated that the external costs unrelated to climate-change costs (to human health, crop and timber yields, building materials and recreation) of coal-fired power plants in 2005 totalled $62 billion. A study of coal’s effects on Kentucky’s budget in 2006 found that it contributed $528m in revenue, but its on-budget costs—training, support, repairs to the roads, R&D for the coal industry—totalled $643m. A study in West Virginia in 2009 also found the coal industry a net cost to the state.
Without alternatives, America might need to resign itself to these costs. But alternatives are there. As coal’s share of America’s electricity-generation market fell between 2000 and 2010, those of natural gas and renewables rose: gas from 16% to 24%, and renewables from 9% to 10%.
The EIA forecasts that America will still obtain 39% of its energy from coal by 2035, but that assumes a consistent regulatory framework. Other sources are less sanguine. Deutsche Bank predicts that coal’s share will fall to 20% by 2030 as regulatory risk grows, with natural gas and renewables rising. That seems more likely. The EPA’s new emissions rules may have been stayed by the courts, but they loom nonetheless, hampering investment in coal.
The switch away from it will be painful for some. But as Robert Byrd, the late senator from West Virginia, once said, coal-dependent regions “can choose to anticipate change and adapt to it, or resist and be overrun by it.”
27 January 2012

Reposted from Jobsanger
Back during the Bush administration, this nation's power plants were excluded from many of the Environmental Protection Agency's pollution regulations. And even though auto pollution was significantly reduced and other industries had to clean up their act, there really wasn't much of a dent put into the pollution being released into the air -- especially as it relates to the pollutants that cause global climate change (commonly referred to as "global warming").
Even though Bush is no longer in power, the Republicans have continued their efforts to protect their buddies in the power production industry. Recently, they even tried to put an amendment on the payroll tax bill that would delay for another five years making the power plants abide by EPA regulations. Maybe they knew what the rest of us suspected -- that the power plants, especially those using coal, were producing far more than their share of the nation's pollution.
On Wednesday, the United States government released the most detailed report yet on just where most global warming pollution was coming from. And there was one industry that produced far more pollution than any other. According to the report, the power plants in America produce an amazing 72% of all the pollution reported to the EPA in 2010. Can you believe that? Only one industry, the power plants, produce nearly three-quarters of all the pollution causing global climate change.
It is time we stop letting the power producers off the hook, especially those who still use coal to fire their plants. And don't even talk to me about "clean coal" -- that is a myth created by the coal industry and simply does not exist. As a country, we must demand action from the power industry to clean up their act. And we must demand the government do more to help the nation move to clean and renewable sources of energy production.
The states with the dirtiest power plants are Georgia, Alabama, Indiana, West Virginia, Texas, Ohio, Michigan, Missouri, Montana, Pennsylvania, Arizona, Wyoming, North Carolina, Kansas, and Kentucky.
30 December 2011
Ford Focus Electric to Boast 100 Mpg Equivalency
Environmental Leader December 15, 2011
Ford says that its Ford Focus Electric is to be the first five-passenger electric vehicle to achieve a 100 mpg equivalent rating. The automaker announced this week that production of the car is to begin at a Michigan assembly plant.
The Focus Electric should also be able to fully recharge in three-to-four hours – half the time of Nissan Leaf, according to Ford. This technology can help double the car’s range during a busy day of driving and recharging multiple times, Ford says. Ford announced a solar powered home charging option for the car in August. http://www.environmentalleader.com/2011/08/11/ford-sunpower-offer-solar-offset-system-for-focus-electric/
The company began taking orders for the 2012 Focus Electric in November through dealers in the California and New York/New Jersey markets. Deliveries to other U.S. markets are expected later in the year as production ramps up.
Comment:
Neither the automakers nor the EPA factors in source efficiency or transmission losses when calculating mpg equivalency of EVs, which would bring “100 mpgs” down to more like 30-40. I’d take clean diesel over an EV any day.
Response:
Source efficiency, as in how much resource or energy it took to produce the electricity for supply? Neither does a gas vehicle or diesel, if you want to talk about that, talk about the energy it takes to find the oil-Crude oil is extracted from underground reservoirs, transported to refineries and refined into a range of petroleum products- MPG for a gas guzzling SUV or clean diesel does not take into account these factors for the energy to bring the product to diesel either. EV emits 0 tail pipe emissions, and I live in California and offset my house and EV charging with Solar PV. California does not use coal either when I charge at night, mostly low emission natural gas turbines to products. It’s the cleanest solution without a doubt, and least energy intensive.
Ford says that its Ford Focus Electric is to be the first five-passenger electric vehicle to achieve a 100 mpg equivalent rating. The automaker announced this week that production of the car is to begin at a Michigan assembly plant.
The Focus Electric should also be able to fully recharge in three-to-four hours – half the time of Nissan Leaf, according to Ford. This technology can help double the car’s range during a busy day of driving and recharging multiple times, Ford says. Ford announced a solar powered home charging option for the car in August. http://www.environmentalleader.com/2011/08/11/ford-sunpower-offer-solar-offset-system-for-focus-electric/
The company began taking orders for the 2012 Focus Electric in November through dealers in the California and New York/New Jersey markets. Deliveries to other U.S. markets are expected later in the year as production ramps up.
Comment:
Neither the automakers nor the EPA factors in source efficiency or transmission losses when calculating mpg equivalency of EVs, which would bring “100 mpgs” down to more like 30-40. I’d take clean diesel over an EV any day.
Response:
Source efficiency, as in how much resource or energy it took to produce the electricity for supply? Neither does a gas vehicle or diesel, if you want to talk about that, talk about the energy it takes to find the oil-Crude oil is extracted from underground reservoirs, transported to refineries and refined into a range of petroleum products- MPG for a gas guzzling SUV or clean diesel does not take into account these factors for the energy to bring the product to diesel either. EV emits 0 tail pipe emissions, and I live in California and offset my house and EV charging with Solar PV. California does not use coal either when I charge at night, mostly low emission natural gas turbines to products. It’s the cleanest solution without a doubt, and least energy intensive.
15 November 2011
Actr now, or React later
The global output of heat-trapping carbon dioxide has jumped by a record amount, according to the US department of energy, a sign of how feeble the world's efforts are at slowing man-made global warming.
The figures for 2010 mean that levels of greenhouse gases are higher than the worst case scenario outlined by climate experts just four years ago.
"The more we talk about the need to control emissions, the more they are growing," said John Reilly, the co-director of MIT's Joint Program on the Science and Policy of Global Change.
The world pumped about 564m more tons (512m metric tons) of carbon into the air in 2010 than it did in 2009, an increase of 6%. That amount of extra pollution eclipses the individual emissions of all but three countries, China, the US and India, the world's top producers of greenhouse gases.
It is a "monster" increase that is unheard of, said Gregg Marland, a professor of geology at Appalachian State University, who has helped calculate department of energy figures in the past.
Extra pollution in China and the US account for more than half the increase in emissions last year, Marland said.
"It's a big jump," said Tom Boden, the director of the energy department's Carbon Dioxide Information Analysis Center at Oak Ridge National Lab. "From an emissions standpoint, the global financial crisis seems to be over."
Boden said that in 2010 people were travelling, and manufacturing was back up worldwide, spurring the use of fossil fuels, the chief contributor of man-made climate change.
India and China are huge users of coal. Burning coal is the biggest carbon source worldwide and emissions from that jumped nearly 8% in 2010.
"The good news is that these economies are growing rapidly so everyone ought to be for that, right?" Reilly said. "Broader economic improvements in poor countries has been bringing living improvements to people. Doing it with increasing reliance on coal is imperiling the world."
In 2007, when the Intergovernmental Panel on Climate Change issued its last large report on global warming, it used different scenarios for carbon dioxide pollution and said the rate of warming would be based on the rate of pollution. Boden said the latest figures put global emissions higher than the worst case projections from the climate panel. Those forecast global temperatures rising between 4 and 11 degrees Fahrenheit (2.4-6.4 Celsius) by the end of the century with the best estimate at 7.5 degrees (4 Celsius).
Even though global warming sceptics have criticised the climate change panel as being too alarmist, scientists have generally found their predictions too conservative, Reilly said. He said his university worked on emissions scenarios, their likelihood, and what would happen. The IPCC's worst case scenario was only about in the middle of what MIT calculated are likely scenarios.
Chris Field of Stanford University, head of one of the IPCC's working groups, said the panel's emissions scenarios are intended to be more accurate in the long term and are less so in earlier years. He said the question now among scientists is whether the future is the panel's worst case scenario "or something more extreme".
"Really dismaying," Granger Morgan, head of the engineering and public policy department at Carnegie Mellon University, said of the new figures. "We are building up a horrible legacy for our children and grandchildren."
But Reilly and University of Victoria climate scientist Andrew Weaver found something good in recent emissions figures. The developed countries that ratified the 1997 Kyoto Protocol greenhouse gas limiting treaty have reduced their emissions overall since then and have achieved their goals of cutting emissions to about 8% below 1990 levels. The US did not ratify the agreement.
In 1990, developed countries produced about 60% of the world's greenhouse gases, now it's probably less than 50%, Reilly said.
"We really need to get the developing world because if we don't, the problem is going to be running away from us," Weaver said. "And the problem is pretty close from running away from us."
The figures for 2010 mean that levels of greenhouse gases are higher than the worst case scenario outlined by climate experts just four years ago.
"The more we talk about the need to control emissions, the more they are growing," said John Reilly, the co-director of MIT's Joint Program on the Science and Policy of Global Change.
The world pumped about 564m more tons (512m metric tons) of carbon into the air in 2010 than it did in 2009, an increase of 6%. That amount of extra pollution eclipses the individual emissions of all but three countries, China, the US and India, the world's top producers of greenhouse gases.
It is a "monster" increase that is unheard of, said Gregg Marland, a professor of geology at Appalachian State University, who has helped calculate department of energy figures in the past.
Extra pollution in China and the US account for more than half the increase in emissions last year, Marland said.
"It's a big jump," said Tom Boden, the director of the energy department's Carbon Dioxide Information Analysis Center at Oak Ridge National Lab. "From an emissions standpoint, the global financial crisis seems to be over."
Boden said that in 2010 people were travelling, and manufacturing was back up worldwide, spurring the use of fossil fuels, the chief contributor of man-made climate change.
India and China are huge users of coal. Burning coal is the biggest carbon source worldwide and emissions from that jumped nearly 8% in 2010.
"The good news is that these economies are growing rapidly so everyone ought to be for that, right?" Reilly said. "Broader economic improvements in poor countries has been bringing living improvements to people. Doing it with increasing reliance on coal is imperiling the world."
In 2007, when the Intergovernmental Panel on Climate Change issued its last large report on global warming, it used different scenarios for carbon dioxide pollution and said the rate of warming would be based on the rate of pollution. Boden said the latest figures put global emissions higher than the worst case projections from the climate panel. Those forecast global temperatures rising between 4 and 11 degrees Fahrenheit (2.4-6.4 Celsius) by the end of the century with the best estimate at 7.5 degrees (4 Celsius).
Even though global warming sceptics have criticised the climate change panel as being too alarmist, scientists have generally found their predictions too conservative, Reilly said. He said his university worked on emissions scenarios, their likelihood, and what would happen. The IPCC's worst case scenario was only about in the middle of what MIT calculated are likely scenarios.
Chris Field of Stanford University, head of one of the IPCC's working groups, said the panel's emissions scenarios are intended to be more accurate in the long term and are less so in earlier years. He said the question now among scientists is whether the future is the panel's worst case scenario "or something more extreme".
"Really dismaying," Granger Morgan, head of the engineering and public policy department at Carnegie Mellon University, said of the new figures. "We are building up a horrible legacy for our children and grandchildren."
But Reilly and University of Victoria climate scientist Andrew Weaver found something good in recent emissions figures. The developed countries that ratified the 1997 Kyoto Protocol greenhouse gas limiting treaty have reduced their emissions overall since then and have achieved their goals of cutting emissions to about 8% below 1990 levels. The US did not ratify the agreement.
In 1990, developed countries produced about 60% of the world's greenhouse gases, now it's probably less than 50%, Reilly said.
"We really need to get the developing world because if we don't, the problem is going to be running away from us," Weaver said. "And the problem is pretty close from running away from us."
23 September 2011
Japanese breakthrough will make wind power cheaper than nuclear

A surprising aerodynamic innovation in wind turbine design called the 'wind lens' could triple the output of a typical wind turbine, making it less costly than nuclear power.
The International Clean Energy Analysis (ICEA) gateway estimates that the U.S. possesses 2.2 million km2 of high wind potential (Class 3-7 winds) — about 850,000 square miles of land that could yield high levels of wind energy. This makes the U.S. something of a Saudi Arabia for wind energy, ranked third in the world for total wind energy potential.
Let's say we developed just 20 percent of those wind resources — 170,000 square miles (440,000 km2) or an area roughly 1/4 the size of Alaska — we could produce a whopping 8.7 billion megawatt hours of electricity each year (based on a theoretical conversion of six 1.5 MW turbines per km2 and an average output of 25 percent. (1.5 MW x 365 days x 24 hrs x 25% = 3,285 MWh's).
The United States uses about 26.6 billion MWh's, so at the above rate we could satisfy a full one-third of our total annual energy needs. (Of course, this assumes the concurrent deployment of a nationwide Smart Grid that could store and disburse the variable sources of wind power as needed using a variety of technologies — gas or coal peaking, utility scale storage via batteries or fly-wheels, etc).
Now what if a breakthrough came along that potentially tripled the energy output of those turbines? You see where I'm going. We could in theory supply the TOTAL annual energy needs of the U.S. simply by exploiting 20 percent of our available wind resources.
Well, such a breakthrough has been made, and it's called the "wind lens."
Imagine: no more dirty coal power, no more mining deaths, no more nuclear disasters, no more polluted aquifers as a result of fracking. Our entire society powered by the quiet "woosh" of a wind turbine. Kyushu University's wind lens turbine is one example of the many innovations happening right now that could in the near future make this utopian vision a reality.
Yes, it's a heck of a lot of wind turbines (about 2,640,000) but the U.S. with its endless miles of prairie and agricultural land is one of the few nations that could actually deploy such a network of wind turbines without disrupting the current productivity of the land (Russia and China also come to mind). It would also be a win-win for states in the highest wind area — the Midwest — which has been hard hit by the recession. And think of the millions upon millions of jobs that would be created building a 21st century energy distribution system free of the shackles of ever-diminishing fossil fuel supplies.
It's also important to point out that growth in wind power capacity is perfectly symbiotic with projected growth in electric vehicles. EV battery packs can soak up wind power produced during the night, helping to equalize the curve of daytime energy demand. So the controversial investment currently being entertained by President Obama to pipe oil down from the Canadian Tar Sands would — in my utopian vision — be a moot point.
It is indeed a lofty vision, but the technology we need is now in our reach. And think of the benefits of having our power production fed by a resource that is both free and unlimited. One downside often cited by advocates of coal and gas power is that wind turbines require a lot more maintenence than a typical coal or gas power plant. But in a lagging economy this might just be wind power's biggest upside — it will create lots and lots of permanent jobs, sparking a new cycle of economic growth in America.
04 June 2011
DOE Shows The South How To Save Energy
Tennessee has the second highest energy consumption in the nation due to its lack of energy efficiency in state building codes. The DOE and Oak Ridge National Laboratory are building a demonstration with the TVA at the Campbell Creek subdivision near Knoxville, Tennessee to show the cost advantages of energy efficiency.
For the test, three houses that look identical were built next to each other, and remotely controlled appliances operate identically in each house. The first one was built to the building code used in Tennessee. The middle house was built to California energy efficiency standards. The last house was a zero (fossil) energy house powered by a solar roof.
The cost to run each proves to be dramatically different.
The three houses are identical, except for the solar on the roof of the third
Inside the three houses, identical activity performed by robotic actions gives a side by side comparison of energy use. Each day, in the three houses, three fridge doors open and close at the same time. TVs in the three houses all go on and off at identical times. Dishwashers and clothes dryers, computers and microwaves, all the identical appliances in the three turn off and off at the same moment.
The resulting electricity bills range from $2,555 a year ($7 a day) to run the lax building code type style home, down to almost half ($4 a day) or $1,460 for the California-level retrofit home, and a mere $365 a year ($1 a day) to run the super efficient and solar home.
The largest savings of the retrofit house over the first simply came from having the heating and air conditioning ducts and system inside the house. Putting heating and cooling outside is still legal in some states in the South.
Homes in the South use 44% of US energy, with only 37% of the population. The South has the lowest rates of market penetration of Energy Star appliances and per capita spending on electric utility energy efficiency programs is just one fifth the national average.
“We should just make it illegal in new homes to put heating and cooling systems anywhere outside the envelope,” said Jeff Christian, building researcher with Oak Ridge National Laboratory, a partner in the project along with the U.S. Department of Energy. “Why would we waste 35-45 percent of the energy?”
The local builder who built the three 2,400 square foot houses called the project eye opening. “Every house built today has insulation installed, but it only takes a little gap in the insulation and it’s like a window’s open all the time,” said Kerr with Michael Rhodes Construction.
For the test, three houses that look identical were built next to each other, and remotely controlled appliances operate identically in each house. The first one was built to the building code used in Tennessee. The middle house was built to California energy efficiency standards. The last house was a zero (fossil) energy house powered by a solar roof.
The cost to run each proves to be dramatically different.
The three houses are identical, except for the solar on the roof of the third
Inside the three houses, identical activity performed by robotic actions gives a side by side comparison of energy use. Each day, in the three houses, three fridge doors open and close at the same time. TVs in the three houses all go on and off at identical times. Dishwashers and clothes dryers, computers and microwaves, all the identical appliances in the three turn off and off at the same moment.
The resulting electricity bills range from $2,555 a year ($7 a day) to run the lax building code type style home, down to almost half ($4 a day) or $1,460 for the California-level retrofit home, and a mere $365 a year ($1 a day) to run the super efficient and solar home.
The largest savings of the retrofit house over the first simply came from having the heating and air conditioning ducts and system inside the house. Putting heating and cooling outside is still legal in some states in the South.
Homes in the South use 44% of US energy, with only 37% of the population. The South has the lowest rates of market penetration of Energy Star appliances and per capita spending on electric utility energy efficiency programs is just one fifth the national average.
“We should just make it illegal in new homes to put heating and cooling systems anywhere outside the envelope,” said Jeff Christian, building researcher with Oak Ridge National Laboratory, a partner in the project along with the U.S. Department of Energy. “Why would we waste 35-45 percent of the energy?”
The local builder who built the three 2,400 square foot houses called the project eye opening. “Every house built today has insulation installed, but it only takes a little gap in the insulation and it’s like a window’s open all the time,” said Kerr with Michael Rhodes Construction.
12 April 2011
NEW CAR ENGINE SENDS SHOCK WAVES THROUGH AUTO INDUSTRY

Despite shifting into higher gear within the consumer's green conscience, hybrid vehicles are still tethered to the gas pump via a fuel-thirsty 100-year-old invention: the internal combustion engine.However, researchers at Michigan State University have built a prototype gasoline engine that requires no transmission, crankshaft, pistons, valves, fuel compression, cooling systems or fluids. Their so-called Wave Disk Generator could greatly improve the efficiency of gas-electric hybrid automobiles and potentially decrease auto emissions up to 90 percent when compared with conventional combustion engines.
The engine has a rotor that's equipped with wave-like channels that trap and mix oxygen and fuel as the rotor spins. These central inlets are blocked off, building pressure within the chamber, causing a shock wave that ignites the compressed air and fuel to transmit energy.
The Wave Disk Generator uses 60 percent of its fuel for propulsion; standard car engines use just 15 percent. As a result,the generator is 3.5 times more fuel efficient than typical combustion engines.
Researchers estimate the new model could shave almost 1,000 pounds off a car's weight currently taken up by conventional engine systems.
Last week, the prototype was presented to the energy division of the Advanced Research Projects Agency, which is backing the Michigan State University Engine Research Laboratory with $2.5 million in funding.
Michigan State's team of engineers hope to have a car-sized 25-kilowatt version of the prototype ready by the end of the year.
04 April 2011
Rainforest Fungus Naturally Synthesizes Diesel

A fungus that lives inside trees in the Patagonian rain forest naturally makes a mix of hydrocarbons that bears a striking resemblance to diesel, biologists announced today. And the fungus can grow on cellulose, a major component of tree trunks, blades of grass and stalks that is the most abundant carbon-based plant material on Earth.
"When we looked at the gas analysis, I was flabbergasted," said Gary Strobel, a plant scientist at Montana State University, and the lead author of a paper in Microbiology describing the find. "We were looking at the essence of diesel fuel."
While genetic engineers have been trying a variety of techniques and genes to get microbes to create fuel out of sugars and starches, almost all commercial biofuel production uses the century-old dry mill grain process. Ethanol plants ferment corn ears into alcohol, which is simple, but wastes the vast majority of the biomatter of the corn plant.
Using the cellulose from plants — the stalk instead of the ear, or simply wood from poplars — to make liquid fuel is a long-held dream because it would be more environmentally efficient and cheaper, but is far more difficult.
First, the cellulose must be broken down into its constituent parts — sugars bearing carbon — and then those pieces must be synthesized into more complex hydrocarbons.
Both steps have proven difficult to do without applying large amounts of heat, pressure or chemicals.
"Traditionally that’s been an energy-intensive process that also involves lots of chemicals," said Andrew Groover, a plant geneticist studying cell wall formation at the U.S. Forest Service’s Pacific Southwest Research Station.
"So, one approach is to look for situations in nature where there are organisms that can break down wood as part of their natural lifestyle:
wood rot, fungi, termites."
What’s exciting about the Gliocladium roseum fungus, however, is that it can both break down cellulose and synthesize the liquid fuel.
"A step in the production process could be skipped," Strobel said in a press release.
That said, the paper’s authors admit that the technique is far from any sort of industrial production.
"This report presents no information on the cost-effectiveness or other details to make G. roseum an alternative fuel source," they write. "Its ultimate value may reside in the genes/enzymes that control hydrocarbon production, and our paper is a necessary first step that may lead to development programmes to make this a commercial venture."
The genome of the fungus is being analyzed at Yale University under the direction of Scott Strobel, a molecular biologist and Gary Strobel’s son.
But beyond the biofuel implications, Strobel said that because the fungus can manufacture what we would normally think of as components of crude oil, it casts some doubt on the idea that crude oil is a fossil fuel.
"It may be the case that organisms like this produced some — maybe not all — but some of the world’s crude," Strobel said.
23 January 2011
Innowattech’s Piezoelectric IPEG PAD

Innowattech recently created piezoelectric generators that can be used as normal rail pads, but generate renewable energy whenever trains pass on them. The company tested the technology by replacing 32 railway pads with new IPEG PADs, where the pads were able to generate enough renewable electricity to determine the number of wheels, weight of each wheel and the wheel’s position. In addition the speed of the train and wheel diameter could also be calculated. The company states that areas of railway track that get between 10 and 20 ten-car trains an hour can be used to produce up to 120KWh of renewable electricity per hour, which can be used by the railways or transferred to the grid.
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